output_directory,
        quantization_options,
        representative_dataset,
    )
  elif method.preset_method == _PresetMethod.METHOD_DYNAMIC_RANGE_INT8:
    return _dynamic_range_quantize(
        saved_model_path,
        output_directory,
        quantization_options,
    )
  elif (
      method.preset_method == _PresetMethod.METHOD_STATIC_RANGE_WEIGHT_ONLY_INT8
  ):

    local gke_zone="${ZONE:-}"
    source "${KUBE_ROOT}/cluster/gce/util.sh"
    ZONE="${gke_zone}"
  elif [[ -z "${LOG_DUMP_SSH_KEY:-}" ]]; then
    echo 'LOG_DUMP_SSH_KEY not set, but required when using log_dump_custom_get_instances'
    exit 1
  elif [[ -z "${LOG_DUMP_SSH_USER:-}" ]]; then
    echo 'LOG_DUMP_SSH_USER not set, but required when using log_dump_custom_get_instances'
    exit 1
  fi

		at := (*arraytype)(unsafe.Pointer(t))
		if !indir {
			if at.Len != 1 {
				throw("can't happen")
			}
			cgoCheckArg(at.Elem, p, at.Elem.Kind_&abi.KindDirectIface == 0, top, msg)
			return
		}
		for i := uintptr(0); i < at.Len; i++ {
			cgoCheckArg(at.Elem, p, true, top, msg)
			p = add(p, at.Elem.Size_)
		}
	case abi.Chan, abi.Map:
		// These types contain internal pointers that will

	}
	se.arrayEnc(e, v, opts)
	e.ptrLevel--
}

func newSliceEncoder(t reflect.Type) encoderFunc {
	// Byte slices get special treatment; arrays don't.
	if t.Elem().Kind() == reflect.Uint8 {
		p := reflect.PointerTo(t.Elem())
		if !p.Implements(marshalerType) && !p.Implements(textMarshalerType) {
			return encodeByteSlice
		}
	}
	enc := sliceEncoder{newArrayEncoder(t)}
	return enc.encode
}

        storage_type_max);
  } else {
    SmallVector<double> scales_vec;
    SmallVector<int64_t> zero_points_vec;
    for (auto elem : scales.getValues<float>()) scales_vec.push_back(elem);
    for (auto elem : zero_points.getValues<int32_t>())
      zero_points_vec.push_back(elem);
    elem_ty = quant::UniformQuantizedPerAxisType::get(
        flags, storage_type, expressed_type, scales_vec, zero_points_vec,

	// declare a variable inside a function body if the variable is never used."
	check.usage(sig.scope)
}

func (check *Checker) usage(scope *Scope) {
	var unused []*Var
	for name, elem := range scope.elems {
		elem = resolve(name, elem)
		if v, _ := elem.(*Var); v != nil && !v.used {
			unused = append(unused, v)
		}
	}
	sort.Slice(unused, func(i, j int) bool {
		return cmpPos(unused[i].pos, unused[j].pos) < 0
	})

		}
	}

	// check that anything other than type and properties in metadata is forbidden
	tt = reflect.TypeOf(Structural{})
	for i := 0; i < tt.NumField(); i++ {
		s := Structural{}
		x := reflect.ValueOf(&s).Elem()
		fuzzer.Fuzz(x.Field(i).Addr().Interface())
		s.Type = "object"
		s.Properties = map[string]Structural{
			"name":         {},
			"generateName": {},
		}

	// declare a variable inside a function body if the variable is never used."
	check.usage(sig.scope)
}

func (check *Checker) usage(scope *Scope) {
	var unused []*Var
	for name, elem := range scope.elems {
		elem = resolve(name, elem)
		if v, _ := elem.(*Var); v != nil && !v.used {
			unused = append(unused, v)
		}
	}
	sort.Slice(unused, func(i, j int) bool {
		return cmpPos(unused[i].pos, unused[j].pos) < 0
	})

			// assume they are the same to avoid spurious follow-on errors.
			return (x.len < 0 || y.len < 0 || x.len == y.len) && u.nify(x.elem, y.elem, emode, p)
		}

	case *Slice:
		// Two slice types unify if their element types unify.
		if y, ok := y.(*Slice); ok {
			return u.nify(x.elem, y.elem, emode, p)
		}

	case *Struct:
		// Two struct types unify if they have the same sequence of fields,

	}()

	switch t := typ.(type) {
	case *Basic:
		// nothing to do

	case *Alias:
		return w.isParameterized(Unalias(t))

	case *Array:
		return w.isParameterized(t.elem)

	case *Slice:
		return w.isParameterized(t.elem)

	case *Struct:
		return w.varList(t.fields)

	case *Pointer:
		return w.isParameterized(t.base)

	case *Tuple: