[meta] Introduce the Immediates structure instead of using dynamic lookup;

This commit is contained in:
Benjamin Bouvier
2019-09-04 16:26:55 +02:00
parent bafd79330d
commit 29e3ec51c1
10 changed files with 369 additions and 363 deletions

View File

@@ -2,154 +2,174 @@ use crate::cdsl::operands::{OperandKind, OperandKindBuilder as Builder};
use std::collections::HashMap;
pub fn define() -> Vec<OperandKind> {
let mut kinds = Vec::new();
pub struct Immediates {
/// A 64-bit immediate integer operand.
///
/// This type of immediate integer can interact with SSA values with any IntType type.
pub imm64: OperandKind,
// A 64-bit immediate integer operand.
//
// This type of immediate integer can interact with SSA values with any
// IntType type.
let imm64 = Builder::new_imm("imm64")
.doc("A 64-bit immediate integer.")
.build();
kinds.push(imm64);
/// An unsigned 8-bit immediate integer operand.
///
/// This small operand is used to indicate lane indexes in SIMD vectors and immediate bit
/// counts on shift instructions.
pub uimm8: OperandKind,
// An unsigned 8-bit immediate integer operand.
//
// This small operand is used to indicate lane indexes in SIMD vectors and
// immediate bit counts on shift instructions.
let uimm8 = Builder::new_imm("uimm8")
.doc("An 8-bit immediate unsigned integer.")
.build();
kinds.push(uimm8);
/// An unsigned 32-bit immediate integer operand.
pub uimm32: OperandKind,
// An unsigned 32-bit immediate integer operand.
let uimm32 = Builder::new_imm("uimm32")
.doc("A 32-bit immediate unsigned integer.")
.build();
kinds.push(uimm32);
/// An unsigned 128-bit immediate integer operand.
///
/// This operand is used to pass entire 128-bit vectors as immediates to instructions like
/// const.
pub uimm128: OperandKind,
// An unsigned 128-bit immediate integer operand.
//
// This operand is used to pass entire 128-bit vectors as immediates to
// instructions like const.
let uimm128 = Builder::new_imm("uimm128")
.doc("A 128-bit immediate unsigned integer.")
.rust_type("ir::Constant")
.build();
kinds.push(uimm128);
/// A 32-bit immediate signed offset.
///
/// This is used to represent an immediate address offset in load/store instructions.
pub offset32: OperandKind,
// A 32-bit immediate signed offset.
//
// This is used to represent an immediate address offset in load/store
// instructions.
let offset32 = Builder::new_imm("offset32")
.doc("A 32-bit immediate signed offset.")
.default_member("offset")
.build();
kinds.push(offset32);
/// A 32-bit immediate floating point operand.
///
/// IEEE 754-2008 binary32 interchange format.
pub ieee32: OperandKind,
// A 32-bit immediate floating point operand.
//
// IEEE 754-2008 binary32 interchange format.
let ieee32 = Builder::new_imm("ieee32")
.doc("A 32-bit immediate floating point number.")
.build();
kinds.push(ieee32);
/// A 64-bit immediate floating point operand.
///
/// IEEE 754-2008 binary64 interchange format.
pub ieee64: OperandKind,
// A 64-bit immediate floating point operand.
//
// IEEE 754-2008 binary64 interchange format.
let ieee64 = Builder::new_imm("ieee64")
.doc("A 64-bit immediate floating point number.")
.build();
kinds.push(ieee64);
/// An immediate boolean operand.
///
/// This type of immediate boolean can interact with SSA values with any BoolType type.
pub boolean: OperandKind,
// An immediate boolean operand.
//
// This type of immediate boolean can interact with SSA values with any
// BoolType type.
let boolean = Builder::new_imm("boolean")
.doc("An immediate boolean.")
.rust_type("bool")
.build();
kinds.push(boolean);
/// A condition code for comparing integer values.
