Valu("v", OpConst64, c.config.Types.Int64, 12, nil),
			Goto("exit")),
		Bloc("exit",
			Exit("mem2")))

	CheckFunc(fun.f)
	order := storeOrder(fun.f.Blocks[0].Values, fun.f.newSparseSet(fun.f.NumValues()), make([]int32, fun.f.NumValues()))

	// check that v2, v3, v4 is sorted after v5
	var ai, bi, ci, si int
	for i, v := range order {
		switch v.ID {
		case 2:
			ai = i
		case 3:
			bi = i
		case 4:
			ci = i

	// It starts with a coarse partition and iteratively refines it
	// until it reaches a fixed point.

	// Make initial coarse partitions by using a subset of the conditions above.
	a := f.Cache.allocValueSlice(f.NumValues())
	defer func() { f.Cache.freeValueSlice(a) }() // inside closure to use final value of a
	a = a[:0]
	if f.auxmap == nil {
		f.auxmap = auxmap{}
	}
	for _, b := range f.Blocks {
		for _, v := range b.Values {

        }
        if (value instanceof List) {
            return processList((List<?>) value, visitor);
        }
        if (value instanceof Enum) {
            return visitor.enumValue((Enum<?>) value);
        }
        if (value instanceof Class<?>) {
            return visitor.classValue((Class<?>) value);
        }
        Class<?> valueClass = value.getClass();

            "pattern": "patternValue",
            "maxItems": 16,
            "minItems": 17,
            "uniqueItems": true,
            "multipleOf": 19.5,
            "enum": [
              "enumValue"
            ],
            "maxProperties": 21,
            "minProperties": 22,
            "required": [
              "requiredValue"
            ],
            "items": [
              {}
            ],

func dse(f *Func) {
	var stores []*Value
	loadUse := f.newSparseSet(f.NumValues())
	defer f.retSparseSet(loadUse)
	storeUse := f.newSparseSet(f.NumValues())
	defer f.retSparseSet(storeUse)
	shadowed := f.newSparseMap(f.NumValues())
	defer f.retSparseMap(shadowed)

func schedule(f *Func) {
	// reusable priority queue
	priq := new(ValHeap)

	// "priority" for a value
	score := f.Cache.allocInt8Slice(f.NumValues())
	defer f.Cache.freeInt8Slice(score)

	// maps mem values to the next live memory value
	nextMem := f.Cache.allocValueSlice(f.NumValues())
	defer f.Cache.freeValueSlice(nextMem)

	// inBlockUses records whether a value is used in the block

		// Too many values live across blocks can cause pathological
		// behavior in the register allocator (see issue 52180).
		return
	}

	canMove := f.Cache.allocBoolSlice(f.NumValues())
	defer f.Cache.freeBoolSlice(canMove)

	// Compute the memory states of each block.
	startMem := f.Cache.allocValueSlice(f.NumBlocks())
	defer f.Cache.freeValueSlice(startMem)

// Regalloc wants a critical-edge-free CFG so it can implement phi values.
func critical(f *Func) {
	// maps from phi arg ID to the new block created for that argument
	blocks := f.Cache.allocBlockSlice(f.NumValues())
	defer f.Cache.freeBlockSlice(blocks)
	// need to iterate over f.Blocks without range, as we might
	// need to split critical edges on newly constructed blocks
	for j := 0; j < len(f.Blocks); j++ {
		b := f.Blocks[j]

        }

        @Override
        public ValueSnapshot hashCode(HashCode value) {
            return new HashCodeSnapshot(value);
        }

        @Override
        public ValueSnapshot enumValue(Enum<?> value) {
            return new EnumValueSnapshot(value);
        }

        @Override
        public ValueSnapshot classValue(Class<?> value) {

	fmt.Fprintf(p.w, "name %s: %v\n", n, vals)
}

func fprintFunc(p funcPrinter, f *Func) {
	reachable, live := findlive(f)
	defer f.Cache.freeBoolSlice(live)
	p.header(f)
	printed := make([]bool, f.NumValues())
	for _, b := range f.Blocks {
		p.startBlock(b, reachable[b.ID])

		if f.scheduled {
			// Order of Values has been decided - print in that order.
			for _, v := range b.Values {
				p.value(v, live[v.ID])