services/ben/ben.vdl.go - release.go.x.ref - Git at Google

 // Copyright 2015 The Vanadium Authors. All rights reserved.
 // Use of this source code is governed by a BSD-style
 // license that can be found in the LICENSE file.

 // This file was auto-generated by the vanadium vdl tool.
 // Package: ben

 // Package ben defines datastructures to archive microbenchmark results.
 //
 // These are the data structures common to tools described in
 // https://docs.google.com/document/d/1v-iKwej3eYT_RNhPwQ81A9fa8H15Q6RzNyv2rrAeAUc/edit?usp=sharing
 package ben

 import (
 	"v.io/v23/vdl"
 )

 var _ = __VDLInit() // Must be first; see __VDLInit comments for details.

 //////////////////////////////////////////////////
 // Type definitions

 // Cpu describes the CPU of the machine on which the microbenchmarks were run.
 type Cpu struct {
 	Architecture  string // Architecture of the CPU, e.g. "amd64", "386" etc.
 	Description   string // A detailed description of the CPU, e.g., "Intel(R) Core(TM) i7-5557U CPU @ 3.10GHz"
 	ClockSpeedMhz uint32 // Clock speed of the CPU in MHz
 }

 func (Cpu) __VDLReflect(struct {
 	Name string `vdl:"v.io/x/ref/services/ben.Cpu"`
 }) {
 }

 func (x Cpu) VDLIsZero() bool {
 	return x == Cpu{}
 }

 func (x Cpu) VDLWrite(enc vdl.Encoder) error {
 	if err := enc.StartValue(__VDLType_struct_1); err != nil {
 		return err
 	}
 	if x.Architecture != "" {
 		if err := enc.NextFieldValueString(0, vdl.StringType, x.Architecture); err != nil {
 			return err
 		}
 	}
 	if x.Description != "" {
 		if err := enc.NextFieldValueString(1, vdl.StringType, x.Description); err != nil {
 			return err
 		}
 	}
 	if x.ClockSpeedMhz != 0 {
 		if err := enc.NextFieldValueUint(2, vdl.Uint32Type, uint64(x.ClockSpeedMhz)); err != nil {
 			return err
 		}
 	}
 	if err := enc.NextField(-1); err != nil {
 		return err
 	}
 	return enc.FinishValue()
 }

 func (x *Cpu) VDLRead(dec vdl.Decoder) error {
 	*x = Cpu{}
 	if err := dec.StartValue(__VDLType_struct_1); err != nil {
 		return err
 	}
 	decType := dec.Type()
 	for {
 		index, err := dec.NextField()
 		switch {
 		case err != nil:
 			return err
 		case index == -1:
 			return dec.FinishValue()
 		}
 		if decType != __VDLType_struct_1 {
 			index = __VDLType_struct_1.FieldIndexByName(decType.Field(index).Name)
 			if index == -1 {
 				if err := dec.SkipValue(); err != nil {
 					return err
 				}
 				continue
 			}
 		}
 		switch index {
 		case 0:
 			switch value, err := dec.ReadValueString(); {
 			case err != nil:
 				return err
 			default:
 				x.Architecture = value
 			}
 		case 1:
 			switch value, err := dec.ReadValueString(); {
 			case err != nil:
 				return err
 			default:
 				x.Description = value
 			}
 		case 2:
 			switch value, err := dec.ReadValueUint(32); {
 			case err != nil:
 				return err
 			default:
 				x.ClockSpeedMhz = uint32(value)
 			}
 		}
 	}
 }

 // Os describes the Operating System on which the microbenchmarks were run.
 type Os struct {
 	Name    string // Short name of the operating system: linux, darwin, android etc.
 	Version string // Details of the distribution/version, e.g., "Ubuntu 14.04", "Mac OS X 10.11.2 15C50" etc.
 }

 func (Os) __VDLReflect(struct {
 	Name string `vdl:"v.io/x/ref/services/ben.Os"`
 }) {
 }

 func (x Os) VDLIsZero() bool {
 	return x == Os{}
 }

 func (x Os) VDLWrite(enc vdl.Encoder) error {
 	if err := enc.StartValue(__VDLType_struct_2); err != nil {
 		return err
 	}
 	if x.Name != "" {
 		if err := enc.NextFieldValueString(0, vdl.StringType, x.Name); err != nil {
 			return err
 		}
 	}
 	if x.Version != "" {
 		if err := enc.NextFieldValueString(1, vdl.StringType, x.Version); err != nil {
 			return err
 		}
 	}
 	if err := enc.NextField(-1); err != nil {
 		return err
 	}
 	return enc.FinishValue()
 }

