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74 Commits
Author SHA1 Message Date
zzy 54425a50c7 stage1 重构代码 语法上重新实现解包语法 2026-09-17 00:33:03 +08:00
zzy 2a84b61e3d stage1 大量重构 2026-09-16 20:09:24 +08:00
zzy e4347cc3ea stage1 重写进行代码设计并重构 提供diag替换老旧错误处理 2026-09-16 15:21:59 +08:00
zzy 7cbe2d2b9a stage1 重制类型转换系统 修复问题 提供更多表达式 2026-09-16 11:36:29 +08:00
zzy f6a0bce9f0 stage1 vm abi更新 修复更多问题 2026-09-16 10:35:36 +08:00
zzy 09d05e3a34 stage1 指针计算类型的错误修复 as运算符优先级的修改 ir2vm的bug修复 2026-09-15 21:24:58 +08:00
zzy 06f3884c30 stage1 支持指针运算 提供新的类型检查计算 2026-09-15 19:11:01 +08:00
zzy be41a82d55 stage1 支持defer 支持null 支持指针运算 支持*any指针 2026-09-15 11:08:44 +08:00
zzy 983746c797 stage1 支持label break, continue 2026-09-14 19:35:58 +08:00
zzy 3175e04e6e stage1 支持tuple 修复悬垂指针问题 2026-09-14 19:01:33 +08:00
zzy a621e34d51 stage1 支持任意顺序声明 使用eval求值的机制 2026-09-14 18:11:58 +08:00
zzy a1e684f6d4 stage0 修复部分问题 2026-09-14 16:01:33 +08:00
zzy 5073c2b3ea stage1 支持聚合类型方法 2026-09-14 15:36:43 +08:00
zzy 9bdb7f892e stage1 支持结构体初始化 2026-09-14 10:09:32 +08:00
zzy 72ae6d6994 stage1 使用切片表达字符串而非C字符串 提供属性系统 2026-09-13 22:26:41 +08:00
zzy a64a96f9a4 stage1 实现ir2vm 修复nob test命令的构建问题 2026-09-12 18:51:10 +08:00
zzy 87d9b7ea34 stage1 实现并修复ast2ir的核心功能的正确性 2026-09-12 09:46:56 +08:00
zzy 49ccdec3dd stage1 实现更多ast2ir 修复bug 提供内置操作 2026-09-11 19:26:48 +08:00
zzy ab6e99c958 stage1 重新实现ast2ir 2026-09-10 23:20:09 +08:00
zzy bcd26d3021 stage1 实现部分sema 解析数组 2026-09-09 20:21:49 +08:00
zzy 8aa7a89c7e stage1 基于新的ast实现部分sema 2026-09-09 10:47:29 +08:00
zzy 98b35a98e3 stage1 新的ast结构 使用pest描述语法 2026-09-08 13:14:29 +08:00
zzy 34df303b56 stage1 实现部分ast2ir内容并重构stage0 引入并重构ir2vm 构建系统修改部分 2026-08-28 13:01:19 +08:00
zzy 3d57260f3f stage1 实现部分ast2ir内容 2026-08-26 14:55:47 +08:00
zzy f1d86b6e34 stage1 更多的语义以及类型构造器 2026-08-22 19:35:01 +08:00
zzy 0f40de43a1 stage1 更多的语义及其附属基础设施 2026-08-20 19:51:08 +08:00
zzy d6113a5417 stage0 printf的格式化统一 展开strdup 2026-08-19 21:42:06 +08:00
zzy c81a57dacb builder 更改构建方式从python换成nob.h 2026-08-19 21:38:41 +08:00
zzy b2e6ade484 stage1 继续重构sema 提供更多dbg宏用于日志记录 2026-08-19 21:37:40 +08:00
zzy 994a35a942 stage1 重构语义分析 ast2ir ir部分 2026-08-18 11:22:15 +08:00
zzy 4d9509c167 stage1 重构词法分析 2026-08-16 23:23:56 +08:00
zzy d3c63dab5c stage0 重命名 stage1 ast重新整理 2026-08-16 10:51:45 +08:00
zzy 78d767bf21 stage0 修复windows函数没有进入宏包装 2026-08-14 20:42:11 +08:00
zzy 2a7db9e48c stage0 重命名字段 修复windows函数没有进入宏包装 2026-08-14 20:41:09 +08:00
zzy c06d7247bb stage1 人工重构ast以及type部分 修复vm的UB行为 2026-08-14 18:10:58 +08:00
zzy b0e6b406ac stage1 人工重构ast.c 2026-08-12 10:29:38 +08:00
zzy 314100afbc stage1 初步实现 2026-08-06 19:26:30 +08:00
zzy a56b4cbb70 stage0 支持类gdb的调试vm手段 2026-08-06 09:11:15 +08:00
zzy ca7cf221c8 stage1 修复设计问题 实现ir2vm 2026-08-05 19:13:48 +08:00
zzy 2ccee5f1cf stage1 修复设计问题 实现ast2ir 2026-08-05 08:14:23 +08:00
zzy 8ac59dfaa1 stage1 完成sema词法 2026-08-04 10:20:57 +08:00
zzy 74d7376039 stage1 完成ast 定义sema 2026-08-03 12:39:28 +08:00
zzy a4ec5656d2 stage1 完整ast 部分ir 定义 2026-08-01 22:48:42 +08:00
zzy b43042c88d stage1 重构代码 2026-08-01 21:15:47 +08:00
zzy a77eade06f stage0 更改名称spl_ir -> spl_mcode spl_cli提供debug模式 提供临时语言规范 2026-07-29 12:05:18 +08:00
zzy 89d4bae8db stage1 修复错误 提供类型检查 2026-07-25 22:48:35 +08:00
zzy 02095524b1 stage1 修复错误 提供类型检查 2026-07-25 10:28:24 +08:00
zzy da9dae734c stage1 修复错误 提供类型检查 2026-07-22 18:04:35 +08:00
zzy a2d5dd9ce8 stage1 整理代码 修复错误 2026-07-21 20:00:19 +08:00
zzy 7c5bb41e09 stage1 整理代码 提供更多错误信息 2026-07-21 09:56:19 +08:00
zzy 459b6188a9 stage1 - 全面重构 stage1 编译器架构:类型系统(arena + items)、IR 发射层(spl_emit.h/c)、统一所有 emit 调用点。
- 实现 as 类型转换运算符、修复 &&/|| 短路求值 bug。
- 在 splc1.spl 中实现 Vec/Map/Emit 基础库(~50 个方法)。
- 修复实例方法调用中 self 参数被错误丢弃的 bug。
2026-07-20 20:53:41 +08:00
zzy 21f35b30fa stage1 重构代码 2026-07-20 12:10:55 +08:00
zzy ab63c8ed90 stage1 修复vm 提供简单参数检查 修复聚合类型bug 2026-07-14 22:30:19 +08:00
zzy f7f71c5f52 stage1 修复bug 2026-07-13 21:50:28 +08:00
zzy b67edc5cee stage1 修复类型体内部函数前向引用时 CALL 地址错误 2026-07-12 22:16:17 +08:00
zzy 1ceda90207 stage1 修复类型重复解析 修复嵌套结构体字面量无限循环 2026-07-12 14:20:41 +08:00
zzy 9b9b25ce0f stage1 禁止隐式调用 修复bug 2026-07-12 11:43:27 +08:00
zzy 118c153280 stage1 优化重构代码 2026-07-12 10:01:57 +08:00
zzy f1b4225c92 stage1 优化重构代码 2026-07-11 23:18:06 +08:00
zzy 53ae30f1ca stage1 重制18测试用例替换成match 完成现有全部测试 2026-07-11 21:24:52 +08:00
zzy 147f26e063 stage1 修复bug 删除递归测试 2026-07-08 11:45:45 +08:00
zzy 463177d3be stage1 修改部分测试 完成17-19测试 2026-07-07 12:11:49 +08:00
zzy 1df3e3bcb4 stage1 将数组和聚合类型使用byte offset而不是slot idx 2026-07-07 11:38:31 +08:00
zzy 3cf11f922e stage1 优化代码 完成16测试 2026-07-07 10:40:30 +08:00
zzy 69cea030dc stage1 完成15测试 2026-07-06 21:26:27 +08:00
zzy 0892c084ee stage1 完成14测试 2026-07-06 15:18:17 +08:00
zzy ad473f245c stage1 完成11-13测试 2026-07-06 13:00:55 +08:00
zzy 0182b8ed5c stage1 完成09,10测试 2026-07-06 10:52:31 +08:00
zzy 777b6b42d1 stage1 完成07,08测试 2026-07-06 10:44:01 +08:00
zzy 5dadf6d6ee stage1 重构到 USIZE, 使得 vm 支持 usize, isize 2026-07-06 00:07:39 +08:00
zzy 67c8a137dd stage1 实现06测试 2026-07-05 22:47:00 +08:00
zzy e2e0ebc21f stage1 重构测试且成功00-05 2026-07-05 21:45:43 +08:00
zzy 51d8510b79 stage1 部分功能测试00,01,02,06成功 2026-07-05 18:23:33 +08:00
zzy 50b07074fb stage0 2026-07-03 22:27:50 +08:00
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+9
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!.gitignore
build/
*.sir
*.o
*.obj
*.old
*.exe
*.out
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@@ -0,0 +1,427 @@
Root = { SOI ~ ContainerMembers ~ EOI }
ContainerMembers = { ExternalHeaderList ~ (ContainerDeclaration ~ (COMMA | SEMICOLON)*)* }
HeaderItem = { (AT | SHARP) ~ IDENTIFIER ~ (LPAREN ~ ExprList? ~ RPAREN)? }
HeaderList = { HeaderItem* }
DeclHeader = { HeaderList? ~ KEYWORD_pub? }
ExternalHeaderItem = { (AT | SHARP) ~ BANG ~ IDENTIFIER ~ (LPAREN ~ ExprList? ~ RPAREN)? }
ExternalHeaderList = { ExternalHeaderItem* }
BindingIdent = { IDENTIFIER | UNDERSCORE }
ContainerDeclaration = {
FnDecl
| VarDecl
| ConstDecl
| TypeDecl
| MemberDecl
| ComptimeDecl
| HeaderList ~ Block
}
ComptimeDecl = { KEYWORD_comptime ~ (Block | Expr) }
FnDecl = {
DeclHeader ~ KEYWORD_comptime? ~ KEYWORD_fn ~ IDENTIFIER ~ LPAREN ~ ParamDeclList ~ RPAREN ~ (COLON ~ TypeExpr)? ~ (SEMICOLON | Block)
}
ParamDeclList = { (ParamDecl ~ COMMA)* ~ (ParamDecl | DOT3)? }
ParamDecl = { HeaderList? ~ BindingIdent ~ COLON ~ TypeExpr }
VarDecl = { DeclHeader ~ KEYWORD_var ~ VarBody }
ConstDecl = { DeclHeader ~ KEYWORD_const ~ VarBody }
VarBody = { Pattern ~ (COLON ~ TypeExpr)? ~ (EQUAL ~ Expr)? }
TypeDecl = { DeclHeader ~ KEYWORD_type ~ IDENTIFIER ~ EQUAL ~ TypeExpr }
MemberDecl = { DeclHeader ~ IDENTIFIER ~ (COLON ~ TypeExpr)? ~ (EQUAL ~ Expr)? }
Pattern = { PatternAtom ~ (COMMA ~ PatternAtom)* }
PatternAtom = {
UNDERSCORE
| AnonymousAggregatePattern
| DOT ~ IDENTIFIER ~ (LPAREN ~ Pattern? ~ RPAREN)?
| LPAREN ~ Pattern? ~ RPAREN
| PatternLiteral
| IDENTIFIER
}
AnonymousAggregatePattern = { DOT ~ LBRACE ~ PatternFieldList? ~ RBRACE }
PatternFieldList = { PatternField ~ ((COMMA | SEMICOLON) ~ PatternField)* ~ (COMMA | SEMICOLON)? }
PatternField = { DOT ~ IDENTIFIER ~ (EQUAL ~ PatternAtom)? }
PatternLiteral = {
FLOAT_LITERAL
| INTEGER_LITERAL
| CHAR_LITERAL
| STRING_LITERAL
| KEYWORD_true
| KEYWORD_false
| KEYWORD_null
}
Block = { LBRACE ~ Statement* ~ Expr? ~ RBRACE }
Statement = {
RetStatement
| BreakStatement
| ContinueStatement
| DeferStatement
| DeclStatement
| ExprStatement
| ComptimeStatement
}
DeclStatement = { (VarDecl | ConstDecl | TypeDecl) ~ (COMMA | SEMICOLON)? }
ExprStatement = { Expr ~ (COMMA | SEMICOLON)? }
ComptimeStatement = { ComptimeDecl ~ (COMMA | SEMICOLON)? }
RetStatement = { KEYWORD_ret ~ Expr? ~ (COMMA | SEMICOLON)? }
BreakStatement = { KEYWORD_break ~ Label? ~ Expr? ~ (COMMA | SEMICOLON)? }
ContinueStatement = { KEYWORD_continue ~ Label? ~ (COMMA | SEMICOLON)? }
DeferStatement = { KEYWORD_defer ~ (Block | Statement) ~ (COMMA | SEMICOLON)? }
Label = { DOLLAR ~ IDENTIFIER }
Expr = { AssignExpr }
AssignExpr = { BoolOrExpr ~ (AssignOp ~ AssignExpr)? }
BoolOrExpr = { BoolAndExpr ~ (BOOL_OR ~ BoolAndExpr)* }
BoolAndExpr = { BitOrExpr ~ (BOOL_AND ~ BitOrExpr)* }
BitOrExpr = { BitXorExpr ~ (PIPE ~ BitXorExpr)* }
BitXorExpr = { BitAndExpr ~ (CARET ~ BitAndExpr)* }
BitAndExpr = { CmpEqExpr ~ (AMPERSAND ~ CmpEqExpr)* }
CmpEqExpr = { CmpExpr ~ ((EQ_EQ | BANG_EQUAL) ~ CmpExpr)* }
CmpExpr = { ArrowExpr ~ ((L_ARROW_EQ | L_ARROW | R_ARROW_EQ | R_ARROW) ~ ArrowExpr)* }
ArrowExpr = { RangeExpr ~ ((THIN_R_ARROW | THIN_L_ARROW | FAT_D_ARROW | THIN_D_ARROW) ~ RangeExpr)* }
RangeExpr = { ShiftExpr ~ (DOT2 ~ ShiftExpr?)? }
ShiftExpr = { AddExpr ~ ((L_ARROW2_EQ | L_ARROW2 | R_ARROW2_EQ | R_ARROW2) ~ AddExpr)* }
AddExpr = { MulExpr ~ ((PLUS | MINUS) ~ MulExpr)* }
MulExpr = { CastExpr ~ ((ASTERISK | SLASH | PERCENT) ~ CastExpr)* }
CastExpr = { PrefixExpr ~ (KEYWORD_as ~ TypeExpr)* }
PrefixExpr = { PrefixOp* ~ PostfixExpr }
PrefixOp = { MINUS | BANG | TILDE | AMPERSAND }
PostfixExpr = {
PrimaryExpr ~ (LPAREN ~ ExprList ~ RPAREN | DOT ~ IDENTIFIER | DOT ~ ASTERISK | LBRACKET ~ Expr ~ RBRACKET | LBRACKET ~ Expr ~ DOT2 ~ Expr? ~ RBRACKET)*
}
ExprList = { (Expr ~ COMMA)* ~ Expr? }
PrimaryExpr = {
FLOAT_LITERAL
| INTEGER_LITERAL
| CHAR_LITERAL
| STRING_LITERAL
| KEYWORD_true
| KEYWORD_false
| KEYWORD_null
| TupleLiteral
| AggregateLiteral
| AnonymousAggregateLiteral
| ArrayLiteral
| AnonymousArrayLiteral
| VariantConstruct
| ComptimeCallExpr
| IDENTIFIER
| Block
| IfExpr
| IfVarExpr
| WhileExpr
| LoopExpr
| ForExpr
| MatchExpr
| FnTypeExpr
}
TupleLiteral = { ParenExpr }
AggregateLiteral = { IDENTIFIER ~ LBRACE ~ StructInitList? ~ RBRACE }
AnonymousAggregateLiteral = { DOT ~ LBRACE ~ StructInitList? ~ RBRACE }
StructInitList = { StructInit ~ ((COMMA | SEMICOLON) ~ StructInit)* ~ (COMMA | SEMICOLON)? }
StructInit = { DOT ~ IDENTIFIER ~ (EQUAL ~ Expr)? }
VariantConstruct = { DOT ~ IDENTIFIER ~ (LPAREN ~ ExprList? ~ RPAREN)? }
ArrayLiteral = {
LBRACKET ~ RBRACKET ~ TypeExpr ~ LBRACKET ~ ExprList? ~ RBRACKET
| LBRACKET ~ (INTEGER_LITERAL | UNDERSCORE) ~ RBRACKET ~ TypeExpr ~ LBRACKET ~ ExprList? ~ RBRACKET
}
AnonymousArrayLiteral = {
DOT ~ LBRACKET ~ ExprList? ~ RBRACKET
}
ExprNoStruct = { AssignExprNoStruct }
AssignExprNoStruct = { BoolOrExprNoStruct ~ (AssignOp ~ AssignExprNoStruct)? }
BoolOrExprNoStruct = { BoolAndExprNoStruct ~ (BOOL_OR ~ BoolAndExprNoStruct)* }
BoolAndExprNoStruct = { BitOrExprNoStruct ~ (BOOL_AND ~ BitOrExprNoStruct)* }
BitOrExprNoStruct = { BitXorExprNoStruct ~ (PIPE ~ BitXorExprNoStruct)* }
BitXorExprNoStruct = { BitAndExprNoStruct ~ (CARET ~ BitAndExprNoStruct)* }
BitAndExprNoStruct = { CmpEqExprNoStruct ~ (AMPERSAND ~ CmpEqExprNoStruct)* }
CmpEqExprNoStruct = { CmpExprNoStruct ~ ((EQ_EQ | BANG_EQUAL) ~ CmpExprNoStruct)* }
CmpExprNoStruct = { ArrowExprNoStruct ~ ((L_ARROW_EQ | L_ARROW | R_ARROW_EQ | R_ARROW) ~ ArrowExprNoStruct)* }
ArrowExprNoStruct = { RangeExprNoStruct ~ ((THIN_R_ARROW | THIN_L_ARROW | FAT_D_ARROW | THIN_D_ARROW) ~ RangeExprNoStruct)* }
RangeExprNoStruct = { ShiftExprNoStruct ~ (DOT2 ~ ShiftExprNoStruct?)? }
ShiftExprNoStruct = { AddExprNoStruct ~ ((L_ARROW2_EQ | L_ARROW2 | R_ARROW2_EQ | R_ARROW2) ~ AddExprNoStruct)* }
AddExprNoStruct = { MulExprNoStruct ~ ((PLUS | MINUS) ~ MulExprNoStruct)* }
MulExprNoStruct = { CastExprNoStruct ~ ((ASTERISK | SLASH | PERCENT) ~ CastExprNoStruct)* }
CastExprNoStruct = { PrefixExprNoStruct ~ (KEYWORD_as ~ TypeExpr)* }
PrefixExprNoStruct = { PrefixOp* ~ PostfixExprNoStruct }
PostfixExprNoStruct = {
PrimaryExprNoStruct ~ (LPAREN ~ ExprList ~ RPAREN | DOT ~ IDENTIFIER | DOT ~ ASTERISK | LBRACKET ~ Expr ~ RBRACKET | LBRACKET ~ Expr ~ DOT2 ~ Expr? ~ RBRACKET)*
}
PrimaryExprNoStruct = {
FLOAT_LITERAL
| INTEGER_LITERAL
| CHAR_LITERAL
| STRING_LITERAL
| KEYWORD_true
| KEYWORD_false
| KEYWORD_null
| TupleLiteral
| AnonymousAggregateLiteral
| ArrayLiteral
| AnonymousArrayLiteral
| VariantConstruct
| ComptimeCallExpr
| IDENTIFIER
| Block
| IfExpr
| IfVarExpr
| WhileExpr
| LoopExpr
| ForExpr
| MatchExpr
| FnTypeExpr
}
VarBodyNoStruct = { Pattern ~ (COLON ~ TypeExpr)? ~ (EQUAL ~ ExprNoStruct)? }
TypeExpr = { HeaderList? ~ TypePrefixExpr }
TypePrefixExpr = { ASTERISK* ~ TypePostfixExpr }
TypePostfixExpr = {
TypePrimary ~ (LPAREN ~ TypeExprList ~ RPAREN | DOT ~ IDENTIFIER | LBRACKET ~ TypeExpr ~ RBRACKET | KEYWORD_as ~ TypeExpr)*
}
TypePrimary = {
IDENTIFIER
| KEYWORD_i8
| KEYWORD_u8
| KEYWORD_i16
| KEYWORD_u16
| KEYWORD_i32
| KEYWORD_u32
| KEYWORD_i64
| KEYWORD_u64
| KEYWORD_f32
| KEYWORD_f64
| KEYWORD_isize
| KEYWORD_usize
| KEYWORD_bool
| KEYWORD_void
| KEYWORD_ptr
| FnTypeExpr
| AggregateTypeExpr
| TypeParenExpr
| ArrayTypeExpr
}
ArrayTypeExpr = {
LBRACKET ~ RBRACKET ~ TypeExpr
| LBRACKET ~ (INTEGER_LITERAL | UNDERSCORE) ~ RBRACKET ~ TypeExpr
}
TypeParenExpr = {
LPAREN ~ RPAREN
| LPAREN ~ TypeExpr ~ COMMA ~ (TypeExpr ~ COMMA)* ~ TypeExpr? ~ RPAREN
| LPAREN ~ TypeExpr ~ RPAREN
}
TypeExprList = { (TypeExpr ~ COMMA)* ~ TypeExpr? }
FnTypeExpr = { KEYWORD_comptime? ~ KEYWORD_fn ~ LPAREN ~ TypeExprList? ~ RPAREN ~ (COLON ~ TypeExpr)? }
AggregateTypeExpr = { (KEYWORD_struct | KEYWORD_union | KEYWORD_enum | KEYWORD_shape) ~ LBRACE ~ ContainerMembers ~ RBRACE }
IfExpr = { KEYWORD_if ~ ExprNoStruct ~ Block ~ (KEYWORD_else ~ (Block | IfExpr | IfVarExpr))? }
IfVarExpr = { KEYWORD_if ~ KEYWORD_var ~ VarBodyNoStruct ~ Block ~ (KEYWORD_else ~ (Block | IfExpr | IfVarExpr))? }
WhileExpr = { Label? ~ KEYWORD_while ~ ExprNoStruct ~ Block ~ (KEYWORD_else ~ (Block | Expr))? }
LoopExpr = { Label? ~ KEYWORD_loop ~ Block }
ForExpr = { Label? ~ KEYWORD_for ~ Pattern ~ COLON ~ ExprNoStruct ~ (COMMA ~ ExprNoStruct)* ~ Block ~ (KEYWORD_else ~ (Block | Expr))? }
MatchExpr = { KEYWORD_match ~ ExprNoStruct ~ LBRACE ~ MatchArm* ~ RBRACE }
MatchArm = { Pattern ~ FAT_R_ARROW ~ Block ~ COMMA? }
ComptimeCallExpr = { AT ~ IDENTIFIER ~ LPAREN ~ ExprList? ~ RPAREN }
ParenExpr = {
LPAREN ~ RPAREN
| LPAREN ~ Expr ~ COMMA ~ (Expr ~ COMMA)* ~ Expr? ~ RPAREN
| LPAREN ~ Expr ~ RPAREN
}
AssignOp = { EQUAL | PLUS_EQ | MINUS_EQ | ASTERISK_EQ | SLASH_EQ | PERCENT_EQ | AMPERSAND_EQ | PIPE_EQ | CARET_EQ | L_ARROW2_EQ | R_ARROW2_EQ }
BOOL_OR = { PIPE ~ PIPE }
BOOL_AND = { AMPERSAND ~ AMPERSAND }
EQ_EQ = { EQUAL ~ EQUAL }
BANG_EQUAL = { BANG ~ EQUAL }
keyword_suffix = _{ !(ASCII_ALPHANUMERIC | "_") }
KEYWORD_fn = @{ "fn" ~ keyword_suffix }
KEYWORD_type = @{ "type" ~ keyword_suffix }
KEYWORD_pub = @{ "pub" ~ keyword_suffix }
KEYWORD_var = @{ "var" ~ keyword_suffix }
KEYWORD_const = @{ "const" ~ keyword_suffix }
KEYWORD_if = @{ "if" ~ keyword_suffix }
KEYWORD_else = @{ "else" ~ keyword_suffix }
KEYWORD_while = @{ "while" ~ keyword_suffix }
KEYWORD_loop = @{ "loop" ~ keyword_suffix }
KEYWORD_for = @{ "for" ~ keyword_suffix }
KEYWORD_as = @{ "as" ~ keyword_suffix }
KEYWORD_match = @{ "match" ~ keyword_suffix }
KEYWORD_ret = @{ "ret" ~ keyword_suffix }
KEYWORD_break = @{ "break" ~ keyword_suffix }
KEYWORD_continue = @{ "continue" ~ keyword_suffix }
KEYWORD_defer = @{ "defer" ~ keyword_suffix }
KEYWORD_shape = @{ "shape" ~ keyword_suffix }
KEYWORD_struct = @{ "struct" ~ keyword_suffix }
KEYWORD_union = @{ "union" ~ keyword_suffix }
KEYWORD_enum = @{ "enum" ~ keyword_suffix }
KEYWORD_comptime = @{ "comptime" ~ keyword_suffix }
KEYWORD_void = @{ "void" ~ keyword_suffix }
KEYWORD_bool = @{ "bool" ~ keyword_suffix }
KEYWORD_isize = @{ "isize" ~ keyword_suffix }
KEYWORD_usize = @{ "usize" ~ keyword_suffix }
KEYWORD_ptr = @{ "ptr" ~ keyword_suffix }
KEYWORD_true = @{ "true" ~ keyword_suffix }
KEYWORD_false = @{ "false" ~ keyword_suffix }
KEYWORD_null = @{ "null" ~ keyword_suffix }
KEYWORD_undefined = @{ "undefined" ~ keyword_suffix }
KEYWORD_i8 = @{ "i8" ~ keyword_suffix }
KEYWORD_u8 = @{ "u8" ~ keyword_suffix }
KEYWORD_i16 = @{ "i16" ~ keyword_suffix }
KEYWORD_u16 = @{ "u16" ~ keyword_suffix }
KEYWORD_i32 = @{ "i32" ~ keyword_suffix }
KEYWORD_u32 = @{ "u32" ~ keyword_suffix }
KEYWORD_i64 = @{ "i64" ~ keyword_suffix }
KEYWORD_u64 = @{ "u64" ~ keyword_suffix }
KEYWORD_f32 = @{ "f32" ~ keyword_suffix }
KEYWORD_f64 = @{ "f64" ~ keyword_suffix }
FAT_D_ARROW = { "<=>" }
THIN_D_ARROW = { "<->" }
L_ARROW2_EQ = { "<<=" }
R_ARROW2_EQ = { ">>=" }
DOT3 = { "..." }
THIN_R_ARROW = { "<-" }
THIN_L_ARROW = { "->" }
L_ARROW_EQ = { "<=" }
R_ARROW_EQ = { ">=" }
L_ARROW2 = { "<<" }
R_ARROW2 = { ">>" }
FAT_R_ARROW = { "=>" }
PLUS_EQ = { "+=" }
MINUS_EQ = { "-=" }
ASTERISK_EQ = { "*=" }
SLASH_EQ = { "/=" }
PERCENT_EQ = { "%=" }
AMPERSAND_EQ = { "&=" }
PIPE_EQ = { "|=" }
CARET_EQ = { "^=" }
DOT2 = { ".." }
LPAREN = { "(" }
RPAREN = { ")" }
LBRACKET = { "[" }
RBRACKET = { "]" }
LBRACE = { "{" }
RBRACE = { "}" }
COMMA = { "," }
SEMICOLON = { ";" }
COLON = { ":" }
DOT = { "." }
AT = { "@" }
SHARP = { "#" }
DOLLAR = { "$" }
EQUAL = { "=" }
PLUS = { "+" }
MINUS = { "-" }
ASTERISK = { "*" }
SLASH = { "/" }
PERCENT = { "%" }
AMPERSAND = { "&" }
PIPE = { "|" }
CARET = { "^" }
TILDE = { "~" }
BANG = { "!" }
L_ARROW = { "<" }
R_ARROW = { ">" }
UNDERSCORE = { "_" }
keyword = _{
KEYWORD_fn
| KEYWORD_type
| KEYWORD_var
| KEYWORD_const
| KEYWORD_if
| KEYWORD_else
| KEYWORD_while
| KEYWORD_loop
| KEYWORD_for
| KEYWORD_as
| KEYWORD_match
| KEYWORD_ret
| KEYWORD_break
| KEYWORD_continue
| KEYWORD_defer
| KEYWORD_shape
| KEYWORD_struct
| KEYWORD_union
| KEYWORD_enum
| KEYWORD_comptime
| KEYWORD_void
| KEYWORD_bool
| KEYWORD_true
| KEYWORD_false
| KEYWORD_null
| KEYWORD_undefined
| KEYWORD_i8
| KEYWORD_u8
| KEYWORD_i16
| KEYWORD_u16
| KEYWORD_i32
| KEYWORD_u32
| KEYWORD_i64
| KEYWORD_u64
| KEYWORD_f32
| KEYWORD_f64
| KEYWORD_isize
| KEYWORD_usize
| KEYWORD_ptr
}
IDENTIFIER = @{
!(keyword ~ !(ASCII_ALPHANUMERIC | "_")) ~ (ASCII_ALPHA | "_" ~ (ASCII_ALPHANUMERIC | "_")) ~ (ASCII_ALPHANUMERIC | "_")*
}
INTEGER_LITERAL = { DECIMAL | HEX | BINARY | OCTAL | "0" }
DECIMAL = { ASCII_NONZERO_DIGIT ~ (ASCII_DIGIT | "_")* }
HEX = { "0" ~ ("x" | "X") ~ ASCII_HEX_DIGIT ~ (ASCII_HEX_DIGIT | "_")* }
BINARY = { "0" ~ ("b" | "B") ~ ASCII_BIN_DIGIT ~ (ASCII_BIN_DIGIT | "_")* }
OCTAL = { "0" ~ ("o" | "O") ~ ASCII_OCT_DIGIT ~ (ASCII_OCT_DIGIT | "_")* }
FLOAT_LITERAL = { ASCII_DIGIT ~ "." ~ ASCII_DIGIT ~ (ASCII_DIGIT | "_")* }
CHAR_LITERAL = { "'" ~ (!"'" ~ ANY) ~ "'" }
STRING_LITERAL = { "\"" ~ ANY* ~ "\"" }
COMMENT = _{ LINE_COMMENT | BLOCK_COMMENT }
LINE_COMMENT = { "//" ~ (!"\n" ~ ANY)* }
BLOCK_COMMENT = { "/*" ~ ANY* ~ "*/" }
WHITESPACE = _{ " " | "\t" | "\r" | "\n" }
+430
View File
@@ -0,0 +1,430 @@
#define SPL_CFLAGS "-Wall", "-Wextra", "-O0", "-g", "-D_CRT_SECURE_NO_WARNINGS"
#define nob_cc_flags(cmd) nob_cmd_append(cmd, SPL_CFLAGS)
#undef UNICODE
#define NOB_IMPLEMENTATION
#include "nob.h"
#undef NOB_IMPLEMENTATION
#include "nob_popen.h"
#ifdef _WIN32
#include <consoleapi2.h>
#endif
#define BUILD_FOLDER "build/"
// Content of the .cflags stamp file; must match SPL_CFLAGS above.
#define CFLAGS_STR "-Wall -Wextra -O0 -g"
// Stamp file whose mtime is refreshed whenever the flags change so that all
// object files get rebuilt.
static const char *CFLAGS_STAMP = BUILD_FOLDER ".cflags";
/* clang-format off */
#define VM_SRCS "stage0/spl_mcode.c", "stage0/spl_syscall.c", "stage0/spl_vm.c",
static const char *spl_cli_srcs[] = {"stage0/spl_cli.c", VM_SRCS};
static const char *test_srcs[] = {"stage0/test_spl_vm.c", VM_SRCS};
static const char *splc0_srcs[] = {
"stage1/splc0.c",
"stage1/spl_diag.c",
"stage1/spl_tok.c",
"stage1/spl_lexer.c",
"stage1/spl_ast.c",
"stage1/spl_parser.c",
"stage1/spl_dumptree.c",
"stage1/spl_type.c",
"stage1/spl_lang_type.c",
"stage1/spl_attr.c",
"stage1/spl_scope.c",
"stage1/spl_sema.c",
"stage1/spl_intrin.c",
"stage1/spl_ir.c",
"stage1/spl_ast2ir.c",
"stage1/spl_layout.c",
"stage1/spl_ir2vm.c",
"stage0/spl_mcode.c",
};
/* clang-format on */
typedef struct {
const char *name;
const char **srcs;
size_t srcs_count;
} target_t;
static target_t exe_targets[] = {
{"spl_cli", spl_cli_srcs, NOB_ARRAY_LEN(spl_cli_srcs)},
{"test", test_srcs, NOB_ARRAY_LEN(test_srcs)},
{"splc0", splc0_srcs, NOB_ARRAY_LEN(splc0_srcs)},
};
static const target_t *find_exe_target(const char *name) {
for (size_t i = 0; i < NOB_ARRAY_LEN(exe_targets); ++i) {
if (strcmp(exe_targets[i].name, name) == 0) {
return &exe_targets[i];
}
}
return NULL;
}
static const char *obj_path(const char *src) {
// "stage0/spl_vm.c" -> "build/stage0_spl_vm.o"
size_t prefix_len = strlen(BUILD_FOLDER);
char *out = (char *)nob_temp_alloc(prefix_len + strlen(src) + 2 + 1);
char *w = out;
memcpy(w, BUILD_FOLDER, prefix_len);
w += prefix_len;
for (const char *p = src; *p && *p != '.'; ++p) {
*w++ = (*p == '/' || *p == '\\') ? '_' : *p;
}
memcpy(w, ".o", 3);
return out;
}
static bool sync_cflags_stamp(void) {
Nob_String_View cflags = nob_sv_from_cstr(CFLAGS_STR);
Nob_String_Builder old = {0};
bool changed = true;
if (nob_file_exists(CFLAGS_STAMP) && nob_read_entire_file(CFLAGS_STAMP, &old)) {
changed = !nob_sv_eq(nob_sb_to_sv(old), cflags);
}
nob_sb_free(old);
if (changed) {
if (!nob_write_entire_file(CFLAGS_STAMP, cflags.data, cflags.count)) {
return false;
}
}
return true;
}
static bool prepare_build(void) {
if (!nob_mkdir_if_not_exists(BUILD_FOLDER))
return false;
return sync_cflags_stamp();
}
static bool build_object(const char *src) {
const char *obj = obj_path(src);
if (!nob_file_exists(src)) {
nob_log(NOB_ERROR, "source file `%s` does not exist", src);
return false;
}
const char *inputs[] = {src, CFLAGS_STAMP};
int needs = nob_needs_rebuild(obj, inputs, NOB_ARRAY_LEN(inputs));
if (needs < 0)
return false;
if (needs == 0)
return true;
Nob_Cmd cmd = {0};
nob_cc(&cmd);
nob_cc_flags(&cmd);
nob_cmd_append(&cmd, "-c");
nob_cc_inputs(&cmd, src);
nob_cc_output(&cmd, obj);
return nob_cmd_run(&cmd);
}
static bool link_exe(const target_t *target) {
const char *exe = nob_temp_sprintf(BUILD_FOLDER "%s", target->name);
const char **objs = (const char **)nob_temp_alloc(sizeof(const char *) * target->srcs_count);
for (size_t i = 0; i < target->srcs_count; ++i) {
objs[i] = obj_path(target->srcs[i]);
}
int needs = nob_needs_rebuild(exe, objs, target->srcs_count);
if (needs < 0)
return false;
if (needs == 0)
return true;
Nob_Cmd cmd = {0};
nob_cc(&cmd);
nob_cc_flags(&cmd);
for (size_t i = 0; i < target->srcs_count; ++i) {
nob_cc_inputs(&cmd, objs[i]);
}
nob_cc_output(&cmd, exe);
return nob_cmd_run(&cmd);
}
static bool build_target(const char *name) {
const target_t *target = find_exe_target(name);
if (target == NULL) {
nob_log(NOB_ERROR, "unknown target `%s`", name);
return false;
}
for (size_t i = 0; i < target->srcs_count; ++i) {
if (!build_object(target->srcs[i])) {
return false;
}
}
return link_exe(target);
}
static bool build_all(void) {
for (size_t i = 0; i < NOB_ARRAY_LEN(exe_targets); ++i) {
if (!build_target(exe_targets[i].name)) {
return false;
}
}
return true;
}
static void parse_expect(const char *name, Nob_Cmd_Result *expect) {
Nob_String_Builder sb = {0};
nob_read_entire_file(name, &sb);
Nob_String_View sv = nob_sb_to_sv(sb);
while (sv.count > 0) {
Nob_String_View line = nob_sv_chop_by_delim(&sv, '\n');
line = nob_sv_trim_left(line); // 去掉前导空格
if (!nob_sv_starts_with(line, nob_sv_from_cstr("//"))) {
break;
}
Nob_String_View rest = nob_sv_from_parts(line.data + 2, line.count - 2);
rest = nob_sv_trim_left(rest);
if (rest.count == 0)
continue;
if (!nob_sv_starts_with(rest, nob_sv_from_cstr("Expect"))) {
break;
}
rest = nob_sv_from_parts(rest.data + 6, rest.count - 6);
rest = nob_sv_trim_left(rest);
// 按 '=' 分割
Nob_String_View key = nob_sv_chop_by_delim(&rest, '=');
key = nob_sv_trim(key);
Nob_String_View value = nob_sv_trim(rest);
if (nob_sv_eq(key, nob_sv_from_cstr("retcode"))) {
int val = 0;
for (size_t i = 0; i < value.count && isdigit(value.data[i]); ++i) {
val = val * 10 + (value.data[i] - '0');
}
// printf("expected code %d\n", val);
expect->exit_code = val;
} else if (nob_sv_eq(key, nob_sv_from_cstr("stdout"))) {
}
}
}
static bool test_once(const char *fname, void *user_data) {
(void)user_data;
const char *compiler_path = "splc0";
const char *cli_path = "spl_cli";
const char *target_sir = BUILD_FOLDER "test.sir";
Nob_Cmd cmd = {0};
if (!build_target(compiler_path)) {
return 1;
}
cmd.count = 0;
nob_cmd_append(&cmd, nob_temp_sprintf(BUILD_FOLDER "%s", compiler_path));
nob_cmd_append(&cmd, fname, target_sir);
if (!nob_cmd_run(&cmd)) {
return false;
}
if (!build_target(cli_path)) {
return 1;
}
cmd.count = 0;
nob_cmd_append(&cmd, nob_temp_sprintf(BUILD_FOLDER "%s", cli_path));
nob_cmd_append(&cmd, target_sir);
// nob_cmd_run(&cmd);
Nob_Cmd_Result result = {0};
Nob_String_Builder cmd_str = {0};
nob_cmd_render(cmd, &cmd_str);
Nob_String_View sv = nob_sb_to_sv(cmd_str);
nob_cmd_capture_popen(nob_temp_sv_to_cstr(sv), &result);
// Expect retcode = number
Nob_Cmd_Result expect = {0};
parse_expect(fname, &expect);
if (expect.exit_code != result.exit_code) {
nob_log(NOB_ERROR, "Expect code `%d`, Result code `%d`", expect.exit_code,
result.exit_code);
return false;
}
nob_cmd_result_free(result);
return true;
}
static bool test_once_with_dump(const char *fname, void *user_data) {
const char *target_name = "splc0";
if (!prepare_build())
return 1;
if (!build_target(target_name))
return 1;
Nob_Cmd cmd = {0};
nob_cmd_append(&cmd, nob_temp_sprintf(BUILD_FOLDER "%s", target_name));
nob_cmd_append(&cmd, "--dump", (char *)user_data, fname, BUILD_FOLDER "t.sir");
return nob_cmd_run(&cmd);
}
typedef bool (*test_fn_t)(const char *fname, void *user_data);
static bool run_test(Nob_Files *files, test_fn_t test_once, void *user_data) {
const char *test_folder = "./tests/stage1/";
if (!prepare_build()) {
return 1;
}
Nob_File_Paths paths = {0};
nob_read_entire_dir(test_folder, &paths);
for (int i = 0; i < files->count; i += 1) {
for (int j = 0; j < paths.count; j += 1) {
String_View sv = sv_from_cstr(paths.items[j]);
// printf("--- test " SV_Fmt " ---\n", SV_Arg(sv));
if (!strstr(paths.items[j], files->items[i])) {
continue;
}
const char *tname = nob_temp_sprintf("%s%s", test_folder, paths.items[j]);
printf("--- test %s ---\n", tname);
if (test_once(tname, user_data) == false)
return false;
}
}
return true;
}
static bool delete_walk_entry(Nob_Walk_Entry entry) { return nob_delete_file(entry.path); }
static bool delete_directory_recursively(const char *dir_path) {
return nob_walk_dir(dir_path, delete_walk_entry, .post_order = true);
}
static void print_help(const char *program_name) {
nob_log(NOB_INFO, "SPL C-side bootstrap build system (nob)");
nob_log(NOB_INFO, "%s", " ");
nob_log(NOB_INFO, "Usage: %s <command> [args...]", program_name);
nob_log(NOB_INFO, "%s", " ");
nob_log(NOB_INFO, "Commands:");
nob_log(NOB_INFO, " build [targets...] build all targets or the given ones");
nob_log(NOB_INFO, " run <target> [args] build and run a target");
nob_log(NOB_INFO, " test build and run VM unit tests");
nob_log(NOB_INFO, " clean remove build artifacts");
nob_log(NOB_INFO, " list list all targets");
nob_log(NOB_INFO, " help/-h/--help print this help message");
nob_log(NOB_INFO, "%s", " ");
nob_log(NOB_INFO, "Targets:");
for (size_t i = 0; i < NOB_ARRAY_LEN(exe_targets); ++i) {
nob_log(NOB_INFO, " %s", exe_targets[i].name);
}
}
int main(int argc, char **argv) {
#ifdef _WIN32
SetConsoleOutputCP(CP_UTF8);
#endif
NOB_GO_REBUILD_URSELF_PLUS(argc, argv, "nob.h", "nob_popen.h");
set_log_handler(nob_cancer_log_handler);
const char *program_name = nob_shift(argv, argc);
const char *command_name = "build";
if (argc > 0) {
command_name = nob_shift(argv, argc);
}
if (strcmp(command_name, "build") == 0) {
if (!prepare_build())
return 1;
if (argc > 0) {
while (argc > 0) {
const char *target_name = nob_shift(argv, argc);
if (!build_target(target_name))
return 1;
}
} else {
if (!build_all())
return 1;
}
return 0;
}
if (strcmp(command_name, "run") == 0) {
if (argc <= 0) {
nob_log(NOB_ERROR, "usage: %s run <target> [args...]", program_name);
return 1;
}
const char *target_name = nob_shift(argv, argc);
if (!prepare_build())
return 1;
if (!build_target(target_name))
return 1;
Nob_Cmd cmd = {0};
nob_cmd_append(&cmd, nob_temp_sprintf(BUILD_FOLDER "%s", target_name));
while (argc > 0) {
nob_cmd_append(&cmd, nob_shift(argv, argc));
}
return nob_cmd_run(&cmd) ? 0 : 1;
}
if (strcmp(command_name, "test") == 0) {
Nob_Files files = {0};
test_fn_t tfn = test_once;
const char *mode_name = NULL;
if (argc > 0) {
mode_name = nob_shift(argv, argc);
if (strcmp(mode_name, "lex") == 0 || strcmp(mode_name, "ast") == 0 ||
strcmp(mode_name, "sema") == 0 || strcmp(mode_name, "ir") == 0 ||
strcmp(mode_name, "vm") == 0) {
tfn = test_once_with_dump;
} else if (strcmp(mode_name, "run") == 0) {
// HACK
Nob_Cmd cmd = {0};
nob_cmd_append(&cmd, BUILD_FOLDER "spl_cli", "-d");
nob_cmd_append(&cmd, BUILD_FOLDER "test.sir");
return nob_cmd_run(&cmd) ? 0 : 1;
} else {
da_append(&files, mode_name);
}
}
while (argc > 0) {
da_append(&files, nob_shift(argv, argc));
}
return run_test(&files, tfn, (void *)mode_name) ? 0 : 1;
}
if (strcmp(command_name, "clean") == 0) {
if (nob_file_exists(BUILD_FOLDER)) {
if (!delete_directory_recursively(BUILD_FOLDER))
return 1;
}
nob_log(NOB_INFO, "cleaned %s", BUILD_FOLDER);
return 0;
}
if (strcmp(command_name, "list") == 0) {
for (size_t i = 0; i < NOB_ARRAY_LEN(exe_targets); ++i) {
nob_log(NOB_INFO, "%s:", exe_targets[i].name);
for (size_t j = 0; j < exe_targets[i].srcs_count; ++j) {
nob_log(NOB_INFO, " %s", exe_targets[i].srcs[j]);
}
}
return 0;
}
if (strcmp(command_name, "help") == 0 || strcmp(command_name, "-h") == 0 ||
strcmp(command_name, "--help") == 0) {
print_help(program_name);
return 0;
}
nob_log(NOB_ERROR, "unknown command `%s`", command_name);
print_help(program_name);
return 1;
}
+3391
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File diff suppressed because it is too large. Load diff
+145
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@@ -0,0 +1,145 @@
#ifndef __NOB_POPEN_H__
#define __NOB_POPEN_H__
#include "nob.h"
typedef struct {
Nob_String_Builder out; // stdout 内容
int exit_code; // 实际退出码
bool ok; // 是否成功启动
} Nob_Cmd_Result;
typedef struct {
const char **items;
int capacity;
int count;
} Nob_Files;
// 运行命令,捕获 stdout(Windows 下会合并 stderr)和真实退出码。
// 返回 true 仅表示命令成功启动并完成,不代表 exit_code == 0。
bool nob_cmd_capture_popen(const char *tname, Nob_Cmd_Result *res) {
memset(res, 0, sizeof(*res));
#ifdef _WIN32
// ---------- Windows: CreateProcessA + 匿名管道 ----------
SECURITY_ATTRIBUTES sa = {0};
sa.nLength = sizeof(sa);
sa.bInheritHandle = TRUE;
sa.lpSecurityDescriptor = NULL;
HANDLE hRead = NULL;
HANDLE hWrite = NULL;
if (!CreatePipe(&hRead, &hWrite, &sa, 0)) {
nob_log(NOB_ERROR, "CreatePipe failed: %s", nob_win32_error_message(GetLastError()));
return false;
}
// 读端不能被继承,否则父进程 ReadFile 永远等不到 EOF
if (!SetHandleInformation(hRead, HANDLE_FLAG_INHERIT, 0)) {
nob_log(NOB_ERROR, "SetHandleInformation failed: %s",
nob_win32_error_message(GetLastError()));
CloseHandle(hRead);
CloseHandle(hWrite);
return false;
}
STARTUPINFOA si = {0};
si.cb = sizeof(si);
si.dwFlags = STARTF_USESTDHANDLES;
si.hStdInput = GetStdHandle(STD_INPUT_HANDLE);
si.hStdOutput = hWrite;
si.hStdError = hWrite; // 把 stderr 也并入 out,需要分离的话另开一条管道
PROCESS_INFORMATION pi = {0};
// CreateProcessA 会就地修改 lpCommandLine,必须传可写缓冲
char *cmdline = NULL;
{
size_t n = strlen(tname) + 1;
cmdline = (char *)malloc(n);
if (!cmdline) {
CloseHandle(hRead);
CloseHandle(hWrite);
nob_log(NOB_ERROR, "malloc failed");
return false;
}
memcpy(cmdline, tname, n);
}
BOOL ok = CreateProcessA(NULL, // lpApplicationName: 让系统从 lpCommandLine 里解析
cmdline, // lpCommandLine
NULL, // lpProcessAttributes
NULL, // lpThreadAttributes
TRUE, // bInheritHandles: 必须为 TRUE,才能继承管道写端
CREATE_NO_WINDOW, // 不弹黑窗;想弹就传 0
NULL, // lpEnvironment
NULL, // lpCurrentDirectory
&si, &pi);
free(cmdline);
// 无论成功与否,父进程都不再需要写端(子进程已持有自己的副本)
CloseHandle(hWrite);
if (!ok) {
nob_log(NOB_ERROR, "CreateProcessA failed for \"%s\": %s", tname,
nob_win32_error_message(GetLastError()));
CloseHandle(hRead);
return false;
}
// ---------- 读取 stdout ----------
{
char buffer[4096];
DWORD n = 0;
while (ReadFile(hRead, buffer, sizeof(buffer), &n, NULL) && n > 0) {
nob_sb_append_buf(&res->out, buffer, (size_t)n);
}
}
CloseHandle(hRead);
// ---------- 等待并取真实退出码 ----------
WaitForSingleObject(pi.hProcess, INFINITE);
DWORD code = 0;
if (!GetExitCodeProcess(pi.hProcess, &code)) {
nob_log(NOB_ERROR, "GetExitCodeProcess failed: %s",
nob_win32_error_message(GetLastError()));
code = (DWORD)-1;
}
res->exit_code = (int)code;
CloseHandle(pi.hProcess);
CloseHandle(pi.hThread);
#else
// ---------- POSIX: popen ----------
FILE *fp = popen(tname, "r");
if (!fp) {
nob_log(NOB_ERROR, "popen failed: %s", strerror(errno));
return false;
}
char buffer[4096];
while (fgets(buffer, sizeof(buffer), fp)) {
nob_sb_append_cstr(&res->out, buffer);
}
int status = pclose(fp);
if (status == -1) {
nob_log(NOB_ERROR, "pclose failed: %s", strerror(errno));
return false;
}
if (WIFEXITED(status))
status = WEXITSTATUS(status);
else if (WIFSIGNALED(status))
status = 128 + WTERMSIG(status);
res->exit_code = status;
#endif
res->ok = true;
return true;
}
#define nob_cmd_result_free(res) nob_sb_free((res).out)
#endif /* __NOB_POPEN_H__ */
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+61
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@@ -0,0 +1,61 @@
/**
* @file color.h
* @brief ANSI终端颜色控制码定义
*
* 提供跨平台的终端文本颜色和样式控制支持
*/
#ifndef __SCC_TERMINAL_COLOR_H__
#define __SCC_TERMINAL_COLOR_H__
/* clang-format off */
/// @name 前景色控制码
/// @{
#define ANSI_FG_BLACK "\33[30m" ///< 黑色前景
#define ANSI_FG_RED "\33[31m" ///< 红色前景
#define ANSI_FG_GREEN "\33[32m" ///< 绿色前景
#define ANSI_FG_YELLOW "\33[33m" ///< 黄色前景
#define ANSI_FG_BLUE "\33[34m" ///< 蓝色前景
#define ANSI_FG_MAGENTA "\33[35m" ///< 品红色前景
#define ANSI_FG_CYAN "\33[36m" ///< 青色前景
#define ANSI_FG_WHITE "\33[37m" ///< 白色前景
/// @}
/// @name 背景色控制码
/// @{
#define ANSI_BG_BLACK "\33[40m" ///< 黑色背景
#define ANSI_BG_RED "\33[41m" ///< 红色背景
#define ANSI_BG_GREEN "\33[42m" ///< 绿色背景
#define ANSI_BG_YELLOW "\33[43m" ///< 黄色背景
#define ANSI_BG_BLUE "\33[44m" ///< 蓝色背景
#define ANSI_BG_MAGENTA "\33[45m" ///< 品红色背景(注:原始代码此处应为45m)
#define ANSI_BG_CYAN "\33[46m" ///< 青色背景
#define ANSI_BG_WHITE "\33[47m" ///< 白色背景
/// @}
/// @name 文字样式控制码
/// @{
#define ANSI_UNDERLINED "\33[4m" ///< 下划线样式
#define ANSI_BOLD "\33[1m" ///< 粗体样式
#define ANSI_NONE "\33[0m" ///< 重置所有样式
/// @}
/* clang-format on */
/**
* @def ANSI_FMT
* @brief 安全文本格式化宏
* @param str 目标字符串
* @param fmt ANSI格式序列(可组合多个样式)
*
* @note 当定义ANSI_FMT_DISABLE时自动禁用颜色输出
* @code
* printf(ANSI_FMT("Warning!", ANSI_FG_YELLOW ANSI_BOLD));
* @endcode
*/
#ifndef ANSI_FMT_DISABLE
#define ANSI_FMT(str, fmt) fmt str ANSI_NONE ///< 启用样式包裹
#else
#define ANSI_FMT(str, fmt) str ///< 禁用样式输出
#endif
#endif /* __SCC_TERMINAL_COLOR_H__ */
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#ifndef __CORE_MAP_H__
#define __CORE_MAP_H__
#include <stddef.h>
#include <stdint.h>
#include <stdlib.h>
#include <string.h>
#ifndef nullptr
#define nullptr NULL
#endif
typedef uintptr_t usize;
typedef intptr_t isize;
#define MAP_TYPEOF __typeof__
/* 状态常量 */
#define __MAP_SLOT_EMPTY 0
#define __MAP_SLOT_OCCUPIED 1
#define __MAP_SLOT_DELETED 2
/* 默认负载因子 factor/128 */
#define MAP_DEFAULT_LOAD_FACTOR 70
/* ---------- 默认哈希/比较函数 ---------- */
#define MAP_HASH_INT(k) ((usize)((k) * 2654435761U))
#define MAP_CMP_INT(a, b) ((a) != (b))
static inline usize map_hash_str(const char *s) {
usize h = 5381;
while (*s)
h = ((h << 5) + h) + (unsigned char)*s++;
return h;
}
#define MAP_HASH_STR map_hash_str
#define MAP_CMP_STR strcmp
/* ---------- 数据结构宏 ---------- */
#define MAP_SLOT(key_t, val_t) \
struct { \
key_t key; \
val_t val; \
char state; \
}
#define MAP(key_t, val_t) \
struct { \
usize size; \
usize cap; \
MAP_SLOT(key_t, val_t) * data; \
usize (*hash)(key_t); \
int (*cmp)(key_t, key_t); \
}
/* ---------- 操作宏 ---------- */
/** 初始化,必须提供哈希和比较函数 */
#define map_init(map, hash_fn, cmp_fn) \
do { \
(map).size = 0; \
(map).cap = 0; \
(map).data = nullptr; \
(map).hash = (hash_fn); \
