for {
		n := auxIntToInt64(v.AuxInt)
		t1 := auxToType(v.Aux)
		dst := v_0
		p1 := v_1
		mem := v_2
		if mem.Op != OpVarDef {
			break
		}
		mem_0 := mem.Args[0]
		if mem_0.Op != OpStore {
			break
		}
		t2 := auxToType(mem_0.Aux)
		_ = mem_0.Args[2]
		op2 := mem_0.Args[0]
		if op2.Op != OpOffPtr {
			break

	if f.scheduled {
		for _, b := range f.Blocks {
			var mem *Value // the current live memory in the block
			for _, v := range b.Values {
				if v.Op == OpPhi {
					if v.Type.IsMemory() {
						mem = v
					}
					continue
				}
				if mem == nil && len(b.Preds) > 0 {
					// If no mem phi, take mem of any predecessor.
					mem = lastmem[b.Preds[0].b.ID]
				}
				for _, a := range v.Args {

		{name: "MOVWstoreidx", argLength: 4, reg: gpstore2, asm: "MOVW", typ: "Mem"},   // store 4 bytes of arg2 to arg0 + arg1, arg3 = mem.
		{name: "MOVDstoreidx", argLength: 4, reg: gpstore2, asm: "MOVD", typ: "Mem"},   // store 8 bytes of arg2 to arg0 + arg1, arg3 = mem.
		{name: "FMOVSstoreidx", argLength: 4, reg: fpstore2, asm: "FMOVS", typ: "Mem"}, // store 32-bit float of arg2 to arg0 + arg1, arg3=mem.

		mem)

// moves
(Move [0] _   _   mem) => mem
(Move [1] dst src mem) => (MOVBstore dst (MOVBUload src mem) mem)
(Move [2] dst src mem) => (MOVHstore dst (MOVHUload src mem) mem)
(Move [3] dst src mem) =>
	(MOVBstore [2] dst (MOVBUload [2] src mem)
		(MOVHstore dst (MOVHUload src mem) mem))
(Move [4] dst src mem) => (MOVWstore dst (MOVWUload src mem) mem)
(Move [5] dst src mem) =>

(Move [2] dst src mem) =>
        (MOVHstore dst (MOVHZload src mem) mem)
(Move [4] dst src mem) =>
	(MOVWstore dst (MOVWZload src mem) mem)
// MOVD for load and store must have offsets that are multiple of 4
(Move [8] {t} dst src mem) =>
	(MOVDstore dst (MOVDload src mem) mem)
(Move [3] dst src mem) =>
        (MOVBstore [2] dst (MOVBZload [2] src mem)
                (MOVHstore dst (MOVHload src mem) mem))
(Move [5] dst src mem) =>

(Move [0] _ _ mem) => mem
(Move [1] dst src mem) => (MOVBstore dst (MOVBload src mem) mem)
(Move [2] dst src mem) => (MOVWstore dst (MOVWload src mem) mem)
(Move [4] dst src mem) => (MOVLstore dst (MOVLload src mem) mem)
(Move [8] dst src mem) => (MOVQstore dst (MOVQload src mem) mem)
(Move [16] dst src mem) && config.useSSE => (MOVOstore dst (MOVOload src mem) mem)
(Move [16] dst src mem) && !config.useSSE =>

		v0.Aux = symToAux(s)
		v0.AddArg2(p, mem)
		return true
	}
	// match: (BSWAPL x:(MOVBELload [i] {s} p mem))
	// cond: x.Uses == 1
	// result: @x.Block (MOVLload [i] {s} p mem)
	for {
		x := v_0
		if x.Op != OpAMD64MOVBELload {
			break
		}
		i := auxIntToInt32(x.AuxInt)
		s := auxToSym(x.Aux)
		mem := x.Args[1]
		p := x.Args[0]
		if !(x.Uses == 1) {
			break

</blockquote>

## Recherche

En utilisant toutes les alternatives précédentes, j'ai eu la chance d'apprendre de toutes, de prendre des idées, et de les combiner de la meilleure façon que j'ai pu trouver pour moi-même et les équipes de développeurs avec lesquelles j'ai travaillé.

Et nous analysons directement ce contenu YAML, puis nous utilisons à nouveau le même modèle Pydantic pour valider le contenu YAML :

```Python hl_lines="26-33"
{!../../../docs_src/path_operation_advanced_configuration/tutorial007.py!}
```

!!! tip "Astuce"
    Ici, nous réutilisons le même modèle Pydantic.

		Bloc("entry",
			Valu("mem", OpInitMem, types.TypeMem, 0, nil),
			Exit("mem")))

	doms := map[string]string{}

	CheckFunc(fun.f)
	verifyDominators(t, fun, dominators, doms)
	verifyDominators(t, fun, dominatorsSimple, doms)

}

func TestDominatorsSimple(t *testing.T) {
	c := testConfig(t)
	fun := c.Fun("entry",
		Bloc("entry",
			Valu("mem", OpInitMem, types.TypeMem, 0, nil),