Struct MaterializeOpsVisitor 

pub struct MaterializeOpsVisitor<B> { /* private fields */ }

Available on crate feature decode only.

A visitor that materializes whole Ops as it decodes the bytecode stream.

Implementations

impl<B> MaterializeOpsVisitor<B>

pub fn new(bytecode: B) -> Self

Create a new op-materializing visitor for the given bytecode.

Trait Implementations

impl<B: Default> Default for MaterializeOpsVisitor<B>

fn default() -> MaterializeOpsVisitor<B>

Returns the “default value” for a type.

impl<B: BytecodeStream> ExtendedOpVisitor for MaterializeOpsVisitor<B>

fn trap(&mut self) -> Self::Return

Raise a trap.

fn nop(&mut self) -> Self::Return

Do nothing.

fn call_indirect_host(&mut self, id: u8) -> Self::Return

A special opcode to halt interpreter execution and yield control back to the host.

This opcode results in DoneReason::CallIndirectHost where the id here is shepherded along to the embedder. It’s up to the embedder to determine what to do with the id and the current state of registers and the stack.

In Wasmtime this is used to implement interpreter-to-host calls. This is modeled as a call instruction where the first parameter is the native function pointer to invoke and all remaining parameters for the native function are in following parameter positions (e.g. x1, x2, …). The results of the host call are then store in x0.

Handling this in Wasmtime is done through a “relocation” which is resolved at link-time when raw bytecode from Cranelift is assembled into the final object that Wasmtime will interpret.

fn xpcadd(&mut self, dst: XReg, offset: PcRelOffset) -> Self::Return

Adds offset to the pc of this instruction and stores it in dst.

fn xmov_fp(&mut self, dst: XReg) -> Self::Return

Gets the special “fp” register and moves it into dst.

fn xmov_lr(&mut self, dst: XReg) -> Self::Return

Gets the special “lr” register and moves it into dst.

fn bswap32(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = byteswap(low32(src))

fn bswap64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = byteswap(src)

fn xadd32_uoverflow_trap( &mut self, operands: BinaryOperands<XReg>, ) -> Self::Return

32-bit checked unsigned addition: low32(dst) = low32(src1) + low32(src2).

The upper 32-bits of dst are unmodified. Traps if the addition overflows.

fn xadd64_uoverflow_trap( &mut self, operands: BinaryOperands<XReg>, ) -> Self::Return

64-bit checked unsigned addition: dst = src1 + src2.

fn xmulhi64_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = high64(src1 * src2) (signed)

fn xmulhi64_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = high64(src1 * src2) (unsigned)

fn xbmask32(&mut self, dst: XReg, src: XReg) -> Self::Return

low32(dst) = if low32(src) == 0 { 0 } else { -1 }

fn xbmask64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = if src == 0 { 0 } else { -1 }

fn xload16be_u32_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = zext(*addr)

fn xload16be_s32_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = sext(*addr)

fn xload32be_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = zext(*addr)

fn xload64be_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

dst = *addr

fn xstore16be_o32(&mut self, addr: AddrO32, src: XReg) -> Self::Return

*addr = low16(src)

fn xstore32be_o32(&mut self, addr: AddrO32, src: XReg) -> Self::Return

*addr = low32(src)

fn xstore64be_o32(&mut self, addr: AddrO32, src: XReg) -> Self::Return

*addr = low64(src)

fn fload32be_o32(&mut self, dst: FReg, addr: AddrO32) -> Self::Return

low32(dst) = zext(*addr)

fn fload64be_o32(&mut self, dst: FReg, addr: AddrO32) -> Self::Return

dst = *addr

fn fstore32be_o32(&mut self, addr: AddrO32, src: FReg) -> Self::Return

*addr = low32(src)

fn fstore64be_o32(&mut self, addr: AddrO32, src: FReg) -> Self::Return

*addr = src

fn fload32le_o32(&mut self, dst: FReg, addr: AddrO32) -> Self::Return

low32(dst) = zext(*addr)

fn fload64le_o32(&mut self, dst: FReg, addr: AddrO32) -> Self::Return

dst = *addr

fn fstore32le_o32(&mut self, addr: AddrO32, src: FReg) -> Self::Return

*addr = low32(src)

fn fstore64le_o32(&mut self, addr: AddrO32, src: FReg) -> Self::Return

*addr = src

fn fload32le_z(&mut self, dst: FReg, addr: AddrZ) -> Self::Return

low32(dst) = zext(*addr)

fn fload64le_z(&mut self, dst: FReg, addr: AddrZ) -> Self::Return

dst = *addr

fn fstore32le_z(&mut self, addr: AddrZ, src: FReg) -> Self::Return

*addr = low32(src)

fn fstore64le_z(&mut self, addr: AddrZ, src: FReg) -> Self::Return

*addr = src

fn fload32le_g32(&mut self, dst: FReg, addr: AddrG32) -> Self::Return

low32(dst) = zext(*addr)

fn fload64le_g32(&mut self, dst: FReg, addr: AddrG32) -> Self::Return

dst = *addr

fn fstore32le_g32(&mut self, addr: AddrG32, src: FReg) -> Self::Return

*addr = low32(src)

fn fstore64le_g32(&mut self, addr: AddrG32, src: FReg) -> Self::Return

*addr = src

fn vload128le_o32(&mut self, dst: VReg, addr: AddrO32) -> Self::Return

dst = *addr

fn vstore128le_o32(&mut self, addr: AddrO32, src: VReg) -> Self::Return

*addr = src

fn vload128le_z(&mut self, dst: VReg, addr: AddrZ) -> Self::Return

dst = *(ptr + offset)

fn vstore128le_z(&mut self, addr: AddrZ, src: VReg) -> Self::Return

*(ptr + offset) = src

fn vload128le_g32(&mut self, dst: VReg, addr: AddrG32) -> Self::Return

dst = *(ptr + offset)

fn vstore128le_g32(&mut self, addr: AddrG32, src: VReg) -> Self::Return

*(ptr + offset) = src

fn fmov(&mut self, dst: FReg, src: FReg) -> Self::Return

Move between f registers.

fn vmov(&mut self, dst: VReg, src: VReg) -> Self::Return

Move between v registers.

