// Switch on the result of the call (or cache lookup).
			var newCases []*ir.CaseClause
			for i, c := range interfaceCases {
				newCases = append(newCases, &ir.CaseClause{
					List: []ir.Node{ir.NewInt(base.Pos, int64(i))},
					Body: []ir.Node{c.jmp},
				})
			}
			// TODO: add len(newCases) case, mark switch as bounded
			sw2 := ir.NewSwitchStmt(base.Pos, caseVar, newCases)
			sw.Compiled.Append(typecheck.Stmt(sw2))

	pkgPathName := abi.Name{Bytes: (*byte)(resolveTypeOff(unsafe.Pointer(n.Bytes), nameOff))}
	return pkgPathName.Name()
}

func newName(n, tag string, exported, embedded bool) abi.Name {
	return abi.NewName(n, tag, exported, embedded)
}

/*
 * The compiler knows the exact layout of all the data structures above.
 * The compiler does not know about the data structures and methods below.

// license that can be found in the LICENSE file.

package types

import (
	"strings"
	"testing"
)

var myInt = func() Type {
	tname := NewTypeName(nopos, nil, "myInt", nil)
	return NewNamed(tname, Typ[Int], nil)
}()

var testTerms = map[string]*term{
	"∅":       nil,
	"𝓤":       {},
	"int":     {false, Typ[Int]},
	"~int":    {true, Typ[Int]},
	"string":  {false, Typ[String]},

			check(obj, name == "any" || name == "byte" || name == "rune")
		}
	}

	// various other types
	pkg := NewPackage("p", "p")
	t1 := NewTypeName(nopos, pkg, "t1", nil)
	n1 := NewNamed(t1, new(Struct), nil)
	t5 := NewTypeName(nopos, pkg, "t5", nil)
	NewTypeParam(t5, nil)
	for _, test := range []struct {
		name  *TypeName
		alias bool
	}{
		{NewTypeName(nopos, nil, "t0", nil), false}, // no type yet

    }
    // TODO(b/145674566): We use Graph::NewName to get a unique name here but
    // this may not be consistent with python's naming policy.
    mutex_lock l(g_->mu);
    op_.reset(new TF_OperationDescription(g_, op_type_.c_str(),
                                          g_->graph.NewName(op_name).c_str()));
    return absl::OkStatus();
  }

// license that can be found in the LICENSE file.

package types2

import (
	"strings"
	"testing"
)

var myInt = func() Type {
	tname := NewTypeName(nopos, nil, "myInt", nil)
	return NewNamed(tname, Typ[Int], nil)
}()

var testTerms = map[string]*term{
	"∅":       nil,
	"𝓤":       {},
	"int":     {false, Typ[Int]},
	"~int":    {true, Typ[Int]},
	"string":  {false, Typ[String]},

	i2, l2 := n.ReadVarint(1 + i + l)
	return unsafe.String(n.DataChecked(1+i+l+i2, "non-empty string"), l2)
}

func NewName(n, tag string, exported, embedded bool) Name {
	if len(n) >= 1<<29 {
		panic("abi.NewName: name too long: " + n[:1024] + "...")
	}
	if len(tag) >= 1<<29 {
		panic("abi.NewName: tag too long: " + tag[:1024] + "...")
	}
	var nameLen [10]byte
	var tagLen [10]byte

			pos := syntax.StartPos(f.Type) // position of type, for errors
			name := embeddedFieldIdent(f.Type)
			if name == nil {
				check.errorf(pos, InvalidSyntaxTree, "invalid embedded field type %s", f.Type)
				name = syntax.NewName(pos, "_")
				addInvalid(name)
				continue
			}
			add(name, true) // struct{p.T} field has position of T

			// Because we have a name, typ must be of the form T or *T, where T is the name

	var lastErr error
	serverOffset := cfg.serverOffset()
	sLen := uint32(len(cfg.servers))

	n, err := dnsmessage.NewName(name)
	if err != nil {
		return dnsmessage.Parser{}, "", &DNSError{Err: errCannotMarshalDNSMessage.Error(), Name: name}
	}
	q := dnsmessage.Question{
		Name:  n,
		Type:  qtype,
		Class: dnsmessage.ClassINET,

// AddSRV adds a SRV record. The target name must end in a period and
// be 63 bytes or fewer.
func (w SRVWriter) AddSRV(priority, weight, port uint16, target string) error {
	targetName, err := dnsmessage.NewName(target)
	if err != nil {
		return err
	}
	w.a.wrote = true
	err = w.a.builder.SRVResource(w.header(), dnsmessage.SRVResource{
		Priority: priority,
		Weight:   weight,
		Port:     port,