 func (x *Os) VDLRead(dec vdl.Decoder) error {
 	*x = Os{}
 	if err := dec.StartValue(__VDLType_struct_2); err != nil {
 		return err
 	}
 	decType := dec.Type()
 	for {
 		index, err := dec.NextField()
 		switch {
 		case err != nil:
 			return err
 		case index == -1:
 			return dec.FinishValue()
 		}
 		if decType != __VDLType_struct_2 {
 			index = __VDLType_struct_2.FieldIndexByName(decType.Field(index).Name)
 			if index == -1 {
 				if err := dec.SkipValue(); err != nil {
 					return err
 				}
 				continue
 			}
 		}
 		switch index {
 		case 0:
 			switch value, err := dec.ReadValueString(); {
 			case err != nil:
 				return err
 			default:
 				x.Name = value
 			}
 		case 1:
 			switch value, err := dec.ReadValueString(); {
 			case err != nil:
 				return err
 			default:
 				x.Version = value
 			}
 		}
 	}
 }

 // Scenario encapsulates the conditions on the machine on which the microbenchmarks were run.
 type Scenario struct {
 	Cpu   Cpu
 	Os    Os
 	Label string // Arbitrary string label assigned by the uploader.
 }

 func (Scenario) __VDLReflect(struct {
 	Name string `vdl:"v.io/x/ref/services/ben.Scenario"`
 }) {
 }

 func (x Scenario) VDLIsZero() bool {
 	return x == Scenario{}
 }

 func (x Scenario) VDLWrite(enc vdl.Encoder) error {
 	if err := enc.StartValue(__VDLType_struct_3); err != nil {
 		return err
 	}
 	if x.Cpu != (Cpu{}) {
 		if err := enc.NextField(0); err != nil {
 			return err
 		}
 		if err := x.Cpu.VDLWrite(enc); err != nil {
 			return err
 		}
 	}
 	if x.Os != (Os{}) {
 		if err := enc.NextField(1); err != nil {
 			return err
 		}
 		if err := x.Os.VDLWrite(enc); err != nil {
 			return err
 		}
 	}
 	if x.Label != "" {
 		if err := enc.NextFieldValueString(2, vdl.StringType, x.Label); err != nil {
 			return err
 		}
 	}
 	if err := enc.NextField(-1); err != nil {
 		return err
 	}
 	return enc.FinishValue()
 }

 func (x *Scenario) VDLRead(dec vdl.Decoder) error {
 	*x = Scenario{}
 	if err := dec.StartValue(__VDLType_struct_3); err != nil {
 		return err
 	}
 	decType := dec.Type()
 	for {
 		index, err := dec.NextField()
 		switch {
 		case err != nil:
 			return err
 		case index == -1:
 			return dec.FinishValue()
 		}
 		if decType != __VDLType_struct_3 {
 			index = __VDLType_struct_3.FieldIndexByName(decType.Field(index).Name)
 			if index == -1 {
 				if err := dec.SkipValue(); err != nil {
 					return err
 				}
 				continue
 			}
 		}
 		switch index {
 		case 0:
 			if err := x.Cpu.VDLRead(dec); err != nil {
 				return err
 			}
 		case 1:
 			if err := x.Os.VDLRead(dec); err != nil {
 				return err
 			}
 		case 2:
 			switch value, err := dec.ReadValueString(); {
 			case err != nil:
 				return err
 			default:
 				x.Label = value
 			}
 		}
 	}
 }

 // SourceCode represents the state of the source code used to build the
 // microbenchmarks.
 //
 // Typically it would be the commit hash of a git repository or the contents of
 // a manifest of a jiri (https://github.com/vanadium/go.jiri) project and not
 // the complete source code itself.
 type SourceCode string

 func (SourceCode) __VDLReflect(struct {
 	Name string `vdl:"v.io/x/ref/services/ben.SourceCode"`
 }) {
 }

 func (x SourceCode) VDLIsZero() bool {
 	return x == ""
 }

 func (x SourceCode) VDLWrite(enc vdl.Encoder) error {
 	if err := enc.WriteValueString(__VDLType_string_4, string(x)); err != nil {
 		return err
 	}
 	return nil
 }

 func (x *SourceCode) VDLRead(dec vdl.Decoder) error {
 	switch value, err := dec.ReadValueString(); {
 	case err != nil:
 		return err
 	default:
 		*x = SourceCode(value)
 	}
 	return nil
 }