fn bitcast_int_from_float_32(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = bitcast low32(src) as i32

fn bitcast_int_from_float_64(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = bitcast src as i64

fn bitcast_float_from_int_32(&mut self, dst: FReg, src: XReg) -> Self::Return

low32(dst) = bitcast low32(src) as f32

fn bitcast_float_from_int_64(&mut self, dst: FReg, src: XReg) -> Self::Return

dst = bitcast src as f64

fn fconst32(&mut self, dst: FReg, bits: u32) -> Self::Return

low32(dst) = bits

fn fconst64(&mut self, dst: FReg, bits: u64) -> Self::Return

dst = bits

fn feq32(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 == src2)

fn fneq32(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 != src2)

fn flt32(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 < src2)

fn flteq32(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 <= src2)

fn feq64(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 == src2)

fn fneq64(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 != src2)

fn flt64(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 < src2)

fn flteq64(&mut self, dst: XReg, src1: FReg, src2: FReg) -> Self::Return

low32(dst) = zext(src1 <= src2)

fn fselect32( &mut self, dst: FReg, cond: XReg, if_nonzero: FReg, if_zero: FReg, ) -> Self::Return

low32(dst) = low32(cond) ? low32(if_nonzero) : low32(if_zero)

fn fselect64( &mut self, dst: FReg, cond: XReg, if_nonzero: FReg, if_zero: FReg, ) -> Self::Return

dst = low32(cond) ? if_nonzero : if_zero

fn f32_from_f64(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = demote(src)

fn f64_from_f32(&mut self, dst: FReg, src: FReg) -> Self::Return

(st) = promote(low32(src))

fn f32_from_x32_s(&mut self, dst: FReg, src: XReg) -> Self::Return

low32(dst) = checked_f32_from_signed(low32(src))

fn f32_from_x32_u(&mut self, dst: FReg, src: XReg) -> Self::Return

low32(dst) = checked_f32_from_unsigned(low32(src))

fn f32_from_x64_s(&mut self, dst: FReg, src: XReg) -> Self::Return

low32(dst) = checked_f32_from_signed(src)

fn f32_from_x64_u(&mut self, dst: FReg, src: XReg) -> Self::Return

low32(dst) = checked_f32_from_unsigned(src)

fn f64_from_x32_s(&mut self, dst: FReg, src: XReg) -> Self::Return

dst = checked_f64_from_signed(low32(src))

fn f64_from_x32_u(&mut self, dst: FReg, src: XReg) -> Self::Return

dst = checked_f64_from_unsigned(low32(src))

fn f64_from_x64_s(&mut self, dst: FReg, src: XReg) -> Self::Return

dst = checked_f64_from_signed(src)

fn f64_from_x64_u(&mut self, dst: FReg, src: XReg) -> Self::Return

dst = checked_f64_from_unsigned(src)

fn x32_from_f32_s(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = checked_signed_from_f32(low32(src))

fn x32_from_f32_u(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = checked_unsigned_from_f32(low32(src))

fn x32_from_f64_s(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = checked_signed_from_f64(src)

fn x32_from_f64_u(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = checked_unsigned_from_f64(src)

fn x64_from_f32_s(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = checked_signed_from_f32(low32(src))

fn x64_from_f32_u(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = checked_unsigned_from_f32(low32(src))

fn x64_from_f64_s(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = checked_signed_from_f64(src)

fn x64_from_f64_u(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = checked_unsigned_from_f64(src)

fn x32_from_f32_s_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = saturating_signed_from_f32(low32(src))

fn x32_from_f32_u_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = saturating_unsigned_from_f32(low32(src))

fn x32_from_f64_s_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = saturating_signed_from_f64(src)

fn x32_from_f64_u_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

low32(dst) = saturating_unsigned_from_f64(src)

fn x64_from_f32_s_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = saturating_signed_from_f32(low32(src))

fn x64_from_f32_u_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = saturating_unsigned_from_f32(low32(src))

fn x64_from_f64_s_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = saturating_signed_from_f64(src)

fn x64_from_f64_u_sat(&mut self, dst: XReg, src: FReg) -> Self::Return

dst = saturating_unsigned_from_f64(src)

fn fcopysign32(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

low32(dst) = copysign(low32(src1), low32(src2))

fn fcopysign64(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

dst = copysign(src1, src2)

fn fadd32(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

low32(dst) = low32(src1) + low32(src2)

fn fsub32(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

low32(dst) = low32(src1) - low32(src2)

fn vsubf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

low128(dst) = low128(src1) - low128(src2)

fn fmul32(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

low32(dst) = low32(src1) * low32(src2)

fn vmulf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

low128(dst) = low128(src1) * low128(src2)

fn fdiv32(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

low32(dst) = low32(src1) / low32(src2)

fn vdivf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

low128(dst) = low128(src1) / low128(src2)

fn fmaximum32(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

low32(dst) = ieee_maximum(low32(src1), low32(src2))

fn fminimum32(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

low32(dst) = ieee_minimum(low32(src1), low32(src2))

fn ftrunc32(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = ieee_trunc(low32(src))

fn vtrunc32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_trunc(low128(src))

fn vtrunc64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_trunc(low128(src))

fn ffloor32(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = ieee_floor(low32(src))

fn vfloor32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_floor(low128(src))

fn vfloor64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_floor(low128(src))

fn fceil32(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = ieee_ceil(low32(src))

fn vceil32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_ceil(low128(src))

fn vceil64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_ceil(low128(src))

fn fnearest32(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = ieee_nearest(low32(src))

fn fsqrt32(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = ieee_sqrt(low32(src))

fn vsqrt32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

low32(dst) = ieee_sqrt(low32(src))

fn vsqrt64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

low32(dst) = ieee_sqrt(low32(src))

fn fneg32(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = -low32(src)

fn vnegf32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = -low128(src)

fn fabs32(&mut self, dst: FReg, src: FReg) -> Self::Return

low32(dst) = |low32(src)|

fn fadd64(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

dst = src1 + src2

fn fsub64(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

dst = src1 - src2

fn fmul64(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

dst = src1 * src2

fn fdiv64(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

dst = src1 / src2

fn vdivf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 / src2

fn fmaximum64(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

dst = ieee_maximum(src1, src2)

