}
	return constant.MakeFloat64(f)
}

func makeComplex(real, imag constant.Value) constant.Value {
	return constant.BinaryOp(constant.ToFloat(real), token.ADD, constant.MakeImag(constant.ToFloat(imag)))
}

// DefaultLit on both nodes simultaneously;
// if they're both ideal going in they better
// get the same type going out.
// force means must assign concrete (non-ideal) type.

	mremapFixed     = MAP_FIXED
	mremapDontunmap = 0
	mremapMaymove   = 0
)

//sys	mremapNetBSD(oldp uintptr, oldsize uintptr, newp uintptr, newsize uintptr, flags int) (xaddr uintptr, err error) = SYS_MREMAP

func mremap(oldaddr uintptr, oldlength uintptr, newlength uintptr, flags int, newaddr uintptr) (uintptr, error) {
	return mremapNetBSD(oldaddr, oldlength, newaddr, newlength, flags)

  // TODO: support this field
  string hostname = 21;

  // Network represents the network this workload is on. This may be elided for the default network.
  // A (network,address) pair makeup a unique key for a workload *at a point in time*.
  string network = 4;

  // Protocol that should be used to connect to this workload.
  TunnelProtocol tunnel_protocol = 5;

			t.Fatal("Returned Instance is incorrect")
		}
	}

	// Get Instances from mockAdapter2
	instances = aggregateCtl.GetProxyServiceTargets(&model.Proxy{IPAddresses: []string{mock.MakeIP(mock.WorldService, 1)}})
	if len(instances) != 6 {
		t.Fatalf("Returned GetProxyServiceTargets' amount %d is not correct", len(instances))
	}
	for _, inst := range instances {

						mp[mode][metricName] = override
					}
				}
			}
		}
	}

	processed := map[string]metricsConfig{}
	for provider, modeMap := range providers {
		tmm := processed[provider]
		tmm.ReportingInterval = reportingIntervals[provider]

		for mode, metricMap := range modeMap {
			key := metricProviderModeKey(provider, mode)
			if disabledAllMetricsProviders.Contains(key) {
				switch mode {

		{"Int32", Const, 0},
		{"Int64", Const, 0},
		{"Int8", Const, 0},
		{"Interface", Const, 0},
		{"Invalid", Const, 0},
		{"Kind", Type, 0},
		{"MakeChan", Func, 0},
		{"MakeFunc", Func, 1},
		{"MakeMap", Func, 0},
		{"MakeMapWithSize", Func, 9},
		{"MakeSlice", Func, 0},
		{"Map", Const, 0},
		{"MapIter", Type, 12},
		{"MapOf", Func, 1},
		{"Method", Type, 0},
		{"Method.Func", Field, 0},

// bitstream.
func (r *Decoder) Value() constant.Value {
	r.Sync(SyncValue)
	isComplex := r.Bool()
	val := r.scalar()
	if isComplex {
		val = constant.BinaryOp(val, token.ADD, constant.MakeImag(r.scalar()))
	}
	return val
}

func (r *Decoder) scalar() constant.Value {
	switch tag := CodeVal(r.Code(SyncVal)); tag {
	default:
		panic(fmt.Errorf("unexpected scalar tag: %v", tag))

		val = constant.Make(&x)

	case types.IsFloat:
		val = r.mpfloat(b)

	case types.IsComplex:
		re := r.mpfloat(b)
		im := r.mpfloat(b)
		val = constant.BinaryOp(re, token.ADD, constant.MakeImag(im))

	default:
		errorf("unexpected type %v", typ) // panics
		panic("unreachable")
	}

	return
}

func intSize(b *types.Basic) (signed bool, maxBytes uint) {

		n := n.(*InlinedCallExpr)
		// TODO(mdempsky): Print Init and/or Body?
		if len(n.ReturnVars) == 1 {
			fmt.Fprintf(s, "%v", n.ReturnVars[0])
			return
		}
		fmt.Fprintf(s, "(.%v)", n.ReturnVars)

	case OMAKEMAP, OMAKECHAN, OMAKESLICE:
		n := n.(*MakeExpr)
		if n.Cap != nil {
			fmt.Fprintf(s, "make(%v, %v, %v)", n.Type(), n.Len, n.Cap)
			return
		}

				n.SetType(nil)
				return n
			}
			if !checkmake(t, "size", &l) {
				n.SetType(nil)
				return n
			}
		} else {
			l = ir.NewInt(base.Pos, 0)
		}
		nn = ir.NewMakeExpr(n.Pos(), ir.OMAKEMAP, l, nil)
		nn.SetEsc(n.Esc())

	case types.TCHAN:
		l = nil
		if i < len(args) {
			l = args[i]
			i++
			l = Expr(l)
			l = DefaultLit(l, types.Types[types.TINT])
			if l.Type() == nil {