 // Run encapsulates the results of a single microbenchmark run.
 type Run struct {
 	Name              string // Name of the microbenchmark. <package>.Benchmark<Name> in Go.
 	Iterations        uint64
 	NanoSecsPerOp     float64 // Nano-seconds per iteration.
 	AllocsPerOp       uint64  // Memory allocations per iteration.
 	AllocedBytesPerOp uint64  // Size of memory allocations per iteration.
 	MegaBytesPerSec   float64 // Throughput in MB/s.
 	Parallelism       uint32  // For Go, the GOMAXPROCS used during benchmark execution
 }

 func (Run) __VDLReflect(struct {
 	Name string `vdl:"v.io/x/ref/services/ben.Run"`
 }) {
 }

 func (x Run) VDLIsZero() bool {
 	return x == Run{}
 }

 func (x Run) VDLWrite(enc vdl.Encoder) error {
 	if err := enc.StartValue(__VDLType_struct_5); err != nil {
 		return err
 	}
 	if x.Name != "" {
 		if err := enc.NextFieldValueString(0, vdl.StringType, x.Name); err != nil {
 			return err
 		}
 	}
 	if x.Iterations != 0 {
 		if err := enc.NextFieldValueUint(1, vdl.Uint64Type, x.Iterations); err != nil {
 			return err
 		}
 	}
 	if x.NanoSecsPerOp != 0 {
 		if err := enc.NextFieldValueFloat(2, vdl.Float64Type, x.NanoSecsPerOp); err != nil {
 			return err
 		}
 	}
 	if x.AllocsPerOp != 0 {
 		if err := enc.NextFieldValueUint(3, vdl.Uint64Type, x.AllocsPerOp); err != nil {
 			return err
 		}
 	}
 	if x.AllocedBytesPerOp != 0 {
 		if err := enc.NextFieldValueUint(4, vdl.Uint64Type, x.AllocedBytesPerOp); err != nil {
 			return err
 		}
 	}
 	if x.MegaBytesPerSec != 0 {
 		if err := enc.NextFieldValueFloat(5, vdl.Float64Type, x.MegaBytesPerSec); err != nil {
 			return err
 		}
 	}
 	if x.Parallelism != 0 {
 		if err := enc.NextFieldValueUint(6, vdl.Uint32Type, uint64(x.Parallelism)); err != nil {
 			return err
 		}
 	}
 	if err := enc.NextField(-1); err != nil {
 		return err
 	}
 	return enc.FinishValue()
 }

 func (x *Run) VDLRead(dec vdl.Decoder) error {
 	*x = Run{}
 	if err := dec.StartValue(__VDLType_struct_5); err != nil {
 		return err
 	}
 	decType := dec.Type()
 	for {
 		index, err := dec.NextField()
 		switch {
 		case err != nil:
 			return err
 		case index == -1:
 			return dec.FinishValue()
 		}
 		if decType != __VDLType_struct_5 {
 			index = __VDLType_struct_5.FieldIndexByName(decType.Field(index).Name)
 			if index == -1 {
 				if err := dec.SkipValue(); err != nil {
 					return err
 				}
 				continue
 			}
 		}
 		switch index {
 		case 0:
 			switch value, err := dec.ReadValueString(); {
 			case err != nil:
 				return err
 			default:
 				x.Name = value
 			}
 		case 1:
 			switch value, err := dec.ReadValueUint(64); {
 			case err != nil:
 				return err
 			default:
 				x.Iterations = value
 			}
 		case 2:
 			switch value, err := dec.ReadValueFloat(64); {
 			case err != nil:
 				return err
 			default:
 				x.NanoSecsPerOp = value
 			}
 		case 3:
 			switch value, err := dec.ReadValueUint(64); {
 			case err != nil:
 				return err
 			default:
 				x.AllocsPerOp = value
 			}
 		case 4:
 			switch value, err := dec.ReadValueUint(64); {
 			case err != nil:
 				return err
 			default:
 				x.AllocedBytesPerOp = value
 			}
 		case 5:
 			switch value, err := dec.ReadValueFloat(64); {
 			case err != nil:
 				return err
 			default:
 				x.MegaBytesPerSec = value
 			}
 		case 6:
 			switch value, err := dec.ReadValueUint(32); {
 			case err != nil:
 				return err
 			default:
 				x.Parallelism = uint32(value)
 			}
 		}
 	}
 }

