}
				if !Identical(inst.Inst.Type, inst2) {
					t.Errorf("%v and %v are not identical", inst.Inst.Type, inst2)
				}
			}
		})
	}
}

type recordedInstance struct {
	Ident *ast.Ident
	Inst  Instance
}

func sortedInstances(m map[*ast.Ident]Instance) (instances []recordedInstance) {
	for id, inst := range m {
		instances = append(instances, recordedInstance{id, inst})
	}

				}
				if !Identical(inst.Inst.Type, inst2) {
					t.Errorf("%v and %v are not identical", inst.Inst.Type, inst2)
				}
			}
		})
	}
}

type recordedInstance struct {
	Name *syntax.Name
	Inst Instance
}

func sortedInstances(m map[*syntax.Name]Instance) (instances []recordedInstance) {
	for id, inst := range m {
		instances = append(instances, recordedInstance{id, inst})
	}

			}
			arg := decodeArg(aop, x)
			if arg == nil { // Cannot decode argument
				continue Search
			}
			args[j] = arg
		}
		decoderCover[i] = true
		inst = Inst{
			Op:   f.op,
			Args: args,
			Enc:  x,
		}
		return inst, nil
	}
	return Inst{}, errUnknown
}

// decodeArg decodes the arg described by aop from the instruction bits x.
// It returns nil if x cannot be decoded according to aop.

		if err := ld.AllowPackage(ctx, pkg.path, pkg.mod); err != nil {
			pkg.err = err
		}
	}

	pkg.inStd = (search.IsStandardImportPath(pkg.path) && search.InDir(pkg.dir, cfg.GOROOTsrc) != "")

	var imports, testImports []string

	if cfg.BuildContext.Compiler == "gccgo" && pkg.inStd {
		// We can't scan standard packages for gccgo.
	} else {
		var err error

	XCOFF_R_RBA  = 0x18 // A(sym) Branch absolute. modifiable instruction
	XCOFF_R_BR   = 0x0A // A(sym-*) Branch rel to self. non modifiable
	XCOFF_R_RBR  = 0x1A // A(sym-*) Branch rel to self. modifiable instr

	XCOFF_R_TLS    = 0x20 // General-dynamic reference to TLS symbol
	XCOFF_R_TLS_IE = 0x21 // Initial-exec reference to TLS symbol
	XCOFF_R_TLS_LD = 0x22 // Local-dynamic reference to TLS symbol

		for ; nbits >= 8; nbits -= 8 {
			*dst = uint8(bits)
			dst = add1(dst)
			bits >>= 8
		}

		// Process one instruction.
		inst := uintptr(*p)
		p = add1(p)
		n := inst & 0x7F
		if inst&0x80 == 0 {
			// Literal bits; n == 0 means end of program.
			if n == 0 {
				// Program is over.
				break Run
			}
			nbyte := n / 8

		"source_workload_namespace":      srcns,
	}

	query.Metric = "istio_tcp_connections_opened_total"
	query.Labels = labels

	return query
}

func deployName(inst echo.Instance) string {
	return inst.ServiceName() + "-" + inst.Config().Version
}

func TestMetadataServer(t *testing.T) {
	framework.NewTest(t).Run(func(t framework.TestContext) {
		ver, _ := t.Clusters().Default().GetKubernetesVersion()

						rslt = this.get_container().triggerHandler(evnt, { "func" : i, "inst" : this, "args" : args, "plugin" : func.plugin });
						if(rslt === false) { return; }
						if(typeof rslt !== "undefined") { args = rslt; }

						rslt = func.apply(
							$.extend({}, this, {
								__callback : function (data) {
									this.get_container().triggerHandler( i + '.jstree', { "inst" : this, "args" : args, "rslt" : data, "rlbk" : rlbk });
								},

	ctxt.Arch.ByteOrder.PutUint32(P[8:], o3)
	ctxt.Arch.ByteOrder.PutUint32(P[12:], o4)
	tramp.SetData(P)
}

// Unpack a pair of 32 bit instruction words from
// a 64 bit relocation into instN and instN+1 in endian order.
func unpackInstPair(target *ld.Target, r int64) (uint32, uint32) {
	if target.IsBigEndian() {
		return uint32(r >> 32), uint32(r)
	}
	return uint32(r), uint32(r >> 32)
}

const maxHeight = 1000

// maxSize is the maximum size of a compiled regexp in Insts.
// It too is somewhat arbitrarily chosen, but the idea is to be large enough
// to allow significant regexps while at the same time small enough that
// the compiled form will not take up too much memory.
// 128 MB is enough for a 3.3 million Inst structures, which roughly
// corresponds to a 3.3 MB regexp.
const (