assert.Equal(t, set.List(), []string{"a", "b", "d"})
	assert.Equal(t, nset.List(), []string{"a", "b", "c", "d", "z"})

	assert.Equal(t, nset.Contains("a"), true)
	assert.Equal(t, nset.Contains("b"), true)
	assert.Equal(t, nset.Contains("c"), true)
	assert.Equal(t, nset.Contains("d"), true)
	assert.Equal(t, nset.Contains("e"), false)
	assert.Equal(t, nset.Contains("z"), true)
}

func TestNew(t *testing.T) {

		return id.Name
	}
	return "BADPARAM"
}

// set creates the corresponding Func for f and adds it to mset.
// If there are multiple f's with the same name, set keeps the first
// one with documentation; conflicts are ignored. The boolean
// specifies whether to leave the AST untouched.
func (mset methodSet) set(f *ast.FuncDecl, preserveAST bool) {
	name := f.Name.Name
	if g := mset[name]; g != nil && g.Doc != "" {

		labels := []string{poolIDL, poolLV, setIDL, setLV}
		m.Set(erasureSetReadQuorum, float64(h.ReadQuorum), labels...)
		m.Set(erasureSetWriteQuorum, float64(h.WriteQuorum), labels...)
		m.Set(erasureSetOnlineDrivesCount, float64(h.HealthyDrives), labels...)
		m.Set(erasureSetHealingDrivesCount, float64(h.HealingDrives), labels...)
		m.Set(erasureSetHealth, b2f(h.Healthy), labels...)

		readHealthy := true

#!/bin/bash -e
#

set -E
set -o pipefail

if [ ! -x "$PWD/minio" ]; then
	echo "minio executable binary not found in current directory"
	exit 1
fi

WORK_DIR="$PWD/.verify-$RANDOM"
MINIO_CONFIG_DIR="$WORK_DIR/.minio"
MINIO=("$PWD/minio" --config-dir "$MINIO_CONFIG_DIR" server)

function start_minio_3_node() {
	export MINIO_ROOT_USER=minio
	export MINIO_ROOT_PASSWORD=minio123
	export MINIO_ERASURE_SET_DRIVE_COUNT=6

	if t, _ := base.under().(*Struct); t != nil {
		var mset objset
		for i := 0; i < base.NumMethods(); i++ {
			m := base.Method(i)
			assert(m.name != "_")
			assert(mset.insert(m) == nil)
		}

		// Check that any non-blank field names of base are distinct from its
		// method names.
		for _, fld := range t.fields {
			if fld.name != "_" {
				if alt := mset.insert(fld); alt != nil {

	if t, _ := base.under().(*Struct); t != nil {
		var mset objset
		for i := 0; i < base.NumMethods(); i++ {
			m := base.Method(i)
			assert(m.name != "_")
			assert(mset.insert(m) == nil)
		}

		// Check that any non-blank field names of base are distinct from its
		// method names.
		for _, fld := range t.fields {
			if fld.name != "_" {
				if alt := mset.insert(fld); alt != nil {

	check.later(func() {
		if t, _ := under(typ).(*Interface); t != nil {
			pos := syntax.StartPos(e)
			tset := computeInterfaceTypeSet(check, pos, t) // TODO(gri) is this the correct position?
			if !tset.IsMethodSet() {
				if tset.comparable {
					check.softErrorf(pos, MisplacedConstraintIface, "cannot use type %s outside a type constraint: interface is (or embeds) comparable", typ)
				} else {

	// to interface methods. Delay this check to the end of type-checking.
	check.later(func() {
		if t, _ := under(typ).(*Interface); t != nil {
			tset := computeInterfaceTypeSet(check, e.Pos(), t) // TODO(gri) is this the correct position?
			if !tset.IsMethodSet() {
				if tset.comparable {
					check.softErrorf(e, MisplacedConstraintIface, "cannot use type %s outside a type constraint: interface is (or embeds) comparable", typ)
				} else {

	C_SCOND_XOR = 14
)

// CConv formats opcode suffix bits (Prog.Scond).
func CConv(s uint8) string {
	if s == 0 {
		return ""
	}
	for i := range opSuffixSpace {
		sset := &opSuffixSpace[i]
		if sset.arch == buildcfg.GOARCH {
			return sset.cconv(s)
		}
	}
	return fmt.Sprintf("SC???%d", s)
}

// CConvARM formats ARM opcode suffix bits (mostly condition codes).
func CConvARM(s uint8) string {

	if ityp == nil {
		ityp = NewInterfaceType(nil, []Type{bound})
		ityp.implicit = true
		t.bound = ityp // update t.bound for next time (optimization)
	}

	// compute type set if necessary
	if ityp.tset == nil {
		// pos is used for tracing output; start with the type parameter position.
		pos := t.obj.pos
		// use the (original or possibly instantiated) type bound position if we have one