(map).cmp = (cmp_fn); \
} while (0)
/** 释放内部数组 */
#define map_free(map) \
do { \
free((map).data); \
(map).data = nullptr; \
(map).size = (map).cap = 0; \
} while (0)
/** 遍历所有有效元素 */
#define map_for(map, idx) \
for (usize(idx) = 0; (idx) < (map).cap; ++(idx)) \
if ((map).data[(idx)].state == __MAP_SLOT_OCCUPIED)
#define unsafe_map_at(map, idx) ((map).data[(idx)])
/**
* 插入(若键已存在则更新值)
* 注意:扩容使用 realloc,失败会 abort(可自行修改错误处理)
*/
#define map_put(map, _key, _val) \
do { \
/* 扩容 */ \
if ((map).cap == 0 || (map).size * 128 / (map).cap >= MAP_DEFAULT_LOAD_FACTOR) { \
usize new_cap = (map).cap == 0 ? 8 : (map).cap * 2; \
MAP_SLOT(MAP_TYPEOF((map).data->key), MAP_TYPEOF((map).data->val)) *new_data = \
calloc(new_cap, sizeof(*new_data)); \
if (!new_data) \
abort(); \
/* 重新插入旧元素 */ \
for (usize _i = 0; _i < (map).cap; ++_i) { \
if ((map).data[_i].state == __MAP_SLOT_OCCUPIED) { \
usize _h = (map).hash((map).data[_i].key) & (new_cap - 1); \
while (new_data[_h].state == __MAP_SLOT_OCCUPIED) \
_h = (_h + 1) & (new_cap - 1); \
new_data[_h].key = (map).data[_i].key; \
new_data[_h].val = (map).data[_i].val; \
new_data[_h].state = __MAP_SLOT_OCCUPIED; \
} \
} \
free((map).data); \
(map).data = (void *)new_data; \
(map).cap = new_cap; \
} \
/* 查找或插入 */ \
usize _mask = (map).cap - 1; \
usize _idx = (map).hash(_key) & _mask; \
usize _first_del = (usize) - 1; \
while ((map).data[_idx].state != __MAP_SLOT_EMPTY) { \
if ((map).data[_idx].state == __MAP_SLOT_OCCUPIED && \
(map).cmp((map).data[_idx].key, _key) == 0) { \
(map).data[_idx].val = _val; \
break; \
} \
if ((map).data[_idx].state == __MAP_SLOT_DELETED && _first_del == (usize) - 1) \
_first_del = _idx; \
_idx = (_idx + 1) & _mask; \
} \
if ((map).data[_idx].state == __MAP_SLOT_EMPTY) { \
usize _target = (_first_del != (usize) - 1) ? _first_del : _idx; \
(map).data[_target].key = _key; \
(map).data[_target].val = _val; \
(map).data[_target].state = __MAP_SLOT_OCCUPIED; \
++(map).size; \
} \
} while (0)
/**
* 插入(仅当键不存在时),若键已存在则静默跳过,不更新值
* 与 map_put 的差异仅在"键已存在时":map_put 更新值,map_put_new 放弃
*/
#define map_put_new(map, _key, _val) \
do { \
/* 扩容 */ \
if ((map).cap == 0 || (map).size * 128 / (map).cap >= MAP_DEFAULT_LOAD_FACTOR) { \
usize new_cap = (map).cap == 0 ? 8 : (map).cap * 2; \
MAP_SLOT(MAP_TYPEOF((map).data->key), MAP_TYPEOF((map).data->val)) *new_data = \
calloc(new_cap, sizeof(*new_data)); \
if (!new_data) \
abort(); \
/* 重新插入旧元素 */ \
for (usize _i = 0; _i < (map).cap; ++_i) { \
if ((map).data[_i].state == __MAP_SLOT_OCCUPIED) { \
usize _h = (map).hash((map).data[_i].key) & (new_cap - 1); \
while (new_data[_h].state == __MAP_SLOT_OCCUPIED) \
_h = (_h + 1) & (new_cap - 1); \
new_data[_h].key = (map).data[_i].key; \
new_data[_h].val = (map).data[_i].val; \
new_data[_h].state = __MAP_SLOT_OCCUPIED; \
} \
} \
free((map).data); \
(map).data = (void *)new_data; \
(map).cap = new_cap; \
} \
/* 查找 */ \
usize _mask = (map).cap - 1; \
usize _idx = (map).hash(_key) & _mask; \
usize _first_del = (usize) - 1; \
while ((map).data[_idx].state != __MAP_SLOT_EMPTY) { \
if ((map).data[_idx].state == __MAP_SLOT_OCCUPIED && \
(map).cmp((map).data[_idx].key, _key) == 0) { \
break; /* 已存在,不更新 */ \
} \
if ((map).data[_idx].state == __MAP_SLOT_DELETED && _first_del == (usize) - 1) \
_first_del = _idx; \
_idx = (_idx + 1) & _mask; \
} \
if ((map).data[_idx].state == __MAP_SLOT_EMPTY) { \
usize _target = (_first_del != (usize) - 1) ? _first_del : _idx; \
(map).data[_target].key = _key; \
(map).data[_target].val = _val; \
(map).data[_target].state = __MAP_SLOT_OCCUPIED; \
++(map).size; \
} \
} while (0)
/**
* 查询:若找到,*out_val 被赋值为对应值并返回 1;否则返回 0
*/
#define map_get(map, _key, out_val) \
(({ \
int _found = 0; \
if ((map).cap > 0) { \
usize _mask = (map).cap - 1; \
usize _idx = (map).hash(_key) & _mask; \
while ((map).data[_idx].state != __MAP_SLOT_EMPTY) { \
if ((map).data[_idx].state == __MAP_SLOT_OCCUPIED && \
(map).cmp((map).data[_idx].key, _key) == 0) { \
*out_val = (map).data[_idx].val; \
_found = 1; \
break; \
} \
_idx = (_idx + 1) & _mask; \
} \
} \
_found; \
}))
/**
* 查询(续探):首次调用前将 *in_out_idx 置为 (usize)-1,
* 则从键自身的 hash 桶开始查找;命中后 *out_val 被赋值、返回 1,
* 且 *in_out_idx 更新为命中槽位,下次调用从该槽的下一个继续探测(碰撞续探)。
* 扫描到空槽返回 0。用于 key 碰撞后需要回表二次比较的场景。
*/
#define map_get_continue(map, _key, out_val, in_out_idx) \
(({ \
int _found = 0; \
if ((map).cap > 0) { \
usize _mask = (map).cap - 1; \
usize _idx = (*(in_out_idx) == (usize) - 1) ? (map).hash(_key) & _mask \
: (*(in_out_idx) + 1) & _mask; \
while ((map).data[_idx].state != __MAP_SLOT_EMPTY) { \
if ((map).data[_idx].state == __MAP_SLOT_OCCUPIED && \
(map).cmp((map).data[_idx].key, _key) == 0) { \
*out_val = (map).data[_idx].val; \
*(in_out_idx) = _idx; \
_found = 1; \
break; \
} \
_idx = (_idx + 1) & _mask; \
} \
} \
_found; \
}))
/**
* 删除指定键
*/
#define map_del(map, _key) \
do { \
if ((map).cap == 0) \
break; \
usize _mask = (map).cap - 1; \
usize _idx = (map).hash(_key) & _mask; \
while ((map).data[_idx].state != __MAP_SLOT_EMPTY) { \
if ((map).data[_idx].state == __MAP_SLOT_OCCUPIED && \
(map).cmp((map).data[_idx].key, _key) == 0) { \
(map).data[_idx].state = __MAP_SLOT_DELETED; \
--(map).size; \
break; \
} \
_idx = (_idx + 1) & _mask; \
} \
} while (0)
#endif /* __CORE_MAP_H__ */
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/**
* @file vec.h
* @brief 动态数组(Dynamic Array)实现
*
* 提供类型安全的动态数组容器实现,支持自动扩容和基本操作
*/
#ifndef __CORE_VEC_H__
#define __CORE_VEC_H__
#define __CORE_VEC_USE_STD__
#ifndef __CORE_VEC_USE_STD__
#include "core_log.h"
#include "core_impl.h"
#include "core_type.h"
#define __vec_realloc realloc
#define __vec_free free
#define __vec_memcpy memcpy
#else
#include <stdbool.h>
#include <stddef.h>
#include <stdlib.h>
#include <string.h>
#ifndef nullptr
#define nullptr NULL
#endif
typedef size_t usize;
#define __vec_realloc realloc
#define __vec_free free
#define __vec_memcpy memcpy
#ifndef LOG_FATAL
#include <stdio.h>
#define LOG_FATAL(...) \
do { \
printf(__VA_ARGS__); \
abort(); \
} while (0)
#endif
#ifndef Assert
#include <assert.h>
#define Assert(cond) assert(cond)
#endif
#endif
/** @defgroup vec_struct 数据结构定义 */
/**
* @def VEC(type)
* @brief 声明向量结构体
* @param type 存储的数据类型
*
* 生成包含size/cap/data三个字段的结构体定义:
* - size: 当前元素数量
* - cap: 数组容量
* - data: 存储数组指针
* @example
* VEC(char) string; <=> char[dynamic_array] string;
* struct people { VEC(char) name; int age; VEC(struct people) children;
* };
*/
#define VEC(type) \
struct { \
usize size; \
usize cap; \
type *data; \
}
/** @defgroup vec_operations 动态数组操作宏 */
/**
* @def vec_init(vec)
* @brief 初始化向量结构体
* @param vec 要初始化的向量结构体变量
*
* @note 此宏不会分配内存,仅做零初始化
*/
#define vec_init(vec) \
do { \
(vec).size = 0, (vec).cap = 0, (vec).data = 0; \
} while (0)
#define vec_realloc(vec, new_cap) \
do { \
void *data = __vec_realloc((vec).data, new_cap * sizeof(*(vec).data)); \
if (!data) { \
LOG_FATAL("vector_push: realloc failed\n"); \
} \
(vec).cap = new_cap; \
(vec).data = data; \
} while (0)
#define vec_size(vec) ((vec).size)
#define vec_cap(vec) ((vec).cap)
#define vec_for(vec, idx) for (usize idx = 0; idx < vec_size(vec); idx += 1)
/**
* @def vec_push(vec, value)
* @brief 添加元素到向量末尾
* @param vec 目标向量结构体
* @param value 要添加的值(需匹配存储类型)
*
* @note 当容量不足时自动扩容为2倍(初始容量为4)
* @warning 内存分配失败时会触发LOG_FATAL
*/
#define vec_push(vec, value) \
do { \
if ((vec).size >= (vec).cap) { \
usize cap = (vec).cap ? (vec).cap * 2 : 4; \
vec_realloc(vec, cap); \
} \
Assert((vec).data != nullptr); \
(vec).data[(vec).size++] = value; \
} while (0)
/**
* @def vec_pop(vec)
* @brief 弹出最后一个元素
* @param vec 目标向量结构体
* @return 最后元素的引用
* @warning 需确保size > 0时使用
*/
#define vec_pop(vec) ((vec).data[--(vec).size])
/**
* @def vec_at(vec, idx)
* @brief 获取指定索引元素
* @param vec 目标向量结构体
* @param idx 元素索引(0 <= idx < size)
* @return 对应元素的引用
*/
#define vec_at(vec, idx) (((vec).data)[idx])
/**
* @def vec_idx(vec, ptr)
* @brief 获取元素指针对应的索引
* @param vec 目标向量结构体
* @param ptr 元素指针(需在data数组范围内)
* @return 元素索引值
*/
#define vec_idx(vec, ptr) ((ptr) - (vec).data)
/**
* @def vec_free(vec)
* @brief 释放向量内存
* @param vec 目标向量结构体
*
* @note 释放后需重新初始化才能再次使用
*/
#define vec_free(vec) \
do { \
if ((vec).data == nullptr) \
break; \
__vec_free((vec).data); \
(vec).data = nullptr; \
(vec).size = (vec).cap = 0; \
} while (0)
#define vec_unsafe_get_data(vec) ((vec).data)
#define vec_unsafe_from_buffer(vec, buffer, buffer_size) \
do { \
(vec).size = buffer_size; \
(vec).cap = (vec).size; \
(vec).data = buffer; \
} while (0)
#define vec_unsafe_from_static_array(vec, array) \
do { \
(vec).size = sizeof(array) / sizeof((array)[0]); \
(vec).cap = (vec).size; \
(vec).data = array; \
} while (0)
/**
* @def vec_sized_realloc(vec, elem_size, new_cap)
* @brief 内部宏:按 elem_size 重新分配内存
*/
#define vec_sized_realloc(vec, elem_size, new_cap) \
do { \
void *new_data = __vec_realloc((vec).data, (new_cap) * (elem_size)); \
if (!new_data) \
LOG_FATAL("vec_sized_realloc: failed\n"); \
(vec).data = new_data; \
(vec).cap = new_cap; \
} while (0)
/**
* @def vec_sized_push(vec, elem_size, src_ptr)
* @brief 添加一个元素(从 src_ptr 拷贝 elem_size 字节)
* @param vec VEC(type) 定义的向量变量(type 可为 char 或 void)
* @param elem_size 每个元素占用的字节数
* @param src_ptr 源数据的指针
* @param copy_size 要拷贝的字节数
*
* @note 使用前需确保 vec.data 类型与 src_ptr 无关,内部会按字节拷贝。
* 推荐声明时为 `VEC(char)` 或 `VEC(unsigned char)`。
*/
#define vec_sized_push(vec, elem_size, src_ptr, copy_size) \
do { \
if ((vec).size >= (vec).cap) { \
usize new_cap = (vec).cap ? (vec).cap * 2 : 4; \
vec_sized_realloc(vec, elem_size, new_cap); \
} \
char *slot = (char *)(vec).data + (vec).size * (elem_size); \
__vec_memcpy(slot, (src_ptr), (copy_size)); \
(vec).size++; \
} while (0)
/**
* @def vec_sized_at_ptr(vec, elem_size, idx)
* @brief 获取第 idx 个元素的指针(void*)
* @return 指向元素的指针,需转换为具体类型使用
*/
#define vec_sized_at_ptr(vec, elem_size, idx) ((void *)((char *)(vec).data + (idx) * (elem_size)))
/**
* @def vec_sized_foreach(vec, elem_size, elem_ptr_var, block)
* @brief 遍历所有元素
* @param elem_ptr_var 循环内的变量名(void* 类型)
* @param block 循环体语句块
*/
#define vec_sized_foreach(vec, elem_size, elem_ptr_var, block) \
do { \
for (usize __i = 0; __i < (vec).size; ++__i) { \
void *elem_ptr_var = vec_sized_at_ptr(vec, elem_size, __i); \
block; \
} \
} while (0)
/**
* @def vec_sized_pop(vec, elem_size)
* @brief 弹出最后一个元素(仅减小 size,不返回数据)
*/
#define vec_sized_pop(vec, elem_size) \
do { \
if ((vec).size == 0) \
LOG_FATAL("vec_sized_pop: empty\n"); \
(vec).size--; \
} while (0)
/**
* @def vec_sized_clear(vec)
* @brief 清空向量(重置 size = 0,不释放内存)
*/
#define vec_sized_clear(vec) ((vec).size = 0)
/**
* @def vec_sized_free(vec)
* @brief 释放向量内存(与原始 vec_free 相同,可复用)
* @note 注意:如果元素内部有堆资源,需在释放前自行遍历调用析构函数。
*/
#define vec_sized_free(vec) vec_free(vec)
#endif /* __CORE_VEC_H__ */
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#include "log.h"
static inline int log_snprintf(char *s, size_t n, const char *format, ...) {
int ret;
va_list args;
va_start(args, format);
ret = log_vsnprintf(s, n, format, args);
va_end(args);
return ret;
}
int log_default_handler(logger_t *module, log_level_t level, const char *file, int line,
const char *func, const char *fmt, ...) {
const char *level_str;
int offset = 0;
va_list args;
va_start(args, fmt);
/* clang-format off */
switch (level) {
case LOG_LEVEL_DEBUG: level_str = "DEBUG"; break;
case LOG_LEVEL_INFO: level_str = "INFO "; break;
case LOG_LEVEL_WARN: level_str = "WARN "; break;
case LOG_LEVEL_ERROR: level_str = "ERROR"; break;
case LOG_LEVEL_FATAL: level_str = "FATAL"; break;
case LOG_LEVEL_TRACE: level_str = "TRACE"; break;
default: level_str = "NOTSET"; break;
}
/// @note: 定义 __LOG_NO_COLOR__ 会取消颜色输出
#ifndef __LOG_NO_COLOR__
const char *color_code;
switch (level) {
case LOG_LEVEL_DEBUG: color_code = ANSI_FG_CYAN; break;
case LOG_LEVEL_INFO: color_code = ANSI_FG_GREEN; break;
case LOG_LEVEL_TRACE: color_code = ANSI_FG_BLUE; break;
case LOG_LEVEL_WARN: color_code = ANSI_FG_YELLOW; break;
case LOG_LEVEL_ERROR: color_code = ANSI_FG_RED; break;
case LOG_LEVEL_FATAL: color_code = ANSI_FG_RED ANSI_UNDERLINED; break;
default: color_code = ANSI_NONE;
}
/* clang-format on */
offset = log_snprintf(module->buf, sizeof(module->buf),
ANSI_BOLD "%s[%s] %s - %s:%d in %s()" ANSI_NONE " ", color_code,
level_str, module->name, file, line, func);
#else
offset = log_snprintf(module->buf, sizeof(module->buf), "[%s] %s - %s:%d in %s() ", level_str,
module->name, file, line, func);
#endif
/* 然后写入用户消息(如果有) */
if (fmt && fmt[0]) {
log_vsnprintf(module->buf + offset, sizeof(module->buf) - offset, fmt, args);
}
va_end(args);
log_puts(module->buf);
// for clangd warning
// clang-analyzer-deadcode.DeadStores
(void)color_code;
(void)level_str;
if (level & LOG_LEVEL_FATAL) {
log_abort();
}
return 0;
}
logger_t __default_logger_root = {
.name = "root",
.level = LOG_LEVEL_ALL,
.handler = log_default_handler,
};
void init_logger(logger_t *logger, const char *name) {
logger->name = name;
logger->handler = log_default_handler;
log_set_level(logger, LOG_LEVEL_ALL);
}
void log_set_level(logger_t *logger, int level) {
if (logger)
logger->level = level;
else
__default_logger_root.level = level;
}
void log_set_handler(logger_t *logger, log_handler handler) {
if (logger)
logger->handler = handler;
else
__default_logger_root.handler = handler;
}
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/**
* @file log.h
* @brief 日志系统核心模块(支持多级日志、断言和异常处理)
*/
#ifndef __SCC_LOG_IMPL_H__
#define __SCC_LOG_IMPL_H__
#include "color.h"
#include <stdarg.h>
#ifdef __SCC_LOG_IMPL_USE_STD_IMPL__
#include <stdio.h>
#include <stdlib.h>
#define log_vsnprintf vsnprintf
#define log_puts puts
#define log_abort() exit(1)
#endif
#ifdef __GNUC__ // GCC, Clang
#define __scc_log_unreachable() (__builtin_unreachable())
#elif defined _MSC_VER // MSVC
#define __scc_log_unreachable() (__assume(false))
#elif defined __SCC_BUILTIN_UNREACHEABLE__ // The SCC Compiler (my compiler)
#define __scc_log_unreachable() (__scc_builtin_unreachable())
#else
#define __scc_log_unreachable() ((void)0)
#endif
#ifndef log_vsnprintf
#define log_vsnprintf(...)
#warning "log_vsnprintf not defined"
#endif
#ifndef log_puts
#define log_puts(...)
#warning "log_puts not defined"
#endif
#ifndef log_abort
#define log_abort(...)
#warning "log_abort not defined"
#endif
/**
* @brief 日志级别枚举
*
* 定义日志系统的输出级别和组合标志位
*/
typedef enum log_level {
LOG_LEVEL_NOTSET = 0, ///< 未设置级别(继承默认配置)
LOG_LEVEL_DEBUG = 1 << 0, ///< 调试信息(开发阶段详细信息)
LOG_LEVEL_INFO = 1 << 1, ///< 常规信息(系统运行状态)
LOG_LEVEL_WARN = 1 << 2, ///< 警告信息(潜在问题提示)
LOG_LEVEL_ERROR = 1 << 3, ///< 错误信息(可恢复的错误)
LOG_LEVEL_FATAL = 1 << 4, ///< 致命错误(导致程序终止的严重错误)
LOG_LEVEL_TRACE = 1 << 5, ///< 追踪(性能追踪或者栈帧追踪)
LOG_LEVEL_ALL = 0xFF, ///< 全级别标志(组合所有日志级别)
} log_level_t;
#ifndef LOGGER_MAX_BUF_SIZE
#define LOGGER_MAX_BUF_SIZE 512 ///< 单条日志最大缓冲区尺寸
#endif
typedef struct logger logger_t;
typedef int (*log_handler)(logger_t *module, log_level_t level, const char *file, int line,
const char *func, const char *fmt, ...);
/**
* @brief 日志器实例结构体
*
* 每个日志器实例维护独立的配置和缓冲区
*/
struct logger {
const char *name; ///< 日志器名称(用于模块区分)
log_level_t level; ///< 当前设置的日志级别
union {
log_handler handler;
void *user_handler;
}; ///< 日志处理回调函数
void *user_data; ///< 用户自定义数据
char buf[LOGGER_MAX_BUF_SIZE]; ///< 格式化缓冲区
};
int log_default_handler(logger_t *module, log_level_t level, const char *file, int line,
const char *func, const char *fmt, ...);
extern logger_t __default_logger_root;
#ifndef LOG_DEFAULT_HANDLER
#define LOG_DEFAULT_HANDLER &__default_logger_root
#endif
/**
* @brief 初始化日志实例 其余参数设置为默认值
* @param[in] logger 日志器实例指针
* @param[in] name 日志器名称(nullptr表示获取默认日志器名称)
*/
void init_logger(logger_t *logger, const char *name);
/**
* @brief 设置日志级别
* @param[in] logger 目标日志器实例
* @param[in] level 要设置的日志级别(可组合多个级别)
*/
void log_set_level(logger_t *logger, int level);
/**
* @brief 设置自定义日志处理器
* @param[in] logger 目标日志器实例
* @param[in] handler 自定义处理函数(nullptr恢复默认处理)
*/
void log_set_handler(logger_t *logger, log_handler handler);
#ifndef LOG_MAX_MAROC_BUF_SIZE
#define LOG_MAX_MAROC_BUF_SIZE LOGGER_MAX_BUF_SIZE ///< 宏展开缓冲区尺寸
#endif
#define SCC_LOG_HANDLE_ARGS(_module_, _level_, ...) \
(_module_), (_level_), __FILE__, __LINE__, __func__, ##__VA_ARGS__
#define SCC_LOG_IMPL(_module_, _level_, _fmt_, ...) \
do { \
/* TODO check _module_ is nullptr */ \
if ((_module_)->handler && ((_module_)->level & (_level_))) \
(_module_)->handler(SCC_LOG_HANDLE_ARGS(_module_, _level_, _fmt_, ##__VA_ARGS__)); \
} while (0)
/* clang-format off */
/// @name 模块日志宏
/// @{
#define MLOG_NOTSET(module, ...)SCC_LOG_IMPL(module, LOG_LEVEL_NOTSET, __VA_ARGS__) ///< 未分类日志
#define MLOG_DEBUG(module, ...) SCC_LOG_IMPL(module, LOG_LEVEL_DEBUG, __VA_ARGS__) ///< 调试日志(需启用DEBUG级别)
#define MLOG_INFO(module, ...) SCC_LOG_IMPL(module, LOG_LEVEL_INFO, __VA_ARGS__) ///< 信息日志(常规运行日志)
#define MLOG_WARN(module, ...) SCC_LOG_IMPL(module, LOG_LEVEL_WARN, __VA_ARGS__) ///< 警告日志(潜在问题)
#define MLOG_ERROR(module, ...) SCC_LOG_IMPL(module, LOG_LEVEL_ERROR, __VA_ARGS__) ///< 错误日志(可恢复错误)
#define MLOG_FATAL(module, ...) SCC_LOG_IMPL(module, LOG_LEVEL_FATAL, __VA_ARGS__) ///< 致命错误日志(程序终止前)
#define MLOG_TRACE(module, ...) SCC_LOG_IMPL(module, LOG_LEVEL_TRACE, __VA_ARGS__) ///< 追踪日志(调用栈跟踪)
/// @}
/// @name 快捷日志宏
/// @{
#define LOG_NOTSET(...) SCC_LOG_IMPL(LOG_DEFAULT_HANDLER, LOG_LEVEL_NOTSET, __VA_ARGS__) ///< 未分类日志
#define LOG_DEBUG(...) SCC_LOG_IMPL(LOG_DEFAULT_HANDLER, LOG_LEVEL_DEBUG, __VA_ARGS__) ///< 调试日志(需启用DEBUG级别)
#define LOG_INFO(...) SCC_LOG_IMPL(LOG_DEFAULT_HANDLER, LOG_LEVEL_INFO, __VA_ARGS__) ///< 信息日志(常规运行日志)
#define LOG_WARN(...) SCC_LOG_IMPL(LOG_DEFAULT_HANDLER, LOG_LEVEL_WARN, __VA_ARGS__) ///< 警告日志(潜在问题)
#define LOG_ERROR(...) SCC_LOG_IMPL(LOG_DEFAULT_HANDLER, LOG_LEVEL_ERROR, __VA_ARGS__) ///< 错误日志(可恢复错误)
#define LOG_FATAL(...) SCC_LOG_IMPL(LOG_DEFAULT_HANDLER, LOG_LEVEL_FATAL, __VA_ARGS__) ///< 致命错误日志(程序终止前)
#define LOG_TRACE(...) SCC_LOG_IMPL(LOG_DEFAULT_HANDLER, LOG_LEVEL_TRACE, __VA_ARGS__) ///< 追踪日志(调用栈跟踪)
/// @}
/* clang-format on */
/**
* @def _Assert
* @brief 断言检查内部宏
* @param cond 检查条件表达式
* @param ... 错误信息参数(格式字符串+参数)
*/
#define _Assert(cond, ...) \
((void)((cond) || (__default_logger_root.handler(SCC_LOG_HANDLE_ARGS( \
&__default_logger_root, LOG_LEVEL_FATAL, __VA_ARGS__)), \
log_abort(), __scc_log_unreachable(), 0)))
/// @name 断言工具宏
/// @{
#define __INNERSCC_LOG_IMPL_STR(str) #str
#define _SCC_LOG_IMPL_STR(str) __INNERSCC_LOG_IMPL_STR(str)
#define AssertFmt(cond, format, ...) \
_Assert(cond, "Assertion Failure: " format, ##__VA_ARGS__) ///< 带格式的断言检查
#define PanicFmt(format, ...) _Assert(0, "Panic: " format, ##__VA_ARGS__) ///< 立即触发致命错误
#define Assert(cond) AssertFmt(cond, "cond is `" _SCC_LOG_IMPL_STR(cond) "`") ///< 基础断言检查
#define Panic(...) PanicFmt(__VA_ARGS__) ///< 触发致命错误(带自定义消息)
#define TODO() PanicFmt("TODO please implement me") ///< 标记未实现代码(触发致命错误)
#define UNREACHABLE() PanicFmt("UNREACHABLE") ///< 触发致命错误(代码不可达)
#define FIXME(str) PanicFmt("FIXME " _SCC_LOG_IMPL_STR(str)) ///< 提醒开发者修改代码(触发致命错误)
/// @}
/**
* @brief 静态断言(编译时)
*
* 利用数组大小不能为负的特性
* 或使用 _Static_assert (C11)
*/
#if __STDC_VERSION__ >= 201112L
#define StaticAssert _Static_assert
#else
#define StaticAssert(cond, msg) extern char __static_assertion[(cond) ? 1 : -1]
#endif
#ifdef __SCC_LOG_IMPL_IMPORT_SRC__
#include "log.c"
#endif
#endif /* __SCC_LOG_IMPL_H__ */
+10
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@@ -0,0 +1,10 @@
#ifndef __UTILS_H__
#define __UTILS_H__
#define __SCC_LOG_IMPL_USE_STD_IMPL__
#include "log.h"
#include "core_map.h"
#include "core_vec.h"
#endif /* __UTILS_H__ */
+699
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@@ -0,0 +1,699 @@
/* spl_cli.c SIR VM launcher + gdb-style interactive debugger
*
* Usage: spl_cli [options] <file.sir> [args...]
* -d, --debug stack-canary checks
* -g, --debug-cli interactive debugger (REPL)
* --entry <name> entry function (default: main)
* --trace print every instruction
* -h, --help show help
*
* spl 程序 argv:argv[0]=file.sir,argv[1..]=args。
* REPL 配合 splc0 -g(.sir 尾部内嵌 debug 段:IR 行 + VAR 行)可显示
* 当前 IR 节点/源行/局部变量。
*/
#include "spl_mcode.h"
#include "spl_syscall.h"
#include "spl_vm.h"
#include <ctype.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
/* ================================================================
* 命令行解析
* ================================================================ */
typedef struct {
int debug;
int debug_cli;
int trace;
int disasm;
const char *entry;
const char *path; /* file.sir */
const char **args; /* spl 程序参数(file.sir 之后) */
int nargs;
} cli_opts_t;
static void usage(void) {
fprintf(stderr, "Usage: spl_cli [options] <file.sir> [args...]\n"
" -d, --debug stack-canary checks\n"
" -g, --debug-cli interactive debugger (REPL)\n"
" --disasm disasm dump sir\n"
" --entry <name> entry function (default: main)\n"
" --trace print every instruction\n"
" -h, --help show help\n");
}
/* options 可穿插;`--` 终止 option 解析(本身不作为 file/args)。
* 第一个非 option 为 file.sir,其后为 spl args。 */
static int parse_args(int argc, const char **argv, cli_opts_t *o) {
memset(o, 0, sizeof *o);
o->entry = "main";
int i = 1;
for (; i < argc; i++) {
const char *a = argv[i];
if (a[0] == '-' && a[1]) {
if (strcmp(a, "--") == 0) {
i++;
break;
}
if (strcmp(a, "-d") == 0 || strcmp(a, "--debug") == 0) {
o->debug = 1;
} else if (strcmp(a, "-g") == 0 || strcmp(a, "--debug-cli") == 0) {
o->debug_cli = 1;
} else if (strcmp(a, "--trace") == 0) {
o->trace = 1;
} else if (strcmp(a, "--disasm") == 0) {
o->disasm = 1;
} else if (strcmp(a, "--entry") == 0) {
if (i + 1 >= argc) {
fprintf(stderr, "spl_cli: --entry needs a name\n");
return -1;
}
o->entry = argv[++i];
} else if (strcmp(a, "-h") == 0 || strcmp(a, "--help") == 0) {
usage();
return -1;
} else {
fprintf(stderr, "spl_cli: unknown option '%s'\n", a);
usage();
return -1;
}
} else {
break;
}
}
/* 跳过前导 `--`(pipeline 调用会带 `--` 分隔 file 与 args) */
while (i < argc && strcmp(argv[i], "--") == 0)
i++;
if (i >= argc) {
fprintf(stderr, "spl_cli: missing <file.sir>\n");
usage();
return -1;
}
o->path = argv[i++];
while (i < argc && strcmp(argv[i], "--") == 0)
i++;
o->args = argv + i;
o->nargs = argc - i;
return 0;
}
/* ================================================================
* Debug map(splc0 -g 追加在 .sir 尾部的文本段)
* IR <ip> <node_ref> <line> <kind>
* VAR <func> <name> <fp_offset> <tid> <is_param>
* ================================================================ */
typedef struct {
usize ip;
usize ref;
int line;
char kind[64];
} dbg_irline_t;
typedef VEC(dbg_irline_t) dbg_irline_vec_t;
typedef struct {
char func[128];
char name[128];
usize offset;
usize tid;
int is_param;
} dbg_var_t;
typedef VEC(dbg_var_t) dbg_var_vec_t;
typedef struct {
dbg_irline_vec_t irlines;
dbg_var_vec_t vars;
int loaded;
} dbg_map_t;
static void dbg_map_load(dbg_map_t *m, const char *text) {
memset(m, 0, sizeof *m);
vec_init(m->irlines);
vec_init(m->vars);
m->loaded = 0;
if (!text)
return;
const char *p = strstr(text, "SPLDBG");
if (!p)
return;
p += 6;
while (p && *p) {
const char *nl = strchr(p, '\n');
size_t len = nl ? (size_t)(nl - p) : strlen(p);
char line[512];
if (len >= sizeof line)
len = sizeof line - 1;
memcpy(line, p, len);
line[len] = 0;
if (strncmp(line, "IR ", 3) == 0) {
dbg_irline_t ir;
memset(&ir, 0, sizeof ir);
sscanf(line + 3, "%zu %zu %d %63s", &ir.ip, &ir.ref, &ir.line, ir.kind);
vec_push(m->irlines, ir);
} else if (strncmp(line, "VAR ", 4) == 0) {
dbg_var_t v;
memset(&v, 0, sizeof v);
sscanf(line + 4, "%127s %127s %zu %zu %d", v.func, v.name, &v.offset, &v.tid,
&v.is_param);
vec_push(m->vars, v);
}
if (!nl)
break;
p = nl + 1;
}
m->loaded = 1;
}
/* 当前 ip 所属 IR 节点行(ip 恰好是某节点首指令) */
static const dbg_irline_t *irline_at_exact(dbg_map_t *m, usize ip) {
for (usize i = 0; i < m->irlines.size; i++)
if (m->irlines.data[i].ip == ip)
return &m->irlines.data[i];
return NULL;
}
/* ================================================================
* 调试器核心
* ================================================================ */
typedef struct {
spl_vm_t *vm;
spl_prog_t *prog;
const char *entry;
dbg_map_t map;
usize last_ptr; /* p 最近读到的值(x 无参重读) */
int quit;
} dbg_t;
/* ---- 位置/指令显示辅助 ---- */
static const char *fn_name_at(spl_prog_t *prog, usize ip) {
for (usize i = 0; i < vec_size(prog->funcs); i++) {
spl_vm_func_t *f = &vec_at(prog->funcs, i);
if (ip >= f->address && ip < f->address + f->ninsns)
return f->name ? f->name : "?";
}
return "?";
}
/* ip 所在函数的指令范围 [*start, *end) */
static void cur_func_bounds(spl_prog_t *prog, usize ip, usize *start, usize *end) {
*start = 0;
*end = vec_size(prog->insns);
for (usize i = 0; i < vec_size(prog->funcs); i++) {
spl_vm_func_t *f = &vec_at(prog->funcs, i);
if (ip >= f->address && ip < f->address + f->ninsns) {
*start = f->address;
*end = f->address + f->ninsns;
return;
}
}
}
/* 格式化一条指令(不含行号前缀) */
static void fmt_insn(const spl_vm_ins_t *ins, char *buf, size_t n) {
snprintf(buf, n, "%-11s %-5s %zu", spl_vm_opcode_name(ins->opcode),
spl_vm_type_kind_name(ins->type), ins->imm);
}
static void dbg_show_location(dbg_t *d) {
spl_vm_t *vm = d->vm;
if (vm->ip >= vec_size(vm->prog->insns)) {
printf(" (end of program)\n");
return;
}
char ib[80];
fmt_insn(&vec_at(vm->prog->insns, vm->ip), ib, sizeof ib);
printf(" %s @ ip=%zu %s [sp=%zu fp=%zu cp=%zu]\n", fn_name_at(vm->prog, vm->ip), vm->ip,
ib, vm->sp, vm->fp, vm->cp);
const dbg_irline_t *ir = irline_at_exact(&d->map, vm->ip);
if (ir)
printf(" -> ir node#%zu line %d %s\n", ir->ref, ir->line, ir->kind);
}
static void dbg_handle_status(dbg_t *d, int r) {
if (r == 1) {
printf(" program halted, exit_code=%d\n", d->vm->exit_code);
d->quit = 1;
} else if (r == 2) {
printf(" breakpoint hit\n");
} else if (r == -1) {
printf(" VM error: %s\n", d->vm->error_msg[0] ? d->vm->error_msg : "(no detail)");
d->quit = 1;
}
}
/* ---- 变量查找(p / x 复用) ---- */
static dbg_var_t *dbg_find_var(dbg_t *d, const char *fn, const char *name) {
for (usize i = 0; i < d->map.vars.size; i++) {
dbg_var_t *v = &d->map.vars.data[i];
if (strcmp(v->func, fn) == 0 && strcmp(v->name, name) == 0)
return v;
}
return NULL;
}
/* ================================================================
* 命令
* ================================================================ */
static int cmd_help(dbg_t *d, const char *args);
static int cmd_run(dbg_t *d, const char *args);
static int cmd_step(dbg_t *d, const char *args);
static int cmd_next(dbg_t *d, const char *args);
static int cmd_finish(dbg_t *d, const char *args);
static int cmd_break(dbg_t *d, const char *args);
static int cmd_delete(dbg_t *d, const char *args);
static int cmd_info(dbg_t *d, const char *args);
static int cmd_list(dbg_t *d, const char *args);
static int cmd_backtrace(dbg_t *d, const char *args);
static int cmd_stack(dbg_t *d, const char *args);
static int cmd_x(dbg_t *d, const char *args);
static int cmd_p(dbg_t *d, const char *args);
static int cmd_quit(dbg_t *d, const char *args);
typedef struct {
const char *name;
const char *alias;
const char *usage;
const char *help;
int (*fn)(dbg_t *, const char *);
} dbg_cmd_t;
static const dbg_cmd_t cmds[] = {
/* 会话 */
{"help", "h", "[cmd]", "list commands / help", cmd_help},
{"quit", "q", "", "quit debugger", cmd_quit},
/* 执行 */
{"run", "r", "", "run to next breakpoint or exit", cmd_run},
{"continue", "c", "", "alias of run", cmd_run},
{"step", "s", "", "step one instruction (into calls)", cmd_step},
{"next", "n", "", "step over a call", cmd_next},
{"finish", "f", "", "run until current function returns", cmd_finish},
/* 断点 */
{"break", "b", "<fn|ip>", "set breakpoint (no arg: list)", cmd_break},
{"delete", "d", "", "clear all breakpoints", cmd_delete},
/* 信息 */
{"info", "i", "b|stack|locals|args|var", "breakpoints/stack/locals", cmd_info},
{"list", "l", "[N]", "disassemble ip±N of current function", cmd_list},
{"backtrace", "bt", "", "print call stack backtrace", cmd_backtrace},
{"stack", "st", "", "dump stack words", cmd_stack},
/* 内存/变量 */
{"x", "x", "<var|addr|fp+N>", "read memory (no arg: last pointer)", cmd_x},
{"print", "p", "<var>", "print local variable (needs splc0 -g)", cmd_p},
{NULL, NULL, NULL, NULL, NULL},
};
static const dbg_cmd_t *find_cmd(const char *name) {
for (const dbg_cmd_t *c = cmds; c->name; c++)
if (!strcmp(c->name, name) || (c->alias && !strcmp(c->alias, name)))
return c;
return NULL;
}
static int cmd_help(dbg_t *d, const char *args) {
(void)d;
if (*args) {
const dbg_cmd_t *c = find_cmd(args);
if (c) {
printf(" %-10s %-22s %s", c->name, c->usage, c->help);
if (c->alias)
printf(" (alias: %s)", c->alias);
printf("\n");
} else {
printf(" unknown command '%s'\n", args);
}
return 0;
}
printf("commands:\n");
for (const dbg_cmd_t *c = cmds; c->name; c++) {
printf(" %-10s %-22s %s", c->name, c->usage, c->help);
if (c->alias)
printf(" (alias: %s)", c->alias);
printf("\n");
}
return 0;
}
/* ---- 执行 ---- */
static int ip_is_breakpoint(dbg_t *d) {
for (usize i = 0; i < vec_size(d->vm->breakpoints); i++)
if (d->vm->breakpoints.data[i] == (usize)d->vm->ip)
return 1;
return 0;
}
static int cmd_run(dbg_t *d, const char *args) {
(void)args;
if (ip_is_breakpoint(d)) /* 越过当前断点指令,避免原地重停 */
spl_vm_skip_breakpoint(d->vm);
dbg_handle_status(d, spl_vm_run_until(d->vm, 0));
return 0;
}
static int cmd_step(dbg_t *d, const char *args) {
(void)args;
dbg_handle_status(d, spl_vm_run_once(d->vm));
return 0;
}
static int cmd_next(dbg_t *d, const char *args) {
(void)args;
/* 执行 1 条;若进入被调(cp 增),继续执行到返回原深度 */
usize base_cp = d->vm->cp;
int r = spl_vm_run_once(d->vm);
if (r)
return dbg_handle_status(d, r), 0;
while (d->vm->cp > base_cp) {
r = spl_vm_run_once(d->vm);
if (r)
return dbg_handle_status(d, r), 0;
}
return 0;
}
static int cmd_finish(dbg_t *d, const char *args) {
(void)args;
usize base_cp = d->vm->cp;
while (d->vm->cp >= base_cp) {
int r = spl_vm_run_once(d->vm);
if (r)
return dbg_handle_status(d, r), 0;
}
return 0;
}
/* ---- 断点 ---- */
static int is_all_digits(const char *s) {
if (!*s)
return 0;
for (; *s; s++)
if (!isdigit((unsigned char)*s))
return 0;
return 1;
}
static int cmd_break(dbg_t *d, const char *args) {
if (!*args) {
printf(" ip breakpoints:\n");
for (usize i = 0; i < vec_size(d->vm->breakpoints); i++)
printf(" %zu\n", d->vm->breakpoints.data[i]);
printf(" fn breakpoints:\n");
for (usize i = 0; i < vec_size(d->vm->fn_breakpoints); i++)
printf(" %s\n", d->vm->fn_breakpoints.data[i]);
return 0;
}
while (*args && isspace((unsigned char)*args))
args++;
if (is_all_digits(args)) {
usize ip = (usize)strtoul(args, NULL, 10);
spl_vm_add_breakpoint(d->vm, ip);
printf(" breakpoint at ip=%zu\n", ip);
} else {
spl_vm_add_breakpoint_fn(d->vm, args);
printf(" breakpoint at function '%s'\n", args);
}
return 0;
}
static int cmd_delete(dbg_t *d, const char *args) {
(void)args;
spl_vm_clear_breakpoints(d->vm);
printf(" breakpoints cleared\n");
return 0;
}
/* ---- 信息 ---- */
/* 列出当前函数变量:args_flag=1 列参数,local_flag=1 列局部 */
static void list_vars(dbg_t *d, int args_flag, int local_flag) {
if (!d->map.loaded) {
printf(" no debug info (compile with splc0 -g)\n");
return;
}
const char *fn = fn_name_at(d->prog, d->vm->ip);
int any = 0;
for (usize i = 0; i < d->map.vars.size; i++) {
dbg_var_t *v = &d->map.vars.data[i];
if (strcmp(v->func, fn) != 0)
continue;
if ((v->is_param && !args_flag) || (!v->is_param && !local_flag))
continue;
printf(" %-20s @ fp+%-5zu %s\n", v->name, v->offset, v->is_param ? "[param]" : "[local]");
any = 1;
}
if (!any)
printf(" (no matching variables in %s)\n", fn);
}
static int cmd_info(dbg_t *d, const char *args) {
while (*args && isspace((unsigned char)*args))
args++;
if (!strncmp(args, "b", 1) || !strncmp(args, "break", 5))
return cmd_break(d, "");
if (!strncmp(args, "st", 2) || !strncmp(args, "stack", 5))
spl_vm_stackdump(d->vm, d->vm->sp);
else if (!strncmp(args, "l", 1) || !strncmp(args, "local", 5))
list_vars(d, 0, 1);
else if (!strncmp(args, "a", 1) || !strncmp(args, "arg", 3))
list_vars(d, 1, 0);
else if (!strncmp(args, "v", 1) || !strncmp(args, "var", 3))
list_vars(d, 1, 1);
else
printf(" usage: info b|stack|locals|args|var\n");
return 0;
}
/* l [N]:当前函数内 ip±N 反汇编 */
static int cmd_list(dbg_t *d, const char *args) {
usize ip = d->vm->ip;
long half = 5;
if (*args)
half = strtol(args, NULL, 10);
if (half < 0)
half = 0;
usize fstart, fend;
cur_func_bounds(d->prog, ip, &fstart, &fend);
usize lo = (ip > (usize)half) ? ip - (usize)half : fstart;
usize hi = ip + (usize)half;
if (hi >= fend)
hi = fend - 1;
if (lo < fstart)
lo = fstart;
for (usize i = lo; i <= hi; i++) {
char ib[80];
fmt_insn(&vec_at(d->prog->insns, i), ib, sizeof ib);
printf("%s%6zu: %s", i == ip ? "=>" : " ", i, ib);
const dbg_irline_t *ir = irline_at_exact(&d->map, i);
if (ir)
printf(" || node#%zu line %d %s", ir->ref, ir->line, ir->kind);
printf("\n");
}
return 0;
}
static int cmd_backtrace(dbg_t *d, const char *args) {
(void)args;
spl_vm_backtrace(d->vm, d->vm->fp);
return 0;
}
static int cmd_stack(dbg_t *d, const char *args) {
(void)args;
spl_vm_stackdump(d->vm, d->vm->sp);
return 0;
}
/* ---- 内存 / 变量 ---- */
static int cmd_x(dbg_t *d, const char *args) {
while (*args && isspace((unsigned char)*args))
args++;
unsigned long long addr = 0;
if (*args) {
if (strncmp(args, "fp+", 3) == 0 || strncmp(args, "sp+", 3) == 0) {
int is_fp = args[0] == 'f';
unsigned long long off = strtoull(args + 3, NULL, 0);
addr = (uintptr_t)((char *)&d->vm->stacks.data[is_fp ? d->vm->fp : d->vm->sp] + off);
printf(" (%s+%llu)\n", is_fp ? "fp" : "sp", off);
} else if (d->map.loaded && !isdigit((unsigned char)*args)) {
const char *fn = fn_name_at(d->prog, d->vm->ip);
dbg_var_t *v = dbg_find_var(d, fn, args);
if (v) {
addr = (uintptr_t)((char *)&d->vm->stacks.data[d->vm->fp] + v->offset);
printf(" (%s @ fp+%zu)\n", v->name, v->offset);
} else {
printf(" no variable '%s' in %s\n", args, fn);
}
} else {
addr = strtoull(args, NULL, 0);
}
} else {
addr = (unsigned long long)d->last_ptr;
}
if (!addr) {
printf(" usage: x <var|addr|fp+N> (no arg: re-read last printed pointer)\n");
return 0;
}
unsigned char *sbase = (unsigned char *)d->vm->stacks.data;
usize slen = d->vm->config.max_stack_depth * sizeof(spl_vm_val_t);
printf(" addr=%#llx stack=[%p,+%zu) in=%d\n", addr, sbase, slen,
addr >= (uintptr_t)sbase && addr < (uintptr_t)(sbase + slen));
unsigned char *p = (unsigned char *)(uintptr_t)addr;
printf(" ");
for (int i = 0; i < 32; i++)
printf("%02x ", p[i]);
printf("\n");
return 0;
}
static int cmd_p(dbg_t *d, const char *args) {
while (*args && isspace((unsigned char)*args))
args++;
if (!*args) {
printf(" usage: p <varname>\n");
return 0;
}
if (!d->map.loaded) {
printf(" no debug info (compile with splc0 -g)\n");
return 0;
}
const char *fn = fn_name_at(d->prog, d->vm->ip);
dbg_var_t *v = dbg_find_var(d, fn, args);
if (!v) {
printf(" no variable '%s' in %s\n", args, fn);
return 0;
}
spl_vm_val_t *addr = (spl_vm_val_t *)((char *)&d->vm->stacks.data[d->vm->fp] + v->offset);
printf(" %s = %zu (0x%zx) @ fp+%zu\n", v->name, *addr, *addr, v->offset);
d->last_ptr = (usize)*addr; /* 供 x 无参重读 */
return 0;
}
static int cmd_quit(dbg_t *d, const char *args) {
(void)args;
d->quit = 1;
return 0;
}
static void repl_loop(dbg_t *d) {
char line[1024];
while (!d->quit) {
dbg_show_location(d);
printf("spl-dbg> ");
fflush(stdout);
if (!fgets(line, sizeof line, stdin))
break;
char *nl = strchr(line, '\n');
if (nl)
*nl = 0;
char *p = line;
while (*p && isspace((unsigned char)*p))
p++;
if (!*p)
continue;
/* 拆命令名 + 参数 */
char *sp = p;
while (*sp && !isspace((unsigned char)*sp))
sp++;
char saved = *sp;
*sp = 0;
const dbg_cmd_t *c = find_cmd(p);
*sp = saved;
char *args = sp;
while (*args && isspace((unsigned char)*args))
args++;
if (c) {
c->fn(d, args);
} else {
printf(" unknown command '%s' (h for help)\n", p);
}
}
}
int main(int argc, const char **argv) {
cli_opts_t o;
if (parse_args(argc, argv, &o) != 0)
return 1;
spl_prog_t prog;
if (spl_prog_load_from_file(o.path, &prog) != 0) {
fprintf(stderr, "spl_cli: cannot load '%s'\n", o.path);
return 1;
}