///
/// This enumerated operand kind is used for the `icmp` instruction and corresponds to the
/// condcodes::IntCC` Rust type.
pub intcc: OperandKind,
// A condition code for comparing integer values.
// This enumerated operand kind is used for the `icmp` instruction and corresponds to the
// condcodes::IntCC` Rust type.
let mut intcc_values = HashMap::new();
intcc_values.insert("eq", "Equal");
intcc_values.insert("ne", "NotEqual");
intcc_values.insert("sge", "SignedGreaterThanOrEqual");
intcc_values.insert("sgt", "SignedGreaterThan");
intcc_values.insert("sle", "SignedLessThanOrEqual");
intcc_values.insert("slt", "SignedLessThan");
intcc_values.insert("uge", "UnsignedGreaterThanOrEqual");
intcc_values.insert("ugt", "UnsignedGreaterThan");
intcc_values.insert("ule", "UnsignedLessThanOrEqual");
intcc_values.insert("ult", "UnsignedLessThan");
let intcc = Builder::new_enum("intcc", intcc_values)
.doc("An integer comparison condition code.")
.default_member("cond")
.rust_type("ir::condcodes::IntCC")
.build();
kinds.push(intcc);
/// A condition code for comparing floating point values.
///
/// This enumerated operand kind is used for the `fcmp` instruction and corresponds to the
/// `condcodes::FloatCC` Rust type.
pub floatcc: OperandKind,
// A condition code for comparing floating point values. This enumerated operand kind is used
// for the `fcmp` instruction and corresponds to the `condcodes::FloatCC` Rust type.
let mut floatcc_values = HashMap::new();
floatcc_values.insert("ord", "Ordered");
floatcc_values.insert("uno", "Unordered");
floatcc_values.insert("eq", "Equal");
floatcc_values.insert("ne", "NotEqual");
floatcc_values.insert("one", "OrderedNotEqual");
floatcc_values.insert("ueq", "UnorderedOrEqual");
floatcc_values.insert("lt", "LessThan");
floatcc_values.insert("le", "LessThanOrEqual");
floatcc_values.insert("gt", "GreaterThan");
floatcc_values.insert("ge", "GreaterThanOrEqual");
floatcc_values.insert("ult", "UnorderedOrLessThan");
floatcc_values.insert("ule", "UnorderedOrLessThanOrEqual");
floatcc_values.insert("ugt", "UnorderedOrGreaterThan");
floatcc_values.insert("uge", "UnorderedOrGreaterThanOrEqual");
let floatcc = Builder::new_enum("floatcc", floatcc_values)
.doc("A floating point comparison condition code")
.default_member("cond")
.rust_type("ir::condcodes::FloatCC")
.build();
kinds.push(floatcc);
/// Flags for memory operations like `load` and `store`.
pub memflags: OperandKind,
// Flags for memory operations like :clif:inst:`load` and :clif:inst:`store`.
let memflags = Builder::new_imm("memflags")
.doc("Memory operation flags")
.default_member("flags")
.rust_type("ir::MemFlags")
.build();
kinds.push(memflags);
/// A register unit in the current target ISA.
pub regunit: OperandKind,
// A register unit in the current target ISA.
let regunit = Builder::new_imm("regunit")
.doc("A register unit in the target ISA")
.rust_type("isa::RegUnit")
.build();
kinds.push(regunit);
// A trap code indicating the reason for trapping.
//
// The Rust enum type also has a `User(u16)` variant for user-provided trap
// codes.
let mut trapcode_values = HashMap::new();
trapcode_values.insert("stk_ovf", "StackOverflow");
trapcode_values.insert("heap_oob", "HeapOutOfBounds");
trapcode_values.insert("int_ovf", "IntegerOverflow");
trapcode_values.insert("int_divz", "IntegerDivisionByZero");
let trapcode = Builder::new_enum("trapcode", trapcode_values)
.doc("A trap reason code.")
.default_member("code")
.rust_type("ir::TrapCode")
.build();
kinds.push(trapcode);
return kinds;
/// A trap code indicating the reason for trapping.