fn fminimum64(&mut self, operands: BinaryOperands<FReg>) -> Self::Return

dst = ieee_minimum(src1, src2)

fn ftrunc64(&mut self, dst: FReg, src: FReg) -> Self::Return

dst = ieee_trunc(src)

fn ffloor64(&mut self, dst: FReg, src: FReg) -> Self::Return

dst = ieee_floor(src)

fn fceil64(&mut self, dst: FReg, src: FReg) -> Self::Return

dst = ieee_ceil(src)

fn fnearest64(&mut self, dst: FReg, src: FReg) -> Self::Return

dst = ieee_nearest(src)

fn vnearest32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_nearest(low128(src))

fn vnearest64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

low128(dst) = ieee_nearest(low128(src))

fn fsqrt64(&mut self, dst: FReg, src: FReg) -> Self::Return

dst = ieee_sqrt(src)

fn fneg64(&mut self, dst: FReg, src: FReg) -> Self::Return

dst = -src

fn fabs64(&mut self, dst: FReg, src: FReg) -> Self::Return

dst = |src|

fn vconst128(&mut self, dst: VReg, imm: u128) -> Self::Return

dst = imm

fn vaddi8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 + src2

fn vaddi16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 + src2

fn vaddi32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 + src2

fn vaddi64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 + src2

fn vaddf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 + src2

fn vaddf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 + src2

fn vaddi8x16_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = satruating_add(src1, src2)

fn vaddu8x16_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = satruating_add(src1, src2)

fn vaddi16x8_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = satruating_add(src1, src2)

fn vaddu16x8_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = satruating_add(src1, src2)

fn vaddpairwisei16x8_s( &mut self, operands: BinaryOperands<VReg>, ) -> Self::Return

dst = [src1[0] + src1[1], ..., src2[6] + src2[7]]

fn vaddpairwisei32x4_s( &mut self, operands: BinaryOperands<VReg>, ) -> Self::Return

dst = [src1[0] + src1[1], ..., src2[2] + src2[3]]

fn vshli8x16( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 << src2

fn vshli16x8( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 << src2

fn vshli32x4( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 << src2

fn vshli64x2( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 << src2

fn vshri8x16_s( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (signed)

fn vshri16x8_s( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (signed)

fn vshri32x4_s( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (signed)

fn vshri64x2_s( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (signed)

fn vshri8x16_u( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (unsigned)

fn vshri16x8_u( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (unsigned)

fn vshri32x4_u( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (unsigned)

fn vshri64x2_u( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, ) -> Self::Return

dst = src1 >> src2 (unsigned)

fn vsplatx8(&mut self, dst: VReg, src: XReg) -> Self::Return

dst = splat(low8(src))

fn vsplatx16(&mut self, dst: VReg, src: XReg) -> Self::Return

dst = splat(low16(src))

fn vsplatx32(&mut self, dst: VReg, src: XReg) -> Self::Return

dst = splat(low32(src))

fn vsplatx64(&mut self, dst: VReg, src: XReg) -> Self::Return

dst = splat(src)

fn vsplatf32(&mut self, dst: VReg, src: FReg) -> Self::Return

dst = splat(low32(src))

fn vsplatf64(&mut self, dst: VReg, src: FReg) -> Self::Return

dst = splat(src)

fn vload8x8_s_z(&mut self, dst: VReg, addr: AddrZ) -> Self::Return

Load the 64-bit source as i8x8 and sign-extend to i16x8.

fn vload8x8_u_z(&mut self, dst: VReg, addr: AddrZ) -> Self::Return

Load the 64-bit source as u8x8 and zero-extend to i16x8.

fn vload16x4le_s_z(&mut self, dst: VReg, addr: AddrZ) -> Self::Return

Load the 64-bit source as i16x4 and sign-extend to i32x4.

fn vload16x4le_u_z(&mut self, dst: VReg, addr: AddrZ) -> Self::Return

Load the 64-bit source as u16x4 and zero-extend to i32x4.

fn vload32x2le_s_z(&mut self, dst: VReg, addr: AddrZ) -> Self::Return

Load the 64-bit source as i32x2 and sign-extend to i64x2.

fn vload32x2le_u_z(&mut self, dst: VReg, addr: AddrZ) -> Self::Return

Load the 64-bit source as u32x2 and zero-extend to i64x2.

fn vband128(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 & src2

fn vbor128(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 | src2

fn vbxor128(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 ^ src2

fn vbnot128(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = !src1

fn vbitselect128( &mut self, dst: VReg, c: VReg, x: VReg, y: VReg, ) -> Self::Return

dst = (c & x) | (!c & y)

fn vbitmask8x16(&mut self, dst: XReg, src: VReg) -> Self::Return

Collect high bits of each lane into the low 32-bits of the destination.

fn vbitmask16x8(&mut self, dst: XReg, src: VReg) -> Self::Return

Collect high bits of each lane into the low 32-bits of the destination.

fn vbitmask32x4(&mut self, dst: XReg, src: VReg) -> Self::Return

Collect high bits of each lane into the low 32-bits of the destination.

fn vbitmask64x2(&mut self, dst: XReg, src: VReg) -> Self::Return

Collect high bits of each lane into the low 32-bits of the destination.

fn valltrue8x16(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether all lanes are nonzero in dst.

fn valltrue16x8(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether all lanes are nonzero in dst.

fn valltrue32x4(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether all lanes are nonzero in dst.

fn valltrue64x2(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether any lanes are nonzero in dst.

fn vanytrue8x16(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether any lanes are nonzero in dst.

fn vanytrue16x8(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether any lanes are nonzero in dst.

fn vanytrue32x4(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether any lanes are nonzero in dst.

fn vanytrue64x2(&mut self, dst: XReg, src: VReg) -> Self::Return

Store whether any lanes are nonzero in dst.

fn vf32x4_from_i32x4_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Int-to-float conversion (same as f32_from_x32_s)

fn vf32x4_from_i32x4_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Int-to-float conversion (same as f32_from_x32_u)

fn vf64x2_from_i64x2_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Int-to-float conversion (same as f64_from_x64_s)

fn vf64x2_from_i64x2_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Int-to-float conversion (same as f64_from_x64_u)

fn vi32x4_from_f32x4_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Float-to-int conversion (same as x32_from_f32_s

fn vi32x4_from_f32x4_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Float-to-int conversion (same as x32_from_f32_u

fn vi64x2_from_f64x2_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Float-to-int conversion (same as x64_from_f64_s

fn vi64x2_from_f64x2_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Float-to-int conversion (same as x64_from_f64_u

fn vwidenlow8x16_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the low lanes of the input vector, as signed, to twice the width.