if (o.disasm) {
spl_prog_dump(&prog);
return 0;
}
spl_syscall_register(&prog);
spl_vm_t vm;
spl_vm_init(&vm);
if (o.debug) {
fprintf(stderr, "spl_cli: debug mode on\n");
spl_vm_set_debug(&vm, 1);
}
if (o.trace) {
fprintf(stderr, "spl_cli: trace mode on\n");
spl_vm_set_trace(&vm, 1);
}
if (spl_vm_load_prog(&vm, &prog) != 0) {
fprintf(stderr, "spl_cli: failed to load prog\n");
spl_vm_drop(&vm);
spl_prog_drop(&prog);
return 1;
}
/* spl 程序 argv:argv[0]=file.sir(程序名),argv[1..]=args */
const char **spl_argv = (const char **)malloc(sizeof(char *) * (size_t)(o.nargs + 1));
if (!spl_argv) {
spl_vm_drop(&vm);
spl_prog_drop(&prog);
return 1;
}
spl_argv[0] = o.path;
for (int i = 0; i < o.nargs; i++)
spl_argv[i + 1] = o.args[i];
if (spl_vm_prepare(&vm, o.entry, o.nargs + 1, spl_argv, NULL) != 0) {
fprintf(stderr, "spl_cli: entry point '%s' not found\n", o.entry);
free(spl_argv);
spl_vm_drop(&vm);
spl_prog_drop(&prog);
return 1;
}
int ret = 0;
if (o.debug_cli) {
dbg_t d;
d.vm = &vm;
d.prog = &prog;
d.entry = o.entry;
d.quit = 0;
d.last_ptr = 0;
dbg_map_load(&d.map, prog.debug);
repl_loop(&d);
vec_free(d.map.irlines);
vec_free(d.map.vars);
} else {
ret = spl_vm_run_until(&vm, 0);
if (ret == 2)
fprintf(stderr, "spl_cli: hit breakpoint (run with -g to debug)\n");
}
free(spl_argv);
spl_vm_drop(&vm);
spl_prog_drop(&prog);
if (ret < 0)
return 1;
return (int)vm.exit_code;
}
+532
View File
@@ -0,0 +1,532 @@
/* spl_mcode.c - SPL VM machine code binary serialization, deserialization, and utilities
*
* Binary format (all metadata fields are spl_val_t = uint64_t LE):
* [HEADER] magic(8) nfuncs(8) ninsns(8) nnatives(8) nstrs(8) ndata(8)
* [FUNCS] each: name_len(8) name(padded to 8) idx_of_strtab(8)
* nargs(8) ninsns(8) address(8)
* [INSTRS] each: opcode(2) type(2) imm(8) = 12 bytes
* [NATIVES] each: name_len(8) name(padded to 8) idx_of_strtab(8)
* [STRTAB] each: slen(8) str(slen bytes, padded to 8)
*/
#include "spl_mcode.h"
void spl_prog_init(spl_prog_t *prog) {
if (!prog)
return;
vec_init(prog->insns);
vec_init(prog->funcs);
vec_init(prog->natives);
vec_init(prog->strtab);
vec_init(prog->gdata);
vec_push(prog->gdata, (spl_vm_gdata_t){0});
map_init(prog->symtab, MAP_HASH_STR, MAP_CMP_STR);
prog->debug = NULL;
}
void spl_prog_drop(spl_prog_t *prog) {
if (!prog)
return;
vec_free(prog->insns);
/* free each func name */
vec_for(prog->funcs, i) { free(vec_at(prog->funcs, i).name); }
vec_free(prog->funcs);
/* free each native name */
vec_for(prog->natives, i) { free(vec_at(prog->natives, i).name); }
vec_free(prog->natives);
/* free each gdata entry */
vec_for(prog->gdata, i) { free(vec_at(prog->gdata, i).data); }
vec_free(prog->gdata);
/* free each strtab entry */
vec_for(prog->strtab, i) { free((void *)vec_at(prog->strtab, i)); }
vec_free(prog->strtab);
map_free(prog->symtab);
if (prog->debug) {
free(prog->debug);
}
prog->debug = NULL;
}
void spl_prog_dump(spl_prog_t *prog) {
printf(";; SPL bytecode dump: \n");
printf(";; ninsns=%zu nfuncs=%zu nnatives=%zu nstrs=%zu\n\n", vec_size(prog->insns),
vec_size(prog->funcs), vec_size(prog->natives), vec_size(prog->strtab));
if (vec_size(prog->funcs) > 0) {
printf(";; --- functions ---\n");
for (usize i = 0; i < vec_size(prog->funcs); i++) {
spl_vm_func_t *f = &vec_at(prog->funcs, i);
printf(" %s nargs=%zu ninsns=%zu addr=%zu\n", f->name ? f->name : "(anon)", f->nargs,
f->ninsns, f->address);
}
printf("\n");
}
if (vec_size(prog->natives) > 0) {
printf(";; --- natives ---\n");
for (int i = 0; i < (int)vec_size(prog->natives); i++) {
spl_vm_native_t *n = &vec_at(prog->natives, i);
printf(" %s\n", n->name ? n->name : "(anon)");
}
printf("\n");
}
if (vec_size(prog->strtab) > 0) {
printf(";; --- string table ---\n");
for (int i = 0; i < (int)vec_size(prog->strtab); i++) {
printf(" %d: \"%s\"\n", i, vec_at(prog->strtab, i));
}
printf("\n");
}
printf(";; --- instructions ---\n");
for (usize i = 0; i < vec_size(prog->insns); i++) {
spl_vm_ins_t *ins = &vec_at(prog->insns, i);
printf("%4zd: %s", i, spl_vm_opcode_name((spl_vm_opcode_t)ins->opcode));
if (ins->type != SPL_VOID)
printf(" %s", spl_vm_type_kind_name((spl_vm_kind_t)ins->type));
printf(" %zd", ins->imm);
/* annotate jumps / calls */
if (ins->opcode == SPL_JMP || ins->opcode == SPL_BZ || ins->opcode == SPL_BNZ) {
spl_vm_val_t target = i + 1 + ins->imm;
printf(" ; -> %zu", target);
} else if (ins->opcode == SPL_CALL) {
printf(" ; nargs=%zu, from stack", ins->imm);
} else if (ins->opcode == SPL_CALLI) {
printf(" ; indirect call");
} else if (ins->opcode == SPL_GADDR) {
printf(" ; gdata[%zu]", ins->imm);
}
printf("\n");
}
}
/* ---- LE read/write helpers ---- */
static inline spl_vm_val_t rd64(const unsigned char **p) {
spl_vm_val_t v = (spl_vm_val_t)(*p)[0] | ((spl_vm_val_t)(*p)[1] << 8) |
((spl_vm_val_t)(*p)[2] << 16) | ((spl_vm_val_t)(*p)[3] << 24) |
((spl_vm_val_t)(*p)[4] << 32) | ((spl_vm_val_t)(*p)[5] << 40) |
((spl_vm_val_t)(*p)[6] << 48) | ((spl_vm_val_t)(*p)[7] << 56);
*p += 8;
return v;
}
static inline void wr64(unsigned char **p, spl_vm_val_t v) {
*(*p)++ = (unsigned char)(v);
*(*p)++ = (unsigned char)(v >> 8);
*(*p)++ = (unsigned char)(v >> 16);
*(*p)++ = (unsigned char)(v >> 24);
*(*p)++ = (unsigned char)(v >> 32);
*(*p)++ = (unsigned char)(v >> 40);
*(*p)++ = (unsigned char)(v >> 48);
*(*p)++ = (unsigned char)(v >> 56);
}
/* Round n up to next multiple of 8 */
#define ALIGN8(n) (((n) + 7) & ~7)
int spl_prog_load_from_file(const char *fname, spl_prog_t *prog) {
FILE *f;
unsigned char *data;
long len;
const unsigned char *p;
spl_vm_val_t nfuncs, ninsns, nnatives, nstrs, ndata;
if (!fname || !prog)
return -1;
f = fopen(fname, "rb");
if (!f)
return -1;
fseek(f, 0, SEEK_END);
len = ftell(f);
fseek(f, 0, SEEK_SET);
if (len < 48) {
fclose(f);
return -1;
}
data = (unsigned char *)malloc((size_t)len);
if (!data) {
fclose(f);
return -1;
}
if (fread(data, 1, (size_t)len, f) != (size_t)len) {
free(data);
fclose(f);
return -1;
}
fclose(f);
p = data;
/* magic */
if (p[0] != 'S' || p[1] != 'P' || p[2] != 'L' || p[3] != 'B' || p[4] != 'I' || p[5] != 'N' ||
p[6] != '\0' || p[7] != '\0') {
free(data);
return -1;
}
p += 8;
spl_prog_init(prog);
/* header counts */
nfuncs = rd64(&p);
ninsns = rd64(&p);
nnatives = rd64(&p);
nstrs = rd64(&p);
ndata = rd64(&p);
/* ---- function table ---- */
for (spl_vm_val_t i = 0; i < nfuncs; i++) {
spl_vm_func_t func = {0};
spl_vm_val_t nlen = rd64(&p);
usize pad = ALIGN8((usize)nlen) - (usize)nlen;
func.name = (char *)malloc((usize)nlen);
if (!func.name) {
free(data);
return -1;
}
memcpy(func.name, p, (usize)nlen);
p += (usize)nlen + pad;
func.idx_of_strtab = rd64(&p);
func.nargs = rd64(&p);
func.ninsns = rd64(&p);
func.address = rd64(&p);
vec_push(prog->funcs, func);
}
/* ---- instructions ---- */
for (spl_vm_val_t i = 0; i < ninsns; i++) {
if ((size_t)(p - data) + 12 > (size_t)len) {
free(data);
return -1;
}
spl_vm_ins_t ins;
ins.opcode = (uint16_t)p[0] | ((uint16_t)p[1] << 8);
ins.type = (uint16_t)p[2] | ((uint16_t)p[3] << 8);
p += 4;
ins.imm = rd64(&p);
vec_push(prog->insns, ins);
}
/* ---- native table ---- */
for (spl_vm_val_t i = 0; i < nnatives; i++) {
spl_vm_native_t nat = {0};
spl_vm_val_t nlen = rd64(&p);
usize pad = ALIGN8((usize)nlen) - (usize)nlen;
nat.name = (char *)malloc((usize)nlen);
if (!nat.name) {
free(data);
return -1;
}
memcpy(nat.name, p, (usize)nlen);
p += (usize)nlen + pad;
nat.idx_of_strtab = rd64(&p);
nat.impl_fn = NULL; /* function pointer can't be serialised */
vec_push(prog->natives, nat);
}
/* ---- string table ---- */
for (spl_vm_val_t i = 0; i < nstrs; i++) {
spl_vm_val_t slen = rd64(&p);
usize pad = ALIGN8((usize)slen) - (usize)slen;
char *s = (char *)malloc((usize)slen + 1);
if (!s) {
free(data);
return -1;
}
memcpy(s, p, (usize)slen);
s[(usize)slen] = '\0';
p += (usize)slen + pad;
vec_push(prog->strtab, s);
}
/* ---- global data ---- */
for (spl_vm_val_t i = 0; i < ndata; i++) {
spl_vm_gdata_t entry;
entry.size = rd64(&p);
usize pad = ALIGN8(entry.size) - entry.size;
entry.data = (unsigned char *)malloc(entry.size);
if (!entry.data) {
free(data);
return -1;
}
memcpy(entry.data, p, entry.size);
p += entry.size + pad;
vec_push(prog->gdata, entry);
}
/* ---- debug 段(splc0 -g 追加在文件尾部) ---- */
prog->debug = NULL;
prog->debug_size = 0;
{
ptrdiff_t used = p - data;
if (used >= 0 && (usize)used < (usize)len) {
size_t dlen = (size_t)len - (size_t)used;
char *dbg = (char *)malloc(dlen + 1);
if (dbg) {
memcpy(dbg, data + used, dlen);
dbg[dlen] = 0;
prog->debug = dbg;
prog->debug_size = dlen;
}
}
}
free(data);
return 0;
}
int spl_prog_store_to_file(const char *fname, spl_prog_t *prog) {
unsigned char *buf, *p;
spl_vm_val_t i;
size_t total;
spl_vm_val_t nfuncs, ninsns, nnatives, nstrs, ndata;
usize nlen, pad;
if (!fname || !prog)
return -1;
nfuncs = vec_size(prog->funcs);
ninsns = vec_size(prog->insns);
nnatives = vec_size(prog->natives);
nstrs = vec_size(prog->strtab);
ndata = vec_size(prog->gdata) - 1; /* jump 0 node */
/* Calculate total size */
total = 8 /* magic */
+ 8 + 8 + 8 + 8 + 8; /* 5 counts (nfuncs+ninsns+nnatives+nstrs+ndata) */
/* funcs */
for (i = 0; i < nfuncs; i++) {
nlen = strlen(vec_at(prog->funcs, i).name) + 1; /* include null */
total +=
8 + ALIGN8(nlen) + 8 + 8 + 8 + 8; /* nlen + name(pad) + idx + nargs + ninsns + addr */
}
/* insns */
total += ninsns * 12; /* opcode(2) + type(2) + imm(8) */
/* natives */
for (i = 0; i < nnatives; i++) {
nlen = strlen(vec_at(prog->natives, i).name) + 1;
total += 8 + ALIGN8(nlen) + 8; /* nlen + name(pad) + idx_of_strtab */
}
/* strtab */
for (i = 0; i < nstrs; i++) {
nlen = strlen(vec_at(prog->strtab, i));
total += 8 + ALIGN8(nlen); /* slen + str(pad) */
}
/* gdata */
for (i = 1; i < vec_size(prog->gdata); i++) {
usize dsize = vec_at(prog->gdata, i).size;
total += 8 + ALIGN8(dsize); /* dsize + data(pad) */
}
buf = (unsigned char *)malloc(total);
if (!buf)
return -1;
p = buf;
/* magic */
memcpy(p, "SPLBIN\0\0", 8);
p += 8;
/* counts */
wr64(&p, nfuncs);
wr64(&p, ninsns);
wr64(&p, nnatives);
wr64(&p, nstrs);
wr64(&p, ndata);
/* ---- function table ---- */
for (i = 0; i < nfuncs; i++) {
const char *name = vec_at(prog->funcs, i).name;
nlen = strlen(name) + 1;
pad = ALIGN8(nlen) - nlen;
wr64(&p, nlen);
memcpy(p, name, nlen);
p += nlen;
memset(p, 0, pad);
p += pad;
wr64(&p, vec_at(prog->funcs, i).idx_of_strtab);
wr64(&p, vec_at(prog->funcs, i).nargs);
wr64(&p, vec_at(prog->funcs, i).ninsns);
wr64(&p, vec_at(prog->funcs, i).address);
}
/* ---- instructions ---- */
for (i = 0; i < ninsns; i++) {
spl_vm_ins_t *ins = &vec_at(prog->insns, i);
*p++ = (unsigned char)(ins->opcode);
*p++ = (unsigned char)(ins->opcode >> 8);
*p++ = (unsigned char)(ins->type);
*p++ = (unsigned char)(ins->type >> 8);
wr64(&p, ins->imm);
}
/* ---- native table ---- */
for (i = 0; i < nnatives; i++) {
const char *name = vec_at(prog->natives, i).name;
nlen = strlen(name) + 1;
pad = ALIGN8(nlen) - nlen;
wr64(&p, nlen);
memcpy(p, name, nlen);
p += nlen;
memset(p, 0, pad);
p += pad;
wr64(&p, vec_at(prog->natives, i).idx_of_strtab);
}
/* ---- string table ---- */
for (i = 0; i < nstrs; i++) {
const char *s = vec_at(prog->strtab, i);
nlen = strlen(s);
pad = ALIGN8(nlen) - nlen;
wr64(&p, nlen);
memcpy(p, s, nlen);
p += nlen;
memset(p, 0, pad);
p += pad;
}
/* ---- global data ---- */
for (i = 1; i <= ndata; i++) {
spl_vm_gdata_t *entry = &vec_at(prog->gdata, i);
pad = ALIGN8(entry->size) - entry->size;
wr64(&p, entry->size);
memcpy(p, entry->data, entry->size);
p += entry->size;
memset(p, 0, pad);
p += pad;
}
/* Write file */
FILE *f = fopen(fname, "wb");
if (!f) {
free(buf);
return -1;
}
fwrite(buf, 1, total, f);
fclose(f);
free(buf);
return 0;
}
int spl_prog_add_instr(spl_prog_t *prog, uint8_t opcode, uint8_t type, spl_vm_val_t imm) {
if (!prog)
return 0;
spl_vm_ins_t ins = (spl_vm_ins_t){.opcode = opcode, .type = type, .imm = imm};
vec_push(prog->insns, ins);
return vec_size(prog->insns);
}
int spl_prog_add_func(spl_prog_t *prog, spl_vm_func_t *func) {
if (!prog || !func)
return 0;
vec_push(prog->funcs, *func);
return vec_size(prog->funcs);
}
int spl_prog_add_native(spl_prog_t *prog, spl_vm_native_t *native) {
if (!prog || !native)
return 0;
vec_push(prog->natives, *native);
return vec_size(prog->natives);
}
int spl_prog_add_data(spl_prog_t *prog, void *ptr, usize size) {
spl_vm_gdata_t entry;
if (!prog)
return 0;
entry.data = (unsigned char *)malloc(size);
if (!entry.data)
return 0;
memcpy(entry.data, ptr, size);
entry.size = size;
vec_push(prog->gdata, entry);
return (int)(vec_size(prog->gdata) - 1);
}
spl_vm_func_t *spl_prog_get_func(spl_prog_t *prog, const char *name) {
if (!prog || !name)
return NULL;
vec_for(prog->funcs, i) {
const char *match_name = vec_at(prog->funcs, i).name;
if (match_name && strcmp(match_name, name) == 0) {
return &vec_at(prog->funcs, i);
}
}
return NULL;
}
spl_vm_native_t *spl_prog_get_native(spl_prog_t *prog, const char *name) {
if (!prog || !name)
return NULL;
vec_for(prog->natives, i) {
const char *match_name = vec_at(prog->natives, i).name;
if (match_name && strcmp(match_name, name) == 0) {
return &vec_at(prog->natives, i);
}
}
return NULL;
}
const char *opcode_name[] = {
#define X(opcode, name, argc, pop, push, desc) [opcode] = name,
SPL_OPCODES(X)
#undef X
};
const char *spl_vm_opcode_name(spl_vm_opcode_t opcode) { return opcode_name[opcode]; }
const char *spl_vm_type_kind_name(spl_vm_kind_t type) {
switch (type) {
case SPL_VOID:
return "void";
case SPL_BOOL:
return "bool";
case SPL_I8:
return "i8";
case SPL_U8:
return "u8";
case SPL_I16:
return "i16";
case SPL_U16:
return "u16";
case SPL_I32:
return "i32";
case SPL_U32:
return "u32";
case SPL_I64:
return "i64";
case SPL_U64:
return "u64";
case SPL_F32:
return "f32";
case SPL_F64:
return "f64";
case SPL_USIZE:
return "usize";
case SPL_ISIZE:
return "isize";
case SPL_PTR:
return "ptr";
default:
return "???";
}
}
void spl_vm_ins_dump(spl_vm_ins_t *ins, spl_vm_val_t addr) {
printf("%4zu: %s", addr, spl_vm_opcode_name((spl_vm_opcode_t)ins->opcode));
if (ins->type != SPL_VOID)
printf(" %s", spl_vm_type_kind_name((spl_vm_kind_t)ins->type));
printf(" %zd:%zx", ins->imm, ins->imm);
printf("\n");
}
+211
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@@ -0,0 +1,211 @@
/* spl_mcode.h - SPL VM Machine Code: instruction set and binary format
*/
#ifndef __SPL_MCODE_H__
#define __SPL_MCODE_H__
#include "include/core_map.h"
#include "include/core_vec.h"
#include <stddef.h>
#include <stdint.h>
typedef uintptr_t usize;
typedef intptr_t isize;
typedef enum {
SPL_VOID,
SPL_BOOL,
SPL_I8,
SPL_U8,
SPL_I16,
SPL_U16,
SPL_I32,
SPL_U32,
SPL_I64,
SPL_U64,
SPL_ISIZE,
SPL_USIZE,
SPL_F32,
SPL_F64,
SPL_PTR,
SPL_TYPE_COUNT,
} spl_vm_kind_t;
/* clang-format off */
#define SPL_OPCODES(X) \
/* opcode, name, argc, pop, push, desc */ \
X(SPL_ERROR, "error", 0, 0, 0, "invalid opcode / internal error") \
/* 栈操作 */ \
X(SPL_PUSH, "push", 1, 0, 1, "push immediate") \
X(SPL_DUP, "dup", 0, 0, 1, "duplicate top of stack") \
X(SPL_DROP, "drop", 0, 1, 0, "discard top of stack") \
X(SPL_SWAP, "swap", 0, 2, 2, "swap top two elements") \
X(SPL_PICK, "pick", 1, 0, 1, "push copy of stack[imm] (0=TOS)") \
X(SPL_ROT, "rot", 0, 3, 3, "rotate top three (a b c -- b c a)") \
/* 算术 */ \
X(SPL_ADD, "add", 0, 2, 1, "integer addition") \
X(SPL_SUB, "sub", 0, 2, 1, "integer subtraction") \
X(SPL_MUL, "mul", 0, 2, 1, "integer multiplication") \
X(SPL_DIV_S, "div_s", 0, 2, 1, "signed division") \
X(SPL_DIV_U, "div_u", 0, 2, 1, "unsigned division") \
X(SPL_REM_S, "rem_s", 0, 2, 1, "signed remainder") \
X(SPL_REM_U, "rem_u", 0, 2, 1, "unsigned remainder") \
X(SPL_NEG, "neg", 0, 1, 1, "two's complement negation") \
/* 位运算 */ \
X(SPL_AND, "and", 0, 2, 1, "bitwise AND") \
X(SPL_OR, "or", 0, 2, 1, "bitwise OR") \
X(SPL_XOR, "xor", 0, 2, 1, "bitwise XOR") \
X(SPL_NOT, "not", 0, 1, 1, "bitwise NOT") \
X(SPL_SHL, "shl", 0, 2, 1, "left shift") \
X(SPL_SHR_U, "shr_u", 0, 2, 1, "logical right shift (zero-fill)") \
X(SPL_SHR_S, "shr_s", 0, 2, 1, "arithmetic right shift (sign-fill)") \
/* 比较 */ \
X(SPL_EQ, "eq", 0, 2, 1, "equal") \
X(SPL_NE, "ne", 0, 2, 1, "not equal") \
X(SPL_SLT, "slt", 0, 2, 1, "signed less than") \
X(SPL_SLE, "sle", 0, 2, 1, "signed less or equal") \
X(SPL_ULT, "ult", 0, 2, 1, "unsigned less than") \
X(SPL_ULE, "ule", 0, 2, 1, "unsigned less or equal") \
X(SPL_SGT, "sgt", 0, 2, 1, "signed greater than") \
X(SPL_SGE, "sge", 0, 2, 1, "signed greater or equal") \
X(SPL_UGT, "ugt", 0, 2, 1, "unsigned greater than") \
X(SPL_UGE, "uge", 0, 2, 1, "unsigned greater or equal") \
/* 类型转换 */ \
X(SPL_TRUNC, "trunc", 1, 1, 1, "truncate to low imm bits") \
X(SPL_SEXT, "sext", 1, 1, 1, "sign-extend from bit imm") \
X(SPL_ZEXT, "zext", 1, 1, 1, "zero-extend from bit imm") \
/* 控制流 */ \
X(SPL_JMP, "jmp", 1, 0, 0, "unconditional jump (offset isize)") \
X(SPL_BZ, "bz", 1, 1, 0, "pop; jump if zero (offset isize)") \
X(SPL_BNZ, "bnz", 1, 1, 0, "pop; jump if non-zero (offset isize)") \
X(SPL_HALT, "halt", 0, 0, 0, "stop execution") \
/* 函数调用 */ \
X(SPL_CALL, "call", 1, 0, 0, "call function pop function offset, call it") \
X(SPL_CALLI, "calli", 0, 1, 0, "indirect call: pop function address, call it") \
X(SPL_RET, "ret", 0, 0, 0, "return from function") \
/* 栈帧局部变量 */ \
X(SPL_ALLOC, "alloc", 1, 0, 0, "allocate imm zero-slots on stack") \
X(SPL_LADDR, "laddr", 1, 0, 1, "push address of local at fp + imm bytes") \
X(SPL_GADDR, "gaddr", 1, 0, 1, "push address of global at gp + imm") \
/* 间接内存访问 */ \
X(SPL_LOAD, "load", 0, 1, 1, "load sizeof(type)-bits zero-extended") \
X(SPL_STORE, "store", 0, 2, 0, "store low sizeof(type)-bits") \
/* 原生接口 */ \
X(SPL_NCALL, "ncall", 1, 0, 1, "call native function by index") \
X(SPL_NLIB, "nlib", 1, 0, 0, "dlopen library (name idx)") \
/* 调试 */ \
X(SPL_BK, "breakpoint", 0, 0, 0, "break point when exec will stop run") \
X(SPL_DBG, "dbg", 0, 0, 0, "print VM debug info (stack, backtrace, locals)")
/* clang-format on */
typedef enum {
#define X(opcode, name, argc, pop, push, desc) opcode,
SPL_OPCODES(X)
#undef X
} spl_vm_opcode_t;
/*
* Binary format (all metadata fields spl_val_t LE):
* magic[8] = "SPLBIN\0\0"
* nfuncs, ninsns, nnatives, nstrs, ndata
* [func table] each: name_len, name(pad8), idx_of_strtab, nargs, ninsns, address
* [insns] each: opcode(2) type(2) imm(8) = 12 bytes
* [natives] each: name_len, name(pad8), idx_of_strtab
* [strtab] each: slen, str(pad8)
* [gdata] each: dsize(8), data(dsize bytes, padded to 8)
*
* === Aggregate Return ABI (sret) ===
*
* 凡返回值类型为聚合(struct / union / enum / array / shape),
* 采用调用者分配 / 被调用者填充的间接返回约定:
*
* Before CALL:
* - caller 在自己的帧里 alloca 一块 RetTy 大小的空间
* - 该空间的地址作为第 0 个实参先压栈
* - 其余实参照常从左到右压栈
* - target 地址最后压栈
* - CALL imm = 普通实参个数 + 1
*
* Callee 进入后:
* - fp+0 存放 sret 指针
* - 形参 i 位于 fp + 8*(i+1)
* - 返回值直接写入 *(fp+0),然后执行 RET void
*
* Caller 侧:
* - 调用完成后,CALL 结果槽保存 sret 指针;
* 后续对聚合值的所有读取都通过该指针进行
*/
#define SPL_BINFMT_MAGIC "SPLBIN\0\0"
// All SIR stack values are ptr-bit unsigned integers
typedef usize spl_vm_val_t;
typedef struct spl_vm_ins {
uint8_t opcode;
uint8_t type;
spl_vm_val_t imm;
} spl_vm_ins_t;
typedef VEC(spl_vm_ins_t) spl_vm_ins_vec_t;
typedef struct spl_vm_func {
char *name;
spl_vm_val_t idx_of_strtab;
spl_vm_val_t nargs;
spl_vm_val_t ninsns;
spl_vm_val_t address;
} spl_vm_func_t;
typedef VEC(spl_vm_func_t) spl_vm_func_vec_t;
/* Native function pointer type */
struct spl_vm;
typedef struct spl_vm spl_vm_t;
typedef spl_vm_val_t (*spl_vm_fn_t)(spl_vm_t *vm, int nargs, spl_vm_val_t *args);
typedef struct spl_vm_native {
char *name;
spl_vm_val_t idx_of_strtab;
spl_vm_fn_t impl_fn;
} spl_vm_native_t;
typedef VEC(spl_vm_native_t) spl_vm_native_vec_t;
typedef struct {
unsigned char *data;
usize size;
} spl_vm_gdata_t;
typedef VEC(spl_vm_gdata_t) spl_vm_data_t;
typedef VEC(const char *) spl_vm_strtab_t;
typedef MAP(const char *, const char *) spl_vm_symtab_t;
/* Opaque handle for loaded program */
typedef struct spl_prog {
spl_vm_ins_vec_t insns;
spl_vm_func_vec_t funcs;
spl_vm_native_vec_t natives;
spl_vm_data_t gdata;
spl_vm_strtab_t strtab;
spl_vm_symtab_t symtab;
char *debug; /* 文件尾部 debug 段(splc0 -g 追加的文本),无则 NULL */
usize debug_size;
} spl_prog_t;
void spl_prog_init(spl_prog_t *prog);
void spl_prog_drop(spl_prog_t *prog);
void spl_prog_dump(spl_prog_t *prog);
int spl_prog_load_from_file(const char *fname, spl_prog_t *prog);
int spl_prog_store_to_file(const char *fname, spl_prog_t *prog);
int spl_prog_add_instr(spl_prog_t *prog, uint8_t opcode, uint8_t type, spl_vm_val_t imm);
int spl_prog_add_data(spl_prog_t *prog, void *ptr, usize size);
int spl_prog_add_func(spl_prog_t *prog, spl_vm_func_t *func);
int spl_prog_add_native(spl_prog_t *prog, spl_vm_native_t *native);
spl_vm_func_t *spl_prog_get_func(spl_prog_t *prog, const char *name);
spl_vm_native_t *spl_prog_get_native(spl_prog_t *prog, const char *name);
/* Opcode name lookup for debugging/dumping */
const char *spl_vm_opcode_name(spl_vm_opcode_t opcode);
const char *spl_vm_type_kind_name(spl_vm_kind_t type);
void spl_vm_ins_dump(spl_vm_ins_t *ins, spl_vm_val_t addr);
#endif /* __SPL_MCODE_H__ */
+505
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@@ -0,0 +1,505 @@
/* spl_syscall.c - built-in syscall implementations + registration
*
* All syscalls validate nargs, cast spl_val_t args to the expected C types,
* execute, and return the result as spl_val_t.
*
* Simple syscalls use the SYSCALL_N macros; complex ones are written
* manually but follow the same template.
*/
#include "spl_syscall.h"
#include "include/core_map.h"
#include "include/core_vec.h"
#include "spl_mcode.h"
#include "spl_vm.h"
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
/* =================================================================
* Macro templates
*
* Each SYSCALL_N macro:
* 1. Validates nargs (prints error and returns -1 on mismatch)
* 2. Casts args[n] from spl_val_t to the specified C type via
* (type)(uintptr_t) - this handles both integer and pointer types
* 3. Evaluates the expression and returns the result as spl_val_t
* ================================================================= */
#define CHECK_NARGS(fname, expected) \
do { \
if (nargs != (expected)) { \
fprintf(stderr, fname ": expected " #expected " args, got %d\n", nargs); \
return -1; \
} \
} while (0)
#define SYSCALL_0(name, ret_expr) \
static spl_vm_val_t name(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) { \
(void)_vm; \
CHECK_NARGS(#name, 0); \
(void)args; \
return (spl_vm_val_t)(uintptr_t)(ret_expr); \
}
#define SYSCALL_1(name, t1, ret_expr) \
static spl_vm_val_t name(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) { \
(void)_vm; \
CHECK_NARGS(#name, 1); \
t1 a1 = (t1)(uintptr_t)args[0]; \
return (spl_vm_val_t)(uintptr_t)(ret_expr); \
}
#define SYSCALL_2(name, t1, t2, ret_expr) \
static spl_vm_val_t name(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) { \
(void)_vm; \
CHECK_NARGS(#name, 2); \
t1 a1 = (t1)(uintptr_t)args[0]; \
t2 a2 = (t2)(uintptr_t)args[1]; \
return (spl_vm_val_t)(uintptr_t)(ret_expr); \
}
#define SYSCALL_3(name, t1, t2, t3, ret_expr) \
static spl_vm_val_t name(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) { \
(void)_vm; \
CHECK_NARGS(#name, 3); \
t1 a1 = (t1)(uintptr_t)args[0]; \
t2 a2 = (t2)(uintptr_t)args[1]; \
t3 a3 = (t3)(uintptr_t)args[2]; \
return (spl_vm_val_t)(uintptr_t)(ret_expr); \
}
#define SYSCALL_4(name, t1, t2, t3, t4, ret_expr) \
static spl_vm_val_t name(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) { \
(void)_vm; \
CHECK_NARGS(#name, 4); \
t1 a1 = (t1)(uintptr_t)args[0]; \
t2 a2 = (t2)(uintptr_t)args[1]; \
t3 a3 = (t3)(uintptr_t)args[2]; \
t4 a4 = (t4)(uintptr_t)args[3]; \
return (spl_vm_val_t)(uintptr_t)(ret_expr); \
}
/* syscall / VM 内部统一地址检查宏。
* 失败时打印 ctx + 地址 + size + ip,置 native_error,return 0。
* 要求所在函数有可用的 _vm 变量。 */
#define ADDRCHECK(vm, ptr, size, ctx) \
do { \
uintptr_t _acp = (uintptr_t)(ptr); \
usize _acs = (usize)(size); \
if (!spl_vm_addr_valid(_acp, _acs)) { \
fprintf(stderr, "%s: invalid address %p size=%zu (ip=%zu fp=%zu sp=%zu)\n", (ctx), \
(void *)_acp, _acs, (vm)->ip, (vm)->fp, (vm)->sp); \
spl_vm_backtrace((vm), (vm)->fp); \
(vm)->exit_code = 2; \
return 0; \
} \
} while (0)
/* syscall 内部:把当前栈和调用栈打印出来,供出错时定位 */
#define SYSCALL_DUMP(vm) \
do { \
fprintf(stderr, " --- syscall dump (sp=%zu fp=%zu cp=%zu ip=%zu) ---\n", (vm)->sp, \
(vm)->fp, (vm)->cp, (vm)->ip); \
spl_vm_backtrace((vm), (vm)->fp); \
spl_vm_stackdump((vm), (vm)->sp); \
} while (0)
/* syscall 内部:报告致命错误,dump 后让 VM 停在当前 ip */
#define SYSCALL_FAIL(vm, ...) \
do { \
fprintf(stderr, "syscall error: "); \
fprintf(stderr, __VA_ARGS__); \
fprintf(stderr, "\n"); \
SYSCALL_DUMP(vm); \
(vm)->exit_code = 1; \
return 0; \
} while (0)
/* =================================================================
* OS syscalls
* ================================================================= */
/* vm_exit - terminate process with the given exit code */
SYSCALL_1(vm_exit, int, (exit(a1), (spl_vm_val_t)0))
/* vm_putchar - write a single character to stdout */
SYSCALL_1(vm_putchar, int, putchar(a1))
/* vm_getchar - read a single character from stdin */
SYSCALL_0(vm_getchar, getchar())
/* vm_putint - print an integer to stdout */
SYSCALL_1(vm_putint, int, (fprintf(stdout, "%d", a1), (spl_vm_val_t)0))
/* vm_putstr - print a string to stdout (no trailing newline) */
SYSCALL_1(vm_putstr, const char *, (fputs(a1, stdout), (spl_vm_val_t)0))
/* vm_fopen - open a file, returns FILE* as spl_val_t */
SYSCALL_2(vm_fopen, const char *, const char *, (uintptr_t)fopen(a1, a2))
/* vm_fclose - close a file, returns 0 on success */
SYSCALL_1(vm_fclose, FILE *, fclose(a1))
/* vm_fread - read from file, returns number of items read */
SYSCALL_4(vm_fread, void *, size_t, size_t, FILE *, fread(a1, a2, a3, a4))
/* vm_fwrite - write to file, returns number of items written */
SYSCALL_4(vm_fwrite, const void *, size_t, size_t, FILE *, fwrite(a1, a2, a3, a4))
/* vm_fsize - get file size in bytes */
static spl_vm_val_t vm_fsize(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_fsize", 1);
FILE *f = (FILE *)(uintptr_t)args[0];
long cur = ftell(f);
fseek(f, 0, SEEK_END);
long sz = ftell(f);
fseek(f, cur, SEEK_SET);
return (spl_vm_val_t)(uintptr_t)sz;
}
SYSCALL_0(vm_stdin, stdin)
SYSCALL_0(vm_stdout, stdout)
SYSCALL_0(vm_stderr, stderr)
/* vm_read_file - read entire file into a malloc'd, null-terminated buffer */
static spl_vm_val_t vm_read_file(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_read_file", 1);
const char *path = (const char *)(uintptr_t)args[0];
if (path == nullptr) {
fprintf(stderr, "filepath can't be null");
return 0;
}
FILE *f = fopen(path, "rb");
if (!f) {
fprintf(stderr, "filepath %s can't be open", path);
return 1;
}
fseek(f, 0, SEEK_END);
long sz = ftell(f);
fseek(f, 0, SEEK_SET);
char *buf = (char *)malloc((size_t)sz + 1);
if (!buf) {
fclose(f);
return 0;
}
size_t nread = fread(buf, 1, (size_t)sz, f);
fclose(f);
buf[nread] = '\0';
return (spl_vm_val_t)(uintptr_t)buf;
}
static spl_vm_val_t vm_alloc(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
CHECK_NARGS("vm_alloc", 1);
size_t sz = (size_t)args[0];
if (sz == 0)
SYSCALL_FAIL(_vm, "vm_alloc: zero size");
if (sz > (size_t)1 << 32)
SYSCALL_FAIL(_vm, "vm_alloc: size too large (%zu)", sz);
void *p = malloc(sz);
if (!p)
SYSCALL_FAIL(_vm, "vm_alloc: malloc(%zu) failed", sz);
return (spl_vm_val_t)(uintptr_t)p;
}
static spl_vm_val_t vm_free(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_free", 1);
void *p = (void *)(uintptr_t)args[0];
if (p)
free(p);
return 0;
}
static spl_vm_val_t vm_realloc(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
CHECK_NARGS("vm_realloc", 2);
void *p = (void *)(uintptr_t)args[0];
size_t sz = (size_t)args[1];
if (!p)
SYSCALL_FAIL(_vm, "vm_realloc: NULL ptr");
if (sz == 0)
SYSCALL_FAIL(_vm, "vm_realloc: zero size");
ADDRCHECK(_vm, p, 1, "vm_realloc");
void *np = realloc(p, sz);
if (!np)
SYSCALL_FAIL(_vm, "vm_realloc: realloc(%p, %zu) failed", p, sz);
return (spl_vm_val_t)(uintptr_t)np;
}
static spl_vm_val_t vm_memcpy(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
CHECK_NARGS("vm_memcpy", 3);
void *dst = (void *)(uintptr_t)args[0];
const void *src = (const void *)(uintptr_t)args[1];
size_t size = (size_t)args[2];
if (size == 0)
return (spl_vm_val_t)(uintptr_t)dst;
ADDRCHECK(_vm, dst, size, "vm_memcpy(dst)");
ADDRCHECK(_vm, src, size, "vm_memcpy(src)");
memcpy(dst, src, size);
return (spl_vm_val_t)(uintptr_t)dst;
}
static spl_vm_val_t vm_memcmp(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
CHECK_NARGS("vm_memcmp", 3);
const void *a = (const void *)(uintptr_t)args[0];
const void *b = (const void *)(uintptr_t)args[1];
size_t size = (size_t)args[2];
if (size == 0)
return 0;
ADDRCHECK(_vm, a, size, "vm_memcmp(a)");
ADDRCHECK(_vm, b, size, "vm_memcmp(b)");
return (spl_vm_val_t)memcmp(a, b, size);
}
static spl_vm_val_t vm_printf(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
if (nargs <= 0)
return 0;
/* args[0] 是 SPL 的 []u8 format 参数。VM 里 slice 作为参数传递时,
栈上压的是"指向 slice 结构体的指针",结构为 {ptr:*u8, len:u64} */
const spl_vm_val_t *fmt_slice = (const spl_vm_val_t *)args[0];
const char *fmt = (const char *)fmt_slice[0];
usize fmt_len = (usize)fmt_slice[1];
if (nargs <= 1) {
fwrite(fmt, 1, fmt_len, stdout);
return (spl_vm_val_t)nargs;
}
typedef VEC(char) string_builder_t;
string_builder_t buffer;
vec_init(buffer);
int arg_idx = 1; /* 0 是 format */
char tmp_buf[32];
for (usize i = 0; i < fmt_len; ++i) {
if (fmt[i] != '%') {
vec_push(buffer, fmt[i]);
continue;
}
if (++i >= fmt_len)
break;
if (arg_idx >= nargs)
break;
switch (fmt[i]) {
case 'd': {
memset(tmp_buf, 0, sizeof(tmp_buf));
snprintf(tmp_buf, sizeof(tmp_buf), "%zd", (isize)args[arg_idx]);
for (usize j = 0; tmp_buf[j] != '\0'; ++j)
vec_push(buffer, tmp_buf[j]);
arg_idx++;
break;
}
case 'c':
vec_push(buffer, (char)args[arg_idx]);
arg_idx++;
break;
case 's': {
const spl_vm_val_t *s = (const spl_vm_val_t *)args[arg_idx];
const char *p = (const char *)s[0];
usize l = (usize)s[1];
for (usize j = 0; j < l; ++j)
vec_push(buffer, p[j]);
arg_idx++;
break;
}
default:
vec_push(buffer, '%');
vec_push(buffer, fmt[i]);
break;
}
}
if (vec_size(buffer) > 0)
fwrite(buffer.data, 1, vec_size(buffer), stdout);
vec_free(buffer);
return (spl_vm_val_t)nargs;
}
/* =================================================================
* VM syscalls (for comptime - compile-time code execution)
*
* These let SPL code create isolated sub-VMs, load compiled .sir
* programs into them, push arguments, call functions, and run.
* ================================================================= */
/* vm_new - create a new sub-VM instance, returns spl_vm_t* */
static spl_vm_val_t vm_new(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_new", 0);
(void)args;
spl_vm_t *vm = (spl_vm_t *)malloc(sizeof(spl_vm_t));
if (!vm)
return 0;
spl_vm_init(vm);
return (spl_vm_val_t)(uintptr_t)vm;
}
/* vm_drop - destroy a sub-VM and its loaded program */
static spl_vm_val_t vm_drop(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_drop", 1);
spl_vm_t *vm = (spl_vm_t *)(uintptr_t)args[0];
if (!vm)
return 0;
if (vm->prog) {
spl_prog_drop(vm->prog);
free(vm->prog);
vm->prog = NULL;
}
spl_vm_drop(vm);
free(vm);
return 0;
}
/* vm_load - load a .sir file, register syscalls, return spl_prog_t* */
static spl_vm_val_t vm_load(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_load", 2);
spl_vm_t *vm = (spl_vm_t *)(uintptr_t)args[0];
const char *path = (const char *)(uintptr_t)args[1];
if (!vm || !path)
return -1;
spl_prog_t *prog = (spl_prog_t *)malloc(sizeof(spl_prog_t));
if (!prog)
return -1;
if (spl_prog_load_from_file(path, prog) != 0) {
free(prog);
return -1;
}
spl_syscall_register(prog);
if (spl_vm_load_prog(vm, prog) != 0) {
spl_prog_drop(prog);
free(prog);
return -1;
}
return (spl_vm_val_t)(uintptr_t)prog;
}
/* vm_push - push a value onto the sub-VM's stack (for passing arguments) */
static spl_vm_val_t vm_push(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_push", 2);
spl_vm_t *vm = (spl_vm_t *)(uintptr_t)args[0];
spl_vm_val_t val = args[1];
if (!vm)
return -1;
if (vm->sp >= vm->config.max_stack_depth) {
fprintf(stderr, "vm_push: stack overflow\n");
return -1;
}
vm->stacks.data[vm->sp++] = val;
return 0;
}
/* vm_call - call a function by name with pre-pushed arguments
*
* Args (3): vm, function_name, nargs
* The arguments should already be on the sub-VM's stack via vm_push.
*
* Mirrors the CALL instruction's frame setup:
* - Pushes a sentinel frame (saved_ip=-1) if cp==0 so RET halts properly
* - Pushes the actual call frame
* - Sets fp = sp - nargs (so arg0 = data[fp], arg1 = data[fp+1], ...)
* - Sets ip to the function address
*/
static spl_vm_val_t vm_call(spl_vm_t *_vm, int nargs, spl_vm_val_t *args) {
(void)_vm;
CHECK_NARGS("vm_call", 3);
spl_vm_t *vm = (spl_vm_t *)(uintptr_t)args[0];
const char *name = (const char *)(uintptr_t)args[1];
spl_vm_val_t call_nargs = args[2];
if (!vm || !name)
return -1;
spl_vm_func_t *func = spl_prog_get_func(vm->prog, name);
if (!func) {
fprintf(stderr, "vm_call: function '%s' not found\n", name);
return -1;
}
if (vm->cp >= vm->config.max_call_depth - 1) {
fprintf(stderr, "vm_call: call stack overflow\n");
return -1;
}
/* Sentinel frame so the entry function's RET halts cleanly */
if (vm->cp == 0) {
vm->frames.data[vm->cp].saved_fp = 0;
vm->frames.data[vm->cp].saved_ip = (uintptr_t)-1;
vm->frames.data[vm->cp].nargs = 0;
vm->cp++;
}
/* Actual call frame (same logic as the CALL instruction) */
vm->frames.data[vm->cp].saved_fp = vm->fp;
vm->frames.data[vm->cp].saved_ip = vm->ip;
vm->frames.data[vm->cp].nargs = call_nargs;
vm->cp++;
vm->fp = vm->sp - call_nargs;
vm->ip = (uintptr_t)func->address;
return 0;
}
/* vm_run - run a sub-VM to completion, returns exit_code */
SYSCALL_1(vm_run, spl_vm_t *, spl_vm_run_until(a1, 0))
/* =================================================================
* Registration
*
* Called after loading a .sir file. Matches native declarations in
* prog->natives against known syscall names and hooks up impl_fn.
* ================================================================= */
void spl_syscall_register(spl_prog_t *prog) {
static spl_vm_native_t table[] = {
/* OS operations */
{"vm_exit", 0, vm_exit},
{"vm_putchar", 0, vm_putchar},
{"vm_getchar", 0, vm_getchar},
{"vm_putint", 0, vm_putint},
{"vm_putstr", 0, vm_putstr},
{"vm_fopen", 0, vm_fopen},
{"vm_fclose", 0, vm_fclose},
{"vm_fread", 0, vm_fread},
{"vm_fwrite", 0, vm_fwrite},
{"vm_fsize", 0, vm_fsize},
{"vm_stdin", 0, vm_stdin},
{"vm_stdout", 0, vm_stdout},
{"vm_stderr", 0, vm_stderr},
{"vm_read_file", 0, vm_read_file},
{"vm_alloc", 0, vm_alloc},
{"vm_free", 0, vm_free},
{"vm_realloc", 0, vm_realloc},
{"vm_memcpy", 0, vm_memcpy},
{"vm_memcmp", 0, vm_memcmp},
{"vm_printf", 0, vm_printf},
/* VM operations (comptime) */
{"vm_new", 0, vm_new},
{"vm_drop", 0, vm_drop},
{"vm_load", 0, vm_load},
{"vm_push", 0, vm_push},
{"vm_call", 0, vm_call},
{"vm_run", 0, vm_run},
};
int n = (int)(sizeof(table) / sizeof(table[0]));
if (!prog)
return;
vec_for(prog->natives, i) {
spl_vm_native_t *nat = &vec_at(prog->natives, i);
if (!nat->name || nat->impl_fn)
continue;
for (int j = 0; j < n; j++) {
if (strcmp(nat->name, table[j].name) == 0) {
nat->impl_fn = table[j].impl_fn;
break;
}
}
}
}
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/* spl_syscall.h - built-in syscall layer for SIR VM
*
* Provides I/O native functions (putchar, getchar, file ops, etc.)
* that compiled SPL programs can call via NCALL.
*
* spl_syscall_register() must be called AFTER spl_prog_load_from_file()
* and BEFORE spl_vm_run_until(). It matches native declarations in the
* loaded program against known syscall names and hooks up the C
* implementations.
*/
#ifndef __SPL_SYSCALL_H__
#define __SPL_SYSCALL_H__
#include "spl_mcode.h"
/* Register all known built-in syscalls into prog->natives[].