///
/// The Rust enum type also has a `User(u16)` variant for user-provided trap codes.
pub trapcode: OperandKind,
}
impl Immediates {
pub fn new() -> Self {
Self {
imm64: Builder::new_imm("imm64")
.doc("A 64-bit immediate integer.")
.build(),
uimm8: Builder::new_imm("uimm8")
.doc("An 8-bit immediate unsigned integer.")
.build(),
uimm32: Builder::new_imm("uimm32")
.doc("A 32-bit immediate unsigned integer.")
.build(),
uimm128: Builder::new_imm("uimm128")
.doc("A 128-bit immediate unsigned integer.")
.rust_type("ir::Constant")
.build(),
offset32: Builder::new_imm("offset32")
.doc("A 32-bit immediate signed offset.")
.default_member("offset")
.build(),
ieee32: Builder::new_imm("ieee32")
.doc("A 32-bit immediate floating point number.")
.build(),
ieee64: Builder::new_imm("ieee64")
.doc("A 64-bit immediate floating point number.")
.build(),
boolean: Builder::new_imm("boolean")
.doc("An immediate boolean.")
.rust_type("bool")
.build(),
intcc: {
let mut intcc_values = HashMap::new();
intcc_values.insert("eq", "Equal");
intcc_values.insert("ne", "NotEqual");
intcc_values.insert("sge", "SignedGreaterThanOrEqual");
intcc_values.insert("sgt", "SignedGreaterThan");
intcc_values.insert("sle", "SignedLessThanOrEqual");
intcc_values.insert("slt", "SignedLessThan");
intcc_values.insert("uge", "UnsignedGreaterThanOrEqual");
intcc_values.insert("ugt", "UnsignedGreaterThan");
intcc_values.insert("ule", "UnsignedLessThanOrEqual");
intcc_values.insert("ult", "UnsignedLessThan");
Builder::new_enum("intcc", intcc_values)
.doc("An integer comparison condition code.")
.default_member("cond")
.rust_type("ir::condcodes::IntCC")
.build()
},
floatcc: {
let mut floatcc_values = HashMap::new();
floatcc_values.insert("ord", "Ordered");
floatcc_values.insert("uno", "Unordered");
floatcc_values.insert("eq", "Equal");
floatcc_values.insert("ne", "NotEqual");
floatcc_values.insert("one", "OrderedNotEqual");
floatcc_values.insert("ueq", "UnorderedOrEqual");
floatcc_values.insert("lt", "LessThan");
floatcc_values.insert("le", "LessThanOrEqual");
floatcc_values.insert("gt", "GreaterThan");
floatcc_values.insert("ge", "GreaterThanOrEqual");
floatcc_values.insert("ult", "UnorderedOrLessThan");
floatcc_values.insert("ule", "UnorderedOrLessThanOrEqual");
floatcc_values.insert("ugt", "UnorderedOrGreaterThan");
floatcc_values.insert("uge", "UnorderedOrGreaterThanOrEqual");
Builder::new_enum("floatcc", floatcc_values)
.doc("A floating point comparison condition code")
.default_member("cond")
.rust_type("ir::condcodes::FloatCC")
.build()
},
memflags: Builder::new_imm("memflags")
.doc("Memory operation flags")
.default_member("flags")
.rust_type("ir::MemFlags")
.build(),
regunit: Builder::new_imm("regunit")
.doc("A register unit in the target ISA")
.rust_type("isa::RegUnit")
.build(),
trapcode: {
let mut trapcode_values = HashMap::new();
trapcode_values.insert("stk_ovf", "StackOverflow");
trapcode_values.insert("heap_oob", "HeapOutOfBounds");
trapcode_values.insert("int_ovf", "IntegerOverflow");
trapcode_values.insert("int_divz", "IntegerDivisionByZero");
Builder::new_enum("trapcode", trapcode_values)
.doc("A trap reason code.")
.default_member("code")
.rust_type("ir::TrapCode")
.build()
},
}
}
}