 // Hold type definitions in package-level variables, for better performance.
 var (
 	__VDLType_struct_1 *vdl.Type
 	__VDLType_struct_2 *vdl.Type
 	__VDLType_struct_3 *vdl.Type
 	__VDLType_string_4 *vdl.Type
 	__VDLType_struct_5 *vdl.Type
 )

 var __VDLInitCalled bool

 // __VDLInit performs vdl initialization.  It is safe to call multiple times.
 // If you have an init ordering issue, just insert the following line verbatim
 // into your source files in this package, right after the "package foo" clause:
 //
 //    var _ = __VDLInit()
 //
 // The purpose of this function is to ensure that vdl initialization occurs in
 // the right order, and very early in the init sequence.  In particular, vdl
 // registration and package variable initialization needs to occur before
 // functions like vdl.TypeOf will work properly.
 //
 // This function returns a dummy value, so that it can be used to initialize the
 // first var in the file, to take advantage of Go's defined init order.
 func __VDLInit() struct{} {
 	if __VDLInitCalled {
 		return struct{}{}
 	}
 	__VDLInitCalled = true

 	// Register types.
 	vdl.Register((*Cpu)(nil))
 	vdl.Register((*Os)(nil))
 	vdl.Register((*Scenario)(nil))
 	vdl.Register((*SourceCode)(nil))
 	vdl.Register((*Run)(nil))

 	// Initialize type definitions.
 	__VDLType_struct_1 = vdl.TypeOf((*Cpu)(nil)).Elem()
 	__VDLType_struct_2 = vdl.TypeOf((*Os)(nil)).Elem()
 	__VDLType_struct_3 = vdl.TypeOf((*Scenario)(nil)).Elem()
 	__VDLType_string_4 = vdl.TypeOf((*SourceCode)(nil))
 	__VDLType_struct_5 = vdl.TypeOf((*Run)(nil)).Elem()

 	return struct{}{}
 }
	// Copyright 2015 The Vanadium Authors. All rights reserved.
	// Use of this source code is governed by a BSD-style
	// license that can be found in the LICENSE file.

	// This file was auto-generated by the vanadium vdl tool.
	// Package: ben

	// Package ben defines datastructures to archive microbenchmark results.
	//
	// These are the data structures common to tools described in
	// https://docs.google.com/document/d/1v-iKwej3eYT_RNhPwQ81A9fa8H15Q6RzNyv2rrAeAUc/edit?usp=sharing
	package ben

	import (
	"v.io/v23/vdl"
	)

	var _ = __VDLInit() // Must be first; see __VDLInit comments for details.

	//////////////////////////////////////////////////
	// Type definitions

	// Cpu describes the CPU of the machine on which the microbenchmarks were run.
	type Cpu struct {
	Architecture string // Architecture of the CPU, e.g. "amd64", "386" etc.
	Description string // A detailed description of the CPU, e.g., "Intel(R) Core(TM) i7-5557U CPU @ 3.10GHz"
	ClockSpeedMhz uint32 // Clock speed of the CPU in MHz
	}

	func (Cpu) __VDLReflect(struct {
	Name string `vdl:"v.io/x/ref/services/ben.Cpu"`
	}) {
	}

	func (x Cpu) VDLIsZero() bool {
	return x == Cpu{}
	}

	func (x Cpu) VDLWrite(enc vdl.Encoder) error {
	if err := enc.StartValue(__VDLType_struct_1); err != nil {
	return err
	}
	if x.Architecture != "" {
	if err := enc.NextFieldValueString(0, vdl.StringType, x.Architecture); err != nil {
	return err
	}
	}
	if x.Description != "" {
	if err := enc.NextFieldValueString(1, vdl.StringType, x.Description); err != nil {
	return err
	}
	}
	if x.ClockSpeedMhz != 0 {
	if err := enc.NextFieldValueUint(2, vdl.Uint32Type, uint64(x.ClockSpeedMhz)); err != nil {
	return err
	}
	}
	if err := enc.NextField(-1); err != nil {
	return err
	}
	return enc.FinishValue()
	}