* Entries whose name matches a known syscall get their impl_fn set;
* unmatched entries remain NULL (will error at runtime if called). */
void spl_syscall_register(spl_prog_t *prog);
#endif /* __SPL_SYSCALL_H__ */
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+80
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/* spl_vm.h - SIR interpreter */
#ifndef __SPL_VM_H__
#define __SPL_VM_H__
#include "include/core_vec.h"
#include "spl_mcode.h"
#include <stdint.h>
#define SPL_STACK_CANARY ((spl_vm_val_t)0xDEADBEEFCAFEBABEull)
typedef struct {
uintptr_t saved_sp;
uintptr_t saved_fp;
uintptr_t saved_ip;
spl_vm_val_t nargs;
} spl_callframe_t;
typedef VEC(spl_vm_val_t) spl_stack_vec_t;
typedef VEC(spl_callframe_t) spl_frame_vec_t;
typedef struct spl_vm {
spl_stack_vec_t stacks;
spl_frame_vec_t frames;
uintptr_t gp; // global pointer
uintptr_t sp; // stack pointer
uintptr_t fp; // frame pointer
uintptr_t cp; // call pointer
uintptr_t ip; // instr pointer
int exit_code;
int trace; /* non-zero to print each instruction */
int debug; /* non-zero to enable canary checks */
int debug_addr; /* non-zero to check for low-address memory access */
int skip_bp; /* non-zero: run_once 忽略下一次断点(continue 越过当前断点指令) */
VEC(usize) breakpoints; /* ip 断点(执行到该指令前暂停,run_once 返回 2) */
VEC(char *) fn_breakpoints; /* 函数名断点(CALL/CALLI 目标函数入口暂停) */
spl_prog_t *prog;
char error_msg[1024];
struct {
uintptr_t max_stack_depth;
uintptr_t max_call_depth;
} config;
} spl_vm_t;
/* Initialize VM with default sizes (SPL_DEFAULT_STACK_SIZE /
* SPL_DEFAULT_CALL_DEPTH) */
void spl_vm_init(spl_vm_t *vm);
/* Initialize VM with custom sizes (pass 0 to use defaults) */
void spl_vm_init_ex(spl_vm_t *vm, int stack_size, int call_depth);
/* Free dynamically allocated memory in VM */
void spl_vm_drop(spl_vm_t *vm);
int spl_vm_addr_valid(uintptr_t p, usize size);
int spl_vm_load_prog(spl_vm_t *vm, spl_prog_t *prog);
int spl_vm_prepare(spl_vm_t *vm, const char *entry, int argc, const char **argv, const char **envp);
/* Enable/disable instruction-level tracing */
void spl_vm_set_trace(spl_vm_t *vm, int enabled);
/* Enable/disable debug mode (stack canary protection) */
void spl_vm_set_debug(spl_vm_t *vm, int enabled);
int spl_vm_run_once(spl_vm_t *vm);
int spl_vm_run_until(spl_vm_t *vm, size_t step);
/* 断点:ip 断点 / 函数名断点(CALL/CALLI 目标函数入口)。命中时 run_once 返回 2。 */
void spl_vm_add_breakpoint(spl_vm_t *vm, usize ip);
void spl_vm_add_breakpoint_fn(spl_vm_t *vm, const char *name);
void spl_vm_clear_breakpoints(spl_vm_t *vm);
/* 让 run_once 执行当前指令(忽略一次断点命中);continue 越过当前断点用 */
void spl_vm_skip_breakpoint(spl_vm_t *vm);
void spl_vm_dump_instr(spl_vm_t *vm, spl_vm_val_t ip);
void spl_vm_stackdump(spl_vm_t *vm, spl_vm_val_t sp);
int spl_vm_backtrace(spl_vm_t *vm, spl_vm_val_t fp);
#endif /* __SPL_VM_H__ */
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/* test_spl_vm.c – unit tests for SPL VM using acutest.h
*
* Constructs SIR binaries, writes to temp files, loads via
* spl_prog_load_from_file, and runs via the spl_vm_t API.
*/
#include "include/acutest.h"
#include "spl_mcode.h"
#include "spl_vm.h"
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
/* ================================================================
* Binary-writing helpers (mirrors spl_mcode.c internal format)
* ================================================================ */
/* Write spl_val_t (8 LE bytes), advance pointer */
#define LE64(p, v) \
do { \
unsigned char *_p = (p); \
spl_vm_val_t _v = (spl_vm_val_t)(v); \
*_p++ = (unsigned char)(_v); \
*_p++ = (unsigned char)(_v >> 8); \
*_p++ = (unsigned char)(_v >> 16); \
*_p++ = (unsigned char)(_v >> 24); \
*_p++ = (unsigned char)(_v >> 32); \
*_p++ = (unsigned char)(_v >> 40); \
*_p++ = (unsigned char)(_v >> 48); \
*_p++ = (unsigned char)(_v >> 56); \
(p) = _p; \
} while (0)
/* Convenience: build spl_ins_t from raw fields */
static spl_vm_ins_t ins(uint16_t op, uint16_t type, spl_vm_val_t imm) {
spl_vm_ins_t x;
x.opcode = op;
x.type = type;
x.imm = imm;
return x;
}
/* Build a single-function SIR binary in malloc'd memory.
* Returns buffer that must be freed by caller. */
static unsigned char *build_binary(const char *fname, spl_vm_val_t nargs,
const spl_vm_ins_t *instns, int ninsns, size_t *out_len) {
size_t nlen = strlen(fname) + 1;
size_t npad = ((nlen + 7) / 8) * 8 - nlen;
size_t sz = 8 + 8 + 8 + 8 + 8 + 8 /* magic + 5 counts */
+ 8 + nlen + npad + 8 + 8 + 8 + 8 /* func entry */
+ (size_t)ninsns * 12; /* instructions */
unsigned char *buf = (unsigned char *)malloc(sz);
unsigned char *p = buf;
memcpy(p, "SPLBIN\0\0", 8);
p += 8; /* magic */
LE64(p, 1); /* nfuncs */
LE64(p, (spl_vm_val_t)ninsns); /* ninsns */
LE64(p, 0); /* nnatives */
LE64(p, 0); /* nstrs */
LE64(p, 0); /* ndata */
/* func entry */
LE64(p, (spl_vm_val_t)nlen); /* name_len */
memcpy(p, fname, nlen);
p += nlen;
memset(p, 0, npad);
p += npad;
LE64(p, 0); /* idx_of_strtab */
LE64(p, nargs);
LE64(p, (spl_vm_val_t)ninsns);
LE64(p, 0); /* address = 0 */
for (int i = 0; i < ninsns; i++) {
*p++ = (unsigned char)(instns[i].opcode);
*p++ = (unsigned char)(instns[i].opcode >> 8);
*p++ = (unsigned char)(instns[i].type);
*p++ = (unsigned char)(instns[i].type >> 8);
LE64(p, instns[i].imm);
}
*out_len = sz;
return buf;
}
/* ================================================================
* VM test helpers (file-based prog load)
* ================================================================ */
static const char *TMPFILE = "test_spl_vm_tmp.bin";
/* Write binary buffer to temp file */
static int write_temp(const unsigned char *bin, size_t len) {
FILE *f = fopen(TMPFILE, "wb");
if (!f)
return -1;
fwrite(bin, 1, len, f);
fclose(f);
return 0;
}
/* Run a single-function program, return exit code (or -1 on failure). */
static int run(const spl_vm_ins_t *instns, int ninsns) {
size_t len;
unsigned char *bin = build_binary("main", 0, instns, ninsns, &len);
spl_prog_t prog;
spl_vm_t vm;
int rc = -1;
spl_vm_init(&vm);
if (write_temp(bin, len) == 0 && spl_prog_load_from_file(TMPFILE, &prog) == 0) {
if (spl_vm_load_prog(&vm, &prog) == 0) {
if (spl_vm_prepare(&vm, "main", 0, NULL, NULL) == 0) {
int ret = spl_vm_run_until(&vm, 0);
if (ret == 1) /* halted normally */
rc = (int)vm.exit_code;
else if (ret == 0) /* still running (shouldn't happen with halt) */
rc = -2;
}
}
}
spl_vm_drop(&vm);
remove(TMPFILE);
free(bin);
return rc;
}
/* Run with native functions registered. */
static int run_with_natives(const spl_vm_ins_t *instns, int ninsns, spl_vm_native_t *natives,
int nnatives) {
size_t len;
unsigned char *bin = build_binary("main", 0, instns, ninsns, &len);
spl_prog_t prog;
spl_vm_t vm;
int rc = -1;
spl_vm_init(&vm);
if (write_temp(bin, len) == 0 && spl_prog_load_from_file(TMPFILE, &prog) == 0) {
for (int i = 0; i < nnatives; i++)
spl_prog_add_native(&prog, &natives[i]);
if (spl_vm_load_prog(&vm, &prog) == 0) {
if (spl_vm_prepare(&vm, "main", 0, NULL, NULL) == 0) {
int ret = spl_vm_run_until(&vm, 0);
if (ret == 1)
rc = (int)vm.exit_code;
else if (ret == 0)
rc = -2;
}
}
}
spl_vm_drop(&vm);
remove(TMPFILE);
free(bin);
return rc;
}
/* ================================================================
* Native function for NCALL tests
* ================================================================ */
static spl_vm_val_t native_add_impl(int nargs, spl_vm_val_t *args) {
return (nargs >= 2) ? args[0] + args[1] : 0;
}
/* ================================================================
* Stack tests
* ================================================================ */
void test_push_imm(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 42), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 2) == 42);
}
void test_dup(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 99), ins(SPL_DUP, SPL_VOID, 0),
ins(SPL_ADD, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 198);
}
void test_drop(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 1), ins(SPL_PUSH, SPL_I32, 2),
ins(SPL_DROP, SPL_VOID, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_swap(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 1), ins(SPL_PUSH, SPL_I32, 2),
ins(SPL_SWAP, SPL_VOID, 0), ins(SPL_DROP, SPL_VOID, 0),
ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 5) == 2);
}
void test_pick(void) {
/* push 10, 20, 30, pick 1 -> copy 20, add -> 50 */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 10), ins(SPL_PUSH, SPL_I32, 20),
ins(SPL_PUSH, SPL_I32, 30), ins(SPL_PICK, SPL_VOID, 1),
ins(SPL_ADD, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 6) == 50);
}
/* ================================================================
* Arithmetic tests
* ================================================================ */
void test_add(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 2), ins(SPL_PUSH, SPL_I32, 3),
ins(SPL_ADD, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 5);
}
void test_sub(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 10), ins(SPL_PUSH, SPL_I32, 3),
ins(SPL_SUB, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 7);
}
void test_mul(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 6), ins(SPL_PUSH, SPL_I32, 7),
ins(SPL_MUL, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 42);
}
void test_div(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 100), ins(SPL_PUSH, SPL_I32, 3),
ins(SPL_DIV_S, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 33);
}
void test_rem(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 100), ins(SPL_PUSH, SPL_I32, 3),
ins(SPL_REM_S, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_neg(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 42), ins(SPL_NEG, SPL_I32, 0),
ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 3) == -42);
}
void test_i64_arith(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I64, 42), ins(SPL_RET, SPL_I64, 0)};
TEST_CHECK(run(p, 2) == 42);
}
/* ================================================================
* Bitwise tests
* ================================================================ */
void test_and(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFF00), ins(SPL_PUSH, SPL_U32, 0x0FF0),
ins(SPL_AND, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 0x0F00);
}
void test_or(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFF00), ins(SPL_PUSH, SPL_U32, 0x00FF),
ins(SPL_OR, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 0xFFFF);
}
void test_xor(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFFFF), ins(SPL_PUSH, SPL_U32, 0x0FF0),
ins(SPL_XOR, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 0xF00F);
}
void test_not(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFFFF0000), ins(SPL_NOT, SPL_U32, 0),
ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 3) == (unsigned int)0x0000FFFF);
}
void test_shl(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 1), ins(SPL_PUSH, SPL_U32, 10),
ins(SPL_SHL, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 1024);
}
void test_shr(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 1024), ins(SPL_PUSH, SPL_U32, 10),
ins(SPL_SHR_U, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_shr_s(void) {
/* arithmetic right shift: -1024 >> 5 sign-extends */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, (spl_vm_val_t)(int32_t)-1024),
ins(SPL_PUSH, SPL_U32, 5), ins(SPL_SHR_S, SPL_I32, 0),
ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == -32);
}
/* ================================================================
* Comparison tests
* ================================================================ */
void test_eq(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 42), ins(SPL_PUSH, SPL_I32, 42),
ins(SPL_EQ, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_neq(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 42), ins(SPL_PUSH, SPL_I32, 99),
ins(SPL_NE, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_lt(void) {
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 10), ins(SPL_PUSH, SPL_I32, 20),
ins(SPL_SLT, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_gt_signed(void) {
/* -1 > 1 should be 0 (false) for signed compare */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 0xFFFFFFFF), ins(SPL_PUSH, SPL_I32, 1),
ins(SPL_SGT, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 0);
}
void test_sle(void) {
/* -1 <= 1 -> true (1) for signed */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 0xFFFFFFFF), ins(SPL_PUSH, SPL_I32, 1),
ins(SPL_SLE, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_sge(void) {
/* -1 >= 1 -> false (0) for signed */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 0xFFFFFFFF), ins(SPL_PUSH, SPL_I32, 1),
ins(SPL_SGE, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 4) == 0);
}
void test_ult(void) {
/* 0xFFFFFFFF < 1 -> false (0) for unsigned */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFFFFFFFF), ins(SPL_PUSH, SPL_U32, 1),
ins(SPL_ULT, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 0);
}
void test_ule(void) {
/* 0xFFFFFFFF <= 0xFFFFFFFF -> true (1) */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFFFFFFFF), ins(SPL_PUSH, SPL_U32, 0xFFFFFFFF),
ins(SPL_ULE, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_ugt(void) {
/* 0xFFFFFFFF > 1 -> true (1) for unsigned */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFFFFFFFF), ins(SPL_PUSH, SPL_U32, 1),
ins(SPL_UGT, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
void test_uge(void) {
/* 0xFFFFFFFF >= 1 -> true (1) */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFFFFFFFF), ins(SPL_PUSH, SPL_U32, 1),
ins(SPL_UGE, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
/* ================================================================
* Control flow tests (relative offset)
* ================================================================ */
void test_jmp(void) {
/* push 1, jmp +3 (skip next 2 insns), push 2 (skipped), push 3, add, ret -> 4 */
/* jmp at ip=1, after fetch ip=2, target ip=3 (push 3) => offset = 1 */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 1), ins(SPL_JMP, SPL_VOID, 1),
ins(SPL_PUSH, SPL_I32, 2), ins(SPL_PUSH, SPL_I32, 3),
ins(SPL_ADD, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 6) == 4);
}
void test_bz_bnz(void) {
/* push 0, bz +2 (skip to ret with 1) -> return 1 */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 0), ins(SPL_BZ, SPL_VOID, 2),
ins(SPL_PUSH, SPL_I32, 99), ins(SPL_RET, SPL_I32, 0),
ins(SPL_PUSH, SPL_I32, 1), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 6) == 1);
/* push 1, bnz +2 (skip to ret with 42) -> return 42 */
spl_vm_ins_t q[] = {ins(SPL_PUSH, SPL_I32, 1), ins(SPL_BNZ, SPL_VOID, 2),
ins(SPL_PUSH, SPL_I32, 99), ins(SPL_RET, SPL_I32, 0),
ins(SPL_PUSH, SPL_I32, 42), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(q, 6) == 42);
}
/* ================================================================
* Memory tests (ALLOC, LADDR, LD, ST)
* ================================================================ */
void test_alloc_laddr_st64_ld64(void) {
/* alloc 1 local, laddr + st64 42, laddr + ld64 back -> 42 */
spl_vm_ins_t p[] = {
ins(SPL_ALLOC, SPL_VOID, 1), /* 0: alloc 1 local */
ins(SPL_LADDR, SPL_VOID, 0), /* 1: addr of local[0] */
ins(SPL_PUSH, SPL_I64, 42), /* 2: value */
ins(SPL_STORE, SPL_I64, 0), /* 3: store */
ins(SPL_LADDR, SPL_VOID, 0), /* 4: addr of local[0] */
ins(SPL_LOAD, SPL_I64, 0), /* 5: load */
ins(SPL_RET, SPL_I64, 0) /* 6: ret */
};
TEST_CHECK(run(p, 7) == 42);
}
void test_alloc_zeroed(void) {
/* alloc 1 local, laddr + ld64 -> should be 0 (zero-initialized) */
spl_vm_ins_t p[] = {ins(SPL_ALLOC, SPL_VOID, 1), ins(SPL_LADDR, SPL_VOID, 0),
ins(SPL_LOAD, SPL_I64, 0), ins(SPL_RET, SPL_I64, 0)};
TEST_CHECK(run(p, 4) == 0);
}
/* ================================================================
* Indirect memory load/store tests (stack-based, no heap)
* ================================================================ */
void test_ld_st64(void) {
/* alloc 8 slots, st64 42, ld64 back -> 42 */
spl_vm_ins_t p[] = {ins(SPL_ALLOC, SPL_VOID, 8), ins(SPL_LADDR, SPL_VOID, 0),
ins(SPL_DUP, SPL_VOID, 0), ins(SPL_PUSH, SPL_I64, 42),
ins(SPL_STORE, SPL_I64, 0), ins(SPL_LOAD, SPL_I64, 0),
ins(SPL_RET, SPL_I64, 0)};
TEST_CHECK(run(p, 7) == 42);
}
void test_ld_st32(void) {
spl_vm_ins_t p[] = {ins(SPL_ALLOC, SPL_VOID, 8), ins(SPL_LADDR, SPL_VOID, 0),
ins(SPL_DUP, SPL_VOID, 0), ins(SPL_PUSH, SPL_I64, 0xAABBCCDD),
ins(SPL_STORE, SPL_U32, 0), ins(SPL_LOAD, SPL_U32, 0),
ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 7) == (int)0xAABBCCDD);
}
void test_ld_st16(void) {
spl_vm_ins_t p[] = {ins(SPL_ALLOC, SPL_VOID, 8), ins(SPL_LADDR, SPL_VOID, 0),
ins(SPL_DUP, SPL_VOID, 0), ins(SPL_PUSH, SPL_I64, 0xBEEF),
ins(SPL_STORE, SPL_U16, 0), ins(SPL_LOAD, SPL_U16, 0),
ins(SPL_RET, SPL_U16, 0)};
TEST_CHECK(run(p, 7) == 0xBEEF);
}
void test_ld_st8(void) {
spl_vm_ins_t p[] = {ins(SPL_ALLOC, SPL_VOID, 8), ins(SPL_LADDR, SPL_VOID, 0),
ins(SPL_DUP, SPL_VOID, 0), ins(SPL_PUSH, SPL_I64, 0xAB),
ins(SPL_STORE, SPL_U8, 0), ins(SPL_LOAD, SPL_U8, 0),
ins(SPL_RET, SPL_U8, 0)};
TEST_CHECK(run(p, 7) == 0xAB);
}
/* ================================================================
* Function call tests (relative offset CALL)
* ================================================================ */
void test_call_add(void) {
/*
* add(a, b) address 0, 6 insns, 2 args
* main() address 6, 5 insns, 0 args
*
* add (ip=0):
* laddr 0 ip=0 arg0 addr
* ld64 ip=1 load arg0
* laddr 1 ip=2 arg1 addr
* ld64 ip=3 load arg1
* add i64 ip=4
* ret i64 ip=5
*
* main (ip=6):
* push 10 ip=6
* push 20 ip=7
* push 0 ip=8 target address = add at 0
* call 2 ip=9 nargs=2
* ret i64 ip=10
*/
spl_vm_ins_t add_insns[] = {ins(SPL_LADDR, SPL_VOID, 0), ins(SPL_LOAD, SPL_I64, 0),
ins(SPL_LADDR, SPL_VOID, 8), ins(SPL_LOAD, SPL_I64, 0),
ins(SPL_ADD, SPL_I64, 0), ins(SPL_RET, SPL_I64, 0)};
spl_vm_ins_t main_insns[] = {ins(SPL_PUSH, SPL_I32, 10), ins(SPL_PUSH, SPL_I32, 20),
ins(SPL_PUSH, SPL_VOID, 0), ins(SPL_CALL, SPL_VOID, 2),
ins(SPL_RET, SPL_I64, 0)};
int nadd = (int)(sizeof(add_insns) / sizeof(add_insns[0]));
int nmain = (int)(sizeof(main_insns) / sizeof(main_insns[0]));
int ninsns_t = nadd + nmain;
size_t nlen0 = strlen("add") + 1;
size_t npad0 = ((nlen0 + 7) / 8) * 8 - nlen0;
size_t nlen1 = strlen("main") + 1;
size_t npad1 = ((nlen1 + 7) / 8) * 8 - nlen1;
size_t sz = 8 + 8 + 8 + 8 + 8 + 8 /* magic + 5 counts */
+ 8 + nlen0 + npad0 + 8 + 8 + 8 + 8 /* func 0 */
+ 8 + nlen1 + npad1 + 8 + 8 + 8 + 8 /* func 1 */
+ (size_t)ninsns_t * 12;
unsigned char *bin = (unsigned char *)malloc(sz);
unsigned char *p = bin;
memcpy(p, "SPLBIN\0\0", 8);
p += 8;
LE64(p, 2);
LE64(p, (spl_vm_val_t)ninsns_t);
LE64(p, 0);
LE64(p, 0);
LE64(p, 0);
/* func[0]: "add" */
LE64(p, (spl_vm_val_t)nlen0);
memcpy(p, "add", nlen0);
p += nlen0;
memset(p, 0, npad0);
p += npad0;
LE64(p, 0);
LE64(p, 2);
LE64(p, (spl_vm_val_t)nadd);
LE64(p, 0);
/* func[1]: "main" */
LE64(p, (spl_vm_val_t)nlen1);
memcpy(p, "main", nlen1);
p += nlen1;
memset(p, 0, npad1);
p += npad1;
LE64(p, 0);
LE64(p, 0);
LE64(p, (spl_vm_val_t)nmain);
LE64(p, (spl_vm_val_t)nadd); /* address */
for (int i = 0; i < nadd; i++) {
*p++ = (unsigned char)(add_insns[i].opcode);
*p++ = (unsigned char)(add_insns[i].opcode >> 8);
*p++ = (unsigned char)(add_insns[i].type);
*p++ = (unsigned char)(add_insns[i].type >> 8);
LE64(p, add_insns[i].imm);
}
for (int i = 0; i < nmain; i++) {
*p++ = (unsigned char)(main_insns[i].opcode);
*p++ = (unsigned char)(main_insns[i].opcode >> 8);
*p++ = (unsigned char)(main_insns[i].type);
*p++ = (unsigned char)(main_insns[i].type >> 8);
LE64(p, main_insns[i].imm);
}
spl_prog_t prog;
spl_vm_t vm;
int rc = -1;
spl_vm_init(&vm);
if (write_temp(bin, sz) == 0 && spl_prog_load_from_file(TMPFILE, &prog) == 0) {
spl_vm_load_prog(&vm, &prog);
if (spl_vm_prepare(&vm, "main", 0, NULL, NULL) == 0) {
int ret = spl_vm_run_until(&vm, 0);
if (ret == 1)
rc = (int)vm.exit_code;
}
spl_vm_drop(&vm);
}
remove(TMPFILE);
free(bin);
TEST_CHECK(rc == 30);
}
/* ================================================================
* CALLI test
* ================================================================ */
void test_calli(void) {
/*
* add (ip=0, 2 args):
* laddr 0 ip=0
* ld64 ip=1
* laddr 1 ip=2
* ld64 ip=3
* add i64 ip=4
* ret i64 ip=5
*
* main (ip=6, 0 args):
* push 10 ip=6
* push 20 ip=7
* push 2 ip=8 (nargs)
* push 0 ip=9 (address of add)
* calli ip=10
* ret i64 ip=11
*/
spl_vm_ins_t add_insns[] = {ins(SPL_LADDR, SPL_VOID, 0), ins(SPL_LOAD, SPL_I64, 0),
ins(SPL_LADDR, SPL_VOID, 8), ins(SPL_LOAD, SPL_I64, 0),
ins(SPL_ADD, SPL_I64, 0), ins(SPL_RET, SPL_I64, 0)};
spl_vm_ins_t main_insns[] = {ins(SPL_PUSH, SPL_I32, 10), ins(SPL_PUSH, SPL_I32, 20),
ins(SPL_PUSH, SPL_VOID, 2), ins(SPL_PUSH, SPL_VOID, 0),
ins(SPL_CALLI, SPL_VOID, 0), ins(SPL_RET, SPL_I64, 0)};
int ninsns_t = 6 + 6;
size_t nlen0 = strlen("add") + 1;
size_t npad0 = ((nlen0 + 7) / 8) * 8 - nlen0;
size_t nlen1 = strlen("main") + 1;
size_t npad1 = ((nlen1 + 7) / 8) * 8 - nlen1;
size_t sz = 8 + 8 + 8 + 8 + 8 + 8 + 8 + nlen0 + npad0 + 8 + 8 + 8 + 8 + 8 + nlen1 + npad1 + 8 +
8 + 8 + 8 + (size_t)ninsns_t * 12;
unsigned char *bin = (unsigned char *)malloc(sz);
unsigned char *p = bin;
memcpy(p, "SPLBIN\0\0", 8);
p += 8;
LE64(p, 2);
LE64(p, (spl_vm_val_t)ninsns_t);
LE64(p, 0);
LE64(p, 0);
LE64(p, 0);
/* func[0]: add */
LE64(p, (spl_vm_val_t)nlen0);
memcpy(p, "add", nlen0);
p += nlen0;
memset(p, 0, npad0);
p += npad0;
LE64(p, 0);
LE64(p, 2);
LE64(p, 6);
LE64(p, 0);
/* func[1]: main */
LE64(p, (spl_vm_val_t)nlen1);
memcpy(p, "main", nlen1);
p += nlen1;
memset(p, 0, npad1);
p += npad1;
LE64(p, 0);
LE64(p, 0);
LE64(p, 6);
LE64(p, 6);
for (int i = 0; i < 6; i++) {
*p++ = (unsigned char)(add_insns[i].opcode);
*p++ = (unsigned char)(add_insns[i].opcode >> 8);
*p++ = (unsigned char)(add_insns[i].type);
*p++ = (unsigned char)(add_insns[i].type >> 8);
LE64(p, add_insns[i].imm);
}
for (int i = 0; i < 6; i++) {
*p++ = (unsigned char)(main_insns[i].opcode);
*p++ = (unsigned char)(main_insns[i].opcode >> 8);
*p++ = (unsigned char)(main_insns[i].type);
*p++ = (unsigned char)(main_insns[i].type >> 8);
LE64(p, main_insns[i].imm);
}
spl_prog_t prog;
spl_vm_t vm;
int rc = -1;
spl_vm_init(&vm);
if (write_temp(bin, sz) == 0 && spl_prog_load_from_file(TMPFILE, &prog) == 0) {
spl_vm_load_prog(&vm, &prog);
if (spl_vm_prepare(&vm, "main", 0, NULL, NULL) == 0) {
int ret = spl_vm_run_until(&vm, 0);
if (ret == 1)
rc = (int)vm.exit_code;
}
spl_vm_drop(&vm);
}
remove(TMPFILE);
free(bin);
TEST_CHECK(rc == 30);
}
/* ================================================================
* Global data (GADDR) test
* ================================================================ */
void test_gaddr_ld32(void) {
/* Load program, add global data, GADDR + LD32 to read it back */
spl_vm_ins_t p[] = {ins(SPL_GADDR, SPL_VOID, 0), ins(SPL_LOAD, SPL_U32, 0),
ins(SPL_RET, SPL_U32, 0)};
size_t len;
unsigned char *bin = build_binary("main", 0, p, 3, &len);
spl_prog_t prog;
spl_vm_t vm;
int rc = -1;
spl_vm_init(&vm);
if (write_temp(bin, len) == 0 && spl_prog_load_from_file(TMPFILE, &prog) == 0) {
uint32_t val = 0xDEADBEEF;
spl_prog_add_data(&prog, &val, sizeof(val));
spl_vm_load_prog(&vm, &prog);
if (spl_vm_prepare(&vm, "main", 0, NULL, NULL) == 0) {
int ret = spl_vm_run_until(&vm, 0);
if (ret == 1)
rc = (int)vm.exit_code;
}
spl_vm_drop(&vm);
}
remove(TMPFILE);
free(bin);
TEST_CHECK(rc == (int)0xDEADBEEF);
}
void test_gaddr_multi(void) {
/* Two global data entries: read second one via GADDR 1 */
spl_vm_ins_t p[] = {ins(SPL_GADDR, SPL_VOID, 1), ins(SPL_LOAD, SPL_U32, 0),
ins(SPL_RET, SPL_U32, 0)};
size_t len;
unsigned char *bin = build_binary("main", 0, p, 3, &len);
spl_prog_t prog;
spl_vm_t vm;
int rc = -1;
spl_vm_init(&vm);
if (write_temp(bin, len) == 0 && spl_prog_load_from_file(TMPFILE, &prog) == 0) {
uint32_t a = 0xAAAAAAAA, b = 0xBBBBBBBB;
spl_prog_add_data(&prog, &a, sizeof(a));
spl_prog_add_data(&prog, &b, sizeof(b));
spl_vm_load_prog(&vm, &prog);
if (spl_vm_prepare(&vm, "main", 0, NULL, NULL) == 0) {
int ret = spl_vm_run_until(&vm, 0);
if (ret == 1)
rc = (int)vm.exit_code;
}
spl_vm_drop(&vm);
}
remove(TMPFILE);
free(bin);
TEST_CHECK(rc == (int)0xBBBBBBBB);
}
/* ================================================================
* Native call test
* ================================================================ */
void test_ncall(void) {
/* main() -> i32 { return native_add(30, 12); } */
/* NCALL imm = nargs, native index is pushed separately */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 30), ins(SPL_PUSH, SPL_I32, 12),
ins(SPL_PUSH, SPL_VOID, 0), ins(SPL_NCALL, SPL_I32, 2),
ins(SPL_RET, SPL_I32, 0)};
spl_vm_native_t nat[] = {{"native_add", 0, native_add_impl}};
TEST_CHECK(run_with_natives(p, 5, nat, 1) == 42);
}
/* ================================================================
* Type conversion tests
* ================================================================ */
void test_trunc(void) {
/* push 0xABCD, trunc to 8 bits -> 0xCD */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xABCD), ins(SPL_TRUNC, SPL_U8, 8),
ins(SPL_RET, SPL_U8, 0)};
TEST_CHECK(run(p, 3) == 0xCD);
}
void test_sext(void) {
/* push 0x80, sext from 8 bits -> 0xFFFFFF80 */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 0x80), ins(SPL_SEXT, SPL_I32, 8),
ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 3) == (int)(int8_t)(0x80));
}
void test_zext(void) {
/* push 0xFFFF, zext from 8 bits -> 0xFF */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 0xFFFF), ins(SPL_ZEXT, SPL_U32, 8),
ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 3) == 0xFF);
}
/* ================================================================
* Extended arithmetic tests (unsigned div/rem)
* ================================================================ */
void test_div_u(void) {
/* unsigned: 100 / 3 = 33 */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 100), ins(SPL_PUSH, SPL_U32, 3),
ins(SPL_DIV_U, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 33);
}
void test_rem_u(void) {
/* unsigned: 100 % 3 = 1 */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_U32, 100), ins(SPL_PUSH, SPL_U32, 3),
ins(SPL_REM_U, SPL_U32, 0), ins(SPL_RET, SPL_U32, 0)};
TEST_CHECK(run(p, 4) == 1);
}
/* ================================================================
* Edge case tests
* ================================================================ */
void test_many_ops(void) {
/* (1+2) * (3+4) = 21 */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 1), ins(SPL_PUSH, SPL_I32, 2),
ins(SPL_ADD, SPL_I32, 0), ins(SPL_PUSH, SPL_I32, 3),
ins(SPL_PUSH, SPL_I32, 4), ins(SPL_ADD, SPL_I32, 0),
ins(SPL_MUL, SPL_I32, 0), ins(SPL_RET, SPL_I32, 0)};
TEST_CHECK(run(p, 8) == 21);
}
void test_halt(void) {
/* push 77, halt -> exit code 0 (HALT doesn't pop) */
spl_vm_ins_t p[] = {ins(SPL_PUSH, SPL_I32, 77), ins(SPL_HALT, SPL_VOID, 0)};
TEST_CHECK(run(p, 2) == 0);
}
/* ================================================================
* Bad program tests
* ================================================================ */
void test_bad_magic(void) {
unsigned char bad[8] = {0, 0, 0, 0, 0, 0, 0, 0};
spl_prog_t prog;
if (write_temp(bad, 8) == 0) {
TEST_CHECK(spl_prog_load_from_file(TMPFILE, &prog) != 0);
remove(TMPFILE);
}
}
void test_empty(void) {
TEST_CHECK(spl_prog_load_from_file("nonexistent_file_xyz.bin", NULL) != 0);
}
/* ================================================================
* Test list
* ================================================================ */
TEST_LIST = {
{"push", test_push_imm},
{"dup", test_dup},
{"drop", test_drop},
{"swap", test_swap},
{"pick", test_pick},
{"add", test_add},
{"sub", test_sub},
{"mul", test_mul},
{"div", test_div},
{"rem", test_rem},
{"neg", test_neg},
{"i64_arith", test_i64_arith},
{"and", test_and},
{"or", test_or},
{"xor", test_xor},
{"not", test_not},
{"shl", test_shl},
{"shr", test_shr},
{"shr_s", test_shr_s},
{"eq", test_eq},
{"neq", test_neq},
{"lt", test_lt},
{"gt_signed", test_gt_signed},
{"sle", test_sle},
{"sge", test_sge},
{"ult", test_ult},
{"ule", test_ule},
{"ugt", test_ugt},
{"uge", test_uge},
{"jmp", test_jmp},
{"bz_bnz", test_bz_bnz},
{"alloc_laddr_ld_st", test_alloc_laddr_st64_ld64},
{"alloc_zeroed", test_alloc_zeroed},
{"call_add", test_call_add},
{"calli", test_calli},
{"gaddr_ld32", test_gaddr_ld32},
{"gaddr_multi", test_gaddr_multi},
{"ncall", test_ncall},
{"div_u", test_div_u},
{"rem_u", test_rem_u},
{"trunc", test_trunc},
{"sext", test_sext},
{"zext", test_zext},
{"ld_st8", test_ld_st8},
{"ld_st16", test_ld_st16},
{"ld_st32", test_ld_st32},
{"ld_st64", test_ld_st64},
{"many_ops", test_many_ops},
{"halt", test_halt},
{"bad_magic", test_bad_magic},
{"empty", test_empty},
{NULL, NULL},
};
+429
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@@ -0,0 +1,429 @@
#include "spl_ast.h"
const char *spl_ast_kind_name(spl_ast_node_kind_t kind) {
static const char *const names[] = {
#define X(a, b, c) #c,
SPL_AST_KIND_TABLE
#undef X
};
if ((usize)kind < sizeof(names) / sizeof(names[0]))
return names[kind];
return "?";
}
const char *spl_binary_op_name(spl_binary_op_t op) {
static const char *const names[] = {
#define X(a, b, c, name) #name,
SPL_BINARY_OP_TABLE
#undef X
};
if ((usize)op < sizeof(names) / sizeof(names[0]))
return names[op];
return "?";
}
const char *spl_unary_op_name(spl_unary_op_t op) {
switch (op) {
case SPL_UNARY_OP_MINUS:
return "neg";
case SPL_UNARY_OP_NOT:
return "not";
case SPL_UNARY_OP_BIT_NOT:
return "bitnot";
case SPL_UNARY_OP_ADDRESS:
return "addr";
case SPL_UNARY_OP_DEREF:
return "deref";
default:
return "?";
}
}
void spl_ast_init(spl_ast_t *ast, const spl_tok_vec_t *tok_vec) {
ast->input = *tok_vec;
vec_init(ast->node_buckets);
vec_init(ast->str_buckets);
ast->root = 0;
spl_ast_node_t n = {0};
vec_push(ast->node_buckets, n);
}
void spl_ast_drop(spl_ast_t *ast) {
if (!ast)
return;
vec_for(ast->str_buckets, idx) { free(vec_at(ast->str_buckets, idx)); }
vec_free(ast->str_buckets);
vec_for(ast->node_buckets, idx) { vec_free(vec_at(ast->node_buckets, idx).attrs); }
vec_free(ast->node_buckets);
vec_free(ast->input);
ast->root = 0;
}
spl_ast_node_t *spl_ast_node(spl_ast_t *ast, spl_ast_node_ref_t node) {
if (!ast || node == 0 || node >= ast->node_buckets.size)
return NULL;
return &ast->node_buckets.data[node];
}
typedef VEC(char) dump_stack_t;
static void dump_node(spl_ast_t *ast, spl_ast_node_ref_t node_ref, dump_stack_t *stack, bool last);
void spl_ast_dump(spl_ast_t *ast, spl_ast_node_ref_t node) {
if (!ast || !node || node >= ast->node_buckets.size)
return;
dump_stack_t stack;
vec_init(stack);
printf("AST:\n");
dump_node(ast, node, &stack, true);
vec_free(stack);
}
#define dump_vec(_ast, _vec, _stack) \
do { \
vec_for(_vec, _i) { dump_node(_ast, vec_at(_vec, _i), _stack, _i + 1 == vec_size(_vec)); } \
} while (0)
static void dump_node(spl_ast_t *ast, spl_ast_node_ref_t node_ref, dump_stack_t *stack, bool last) {
spl_ast_node_t *node = &ast->node_buckets.data[node_ref];
for (usize i = 0; i < vec_size(*stack); i++)
printf("%s", vec_at(*stack, i) ? " " : "| ");
printf("%s%s #%zu", last ? "`-" : "|-", spl_ast_kind_name(node->kind), node_ref);
if (node->dbg.fname)
printf(" [%d:%d]", node->dbg.line, node->dbg.col);
printf("\n");
vec_push(*stack, last);
switch (node->kind) {
case SPL_AST_ROOT:
if (node->root.members)
dump_node(ast, node->root.members, stack, true);
break;
case SPL_AST_CONTAINER_MEMBERS:
dump_vec(ast, node->container_members.external_tags, stack);
dump_vec(ast, node->container_members.declarations, stack);
break;
case SPL_AST_TAG_ITEM:
case SPL_AST_EXTERNAL_TAG_ITEM:
dump_vec(ast, node->tag_item.args, stack);
break;
case SPL_AST_FN_DECL:
dump_vec(ast, node->fn_decl.tag_list, stack);
dump_vec(ast, node->fn_decl.params, stack);
if (node->fn_decl.ret_type)
dump_node(ast, node->fn_decl.ret_type, stack, false);
if (node->fn_decl.body)
dump_node(ast, node->fn_decl.body, stack, true);
break;
case SPL_AST_VAR_DECL:
case SPL_AST_CONST_DECL:
dump_vec(ast, node->var_const_decl.attr_list, stack);
if (node->var_const_decl.pattern)
dump_node(ast, node->var_const_decl.pattern, stack, false);
if (node->var_const_decl.type)
dump_node(ast, node->var_const_decl.type, stack, false);
if (node->var_const_decl.init_expr)
dump_node(ast, node->var_const_decl.init_expr, stack, true);
break;
case SPL_AST_TYPE_DECL:
if (node->type_decl.type_expr)
dump_node(ast, node->type_decl.type_expr, stack, true);
break;
case SPL_AST_MEMBER_DECL:
dump_vec(ast, node->member_decl.attr_list, stack);
if (node->member_decl.type_expr)
dump_node(ast, node->member_decl.type_expr, stack, false);
if (node->member_decl.init_expr)
dump_node(ast, node->member_decl.init_expr, stack, true);
break;
case SPL_AST_PARAM_DECL:
dump_vec(ast, node->param_decl.attr_list, stack);
if (node->param_decl.type_expr)
dump_node(ast, node->param_decl.type_expr, stack, true);
break;
case SPL_AST_COMPTIME_DECL:
if (node->comptime_decl.body)
dump_node(ast, node->comptime_decl.body, stack, true);
break;
case SPL_AST_TOP_LEVEL_BLOCK:
dump_vec(ast, node->top_level_block.tag_list, stack);
if (node->top_level_block.block)
dump_node(ast, node->top_level_block.block, stack, true);
break;
case SPL_AST_STATEMENT_RET:
if (node->statement_ret.expr)
dump_node(ast, node->statement_ret.expr, stack, true);
break;
case SPL_AST_STATEMENT_BREAK:
if (node->statement_break.label)
dump_node(ast, node->statement_break.label, stack, false);
if (node->statement_break.expr)
dump_node(ast, node->statement_break.expr, stack, true);
break;
case SPL_AST_STATEMENT_CONTINUE:
if (node->statement_continue.label)
dump_node(ast, node->statement_continue.label, stack, true);
break;
case SPL_AST_STATEMENT_DEFER:
case SPL_AST_STATEMENT_COMPTIME:
if (node->statement_defer.body)
dump_node(ast, node->statement_defer.body, stack, true);
break;
case SPL_AST_STATEMENT_DECL:
if (node->statement_decl.decl)
dump_node(ast, node->statement_decl.decl, stack, true);
break;
case SPL_AST_STATEMENT_EXPR:
if (node->statement_expr.expr)
dump_node(ast, node->statement_expr.expr, stack, true);
break;
case SPL_AST_AGGREGATE_MEMBER:
dump_vec(ast, node->aggregate_member.attr_list, stack);
if (node->aggregate_member.type_expr)
dump_node(ast, node->aggregate_member.type_expr, stack, false);
if (node->aggregate_member.init_expr)
dump_node(ast, node->aggregate_member.init_expr, stack, true);
break;
case SPL_AST_STRUCT_INIT_ITEM:
if (node->struct_init_item.expr)
dump_node(ast, node->struct_init_item.expr, stack, true);
break;
case SPL_AST_MATCH_ARM:
if (node->match_arm.pattern)
dump_node(ast, node->match_arm.pattern, stack, false);
if (node->match_arm.body)
dump_node(ast, node->match_arm.body, stack, true);
break;
case SPL_AST_LABEL:
break;
case SPL_AST_EXPR_INT_LIT:
case SPL_AST_EXPR_FLOAT_LIT:
case SPL_AST_EXPR_CHAR_LIT:
case SPL_AST_EXPR_STRING_LIT:
case SPL_AST_EXPR_BOOL_LIT:
case SPL_AST_EXPR_NULL_LIT:
case SPL_AST_EXPR_UNDEFINED_LIT:
case SPL_AST_EXPR_IDENT:
break;
case SPL_AST_EXPR_UNARY:
if (node->unary.operand)
dump_node(ast, node->unary.operand, stack, true);
break;
case SPL_AST_EXPR_BINARY:
if (node->binary.left)
dump_node(ast, node->binary.left, stack, false);
if (node->binary.right)
dump_node(ast, node->binary.right, stack, true);
break;
case SPL_AST_EXPR_CALL:
if (node->call.callee)
dump_node(ast, node->call.callee, stack, false);
dump_vec(ast, node->call.args, stack);
break;
case SPL_AST_EXPR_FIELD:
if (node->field.obj)
dump_node(ast, node->field.obj, stack, true);
break;
case SPL_AST_EXPR_INDEX:
if (node->index.obj)
dump_node(ast, node->index.obj, stack, false);
if (node->index.index)
dump_node(ast, node->index.index, stack, true);
break;
case SPL_AST_EXPR_SLICE:
if (node->slice.obj)
dump_node(ast, node->slice.obj, stack, false);
if (node->slice.begin)
dump_node(ast, node->slice.begin, stack, false);
if (node->slice.end)
dump_node(ast, node->slice.end, stack, true);
break;
case SPL_AST_EXPR_CAST:
if (node->cast.expr)
dump_node(ast, node->cast.expr, stack, false);
if (node->cast.type)
dump_node(ast, node->cast.type, stack, true);
break;
case SPL_AST_EXPR_TUPLE:
dump_vec(ast, node->tuple.elems, stack);
break;
case SPL_AST_EXPR_ARRAY_LIT:
if (node->array_literal.elem_type)
dump_node(ast, node->array_literal.elem_type, stack, false);
dump_vec(ast, node->array_literal.elems, stack);
break;
case SPL_AST_EXPR_AGGREGATE_LIT:
dump_vec(ast, node->aggregate_literal.fields, stack);
break;
case SPL_AST_EXPR_COMPTIME_CALL:
dump_vec(ast, node->comptime_call.args, stack);
break;
case SPL_AST_EXPR_BLOCK:
dump_vec(ast, node->block.stmts, stack);
if (node->block.tail_expr)
dump_node(ast, node->block.tail_expr, stack, true);
break;
case SPL_AST_EXPR_IF:
if (node->if_expr.cond)
dump_node(ast, node->if_expr.cond, stack, false);
if (node->if_expr.then_block)
dump_node(ast, node->if_expr.then_block, stack, false);
if (node->if_expr.else_branch)
dump_node(ast, node->if_expr.else_branch, stack, true);
break;
case SPL_AST_EXPR_IFVAR:
if (node->ifvar_expr.var_decl)
dump_node(ast, node->ifvar_expr.var_decl, stack, false);
if (node->ifvar_expr.then_block)
dump_node(ast, node->ifvar_expr.then_block, stack, false);
if (node->ifvar_expr.else_branch)
dump_node(ast, node->ifvar_expr.else_branch, stack, true);
break;
case SPL_AST_EXPR_WHILE:
if (node->while_expr.label)
dump_node(ast, node->while_expr.label, stack, false);
if (node->while_expr.cond)
dump_node(ast, node->while_expr.cond, stack, false);
if (node->while_expr.body)
dump_node(ast, node->while_expr.body, stack, false);
if (node->while_expr.else_branch)
dump_node(ast, node->while_expr.else_branch, stack, true);
break;
case SPL_AST_EXPR_LOOP:
if (node->loop_expr.label)
dump_node(ast, node->loop_expr.label, stack, false);
if (node->loop_expr.body)
dump_node(ast, node->loop_expr.body, stack, true);
break;
case SPL_AST_EXPR_FOR:
if (node->for_expr.label)
dump_node(ast, node->for_expr.label, stack, false);
dump_vec(ast, node->for_expr.iter_exprs, stack);
if (node->for_expr.pattern)
dump_node(ast, node->for_expr.pattern, stack, false);
if (node->for_expr.body)
dump_node(ast, node->for_expr.body, stack, false);
if (node->for_expr.else_branch)
dump_node(ast, node->for_expr.else_branch, stack, true);
break;
case SPL_AST_EXPR_MATCH:
if (node->match_expr.matched_expr)
dump_node(ast, node->match_expr.matched_expr, stack, false);
dump_vec(ast, node->match_expr.arms, stack);
break;
case SPL_AST_EXPR_FN_TYPE:
dump_vec(ast, node->fn_type.params, stack);
if (node->fn_type.ret_type)
dump_node(ast, node->fn_type.ret_type, stack, true);
break;
case SPL_AST_TYPE_PATH:
break;
case SPL_AST_TYPE_POINTER:
if (node->type_pointer.pointee)
dump_node(ast, node->type_pointer.pointee, stack, true);
break;
case SPL_AST_TYPE_ARRAY:
if (node->type_array.elem_type)
dump_node(ast, node->type_array.elem_type, stack, true);
break;
case SPL_AST_TYPE_SLICE:
if (node->type_slice.elem_type)
dump_node(ast, node->type_slice.elem_type, stack, true);
break;
case SPL_AST_TYPE_FN:
dump_vec(ast, node->type_fn.params, stack);
if (node->type_fn.ret_type)
dump_node(ast, node->type_fn.ret_type, stack, true);
break;
case SPL_AST_TYPE_PAREN:
dump_vec(ast, node->type_paren.types, stack);
break;
case SPL_AST_TYPE_AGGREGATE:
dump_vec(ast, node->type_aggregate.members, stack);