fn vwidenlow8x16_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the low lanes of the input vector, as unsigned, to twice the width.

fn vwidenlow16x8_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the low lanes of the input vector, as signed, to twice the width.

fn vwidenlow16x8_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the low lanes of the input vector, as unsigned, to twice the width.

fn vwidenlow32x4_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the low lanes of the input vector, as signed, to twice the width.

fn vwidenlow32x4_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the low lanes of the input vector, as unsigned, to twice the width.

fn vwidenhigh8x16_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the high lanes of the input vector, as signed, to twice the width.

fn vwidenhigh8x16_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the high lanes of the input vector, as unsigned, to twice the width.

fn vwidenhigh16x8_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the high lanes of the input vector, as signed, to twice the width.

fn vwidenhigh16x8_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the high lanes of the input vector, as unsigned, to twice the width.

fn vwidenhigh32x4_s(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the high lanes of the input vector, as signed, to twice the width.

fn vwidenhigh32x4_u(&mut self, dst: VReg, src: VReg) -> Self::Return

Widens the high lanes of the input vector, as unsigned, to twice the width.

fn vnarrow16x8_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

Narrows the two 16x8 vectors, assuming all input lanes are signed, to half the width. Narrowing is signed and saturating.

fn vnarrow16x8_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

Narrows the two 16x8 vectors, assuming all input lanes are signed, to half the width. Narrowing is unsigned and saturating.

fn vnarrow32x4_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

Narrows the two 32x4 vectors, assuming all input lanes are signed, to half the width. Narrowing is signed and saturating.

fn vnarrow32x4_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

Narrows the two 32x4 vectors, assuming all input lanes are signed, to half the width. Narrowing is unsigned and saturating.

fn vnarrow64x2_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

Narrows the two 64x2 vectors, assuming all input lanes are signed, to half the width. Narrowing is signed and saturating.

fn vnarrow64x2_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

Narrows the two 64x2 vectors, assuming all input lanes are signed, to half the width. Narrowing is unsigned and saturating.

fn vunarrow64x2_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

Narrows the two 64x2 vectors, assuming all input lanes are unsigned, to half the width. Narrowing is unsigned and saturating.

fn vfpromotelow(&mut self, dst: VReg, src: VReg) -> Self::Return

Promotes the low two lanes of the f32x4 input to f64x2.

fn vfdemote(&mut self, dst: VReg, src: VReg) -> Self::Return

Demotes the two f64x2 lanes to f32x2 and then extends with two more zero lanes.

fn vsubi8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 - src2

fn vsubi16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 - src2

fn vsubi32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 - src2

fn vsubi64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 - src2

fn vsubf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 - src2

fn vsubi8x16_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = saturating_sub(src1, src2)

fn vsubu8x16_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = saturating_sub(src1, src2)

fn vsubi16x8_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = saturating_sub(src1, src2)

fn vsubu16x8_sat(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = saturating_sub(src1, src2)

fn vmuli8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 * src2

fn vmuli16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 * src2

fn vmuli32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 * src2

fn vmuli64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 * src2

fn vmulf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src1 * src2

fn vqmulrsi16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = signed_saturate(src1 * src2 + (1 << (Q - 1)) >> Q)

fn vpopcnt8x16(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = count_ones(src)

fn xextractv8x16(&mut self, dst: XReg, src: VReg, lane: u8) -> Self::Return

low32(dst) = zext(src[lane])

fn xextractv16x8(&mut self, dst: XReg, src: VReg, lane: u8) -> Self::Return

low32(dst) = zext(src[lane])

fn xextractv32x4(&mut self, dst: XReg, src: VReg, lane: u8) -> Self::Return

low32(dst) = src[lane]

fn xextractv64x2(&mut self, dst: XReg, src: VReg, lane: u8) -> Self::Return

dst = src[lane]

fn fextractv32x4(&mut self, dst: FReg, src: VReg, lane: u8) -> Self::Return

low32(dst) = src[lane]

fn fextractv64x2(&mut self, dst: FReg, src: VReg, lane: u8) -> Self::Return

dst = src[lane]

fn vinsertx8( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, lane: u8, ) -> Self::Return

dst = src1; dst[lane] = src2

fn vinsertx16( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, lane: u8, ) -> Self::Return

dst = src1; dst[lane] = src2

fn vinsertx32( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, lane: u8, ) -> Self::Return

dst = src1; dst[lane] = src2

fn vinsertx64( &mut self, operands: BinaryOperands<VReg, VReg, XReg>, lane: u8, ) -> Self::Return

dst = src1; dst[lane] = src2

fn vinsertf32( &mut self, operands: BinaryOperands<VReg, VReg, FReg>, lane: u8, ) -> Self::Return

dst = src1; dst[lane] = src2

fn vinsertf64( &mut self, operands: BinaryOperands<VReg, VReg, FReg>, lane: u8, ) -> Self::Return

dst = src1; dst[lane] = src2

fn veq8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src == dst

fn vneq8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src != dst

fn vslt8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (signed)

fn vslteq8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (signed)

fn vult8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (unsigned)

fn vulteq8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (unsigned)

fn veq16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src == dst

fn vneq16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src != dst

fn vslt16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (signed)

fn vslteq16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (signed)

fn vult16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (unsigned)

fn vulteq16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (unsigned)

fn veq32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src == dst

fn vneq32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src != dst

fn vslt32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (signed)

fn vslteq32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (signed)

fn vult32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (unsigned)

fn vulteq32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (unsigned)

fn veq64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src == dst

fn vneq64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src != dst

fn vslt64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (signed)

fn vslteq64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (signed)

fn vult64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst (unsigned)

fn vulteq64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst (unsigned)

fn vneg8x16(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = -src

fn vneg16x8(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = -src

fn vneg32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = -src

fn vneg64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = -src

fn vnegf64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = -src

fn vmin8x16_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = min(src1, src2) (signed)

