MOVHZU (R3), R5                 // a4a30000
	MOVBU 1(R3), R4                 // 8c8300017c840774
	MOVBU (R3)(R4), R5              // 7ca418ee7ca50774
	MOVBU (R3)(R0), R5              // 7ca018ee7ca50774
	MOVBU (R3), R5                  // 8ca300007ca50774
	MOVBZU 1(R3), R4                // 8c830001
	MOVBZU (R3)(R4), R5             // 7ca418ee
	MOVBZU (R3)(R0), R5             // 7ca018ee
	MOVBZU (R3), R5                 // 8ca30000

		(MOVQstore dst (MOVQload src mem) mem))

(Move [32] dst src mem) =>
	(Move [16]
		(OffPtr <dst.Type> dst [16])
		(OffPtr <src.Type> src [16])
		(Move [16] dst src mem))

(Move [48] dst src mem) && config.useSSE =>
	(Move [32]
		(OffPtr <dst.Type> dst [16])
		(OffPtr <src.Type> src [16])
		(Move [16] dst src mem))

(Move [64] dst src mem) && config.useSSE =>
	(Move [32]
		(OffPtr <dst.Type> dst [32])

	// clobbers T1H and T1L
	MOVD   $0, ISZERO
	MOVD   $1, TRUE
	VZERO  ZER
	VO     HL, HH, T1H
	VCEQGS ZER, T1H, T1H
	MOVDEQ TRUE, ISZERO
	VX     HL, PL, T1L
	VX     HH, PH, T1H
	VO     T1L, T1H, T1H
	VCEQGS ZER, T1H, T1H
	MOVDEQ TRUE, ISZERO
	MOVD   ISZERO, ret+24(FP)

	// X=Z1; Y=Z2; MUL; T-   // Z3 = Z1*Z2
	VL   80(P1ptr), X1       // Z1H
	VPDI $0x4, X1, X1, X1

// we're not capturing anything from the user stack, since the user
// stack may move while we're in this function.
//
// gcAssistAlloc1 indicates whether this assist completed the mark
// phase by setting gp.param to non-nil. This can't be communicated on
// the stack since it may move.
//
//go:systemstack
func gcAssistAlloc1(gp *g, scanWork int64) {

TEXT ·spillArgs(SB),NOSPLIT,$0-0
	MOVQ AX, 0(R12)
	MOVQ BX, 8(R12)
	MOVQ CX, 16(R12)
	MOVQ DI, 24(R12)
	MOVQ SI, 32(R12)
	MOVQ R8, 40(R12)
	MOVQ R9, 48(R12)
	MOVQ R10, 56(R12)
	MOVQ R11, 64(R12)
	MOVQ X0, 72(R12)
	MOVQ X1, 80(R12)
	MOVQ X2, 88(R12)
	MOVQ X3, 96(R12)
	MOVQ X4, 104(R12)
	MOVQ X5, 112(R12)
	MOVQ X6, 120(R12)
	MOVQ X7, 128(R12)
	MOVQ X8, 136(R12)
	MOVQ X9, 144(R12)
	MOVQ X10, 152(R12)

}

// A VarLoc describes the storage for part of a user variable.
type VarLoc struct {
	// The registers this variable is available in. There can be more than
	// one in various situations, e.g. it's being moved between registers.
	Registers RegisterSet

	StackOffset
}

func (loc VarLoc) absent() bool {
	return loc.Registers == 0 && !loc.onStack()
}

func (loc VarLoc) intersect(other VarLoc) VarLoc {

// gcTestMoveStackOnNextCall causes the stack to be moved on a call
// immediately following the call to this. It may not work correctly
// if any other work appears after this call (such as returning).
// Typically the following call should be marked go:noinline so it
// performs a stack check.
//
// In rare cases this may not cause the stack to move, specifically if
// there's a preemption between this call and the next.

			// (it is always relative to the initial build list, before applying
			// queries). So the only way that the result of an "all" query can change
			// is if some matching package moves from one module in the build list
			// to another, which should not happen very often.
			continue
		}

		// When we load imports, we detect the following conditions:
		//

	a.Link = die.Attr
	die.Attr = a
	a.Atr = attr
	a.Cls = uint8(cls)
	a.Value = value
	a.Data = data
}

// Each DIE (except the root ones) has at least 1 attribute: its
// name. getattr moves the desired one to the front so
// frequently searched ones are found faster.
func getattr(die *dwarf.DWDie, attr uint16) *dwarf.DWAttr {
	if die.Attr.Atr == attr {
		return die.Attr
	}

	a := die.Attr

    const llvm::SetVector<Value>& inputs, const llvm::SetVector<Value>& outputs,
    func::FuncOp parent_func, ModuleOp module, const std::string& name,
    bool flag_for_inlining) {
  // Moves all of the Operations in 'ops' into a newly created func.FuncOp
  // function named 'name' and replaces the original ops with a call to the
  // newly created function using a tf.StatefulPartitionedCall. Here,