break;
case SPL_AST_TYPE_COMPTIME_CALL:
dump_vec(ast, node->type_comptime_call.args, stack);
break;
case SPL_AST_PATTERN_IDENT:
case SPL_AST_PATTERN_UNDERSCORE:
break;
case SPL_AST_PATTERN_DOT:
if (node->pattern_dot.sub_pattern)
dump_node(ast, node->pattern_dot.sub_pattern, stack, true);
break;
case SPL_AST_PATTERN_TUPLE:
dump_vec(ast, node->pattern_tuple.patterns, stack);
break;
case SPL_AST_PATTERN_LIST:
dump_vec(ast, node->pattern_list.patterns, stack);
break;
case SPL_AST_PATTERN_AGGREGATE:
dump_vec(ast, node->pattern_aggregate.fields, stack);
break;
case SPL_AST_PATTERN_FIELD:
if (node->pattern_field.pattern)
dump_node(ast, node->pattern_field.pattern, stack, true);
break;
default:
break;
}
(void)vec_pop(*stack);
}
+478
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@@ -0,0 +1,478 @@
#ifndef __SPL_AST_H__
#define __SPL_AST_H__
#include "../stage0/include/utils.h"
#include "spl_attr.h"
#include "spl_dbg.h"
#include "spl_tok.h"
/* clang-format off */
#define SPL_AST_KIND_TABLE \
X(SPL_AST_NONE, V0, none) \
X(SPL_AST_ROOT, V0, root) \
X(SPL_AST_CONTAINER_MEMBERS, V0, container_members) \
X(SPL_AST_EXTERNAL_TAG_ITEM, V0, external_tag_item) \
X(SPL_AST_TAG_ITEM, V0, tag_item) \
X(SPL_AST_COMPTIME_DECL, V0, comptime_decl) \
X(SPL_AST_TOP_LEVEL_BLOCK, V0, top_level_block) \
X(SPL_AST_FN_DECL, V0, fn_decl) \
X(SPL_AST_VAR_DECL, V0, var_decl) \
X(SPL_AST_CONST_DECL, V0, const_decl) \
X(SPL_AST_TYPE_DECL, V0, type_decl) \
X(SPL_AST_MEMBER_DECL, V0, member_decl) \
X(SPL_AST_PARAM_DECL, V0, param_decl) \
X(SPL_AST_STATEMENT_RET, V0, statement_ret) \
X(SPL_AST_STATEMENT_BREAK, V0, statement_break) \
X(SPL_AST_STATEMENT_CONTINUE, V0, statement_continue) \
X(SPL_AST_STATEMENT_DEFER, V0, statement_defer) \
X(SPL_AST_STATEMENT_COMPTIME, V0, statement_comptime) \
X(SPL_AST_STATEMENT_DECL, V0, statement_decl) \
X(SPL_AST_STATEMENT_EXPR, V0, statement_expr) \
X(SPL_AST_AGGREGATE_MEMBER, V0, aggregate_member) \
X(SPL_AST_STRUCT_INIT_ITEM, V0, struct_init_item) \
X(SPL_AST_MATCH_ARM, V0, match_arm) \
X(SPL_AST_LABEL, V0, label) \
X(SPL_AST_EXPR_INT_LIT, V0, int_lit) \
X(SPL_AST_EXPR_FLOAT_LIT, V0, float_lit) \
X(SPL_AST_EXPR_CHAR_LIT, V0, char_lit) \
X(SPL_AST_EXPR_STRING_LIT, V0, string_lit) \
X(SPL_AST_EXPR_BOOL_LIT, V0, bool_lit) \
X(SPL_AST_EXPR_NULL_LIT, V0, null_lit) \
X(SPL_AST_EXPR_UNDEFINED_LIT, V0, undefined_lit) \
X(SPL_AST_EXPR_IDENT, V0, ident) \
X(SPL_AST_EXPR_UNARY, V0, unary) \
X(SPL_AST_EXPR_BINARY, V0, binary) \
X(SPL_AST_EXPR_CALL, V0, call) \
X(SPL_AST_EXPR_FIELD, V0, field) \
X(SPL_AST_EXPR_INDEX, V0, index) \
X(SPL_AST_EXPR_SLICE, V0, slice) \
X(SPL_AST_EXPR_CAST, V0, cast) \
X(SPL_AST_EXPR_TUPLE, V0, tuple) \
X(SPL_AST_EXPR_ARRAY_LIT, V0, array_literal) \
X(SPL_AST_EXPR_AGGREGATE_LIT, V0, aggregate_literal) \
X(SPL_AST_EXPR_COMPTIME_CALL, V0, comptime_call) \
X(SPL_AST_EXPR_BLOCK, V0, block) \
X(SPL_AST_EXPR_IF, V0, if_expr) \
X(SPL_AST_EXPR_IFVAR, V0, ifvar_expr) \
X(SPL_AST_EXPR_WHILE, V0, while_expr) \
X(SPL_AST_EXPR_LOOP, V0, loop_expr) \
X(SPL_AST_EXPR_FOR, V0, for_expr) \
X(SPL_AST_EXPR_MATCH, V0, match_expr) \
X(SPL_AST_EXPR_FN_TYPE, V0, fn_type) \
X(SPL_AST_TYPE_PATH, V0, type_path) \
X(SPL_AST_TYPE_POINTER, V0, type_pointer) \
X(SPL_AST_TYPE_ARRAY, V0, type_array) \
X(SPL_AST_TYPE_SLICE, V0, type_slice) \
X(SPL_AST_TYPE_FN, V0, type_fn) \
X(SPL_AST_TYPE_PAREN, V0, type_paren) \
X(SPL_AST_TYPE_AGGREGATE, V0, type_aggregate) \
X(SPL_AST_TYPE_COMPTIME_CALL, V0, type_comptime_call) \
X(SPL_AST_PATTERN_IDENT, V0, pattern_ident) \
X(SPL_AST_PATTERN_UNDERSCORE, V0, pattern_underscore) \
X(SPL_AST_PATTERN_DOT, V0, pattern_dot) \
X(SPL_AST_PATTERN_TUPLE, V0, pattern_tuple) \
X(SPL_AST_PATTERN_LIST, V0, pattern_list) \
X(SPL_AST_PATTERN_AGGREGATE, V0, pattern_aggregate) \
X(SPL_AST_PATTERN_FIELD, V0, pattern_field)
/* clang-format on */
typedef enum {
#ifdef X
#undef X
#endif
#define X(name, ...) name,
SPL_AST_KIND_TABLE
#undef X
SPL_AST_COUNT,
} spl_ast_node_kind_t;
/* clang-format off */
#define SPL_BINARY_OP_TABLE \
X(SPL_OP_ASSIGN, 1, 'R', =) \
X(SPL_OP_ASSIGN_ADD, 1, 'R', +=) \
X(SPL_OP_ASSIGN_SUB, 1, 'R', -=) \
X(SPL_OP_ASSIGN_MUL, 1, 'R', *=) \
X(SPL_OP_ASSIGN_DIV, 1, 'R', /=) \
X(SPL_OP_ASSIGN_MOD, 1, 'R', %=) \
X(SPL_OP_ASSIGN_AND, 1, 'R', &=) \
X(SPL_OP_ASSIGN_OR, 1, 'R', |=) \
X(SPL_OP_ASSIGN_XOR, 1, 'R', ^=) \
X(SPL_OP_ASSIGN_LSHIFT, 1, 'R', <<=) \
X(SPL_OP_ASSIGN_RSHIFT, 1, 'R', >>=) \
X(SPL_OP_BOOL_OR, 2, 'L', ||) \
X(SPL_OP_BOOL_AND, 3, 'L', &&) \
X(SPL_OP_BIT_OR, 4, 'L', |) \
X(SPL_OP_BIT_XOR, 5, 'L', ^) \
X(SPL_OP_BIT_AND, 6, 'L', &) \
X(SPL_OP_CMP_EQ, 7, 'L', ==) \
X(SPL_OP_CMP_NE, 7, 'L', !=) \
X(SPL_OP_CMP_LE, 8, 'L', <=) \
X(SPL_OP_CMP_GE, 8, 'L', >=) \
X(SPL_OP_CMP_LT, 8, 'L', <) \
X(SPL_OP_CMP_GT, 8, 'L', >) \
X(SPL_OP_ARROW_LEFT, 9, 'L', <-) \
X(SPL_OP_ARROW_RIGHT, 9, 'L', ->) \
X(SPL_OP_ARROW_FAT_BOTH, 9, 'L', <=>) \
X(SPL_OP_ARROW_THIN_BOTH, 9, 'L', <->) \
X(SPL_OP_ARROW_FAT_RIGHT, 9, 'L', =>) \
X(SPL_OP_RANGE, 10, 'L', ..) \
X(SPL_OP_LSHIFT, 11, 'L', <<) \
X(SPL_OP_RSHIFT, 11, 'L', >>) \
X(SPL_OP_ADD, 12, 'L', +) \
X(SPL_OP_SUB, 12, 'L', -) \
X(SPL_OP_MUL, 13, 'L', *) \
X(SPL_OP_DIV, 13, 'L', /) \
X(SPL_OP_MOD, 13, 'L', %)
/* clang-format on */
typedef enum {
#ifdef X
#undef X
#endif
#define X(name, ...) name,
SPL_BINARY_OP_TABLE
#undef X
} spl_binary_op_t;
typedef enum {
SPL_UNARY_OP_MINUS,
SPL_UNARY_OP_NOT,
SPL_UNARY_OP_BIT_NOT,
SPL_UNARY_OP_ADDRESS,
SPL_UNARY_OP_DEREF,
} spl_unary_op_t;
struct spl_ast_node;
typedef struct spl_ast_node spl_ast_node_t;
typedef usize spl_ast_node_ref_t;
typedef VEC(spl_ast_node_ref_t) spl_ast_node_ref_vec_t;
struct spl_ast_node {
spl_ast_node_kind_t kind;
spl_dbg_node_t dbg;
usize resolved_def_id;
usize resolved_lang_tid;
usize expected_lang_tid;
spl_attr_id_vec_t attrs;
union {
struct {
spl_ast_node_ref_t members;
} root;
struct {
spl_ast_node_ref_vec_t external_tags;
spl_ast_node_ref_vec_t declarations;
} container_members;
struct {
spl_ast_node_ref_vec_t tag_list;
bool is_comptime;
const char *name;
spl_ast_node_ref_vec_t params;
spl_ast_node_ref_t ret_type;
spl_ast_node_ref_t body;
} fn_decl;
struct {
spl_ast_node_ref_vec_t attr_list;
spl_ast_node_ref_t pattern;
spl_ast_node_ref_t type;
spl_ast_node_ref_t init_expr;
} var_const_decl;
struct {
spl_ast_node_ref_vec_t attr_list;
const char *name;
spl_ast_node_ref_t type_expr;
} type_decl;
struct {
spl_ast_node_ref_vec_t attr_list;
const char *name;
spl_ast_node_ref_t type_expr;
spl_ast_node_ref_t init_expr;
} member_decl;
struct {
spl_ast_node_ref_vec_t attr_list;
const char *name;
spl_ast_node_ref_t type_expr;
} param_decl;
struct {
bool is_at;
bool is_external;
const char *name;
spl_ast_node_ref_vec_t args;
} tag_item;
struct {
spl_ast_node_ref_t body;
} comptime_decl;
struct {
spl_ast_node_ref_vec_t tag_list;
spl_ast_node_ref_t block;
} top_level_block;
struct {
spl_ast_node_ref_t expr;
} statement_ret;
struct {
spl_ast_node_ref_t label;
spl_ast_node_ref_t expr;
} statement_break;
struct {
spl_ast_node_ref_t label;
} statement_continue;
struct {
spl_ast_node_ref_t body;
} statement_defer;
struct {
spl_ast_node_ref_t body;
} statement_comptime;
struct {
spl_ast_node_ref_t decl;
} statement_decl;
struct {
spl_ast_node_ref_t expr;
} statement_expr;
struct {
spl_ast_node_ref_vec_t attr_list;
const char *name;
spl_ast_node_ref_t type_expr;
spl_ast_node_ref_t init_expr;
} aggregate_member;
struct {
const char *name;
spl_ast_node_ref_t expr;
} struct_init_item;
struct {
spl_ast_node_ref_t pattern;
spl_ast_node_ref_t body;
} match_arm;
struct {
const char *name;
} label;
spl_mpa_int_t int_lit;
spl_mpa_float_t float_lit;
struct {
char val;
} char_lit;
struct {
const char *data;
usize len;
} string_lit;
struct {
bool val;
} bool_lit;
struct {
const char *name;
} ident;
struct {
spl_unary_op_t op;
spl_ast_node_ref_t operand;
} unary;
struct {
spl_binary_op_t op;
spl_ast_node_ref_t left;
spl_ast_node_ref_t right;
} binary;
struct {
spl_ast_node_ref_t callee;
spl_ast_node_ref_vec_t args;
} call;
struct {
spl_ast_node_ref_t obj;
const char *field;
} field;
struct {
spl_ast_node_ref_t obj;
spl_ast_node_ref_t index;
} index;
struct {
spl_ast_node_ref_t obj;
spl_ast_node_ref_t begin;
spl_ast_node_ref_t end;
} slice;
struct {
spl_ast_node_ref_t expr;
spl_ast_node_ref_t type;
} cast;
struct {
spl_ast_node_ref_vec_t elems;
} tuple;
struct {
bool has_len;
usize len;
bool is_underscore_len;
spl_ast_node_ref_t elem_type;
spl_ast_node_ref_vec_t elems;
} array_literal;
struct {
const char *name;
spl_ast_node_ref_vec_t fields;
} aggregate_literal;
struct {
const char *name;
spl_ast_node_ref_vec_t args;
} comptime_call;
struct {
spl_ast_node_ref_vec_t stmts;
spl_ast_node_ref_t tail_expr;
} block;
struct {
spl_ast_node_ref_t cond;
spl_ast_node_ref_t then_block;
spl_ast_node_ref_t else_branch;
} if_expr;
struct {
spl_ast_node_ref_t var_decl;
spl_ast_node_ref_t then_block;
spl_ast_node_ref_t else_branch;
} ifvar_expr;
struct {
spl_ast_node_ref_t label;
spl_ast_node_ref_t cond;
spl_ast_node_ref_t body;
spl_ast_node_ref_t else_branch;
} while_expr;
struct {
spl_ast_node_ref_t label;
spl_ast_node_ref_t body;
} loop_expr;
struct {
spl_ast_node_ref_t label;
spl_ast_node_ref_vec_t iter_exprs;
spl_ast_node_ref_t pattern;
spl_ast_node_ref_t body;
spl_ast_node_ref_t else_branch;
} for_expr;
struct {
spl_ast_node_ref_t matched_expr;
spl_ast_node_ref_vec_t arms;
} match_expr;
struct {
bool is_comptime;
spl_ast_node_ref_vec_t params;
spl_ast_node_ref_t ret_type;
} fn_type;
struct {
const char *name;
spl_ast_node_ref_vec_t generic_args;
} type_path;
struct {
spl_ast_node_ref_t pointee;
} type_pointer;
struct {
bool has_len;
isize len;
bool is_underscore_len;
spl_ast_node_ref_t elem_type;
} type_array;
struct {
spl_ast_node_ref_t elem_type;
} type_slice;
struct {
bool is_comptime;
spl_ast_node_ref_vec_t params;
spl_ast_node_ref_t ret_type;
} type_fn;
struct {
spl_ast_node_ref_vec_t types;
} type_paren;
struct {
const char *kind_name;
spl_ast_node_ref_vec_t members;
} type_aggregate;
struct {
const char *name;
spl_ast_node_ref_vec_t args;
} type_comptime_call;
struct {
const char *name;
} pattern_ident;
struct {
const char *name;
spl_ast_node_ref_t sub_pattern;
} pattern_dot;
struct {
spl_ast_node_ref_vec_t patterns;
} pattern_tuple;
struct {
spl_ast_node_ref_vec_t patterns;
} pattern_list;
struct {
spl_ast_node_ref_vec_t fields;
} pattern_aggregate;
struct {
const char *name;
spl_ast_node_ref_t pattern;
} pattern_field;
};
};
typedef VEC(spl_ast_node_t) spl_ast_node_vec_t;
typedef VEC(char *) spl_ast_cstr_ref_vec_t;
typedef struct spl_ast {
spl_tok_vec_t input;
spl_ast_node_vec_t node_buckets;
spl_ast_cstr_ref_vec_t str_buckets;
spl_ast_node_ref_t root;
} spl_ast_t;
typedef VEC(spl_ast_t *) spl_ast_ptr_vec_t;
void spl_ast_init(spl_ast_t *ast, const spl_tok_vec_t *tok_vec /*move*/);
void spl_ast_drop(spl_ast_t *ast);
spl_ast_node_t *spl_ast_node(spl_ast_t *ast, spl_ast_node_ref_t node);
void spl_ast_dump(spl_ast_t *ast, spl_ast_node_ref_t node);
const char *spl_ast_kind_name(spl_ast_node_kind_t kind);
const char *spl_binary_op_name(spl_binary_op_t op);
const char *spl_unary_op_name(spl_unary_op_t op);
#endif /* __SPL_AST_H__ */
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+39
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@@ -0,0 +1,39 @@
#ifndef __SPL_AST2IR_H__
#define __SPL_AST2IR_H__
#include "spl_diag.h"
#include "spl_ir.h"
#include "spl_sema.h"
typedef MAP(spl_def_id_t, spl_ir_node_ref_t) spl_def2ir_map_t;
typedef struct {
usize cont_blk;
const char *label;
spl_ir_node_ref_vec_t breaks;
spl_ir_node_ref_t result_slot;
spl_type_id_t result_tid;
} spl_loop_ctx_t;
typedef VEC(spl_loop_ctx_t) spl_loop_ctx_vec_t;
typedef VEC(spl_ast_node_ref_t) spl_defer_stack_t;
typedef struct {
const spl_sema_t *sema;
spl_ir_builder_t *ir;
spl_ast_t *ast;
spl_def2ir_map_t def2ir_map;
spl_loop_ctx_vec_t loop_stack;
spl_defer_stack_t defer_stack;
spl_lang_type_id_t cur_ret_lang;
usize cur_defer_base;
spl_diag_t *diag;
} spl_ast2ir_t;
void spl_ast2ir_init(spl_ast2ir_t *ast2ir, spl_ir_builder_t *ir, const spl_sema_t *sema);
void spl_ast2ir_drop(spl_ast2ir_t *ast2ir);
void spl_ast2ir_run(spl_ast2ir_t *ast2ir, spl_ast_ptr_vec_t ast_vec);
#endif /* __SPL_AST2IR_H__ */
+152
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#include "spl_attr.h"
static spl_attr_info_t spl_builtin_attrs[] = {
{NULL, "extern", SPL_ATTR_STAGE_IR, SPL_ATTR_TARGET_DECL, SPL_ATTR_REQUIRED, 1, 1},
{NULL, "inline", SPL_ATTR_STAGE_OPT, SPL_ATTR_TARGET_DECL, SPL_ATTR_OPTIONAL, 0, 0},
{NULL, "noinline", SPL_ATTR_STAGE_OPT, SPL_ATTR_TARGET_DECL, SPL_ATTR_OPTIONAL, 0, 0},
{NULL, "align", SPL_ATTR_STAGE_LAYOUT, SPL_ATTR_TARGET_TYPE, SPL_ATTR_REQUIRED, 1, 1},
{NULL, "volatile", SPL_ATTR_STAGE_IR, SPL_ATTR_TARGET_EXPR, SPL_ATTR_REQUIRED, 0, 0},
{NULL, "atomic", SPL_ATTR_STAGE_IR, SPL_ATTR_TARGET_EXPR, SPL_ATTR_REQUIRED, 0, 1},
};
void spl_attr_init(spl_attr_t *ctx) {
vec_init(ctx->table);
vec_push(ctx->table, (spl_attr_node_t){0});
vec_init(ctx->registry);
spl_attr_register_builtins(ctx);
}
void spl_attr_drop(spl_attr_t *ctx) {
for (usize i = 1; i < vec_size(ctx->table); ++i)
vec_free(vec_at(ctx->table, i).args);
vec_free(ctx->table);
vec_free(ctx->registry);
}
spl_attr_id_t spl_attr_alloc(spl_attr_t *ctx, spl_attr_info_t *info, spl_attr_arg_vec_t args) {
spl_attr_node_t a = {0};
a.info = info;
a.args = args;
vec_push(ctx->table, a);
return vec_size(ctx->table) - 1;
}
spl_attr_node_t *spl_attr_node(const spl_attr_t *ctx, spl_attr_id_t id) {
if (!id || id >= vec_size(ctx->table))
return NULL;
return &vec_at(ctx->table, id);
}
void spl_attr_registry_add(spl_attr_t *ctx, spl_attr_info_t *info) {
vec_push(ctx->registry, info);
}
static int name_eq(const char *a, const char *b) {
if (a == NULL && b == NULL)
return 1;
if (a == NULL || b == NULL)
return 0;
return strcmp(a, b) == 0;
}
spl_attr_info_t *spl_attr_lookup(spl_attr_t *ctx, const char *ns, const char *name) {
for (usize i = 0; i < vec_size(ctx->registry); ++i) {
spl_attr_info_t *info = vec_at(ctx->registry, i);
if (name_eq(info->ns, ns) && strcmp(info->name, name) == 0)
return info;
}
return NULL;
}
void spl_attr_register_builtins(spl_attr_t *ctx) {
usize n = sizeof(spl_builtin_attrs) / sizeof(spl_builtin_attrs[0]);
for (usize i = 0; i < n; ++i)
spl_attr_registry_add(ctx, &spl_builtin_attrs[i]);
}
static const char *attr_stage_name(spl_attr_stage_t s) {
switch (s) {
case SPL_ATTR_STAGE_SEMA:
return "SEMA";
case SPL_ATTR_STAGE_LAYOUT:
return "LAYOUT";
case SPL_ATTR_STAGE_IR:
return "IR";
case SPL_ATTR_STAGE_OPT:
return "OPT";
case SPL_ATTR_STAGE_BACKEND:
return "BACKEND";
}
return "?";
}
static const char *attr_target_name(spl_attr_target_t t) {
switch (t) {
case SPL_ATTR_TARGET_DECL:
return "DECL";
case SPL_ATTR_TARGET_TYPE:
return "TYPE";
case SPL_ATTR_TARGET_EXPR:
return "EXPR";
case SPL_ATTR_TARGET_STMT:
return "STMT";
}
return "?";
}
static const char *attr_demand_name(spl_attr_demand_t d) {
return d == SPL_ATTR_REQUIRED ? "REQUIRED" : "OPTIONAL";
}
void spl_attr_dump_id(const spl_attr_t *ctx, spl_attr_id_t id) {
if (!ctx || !id) {
printf("?");
return;
}
spl_attr_node_t *a = spl_attr_node(ctx, id);
if (!a || !a->info) {
printf("?");
return;
}
printf("%s", a->info->name);
if (vec_size(a->args) > 0) {
printf("(");
for (usize i = 0; i < vec_size(a->args); ++i) {
if (i > 0)
printf(", ");
spl_attr_arg_t *arg = &vec_at(a->args, i);
switch (arg->kind) {
case SPL_ATTR_ARG_INT:
printf("%zd", arg->value.i);
break;
case SPL_ATTR_ARG_STR:
printf("\"%s\"", arg->value.s ? arg->value.s : "");
break;
case SPL_ATTR_ARG_DEF:
printf("def#%zu", arg->value.d);
break;
case SPL_ATTR_ARG_TYPE:
printf("type#%zu", arg->value.t);
break;
}
}
printf(")");
}
}
void spl_attr_dump(const spl_attr_t *ctx) {
if (!ctx)
return;
printf("AttrTable:\n");
for (usize i = 1; i < vec_size(ctx->table); ++i) {
spl_attr_node_t *a = &vec_at(ctx->table, i);
printf(" #%zu ", i);
spl_attr_dump_id(ctx, i);
if (a->info) {
printf(" [stage=%s target=%s demand=%s consumed=0x%x]", attr_stage_name(a->info->stage),
attr_target_name(a->info->target), attr_demand_name(a->info->demand),
a->consumed_mask);
}
printf("\n");
}
}
+85
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#ifndef __SPL_ATTR_H__
#define __SPL_ATTR_H__
#include "../stage0/include/utils.h"
#include "spl_mpa.h"
typedef enum {
SPL_ATTR_STAGE_SEMA,
SPL_ATTR_STAGE_LAYOUT,
SPL_ATTR_STAGE_IR,
SPL_ATTR_STAGE_OPT,
SPL_ATTR_STAGE_BACKEND,
} spl_attr_stage_t;
typedef enum {
SPL_ATTR_TARGET_DECL,
SPL_ATTR_TARGET_TYPE,
SPL_ATTR_TARGET_EXPR,
SPL_ATTR_TARGET_STMT,
} spl_attr_target_t;
typedef enum {
SPL_ATTR_OPTIONAL,
SPL_ATTR_REQUIRED,
} spl_attr_demand_t;
typedef struct {
const char *ns;
const char *name;
spl_attr_stage_t stage;
spl_attr_target_t target;
spl_attr_demand_t demand;
int min_args;
int max_args;
} spl_attr_info_t;
typedef enum {
SPL_ATTR_ARG_INT,
SPL_ATTR_ARG_STR,
SPL_ATTR_ARG_DEF,
SPL_ATTR_ARG_TYPE,
} spl_attr_arg_kind_t;
typedef struct {
spl_attr_arg_kind_t kind;
union {
isize i;
const char *s;
usize d;
usize t;
} value;
} spl_attr_arg_t;
typedef VEC(spl_attr_arg_t) spl_attr_arg_vec_t;
typedef usize spl_attr_id_t;
typedef struct {
spl_attr_info_t *info;
spl_attr_arg_vec_t args;
uint32_t consumed_mask;
} spl_attr_node_t;
typedef VEC(spl_attr_node_t) spl_attr_node_vec_t;
typedef VEC(spl_attr_id_t) spl_attr_id_vec_t;
typedef VEC(spl_attr_info_t *) spl_attr_registry_t;
typedef struct {
spl_attr_node_vec_t table;
spl_attr_registry_t registry;
} spl_attr_t;
void spl_attr_init(spl_attr_t *ctx);
void spl_attr_drop(spl_attr_t *ctx);
spl_attr_id_t spl_attr_alloc(spl_attr_t *ctx, spl_attr_info_t *info, spl_attr_arg_vec_t args);
spl_attr_node_t *spl_attr_node(const spl_attr_t *ctx, spl_attr_id_t id);
void spl_attr_registry_add(spl_attr_t *ctx, spl_attr_info_t *info);
spl_attr_info_t *spl_attr_lookup(spl_attr_t *ctx, const char *ns, const char *name);
void spl_attr_register_builtins(spl_attr_t *ctx);
void spl_attr_dump(const spl_attr_t *ctx);
void spl_attr_dump_id(const spl_attr_t *ctx, spl_attr_id_t id);
#endif /* __SPL_ATTR_H__ */
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#ifndef __SPL_DBG_H__
#define __SPL_DBG_H__
typedef struct {
const char *fname;
int line;
int col;
const char *dbg_name;
// TODO
} spl_dbg_node_t;
#define SPL_FATAL(dbg, fmt, ...) \
LOG_FATAL("fatal at %s:%d:%d " fmt, ((dbg) && (dbg)->fname ? (dbg)->fname : "<null>"), \
((dbg) ? (dbg)->line : 0), ((dbg) ? (dbg)->col : 0), ##__VA_ARGS__)
#define SPL_ERROR(dbg, fmt, ...) \
LOG_ERROR("error at %s:%d:%d " fmt, ((dbg) && (dbg)->fname ? (dbg)->fname : "<null>"), \
((dbg) ? (dbg)->line : 0), ((dbg) ? (dbg)->col : 0), ##__VA_ARGS__)
#define SPL_WARN(dbg, fmt, ...) \
LOG_ERROR("warn at %s:%d:%d " fmt, ((dbg) && (dbg)->fname ? (dbg)->fname : "<null>"), \
((dbg) ? (dbg)->line : 0), ((dbg) ? (dbg)->col : 0), ##__VA_ARGS__)
#endif /* __SPL_DBG_H__ */
+368
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#include "spl_diag.h"
#include "../stage0/include/color.h"
#include <stdarg.h>
static const char *const g_kind_names[] = {
[SPL_DIAG_KIND_NONE] = "none",
[SPL_DIAG_KIND_LEX_UNEXPECTED] = "lex_unexpected",
[SPL_DIAG_KIND_PARSE_EXPECTED] = "parse_expected",
[SPL_DIAG_KIND_PARSE_UNRECOGNIZED] = "parse_unrecognized",
[SPL_DIAG_KIND_UNDEFINED_SYMBOL] = "undefined_symbol",
[SPL_DIAG_KIND_DUPLICATE_SYMBOL] = "duplicate_symbol",
[SPL_DIAG_KIND_TYPE_MISMATCH] = "type_mismatch",
[SPL_DIAG_KIND_ARG_COUNT_MISMATCH] = "arg_count_mismatch",
[SPL_DIAG_KIND_NOT_A_FUNCTION] = "not_a_function",
[SPL_DIAG_KIND_NO_FIELD] = "no_field",
[SPL_DIAG_KIND_NO_METHOD] = "no_method",
[SPL_DIAG_KIND_INDEX_BASE_INVALID] = "index_base_invalid",
[SPL_DIAG_KIND_TUPLE_INDEX_OOB] = "tuple_index_oob",
[SPL_DIAG_KIND_FITS_OVERFLOW] = "fits_overflow",
[SPL_DIAG_KIND_CIRCULAR_DEP] = "circular_dep",
[SPL_DIAG_KIND_BREAK_OUTSIDE_LOOP] = "break_outside_loop",
[SPL_DIAG_KIND_CONTINUE_OUTSIDE_LOOP] = "continue_outside_loop",
[SPL_DIAG_KIND_UNDEFINED_LABEL] = "undefined_label",
[SPL_DIAG_KIND_CAST_INVALID] = "cast_invalid",
[SPL_DIAG_KIND_UNKNOWN_ATTR] = "unknown_attr",
[SPL_DIAG_KIND_UNKNOWN_INTRIN] = "unknown_intrin",
[SPL_DIAG_KIND_INTRIN_ARG_COUNT] = "intrin_arg_count",
[SPL_DIAG_KIND_VAR_UNINITIALIZED] = "var_uninitialized",
[SPL_DIAG_KIND_CANNOT_INFER] = "cannot_infer",
[SPL_DIAG_KIND_MUST_RETURN_VALUE] = "must_return_value",
[SPL_DIAG_KIND_UNHANDLED_NODE] = "unhandled_node",
[SPL_DIAG_KIND_IMPLICIT_CAST_FAIL] = "implicit_cast_fail",
[SPL_DIAG_KIND_NO_LVALUE] = "no_lvalue",
[SPL_DIAG_KIND_BAD_FIELD_INDEX] = "bad_field_index",
[SPL_DIAG_KIND_BAD_BLOCK] = "bad_block",
[SPL_DIAG_KIND_IR_UNKNOWN_KIND] = "ir_unknown_kind",
[SPL_DIAG_KIND_FRAME_OVERFLOW] = "frame_overflow",
[SPL_DIAG_KIND_INTERNAL] = "internal",
};
const char *spl_diag_kind_name(spl_diag_kind_t k) {
if ((usize)k < sizeof(g_kind_names) / sizeof(g_kind_names[0]) && g_kind_names[k])
return g_kind_names[k];
return "unknown";
}
static const char *const g_stage_names[] = {
[SPL_STAGE_NONE] = "none", [SPL_STAGE_LEX] = "lex", [SPL_STAGE_PARSE] = "parse",
[SPL_STAGE_SEMA] = "sema", [SPL_STAGE_AST2IR] = "ast2ir", [SPL_STAGE_IR2VM] = "ir2vm",
[SPL_STAGE_DRIVER] = "driver",
};
const char *spl_diag_stage_name(spl_diag_stage_t s) {
if ((usize)s < sizeof(g_stage_names) / sizeof(g_stage_names[0]) && g_stage_names[s])
return g_stage_names[s];
return "?";
}
const char *spl_diag_level_name(spl_diag_level_t l) {
switch (l) {
case SPL_DIAG_LEVEL_NOTE:
return "note";
case SPL_DIAG_LEVEL_WARN:
return "warn";
case SPL_DIAG_LEVEL_ERROR:
return "error";
case SPL_DIAG_LEVEL_FATAL:
return "fatal";
}
return "?";
}
static const char *level_color(spl_diag_level_t l) {
switch (l) {
case SPL_DIAG_LEVEL_NOTE:
return ANSI_FG_CYAN;
case SPL_DIAG_LEVEL_WARN:
return ANSI_FG_YELLOW;
case SPL_DIAG_LEVEL_ERROR:
return ANSI_FG_RED;
case SPL_DIAG_LEVEL_FATAL:
return ANSI_FG_RED ANSI_UNDERLINED;
}
return ANSI_NONE;
}
static char *diag_strdup(const char *s) {
if (!s)
return NULL;
usize n = strlen(s);
char *r = malloc(n + 1);
if (!r)
return NULL;
memcpy(r, s, n);
r[n] = '\0';
return r;
}
void spl_diag_init(spl_diag_t *d, void *fout) {
memset(d, 0, sizeof *d);
vec_init(d->ctx);
vec_init(d->records);
d->collect = true;
d->fout = fout;
d->color = true;
d->stage = SPL_STAGE_NONE;
}
static void frame_free(spl_diag_frame_t *f) {
free(f->fn_name);
free(f->label);
f->fn_name = NULL;
f->label = NULL;
}
static void record_free(spl_diag_record_t *r) {
free(r->message);
r->message = NULL;
for (usize i = 0; i < vec_size(r->ctx); ++i)
frame_free(&vec_at(r->ctx, i));
vec_free(r->ctx);
for (usize i = 0; i < vec_size(r->notes); ++i)
free(vec_at(r->notes, i).message);
vec_free(r->notes);
}
void spl_diag_reset(spl_diag_t *d) {
for (usize i = 0; i < vec_size(d->ctx); ++i)
frame_free(&vec_at(d->ctx, i));
d->ctx.size = 0;
for (usize i = 0; i < vec_size(d->records); ++i)
record_free(&vec_at(d->records, i));
d->records.size = 0;
d->num_printed = 0;
d->n_errors = 0;
d->n_warns = 0;
d->n_fatals = 0;
}
void spl_diag_drop(spl_diag_t *d) {
spl_diag_reset(d);
vec_free(d->ctx);
vec_free(d->records);
}
void spl_diag_set_stage(spl_diag_t *d, spl_diag_stage_t stage) { d->stage = stage; }
void spl_diag_set_output(spl_diag_t *d, FILE *out) { d->fout = out; }
void spl_diag_set_color(spl_diag_t *d, bool enabled) { d->color = enabled; }
void spl_diag_set_collect(spl_diag_t *d, bool enabled) { d->collect = enabled; }
void spl_diag_push(spl_diag_t *d, const spl_dbg_node_t *loc, const char *fn_name,
const char *label) {
spl_diag_frame_t f = {0};
if (loc)
f.loc = *loc;
f.fn_name = fn_name ? diag_strdup(fn_name) : NULL;
f.label = label ? diag_strdup(label) : NULL;
vec_push(d->ctx, f);
}
void spl_diag_pop(spl_diag_t *d) {
if (vec_size(d->ctx) == 0)
return;
frame_free(&vec_at(d->ctx, vec_size(d->ctx) - 1));
d->ctx.size--;
}
usize spl_diag_depth(const spl_diag_t *d) { return vec_size(d->ctx); }
static spl_diag_frame_vec_t ctx_snapshot(const spl_diag_t *d) {
spl_diag_frame_vec_t snap;
vec_init(snap);
for (usize i = 0; i < vec_size(d->ctx); ++i) {
spl_diag_frame_t *src = &vec_at(d->ctx, i);
spl_diag_frame_t f = {0};
f.loc = src->loc;
f.fn_name = src->fn_name ? diag_strdup(src->fn_name) : NULL;
f.label = src->label ? diag_strdup(src->label) : NULL;
vec_push(snap, f);
}
return snap;
}
static void frame_desc(const spl_diag_frame_t *f, char *buf, usize cap) {
if (f->fn_name && f->label)
snprintf(buf, cap, "%s %s", f->label, f->fn_name);
else if (f->fn_name)
snprintf(buf, cap, "%s", f->fn_name);
else if (f->label)
snprintf(buf, cap, "%s", f->label);
else
snprintf(buf, cap, "?");
}
static void print_loc(FILE *out, const spl_dbg_node_t *loc) {
if (loc && loc->fname)
fprintf(out, "%s:%d:%d", loc->fname, loc->line, loc->col);
else
fprintf(out, "<no-loc>");
}
static void print_record(const spl_diag_t *d, const spl_diag_record_t *r) {
FILE *out = (FILE *)d->fout;
if (!out)
return;
const char *col = d->color ? level_color(r->level) : "";
const char *rst = d->color ? ANSI_NONE : "";
fprintf(out, "%s%s[%s:%s]%s: ", col, spl_diag_level_name(r->level),
spl_diag_stage_name(r->stage), spl_diag_kind_name(r->kind), rst);
print_loc(out, &r->loc);
fputc('\n', out);
fprintf(out, " %s\n", r->message ? r->message : "");
for (usize i = vec_size(r->ctx); i > 0; --i) {
char buf[256];
frame_desc(&vec_at(r->ctx, i - 1), buf, sizeof buf);
fprintf(out, " in %s at ", buf);
print_loc(out, &vec_at(r->ctx, i - 1).loc);
fputc('\n', out);
}
for (usize i = 0; i < vec_size(r->notes); ++i) {
spl_diag_note_t *n = &vec_at(r->notes, i);
const char *ncol = d->color ? ANSI_FG_CYAN : "";
fprintf(out, "%snote%s: ", ncol, rst);
print_loc(out, &n->loc);
fputc('\n', out);
fprintf(out, " %s\n", n->message ? n->message : "");
}
}
static void emit(spl_diag_t *d, spl_diag_level_t level, spl_diag_kind_t kind,
const spl_dbg_node_t *loc, const char *fmt, va_list ap) {
va_list ap2;
va_copy(ap2, ap);
int need = vsnprintf(NULL, 0, fmt, ap);
if (need < 0)
need = 0;
char *msg = malloc((usize)need + 1);
if (msg)
vsnprintf(msg, (usize)need + 1, fmt, ap2);
va_end(ap2);
spl_diag_record_t rec = {0};
rec.level = level;
rec.stage = d->stage;
rec.kind = kind;
if (loc)
rec.loc = *loc;
rec.message = msg;
rec.ctx = ctx_snapshot(d);
vec_init(rec.notes);
if (level == SPL_DIAG_LEVEL_ERROR)
d->n_errors++;
else if (level == SPL_DIAG_LEVEL_FATAL) {
d->n_errors++;
d->n_fatals++;
} else if (level == SPL_DIAG_LEVEL_WARN)
d->n_warns++;
if (d->fout) {
print_record(d, &rec);
d->num_printed++;
}
if (d->collect)
vec_push(d->records, rec);
else
record_free(&rec);
}
void spl_diag_note(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...) {
va_list ap;
va_start(ap, fmt);
emit(d, SPL_DIAG_LEVEL_NOTE, kind, loc, fmt, ap);
va_end(ap);
}
void spl_diag_warn(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...) {
va_list ap;
va_start(ap, fmt);
emit(d, SPL_DIAG_LEVEL_WARN, kind, loc, fmt, ap);
va_end(ap);
}
void spl_diag_error(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...) {
va_list ap;
va_start(ap, fmt);
emit(d, SPL_DIAG_LEVEL_ERROR, kind, loc, fmt, ap);
va_end(ap);
}
void spl_diag_fatal(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...) {
va_list ap;
va_start(ap, fmt);
emit(d, SPL_DIAG_LEVEL_FATAL, kind, loc, fmt, ap);
va_end(ap);
}
void spl_diag_attach_note(spl_diag_t *d, const spl_dbg_node_t *loc, const char *fmt, ...) {
if (vec_size(d->records) == 0)
return;
spl_diag_record_t *last = &vec_at(d->records, vec_size(d->records) - 1);
va_list ap;
va_start(ap, fmt);
int need = vsnprintf(NULL, 0, fmt, ap);
va_end(ap);
if (need < 0)
need = 0;
char *msg = malloc((usize)need + 1);
if (msg) {
va_start(ap, fmt);
vsnprintf(msg, (usize)need + 1, fmt, ap);
va_end(ap);
}
spl_diag_note_t n = {0};
if (loc)
n.loc = *loc;
n.message = msg;
vec_push(last->notes, n);
}
bool spl_diag_has_error(const spl_diag_t *d) { return d->n_errors > 0; }
bool spl_diag_has_fatal(const spl_diag_t *d) { return d->n_fatals > 0; }
usize spl_diag_error_count(const spl_diag_t *d) { return d->n_errors; }
usize spl_diag_warn_count(const spl_diag_t *d) { return d->n_warns; }
void spl_diag_summary(const spl_diag_t *d) {
FILE *out = (FILE *)d->fout;
if (!out)
return;
/* 把还没实时打印过的记录补打一遍。
collect == false 时 records 是空的,num_printed 可能非零,
用 records.size 兜底避免越界。 */
usize printed_limit = d->num_printed;
if (printed_limit > vec_size(d->records))
printed_limit = vec_size(d->records);
for (usize i = printed_limit; i < vec_size(d->records); ++i)
print_record(d, &vec_at(d->records, i));
/* 计数 */
const char *ecol = d->color && d->n_errors > 0 ? ANSI_FG_RED : "";
const char *rst = d->color ? ANSI_NONE : "";
fprintf(out, "%s%zu error%s, %zu warning%s%s\n", ecol, d->n_errors, d->n_errors == 1 ? "" : "s",
d->n_warns, d->n_warns == 1 ? "" : "s", rst);
}
+165
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#ifndef __SPL_DIAG_H__
#define __SPL_DIAG_H__
#include "../stage0/include/utils.h"
#include "spl_dbg.h"
typedef enum {
SPL_DIAG_LEVEL_NOTE = 0,
SPL_DIAG_LEVEL_WARN,
SPL_DIAG_LEVEL_ERROR,
SPL_DIAG_LEVEL_FATAL,
} spl_diag_level_t;
typedef enum {
SPL_STAGE_NONE = 0,
SPL_STAGE_LEX,
SPL_STAGE_PARSE,
SPL_STAGE_SEMA,
SPL_STAGE_AST2IR,
SPL_STAGE_IR2VM,
SPL_STAGE_DRIVER,
} spl_diag_stage_t;
/* kind 枚举:边写边补。新增时放对应分组末尾即可。 */
typedef enum {
SPL_DIAG_KIND_NONE = 0,
/* 词法 / 语法 */
SPL_DIAG_KIND_LEX_UNEXPECTED,
SPL_DIAG_KIND_PARSE_EXPECTED,
SPL_DIAG_KIND_PARSE_UNRECOGNIZED,
/* sema */
SPL_DIAG_KIND_UNDEFINED_SYMBOL,
SPL_DIAG_KIND_DUPLICATE_SYMBOL,
SPL_DIAG_KIND_TYPE_MISMATCH,
SPL_DIAG_KIND_ARG_COUNT_MISMATCH,
SPL_DIAG_KIND_NOT_A_FUNCTION,
SPL_DIAG_KIND_NO_FIELD,
SPL_DIAG_KIND_NO_METHOD,
SPL_DIAG_KIND_INDEX_BASE_INVALID,
SPL_DIAG_KIND_TUPLE_INDEX_OOB,
SPL_DIAG_KIND_FITS_OVERFLOW,
SPL_DIAG_KIND_CIRCULAR_DEP,
SPL_DIAG_KIND_BREAK_OUTSIDE_LOOP,
SPL_DIAG_KIND_CONTINUE_OUTSIDE_LOOP,
SPL_DIAG_KIND_UNDEFINED_LABEL,
SPL_DIAG_KIND_CAST_INVALID,
SPL_DIAG_KIND_UNKNOWN_ATTR,
SPL_DIAG_KIND_UNKNOWN_INTRIN,
SPL_DIAG_KIND_INTRIN_ARG_COUNT,
SPL_DIAG_KIND_VAR_UNINITIALIZED,
SPL_DIAG_KIND_CANNOT_INFER,
SPL_DIAG_KIND_MUST_RETURN_VALUE,
/* ast2ir */
SPL_DIAG_KIND_UNHANDLED_NODE,
SPL_DIAG_KIND_IMPLICIT_CAST_FAIL,
SPL_DIAG_KIND_NO_LVALUE,
SPL_DIAG_KIND_BAD_FIELD_INDEX,
SPL_DIAG_KIND_BAD_BLOCK,
/* ir2vm */
SPL_DIAG_KIND_IR_UNKNOWN_KIND,
SPL_DIAG_KIND_FRAME_OVERFLOW,
/* 通用 */
SPL_DIAG_KIND_INTERNAL,
} spl_diag_kind_t;
typedef struct {
spl_dbg_node_t loc;
char *fn_name;
char *label;
} spl_diag_frame_t;
typedef VEC(spl_diag_frame_t) spl_diag_frame_vec_t;
typedef struct {
spl_dbg_node_t loc;
char *message;
} spl_diag_note_t;
typedef VEC(spl_diag_note_t) spl_diag_note_vec_t;
typedef struct {
spl_diag_level_t level;
spl_diag_stage_t stage;
spl_diag_kind_t kind;
spl_dbg_node_t loc;
char *message;
spl_diag_frame_vec_t ctx;
spl_diag_note_vec_t notes;
} spl_diag_record_t;
typedef VEC(spl_diag_record_t) spl_diag_record_vec_t;
typedef struct spl_diag {
spl_diag_frame_vec_t ctx;
spl_diag_record_vec_t records;
usize num_printed;
bool collect;
usize n_errors;
usize n_warns;
usize n_fatals;
spl_diag_stage_t stage;
void *fout;
bool color;
} spl_diag_t;
void spl_diag_init(spl_diag_t *d, void *fout);
void spl_diag_drop(spl_diag_t *d);
void spl_diag_reset(spl_diag_t *d);
void spl_diag_set_stage(spl_diag_t *d, spl_diag_stage_t stage);
void spl_diag_set_output(spl_diag_t *d, FILE *out);
void spl_diag_set_color(spl_diag_t *d, bool enabled);
void spl_diag_set_collect(spl_diag_t *d, bool enabled);
void spl_diag_push(spl_diag_t *d, const spl_dbg_node_t *loc, const char *fn_name,
const char *label);
void spl_diag_pop(spl_diag_t *d);
usize spl_diag_depth(const spl_diag_t *d);
/* ============================================================
* 发射
*
* 每个级别都生成独立的 spl_diag_record_t:
* - 计入 records(collect=true 时)
* - error/fatal 计入 n_errors,warn 计入 n_warns
* - 立刻输出到 out(如果非 NULL)
*
* 四种级别的语义区别:
* note —— 一般信息;不阻塞;用在前序诊断之外的独立说明
* warn —— 警告;不阻塞;driver 可忽略
* error —— 用户代码错误;调用者应 return 0
* fatal —— 用户代码错误到数据结构已损坏;调用者必须 return 0
* ============================================================ */
void spl_diag_note(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...);
void spl_diag_warn(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...);
void spl_diag_error(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...);
void spl_diag_fatal(spl_diag_t *d, spl_diag_kind_t kind, const spl_dbg_node_t *loc, const char *fmt,
...);
/* 挂到最近一条记录(records 末尾)的 notes 列表下。
* 不生成独立记录、不计入计数,输出时显示为:
* note: <loc>
* <msg>
* 使用场景:辅助说明前一条诊断,例如
* spl_diag_error(d, DUPLICATE_SYMBOL, &n->dbg, "duplicate symbol `foo`");
* spl_diag_attach_note(d, &prev->dbg, "previously defined here");
* 约束:只在 records 非空时生效;否则静默丢弃,不报错。 */
void spl_diag_attach_note(spl_diag_t *d, const spl_dbg_node_t *loc, const char *fmt, ...);
bool spl_diag_has_error(const spl_diag_t *d);
bool spl_diag_has_fatal(const spl_diag_t *d);
usize spl_diag_error_count(const spl_diag_t *d);
usize spl_diag_warn_count(const spl_diag_t *d);
void spl_diag_summary(const spl_diag_t *d);
const char *spl_diag_kind_name(spl_diag_kind_t k);
const char *spl_diag_stage_name(spl_diag_stage_t s);
const char *spl_diag_level_name(spl_diag_level_t l);
#endif /* __SPL_DIAG_H__ */
+26
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/* spl_dumptree.c 可配置的树形打印模块(只用基本 ASCII)*/
#include "spl_dumptree.h"
#include <stdarg.h>
const spl_dumptree_style_t spl_dumptree_ascii_style = {
"| ",
"|-",
"`-",
" ",
};
void spl_dumptree_print(const spl_dumptree_style_t *st, const char *prefix, int is_last,
const char *fmt, ...) {
va_list ap;
printf("%s%s ", prefix, is_last ? st->last_branch : st->branch);
va_start(ap, fmt);
vprintf(fmt, ap);
va_end(ap);
printf("\n");
}
void spl_dumptree_child_prefix(const spl_dumptree_style_t *st, const char *prefix, int is_last,
char *out, size_t cap) {
snprintf(out, cap, "%s%s", prefix, is_last ? st->space : st->vertical);
}
+31
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@@ -0,0 +1,31 @@
/* spl_dumptree.h 可配置的树形打印模块(只用基本 ASCII)*/
#ifndef __SPL_DUMPTREE_H__
#define __SPL_DUMPTREE_H__
#include <stddef.h>
#include <stdio.h>
/* 可配置的缩进字符串 */
typedef struct {
const char *vertical; /* "| " */
const char *branch; /* "|-" */
const char *last_branch; /* "`-" */
const char *space; /* " " */
} spl_dumptree_style_t;
/* 默认 ASCII 风格 */
extern const spl_dumptree_style_t spl_dumptree_ascii_style;
/* 打印一行节点标签:prefix + 分支符 + label
* prefix 已累积的缩进骨架(不含分支符)
* is_last 本节点是否为同级最后一个子节点
* fmt printf 风格 label */
void spl_dumptree_print(const spl_dumptree_style_t *st, const char *prefix, int is_last,
const char *fmt, ...);
/* 生成子节点的缩进骨架:parent_prefix + (parent_is_last ? space : vertical) */
void spl_dumptree_child_prefix(const spl_dumptree_style_t *st, const char *prefix, int is_last,
char *out, size_t cap);
#endif /* __SPL_DUMPTREE_H__ */
+4
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@@ -0,0 +1,4 @@
#ifndef __SPL_EMIT_H__
#define __SPL_EMIT_H__
#endif /* __SPL_EMIT_H__ */
+99
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@@ -0,0 +1,99 @@
#include "spl_intrin.h"
static const spl_intrin_info_t g_intrin_table[] = {
[SPL_INTRIN_NONE] = {0},
[SPL_INTRIN_SIZEOF] = {"@sizeof", SPL_INTRIN_SIZEOF, SPL_INTRIN_FORM_CALL, 1, 1,
SPL_INTRIN_RESULT_USIZE},
[SPL_INTRIN_ALIGNOF] = {"@alignof", SPL_INTRIN_ALIGNOF, SPL_INTRIN_FORM_CALL, 1, 1,
SPL_INTRIN_RESULT_USIZE},
[SPL_INTRIN_ASSERT] = {"@assert", SPL_INTRIN_ASSERT, SPL_INTRIN_FORM_CALL, 1, 2,
SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_BREAKPOINT] = {"@breakpoint", SPL_INTRIN_BREAKPOINT, SPL_INTRIN_FORM_CALL, 0, 0,
SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_LEN] = {"len", SPL_INTRIN_LEN, SPL_INTRIN_FORM_FIELD, 0, 0,
SPL_INTRIN_RESULT_USIZE},
[SPL_INTRIN_INT_CAST] = {"@int_cast", SPL_INTRIN_INT_CAST, SPL_INTRIN_FORM_CALL, 2, 2,
SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_TRUNCATE] = {"@truncate", SPL_INTRIN_TRUNCATE, SPL_INTRIN_FORM_CALL, 2, 2,
SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_BIT_CAST] = {"@bit_cast", SPL_INTRIN_BIT_CAST, SPL_INTRIN_FORM_CALL, 2, 2,
SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_FLOAT_CAST] = {"@float_cast", SPL_INTRIN_FLOAT_CAST, SPL_INTRIN_FORM_CALL, 2, 2,
SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_INT_FROM_FLOAT] = {"@int_from_float", SPL_INTRIN_INT_FROM_FLOAT,
SPL_INTRIN_FORM_CALL, 2, 2, SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_FLOAT_FROM_INT] = {"@float_from_int", SPL_INTRIN_FLOAT_FROM_INT,
SPL_INTRIN_FORM_CALL, 2, 2, SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_INT_FROM_BOOL] = {"@int_from_bool", SPL_INTRIN_INT_FROM_BOOL, SPL_INTRIN_FORM_CALL,
1, 2, SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_INT_FROM_PTR] = {"@int_from_ptr", SPL_INTRIN_INT_FROM_PTR, SPL_INTRIN_FORM_CALL, 1,
2, SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_PTR_FROM_INT] = {"@ptr_from_int", SPL_INTRIN_PTR_FROM_INT, SPL_INTRIN_FORM_CALL, 2,
2, SPL_INTRIN_RESULT_UNIT},
[SPL_INTRIN_PTR_CAST] = {"@ptr_cast", SPL_INTRIN_PTR_CAST, SPL_INTRIN_FORM_CALL, 2, 2,
SPL_INTRIN_RESULT_UNIT},
};
static const usize g_intrin_count = sizeof(g_intrin_table) / sizeof(g_intrin_table[0]);
const spl_intrin_info_t *spl_intrin_info(spl_intrin_t kind) {
if ((usize)kind >= g_intrin_count)
return NULL;
return &g_intrin_table[kind];
}
spl_intrin_t spl_intrin_lookup_call(const char *name) {
if (!name)
return SPL_INTRIN_NONE;
const char *n = name[0] == '@' ? name + 1 : name;
for (usize i = 1; i < g_intrin_count; ++i) {
const spl_intrin_info_t *d = &g_intrin_table[i];
if (d->form != SPL_INTRIN_FORM_CALL)
continue;
const char *dn = d->name[0] == '@' ? d->name + 1 : d->name;
if (strcmp(dn, n) == 0)
return d->kind;
}
return SPL_INTRIN_NONE;
}
spl_intrin_t spl_intrin_lookup_field(spl_lang_type_kind_t recv_kind, const char *field) {
if (!field)
return SPL_INTRIN_NONE;
if (strcmp(field, "len") == 0) {
if (recv_kind == SPL_LANG_TYPE_ARRAY || recv_kind == SPL_LANG_TYPE_SLICE)
return SPL_INTRIN_LEN;
}
return SPL_INTRIN_NONE;
}
spl_intrin_t spl_intrin_lookup_cast(spl_type_t *type, spl_type_id_t ft, spl_type_id_t tt) {
/* 这是 `as` 的展开规则表。要调整 as 的语义,改这里。 */
spl_type_node_t *f = spl_type_node(type, ft);
spl_type_node_t *t = spl_type_node(type, tt);
if (!f || !t)
return SPL_INTRIN_NONE;
if (f->kind == SPL_TYPE_INT && t->kind == SPL_TYPE_INT) {
usize fb = f->int_type.bits;
usize tb = t->int_type.bits;
if (fb == tb)
return SPL_INTRIN_BIT_CAST;
if (fb > tb)
return SPL_INTRIN_TRUNCATE;
return SPL_INTRIN_INT_CAST;
}
if (f->kind == SPL_TYPE_FLOAT && t->kind == SPL_TYPE_FLOAT)
return SPL_INTRIN_FLOAT_CAST;
if (f->kind == SPL_TYPE_BOOL && t->kind == SPL_TYPE_INT)
return SPL_INTRIN_INT_FROM_BOOL;
if (f->kind == SPL_TYPE_PTR && t->kind == SPL_TYPE_INT)
return SPL_INTRIN_INT_FROM_PTR;
if (f->kind == SPL_TYPE_INT && t->kind == SPL_TYPE_PTR)
return SPL_INTRIN_PTR_FROM_INT;
if (f->kind == SPL_TYPE_PTR && t->kind == SPL_TYPE_PTR)
return SPL_INTRIN_PTR_CAST;
/* int float 刻意不在这里:只能通过显式 builtin 调用。 */
return SPL_INTRIN_NONE;
}
+56
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#ifndef __SPL_INTRIN_H__
#define __SPL_INTRIN_H__
#include "../stage0/include/utils.h"
#include "spl_lang_type.h"
typedef enum {
SPL_INTRIN_NONE = 0,
SPL_INTRIN_SIZEOF,
SPL_INTRIN_ALIGNOF,
SPL_INTRIN_ASSERT,
SPL_INTRIN_BREAKPOINT,
SPL_INTRIN_LEN,
SPL_INTRIN_INT_CAST,
SPL_INTRIN_TRUNCATE,
SPL_INTRIN_BIT_CAST,