fn vmin8x16_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = min(src1, src2) (unsigned)

fn vmin16x8_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = min(src1, src2) (signed)

fn vmin16x8_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = min(src1, src2) (unsigned)

fn vmax8x16_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = max(src1, src2) (signed)

fn vmax8x16_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = max(src1, src2) (unsigned)

fn vmax16x8_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = max(src1, src2) (signed)

fn vmax16x8_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = max(src1, src2) (unsigned)

fn vmin32x4_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = min(src1, src2) (signed)

fn vmin32x4_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = min(src1, src2) (unsigned)

fn vmax32x4_s(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = max(src1, src2) (signed)

fn vmax32x4_u(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = max(src1, src2) (unsigned)

fn vabs8x16(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = |src|

fn vabs16x8(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = |src|

fn vabs32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = |src|

fn vabs64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = |src|

fn vabsf32x4(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = |src|

fn vabsf64x2(&mut self, dst: VReg, src: VReg) -> Self::Return

dst = |src|

fn vmaximumf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = ieee_maximum(src1, src2)

fn vmaximumf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = ieee_maximum(src1, src2)

fn vminimumf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = ieee_minimum(src1, src2)

fn vminimumf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = ieee_minimum(src1, src2)

fn vshuffle( &mut self, dst: VReg, src1: VReg, src2: VReg, mask: u128, ) -> Self::Return

dst = shuffle(src1, src2, mask)

fn vswizzlei8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = swizzle(src1, src2)

fn vavground8x16(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = (src1 + src2 + 1) // 2

fn vavground16x8(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = (src1 + src2 + 1) // 2

fn veqf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src == dst

fn vneqf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src != dst

fn vltf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst

fn vlteqf32x4(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst

fn veqf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src == dst

fn vneqf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src != dst

fn vltf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src < dst

fn vlteqf64x2(&mut self, operands: BinaryOperands<VReg>) -> Self::Return

dst = src <= dst

fn vfma32x4(&mut self, dst: VReg, a: VReg, b: VReg, c: VReg) -> Self::Return

dst = ieee_fma(a, b, c)

fn vfma64x2(&mut self, dst: VReg, a: VReg, b: VReg, c: VReg) -> Self::Return

dst = ieee_fma(a, b, c)

fn vselect( &mut self, dst: VReg, cond: XReg, if_nonzero: VReg, if_zero: VReg, ) -> Self::Return

dst = low32(cond) ? if_nonzero : if_zero

fn xadd128( &mut self, dst_lo: XReg, dst_hi: XReg, lhs_lo: XReg, lhs_hi: XReg, rhs_lo: XReg, rhs_hi: XReg, ) -> Self::Return

dst_hi:dst_lo = lhs_hi:lhs_lo + rhs_hi:rhs_lo

fn xsub128( &mut self, dst_lo: XReg, dst_hi: XReg, lhs_lo: XReg, lhs_hi: XReg, rhs_lo: XReg, rhs_hi: XReg, ) -> Self::Return

dst_hi:dst_lo = lhs_hi:lhs_lo - rhs_hi:rhs_lo

fn xwidemul64_s( &mut self, dst_lo: XReg, dst_hi: XReg, lhs: XReg, rhs: XReg, ) -> Self::Return

dst_hi:dst_lo = sext(lhs) * sext(rhs)

fn xwidemul64_u( &mut self, dst_lo: XReg, dst_hi: XReg, lhs: XReg, rhs: XReg, ) -> Self::Return

dst_hi:dst_lo = zext(lhs) * zext(rhs)

impl<B: BytecodeStream> OpVisitor for MaterializeOpsVisitor<B>

fn ret(&mut self) -> Self::Return

Transfer control the address in the lr register.

fn call(&mut self, offset: PcRelOffset) -> Self::Return

Transfer control to the PC at the given offset and set the lr register to the PC just after this instruction.

This instruction generally assumes that the Pulley ABI is being respected where arguments are in argument registers (starting at x0 for integer arguments) and results are in result registers. This instruction itself assume that all arguments are already in their registers. Subsequent instructions below enable moving arguments into the correct registers as part of the same call instruction.

fn call1(&mut self, arg1: XReg, offset: PcRelOffset) -> Self::Return

Like call, but also x0 = arg1

fn call2(&mut self, arg1: XReg, arg2: XReg, offset: PcRelOffset) -> Self::Return

Like call, but also x0, x1 = arg1, arg2

fn call3( &mut self, arg1: XReg, arg2: XReg, arg3: XReg, offset: PcRelOffset, ) -> Self::Return

Like call, but also x0, x1, x2 = arg1, arg2, arg3

fn call4( &mut self, arg1: XReg, arg2: XReg, arg3: XReg, arg4: XReg, offset: PcRelOffset, ) -> Self::Return

Like call, but also x0, x1, x2, x3 = arg1, arg2, arg3, arg4

fn call_indirect(&mut self, reg: XReg) -> Self::Return

Transfer control to the PC in reg and set lr to the PC just after this instruction.

fn jump(&mut self, offset: PcRelOffset) -> Self::Return

Unconditionally transfer control to the PC at the given offset.

fn xjump(&mut self, reg: XReg) -> Self::Return

Unconditionally transfer control to the PC at specified register.

fn br_if32(&mut self, cond: XReg, offset: PcRelOffset) -> Self::Return

Conditionally transfer control to the given PC offset if low32(cond) contains a non-zero value.

fn br_if_not32(&mut self, cond: XReg, offset: PcRelOffset) -> Self::Return

Conditionally transfer control to the given PC offset if low32(cond) contains a zero value.

fn br_if_xeq32(&mut self, a: XReg, b: XReg, offset: PcRelOffset) -> Self::Return

Branch if a == b.

fn br_if_xneq32( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if a != b.

fn br_if_xslt32( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if signed a < b.

fn br_if_xslteq32( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if signed a <= b.

fn br_if_xult32( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a < b.

fn br_if_xulteq32( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a <= b.

fn br_if_xeq64(&mut self, a: XReg, b: XReg, offset: PcRelOffset) -> Self::Return

Branch if a == b.

fn br_if_xneq64( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if a != b.

fn br_if_xslt64( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if signed a < b.