	func (x *Cpu) VDLRead(dec vdl.Decoder) error {
	*x = Cpu{}
	if err := dec.StartValue(__VDLType_struct_1); err != nil {
	return err
	}
	decType := dec.Type()
	for {
	index, err := dec.NextField()
	switch {
	case err != nil:
	return err
	case index == -1:
	return dec.FinishValue()
	}
	if decType != __VDLType_struct_1 {
	index = __VDLType_struct_1.FieldIndexByName(decType.Field(index).Name)
	if index == -1 {
	if err := dec.SkipValue(); err != nil {
	return err
	}
	continue
	}
	}
	switch index {
	case 0:
	switch value, err := dec.ReadValueString(); {
	case err != nil:
	return err
	default:
	x.Architecture = value
	}
	case 1:
	switch value, err := dec.ReadValueString(); {
	case err != nil:
	return err
	default:
	x.Description = value
	}
	case 2:
	switch value, err := dec.ReadValueUint(32); {
	case err != nil:
	return err
	default:
	x.ClockSpeedMhz = uint32(value)
	}
	}
	}
	}

	// Os describes the Operating System on which the microbenchmarks were run.
	type Os struct {
	Name string // Short name of the operating system: linux, darwin, android etc.
	Version string // Details of the distribution/version, e.g., "Ubuntu 14.04", "Mac OS X 10.11.2 15C50" etc.
	}

	func (Os) __VDLReflect(struct {
	Name string `vdl:"v.io/x/ref/services/ben.Os"`
	}) {
	}

	func (x Os) VDLIsZero() bool {
	return x == Os{}
	}

	func (x Os) VDLWrite(enc vdl.Encoder) error {
	if err := enc.StartValue(__VDLType_struct_2); err != nil {
	return err
	}
	if x.Name != "" {
	if err := enc.NextFieldValueString(0, vdl.StringType, x.Name); err != nil {
	return err
	}
	}
	if x.Version != "" {
	if err := enc.NextFieldValueString(1, vdl.StringType, x.Version); err != nil {
	return err
	}
	}
	if err := enc.NextField(-1); err != nil {
	return err
	}
	return enc.FinishValue()
	}

	func (x *Os) VDLRead(dec vdl.Decoder) error {
	*x = Os{}
	if err := dec.StartValue(__VDLType_struct_2); err != nil {
	return err
	}
	decType := dec.Type()
	for {
	index, err := dec.NextField()
	switch {
	case err != nil:
	return err
	case index == -1:
	return dec.FinishValue()
	}
	if decType != __VDLType_struct_2 {
	index = __VDLType_struct_2.FieldIndexByName(decType.Field(index).Name)
	if index == -1 {
	if err := dec.SkipValue(); err != nil {
	return err
	}
	continue
	}
	}
	switch index {
	case 0:
	switch value, err := dec.ReadValueString(); {
	case err != nil:
	return err
	default:
	x.Name = value
	}
	case 1:
	switch value, err := dec.ReadValueString(); {
	case err != nil:
	return err
	default:
	x.Version = value
	}
	}
	}
	}

	// Scenario encapsulates the conditions on the machine on which the microbenchmarks were run.
	type Scenario struct {
	Cpu Cpu
	Os Os
	Label string // Arbitrary string label assigned by the uploader.
	}

	func (Scenario) __VDLReflect(struct {
	Name string `vdl:"v.io/x/ref/services/ben.Scenario"`
	}) {
	}

	func (x Scenario) VDLIsZero() bool {
	return x == Scenario{}
	}

	func (x Scenario) VDLWrite(enc vdl.Encoder) error {
	if err := enc.StartValue(__VDLType_struct_3); err != nil {
	return err
	}
	if x.Cpu != (Cpu{}) {
	if err := enc.NextField(0); err != nil {
	return err
	}
	if err := x.Cpu.VDLWrite(enc); err != nil {
	return err
	}
	}
	if x.Os != (Os{}) {
	if err := enc.NextField(1); err != nil {
	return err
	}
	if err := x.Os.VDLWrite(enc); err != nil {
	return err
	}
	}
	if x.Label != "" {
	if err := enc.NextFieldValueString(2, vdl.StringType, x.Label); err != nil {
	return err
	}
	}
	if err := enc.NextField(-1); err != nil {
	return err
	}
	return enc.FinishValue()
	}

	func (x *Scenario) VDLRead(dec vdl.Decoder) error {
	*x = Scenario{}
	if err := dec.StartValue(__VDLType_struct_3); err != nil {
	return err
	}
	decType := dec.Type()
	for {
	index, err := dec.NextField()
	switch {
	case err != nil:
	return err
	case index == -1:
	return dec.FinishValue()
	}
	if decType != __VDLType_struct_3 {
	index = __VDLType_struct_3.FieldIndexByName(decType.Field(index).Name)
	if index == -1 {
	if err := dec.SkipValue(); err != nil {
	return err
	}
	continue
	}
	}
	switch index {
	case 0:
	if err := x.Cpu.VDLRead(dec); err != nil {
	return err
	}
	case 1:
	if err := x.Os.VDLRead(dec); err != nil {
	return err
	}
	case 2:
	switch value, err := dec.ReadValueString(); {
	case err != nil:
	return err
	default:
	x.Label = value
	}
	}
	}
	}