SPL_INTRIN_FLOAT_CAST,
SPL_INTRIN_INT_FROM_FLOAT,
SPL_INTRIN_FLOAT_FROM_INT,
SPL_INTRIN_INT_FROM_BOOL,
SPL_INTRIN_INT_FROM_PTR,
SPL_INTRIN_PTR_FROM_INT,
SPL_INTRIN_PTR_CAST,
} spl_intrin_t;
typedef enum {
SPL_INTRIN_FORM_CALL = 1, /* @sizeof(...) @assert(...) */
SPL_INTRIN_FORM_FIELD = 2, /* recv.len */
} spl_intrin_form_t;
typedef enum {
SPL_INTRIN_RESULT_UNIT,
SPL_INTRIN_RESULT_BOOL,
SPL_INTRIN_RESULT_USIZE,
} spl_intrin_result_t;
typedef struct {
const char *name;
spl_intrin_t kind;
spl_intrin_form_t form;
int min_args; /* FIELD 形态忽略 */
int max_args; /* -1 = variadic */
spl_intrin_result_t result;
} spl_intrin_info_t;
spl_intrin_t spl_intrin_lookup_call(const char *name);
spl_intrin_t spl_intrin_lookup_field(spl_lang_type_kind_t recv_kind, const char *field);
spl_intrin_t spl_intrin_lookup_cast(spl_type_t *type, spl_type_id_t ft, spl_type_id_t tt);
const spl_intrin_info_t *spl_intrin_info(spl_intrin_t kind);
/* ---- 与 IR 侧共享的类型布局约定 ---- */
#define SPL_SLICE_PTR_FIELD_IDX 0
#define SPL_SLICE_LEN_FIELD_IDX 1
#endif /* __SPL_INTRIN_H__ */
+847
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@@ -0,0 +1,847 @@
#include "spl_ir.h"
const char *spl_ir_kind_name(spl_ir_kind_t kind) {
static const char *const names[] = {
#define X(a, b, c) #a,
SPL_IR_FN_TABLE
#undef X
};
if ((usize)kind < sizeof(names) / sizeof(names[0]))
return names[kind];
return "?";
}
void spl_ir_init(spl_ir_t *ir) {
vec_init(ir->funcs);
vec_push(ir->funcs, (spl_ir_func_t){0});
// vec_init(ir->gdata);
// vec_push(ir->gdata, (spl_ir_node_t){0});
}
static void node_drop_vecs(spl_ir_node_t *n) {
if (!n)
return;
switch (n->kind) {
case SPL_IR_AGG_CONSTRUCT:
vec_free(n->agg_construct.fields);
break;
case SPL_IR_CONTROL_CALL:
vec_free(n->control_call.params);
break;
case SPL_IR_DBG_PANIC:
free((char *)n->dbg_panic.msg);
break;
default:
break;
}
}
void spl_ir_drop(spl_ir_t *ir) {
vec_for(ir->funcs, i) {
spl_ir_func_t *f = &vec_at(ir->funcs, i);
vec_for(f->nodes, j) {
vec_free(vec_at(f->nodes, j).attrs);
node_drop_vecs(&vec_at(f->nodes, j));
}
vec_free(f->attrs);
vec_free(f->nodes);
}
vec_free(ir->funcs);
// vec_for(ir->gdata, i) { node_drop_vecs(&vec_at(ir->gdata, i)); }
// vec_free(ir->gdata);
}
// 申请空的 ir_func 返回 id
spl_ir_func_ref_t spl_ir_alloc_fn(spl_ir_t *ir) {
if (ir == NULL) {
return 0;
}
spl_ir_func_t f = {0};
vec_init(f.nodes);
vec_push(f.nodes, (spl_ir_node_t){0});
vec_push(ir->funcs, f);
return vec_size(ir->funcs) - 1;
}
// 从 fn_id 申请空的 ir_node 返回 id
spl_ir_node_ref_t spl_ir_alloc_node(spl_ir_t *ir, spl_ir_func_ref_t fn_id) {
if (!fn_id || fn_id >= vec_size(ir->funcs)) {
return 0;
}
spl_ir_func_t *f = &vec_at(ir->funcs, fn_id);
spl_ir_node_t n = {0};
vec_push(f->nodes, n);
return vec_size(f->nodes) - 1;
}
// 从 fn_id 里通过 node_id 获取 ir_node
spl_ir_node_t *spl_ir_node(spl_ir_t *ir, spl_ir_func_ref_t fn_id, spl_ir_node_ref_t node_id) {
if (!fn_id || fn_id >= vec_size(ir->funcs)) {
return NULL;
}
spl_ir_func_t *f = &vec_at(ir->funcs, fn_id);
if (!node_id || node_id >= vec_size(f->nodes)) {
return NULL;
}
return &vec_at(f->nodes, node_id);
}
// 从 fn_id 获取 ir_func
spl_ir_func_t *spl_ir_func(spl_ir_t *ir, spl_ir_func_ref_t fn_id) {
if (!fn_id || fn_id >= vec_size(ir->funcs)) {
return NULL;
}
return &vec_at(ir->funcs, fn_id);
}
static inline void ir_dump_type(const spl_type_t *ty, spl_type_id_t tid) {
printf("(");
spl_type_pure_dump((spl_type_t *)ty, tid);
printf(")");
}
static inline void ir_dump_ref(spl_ir_node_ref_t ref) {
if (ref == 0) {
printf(" _");
} else {
printf(" %%%zu", ref);
}
}
static void ir_dump_node(const spl_type_t *ty, spl_ir_node_t *n) {
switch (n->kind) {
case SPL_IR_ARITH_ADD:
case SPL_IR_ARITH_SUB:
case SPL_IR_ARITH_MUL:
case SPL_IR_ARITH_DIV:
case SPL_IR_ARITH_REM:
case SPL_IR_ARITH_AND:
case SPL_IR_ARITH_OR:
case SPL_IR_ARITH_XOR:
case SPL_IR_ARITH_SHL:
case SPL_IR_ARITH_SHR:
ir_dump_type(ty, n->arith.tid);
ir_dump_ref(n->arith.left);
ir_dump_ref(n->arith.right);
break;
case SPL_IR_ARITH_NEG:
case SPL_IR_ARITH_ABS:
case SPL_IR_ARITH_NOT:
ir_dump_type(ty, n->arith.tid);
ir_dump_ref(n->arith.left);
break;
case SPL_IR_CMP_EQ:
case SPL_IR_CMP_NE:
case SPL_IR_CMP_LT:
case SPL_IR_CMP_LE:
case SPL_IR_CMP_GT:
case SPL_IR_CMP_GE:
ir_dump_type(ty, n->cmp.tid);
ir_dump_ref(n->cmp.a);
ir_dump_ref(n->cmp.b);
break;
case SPL_IR_CAST_TRUNC:
case SPL_IR_CAST_ZEXT:
case SPL_IR_CAST_SEXT:
case SPL_IR_CAST_FEXT:
case SPL_IR_CAST_FTRUNC:
case SPL_IR_CAST_BITCAST:
case SPL_IR_CAST_PTR2INT:
case SPL_IR_CAST_INT2PTR:
case SPL_IR_CAST_BOOL2INT:
case SPL_IR_CASE_INT2FLOAT:
case SPL_IR_CASE_FLOAT2INT:
printf(" ");
spl_type_pure_dump((spl_type_t *)ty, n->cast.from_tid);
printf(" -> ");
spl_type_pure_dump((spl_type_t *)ty, n->cast.to_tid);
ir_dump_ref(n->cast.val);
break;
case SPL_IR_MEM_ALLOCA:
ir_dump_type(ty, n->mem_alloc.tid);
ir_dump_ref(n->mem_alloc.count);
break;
case SPL_IR_MEM_GLOBAL_ALLOC:
ir_dump_type(ty, n->mem_global_alloc.tid);
printf(" g#%zu", n->mem_global_alloc.const_node);
break;
case SPL_IR_MEM_LOAD:
ir_dump_type(ty, n->mem_load.tid);
ir_dump_ref(n->mem_load.ptr);
break;
case SPL_IR_MEM_STORE:
ir_dump_type(ty, n->mem_store.tid);
ir_dump_ref(n->mem_store.ptr);
ir_dump_ref(n->mem_store.val);
break;
case SPL_IR_MEM_OFFSET:
ir_dump_type(ty, n->mem_offset.tid);
ir_dump_ref(n->mem_offset.ptr);
ir_dump_ref(n->mem_offset.offset);
break;
case SPL_IR_MEM_FIELD_PTR:
ir_dump_type(ty, n->mem_field_ptr.tid);
ir_dump_ref(n->mem_field_ptr.agg);
printf(" #%zu", n->mem_field_ptr.field_idx);
break;
case SPL_IR_MEM_COPY:
ir_dump_type(ty, n->mem_copy.tid);
ir_dump_ref(n->mem_copy.dst);
ir_dump_ref(n->mem_copy.src);
ir_dump_ref(n->mem_copy.size);
break;
case SPL_IR_MEM_SET:
ir_dump_type(ty, n->mem_set.tid);
ir_dump_ref(n->mem_set.dst);
ir_dump_ref(n->mem_set.val);
ir_dump_ref(n->mem_set.size);
break;
case SPL_IR_TYPE_CONST: {
ir_dump_type(ty, n->type_const.tid);
spl_type_node_t *t = spl_type_node((spl_type_t *)ty, n->type_const.tid);
if (t && t->kind == SPL_TYPE_FLOAT) {
printf(" float=%f", n->type_const.float_lit);
} else if (t && t->kind == SPL_TYPE_FN) {
printf(" fn#%zu", n->type_const.fn);
// } else if (t && t->kind == SPL_TYPE_PTR) {
// printf(" str=\"%s\"", n->type_const.cstr_lit ? n->type_const.cstr_lit : "?");
} else if (t && t->kind == SPL_TYPE_INT && t->int_type.bits == 8) {
printf(" char='%c'", n->type_const.ch_lit);
} else {
printf(" int=%zu", n->type_const.int_lit);
}
break;
}
case SPL_IR_TYPE_BITSIZEOF:
ir_dump_type(ty, n->bitsizeof.tid);
break;
case SPL_IR_TYPE_SIZEOF:
ir_dump_type(ty, n->ir_sizeof.tid);
break;
case SPL_IR_TYPE_ALIGNOF:
ir_dump_type(ty, n->ir_alignof.tid);
break;
case SPL_IR_TYPE_OFFSETOF:
ir_dump_type(ty, n->ir_offsetof.tid);
ir_dump_ref(n->ir_offsetof.field_idx);
break;
case SPL_IR_TYPE_FIELD_COUNT:
ir_dump_type(ty, n->field_count.tid);
break;
case SPL_IR_AGG_CONSTRUCT:
ir_dump_type(ty, n->agg_construct.tid);
vec_for(n->agg_construct.fields, i) ir_dump_ref(vec_at(n->agg_construct.fields, i));
break;
case SPL_IR_AGG_EXTRACT:
ir_dump_type(ty, n->agg_extract.tid);
printf(" #%zu", n->agg_extract.field_idx);
ir_dump_ref(n->agg_extract.val);
break;
case SPL_IR_AGG_INSERT:
ir_dump_type(ty, n->agg_insert.tid);
printf(" #%zu", n->agg_insert.field_idx);
ir_dump_ref(n->agg_insert.agg);
ir_dump_ref(n->agg_insert.field);
break;
case SPL_IR_CONTROL_SELECT:
ir_dump_type(ty, n->control_select.tid);
ir_dump_ref(n->control_select.cond);
ir_dump_ref(n->control_select.true_val);
ir_dump_ref(n->control_select.false_val);
break;
case SPL_IR_CONTROL_BR:
ir_dump_ref(n->control_br.cond);
ir_dump_ref(n->control_br.true_label);
ir_dump_ref(n->control_br.false_label);
break;
case SPL_IR_CONTROL_JMP:
ir_dump_ref(n->control_jmp.label);
break;
case SPL_IR_CONTROL_CALL:
ir_dump_type(ty, n->control_call.tid);
ir_dump_ref(n->control_call.func);
vec_for(n->control_call.params, i) ir_dump_ref(vec_at(n->control_call.params, i));
break;
case SPL_IR_CONTROL_PARAM:
ir_dump_type(ty, n->control_param.tid);
ir_dump_ref(n->control_param.idx);
break;
case SPL_IR_CONTROL_RET:
ir_dump_type(ty, n->control_ret.tid);
ir_dump_ref(n->control_ret.val);
break;
case SPL_IR_CONTROL_UNREACHABLE:
case SPL_IR_CONTROL_TRAP:
case SPL_IR_DBG_BREAKPOINT:
break;
case SPL_IR_DBG_PANIC:
printf(" \"%.*s\"", (int)n->dbg_panic.len, n->dbg_panic.msg);
break;
}
}
static void ir_dump_attr_list(const spl_attr_t *attr, spl_attr_id_vec_t *ids) {
if (!attr || !ids || vec_size(*ids) == 0)
return;
printf(" attrs=[");
for (usize i = 0; i < vec_size(*ids); ++i) {
if (i > 0)
printf(", ");
spl_attr_dump_id(attr, vec_at(*ids, i));
}
printf("]");
}
void spl_ir_dump(spl_ir_t *ir, const spl_type_t *ty, const spl_attr_t *attr) {
vec_for(ir->funcs, i) {
if (i == 0)
continue;
spl_ir_func_t *func = &vec_at(ir->funcs, i);
printf("func %s %%%zu", func->name ? func->name : "?", i);
printf(" tid = ");
spl_type_pure_dump((spl_type_t *)ty, func->fn_tid);
ir_dump_attr_list(attr, &func->attrs);
printf("\n");
vec_for(func->nodes, j) {
if (j == 0)
continue;
spl_ir_node_t *node = &vec_at(func->nodes, j);
printf(" #%zu ", j);
printf("%s", spl_ir_kind_name(node->kind));
ir_dump_node(ty, node);
ir_dump_attr_list(attr, &node->attrs);
printf("\n");
}
}
// if (vec_size(ir->gdata) > 1) {
// printf("gdata:\n");
// vec_for(ir->gdata, i) {
// if (i == 0)
// continue;
// spl_ir_node_t *node = &vec_at(ir->gdata, i);
// printf(" #%zu ", i);
// printf("%s", spl_ir_kind_name(node->kind));
// ir_dump_node(ty, node);
// printf("\n");
// }
// }
}
// IR Builder
// 从当前 fn 申请新的 node 并注入到当前基本块
static spl_ir_node_ref_t builder_alloc_node(spl_ir_builder_t *b, spl_ir_kind_t kind) {
Assert(!b->terminated && "emit into a terminated block");
spl_ir_node_ref_t ref = spl_ir_alloc_node(&b->ir, b->current_fn);
Assert(ref != 0);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->kind = kind;
n->dbg = b->dbg;
vec_init(n->attrs);
if (b->current_block >= vec_size(b->blocks)) {
Panic("unknown bblock");
return 0;
}
spl_ir_node_ref_t *slot = &vec_at(b->blocks, b->current_block);
if (*slot == 0)
*slot = ref;
return ref;
}
void spl_ir_builder_init(spl_ir_builder_t *b) {
spl_ir_init(&b->ir);
b->current_fn = 0;
b->dbg = (spl_dbg_node_t){0};
vec_init(b->blocks);
b->current_block = 0;
vec_init(b->fixups);
b->terminated = false;
}
void spl_ir_builder_drop(spl_ir_builder_t *b) {
spl_ir_drop(&b->ir);
vec_free(b->blocks);
vec_free(b->fixups);
}
spl_ir_func_ref_t spl_ir_builder_fn_begin(spl_ir_builder_t *b, const char *name,
spl_type_id_t fn_tid) {
if (b->current_fn) {
spl_ir_builder_fn_end(b);
}
spl_ir_func_ref_t fid = spl_ir_alloc_fn(&b->ir);
spl_ir_func_t *f = spl_ir_func(&b->ir, fid);
f->name = name;
vec_init(f->attrs);
f->fn_tid = fn_tid;
b->current_fn = fid;
b->current_block = 0;
b->blocks.size = 0;
b->fixups.size = 0;
b->terminated = false;
return fid;
}
spl_ir_func_ref_t spl_ir_builder_fn_reserve(spl_ir_builder_t *b, const char *name,
spl_type_id_t fn_tid) {
spl_ir_func_ref_t fid = spl_ir_alloc_fn(&b->ir);
spl_ir_func_t *f = spl_ir_func(&b->ir, fid);
f->name = name;
vec_init(f->attrs);
f->fn_tid = fn_tid;
return fid;
}
void spl_ir_builder_fn_begin_at(spl_ir_builder_t *b, spl_ir_func_ref_t fid) {
if (b->current_fn && b->current_fn != fid) {
spl_ir_builder_fn_end(b);
}
b->current_fn = fid;
b->current_block = 0;
b->blocks.size = 0;
b->fixups.size = 0;
b->terminated = false;
}
void spl_ir_builder_fn_end(spl_ir_builder_t *b) {
spl_ir_func_t *f = spl_ir_func(&b->ir, b->current_fn);
if (!f) {
Panic("ir func not found");
return;
}
vec_for(b->fixups, i) {
spl_ir_fix_t *fx = &vec_at(b->fixups, i);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, fx->node);
if (!n) {
SPL_ERROR(&n->dbg, "unknown node in func");
continue;
}
spl_ir_node_ref_t target = 0;
if (fx->block < vec_size(b->blocks)) {
target = vec_at(b->blocks, fx->block);
}
if (target == 0) {
Panic("reloc to empty/unknown bblock #%zu", fx->block);
}
switch (fx->slot) {
case SPL_IR_FIX_BR_TRUE:
n->control_br.true_label = target;
break;
case SPL_IR_FIX_BR_FALSE:
n->control_br.false_label = target;
break;
case SPL_IR_FIX_JMP:
n->control_jmp.label = target;
break;
}
}
b->current_block = 0;
b->blocks.size = 0;
b->fixups.size = 0;
b->terminated = false;
}
usize spl_ir_builder_block_begin(spl_ir_builder_t *b) {
vec_push(b->blocks, (spl_ir_block_t){0});
usize block = vec_size(b->blocks) - 1;
b->current_block = block;
b->terminated = false;
return block;
}
void spl_ir_builder_block_end(spl_ir_builder_t *b) {
if (!b->terminated) {
Panic("bblock must be end of terminated");
}
if (b->current_block != 0 && b->current_block < vec_size(b->blocks) &&
vec_at(b->blocks, b->current_block) == 0) {
Panic("bblock #%zu is empty (no entry node emitted)", b->current_block);
}
}
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *builder, spl_type_id_t x_tid, \
spl_ir_node_ref_t x_left, spl_ir_node_ref_t x_right) { \
spl_ir_node_ref_t ref = builder_alloc_node(builder, kind); \
spl_ir_node_t *n = spl_ir_node(&builder->ir, builder->current_fn, ref); \
n->arith.tid = x_tid; \
n->arith.left = x_left; \
n->arith.right = x_right; \
return ref; \
}
SPL_IR_BIN_ARITH_TABLE
#undef X
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *builder, spl_type_id_t x_tid, \
spl_ir_node_ref_t x_val) { \
spl_ir_node_ref_t ref = builder_alloc_node(builder, kind); \
spl_ir_node_t *n = spl_ir_node(&builder->ir, builder->current_fn, ref); \
n->arith.tid = x_tid; \
n->arith.left = x_val; \
n->arith.right = 0; \
return ref; \
}
SPL_IR_UN_ARITH_TABLE
#undef X
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *builder, spl_type_id_t x_tid, \
spl_ir_node_ref_t x_a, spl_ir_node_ref_t x_b) { \
spl_ir_node_ref_t ref = builder_alloc_node(builder, kind); \
spl_ir_node_t *n = spl_ir_node(&builder->ir, builder->current_fn, ref); \
n->cmp.tid = x_tid; \
n->cmp.a = x_a; \
n->cmp.b = x_b; \
return ref; \
}
SPL_IR_CMP_TABLE
#undef X
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *builder, spl_type_id_t x_from, \
spl_type_id_t x_to, spl_ir_node_ref_t x_val) { \
spl_ir_node_ref_t ref = builder_alloc_node(builder, kind); \
spl_ir_node_t *n = spl_ir_node(&builder->ir, builder->current_fn, ref); \
n->cast.from_tid = x_from; \
n->cast.to_tid = x_to; \
n->cast.val = x_val; \
return ref; \
}
SPL_IR_CAST_TABLE
#undef X
spl_ir_node_ref_t spl_ir_builder_mem_alloca(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t count) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_ALLOCA);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_alloc.tid = tid;
n->mem_alloc.count = count;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_mem_global_alloc(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t const_node) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_GLOBAL_ALLOC);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_global_alloc.tid = tid;
n->mem_global_alloc.const_node = const_node;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_mem_load(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t ptr) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_LOAD);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_load.tid = tid;
n->mem_load.ptr = ptr;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_mem_store(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t ptr, spl_ir_node_ref_t val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_STORE);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_store.tid = tid;
n->mem_store.ptr = ptr;
n->mem_store.val = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_mem_offset(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t ptr, spl_ir_node_ref_t offset) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_OFFSET);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_offset.tid = tid;
n->mem_offset.ptr = ptr;
n->mem_offset.offset = offset;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_mem_field(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t agg, usize field_idx) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_FIELD_PTR);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_field_ptr.tid = tid;
n->mem_field_ptr.agg = agg;
n->mem_field_ptr.field_idx = field_idx;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_mem_copy(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t dst, spl_ir_node_ref_t src,
spl_ir_node_ref_t size) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_COPY);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_copy.tid = tid;
n->mem_copy.dst = dst;
n->mem_copy.src = src;
n->mem_copy.size = size;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_mem_set(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t dst, spl_ir_node_ref_t val,
spl_ir_node_ref_t size) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_MEM_SET);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->mem_set.tid = tid;
n->mem_set.dst = dst;
n->mem_set.val = val;
n->mem_set.size = size;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_const_bool(spl_ir_builder_t *b, spl_type_id_t tid, bool val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_CONST);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->type_const.tid = tid;
n->type_const.bool_lit = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_const_ptr(spl_ir_builder_t *b, spl_type_id_t tid, void *val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_CONST);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->type_const.tid = tid;
n->type_const.ptr_lit = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_const_int(spl_ir_builder_t *b, spl_type_id_t tid, usize val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_CONST);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->type_const.tid = tid;
n->type_const.int_lit = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_const_float(spl_ir_builder_t *b, spl_type_id_t tid,
double val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_CONST);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->type_const.tid = tid;
n->type_const.float_lit = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_const_bytes(spl_ir_builder_t *b, spl_type_id_t tid,
const void *data, usize len) {
(void)len;
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_CONST);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->type_const.tid = tid;
n->type_const.ptr_lit = (void *)data;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_const_char(spl_ir_builder_t *b, spl_type_id_t tid, char val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_CONST);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->type_const.tid = tid;
n->type_const.ch_lit = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_const_fn(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_func_ref_t val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_CONST);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->type_const.tid = tid;
n->type_const.fn = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_bitsizeof(spl_ir_builder_t *b, spl_type_id_t tid) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_BITSIZEOF);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->bitsizeof.tid = tid;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_sizeof(spl_ir_builder_t *b, spl_type_id_t tid) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_SIZEOF);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->ir_sizeof.tid = tid;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_alignof(spl_ir_builder_t *b, spl_type_id_t tid) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_ALIGNOF);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->ir_alignof.tid = tid;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_offsetof(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t field_idx) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_OFFSETOF);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->ir_offsetof.tid = tid;
n->ir_offsetof.field_idx = field_idx;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_type_field_count(spl_ir_builder_t *b, spl_type_id_t tid) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_TYPE_FIELD_COUNT);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->field_count.tid = tid;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_agg_construct(spl_ir_builder_t *b, spl_type_id_t tid) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_AGG_CONSTRUCT);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->agg_construct.tid = tid;
vec_init(n->agg_construct.fields);
return ref;
}
void spl_ir_builder_agg_construct_field(spl_ir_builder_t *b, spl_ir_node_ref_t node,
spl_ir_node_ref_t field) {
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, node);
Assert(n != NULL);
vec_push(n->agg_construct.fields, field);
}
spl_ir_node_ref_t spl_ir_builder_agg_extract(spl_ir_builder_t *b, spl_type_id_t tid,
spl_type_id_t field_tid, usize field_idx,
spl_ir_node_ref_t val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_AGG_EXTRACT);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->agg_extract.tid = tid;
n->agg_extract.field_tid = field_tid;
n->agg_extract.field_idx = field_idx;
n->agg_extract.val = val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_agg_insert(spl_ir_builder_t *b, spl_type_id_t tid, usize field_idx,
spl_ir_node_ref_t agg, spl_ir_node_ref_t field) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_AGG_INSERT);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->agg_insert.tid = tid;
n->agg_insert.field_idx = field_idx;
n->agg_insert.agg = agg;
n->agg_insert.field = field;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_control_select(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t cond, spl_ir_node_ref_t true_val,
spl_ir_node_ref_t false_val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_SELECT);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->control_select.tid = tid;
n->control_select.cond = cond;
n->control_select.true_val = true_val;
n->control_select.false_val = false_val;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_control_br(spl_ir_builder_t *b, spl_ir_node_ref_t cond) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_BR);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->control_br.cond = cond;
n->control_br.true_label = 0;
n->control_br.false_label = 0;
b->terminated = true;
return ref;
}
void spl_ir_builder_control_br_fixup(spl_ir_builder_t *b, spl_ir_node_ref_t ref, usize true_block,
usize false_block) {
spl_ir_node_t *node = spl_ir_node(&b->ir, b->current_fn, ref);
if (!(node && node->kind == SPL_IR_CONTROL_BR)) {
Panic("fixup must be valid jmp ir node");
}
spl_ir_fix_t f1 = {.node = ref, .slot = SPL_IR_FIX_BR_TRUE, .block = true_block};
vec_push(b->fixups, f1);
spl_ir_fix_t f2 = {.node = ref, .slot = SPL_IR_FIX_BR_FALSE, .block = false_block};
vec_push(b->fixups, f2);
}
spl_ir_node_ref_t spl_ir_builder_control_jmp(spl_ir_builder_t *b) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_JMP);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->control_jmp.label = 0;
b->terminated = true;
return ref;
}
void spl_ir_builder_control_jmp_fixup(spl_ir_builder_t *b, spl_ir_node_ref_t ref,
usize target_block) {
spl_ir_node_t *node = spl_ir_node(&b->ir, b->current_fn, ref);
if (!(node && node->kind == SPL_IR_CONTROL_JMP)) {
Panic("fixup must be valid jmp ir node");
}
spl_ir_fix_t fx = {.node = ref, .slot = SPL_IR_FIX_JMP, .block = target_block};
vec_push(b->fixups, fx);
}
spl_ir_node_ref_t spl_ir_builder_control_call(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t func) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_CALL);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->control_call.tid = tid;
n->control_call.func = func;
vec_init(n->control_call.params);
return ref;
}
void spl_ir_builder_control_call_param(spl_ir_builder_t *b, spl_ir_node_ref_t call_node,
spl_ir_node_ref_t arg) {
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, call_node);
Assert(n != NULL);
vec_push(n->control_call.params, arg);
}
spl_ir_node_ref_t spl_ir_builder_control_param(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t idx) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_PARAM);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->control_param.tid = tid;
n->control_param.idx = idx;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_control_ret(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t val) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_RET);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->control_ret.tid = tid;
n->control_ret.val = val;
b->terminated = true;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_control_unreachable(spl_ir_builder_t *b) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_UNREACHABLE);
b->terminated = true;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_control_trap(spl_ir_builder_t *b) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_CONTROL_TRAP);
b->terminated = true;
return ref;
}
spl_ir_node_ref_t spl_ir_builder_dbg_breakpoint(spl_ir_builder_t *b) {
return builder_alloc_node(b, SPL_IR_DBG_BREAKPOINT);
}
spl_ir_node_ref_t spl_ir_builder_dbg_panic(spl_ir_builder_t *b, const char *msg, usize len) {
spl_ir_node_ref_t ref = builder_alloc_node(b, SPL_IR_DBG_PANIC);
spl_ir_node_t *n = spl_ir_node(&b->ir, b->current_fn, ref);
n->dbg_panic.msg = msg;
n->dbg_panic.len = len;
return ref;
}
+425
View File
@@ -0,0 +1,425 @@
#ifndef __SPL_IR_H__
#define __SPL_IR_H__
#include "../stage0/include/utils.h"
#include "spl_dbg.h"
#include "spl_type.h"
#include "spl_attr.h"
/* clang-format off */
#define SPL_IR_FN_TABLE \
X(arith.add, V0, SPL_IR_ARITH_ADD) \
X(arith.sub, V0, SPL_IR_ARITH_SUB) \
X(arith.mul, V0, SPL_IR_ARITH_MUL) \
X(arith.div, V0, SPL_IR_ARITH_DIV) \
X(arith.rem, V0, SPL_IR_ARITH_REM) \
X(arith.neg, V0, SPL_IR_ARITH_NEG) \
X(arith.abs, V0, SPL_IR_ARITH_ABS) \
X(arith.and, V0, SPL_IR_ARITH_AND) \
X(arith.or, V0, SPL_IR_ARITH_OR) \
X(arith.xor, V0, SPL_IR_ARITH_XOR) \
X(arith.shl, V0, SPL_IR_ARITH_SHL) \
X(arith.shr, V0, SPL_IR_ARITH_SHR) \
X(arith.not, V0, SPL_IR_ARITH_NOT) \
X(cmp.eq, V0, SPL_IR_CMP_EQ) \
X(cmp.ne, V0, SPL_IR_CMP_NE) \
X(cmp.lt, V0, SPL_IR_CMP_LT) \
X(cmp.le, V0, SPL_IR_CMP_LE) \
X(cmp.gt, V0, SPL_IR_CMP_GT) \
X(cmp.ge, V0, SPL_IR_CMP_GE) \
X(cast.trunc, V0, SPL_IR_CAST_TRUNC) \
X(cast.zext, V0, SPL_IR_CAST_ZEXT) \
X(cast.sext, V0, SPL_IR_CAST_SEXT) \
X(cast.fext, V0, SPL_IR_CAST_FEXT) \
X(cast.ftrunc, V0, SPL_IR_CAST_FTRUNC) \
X(cast.bitcast, V0, SPL_IR_CAST_BITCAST) \
X(cast.ptr2int, V0, SPL_IR_CAST_PTR2INT) \
X(cast.int2ptr, V0, SPL_IR_CAST_INT2PTR) \
X(cast.bool2int, V0, SPL_IR_CAST_BOOL2INT) \
X(case.int2float, V0, SPL_IR_CASE_INT2FLOAT) \
X(case.float2int, V0, SPL_IR_CASE_FLOAT2INT) \
X(mem.alloca, V0, SPL_IR_MEM_ALLOCA) \
X(mem.global_alloc, V0, SPL_IR_MEM_GLOBAL_ALLOC) \
X(mem.load, V0, SPL_IR_MEM_LOAD) \
X(mem.store, V0, SPL_IR_MEM_STORE) \
X(mem.offset, V0, SPL_IR_MEM_OFFSET) \
X(mem.field, V0, SPL_IR_MEM_FIELD_PTR) \
X(mem.copy, V0, SPL_IR_MEM_COPY) \
X(mem.set, V0, SPL_IR_MEM_SET) \
X(type.const, V0, SPL_IR_TYPE_CONST) \
X(type.bitsizeof, V0, SPL_IR_TYPE_BITSIZEOF) \
X(type.sizeof, V0, SPL_IR_TYPE_SIZEOF) \
X(type.alignof, V0, SPL_IR_TYPE_ALIGNOF) \
X(type.offsetof, V0, SPL_IR_TYPE_OFFSETOF) \
X(type.field_count, V0, SPL_IR_TYPE_FIELD_COUNT) \
X(agg.construct, V0, SPL_IR_AGG_CONSTRUCT) \
X(agg.extract, V0, SPL_IR_AGG_EXTRACT) \
X(agg.insert, V0, SPL_IR_AGG_INSERT) \
X(control.select, V0, SPL_IR_CONTROL_SELECT) \
X(control.br, V0, SPL_IR_CONTROL_BR) \
X(control.jmp, V0, SPL_IR_CONTROL_JMP) \
X(control.call, V0, SPL_IR_CONTROL_CALL) \
X(control.param, V0, SPL_IR_CONTROL_PARAM) \
X(control.ret, V0, SPL_IR_CONTROL_RET) \
X(control.unreachable, V0, SPL_IR_CONTROL_UNREACHABLE) \
X(control.trap, V0, SPL_IR_CONTROL_TRAP) \
X(dbg.breakpoint, V0, SPL_IR_DBG_BREAKPOINT) \
X(dbg.panic, V0, SPL_IR_DBG_PANIC) \
typedef enum {
#ifdef X
#undef X
#endif
#define X(a, b, c) c,
SPL_IR_FN_TABLE
#undef X
} spl_ir_kind_t;
/* clang-format on */
typedef usize spl_ir_node_ref_t; /* 0 is error */
typedef VEC(spl_ir_node_ref_t) spl_ir_node_ref_vec_t;
typedef usize spl_ir_func_ref_t; /* 0 is error */
#define SPL_ENUM_TAG_FIELD_IDX 0
typedef struct {
spl_ir_kind_t kind;
spl_dbg_node_t dbg;
spl_attr_id_vec_t attrs;
union {
spl_type_id_t tid;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t left;
spl_ir_node_ref_t right;
} arith;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t a;
spl_ir_node_ref_t b;
} cmp;
struct {
spl_type_id_t from_tid;
spl_type_id_t to_tid;
spl_ir_node_ref_t val;
} cast;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t count;
} mem_alloc;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t const_node;
} mem_global_alloc;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t ptr;
} mem_load;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t ptr;
spl_ir_node_ref_t val;
} mem_store;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t ptr;
spl_ir_node_ref_t offset;
} mem_offset;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t agg;
usize field_idx;
} mem_field_ptr;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t dst;
spl_ir_node_ref_t src;
spl_ir_node_ref_t size;
} mem_copy;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t dst;
spl_ir_node_ref_t val;
spl_ir_node_ref_t size;
} mem_set;
struct {
spl_type_id_t tid;
union {
bool bool_lit;
void *ptr_lit;
usize int_lit;
double float_lit;
// const char *cstr_lit;
char ch_lit;
spl_ir_func_ref_t fn;
};
} type_const;
struct {
spl_type_id_t tid;
} bitsizeof;
struct {
spl_type_id_t tid;
} ir_sizeof;
struct {
spl_type_id_t tid;
} ir_alignof;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t field_idx;
} ir_offsetof;
struct {
spl_type_id_t tid;
} field_count;
struct {
spl_type_id_t tid;
spl_ir_node_ref_vec_t fields;
} agg_construct;
struct {
spl_type_id_t tid;
spl_type_id_t field_tid;
usize field_idx;
spl_ir_node_ref_t val;
} agg_extract;
struct {
spl_type_id_t tid;
usize field_idx;
spl_ir_node_ref_t agg;
spl_ir_node_ref_t field;
} agg_insert;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t cond;
spl_ir_node_ref_t true_val;
spl_ir_node_ref_t false_val;
} control_select;
struct {
spl_ir_node_ref_t cond;
spl_ir_node_ref_t true_label;
spl_ir_node_ref_t false_label;
} control_br;
struct {
spl_ir_node_ref_t label;
} control_jmp;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t func;
spl_ir_node_ref_vec_t params;
} control_call;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t idx;
} control_param;
struct {
spl_type_id_t tid;
spl_ir_node_ref_t val;
} control_ret;
struct {
const char *msg;
usize len;
} dbg_panic;
};
} spl_ir_node_t;
typedef VEC(spl_ir_node_t) spl_ir_node_vec_t;
typedef struct {
const char *name;
spl_attr_id_vec_t attrs;
spl_type_id_t fn_tid;
spl_ir_node_vec_t nodes;
} spl_ir_func_t;
typedef VEC(spl_ir_func_t) spl_ir_func_vec_t;
typedef spl_ir_node_ref_t spl_ir_block_t;
typedef VEC(spl_ir_block_t) spl_ir_block_vec_t;
typedef struct {
spl_ir_node_ref_t node;
enum { SPL_IR_FIX_BR_TRUE, SPL_IR_FIX_BR_FALSE, SPL_IR_FIX_JMP } slot;
spl_ir_node_ref_t block;
} spl_ir_fix_t;
typedef VEC(spl_ir_fix_t) spl_ir_fix_vec_t;
typedef struct {
spl_ir_func_vec_t funcs;
} spl_ir_t;
void spl_ir_init(spl_ir_t *ir);
void spl_ir_drop(spl_ir_t *ir);
spl_ir_node_ref_t spl_ir_alloc_node(spl_ir_t *ir, spl_ir_func_ref_t fn_id);
spl_ir_func_ref_t spl_ir_alloc_fn(spl_ir_t *ir);
spl_ir_node_t *spl_ir_node(spl_ir_t *ir, spl_ir_func_ref_t fn_id, spl_ir_node_ref_t node_id);
spl_ir_func_t *spl_ir_func(spl_ir_t *ir, spl_ir_func_ref_t fn_id);
void spl_ir_dump(spl_ir_t *ir, const spl_type_t *ty, const spl_attr_t *attr);
const char *spl_ir_kind_name(spl_ir_kind_t kind);
typedef struct {
spl_ir_t ir;
spl_dbg_node_t dbg;
spl_ir_func_ref_t current_fn; /* 当前函数 */
spl_ir_node_ref_t current_block; /* 当前发射块(0 = 未设) */
spl_ir_block_vec_t blocks; /* 当前函数的基本块表 */
spl_ir_fix_vec_t fixups; /* 跳转回填表 */
bool terminated; /* 当前块已以 br/jmp/ret 终止 */
} spl_ir_builder_t;
/* clang-format off */
#define SPL_IR_BIN_ARITH_TABLE \
X(arith_add, SPL_IR_ARITH_ADD) \
X(arith_sub, SPL_IR_ARITH_SUB) \
X(arith_mul, SPL_IR_ARITH_MUL) \
X(arith_div, SPL_IR_ARITH_DIV) \
X(arith_rem, SPL_IR_ARITH_REM) \
X(arith_and, SPL_IR_ARITH_AND) \
X(arith_or, SPL_IR_ARITH_OR) \
X(arith_xor, SPL_IR_ARITH_XOR) \
X(arith_shl, SPL_IR_ARITH_SHL) \
X(arith_shr, SPL_IR_ARITH_SHR)
#define SPL_IR_UN_ARITH_TABLE \
X(arith_neg, SPL_IR_ARITH_NEG) \
X(arith_abs, SPL_IR_ARITH_ABS) \
X(arith_not, SPL_IR_ARITH_NOT)
#define SPL_IR_CMP_TABLE \
X(cmp_eq, SPL_IR_CMP_EQ) \
X(cmp_ne, SPL_IR_CMP_NE) \
X(cmp_lt, SPL_IR_CMP_LT) \
X(cmp_le, SPL_IR_CMP_LE) \
X(cmp_gt, SPL_IR_CMP_GT) \
X(cmp_ge, SPL_IR_CMP_GE)
#define SPL_IR_CAST_TABLE \
X(cast_trunc, SPL_IR_CAST_TRUNC) \
X(cast_zext, SPL_IR_CAST_ZEXT) \
X(cast_sext, SPL_IR_CAST_SEXT) \
X(cast_fext, SPL_IR_CAST_FEXT) \
X(cast_ftrunc, SPL_IR_CAST_FTRUNC) \
X(cast_bitcast, SPL_IR_CAST_BITCAST) \
X(cast_ptr2int, SPL_IR_CAST_PTR2INT) \
X(cast_int2ptr, SPL_IR_CAST_INT2PTR) \
X(cast_bool2int, SPL_IR_CAST_BOOL2INT) \
X(case_int2float, SPL_IR_CASE_INT2FLOAT) \
X(case_float2int, SPL_IR_CASE_FLOAT2INT)
/* clang-format on */
void spl_ir_builder_init(spl_ir_builder_t *b);
void spl_ir_builder_drop(spl_ir_builder_t *b);
spl_ir_func_ref_t spl_ir_builder_fn_begin(spl_ir_builder_t *b, const char *name,
spl_type_id_t fn_tid);
spl_ir_func_ref_t spl_ir_builder_fn_reserve(spl_ir_builder_t *b, const char *name,
spl_type_id_t fn_tid);
void spl_ir_builder_fn_begin_at(spl_ir_builder_t *b, spl_ir_func_ref_t fid);
void spl_ir_builder_fn_end(spl_ir_builder_t *b);
usize spl_ir_builder_block_begin(spl_ir_builder_t *b);
void spl_ir_builder_block_end(spl_ir_builder_t *b);
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *b, spl_type_id_t tid, \
spl_ir_node_ref_t left, spl_ir_node_ref_t right);
SPL_IR_BIN_ARITH_TABLE
#undef X
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *b, spl_type_id_t tid, \
spl_ir_node_ref_t val);
SPL_IR_UN_ARITH_TABLE
#undef X
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *builder, spl_type_id_t tid, \
spl_ir_node_ref_t a, spl_ir_node_ref_t b);
SPL_IR_CMP_TABLE
#undef X
#define X(name, kind) \
spl_ir_node_ref_t spl_ir_builder_##name(spl_ir_builder_t *b, spl_type_id_t from_tid, \
spl_type_id_t to_tid, spl_ir_node_ref_t val);
SPL_IR_CAST_TABLE
#undef X
/* memory */
spl_ir_node_ref_t spl_ir_builder_mem_alloca(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t count);
spl_ir_node_ref_t spl_ir_builder_mem_global_alloc(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t const_node);
spl_ir_node_ref_t spl_ir_builder_mem_load(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t ptr);
spl_ir_node_ref_t spl_ir_builder_mem_store(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t ptr, spl_ir_node_ref_t val);
spl_ir_node_ref_t spl_ir_builder_mem_offset(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t ptr, spl_ir_node_ref_t offset);
spl_ir_node_ref_t spl_ir_builder_mem_field(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t agg, usize field_idx);
spl_ir_node_ref_t spl_ir_builder_mem_copy(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t dst, spl_ir_node_ref_t src,
spl_ir_node_ref_t size);
spl_ir_node_ref_t spl_ir_builder_mem_set(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t dst, spl_ir_node_ref_t val,
spl_ir_node_ref_t size);
/* type const */
spl_ir_node_ref_t spl_ir_builder_type_const_ptr(spl_ir_builder_t *b, spl_type_id_t tid, void *val);
spl_ir_node_ref_t spl_ir_builder_type_const_bool(spl_ir_builder_t *b, spl_type_id_t tid, bool val);
spl_ir_node_ref_t spl_ir_builder_type_const_int(spl_ir_builder_t *b, spl_type_id_t tid, usize val);
spl_ir_node_ref_t spl_ir_builder_type_const_float(spl_ir_builder_t *b, spl_type_id_t tid,
double val);
spl_ir_node_ref_t spl_ir_builder_type_const_bytes(spl_ir_builder_t *b, spl_type_id_t tid,
const void *data, usize len);
spl_ir_node_ref_t spl_ir_builder_type_const_char(spl_ir_builder_t *b, spl_type_id_t tid, char val);
spl_ir_node_ref_t spl_ir_builder_type_const_fn(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_func_ref_t val);
/* type */
spl_ir_node_ref_t spl_ir_builder_type_bitsizeof(spl_ir_builder_t *b, spl_type_id_t tid);
spl_ir_node_ref_t spl_ir_builder_type_sizeof(spl_ir_builder_t *b, spl_type_id_t tid);
spl_ir_node_ref_t spl_ir_builder_type_alignof(spl_ir_builder_t *b, spl_type_id_t tid);
spl_ir_node_ref_t spl_ir_builder_type_offsetof(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t field_idx);
spl_ir_node_ref_t spl_ir_builder_type_field_count(spl_ir_builder_t *b, spl_type_id_t tid);
/* agg */
spl_ir_node_ref_t spl_ir_builder_agg_construct(spl_ir_builder_t *b, spl_type_id_t tid);
void spl_ir_builder_agg_construct_field(spl_ir_builder_t *b, spl_ir_node_ref_t node,
spl_ir_node_ref_t field);
spl_ir_node_ref_t spl_ir_builder_agg_extract(spl_ir_builder_t *b, spl_type_id_t tid,
spl_type_id_t field_tid, usize field_idx,
spl_ir_node_ref_t val);
spl_ir_node_ref_t spl_ir_builder_agg_insert(spl_ir_builder_t *b, spl_type_id_t tid, usize field_idx,
spl_ir_node_ref_t agg, spl_ir_node_ref_t field);
/* control */
spl_ir_node_ref_t spl_ir_builder_control_select(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t cond, spl_ir_node_ref_t true_val,
spl_ir_node_ref_t false_val);
spl_ir_node_ref_t spl_ir_builder_control_br(spl_ir_builder_t *b, spl_ir_node_ref_t cond);
void spl_ir_builder_control_br_fixup(spl_ir_builder_t *b, spl_ir_node_ref_t ref, usize true_block,
usize false_block);
spl_ir_node_ref_t spl_ir_builder_control_jmp(spl_ir_builder_t *b);
void spl_ir_builder_control_jmp_fixup(spl_ir_builder_t *b, spl_ir_node_ref_t ref,
usize target_block);
spl_ir_node_ref_t spl_ir_builder_control_call(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t func);
void spl_ir_builder_control_call_param(spl_ir_builder_t *b, spl_ir_node_ref_t call_node,
spl_ir_node_ref_t arg);
spl_ir_node_ref_t spl_ir_builder_control_param(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t idx);
spl_ir_node_ref_t spl_ir_builder_control_ret(spl_ir_builder_t *b, spl_type_id_t tid,
spl_ir_node_ref_t val);
spl_ir_node_ref_t spl_ir_builder_control_unreachable(spl_ir_builder_t *b);
spl_ir_node_ref_t spl_ir_builder_control_trap(spl_ir_builder_t *b);
spl_ir_node_ref_t spl_ir_builder_dbg_breakpoint(spl_ir_builder_t *b);
spl_ir_node_ref_t spl_ir_builder_dbg_panic(spl_ir_builder_t *b, const char *msg, usize len);
#endif /* __SPL_IR_H__ */
+1203
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+36
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@@ -0,0 +1,36 @@
#ifndef __SPL_IR2VM_H__
#define __SPL_IR2VM_H__
#include "spl_diag.h"
#include "spl_ir.h"
#include "spl_type.h"
#include "../stage0/spl_mcode.h"
typedef struct {
spl_ir_func_ref_t fid;
VEC(usize) node_first_ip;
} spl_ir2vm_fdbg_t;
typedef VEC(spl_ir2vm_fdbg_t) spl_ir2vm_fdbg_vec_t;
typedef MAP(spl_ir_func_ref_t, isize) spl_extern_idx_map_t;
typedef struct {
const spl_ir_t *ir;
const spl_type_t *type;
const spl_attr_t *attr;
spl_extern_idx_map_t extern_native;
spl_prog_t prog;
spl_diag_t *diag;
} spl_ir2vm_t;
void spl_ir2vm_init(spl_ir2vm_t *ctx, const spl_ir_t *ir, const spl_type_t *type,
const spl_attr_t *attr);
void spl_ir2vm_drop(spl_ir2vm_t *ctx);
int spl_ir2vm_run_func(spl_ir2vm_t *ctx, spl_ir_func_ref_t ref);
int spl_ir2vm_run(spl_ir2vm_t *ctx);
void spl_ir2vm_dump(spl_ir2vm_t *ctx);
#endif /* __SPL_IR2VM_H__ */
+799
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@@ -0,0 +1,799 @@
#include "spl_lang_type.h"
static usize spl_lang_type_hash(spl_lang_type_node_t n) {
usize hash = (usize)n.kind * 131 + n.ir_type_id;
switch (n.kind) {
case SPL_LANG_TYPE_PTR:
case SPL_LANG_TYPE_SLICE:
case SPL_LANG_TYPE_RANGE:
hash += n.extra.elem;
break;
case SPL_LANG_TYPE_TUPLE:
for (usize i = 0; i < vec_size(n.extra.elems); i++) {
hash += vec_at(n.extra.elems, i);
}
break;
case SPL_LANG_TYPE_FN:
hash += n.extra.fn.ret;
for (usize i = 0; i < vec_size(n.extra.fn.params); i++) {
hash += vec_at(n.extra.fn.params, i);
}
break;
case SPL_LANG_TYPE_STRUCT:
case SPL_LANG_TYPE_UNION:
case SPL_LANG_TYPE_ENUM:
case SPL_LANG_TYPE_SHAPE:
for (usize i = 0; i < vec_size(n.methods); i++) {
spl_lang_method_t *m = &vec_at(n.methods, i);
hash += m->def_id * 31;
if (m->name) {
const char *s = m->name;
while (*s)
hash = hash * 31 + (usize)(*s++);
}
}
break;
default:
break;
}
return hash;
}
static int spl_lang_type_eq(spl_lang_type_node_t n1, spl_lang_type_node_t n2) {
if (n1.kind != n2.kind || n1.ir_type_id != n2.ir_type_id)
return 1;
switch (n1.kind) {
case SPL_LANG_TYPE_PTR:
case SPL_LANG_TYPE_SLICE:
case SPL_LANG_TYPE_RANGE:
return n1.extra.elem != n2.extra.elem;
case SPL_LANG_TYPE_TUPLE:
if (vec_size(n1.extra.elems) != vec_size(n2.extra.elems))
return 1;
for (usize i = 0; i < vec_size(n1.extra.elems); i++) {
if (vec_at(n1.extra.elems, i) != vec_at(n2.extra.elems, i))
return 1;
}
return 0;
case SPL_LANG_TYPE_FN:
if (n1.extra.fn.ret != n2.extra.fn.ret)
return 1;
if (vec_size(n1.extra.fn.params) != vec_size(n2.extra.fn.params))
return 1;
for (usize i = 0; i < vec_size(n1.extra.fn.params); i++) {
if (vec_at(n1.extra.fn.params, i) != vec_at(n2.extra.fn.params, i))
return 1;
}
return 0;
case SPL_LANG_TYPE_STRUCT:
case SPL_LANG_TYPE_UNION:
case SPL_LANG_TYPE_ENUM:
case SPL_LANG_TYPE_SHAPE:
if (vec_size(n1.methods) != vec_size(n2.methods))
return 1;
for (usize i = 0; i < vec_size(n1.methods); i++) {
spl_lang_method_t *a = &vec_at(n1.methods, i);
spl_lang_method_t *b = &vec_at(n2.methods, i);
if (a->def_id != b->def_id)
return 1;
if ((a->name == NULL) != (b->name == NULL))
return 1;
if (a->name && strcmp(a->name, b->name) != 0)
return 1;
}
return 0;
default:
return 0;
}
}
static usize spl_lang_map_hash(usize k) { return MAP_HASH_INT(k); }
static int spl_lang_map_cmp(usize a, usize b) { return MAP_CMP_INT(a, b); }
static void spl_lang_node_free_extra(spl_lang_type_node_t *n) {
switch (n->kind) {
case SPL_LANG_TYPE_TUPLE:
vec_free(n->extra.elems);
break;
case SPL_LANG_TYPE_FN:
vec_free(n->extra.fn.params);
break;
case SPL_LANG_TYPE_STRUCT:
case SPL_LANG_TYPE_UNION:
case SPL_LANG_TYPE_ENUM:
case SPL_LANG_TYPE_SHAPE:
vec_free(n->methods);
break;
default:
break;
}
}
spl_lang_type_id_t spl_lang_node_push(spl_lang_type_t *type, spl_lang_type_node_t *node) {
usize hash = spl_lang_type_hash(*node);
usize idx = (usize)-1;
spl_lang_type_id_t cand = 0;
while (map_get_continue(type->lang_map, hash, &cand, &idx)) {
spl_lang_type_node_t *existing = &vec_at(type->lang_table, cand);
if (spl_lang_type_eq(*existing, *node) == 0) {
spl_lang_node_free_extra(node);
return cand;
}
}
spl_lang_type_id_t id = vec_size(type->lang_table);
vec_push(type->lang_table, *node);
map_put_new(type->lang_map, hash, id);
node->kind = SPL_LANG_TYPE_ERROR;
return id;
}
void spl_lang_type_init(spl_lang_type_t *type) {
spl_type_init(&type->ir);
vec_init(type->lang_table);
spl_lang_type_node_t lang_node = {0};
vec_push(type->lang_table, lang_node);
map_init(type->lang_map, spl_lang_map_hash, spl_lang_map_cmp);
vec_init(type->def_table);
vec_push(type->def_table, (spl_def_node_t){0});
}
void spl_lang_type_drop(spl_lang_type_t *type) {
for (usize i = 0; i < vec_size(type->lang_table); i++) {
spl_lang_type_node_t *n = &vec_at(type->lang_table, i);
spl_lang_node_free_extra(n);
}
map_free(type->lang_map);
vec_free(type->lang_table);
vec_free(type->def_table);
spl_type_drop(&type->ir);
}
spl_lang_type_node_t *spl_lang_type_node(const spl_lang_type_t *type, spl_lang_type_id_t id) {
if (!id || id >= vec_size(type->lang_table))
return NULL;
return &vec_at(type->lang_table, id);
}
spl_def_node_t *spl_def_node(const spl_lang_type_t *type, spl_def_id_t id) {
if (!id || id >= vec_size(type->def_table))
return NULL;
return &vec_at(type->def_table, id);
}
spl_type_id_t spl_lang_type_get_ir_type(spl_lang_type_t *type, spl_lang_type_id_t lang_id) {
spl_lang_type_node_t *n = spl_lang_type_node(type, lang_id);
return n ? n->ir_type_id : 0;
}
spl_type_id_t spl_lang_reserve_ir(spl_lang_type_t *type) {
spl_type_node_t empty = {0};
empty.kind = SPL_TYPE_ERROR;
empty.layout.mode = SPL_TYPE_LAYOUT_AUTO;
vec_push(type->ir.type_table, empty);
return vec_size(type->ir.type_table) - 1;
}
void spl_lang_define_ir(spl_lang_type_t *type, spl_type_id_t id, spl_type_node_t *node) {
if (!id || id >= vec_size(type->ir.type_table))
return;
spl_type_node_t *slot = &vec_at(type->ir.type_table, id);
/* slot 原是空 ERROR 节点,无 vec 字段可释放。node 的 vec 字段 move 进 slot。
占位 id 不写 type_map,不参与 hash-consing。 */
*slot = *node;
node->kind = SPL_TYPE_ERROR;
}
static spl_lang_type_id_t spl_lang_node_simple(spl_lang_type_t *type,
spl_lang_type_kind_t lang_kind,
spl_type_id_t ir_type_id) {
spl_lang_type_node_t node = {0};
node.kind = lang_kind;
node.ir_type_id = ir_type_id;
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_error(spl_lang_type_t *type) {
spl_type_id_t ir = spl_type_builder_simple(&type->ir, SPL_TYPE_ERROR);
return spl_lang_node_simple(type, SPL_LANG_TYPE_ERROR, ir);
}
spl_lang_type_id_t spl_lang_make_infer(spl_lang_type_t *type) {
spl_type_id_t ir = spl_type_builder_simple(&type->ir, SPL_TYPE_INFER);
return spl_lang_node_simple(type, SPL_LANG_TYPE_INFER, ir);
}
spl_lang_type_id_t spl_lang_make_never(spl_lang_type_t *type) {
spl_type_id_t ir = spl_type_builder_simple(&type->ir, SPL_TYPE_NEVER);
return spl_lang_node_simple(type, SPL_LANG_TYPE_NEVER, ir);
}
spl_lang_type_id_t spl_lang_make_any(spl_lang_type_t *type) {
spl_type_id_t ir = spl_type_builder_simple(&type->ir, SPL_TYPE_ANY);
return spl_lang_node_simple(type, SPL_LANG_TYPE_ANY, ir);
}
spl_lang_type_id_t spl_lang_make_unit(spl_lang_type_t *type) {
spl_type_id_t ir = spl_type_builder_simple(&type->ir, SPL_TYPE_UNIT);
return spl_lang_node_simple(type, SPL_LANG_TYPE_UNIT, ir);
}
spl_lang_type_id_t spl_lang_make_bool(spl_lang_type_t *type) {
spl_type_id_t ir = spl_type_builder_simple(&type->ir, SPL_TYPE_BOOL);
return spl_lang_node_simple(type, SPL_LANG_TYPE_BOOL, ir);
}
spl_lang_type_id_t spl_lang_make_int(spl_lang_type_t *type, usize bits, int is_signed) {
spl_type_id_t ir = spl_type_builder_int(&type->ir, bits, is_signed);
return spl_lang_node_simple(type, SPL_LANG_TYPE_INT, ir);
}
spl_lang_type_id_t spl_lang_make_float(spl_lang_type_t *type, usize bits) {
spl_type_id_t ir = spl_type_builder_float(&type->ir, bits);
return spl_lang_node_simple(type, SPL_LANG_TYPE_FLOAT, ir);
}
spl_lang_type_id_t spl_lang_make_array(spl_lang_type_t *type, spl_lang_type_id_t elem_lang,
usize len) {
spl_type_id_t elem_ir = spl_lang_type_get_ir_type(type, elem_lang);
if (!elem_ir)
return 0;
spl_type_id_t ir = spl_type_builder_array(&type->ir, elem_ir, len);
spl_lang_type_node_t node = {0};
node.kind = SPL_LANG_TYPE_ARRAY;
node.ir_type_id = ir;
node.extra.elem = elem_lang;
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_ptr(spl_lang_type_t *type, spl_lang_type_id_t pointee_lang) {
spl_type_id_t pointee_ir = spl_lang_type_get_ir_type(type, pointee_lang);
if (!pointee_ir)
return 0;
spl_type_id_t ir = spl_type_builder_ptr(&type->ir, pointee_ir);
spl_lang_type_node_t node = {0};
node.kind = SPL_LANG_TYPE_PTR;
node.ir_type_id = ir;
node.extra.elem = pointee_lang;
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_slice(spl_lang_type_t *type, spl_lang_type_id_t elem_lang) {
spl_type_id_t elem_ir = spl_lang_type_get_ir_type(type, elem_lang);
if (!elem_ir)
return 0;
spl_lang_type_id_t ptr_lang = spl_lang_make_ptr(type, elem_lang);
spl_lang_type_id_t usize_lang = spl_lang_make_int(type, sizeof(void *) * 8, 0);
spl_type_id_t ptr_ir = spl_lang_type_get_ir_type(type, ptr_lang);
spl_type_id_t usize_ir = spl_lang_type_get_ir_type(type, usize_lang);
spl_type_member_vec_t members;
vec_init(members);
spl_type_member_t m1 = {.name = "ptr", .type_id = ptr_ir};
spl_type_member_t m2 = {.name = "len", .type_id = usize_ir};
vec_push(members, m1);
vec_push(members, m2);
spl_type_layout_t layout = {.mode = SPL_TYPE_LAYOUT_AUTO, .fixed_align_bits = 0};
spl_type_id_t struct_ir = spl_type_builder_agg(&type->ir, SPL_TYPE_STRUCT, &members, 0, layout);
spl_lang_type_node_t node = {0};
node.kind = SPL_LANG_TYPE_SLICE;
node.ir_type_id = struct_ir;
node.extra.elem = elem_lang;
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_tuple(spl_lang_type_t *type, const spl_lang_type_id_t *elems,
usize count) {
spl_type_member_vec_t members;
vec_init(members);
for (usize i = 0; i < count; i++) {
spl_type_id_t elem_ir = spl_lang_type_get_ir_type(type, elems[i]);
if (!elem_ir) {
vec_free(members);
return 0;
}
char name[32];
snprintf(name, sizeof(name), "%zu", i);
spl_type_member_t m = {.name = strdup(name), .type_id = elem_ir};
vec_push(members, m);
}
spl_type_layout_t layout = {.mode = SPL_TYPE_LAYOUT_AUTO, .fixed_align_bits = 0};
spl_type_id_t struct_ir = spl_type_builder_agg(&type->ir, SPL_TYPE_STRUCT, &members, 0, layout);
spl_lang_type_node_t node = {0};
node.kind = SPL_LANG_TYPE_TUPLE;
node.ir_type_id = struct_ir;
vec_init(node.extra.elems);
for (usize i = 0; i < count; i++) {
vec_push(node.extra.elems, elems[i]);
}
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_range(spl_lang_type_t *type, spl_lang_type_id_t elem_lang) {
spl_type_id_t elem_ir = spl_lang_type_get_ir_type(type, elem_lang);
if (!elem_ir)
return 0;
spl_type_member_vec_t members;
vec_init(members);
spl_type_member_t m1 = {.name = "start", .type_id = elem_ir};
spl_type_member_t m2 = {.name = "end", .type_id = elem_ir};
vec_push(members, m1);
vec_push(members, m2);
spl_type_layout_t layout = {.mode = SPL_TYPE_LAYOUT_AUTO, .fixed_align_bits = 0};
spl_type_id_t struct_ir = spl_type_builder_agg(&type->ir, SPL_TYPE_STRUCT, &members, 0, layout);
spl_lang_type_node_t node = {0};
node.kind = SPL_LANG_TYPE_RANGE;
node.ir_type_id = struct_ir;
node.extra.elem = elem_lang;
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_fn(spl_lang_type_t *type, spl_lang_type_id_t ret_lang,
const spl_lang_type_id_t *params_lang, usize nparams) {
spl_type_id_t ret_ir = spl_lang_type_get_ir_type(type, ret_lang);
if (!ret_ir)
return 0;
spl_type_id_vec_t param_irs;
vec_init(param_irs);
for (usize i = 0; i < nparams; i++) {
spl_type_id_t pir = spl_lang_type_get_ir_type(type, params_lang[i]);
if (!pir) {
vec_free(param_irs);
return 0;
}
vec_push(param_irs, pir);
}
spl_type_id_t fn_ir =
spl_type_builder_fn(&type->ir, ret_ir, param_irs.data, vec_size(param_irs));
vec_free(param_irs);
spl_lang_type_node_t node = {0};
node.kind = SPL_LANG_TYPE_FN;
node.ir_type_id = fn_ir;
node.extra.fn.ret = ret_lang;
vec_init(node.extra.fn.params);
for (usize i = 0; i < nparams; i++) {
vec_push(node.extra.fn.params, params_lang[i]);
}
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_aggregate(spl_lang_type_t *type, spl_lang_type_kind_t kind,
const char *name, const spl_lang_type_id_t *members_lang,
usize nmembers) {
spl_type_node_kind_t tk;
switch (kind) {
case SPL_LANG_TYPE_STRUCT:
tk = SPL_TYPE_STRUCT;
break;
case SPL_LANG_TYPE_UNION:
tk = SPL_TYPE_UNION;
break;
case SPL_LANG_TYPE_ENUM:
tk = SPL_TYPE_ENUM;
break;
case SPL_LANG_TYPE_SHAPE:
tk = SPL_TYPE_SHAPE;
break;
default:
return 0;
}
spl_type_member_vec_t members;
vec_init(members);
for (usize i = 0; i < nmembers; i++) {
spl_type_id_t member_ir = spl_lang_type_get_ir_type(type, members_lang[i]);
if (!member_ir) {
vec_free(members);
return 0;
}
char field_name[32];
snprintf(field_name, sizeof(field_name), "%zu", i);
spl_type_member_t m = {.name = strdup(field_name), .type_id = member_ir};
vec_push(members, m);
}
spl_type_layout_t layout = {.mode = SPL_TYPE_LAYOUT_AUTO, .fixed_align_bits = 0};
spl_type_id_t agg_ir = spl_type_builder_agg(&type->ir, tk, &members, 0, layout);
spl_lang_type_node_t node = {0};
node.kind = kind;
node.ir_type_id = agg_ir;
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_lang_make_varargs(spl_lang_type_t *type) {
spl_type_id_t ir = spl_type_builder_simple(&type->ir, SPL_TYPE_UNIT);
spl_lang_type_node_t node = {0};
node.kind = SPL_LANG_TYPE_VARARGS;
node.ir_type_id = ir;
return spl_lang_node_push(type, &node);
}
spl_lang_type_id_t spl_type_lookup_builtin(spl_lang_type_t *type, const char *name) {
if (!name || !*name)
return 0;
if (strcmp(name, "bool") == 0)
return spl_lang_make_bool(type);
if (strcmp(name, "void") == 0)
return spl_lang_make_unit(type);
if (strcmp(name, "isize") == 0)
return spl_lang_make_int(type, sizeof(void *) * 8, 1);
if (strcmp(name, "usize") == 0)
return spl_lang_make_int(type, sizeof(void *) * 8, 0);
if (strcmp(name, "any") == 0)
return spl_lang_make_any(type);
char prefix = name[0];
if (prefix == 'i' || prefix == 'u' || prefix == 'f') {
const char *rest = name + 1;
char *end;
long bits = strtol(rest, &end, 10);
if (end != rest && *end == '\0' && bits > 0) {
if (prefix == 'i')
return spl_lang_make_int(type, (usize)bits, 1);
if (prefix == 'u')
return spl_lang_make_int(type, (usize)bits, 0);
if (prefix == 'f')
return spl_lang_make_float(type, (usize)bits);
}
}
return 0;
}
bool spl_lang_type_is_subtype(const spl_lang_type_t *type, spl_lang_type_id_t sub,
spl_lang_type_id_t super) {
if (sub == 0 || super == 0)
return false;
if (sub == super)
return true;
spl_lang_type_node_t *nsub = spl_lang_type_node(type, sub);
spl_lang_type_node_t *nsuper = spl_lang_type_node(type, super);
if (!nsub || !nsuper)
return false;
if (nsub->kind == SPL_LANG_TYPE_NEVER)
return true;
if (nsuper->kind == SPL_LANG_TYPE_ANY)
return true;
if (nsub->kind == SPL_LANG_TYPE_INT && nsuper->kind == SPL_LANG_TYPE_INT) {
spl_type_node_t *ir_sub = spl_type_node(&type->ir, nsub->ir_type_id);
if (!ir_sub)
return false;
return ir_sub->int_type.bits == 0;
}
if (nsub->kind == SPL_LANG_TYPE_FLOAT && nsuper->kind == SPL_LANG_TYPE_FLOAT) {
spl_type_node_t *ir_sub = spl_type_node(&type->ir, nsub->ir_type_id);
if (!ir_sub)
return false;
return ir_sub->float_type.bits == 0;
}
if (nsub->kind == SPL_LANG_TYPE_PTR && nsuper->kind == SPL_LANG_TYPE_PTR) {
if (nsub->extra.elem == nsuper->extra.elem)
return true;
spl_lang_type_node_t *sub_elem = spl_lang_type_node(type, nsub->extra.elem);
spl_lang_type_node_t *super_elem = spl_lang_type_node(type, nsuper->extra.elem);
if (sub_elem && sub_elem->kind == SPL_LANG_TYPE_NEVER)
return true;
if (super_elem && super_elem->kind == SPL_LANG_TYPE_ANY)
return true;
return false;
}
return false;
}
spl_lang_type_id_t spl_lang_type_join(const spl_lang_type_t *type, spl_lang_type_id_t a,
spl_lang_type_id_t b) {
if (a == 0 || b == 0)
return 0;
if (a == b)
return a;
spl_lang_type_node_t *na = spl_lang_type_node(type, a);
spl_lang_type_node_t *nb = spl_lang_type_node(type, b);
if (!na || !nb)
return 0;
if (na->kind == SPL_LANG_TYPE_NEVER)
return b;
if (nb->kind == SPL_LANG_TYPE_NEVER)
return a;
if (na->kind == SPL_LANG_TYPE_ANY || nb->kind == SPL_LANG_TYPE_ANY)
return spl_lang_make_any((spl_lang_type_t *)type);
bool a_int = na->kind == SPL_LANG_TYPE_INT;
bool b_int = nb->kind == SPL_LANG_TYPE_INT;
bool a_flt = na->kind == SPL_LANG_TYPE_FLOAT;
bool b_flt = nb->kind == SPL_LANG_TYPE_FLOAT;
if (a_int && b_int) {
spl_type_node_t *ira = spl_type_node(&type->ir, na->ir_type_id);
spl_type_node_t *irb = spl_type_node(&type->ir, nb->ir_type_id);
if (!ira || !irb)
return 0;
bool a_ct = ira->int_type.bits == 0;
bool b_ct = irb->int_type.bits == 0;
if (a_ct && b_ct)
return a;
if (a_ct)
return b;
if (b_ct)
return a;
return 0;
}
if (a_flt && b_flt) {
spl_type_node_t *ira = spl_type_node(&type->ir, na->ir_type_id);
spl_type_node_t *irb = spl_type_node(&type->ir, nb->ir_type_id);
if (!ira || !irb)
return 0;
bool a_ct = ira->float_type.bits == 0;
bool b_ct = irb->float_type.bits == 0;
if (a_ct && b_ct)
return a;
if (a_ct)
return b;
if (b_ct)
return a;
return 0;
}
if (a_int && b_flt) {
spl_type_node_t *ira = spl_type_node(&type->ir, na->ir_type_id);
spl_type_node_t *irb = spl_type_node(&type->ir, nb->ir_type_id);
if (ira && irb && ira->int_type.bits == 0 && irb->float_type.bits == 0)
return spl_lang_make_float((spl_lang_type_t *)type, 0);
return 0;
}
if (a_flt && b_int) {
spl_type_node_t *ira = spl_type_node(&type->ir, na->ir_type_id);
spl_type_node_t *irb = spl_type_node(&type->ir, nb->ir_type_id);
if (ira && irb && ira->float_type.bits == 0 && irb->int_type.bits == 0)
return spl_lang_make_float((spl_lang_type_t *)type, 0);
return 0;
}
if (na->kind == SPL_LANG_TYPE_PTR && nb->kind == SPL_LANG_TYPE_PTR) {
if (na->extra.elem == nb->extra.elem)
return a;
spl_lang_type_node_t *ea = spl_lang_type_node(type, na->extra.elem);
spl_lang_type_node_t *eb = spl_lang_type_node(type, nb->extra.elem);
if (ea && ea->kind == SPL_LANG_TYPE_NEVER)
return b;
if (eb && eb->kind == SPL_LANG_TYPE_NEVER)
return a;
if (ea && ea->kind == SPL_LANG_TYPE_ANY)
return a;
if (eb && eb->kind == SPL_LANG_TYPE_ANY)
return b;
return 0;
}
return 0;
}
bool spl_lang_mpa_int_fits(const spl_lang_type_t *type, spl_lang_type_id_t target,
spl_mpa_int_t v) {
spl_lang_type_node_t *nt = spl_lang_type_node(type, target);
if (!nt || nt->kind != SPL_LANG_TYPE_INT)
return false;
spl_type_node_t *ir = spl_type_node(&type->ir, nt->ir_type_id);
if (!ir)
return false;
uint32_t bits = (uint32_t)ir->int_type.bits;
if (bits == 0)
return true;
bool target_signed = ir->int_type.is_signed != 0;
uint64_t uval = v.bits;
if (target_signed) {
if (bits >= 64)
return true;
uint64_t hi = ((uint64_t)1 << (bits - 1)) - 1;
return uval <= hi;
}
if (bits >= 64)
return true;
uint64_t hi = ((uint64_t)1 << bits) - 1;
return uval <= hi;
}
spl_def_id_t spl_def_alloc(spl_lang_type_t *type, spl_def_node_kind_t kind, const char *name,
spl_dbg_node_t dbg, struct spl_ast *owner_ast, usize ast_node_ref) {
spl_def_node_t n = {0};
n.kind = kind;
n.name = name;
n.dbg_node = dbg;
n.lang_id = 0;
n.owner_ast = owner_ast;
n.ast_node_ref = ast_node_ref;
n.state = SPL_DECL_UNRESOLVED;
n.owner_def = 0;
vec_push(type->def_table, n);
return vec_size(type->def_table) - 1;
}
void spl_def_resolve(spl_lang_type_t *type, spl_def_id_t id, spl_lang_type_id_t lang_id) {
spl_def_node_t *d = spl_def_node(type, id);
if (d)
d->lang_id = lang_id;
}
spl_lang_type_id_t spl_def_get_lang_id(spl_lang_type_t *type, spl_def_id_t def_id) {
spl_def_node_t *d = spl_def_node(type, def_id);
return d ? d->lang_id : 0;
}
spl_type_id_t spl_def_get_type_id(spl_lang_type_t *type, spl_def_id_t def_id) {
spl_lang_type_id_t lang = spl_def_get_lang_id(type, def_id);
return lang ? spl_lang_type_get_ir_type(type, lang) : 0;
}
static void spl_lang_type_dump_rec(spl_lang_type_t *type, spl_lang_type_id_t id,
spl_lang_type_id_vec_t *stack) {
for (usize i = 0; i < vec_size(*stack); i++) {
if (vec_at(*stack, i) == id) {
printf("<rec#%zu>", id);
return;
}
}
if (vec_size(*stack) > 32) {
printf("...");
return;
}
vec_push(*stack, id);
spl_lang_type_node_t *n = spl_lang_type_node(type, id);
if (!n) {
printf("none");
vec_pop(*stack);
return;
}
switch (n->kind) {
case SPL_LANG_TYPE_ERROR:
printf("error");
break;
case SPL_LANG_TYPE_INFER:
printf("infer");
break;
case SPL_LANG_TYPE_NEVER:
printf("never");
break;
case SPL_LANG_TYPE_ANY:
printf("any");
break;
case SPL_LANG_TYPE_UNIT:
printf("unit");
break;
case SPL_LANG_TYPE_BOOL:
printf("bool");
break;
case SPL_LANG_TYPE_VARARGS:
printf("...");
break;
case SPL_LANG_TYPE_INT: {
spl_type_node_t *tn = spl_type_node(&type->ir, n->ir_type_id);
if (tn && tn->int_type.bits == 0)
printf("comptime_int");
else
spl_type_pure_dump(&type->ir, n->ir_type_id);
break;
}
case SPL_LANG_TYPE_FLOAT: {
spl_type_node_t *tn = spl_type_node(&type->ir, n->ir_type_id);
if (tn && tn->float_type.bits == 0)
printf("comptime_float");
else
spl_type_pure_dump(&type->ir, n->ir_type_id);
break;
}
case SPL_LANG_TYPE_PTR:
printf("*");
spl_lang_type_dump_rec(type, n->extra.elem, stack);
break;
case SPL_LANG_TYPE_ARRAY: {
spl_type_node_t *tn = spl_type_node(&type->ir, n->ir_type_id);
printf("[%zu]", tn->array_type.len);
spl_type_pure_dump(&type->ir, n->ir_type_id);
} break;
case SPL_LANG_TYPE_SLICE:
printf("[]");
spl_lang_type_dump_rec(type, n->extra.elem, stack);
break;
case SPL_LANG_TYPE_TUPLE:
printf("(");
for (usize i = 0; i < vec_size(n->extra.elems); i++) {
if (i)
printf(",");
spl_lang_type_dump_rec(type, vec_at(n->extra.elems, i), stack);
}
printf(")");
break;
case SPL_LANG_TYPE_RANGE:
spl_lang_type_dump_rec(type, n->extra.elem, stack);
printf("..");
spl_lang_type_dump_rec(type, n->extra.elem, stack);
break;
case SPL_LANG_TYPE_FN:
printf("fn(");
for (usize i = 0; i < vec_size(n->extra.fn.params); i++) {
if (i)
printf(",");
spl_lang_type_dump_rec(type, vec_at(n->extra.fn.params, i), stack);
}
printf(")");
spl_lang_type_dump_rec(type, n->extra.fn.ret, stack);
break;
case SPL_LANG_TYPE_STRUCT:
case SPL_LANG_TYPE_UNION:
case SPL_LANG_TYPE_ENUM:
case SPL_LANG_TYPE_SHAPE:
spl_type_pure_dump(&type->ir, n->ir_type_id);
break;
}
vec_pop(*stack);
}
void spl_lang_type_dump(spl_lang_type_t *type, spl_lang_type_id_t id) {
spl_lang_type_id_vec_t stack;
vec_init(stack);
spl_lang_type_dump_rec(type, id, &stack);
vec_free(stack);
}
void spl_type_def_dump(spl_lang_type_t *type, spl_def_id_t id) {
spl_def_node_t *node = spl_def_node(type, id);
if (!node) {
printf("none");
return;
}
const char *def_kind_name = "unknown";
switch (node->kind) {
case SPL_DEF_ERROR:
def_kind_name = "error";
break;
case SPL_DEF_SCALAR:
def_kind_name = "scalar";
break;
case SPL_DEF_MEMBER:
def_kind_name = "member";
break;
case SPL_DEF_VAR:
def_kind_name = "var";
break;
case SPL_DEF_FN:
def_kind_name = "fn";
break;
case SPL_DEF_AGG:
def_kind_name = "agg";
break;
case SPL_DEF_BUILTIN:
def_kind_name = "builtin";
break;
case SPL_DEF_DISTINCT:
def_kind_name = "distinct";
break;
case SPL_DEF_ALIAS:
def_kind_name = "alias";
break;
}
printf("kind=%s lang_id=%zu name=%s", def_kind_name, node->lang_id,
node->name ? node->name : "?");
}
+153
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@@ -0,0 +1,153 @@
#ifndef __SPL_LANG_TYPE_H__
#define __SPL_LANG_TYPE_H__
#include "../stage0/include/utils.h"
#include "spl_dbg.h"
#include "spl_mpa.h"
#include "spl_type.h"
typedef usize spl_lang_type_id_t;
typedef VEC(spl_lang_type_id_t) spl_lang_type_id_vec_t;
typedef usize spl_def_id_t;
typedef VEC(spl_def_id_t) spl_def_id_vec_t;
typedef enum {
SPL_LANG_TYPE_ERROR,
SPL_LANG_TYPE_INFER,
SPL_LANG_TYPE_NEVER,
SPL_LANG_TYPE_ANY,
SPL_LANG_TYPE_UNIT,
SPL_LANG_TYPE_BOOL,
SPL_LANG_TYPE_INT,
SPL_LANG_TYPE_FLOAT,
SPL_LANG_TYPE_PTR,
SPL_LANG_TYPE_ARRAY,
SPL_LANG_TYPE_SLICE,
SPL_LANG_TYPE_TUPLE,
SPL_LANG_TYPE_RANGE,
SPL_LANG_TYPE_FN,
SPL_LANG_TYPE_STRUCT,
SPL_LANG_TYPE_UNION,
SPL_LANG_TYPE_ENUM,
SPL_LANG_TYPE_SHAPE,
SPL_LANG_TYPE_VARARGS,
} spl_lang_type_kind_t;
typedef struct {
const char *name;
spl_def_id_t def_id;
} spl_lang_method_t;
typedef VEC(spl_lang_method_t) spl_lang_method_vec_t;
typedef struct {
spl_lang_type_kind_t kind;
spl_type_id_t ir_type_id;
spl_lang_method_vec_t methods;
union {
spl_lang_type_id_t elem;
spl_lang_type_id_vec_t elems;
struct {
spl_lang_type_id_vec_t params;
spl_lang_type_id_t ret;
} fn;
} extra;
} spl_lang_type_node_t;
typedef VEC(spl_lang_type_node_t) spl_lang_type_vec_t;
typedef MAP(usize, spl_lang_type_id_t) spl_lang_type_map_t;
typedef enum {
SPL_DEF_ERROR,
SPL_DEF_SCALAR,
SPL_DEF_MEMBER,
SPL_DEF_VAR,
SPL_DEF_FN,
SPL_DEF_AGG,
SPL_DEF_DISTINCT,
SPL_DEF_ALIAS,
SPL_DEF_BUILTIN,
} spl_def_node_kind_t;
typedef enum {
SPL_DECL_UNRESOLVED,
SPL_DECL_RESOLVING,
SPL_DECL_RESOLVED,
SPL_DECL_ERROR,
} spl_decl_state_t;
struct spl_ast;
typedef struct {
spl_def_node_kind_t kind;
const char *name;
spl_dbg_node_t dbg_node;
spl_lang_type_id_t lang_id;
struct spl_ast *owner_ast;
usize ast_node_ref;
spl_decl_state_t state;
spl_def_id_t owner_def;
} spl_def_node_t;
typedef VEC(spl_def_node_t) spl_def_node_vec_t;
typedef struct {
spl_type_t ir;
spl_lang_type_vec_t lang_table;
spl_lang_type_map_t lang_map;
spl_def_node_vec_t def_table;
} spl_lang_type_t;
void spl_lang_type_init(spl_lang_type_t *type);
void spl_lang_type_drop(spl_lang_type_t *type);
spl_lang_type_node_t *spl_lang_type_node(const spl_lang_type_t *type, spl_lang_type_id_t id);
spl_lang_type_id_t spl_lang_node_push(spl_lang_type_t *type, spl_lang_type_node_t *node);
spl_type_id_t spl_lang_type_get_ir_type(spl_lang_type_t *type, spl_lang_type_id_t lang_id);
/* 前向引用支持:reserve 一个 type_table 空槽位(kind=ERROR)作为身份锚点,
让 *Node / []Node 这类成员能拿到稳定 pointee;成员解析完后再调 define
把真实内容填进去。占位槽位**不写 type_map**,不参与 hash-consing——
后续相同形状的类型走 spl_type_node_push 会生成独立 id,语义等价。 */
spl_type_id_t spl_lang_reserve_ir(spl_lang_type_t *type);
void spl_lang_define_ir(spl_lang_type_t *type, spl_type_id_t id, spl_type_node_t *node);
spl_lang_type_id_t spl_lang_make_error(spl_lang_type_t *type);
spl_lang_type_id_t spl_lang_make_infer(spl_lang_type_t *type);
spl_lang_type_id_t spl_lang_make_never(spl_lang_type_t *type);
spl_lang_type_id_t spl_lang_make_any(spl_lang_type_t *type);
spl_lang_type_id_t spl_lang_make_unit(spl_lang_type_t *type);
spl_lang_type_id_t spl_lang_make_bool(spl_lang_type_t *type);
spl_lang_type_id_t spl_lang_make_int(spl_lang_type_t *type, usize bits, int is_signed);
spl_lang_type_id_t spl_lang_make_float(spl_lang_type_t *type, usize bits);
spl_lang_type_id_t spl_lang_make_ptr(spl_lang_type_t *type, spl_lang_type_id_t pointee);
spl_lang_type_id_t spl_lang_make_array(spl_lang_type_t *type, spl_lang_type_id_t elem, usize len);
spl_lang_type_id_t spl_lang_make_slice(spl_lang_type_t *type, spl_lang_type_id_t elem);
spl_lang_type_id_t spl_lang_make_tuple(spl_lang_type_t *type, const spl_lang_type_id_t *elems,
usize count);
spl_lang_type_id_t spl_lang_make_range(spl_lang_type_t *type, spl_lang_type_id_t elem);
spl_lang_type_id_t spl_lang_make_fn(spl_lang_type_t *type, spl_lang_type_id_t ret,
const spl_lang_type_id_t *params, usize nparams);
spl_lang_type_id_t spl_lang_make_aggregate(spl_lang_type_t *type, spl_lang_type_kind_t kind,
const char *name, const spl_lang_type_id_t *members,
usize nmembers);
spl_lang_type_id_t spl_lang_make_varargs(spl_lang_type_t *type);
spl_lang_type_id_t spl_type_lookup_builtin(spl_lang_type_t *type, const char *name);
bool spl_lang_type_is_subtype(const spl_lang_type_t *type, spl_lang_type_id_t sub,
spl_lang_type_id_t super);
spl_lang_type_id_t spl_lang_type_join(const spl_lang_type_t *type, spl_lang_type_id_t a,
spl_lang_type_id_t b);
bool spl_lang_mpa_int_fits(const spl_lang_type_t *type, spl_lang_type_id_t target, spl_mpa_int_t v);
spl_def_id_t spl_def_alloc(spl_lang_type_t *type, spl_def_node_kind_t kind, const char *name,
spl_dbg_node_t dbg, struct spl_ast *owner_ast, usize ast_node_ref);
void spl_def_resolve(spl_lang_type_t *type, spl_def_id_t id, spl_lang_type_id_t lang_id);
spl_def_node_t *spl_def_node(const spl_lang_type_t *type, spl_def_id_t id);
spl_lang_type_id_t spl_def_get_lang_id(spl_lang_type_t *type, spl_def_id_t def_id);
spl_type_id_t spl_def_get_type_id(spl_lang_type_t *type, spl_def_id_t def_id);
void spl_lang_type_dump(spl_lang_type_t *type, spl_lang_type_id_t id);
void spl_type_def_dump(spl_lang_type_t *type, spl_def_id_t id);
#endif /* __SPL_LANG_TYPE_H__ */
+298
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@@ -0,0 +1,298 @@
#include "spl_layout.h"
static void infos_grow(spl_layout_t *layout, usize n) {
while (vec_size(layout->infos) < n) {
spl_layout_info_t info = {0};
vec_init(info.field_bit_offsets);
vec_init(info.field_bit_sizes);
vec_push(layout->infos, info);
}
}
static spl_layout_info_t *infos_at(spl_layout_t *layout, spl_type_id_t id) {
if (id == 0 || id >= vec_size(layout->infos))
return NULL;
return &vec_at(layout->infos, id);
}
void spl_layout_add_scalar(spl_layout_t *layout, usize size, usize abi_align) {
spl_layout_scalar_t s = {0};
s.size = size;
s.abi_align = abi_align;
s.pref_align = abi_align;
vec_init(s.invalid_values);
vec_push(layout->scalars, s);
}
void spl_layout_add_ptr(spl_layout_t *layout, usize addr_space, usize size, usize align) {
spl_layout_ptr_t p = {0};
p.add_space = addr_space;
p.ptr_size = size;
p.ptr_align = align;
vec_push(layout->pointers, p);
}
void spl_layout_init(spl_layout_t *layout, spl_layout_target_t *target) {
vec_init(layout->scalars);
vec_init(layout->pointers);
vec_init(layout->infos);
layout->target = target;
/* 默认聚合策略:按最大字段对齐,不允许重排 */
layout->aggregate.allow_field_reordering = false;
layout->aggregate.align_rule = ALIGN_MAX;
layout->aggregate.fixed_align = 0;
/* 常见 64 位平台的默认布局。
若目标平台不适用,调用者 clear 后自行 add_*。 */
spl_layout_add_scalar(layout, 1, 1); /* i8 / u8 / bool */
spl_layout_add_scalar(layout, 2, 2); /* i16 / u16 */
spl_layout_add_scalar(layout, 4, 4); /* i32 / u32 / f32 */
spl_layout_add_scalar(layout, 8, 8); /* i64 / u64 / f64 */
usize ps = sizeof(void *);
spl_layout_add_ptr(layout, 0, ps, ps);
}
void spl_layout_drop(spl_layout_t *layout) {
for (usize i = 0; i < vec_size(layout->scalars); ++i)
vec_free(vec_at(layout->scalars, i).invalid_values);
vec_free(layout->scalars);
vec_free(layout->pointers);
for (usize i = 0; i < vec_size(layout->infos); ++i) {
vec_free(vec_at(layout->infos, i).field_bit_offsets);
vec_free(vec_at(layout->infos, i).field_bit_sizes);
}
vec_free(layout->infos);
}
static const spl_layout_scalar_t *scalar_for_size(spl_layout_t *layout, usize size_bytes) {
for (usize i = 0; i < vec_size(layout->scalars); ++i) {
spl_layout_scalar_t *s = &vec_at(layout->scalars, i);
if (s->size == size_bytes)
return s;
}
return NULL;
}
static const spl_layout_ptr_t *default_ptr(spl_layout_t *layout) {
if (vec_size(layout->pointers) == 0)
return NULL;
return &vec_at(layout->pointers, 0);
}
static bool layout_scalar(spl_layout_t *layout, spl_type_node_t *tn, spl_layout_info_t *out) {
usize size_bits = 0;
switch (tn->kind) {
case SPL_TYPE_INT:
if (tn->int_type.bits == 0)
return false; /* comptime_int 未落地 */
size_bits = tn->int_type.bits;
break;
case SPL_TYPE_FLOAT:
if (tn->float_type.bits == 0)
return false; /* comptime_float 未落地 */
size_bits = tn->float_type.bits;
break;
case SPL_TYPE_BOOL:
size_bits = 8;
break;
default:
return false;
}
usize size_bytes = (size_bits + 7) / 8;
const spl_layout_scalar_t *sl = scalar_for_size(layout, size_bytes);
if (!sl)
return false;
out->size_bits = sl->size * 8;
out->align_bits = sl->abi_align * 8;
return true;
}
static bool layout_ptr(spl_layout_t *layout, spl_layout_info_t *out) {
const spl_layout_ptr_t *pl = default_ptr(layout);
if (!pl)
return false;
out->size_bits = pl->ptr_size * 8;
out->align_bits = pl->ptr_align * 8;
return true;
}
static usize round_up_bits(usize x, usize align_bits) {
if (align_bits <= 1)
return x;
usize a = align_bits;
return (x + a - 1) / a * a;
}
static bool layout_agg(spl_layout_t *layout, spl_type_node_t *tn, spl_layout_info_t *out) {
usize n = vec_size(tn->agg_type.variants);
if (tn->kind == SPL_TYPE_ENUM) {
spl_type_id_t tag_tid = tn->agg_type.tag_type;
if (!tag_tid)
return false;
spl_layout_info_t *tag_info = infos_at(layout, tag_tid);
if (!tag_info || !tag_info->resolved)
return false;
usize tag_align_bits = tag_info->align_bits ? tag_info->align_bits : 8;
usize payload_align_bits = 8;
usize payload_size_bits = 0;
for (usize i = 0; i < n; ++i) {
spl_type_member_t *m = &vec_at(tn->agg_type.variants, i);
spl_layout_info_t *fi = infos_at(layout, m->type_id);
if (!fi || !fi->resolved)
return false;
usize fa = fi->align_bits ? fi->align_bits : 8;
if (fa > payload_align_bits)
payload_align_bits = fa;
if (fi->size_bits > payload_size_bits)
payload_size_bits = fi->size_bits;
}
usize payload_off = round_up_bits(tag_info->size_bits, payload_align_bits);
usize final_align_bits =
tag_align_bits > payload_align_bits ? tag_align_bits : payload_align_bits;
out->size_bits = round_up_bits(payload_off + payload_size_bits, final_align_bits);
out->align_bits = final_align_bits;
return true;
}
if (n == 0) {
out->size_bits = 0;
out->align_bits = 8;
return true;
}
usize max_align_bits = 8;
usize offset_bits = 0;
bool is_union = (tn->kind == SPL_TYPE_UNION);
for (usize i = 0; i < n; ++i) {
spl_type_member_t *m = &vec_at(tn->agg_type.variants, i);
spl_layout_info_t *fi = infos_at(layout, m->type_id);
if (!fi || !fi->resolved)
return false;
usize field_align_bits = fi->align_bits ? fi->align_bits : 8;
if (is_union) {
vec_push(out->field_bit_offsets, 0);
vec_push(out->field_bit_sizes, fi->size_bits);
if (fi->size_bits > out->size_bits)
out->size_bits = fi->size_bits;
} else {
offset_bits = round_up_bits(offset_bits, field_align_bits);
vec_push(out->field_bit_offsets, offset_bits);
vec_push(out->field_bit_sizes, fi->size_bits);
offset_bits += fi->size_bits;
}
if (field_align_bits > max_align_bits)
max_align_bits = field_align_bits;
}
usize final_align_bits = max_align_bits;
if (layout->aggregate.align_rule == ALIGN_FIXED) {
final_align_bits = layout->aggregate.fixed_align * 8;
} else if (layout->aggregate.align_rule == ALIGN_MAX_WITH_MIN) {
usize min_bits = layout->aggregate.fixed_align * 8;
if (final_align_bits < min_bits)
final_align_bits = min_bits;
}
if (is_union)
out->size_bits = round_up_bits(out->size_bits, final_align_bits);
else
out->size_bits = round_up_bits(offset_bits, final_align_bits);
out->align_bits = final_align_bits;
return true;
}
static void resolve_type(spl_layout_t *layout, spl_type_t *type, spl_type_id_t id) {
spl_layout_info_t *info = infos_at(layout, id);
if (!info || info->resolved)
return;
spl_type_node_t *tn = spl_type_node(type, id);
if (!tn)
return;
/* 先标记已解析:自引用类型(通过 ptr)不会无限递归,
但保持防御性写法。 */
info->resolved = true;
switch (tn->kind) {
case SPL_TYPE_ERROR:
case SPL_TYPE_INFER:
case SPL_TYPE_FORALL:
case SPL_TYPE_EXISTS:
case SPL_TYPE_NEVER:
case SPL_TYPE_UNIT:
info->size_bits = 0;
info->align_bits = 8;
return;
case SPL_TYPE_ANY:
/* 顶层类型:stage1 按不透明指针处理 */
layout_ptr(layout, info);
return;
case SPL_TYPE_BOOL:
case SPL_TYPE_INT:
case SPL_TYPE_FLOAT:
layout_scalar(layout, tn, info);
return;
case SPL_TYPE_PTR:
layout_ptr(layout, info);
return;
case SPL_TYPE_ARRAY: {
resolve_type(layout, type, tn->array_type.element);
spl_layout_info_t *elem = infos_at(layout, tn->array_type.element);
if (!elem || !elem->resolved)
return;
info->size_bits = elem->size_bits * tn->array_type.len;
info->align_bits = elem->align_bits;
return;
}
case SPL_TYPE_STRUCT:
case SPL_TYPE_UNION:
case SPL_TYPE_ENUM:
case SPL_TYPE_SHAPE: {
for (usize i = 0; i < vec_size(tn->agg_type.variants); ++i) {
spl_type_member_t *m = &vec_at(tn->agg_type.variants, i);
resolve_type(layout, type, m->type_id);
}
layout_agg(layout, tn, info);
return;
}
case SPL_TYPE_FN:
/* 函数类型按函数指针布局 */
for (usize i = 0; i < vec_size(tn->fn_type.params); ++i)
resolve_type(layout, type, vec_at(tn->fn_type.params, i));
resolve_type(layout, type, tn->fn_type.ret);
layout_ptr(layout, info);
return;
}
}
void spl_layout_resolve(spl_layout_t *layout, spl_type_t *type) {
infos_grow(layout, vec_size(type->type_table));
for (usize i = 1; i < vec_size(type->type_table); ++i)
resolve_type(layout, type, i);
}
const spl_layout_info_t *spl_layout_info_of(spl_layout_t *layout, spl_type_id_t id) {
spl_layout_info_t *info = infos_at(layout, id);
if (!info || !info->resolved)
return NULL;
return info;
}
+56
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@@ -0,0 +1,56 @@
#ifndef __SPL_LAYOUT_H__
#define __SPL_LAYOUT_H__
#include "spl_type.h"
typedef struct {
usize size;
usize abi_align;
usize pref_align;
VEC(usize) invalid_values;
} spl_layout_scalar_t;
typedef struct {
usize add_space;
usize ptr_size;
usize ptr_align;
} spl_layout_ptr_t;
typedef struct {
bool allow_field_reordering;
enum { ALIGN_MAX, ALIGN_FIXED, ALIGN_MAX_WITH_MIN } align_rule;
usize fixed_align;
} spl_layout_agg_t;
typedef struct {
usize size_bits;
usize align_bits;
VEC(usize) field_bit_offsets;
VEC(usize) field_bit_sizes;
bool resolved;
} spl_layout_info_t;
typedef struct {
enum { SPL_BIG_ENDIAN, SPL_LITTLE_ENDIAN } endian; // TODO 更多位存储方式
} spl_layout_target_t;
typedef struct {
VEC(spl_layout_scalar_t) scalars;
VEC(spl_layout_ptr_t) pointers;
spl_layout_agg_t aggregate;
VEC(spl_layout_info_t) infos;
spl_layout_target_t *target;
} spl_layout_t;
void spl_layout_init(spl_layout_t *layout, spl_layout_target_t *target);
void spl_layout_drop(spl_layout_t *layout);
void spl_layout_resolve(spl_layout_t *layout, spl_type_t *type);
void spl_layout_add_scalar(spl_layout_t *layout, usize size, usize abi_align);
void spl_layout_add_ptr(spl_layout_t *layout, usize addr_space, usize size, usize align);
const spl_layout_info_t *spl_layout_info_of(spl_layout_t *layout, spl_type_id_t id);
#endif /* __SPL_LAYOUT_H__ */
+500
View File
@@ -0,0 +1,500 @@
/* spl_lexer.c - SPL lexical analyzer */
#include "spl_lexer.h"
#include "spl_tok.h"
#include <ctype.h>
#include <stdlib.h>
#include <string.h>
/* Character classification */
static int is_ident_start(char c) { return isalpha((unsigned char)c) || c == '_'; }
static int is_ident_cont(char c) { return isalnum((unsigned char)c) || c == '_'; }
/* Keyword lookup: if ident is a keyword, return its token type, else TOK_IDENT */
static spl_tok_type_t keyword_type(const char *ident, usize len) {
#define X(name, enum_name, dummy) \
if (len == sizeof(#name) - 1 && memcmp(ident, #name, len) == 0) \
return enum_name;
KEYWORD_TABLE
#undef X
return TOK_IDENT;
}
/* Escape sequence decoder - returns the decoded character,
* advances *s past the escape sequence, returns 0 on success,
* non-zero on error. */
int spl_decode_escape(const char **s, char *out) {
if (**s != '\\') {
*out = **s;
(*s)++;
return 0;
}
(*s)++; /* skip backslash */
switch (**s) {
case 'n':
*out = '\n';
break;
case 't':
*out = '\t';
break;
case 'r':
*out = '\r';
break;
case '\\':
*out = '\\';
break;
case '"':
*out = '"';
break;
case '\'':
*out = '\'';
break;
case '0':
*out = '\0';
break;
case 'x': {
(*s)++;
char hex[3] = {0, 0, 0};
int i;
for (i = 0; i < 2 && isxdigit((unsigned char)**s); i++, (*s)++) {
hex[i] = **s;
}
if (i == 0)
return -1;
*out = (char)strtol(hex, NULL, 16);
return 0;
}
default:
return -1;
}
(*s)++;
return 0;
}
spl_tok_vec_t spl_lex(const char *source, const char *fname) {
spl_tok_vec_t toks;
vec_init(toks);
usize line = 1;
usize col = 1;
usize offset = 0;
usize len = strlen(source);
while (offset < len) {
const char *start = source + offset;
char c = *start;
/* Skip whitespace (but not newlines - emit TOK_ENDLINE) */
if (c == ' ' || c == '\t' || c == '\r') {
offset++;
col++;
continue;
}
/* Newline */
if (c == '\n') {
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_ENDLINE;
tok.lexeme = start;
tok.len = 1;
tok.fname = fname;
tok.offset = offset;
tok.line = line;
tok.col = col;
vec_push(toks, tok);
offset++;
line++;
col = 1;
continue;
}
/* Line comment */
if (c == '/' && offset + 1 < len && source[offset + 1] == '/') {
const char *nl = (const char *)memchr(start, '\n', len - offset);
usize clen = nl ? (usize)(nl - start) : (len - offset);