fn br_if_xslteq64( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if signed a <= b.

fn br_if_xult64( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a < b.

fn br_if_xulteq64( &mut self, a: XReg, b: XReg, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a <= b.

fn br_if_xeq32_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if a == b.

fn br_if_xeq32_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if a == b.

fn br_if_xneq32_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if a != b.

fn br_if_xneq32_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if a != b.

fn br_if_xslt32_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a < b.

fn br_if_xslt32_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a < b.

fn br_if_xsgt32_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a > b.

fn br_if_xsgt32_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a > b.

fn br_if_xslteq32_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a <= b.

fn br_if_xslteq32_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a <= b.

fn br_if_xsgteq32_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a >= b.

fn br_if_xsgteq32_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a >= b.

fn br_if_xult32_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a < b.

fn br_if_xult32_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a < b.

fn br_if_xulteq32_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a <= b.

fn br_if_xulteq32_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a <= b.

fn br_if_xugt32_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a > b.

fn br_if_xugt32_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a > b.

fn br_if_xugteq32_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a >= b.

fn br_if_xugteq32_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a >= b.

fn br_if_xeq64_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if a == b.

fn br_if_xeq64_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if a == b.

fn br_if_xneq64_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if a != b.

fn br_if_xneq64_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if a != b.

fn br_if_xslt64_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a < b.

fn br_if_xslt64_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a < b.

fn br_if_xsgt64_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a > b.

fn br_if_xsgt64_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a > b.

fn br_if_xslteq64_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a <= b.

fn br_if_xslteq64_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a <= b.

fn br_if_xsgteq64_i8( &mut self, a: XReg, b: i8, offset: PcRelOffset, ) -> Self::Return

Branch if signed a >= b.

fn br_if_xsgteq64_i32( &mut self, a: XReg, b: i32, offset: PcRelOffset, ) -> Self::Return

Branch if signed a >= b.

fn br_if_xult64_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a < b.

fn br_if_xult64_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a < b.

fn br_if_xulteq64_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a <= b.

fn br_if_xulteq64_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a <= b.

fn br_if_xugt64_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a > b.

fn br_if_xugt64_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a > b.

fn br_if_xugteq64_u8( &mut self, a: XReg, b: u8, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a >= b.

fn br_if_xugteq64_u32( &mut self, a: XReg, b: u32, offset: PcRelOffset, ) -> Self::Return

Branch if unsigned a >= b.

fn br_table32(&mut self, idx: XReg, amt: u32) -> Self::Return

Branch to the label indicated by low32(idx).

After this instruction are amt instances of PcRelOffset and the idx selects which one will be branched to. The value of idx is clamped to amt - 1 (e.g. the last offset is the “default” one.

fn xmov(&mut self, dst: XReg, src: XReg) -> Self::Return

Move between x registers.

fn xzero(&mut self, dst: XReg) -> Self::Return

Set dst = 0

fn xone(&mut self, dst: XReg) -> Self::Return

Set dst = 1

fn xconst8(&mut self, dst: XReg, imm: i8) -> Self::Return

Set dst = sign_extend(imm8).

fn xconst16(&mut self, dst: XReg, imm: i16) -> Self::Return

Set dst = sign_extend(imm16).

fn xconst32(&mut self, dst: XReg, imm: i32) -> Self::Return

Set dst = sign_extend(imm32).

fn xconst64(&mut self, dst: XReg, imm: i64) -> Self::Return

Set dst = imm64.

fn xadd32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

32-bit wrapping addition: low32(dst) = low32(src1) + low32(src2).

The upper 32-bits of dst are unmodified.

fn xadd32_u8(&mut self, dst: XReg, src1: XReg, src2: u8) -> Self::Return

Same as xadd32 but src2 is a zero-extended 8-bit immediate.

fn xadd32_u32(&mut self, dst: XReg, src1: XReg, src2: u32) -> Self::Return

Same as xadd32 but src2 is a 32-bit immediate.

fn xadd64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

64-bit wrapping addition: dst = src1 + src2.

fn xadd64_u8(&mut self, dst: XReg, src1: XReg, src2: u8) -> Self::Return

Same as xadd64 but src2 is a zero-extended 8-bit immediate.

fn xadd64_u32(&mut self, dst: XReg, src1: XReg, src2: u32) -> Self::Return

Same as xadd64 but src2 is a zero-extended 32-bit immediate.

fn xmadd32( &mut self, dst: XReg, src1: XReg, src2: XReg, src3: XReg, ) -> Self::Return

low32(dst) = low32(src1) * low32(src2) + low32(src3)

fn xmadd64( &mut self, dst: XReg, src1: XReg, src2: XReg, src3: XReg, ) -> Self::Return

dst = src1 * src2 + src3

fn xsub32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

32-bit wrapping subtraction: low32(dst) = low32(src1) - low32(src2).

The upper 32-bits of dst are unmodified.

fn xsub32_u8(&mut self, dst: XReg, src1: XReg, src2: u8) -> Self::Return

Same as xsub32 but src2 is a zero-extended 8-bit immediate.

fn xsub32_u32(&mut self, dst: XReg, src1: XReg, src2: u32) -> Self::Return

Same as xsub32 but src2 is a 32-bit immediate.

fn xsub64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

64-bit wrapping subtraction: dst = src1 - src2.

fn xsub64_u8(&mut self, dst: XReg, src1: XReg, src2: u8) -> Self::Return

Same as xsub64 but src2 is a zero-extended 8-bit immediate.

fn xsub64_u32(&mut self, dst: XReg, src1: XReg, src2: u32) -> Self::Return

Same as xsub64 but src2 is a zero-extended 32-bit immediate.

fn xmul32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) * low32(src2)

fn xmul32_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xmul64 but src2 is a sign-extended 8-bit immediate.

fn xmul32_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xmul32 but src2 is a sign-extended 32-bit immediate.

fn xmul64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 * src2

fn xmul64_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xmul64 but src2 is a sign-extended 8-bit immediate.

fn xmul64_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xmul64 but src2 is a sign-extended 64-bit immediate.

