XOR $1234567, R5, R3            // 6ca300126863d687
	XORIS $15, R3, R4               // 6c64000f
	XOR   $983040, R3, R4           // 6c64000f

	// TODO: cleanup inconsistency of printing CMPx opcodes with explicit CR arguments.
	CMP R3, R4                      // 7c232000
	CMP R3, R0                      // 7c230000
	CMP R3, R0, CR1                 // CMP R3,CR1,R0   // 7ca30000

//
// sexpr are s-expressions (lisp-like parenthesized groupings)
// sexpr ::= [variable:](opcode sexpr*)
//         | variable
//         | <type>
//         | [auxint]
//         | {aux}
//
// aux      ::= variable | {code}
// type     ::= variable | {code}
// variable ::= some token
// opcode   ::= one of the opcodes from the *Ops.go files

		{name: "SETAE", argLength: 1, reg: readflags, asm: "SETCC"}, // extract unsigned >= condition from arg0
		{name: "SETO", argLength: 1, reg: readflags, asm: "SETOS"},  // extract if overflow flag is set from arg0
		// Need different opcodes for floating point conditions because
		// any comparison involving a NaN is always FALSE and thus
		// the patterns for inverting conditions cannot be used.

	return a.Name == obj.NAME_EXTERN && !a.Sym.Local()
}
func progUsesGlobal(p *obj.Prog) bool {
	if p.As == obj.ACALL || p.As == obj.ATEXT || p.As == obj.AFUNCDATA || p.As == obj.ARET || p.As == obj.AJMP {
		// These opcodes don't use a GOT to access their argument (see rewriteToUseGot),
		// or R15 would be dead at them anyway.
		return false
	}
	if p.As == ALEAQ {

<code>softfloat</code>) is made available to assembly code by predefining either
<code>GOMIPS64_hardfloat</code> or <code>GOMIPS64_softfloat</code>.
</p>

<h3 id="unsupported_opcodes">Unsupported opcodes</h3>

<p>
The assemblers are designed to support the compiler so not all hardware instructions
are defined for all architectures: if the compiler doesn't generate it, it might not be there.

func DivisionNeedsFixUp(v *Value) bool {
	return v.AuxInt == 0
}

// auxFrom64F encodes a float64 value so it can be stored in an AuxInt.
func auxFrom64F(f float64) int64 {
	if f != f {
		panic("can't encode a NaN in AuxInt field")
	}
	return int64(math.Float64bits(f))
}

// auxFrom32F encodes a float32 value so it can be stored in an AuxInt.
func auxFrom32F(f float32) int64 {
	if f != f {

			su.SetRelocAdd(rIdx, r.Add()+int64(ldr.SymGot(targ)))
		} else if targType == sym.STEXT {
			if isPLT16_LO_DS {
				// Expect an ld opcode to nop
				rewritetonop(target, ldr, su, int64(r.Off()), MASK_OP_LD, OP_LD)
			} else {
				// Expect an addis opcode to nop
				rewritetonop(target, ldr, su, int64(r.Off()), MASK_OP_ADDIS, OP_ADDIS)
			}
			// And we can ignore this reloc now.

//go:build !purego

#include "textflag.h"

// This is a port of the s390x asm implementation.
// to ppc64le.

// Some changes were needed due to differences in
// the Go opcodes and/or available instructions
// between s390x and ppc64le.

// 1. There were operand order differences in the
// VSUBUQM, VSUBCUQ, and VSEL instructions.

// 2. ppc64 does not have a multiply high and low

# Codes HTTP supplémentaires

Par défaut, **FastAPI** renverra les réponses à l'aide d'une structure de données `JSONResponse`, en plaçant la réponse de votre  *chemin d'accès* à l'intérieur de cette `JSONResponse`.

Il utilisera le code HTTP par défaut ou celui que vous avez défini dans votre *chemin d'accès*.

## Codes HTTP supplémentaires

	return &ucred, nil
}

// PktInfo4 encodes Inet4Pktinfo into a socket control message of type IP_PKTINFO.
func PktInfo4(info *Inet4Pktinfo) []byte {
	b := make([]byte, CmsgSpace(SizeofInet4Pktinfo))
	h := (*Cmsghdr)(unsafe.Pointer(&b[0]))
	h.Level = SOL_IP
	h.Type = IP_PKTINFO
	h.SetLen(CmsgLen(SizeofInet4Pktinfo))
	*(*Inet4Pktinfo)(h.data(0)) = *info
	return b
}