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_LINE_COMMENT;
tok.lexeme = start;
tok.len = clen;
tok.fname = fname;
tok.offset = offset;
tok.line = line;
tok.col = col;
vec_push(toks, tok);
offset += clen;
col += clen;
continue;
}
/* Block comment */
if (c == '/' && offset + 1 < len && source[offset + 1] == '*') {
offset += 2;
col += 2;
usize depth = 1;
while (offset + 1 < len && depth > 0) {
if (source[offset] == '*' && source[offset + 1] == '/') {
depth--;
offset += 2;
col += 2;
if (depth == 0)
break;
} else if (source[offset] == '/' && source[offset + 1] == '*') {
depth++;
offset += 2;
col += 2;
} else {
if (source[offset] == '\n') {
line++;
col = 1;
} else {
col++;
}
offset++;
}
}
continue;
}
/* Char literal: 'x' */
if (c == '\'') {
offset++;
col++;
char buf[16];
int bi = 0;
memset(buf, 0, sizeof(buf));
if (offset < len) {
const char *cp = source + offset;
if (spl_decode_escape(&cp, &buf[bi])) {
buf[bi] = source[offset];
cp = source + offset + 1;
}
bi++;
offset = (usize)(cp - source);
col += (usize)(cp - (start + 1));
}
if (offset < len && source[offset] == '\'') {
offset++;
col++;
}
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_CHAR_LITERAL;
tok.lexeme = start;
tok.len = (usize)((source + offset) - start);
tok.fname = fname;
tok.offset = start - source;
tok.line = line;
tok.col = col - tok.len;
vec_push(toks, tok);
continue;
}
/* String literal: "..." */
if (c == '"') {
offset++;
col++;
while (offset < len) {
if (source[offset] == '\\') {
offset++;
col++;
if (offset < len) {
offset++;
col++;
}
} else if (source[offset] == '"') {
offset++;
col++;
break;
} else if (source[offset] == '\n') {
line++;
col = 1;
offset++;
} else {
offset++;
col++;
}
}
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_STRING_LITERAL;
tok.lexeme = start;
tok.len = (usize)((source + offset) - start);
tok.fname = fname;
tok.offset = start - source;
tok.line = line;
tok.col = col - tok.len;
vec_push(toks, tok);
continue;
}
/* Identifiers and keywords */
if (is_ident_start(c)) {
const char *id_start = start;
usize id_len = 0;
while (offset < len && is_ident_cont(source[offset])) {
offset++;
id_len++;
col++;
}
spl_tok_type_t tt = keyword_type(id_start, id_len);
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = tt;
tok.lexeme = id_start;
tok.len = id_len;
tok.fname = fname;
tok.offset = id_start - source;
tok.line = line;
tok.col = col - id_len;
vec_push(toks, tok);
continue;
}
/* Numbers: integers and floats */
if (isdigit((unsigned char)c)) {
const char *num_start = start;
int is_float = 0;
/* Check for hex/bin/oct prefix */
if (c == '0' && offset + 1 < len) {
char nc = source[offset + 1];
if (nc == 'x' || nc == 'X') {
/* Hex literal */
offset += 2;
col += 2;
while (offset < len &&
(isxdigit((unsigned char)source[offset]) || source[offset] == '_')) {
offset++;
col++;
}
goto emit_int;
}
if (nc == 'b' || nc == 'B') {
/* Binary literal */
offset += 2;
col += 2;
while (offset < len && (source[offset] == '0' || source[offset] == '1' ||
source[offset] == '_')) {
offset++;
col++;
}
goto emit_int;
}
if (nc == 'o' || nc == 'O') {
/* Octal literal */
offset += 2;
col += 2;
while (offset < len && ((source[offset] >= '0' && source[offset] <= '7') ||
source[offset] == '_')) {
offset++;
col++;
}
goto emit_int;
}
}
/* Decimal integer or float */
while (offset < len &&
(isdigit((unsigned char)source[offset]) || source[offset] == '_')) {
offset++;
col++;
}
if (offset < len && source[offset] == '.' && offset + 1 < len &&
isdigit((unsigned char)source[offset + 1])) {
is_float = 1;
offset++;
col++;
while (offset < len && isdigit((unsigned char)source[offset])) {
offset++;
col++;
}
}
if (is_float) {
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_FLOAT_LITERAL;
tok.lexeme = num_start;
tok.len = (usize)((source + offset) - num_start);
tok.fname = fname;
tok.offset = num_start - source;
tok.line = line;
tok.col = col - tok.len;
vec_push(toks, tok);
continue;
}
emit_int:
{
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_INT_LITERAL;
tok.lexeme = num_start;
tok.len = (usize)((source + offset) - num_start);
tok.fname = fname;
tok.offset = num_start - source;
tok.line = line;
tok.col = col - tok.len;
vec_push(toks, tok);
continue;
}
}
/* Multi-character operators (longest match) */
#define TRY_OP1(c1, tok1) \
if (c == (c1)) { \
spl_tok_t tok; \
memset(&tok, 0, sizeof(tok)); \
tok.type = (tok1); \
tok.lexeme = start; \
tok.len = 1; \
tok.fname = fname; \
tok.offset = offset; \
tok.line = line; \
tok.col = col; \
vec_push(toks, tok); \
offset++; \
col++; \
continue; \
}
/* Helper: try to match a two-char operator */
#define TRY_OP2(c1, c2, tok2, tok1) \
if (c == (c1) && offset + 1 < len && source[offset + 1] == (c2)) { \
spl_tok_type_t op_type = (tok2); \
usize op_len = 2; \
spl_tok_t tok; \
memset(&tok, 0, sizeof(tok)); \
tok.type = op_type; \
tok.lexeme = start; \
tok.len = op_len; \
tok.fname = fname; \
tok.offset = offset; \
tok.line = line; \
tok.col = col; \
vec_push(toks, tok); \
offset += op_len; \
col += op_len; \
continue; \
}
#define TRY_OP3(c1, c2, c3, tok3, tok2, tok1) \
if (c == (c1) && offset + 1 < len && source[offset + 1] == (c2)) { \
spl_tok_type_t op_type = (tok2); \
usize op_len = 2; \
if (offset + 2 < len && source[offset + 2] == (c3)) { \
op_type = (tok3); \
op_len = 3; \
} \
spl_tok_t tok; \
memset(&tok, 0, sizeof(tok)); \
tok.type = op_type; \
tok.lexeme = start; \
tok.len = op_len; \
tok.fname = fname; \
tok.offset = offset; \
tok.line = line; \
tok.col = col; \
vec_push(toks, tok); \
offset += op_len; \
col += op_len; \
continue; \
}
/* Three-char operators first */
TRY_OP3('<', '-', '>', TOK_ARROW_BOTH, TOK_RIGHT_ARROW, TOK_LT)
TRY_OP3('<', '=', '>', TOK_FAT_ARROW_BOTH, TOK_LE, TOK_LT)
TRY_OP3('<', '<', '=', TOK_ASSIGN_L_SH, TOK_L_SH, TOK_LT)
TRY_OP3('>', '>', '=', TOK_ASSIGN_R_SH, TOK_R_SH, TOK_GT)
TRY_OP3('.', '.', '.', TOK_ELLIPSIS, TOK_RANGE, TOK_DOT)
/* Two-char operators */
TRY_OP2('=', '=', TOK_EQ, TOK_ASSIGN)
TRY_OP2('=', '>', TOK_RIGHT_FAT_ARROW, TOK_ASSIGN)
TRY_OP2('!', '=', TOK_NEQ, TOK_NOT)
TRY_OP2('<', '=', TOK_LE, TOK_LT)
TRY_OP2('>', '=', TOK_GE, TOK_GT)
TRY_OP2('&', '&', TOK_AND_AND, TOK_AND)
TRY_OP2('|', '|', TOK_OR_OR, TOK_OR)
TRY_OP2('+', '=', TOK_ASSIGN_ADD, TOK_ADD)
TRY_OP2('-', '=', TOK_ASSIGN_SUB, TOK_SUB)
TRY_OP2('*', '=', TOK_ASSIGN_MUL, TOK_MUL)
TRY_OP2('/', '=', TOK_ASSIGN_DIV, TOK_DIV)
TRY_OP2('%', '=', TOK_ASSIGN_MOD, TOK_MOD)
TRY_OP2('&', '=', TOK_ASSIGN_AND, TOK_AND)
TRY_OP2('|', '=', TOK_ASSIGN_OR, TOK_OR)
TRY_OP2('^', '=', TOK_ASSIGN_XOR, TOK_XOR)
TRY_OP2('<', '-', TOK_LEFT_ARROW, TOK_LT)
TRY_OP2('-', '>', TOK_RIGHT_ARROW, TOK_SUB)
TRY_OP2(':', '=', TOK_COLON_ASSIGN, TOK_COLON)
/* Single-character operators */
TRY_OP1('+', TOK_ADD);
TRY_OP1('-', TOK_SUB);
TRY_OP1('*', TOK_MUL);
TRY_OP1('/', TOK_DIV);
TRY_OP1('%', TOK_MOD);
TRY_OP1('&', TOK_AND);
TRY_OP1('|', TOK_OR);
TRY_OP1('^', TOK_XOR);
TRY_OP1('~', TOK_BIT_NOT);
TRY_OP1('!', TOK_NOT);
TRY_OP1('<', TOK_LT);
TRY_OP1('>', TOK_GT);
TRY_OP1('=', TOK_ASSIGN);
TRY_OP1('.', TOK_DOT);
TRY_OP1(',', TOK_COMMA);
TRY_OP1(';', TOK_SEMICOLON);
TRY_OP1(':', TOK_COLON);
TRY_OP1('(', TOK_L_PAREN);
TRY_OP1(')', TOK_R_PAREN);
TRY_OP1('[', TOK_L_BRACKET);
TRY_OP1(']', TOK_R_BRACKET);
TRY_OP1('{', TOK_L_BRACE);
TRY_OP1('}', TOK_R_BRACE);
TRY_OP1('#', TOK_SHARP);
TRY_OP1('@', TOK_AT);
TRY_OP1('$', TOK_DOLLAR);
TRY_OP1('?', TOK_COND);
// TODO
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_UNKNOWN;
tok.lexeme = start;
tok.len = 1;
tok.fname = fname;
tok.offset = offset;
tok.line = line;
tok.col = col;
vec_push(toks, tok);
offset++;
col++;
continue;
}
/* EOF token */
{
spl_tok_t tok;
memset(&tok, 0, sizeof(tok));
tok.type = TOK_EOF;
tok.lexeme = source + offset;
tok.len = 0;
tok.fname = fname;
tok.offset = offset;
tok.line = line;
tok.col = col;
vec_push(toks, tok);
}
return toks;
}
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/* spl_lexer.h - 独立词法分析器 */
#ifndef __SPL_LEXER_H__
#define __SPL_LEXER_H__
#include "spl_tok.h"
/* Lexer entry point */
spl_tok_vec_t spl_lex(const char *source, const char *fname);
/* Decode escape sequence, advance *s past it. Returns 0 on success. */
int spl_decode_escape(const char **s, char *out);
#endif /* __SPL_LEXER_H__ */
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#ifndef __SPL_MPA_H__
#define __SPL_MPA_H__
#include <stdint.h>
typedef struct {
uint64_t bits;
} spl_mpa_int_t;
typedef struct {
double bits;
} spl_mpa_float_t;
#endif /* __SPL_MPA_H__ */
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#ifndef __SPL_PARSER_H__
#define __SPL_PARSER_H__
#include "spl_ast.h"
#include "spl_diag.h"
typedef struct spl_parser {
spl_ast_t *ast;
spl_diag_t *diag;
usize pos;
int failed;
int stop_agg;
usize error_count;
} spl_parser_t;
void spl_parser_init(spl_parser_t *p);
void spl_parser_drop(spl_parser_t *p);
void spl_ast_parse(spl_parser_t *p, spl_ast_t *ast);
#endif /* __SPL_PARSER_H__ */
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#include "spl_scope.h"
void spl_scope_init(spl_scope_t *scope) {
vec_init(scope->scopes);
vec_push(scope->scopes, (spl_scope_node_t){0});
scope->current_scope = 0;
scope->root_scope = 0;
}
void spl_scope_drop(spl_scope_t *scope) {
for (usize i = 0; i < vec_size(scope->scopes); ++i) {
map_free(vec_at(scope->scopes, i).symbols);
}
vec_free(scope->scopes);
scope->current_scope = 0;
scope->root_scope = 0;
}
spl_scope_id_t spl_scope_alloc(spl_scope_t *scope) {
spl_scope_node_t n = {0};
n.parent = scope->current_scope;
map_init(n.symbols, MAP_HASH_STR, MAP_CMP_STR);
vec_push(scope->scopes, n);
return vec_size(scope->scopes) - 1;
}
bool spl_scope_insert(spl_scope_t *scope, spl_scope_id_t id, spl_symbol_t symbol) {
Assert(id != 0 && id < vec_size(scope->scopes));
spl_scope_node_t *node = &vec_at(scope->scopes, id);
spl_symbol_t old = {0};
if (map_get(node->symbols, symbol.name, &old))
return false;
map_put(node->symbols, symbol.name, symbol);
return true;
}
bool spl_scope_find(spl_scope_t *scope, const char *name, spl_symbol_t *out) {
if (!scope || !name || !out)
return false;
for (spl_scope_id_t id = scope->current_scope; id != 0; id = vec_at(scope->scopes, id).parent) {
spl_scope_node_t *s = &vec_at(scope->scopes, id);
if (map_get(s->symbols, name, out))
return true;
}
return false;
}
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#ifndef __SPL_SCOPE_H__
#define __SPL_SCOPE_H__
#include "spl_lang_type.h"
typedef usize spl_scope_id_t;
typedef enum {
SPL_SYMBOL_KIND_ERROR,
SPL_SYMBOL_KIND_VAR,
SPL_SYMBOL_KIND_MEMBER,
SPL_SYMBOL_KIND_FN,
SPL_SYMBOL_KIND_TYPE,
} spl_symbol_kind_t;
typedef struct {
const char *name;
spl_symbol_kind_t kind;
spl_def_id_t node;
} spl_symbol_t;
typedef VEC(const char *) spl_symbol_path_t;
typedef struct {
spl_scope_id_t parent;
MAP(const char *, spl_symbol_t) symbols;
} spl_scope_node_t;
typedef VEC(spl_scope_node_t) spl_scope_node_vec_t;
typedef struct {
spl_scope_node_vec_t scopes;
spl_scope_id_t root_scope;
spl_scope_id_t current_scope;
} spl_scope_t;
void spl_scope_init(spl_scope_t *scope);
void spl_scope_drop(spl_scope_t *scope);
spl_scope_id_t spl_scope_alloc(spl_scope_t *scope);
bool spl_scope_insert(spl_scope_t *scope, spl_scope_id_t id, spl_symbol_t symbol);
bool spl_scope_find(spl_scope_t *scop, const char *symbol_name, spl_symbol_t *out);
#endif /* __SPL_SCOPE_H__ */
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#ifndef __SPL_SEMA_H__
#define __SPL_SEMA_H__
#include "spl_ast.h"
#include "spl_attr.h"
#include "spl_diag.h"
#include "spl_lang_type.h"
#include "spl_mpa.h"
#include "spl_scope.h"
#include "spl_type.h"
typedef struct spl_module_loader spl_module_loader_t;
struct spl_module_loader {
/* 从 from_fname 所在目录解析 path;返回该文件的 ast(已 init + parse)。
失败(文件不存在 / parse 错误 / 环)返回 NULL。
loader 拥有 ast 的生命周期;sema 不负责释放。 */
spl_ast_t *(*load)(void *user, const char *from_fname, const char *path, spl_diag_t *diag);
void *user;
};
typedef struct {
spl_ast_t *ast;
spl_lang_type_t *type;
spl_scope_t *scope;
spl_symbol_t root;
spl_attr_t *attr;
spl_lang_type_id_t current_aggregate_lang;
spl_lang_type_id_t current_fn_ret_tid;
spl_lang_type_id_t current_loop_break_tid;
spl_symbol_path_t label_stack;
const spl_module_loader_t *loader;
spl_diag_t *diag;
} spl_sema_t;
void spl_sema_init(spl_sema_t *sema, spl_ast_t *ast, spl_lang_type_t *type, spl_scope_t *scope,
spl_attr_t *attr);
void spl_sema_drop(spl_sema_t *sema);
void spl_sema_run_module(spl_sema_t *sema, spl_ast_node_ref_t module_ref);
void spl_sema_run(spl_sema_t *sema);
void spl_sema_dump(spl_sema_t *sema);
#endif /* __SPL_SEMA_H__ */
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#include "spl_tok.h"
const char *spl_tok_type_name(spl_tok_type_t t) {
static const char *const names[] = {
#define X(name, enum_name, dummy) #enum_name,
KEYWORD_TABLE
#undef X
#define X(name, enum_name, dummy) #enum_name,
TOKEN_TABLE
#undef X
};
if ((usize)t < sizeof(names) / sizeof(names[0]))
return names[t];
return "?";
}
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/* spl_tok.h - Token type definitions (extracted from spl_lexer.h) */
#ifndef __SPL_TOK_H__
#define __SPL_TOK_H__
#include "../stage0/include/utils.h"
/* clang-format off */
#define KEYWORD_TABLE \
X(any , KW_ANY , SPL_V0) \
X(as , KW_AS , SPL_V0) \
X(bool , KW_BOOL , SPL_V0) \
X(break , KW_BREAK , SPL_V0) \
X(catch , KW_CATCH , SPL_V0) \
X(comptime , KW_COMPTIME , SPL_V0) \
X(const , KW_CONST , SPL_V0) \
X(continue , KW_CONTINUE , SPL_V0) \
X(defer , KW_DEFER , SPL_V0) \
X(else , KW_ELSE , SPL_V0) \
X(enum , KW_ENUM , SPL_V0) \
X(errdefer , KW_ERRDEFER , SPL_V0) \
X(false , KW_FALSE , SPL_V0) \
X(fn , KW_FN , SPL_V0) \
X(for , KW_FOR , SPL_V0) \
X(if , KW_IF , SPL_V0) \
X(loop , KW_LOOP , SPL_V0) \
X(match , KW_MATCH , SPL_V0) \
X(null , KW_NULL , SPL_V0) \
X(ret , KW_RET , SPL_V0) \
X(shape , KW_SHAPE , SPL_V0) \
X(struct , KW_STRUCT , SPL_V0) \
X(true , KW_TRUE , SPL_V0) \
X(try , KW_TRY , SPL_V0) \
X(type , KW_TYPE , SPL_V0) \
X(undefined , KW_UNDEFINED , SPL_V0) \
X(union , KW_UNION , SPL_V0) \
X(var , KW_VAR , SPL_V0) \
X(while , KW_WHILE , SPL_V0) \
X(_ , KW_UNDERSCORE , SPL_V0) \
// KEYWORD_TABLE
#define TOKEN_TABLE \
X(unknown , TOK_UNKNOWN , SPL_V0 ) \
X(EOF , TOK_EOF , SPL_V0 ) \
X(blank , TOK_BLANK , SPL_V0 ) \
X(endline , TOK_ENDLINE , SPL_V0 ) \
X("#" , TOK_SHARP , SPL_V0 ) \
X("@" , TOK_AT , SPL_V0 ) \
X("$" , TOK_DOLLAR , SPL_V0 ) \
X("==" , TOK_EQ , SPL_V0 ) \
X("=" , TOK_ASSIGN , SPL_V0 ) \
X("+=" , TOK_ASSIGN_ADD , SPL_V0 ) \
X("+" , TOK_ADD , SPL_V0 ) \
X("-=" , TOK_ASSIGN_SUB , SPL_V0 ) \
X("->" , TOK_RIGHT_ARROW , SPL_V0 ) \
X("<-" , TOK_LEFT_ARROW , SPL_V0 ) \
X("<->" , TOK_ARROW_BOTH , SPL_V0 ) \
X("<=>" , TOK_FAT_ARROW_BOTH , SPL_V0 ) \
X("=>" , TOK_RIGHT_FAT_ARROW , SPL_V0 ) \
X("-" , TOK_SUB , SPL_V0 ) \
X("*=" , TOK_ASSIGN_MUL , SPL_V0 ) \
X("*" , TOK_MUL , SPL_V0 ) \
X("/=" , TOK_ASSIGN_DIV , SPL_V0 ) \
X("/" , TOK_DIV , SPL_V0 ) \
X("//" , TOK_LINE_COMMENT , SPL_V0 ) \
X("/* */" , TOK_BLOCK_COMMENT , SPL_V0 ) \
X("%=" , TOK_ASSIGN_MOD , SPL_V0 ) \
X("%" , TOK_MOD , SPL_V0 ) \
X("&&" , TOK_AND_AND , SPL_V0 ) \
X("&=" , TOK_ASSIGN_AND , SPL_V0 ) \
X("&" , TOK_AND , SPL_V0 ) \
X("||" , TOK_OR_OR , SPL_V0 ) \
X("|=" , TOK_ASSIGN_OR , SPL_V0 ) \
X("|" , TOK_OR , SPL_V0 ) \
X("^=" , TOK_ASSIGN_XOR , SPL_V0 ) \
X("^" , TOK_XOR , SPL_V0 ) \
X("<<=" , TOK_ASSIGN_L_SH , SPL_V0 ) \
X("<<" , TOK_L_SH , SPL_V0 ) \
X("<=" , TOK_LE , SPL_V0 ) \
X("<" , TOK_LT , SPL_V0 ) \
X(">>=" , TOK_ASSIGN_R_SH , SPL_V0 ) \
X(">>" , TOK_R_SH , SPL_V0 ) \
X(">=" , TOK_GE , SPL_V0 ) \
X(">" , TOK_GT , SPL_V0 ) \
X("!" , TOK_NOT , SPL_V0 ) \
X("!=" , TOK_NEQ , SPL_V0 ) \
X("~" , TOK_BIT_NOT , SPL_V0 ) \
X("[" , TOK_L_BRACKET , SPL_V0 ) \
X("]" , TOK_R_BRACKET , SPL_V0 ) \
X("(" , TOK_L_PAREN , SPL_V0 ) \
X(")" , TOK_R_PAREN , SPL_V0 ) \
X("{" , TOK_L_BRACE , SPL_V0 ) \
X("}" , TOK_R_BRACE , SPL_V0 ) \
X(";" , TOK_SEMICOLON , SPL_V0 ) \
X("," , TOK_COMMA , SPL_V0 ) \
X(":" , TOK_COLON , SPL_V0 ) \
X(":=" , TOK_COLON_ASSIGN , SPL_V0 ) \
X("." , TOK_DOT , SPL_V0 ) \
X(".." , TOK_RANGE , SPL_V0 ) \
X("..." , TOK_ELLIPSIS , SPL_V0 ) \
X("?" , TOK_COND , SPL_V0 ) \
X(ident , TOK_IDENT , SPL_V0 ) \
X(int , TOK_INT_LITERAL , SPL_V0 ) \
X(float , TOK_FLOAT_LITERAL , SPL_V0 ) \
X(char , TOK_CHAR_LITERAL , SPL_V0 ) \
X(string , TOK_STRING_LITERAL , SPL_V0 ) \
// TOKEN_TABLE
/* clang-format on */
typedef enum {
#define X(name, enum_name, dummy) enum_name,
KEYWORD_TABLE
#undef X
#define X(name, enum_name, dummy) enum_name,
TOKEN_TABLE
#undef X
} spl_tok_type_t;
typedef struct {
spl_tok_type_t type;
const char *lexeme;
usize len;
const char *fname;
usize offset;
usize line;
usize col;
} spl_tok_t;
typedef VEC(spl_tok_t) spl_tok_vec_t;
const char *spl_tok_type_name(spl_tok_type_t t);
#endif /* __SPL_TOK_H__ */
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#include "spl_type.h"
static usize spl_type_hash(spl_type_node_t n) {
usize hash = (usize)n.kind * 131;
switch (n.kind) {
case SPL_TYPE_ERROR:
case SPL_TYPE_UNIT:
case SPL_TYPE_ANY:
case SPL_TYPE_NEVER:
case SPL_TYPE_INFER:
case SPL_TYPE_FORALL:
case SPL_TYPE_EXISTS:
case SPL_TYPE_BOOL:
break;
case SPL_TYPE_INT:
hash += n.int_type.bits + (usize)n.int_type.is_signed;
break;
case SPL_TYPE_FLOAT:
hash += n.float_type.bits;
break;
case SPL_TYPE_PTR:
hash += n.ptr_type.pointee;
break;
case SPL_TYPE_ARRAY:
hash += n.array_type.element + n.array_type.len;
break;
case SPL_TYPE_STRUCT:
case SPL_TYPE_UNION:
case SPL_TYPE_ENUM:
case SPL_TYPE_SHAPE:
hash += (usize)n.layout.mode * 31 + n.layout.fixed_align_bits;
hash += n.agg_type.tag_type;
for (usize i = 0; i < vec_size(n.agg_type.variants); i++) {
spl_type_member_t *m = &n.agg_type.variants.data[i];
hash += m->type_id;
if (m->name) {
const char *s = m->name;
while (*s) {
hash = hash * 31 + (usize)(*s++);
}
}
}
break;
case SPL_TYPE_FN:
hash += n.fn_type.ret;
for (usize i = 0; i < vec_size(n.fn_type.params); i++) {
hash += vec_at(n.fn_type.params, i);
}
break;
}
return hash;
}
static int spl_type_eq(spl_type_node_t n1, spl_type_node_t n2) {
if (n1.kind != n2.kind)
return 1;
switch (n1.kind) {
case SPL_TYPE_ERROR:
case SPL_TYPE_UNIT:
case SPL_TYPE_ANY:
case SPL_TYPE_NEVER:
case SPL_TYPE_INFER:
case SPL_TYPE_FORALL:
case SPL_TYPE_EXISTS:
case SPL_TYPE_BOOL:
return 0;
case SPL_TYPE_INT:
return (n1.int_type.bits != n2.int_type.bits) ||
(n1.int_type.is_signed != n2.int_type.is_signed);
case SPL_TYPE_FLOAT:
return n1.float_type.bits != n2.float_type.bits;
case SPL_TYPE_PTR:
return n1.ptr_type.pointee != n2.ptr_type.pointee;
case SPL_TYPE_ARRAY:
return (n1.array_type.element != n2.array_type.element) ||
(n1.array_type.len != n2.array_type.len);
case SPL_TYPE_STRUCT:
case SPL_TYPE_UNION:
case SPL_TYPE_ENUM:
case SPL_TYPE_SHAPE:
if (n1.layout.mode != n2.layout.mode ||
n1.layout.fixed_align_bits != n2.layout.fixed_align_bits)
return 1;
if (n1.agg_type.tag_type != n2.agg_type.tag_type)
return 1;
if (vec_size(n1.agg_type.variants) != vec_size(n2.agg_type.variants))
return 1;
for (usize i = 0; i < vec_size(n1.agg_type.variants); i++) {
spl_type_member_t *a = &n1.agg_type.variants.data[i];
spl_type_member_t *b = &n2.agg_type.variants.data[i];
if (a->type_id != b->type_id)
return 1;
if ((a->name == NULL) != (b->name == NULL))
return 1;
if (a->name && strcmp(a->name, b->name) != 0)
return 1;
}
return 0;
case SPL_TYPE_FN:
if (n1.fn_type.ret != n2.fn_type.ret)
return 1;
if (vec_size(n1.fn_type.params) != vec_size(n2.fn_type.params))
return 1;
for (usize i = 0; i < vec_size(n1.fn_type.params); i++) {
if (vec_at(n1.fn_type.params, i) != vec_at(n2.fn_type.params, i))
return 1;
}
return 0;
}
return 1;
}
static usize spl_type_map_hash(usize k) { return MAP_HASH_INT(k); }
static int spl_type_map_cmp(usize a, usize b) { return MAP_CMP_INT(a, b); }
static void spl_type_node_free_vecs(spl_type_node_t *tn) {
switch (tn->kind) {
case SPL_TYPE_STRUCT:
case SPL_TYPE_UNION:
case SPL_TYPE_ENUM:
case SPL_TYPE_SHAPE:
vec_free(tn->agg_type.variants);
break;
case SPL_TYPE_FN:
vec_free(tn->fn_type.params);
break;
default:
break;
}
}
spl_type_id_t spl_type_node_push(spl_type_t *type, spl_type_node_t *tn) {
usize hash = spl_type_hash(*tn);
usize idx = (usize)-1;
spl_type_id_t cand = 0;
while (map_get_continue(type->type_map, hash, &cand, &idx)) {
spl_type_node_t *existing = &vec_at(type->type_table, cand);
if (spl_type_eq(*existing, *tn) == 0) {
spl_type_node_free_vecs(tn);
return cand;
}
}
spl_type_id_t id = vec_size(type->type_table);
vec_push(type->type_table, *tn);
map_put_new(type->type_map, hash, id);
tn->kind = SPL_TYPE_ERROR;
return id;
}
void spl_type_init(spl_type_t *type) {
vec_init(type->type_table);
spl_type_node_t type_node = {0};
vec_push(type->type_table, type_node);
map_init(type->type_map, spl_type_map_hash, spl_type_map_cmp);
}
void spl_type_drop(spl_type_t *type) {
for (usize i = 0; i < vec_size(type->type_table); i++) {
spl_type_node_t *n = &vec_at(type->type_table, i);
spl_type_node_free_vecs(n);
}
map_free(type->type_map);
vec_free(type->type_table);
}
spl_type_node_t *spl_type_node(const spl_type_t *type, spl_type_id_t id) {
if (!id || id >= vec_size(type->type_table))
return NULL;
return &vec_at(type->type_table, id);
}
bool spl_type_is_subtype(const spl_type_t *type, spl_type_id_t sub, spl_type_id_t super) {
if (sub == 0 || super == 0)
return false;
if (sub == super)
return true;
spl_type_node_t *nsub = spl_type_node(type, sub);
spl_type_node_t *nsuper = spl_type_node(type, super);
if (!nsub || !nsuper)
return false;
if (nsub->kind == SPL_TYPE_NEVER)
return true;
if (nsuper->kind == SPL_TYPE_ANY)
return true;
if (nsub->kind == SPL_TYPE_INT && nsuper->kind == SPL_TYPE_INT) {
if (nsub->int_type.bits == 0)
return true;
if (nsub->int_type.is_signed == nsuper->int_type.is_signed) {
return nsub->int_type.bits <= nsuper->int_type.bits;
}
if (!nsub->int_type.is_signed && nsuper->int_type.is_signed) {
return nsuper->int_type.bits > nsub->int_type.bits;
}
return false;
}
if (nsub->kind == SPL_TYPE_FLOAT && nsuper->kind == SPL_TYPE_FLOAT) {
if (nsub->float_type.bits == 0)
return true;
return nsub->float_type.bits <= nsuper->float_type.bits;
}
return false;
}
static void spl_type_pure_dump_rec(spl_type_t *type, spl_type_id_t id, spl_type_id_vec_t *stack) {
for (usize i = 0; i < vec_size(*stack); i++) {
if (vec_at(*stack, i) == id) {
printf("<rec#%zu>", id);
return;
}
}
if (vec_size(*stack) > 32) {
printf("...");
return;
}
vec_push(*stack, id);
spl_type_node_t *n = spl_type_node(type, id);
if (!n) {
printf("none");
vec_pop(*stack);
return;
}
switch (n->kind) {
case SPL_TYPE_ERROR:
printf("error");
break;
case SPL_TYPE_UNIT:
printf("unit");
break;
case SPL_TYPE_ANY:
printf("any");
break;
case SPL_TYPE_NEVER:
printf("never");
break;
case SPL_TYPE_INFER:
printf("infer");
break;
case SPL_TYPE_FORALL:
case SPL_TYPE_EXISTS:
printf("quant");
break;
case SPL_TYPE_BOOL:
printf("bool");
break;
case SPL_TYPE_INT:
if (n->int_type.bits == 0)
printf("comptime_int");
else
printf("%s%zu", n->int_type.is_signed ? "i" : "u", n->int_type.bits);
break;
case SPL_TYPE_FLOAT:
if (n->float_type.bits == 0)
printf("comptime_float");
else
printf("f%zu", n->float_type.bits);
break;
case SPL_TYPE_PTR:
printf("*");
spl_type_pure_dump_rec(type, n->ptr_type.pointee, stack);
break;
case SPL_TYPE_ARRAY:
printf("[%zu]", n->array_type.len);
spl_type_pure_dump_rec(type, n->array_type.element, stack);
break;
case SPL_TYPE_STRUCT:
case SPL_TYPE_UNION:
case SPL_TYPE_ENUM:
case SPL_TYPE_SHAPE: {
const char *kw = "struct";
if (n->kind == SPL_TYPE_UNION)
kw = "union";
else if (n->kind == SPL_TYPE_ENUM)
kw = "enum";
else if (n->kind == SPL_TYPE_SHAPE)
kw = "shape";
printf("%s{", kw);
for (usize i = 0; i < vec_size(n->agg_type.variants); i++) {
if (i)
printf(", ");
spl_type_member_t *m = &n->agg_type.variants.data[i];
printf("%s:", m->name ? m->name : "?");
spl_type_pure_dump_rec(type, m->type_id, stack);
}
printf("}");
break;
}
case SPL_TYPE_FN:
printf("fn(");
for (usize i = 0; i < vec_size(n->fn_type.params); i++) {
if (i)
printf(",");
spl_type_pure_dump_rec(type, vec_at(n->fn_type.params, i), stack);
}
printf(")");
spl_type_pure_dump_rec(type, n->fn_type.ret, stack);
break;
}
vec_pop(*stack);
}
void spl_type_pure_dump(spl_type_t *type, spl_type_id_t id) {
spl_type_id_vec_t stack;
vec_init(stack);
spl_type_pure_dump_rec(type, id, &stack);
vec_free(stack);
}
spl_type_id_t spl_type_fn_param_tid(spl_type_t *type, spl_type_id_t fn_tid, usize idx) {
spl_type_node_t *n = spl_type_node(type, fn_tid);
if (!n || n->kind != SPL_TYPE_FN || idx >= vec_size(n->fn_type.params))
return 0;
return vec_at(n->fn_type.params, idx);
}
static const spl_type_member_t *spl_type_agg_member_find(spl_type_t *type, spl_type_id_t tid,
const char *name, usize *out_idx) {
spl_type_node_t *n = spl_type_node(type, tid);
if (!n || !name)
return NULL;
if (n->kind == SPL_TYPE_STRUCT || n->kind == SPL_TYPE_UNION || n->kind == SPL_TYPE_ENUM ||
n->kind == SPL_TYPE_SHAPE) {
for (usize i = 0; i < vec_size(n->agg_type.variants); i++) {
spl_type_member_t *m = &n->agg_type.variants.data[i];
if (m->name && strcmp(m->name, name) == 0) {
if (out_idx)
*out_idx = i;
return m;
}
}
}
return NULL;
}
const spl_type_member_t *spl_type_agg_member(spl_type_t *type, spl_type_id_t tid,
const char *name) {
return spl_type_agg_member_find(type, tid, name, NULL);
}
bool spl_type_agg_member_idx(spl_type_t *type, spl_type_id_t tid, const char *name,
usize *out_idx) {
return spl_type_agg_member_find(type, tid, name, out_idx) != NULL;
}
spl_type_id_t spl_type_builder_simple(spl_type_t *type, spl_type_node_kind_t kind) {
spl_type_node_t tn = {0};
tn.kind = kind;
tn.layout.mode = SPL_TYPE_LAYOUT_AUTO;
return spl_type_node_push(type, &tn);
}
spl_type_id_t spl_type_builder_int(spl_type_t *type, usize bits, int is_signed) {
spl_type_node_t tn = {0};
tn.kind = SPL_TYPE_INT;
tn.layout.mode = SPL_TYPE_LAYOUT_AUTO;
tn.int_type.bits = bits;
tn.int_type.is_signed = is_signed;
return spl_type_node_push(type, &tn);
}
spl_type_id_t spl_type_builder_float(spl_type_t *type, usize bits) {
spl_type_node_t tn = {0};
tn.kind = SPL_TYPE_FLOAT;
tn.layout.mode = SPL_TYPE_LAYOUT_AUTO;
tn.float_type.bits = bits;
return spl_type_node_push(type, &tn);
}
spl_type_id_t spl_type_builder_ptr(spl_type_t *type, spl_type_id_t pointee) {
spl_type_node_t tn = {0};
tn.kind = SPL_TYPE_PTR;
tn.layout.mode = SPL_TYPE_LAYOUT_AUTO;
tn.ptr_type.pointee = pointee;
return spl_type_node_push(type, &tn);
}
spl_type_id_t spl_type_builder_array(spl_type_t *type, spl_type_id_t element, usize len) {
spl_type_node_t tn = {0};
tn.kind = SPL_TYPE_ARRAY;
tn.layout.mode = SPL_TYPE_LAYOUT_AUTO;
tn.array_type.element = element;
tn.array_type.len = len;
return spl_type_node_push(type, &tn);
}
spl_type_id_t spl_type_builder_fn(spl_type_t *type, spl_type_id_t ret, const spl_type_id_t *params,
usize nparams) {
spl_type_node_t tn = {0};
tn.kind = SPL_TYPE_FN;
tn.layout.mode = SPL_TYPE_LAYOUT_AUTO;
vec_init(tn.fn_type.params);
for (usize i = 0; i < nparams; i++) {
vec_push(tn.fn_type.params, params[i]);
}
tn.fn_type.ret = ret;
return spl_type_node_push(type, &tn);
}
spl_type_id_t spl_type_builder_agg(spl_type_t *type, spl_type_node_kind_t tk,
spl_type_member_vec_t *variants, spl_type_id_t tag_type,
spl_type_layout_t layout) {
spl_type_node_t tn = {0};
tn.kind = tk;
tn.layout = layout;
tn.agg_type.variants = *variants;
vec_init(*variants);
if (tk == SPL_TYPE_ENUM) {
tn.agg_type.tag_type = tag_type;
} else {
tn.agg_type.tag_type = 0;
}
return spl_type_node_push(type, &tn);
}
+111
View File
@@ -0,0 +1,111 @@
#ifndef __SPL_TYPE_H__
#define __SPL_TYPE_H__
#include "../stage0/include/utils.h"
typedef usize spl_type_id_t;
typedef VEC(spl_type_id_t) spl_type_id_vec_t;
typedef enum {
SPL_TYPE_ERROR,
SPL_TYPE_NEVER, // bottom type
SPL_TYPE_ANY, // top type
SPL_TYPE_UNIT,
SPL_TYPE_INFER,
SPL_TYPE_BOOL,
SPL_TYPE_INT,
SPL_TYPE_FLOAT,
SPL_TYPE_PTR,
SPL_TYPE_ARRAY,
SPL_TYPE_STRUCT,
SPL_TYPE_UNION,
SPL_TYPE_ENUM,
SPL_TYPE_FN,
SPL_TYPE_FORALL, // TODO delete
SPL_TYPE_EXISTS, // TODO delete
SPL_TYPE_SHAPE,
} spl_type_node_kind_t;
typedef enum {
SPL_TYPE_LAYOUT_AUTO,
SPL_TYPE_LAYOUT_EXTERN_C,
SPL_TYPE_LAYOUT_PACKED,
} spl_type_layout_mode_t;
typedef struct {
spl_type_layout_mode_t mode;
usize fixed_align_bits;
} spl_type_layout_t;
typedef struct {
const char *name;
spl_type_id_t type_id;
usize ast_node_ref;
} spl_type_member_t;
typedef VEC(spl_type_member_t) spl_type_member_vec_t;
typedef struct {
spl_type_node_kind_t kind;
spl_type_layout_t layout;
union {
struct {
usize bits;
int is_signed;
} int_type;
struct {
usize bits;
} float_type;
struct {
spl_type_id_t pointee;
} ptr_type;
struct {
spl_type_id_t element;
usize len;
} array_type;
struct {
spl_type_member_vec_t variants;
spl_type_id_t tag_type;
} agg_type;
struct {
spl_type_id_vec_t params;
spl_type_id_t ret;
} fn_type;
struct {
} shape_type;
};
} spl_type_node_t;
typedef VEC(spl_type_node_t) spl_type_node_vec_t;
typedef MAP(usize, spl_type_id_t) spl_type_node_map_t;
typedef struct {
spl_type_node_vec_t type_table;
spl_type_node_map_t type_map;
} spl_type_t;
void spl_type_init(spl_type_t *type);
void spl_type_drop(spl_type_t *type);
spl_type_node_t *spl_type_node(const spl_type_t *type, spl_type_id_t id);
spl_type_id_t spl_type_node_push(spl_type_t *type, spl_type_node_t *type_node);
spl_type_id_t spl_type_builder_simple(spl_type_t *type, spl_type_node_kind_t kind);
spl_type_id_t spl_type_builder_int(spl_type_t *type, usize bits, int is_signed);
spl_type_id_t spl_type_builder_float(spl_type_t *type, usize bits);
spl_type_id_t spl_type_builder_ptr(spl_type_t *type, spl_type_id_t pointee);
spl_type_id_t spl_type_builder_array(spl_type_t *type, spl_type_id_t element, usize len);
spl_type_id_t spl_type_builder_fn(spl_type_t *type, spl_type_id_t ret, const spl_type_id_t *params,
usize nparams);
spl_type_id_t spl_type_builder_agg(spl_type_t *type, spl_type_node_kind_t tk,
spl_type_member_vec_t *variants, spl_type_id_t tag_type,
spl_type_layout_t layout);
void spl_type_pure_dump(spl_type_t *type, spl_type_id_t id);
bool spl_type_is_subtype(const spl_type_t *type, spl_type_id_t sub, spl_type_id_t super);
spl_type_id_t spl_type_fn_param_tid(spl_type_t *type, spl_type_id_t fn_tid, usize idx);
const spl_type_member_t *spl_type_agg_member(spl_type_t *type, spl_type_id_t tid, const char *name);
bool spl_type_agg_member_idx(spl_type_t *type, spl_type_id_t tid, const char *name, usize *out_idx);
#endif /* __SPL_TYPE_H__ */
+374
View File
@@ -0,0 +1,374 @@
/* splc0.c - SPL compiler CLI (stage 1, 引导用)
*
* splc0 --dump tokens|ast|sema|ir|vm <file> dump 前端产物
* splc0 <in> <out> 编译
*/
#define __SCC_LOG_IMPL_IMPORT_SRC__
#include "../stage0/include/utils.h"
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include "spl_ast.h"
#include "spl_ast2ir.h"
#include "spl_diag.h"
#include "spl_ir2vm.h"
#include "spl_lexer.h"
#include "spl_parser.h"
#include "spl_sema.h"
#include "spl_tok.h"
typedef enum {
DUMP_NONE,
DUMP_TOKEN,
DUMP_AST,
DUMP_SEMA,
DUMP_IR,
DUMP_VM,
} dump_t;
typedef struct {
spl_ast_t *ast;
char *abs_path;
char *src;
} spl_driver_module_t;
typedef VEC(spl_driver_module_t) spl_driver_module_vec_t;
typedef struct {
spl_ast_t main_ast;
spl_tok_vec_t main_toks;
char *main_path;
spl_driver_module_vec_t modules;
MAP(const char *, usize) path_to_idx;
spl_diag_t *diag;
} spl_driver_t;
static char *read_file(const char *path, long *out_len) {
FILE *f = fopen(path, "rb");
if (!f) {
fprintf(stderr, "path `%s` ", path);
perror("fopen");
return NULL;
}
fseek(f, 0, SEEK_END);
long len = ftell(f);
fseek(f, 0, SEEK_SET);
char *buf = malloc((size_t)len + 1);
if (!buf) {
fclose(f);
return NULL;
}
size_t nread = fread(buf, 1, (size_t)len, f);
fclose(f);
buf[nread] = '\0';
if (out_len)
*out_len = (long)nread;
return buf;
}
/* 注意:按值接收,内部 vec_free 释放与调用方共享的 data 指针。
调用后原 vec 视为已消费,不要再使用。 */
static void dump_tokens(spl_tok_vec_t toks) {
printf("tokens got (%zu)\n", toks.size);
for (usize i = 0; i < toks.size; i++) {
const spl_tok_t *t = &toks.data[i];
printf("[%s] %.*s (%zu:%zu)\n", spl_tok_type_name(t->type), (int)t->len, t->lexeme, t->line,
t->col);
}
vec_free(toks);
}
/* 把 import_path 拼接到 importing_file 所在目录。
from_fname 为空时按相对 cwd 处理。绝对路径直接透传。 */
static void resolve_relative(const char *from, const char *path, char *out, usize cap) {
if (!from || !path) {
if (cap)
out[0] = 0;
return;
}
if (path[0] == '/' || path[0] == '\\' || (path[0] && path[1] == ':')) {
snprintf(out, cap, "%s", path);
return;
}
const char *last_sep = NULL;
for (const char *p = from; *p; ++p)
if (*p == '/' || *p == '\\')
last_sep = p;
if (!last_sep) {
snprintf(out, cap, "%s", path);
return;
}
usize dir_len = (usize)(last_sep - from) + 1;
snprintf(out, cap, "%.*s%s", (int)dir_len, from, path);
}
static spl_ast_t *driver_load(void *user, const char *from_fname, const char *path,
spl_diag_t *diag) {
spl_driver_t *d = user;
char abs[1024];
resolve_relative(from_fname, path, abs, sizeof abs);
usize idx;
if (map_get(d->path_to_idx, abs, &idx)) {
spl_ast_t *a = vec_at(d->modules, idx).ast;
if (!a) {
spl_diag_error(diag, SPL_DIAG_KIND_CIRCULAR_DEP, NULL, "circular import: `%s`", abs);
return NULL;
}
return a;
}
/* 先登记 ast=NULL 占位:若后续解析过程中又有 @import 指回本路径,
会命中这里,判定为环。 */
char *key = strdup(abs);
idx = vec_size(d->modules);
spl_driver_module_t placeholder = {.ast = NULL, .abs_path = key, .src = NULL};
vec_push(d->modules, placeholder);
map_put(d->path_to_idx, key, idx);
long len = 0;
char *src = read_file(abs, &len);
if (!src) {
spl_diag_error(diag, SPL_DIAG_KIND_LEX_UNEXPECTED, NULL, "@import: cannot open `%s`", abs);
return NULL;
}
(void)len;
/* key 同时用作 lexer 的 fname:token.fname 与 map key 共享一份 strdup,
减少一次分配;cleanup 时只 free module.abs_path */
spl_tok_vec_t toks = spl_lex(src, key);
spl_ast_t *ast = malloc(sizeof *ast);
spl_ast_init(ast, &toks);
spl_parser_t parser;
spl_parser_init(&parser);
parser.diag = diag;
spl_ast_parse(&parser, ast);
spl_parser_drop(&parser);
vec_at(d->modules, idx).ast = ast;
vec_at(d->modules, idx).src = src;
return ast;
}
static int compile_spl(const char *src, const char *fname, const char *outpath, int gen_debug,
dump_t dump) {
(void)gen_debug;
spl_diag_t diag;
spl_diag_init(&diag, stderr);
spl_driver_t drv = {0};
drv.diag = &diag;
drv.main_path = strdup(fname);
drv.main_toks = spl_lex(src, drv.main_path);
spl_ast_init(&drv.main_ast, &drv.main_toks);
map_init(drv.path_to_idx, MAP_HASH_STR, MAP_CMP_STR);
vec_init(drv.modules);
int rc = 0;
/* dump_tokens 消费 drv.main_toks(共享 data),之后 main_ast.input 悬空,
所以这条分支必须在 spl_ast_parse 之前、且不能再 drop main_ast。 */
if (dump == DUMP_TOKEN) {
dump_tokens(drv.main_toks);
free(drv.main_path);
map_free(drv.path_to_idx);
spl_diag_drop(&diag);
return 0;
}
spl_attr_t attr;
spl_lang_type_t lang_type;
spl_scope_t scope;
spl_sema_t sema;
spl_ast2ir_t a2ir;
spl_ir_builder_t ir_builder;
spl_ir2vm_t ir2vm;
spl_ast_ptr_vec_t all_asts;
int attr_ok = 0, lang_type_ok = 0, scope_ok = 0;
int sema_ok = 0, a2ir_ok = 0, irb_ok = 0, ir2vm_ok = 0;
spl_diag_set_stage(&diag, SPL_STAGE_PARSE);
spl_parser_t parser;
spl_parser_init(&parser);
parser.diag = &diag;
spl_ast_parse(&parser, &drv.main_ast);
spl_parser_drop(&parser);
if (spl_diag_has_error(&diag) || spl_diag_has_fatal(&diag)) {
spl_diag_summary(&diag);
rc = 1;
goto cleanup;
}
if (dump == DUMP_AST) {
spl_ast_dump(&drv.main_ast, drv.main_ast.root);
goto cleanup;
}
spl_attr_init(&attr);
attr_ok = 1;
spl_lang_type_init(&lang_type);
lang_type_ok = 1;
spl_scope_init(&scope);
scope_ok = 1;
spl_sema_init(&sema, &drv.main_ast, &lang_type, &scope, &attr);
sema_ok = 1;
spl_module_loader_t loader = {.load = driver_load, .user = &drv};
sema.loader = &loader;
spl_diag_set_stage(&diag, SPL_STAGE_SEMA);
sema.diag = &diag;
spl_sema_run(&sema);
if (spl_diag_has_error(&diag) || spl_diag_has_fatal(&diag)) {
spl_diag_summary(&diag);
rc = 1;
goto cleanup;
}
if (dump == DUMP_SEMA) {
spl_sema_dump(&sema);
spl_ast_dump(&drv.main_ast, drv.main_ast.root);
goto cleanup;
}
/* 收集所有 ast:主文件在前,被 import 的文件按加载顺序在后。
ast2ir 内部会 vec_free(all_asts)。 */
vec_init(all_asts);
vec_push(all_asts, &drv.main_ast);
for (usize i = 0; i < vec_size(drv.modules); ++i)
vec_push(all_asts, vec_at(drv.modules, i).ast);
spl_ir_builder_init(&ir_builder);
irb_ok = 1;
spl_ast2ir_init(&a2ir, &ir_builder, &sema);
a2ir_ok = 1;
spl_diag_set_stage(&diag, SPL_STAGE_AST2IR);
a2ir.diag = &diag;
spl_ast2ir_run(&a2ir, all_asts);
if (spl_diag_has_error(&diag) || spl_diag_has_fatal(&diag)) {
spl_diag_summary(&diag);
rc = 1;
goto cleanup;
}
if (dump == DUMP_IR) {
spl_ir_dump(&ir_builder.ir, &lang_type.ir, &attr);
goto cleanup;
}
spl_ir2vm_init(&ir2vm, &a2ir.ir->ir, &lang_type.ir, &attr);
ir2vm_ok = 1;
spl_diag_set_stage(&diag, SPL_STAGE_IR2VM);
ir2vm.diag = &diag;
rc = spl_ir2vm_run(&ir2vm);
if (spl_diag_has_error(&diag) || spl_diag_has_fatal(&diag)) {
spl_diag_summary(&diag);
goto cleanup;
}
if (dump == DUMP_VM) {
spl_prog_dump(&ir2vm.prog);
goto cleanup;
}
spl_prog_store_to_file(outpath, &ir2vm.prog);
rc = 0;
cleanup:
if (ir2vm_ok)
spl_ir2vm_drop(&ir2vm);
if (a2ir_ok)
spl_ast2ir_drop(&a2ir);
if (irb_ok)
spl_ir_builder_drop(&ir_builder);
if (sema_ok)
spl_sema_drop(&sema);
if (scope_ok)
spl_scope_drop(&scope);
if (lang_type_ok)
spl_lang_type_drop(&lang_type);
if (attr_ok)
spl_attr_drop(&attr);
spl_ast_drop(&drv.main_ast);
for (usize i = 0; i < vec_size(drv.modules); ++i) {
spl_ast_t *a = vec_at(drv.modules, i).ast;
if (a) {
spl_ast_drop(a);
free(a);
}
free(vec_at(drv.modules, i).abs_path);
free(vec_at(drv.modules, i).src);
}
vec_free(drv.modules);
/* map 的 key 是 module 里 strdup 出的 abs_path,已随 module 释放 */
map_free(drv.path_to_idx);
free(drv.main_path);
spl_diag_drop(&diag);
return rc;
}
int main(int argc, char **argv) {
if (argc < 2) {
LOG_FATAL("Usage: splc0 [--dump <flags>] <in> [out]");
return 1;
}
if (strcmp(argv[1], "--help") == 0 || strcmp(argv[1], "-h") == 0) {
LOG_INFO("splc0 <in> <out> compile (.spl -> .sir, stage B)");
LOG_INFO("splc0 --dump <flags> <file> dump: lex,ast,sema,ir,vm,none");
return 0;
}
int argi = 1;
if (argi >= argc) {
LOG_FATAL("Usage: splc0 [--dump <flags>] <in> [out]");
return 1;
}
dump_t dump = DUMP_NONE;
if (strcmp(argv[argi], "--dump") == 0) {
if (argc < argi + 3) {
LOG_INFO("splc0: --dump need <flags> <file>");
return 1;
}
const char *flags = argv[argi + 1];
if (strcmp(flags, "lex") == 0) {
dump = DUMP_TOKEN;
} else if (strcmp(flags, "ast") == 0) {
dump = DUMP_AST;
} else if (strcmp(flags, "sema") == 0) {
dump = DUMP_SEMA;
} else if (strcmp(flags, "ir") == 0) {
dump = DUMP_IR;
} else if (strcmp(flags, "vm") == 0) {
dump = DUMP_VM;
} else if (strcmp(flags, "none") == 0) {
dump = DUMP_NONE;
} else {
LOG_FATAL("splc0: --dump takes one of lex|ast|sema|ir|vm|none, got `%s`", flags);
return 1;
}
argi += 2;
}
/* splc0 [-g] <in> <out> */
if (argc < argi + 2) {
LOG_FATAL("Usage: splc0 <in> <out> [-g] or splc0 --dump <flags> <file>\n");
return 1;
}
int gen_debug = 0;
if (strcmp(argv[argi], "-g") == 0) {
gen_debug = 1;
argi++;
}
if (argc < argi + 2) {
LOG_FATAL("Usage: splc0 <in> <out> [-g] or splc0 --dump <flags> <file>\n");
return 1;
}
long len;
char *src = read_file(argv[argi], &len);
if (!src)
return 1;
int rc = compile_spl(src, argv[argi], argv[argi + 1], gen_debug, dump);
free(src);
return rc;
}