fn xctz32(&mut self, dst: XReg, src: XReg) -> Self::Return

low32(dst) = trailing_zeros(low32(src))

fn xctz64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = trailing_zeros(src)

fn xclz32(&mut self, dst: XReg, src: XReg) -> Self::Return

low32(dst) = leading_zeros(low32(src))

fn xclz64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = leading_zeros(src)

fn xpopcnt32(&mut self, dst: XReg, src: XReg) -> Self::Return

low32(dst) = count_ones(low32(src))

fn xpopcnt64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = count_ones(src)

fn xrotl32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = rotate_left(low32(src1), low32(src2))

fn xrotl64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = rotate_left(src1, src2)

fn xrotr32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = rotate_right(low32(src1), low32(src2))

fn xrotr64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = rotate_right(src1, src2)

fn xshl32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) << low5(src2)

fn xshr32_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) >> low5(src2)

fn xshr32_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) >> low5(src2)

fn xshl64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 << low5(src2)

fn xshr64_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 >> low6(src2)

fn xshr64_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 >> low6(src2)

fn xshl32_u6( &mut self, operands: BinaryOperands<XReg, XReg, U6>, ) -> Self::Return

low32(dst) = low32(src1) << low5(src2)

fn xshr32_s_u6( &mut self, operands: BinaryOperands<XReg, XReg, U6>, ) -> Self::Return

low32(dst) = low32(src1) >> low5(src2)

fn xshr32_u_u6( &mut self, operands: BinaryOperands<XReg, XReg, U6>, ) -> Self::Return

low32(dst) = low32(src1) >> low5(src2)

fn xshl64_u6( &mut self, operands: BinaryOperands<XReg, XReg, U6>, ) -> Self::Return

dst = src1 << low5(src2)

fn xshr64_s_u6( &mut self, operands: BinaryOperands<XReg, XReg, U6>, ) -> Self::Return

dst = src1 >> low6(src2)

fn xshr64_u_u6( &mut self, operands: BinaryOperands<XReg, XReg, U6>, ) -> Self::Return

dst = src1 >> low6(src2)

fn xneg32(&mut self, dst: XReg, src: XReg) -> Self::Return

low32(dst) = -low32(src)

fn xneg64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = -src

fn xeq64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = src1 == src2

fn xneq64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = src1 != src2

fn xslt64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = src1 < src2 (signed)

fn xslteq64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = src1 <= src2 (signed)

fn xult64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = src1 < src2 (unsigned)

fn xulteq64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = src1 <= src2 (unsigned)

fn xeq32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) == low32(src2)

fn xneq32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) != low32(src2)

fn xslt32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) < low32(src2) (signed)

fn xslteq32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) <= low32(src2) (signed)

fn xult32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) < low32(src2) (unsigned)

fn xulteq32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) <= low32(src2) (unsigned)

fn xload8_u32_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = zext_8_32(*addr)

fn xload8_s32_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = sext_8_32(*addr)

fn xload16le_u32_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = o32ext_16_32(*addr)

fn xload16le_s32_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = sext_16_32(*addr)

fn xload32le_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

low32(dst) = *addr

fn xload64le_o32(&mut self, dst: XReg, addr: AddrO32) -> Self::Return

dst = *addr

fn xstore8_o32(&mut self, addr: AddrO32, src: XReg) -> Self::Return

*addr = low8(src)

fn xstore16le_o32(&mut self, addr: AddrO32, src: XReg) -> Self::Return

*addr = low16(src)

fn xstore32le_o32(&mut self, addr: AddrO32, src: XReg) -> Self::Return

*addr = low32(src)

fn xstore64le_o32(&mut self, addr: AddrO32, src: XReg) -> Self::Return

*addr = src

fn xload8_u32_z(&mut self, dst: XReg, addr: AddrZ) -> Self::Return

low32(dst) = zext_8_32(*addr)

fn xload8_s32_z(&mut self, dst: XReg, addr: AddrZ) -> Self::Return

low32(dst) = sext_8_32(*addr)

fn xload16le_u32_z(&mut self, dst: XReg, addr: AddrZ) -> Self::Return

low32(dst) = zext_16_32(*addr)

fn xload16le_s32_z(&mut self, dst: XReg, addr: AddrZ) -> Self::Return

low32(dst) = sext_16_32(*addr)

fn xload32le_z(&mut self, dst: XReg, addr: AddrZ) -> Self::Return

low32(dst) = *addr

fn xload64le_z(&mut self, dst: XReg, addr: AddrZ) -> Self::Return

dst = *addr

fn xstore8_z(&mut self, addr: AddrZ, src: XReg) -> Self::Return

*addr = low8(src)

fn xstore16le_z(&mut self, addr: AddrZ, src: XReg) -> Self::Return

*addr = low16(src)

fn xstore32le_z(&mut self, addr: AddrZ, src: XReg) -> Self::Return

*addr = low32(src)

fn xstore64le_z(&mut self, addr: AddrZ, src: XReg) -> Self::Return

*addr = src

fn xload8_u32_g32(&mut self, dst: XReg, addr: AddrG32) -> Self::Return

low32(dst) = zext_8_32(*addr)

fn xload8_s32_g32(&mut self, dst: XReg, addr: AddrG32) -> Self::Return

low32(dst) = sext_8_32(*addr)

fn xload16le_u32_g32(&mut self, dst: XReg, addr: AddrG32) -> Self::Return

low32(dst) = zext_16_32(*addr)

fn xload16le_s32_g32(&mut self, dst: XReg, addr: AddrG32) -> Self::Return

low32(dst) = sext_16_32(*addr)

fn xload32le_g32(&mut self, dst: XReg, addr: AddrG32) -> Self::Return

low32(dst) = *addr

fn xload64le_g32(&mut self, dst: XReg, addr: AddrG32) -> Self::Return

dst = *addr

fn xstore8_g32(&mut self, addr: AddrG32, src: XReg) -> Self::Return

*addr = low8(src)

fn xstore16le_g32(&mut self, addr: AddrG32, src: XReg) -> Self::Return

*addr = low16(src)

fn xstore32le_g32(&mut self, addr: AddrG32, src: XReg) -> Self::Return

*addr = low32(src)

fn xstore64le_g32(&mut self, addr: AddrG32, src: XReg) -> Self::Return

*addr = src

fn xload8_u32_g32bne(&mut self, dst: XReg, addr: AddrG32Bne) -> Self::Return

low32(dst) = zext_8_32(*addr)

fn xload8_s32_g32bne(&mut self, dst: XReg, addr: AddrG32Bne) -> Self::Return

low32(dst) = sext_8_32(*addr)

fn xload16le_u32_g32bne(&mut self, dst: XReg, addr: AddrG32Bne) -> Self::Return

low32(dst) = zext_16_32(*addr)

fn xload16le_s32_g32bne(&mut self, dst: XReg, addr: AddrG32Bne) -> Self::Return

low32(dst) = sext_16_32(*addr)

fn xload32le_g32bne(&mut self, dst: XReg, addr: AddrG32Bne) -> Self::Return

low32(dst) = *addr

fn xload64le_g32bne(&mut self, dst: XReg, addr: AddrG32Bne) -> Self::Return

dst = *addr

fn xstore8_g32bne(&mut self, addr: AddrG32Bne, src: XReg) -> Self::Return

*addr = low8(src)

fn xstore16le_g32bne(&mut self, addr: AddrG32Bne, src: XReg) -> Self::Return

*addr = low16(src)

fn xstore32le_g32bne(&mut self, addr: AddrG32Bne, src: XReg) -> Self::Return

*addr = low32(src)

fn xstore64le_g32bne(&mut self, addr: AddrG32Bne, src: XReg) -> Self::Return

*addr = src

fn push_frame(&mut self) -> Self::Return

push lr; push fp; fp = sp

fn pop_frame(&mut self) -> Self::Return

sp = fp; pop fp; pop lr

fn push_frame_save(&mut self, amt: u16, regs: UpperRegSet<XReg>) -> Self::Return

Macro-instruction to enter a function, allocate some stack, and then save some registers.

This is equivalent to push_frame, stack_alloc32 amt, then saving all of regs to the top of the stack just allocated.

fn pop_frame_restore( &mut self, amt: u16, regs: UpperRegSet<XReg>, ) -> Self::Return

Inverse of push_frame_save. Restores regs from the top of the stack, then runs stack_free32 amt, then runs pop_frame.

fn stack_alloc32(&mut self, amt: u32) -> Self::Return

sp = sp.checked_sub(amt)

fn stack_free32(&mut self, amt: u32) -> Self::Return

sp = sp + amt

fn zext8(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = zext(low8(src))

fn zext16(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = zext(low16(src))

fn zext32(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = zext(low32(src))

fn sext8(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = sext(low8(src))

fn sext16(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = sext(low16(src))

fn sext32(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = sext(low32(src))

fn xabs32(&mut self, dst: XReg, src: XReg) -> Self::Return

low32(dst) = |low32(src)|

fn xabs64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = |src|

fn xdiv32_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) / low32(src2) (signed)

fn xdiv64_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 / src2 (signed)

fn xdiv32_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) / low32(src2) (unsigned)

fn xdiv64_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 / src2 (unsigned)

fn xrem32_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) % low32(src2) (signed)

fn xrem64_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 / src2 (signed)

fn xrem32_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) % low32(src2) (unsigned)

fn xrem64_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 / src2 (unsigned)

fn xband32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) & low32(src2)

fn xband32_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xband64 but src2 is a sign-extended 8-bit immediate.

fn xband32_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xband32 but src2 is a sign-extended 32-bit immediate.

fn xband64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 & src2

fn xband64_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xband64 but src2 is a sign-extended 8-bit immediate.

fn xband64_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xband64 but src2 is a sign-extended 32-bit immediate.

fn xbor32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) | low32(src2)

fn xbor32_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xbor64 but src2 is a sign-extended 8-bit immediate.

fn xbor32_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xbor32 but src2 is a sign-extended 32-bit immediate.

fn xbor64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 | src2

fn xbor64_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xbor64 but src2 is a sign-extended 8-bit immediate.

fn xbor64_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xbor64 but src2 is a sign-extended 32-bit immediate.

fn xbxor32(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = low32(src1) ^ low32(src2)

fn xbxor32_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xbxor64 but src2 is a sign-extended 8-bit immediate.

fn xbxor32_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xbxor32 but src2 is a sign-extended 32-bit immediate.

fn xbxor64(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = src1 ^ src2

fn xbxor64_s8(&mut self, dst: XReg, src1: XReg, src2: i8) -> Self::Return

Same as xbxor64 but src2 is a sign-extended 8-bit immediate.

fn xbxor64_s32(&mut self, dst: XReg, src1: XReg, src2: i32) -> Self::Return

Same as xbxor64 but src2 is a sign-extended 32-bit immediate.

fn xbnot32(&mut self, dst: XReg, src: XReg) -> Self::Return

low32(dst) = !low32(src1)

fn xbnot64(&mut self, dst: XReg, src: XReg) -> Self::Return

dst = !src1

fn xmin32_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = min(low32(src1), low32(src2)) (unsigned)

fn xmin32_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = min(low32(src1), low32(src2)) (signed)

fn xmax32_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = max(low32(src1), low32(src2)) (unsigned)

fn xmax32_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

low32(dst) = max(low32(src1), low32(src2)) (signed)

fn xmin64_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = min(src1, src2) (unsigned)

fn xmin64_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = min(src1, src2) (signed)

fn xmax64_u(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = max(src1, src2) (unsigned)

fn xmax64_s(&mut self, operands: BinaryOperands<XReg>) -> Self::Return

dst = max(src1, src2) (signed)

fn xselect32( &mut self, dst: XReg, cond: XReg, if_nonzero: XReg, if_zero: XReg, ) -> Self::Return

low32(dst) = low32(cond) ? low32(if_nonzero) : low32(if_zero)

fn xselect64( &mut self, dst: XReg, cond: XReg, if_nonzero: XReg, if_zero: XReg, ) -> Self::Return

dst = low32(cond) ? if_nonzero : if_zero

type BytecodeStream = B

The type of this visitor’s bytecode stream.

type Return = Op

The type of values returned by each visitor method.

fn bytecode(&mut self) -> &mut Self::BytecodeStream

Get this visitor’s underlying bytecode stream.

fn before_visit(&mut self)

A callback invoked before starting to decode an instruction.

fn after_visit(&mut self)

A callback invoked after an instruction has been completely decoded.