	// SourceCode represents the state of the source code used to build the
	// microbenchmarks.
	//
	// Typically it would be the commit hash of a git repository or the contents of
	// a manifest of a jiri (https://github.com/vanadium/go.jiri) project and not
	// the complete source code itself.
	type SourceCode string

	func (SourceCode) __VDLReflect(struct {
	Name string `vdl:"v.io/x/ref/services/ben.SourceCode"`
	}) {
	}

	func (x SourceCode) VDLIsZero() bool {
	return x == ""
	}

	func (x SourceCode) VDLWrite(enc vdl.Encoder) error {
	if err := enc.WriteValueString(__VDLType_string_4, string(x)); err != nil {
	return err
	}
	return nil
	}

	func (x *SourceCode) VDLRead(dec vdl.Decoder) error {
	switch value, err := dec.ReadValueString(); {
	case err != nil:
	return err
	default:
	*x = SourceCode(value)
	}
	return nil
	}

	// Run encapsulates the results of a single microbenchmark run.
	type Run struct {
	Name string // Name of the microbenchmark. <package>.Benchmark<Name> in Go.
	Iterations uint64
	NanoSecsPerOp float64 // Nano-seconds per iteration.
	AllocsPerOp uint64 // Memory allocations per iteration.
	AllocedBytesPerOp uint64 // Size of memory allocations per iteration.
	MegaBytesPerSec float64 // Throughput in MB/s.
	Parallelism uint32 // For Go, the GOMAXPROCS used during benchmark execution
	}

	func (Run) __VDLReflect(struct {
	Name string `vdl:"v.io/x/ref/services/ben.Run"`
	}) {
	}

	func (x Run) VDLIsZero() bool {
	return x == Run{}
	}

	func (x Run) VDLWrite(enc vdl.Encoder) error {
	if err := enc.StartValue(__VDLType_struct_5); err != nil {
	return err
	}
	if x.Name != "" {
	if err := enc.NextFieldValueString(0, vdl.StringType, x.Name); err != nil {
	return err
	}
	}
	if x.Iterations != 0 {
	if err := enc.NextFieldValueUint(1, vdl.Uint64Type, x.Iterations); err != nil {
	return err
	}
	}
	if x.NanoSecsPerOp != 0 {
	if err := enc.NextFieldValueFloat(2, vdl.Float64Type, x.NanoSecsPerOp); err != nil {
	return err
	}
	}
	if x.AllocsPerOp != 0 {
	if err := enc.NextFieldValueUint(3, vdl.Uint64Type, x.AllocsPerOp); err != nil {
	return err
	}
	}
	if x.AllocedBytesPerOp != 0 {
	if err := enc.NextFieldValueUint(4, vdl.Uint64Type, x.AllocedBytesPerOp); err != nil {
	return err
	}
	}
	if x.MegaBytesPerSec != 0 {
	if err := enc.NextFieldValueFloat(5, vdl.Float64Type, x.MegaBytesPerSec); err != nil {
	return err
	}
	}
	if x.Parallelism != 0 {
	if err := enc.NextFieldValueUint(6, vdl.Uint32Type, uint64(x.Parallelism)); err != nil {
	return err
	}
	}
	if err := enc.NextField(-1); err != nil {
	return err
	}
	return enc.FinishValue()
	}

	func (x *Run) VDLRead(dec vdl.Decoder) error {
	*x = Run{}
	if err := dec.StartValue(__VDLType_struct_5); err != nil {
	return err
	}
	decType := dec.Type()
	for {
	index, err := dec.NextField()
	switch {
	case err != nil:
	return err
	case index == -1:
	return dec.FinishValue()
	}
	if decType != __VDLType_struct_5 {
	index = __VDLType_struct_5.FieldIndexByName(decType.Field(index).Name)
	if index == -1 {
	if err := dec.SkipValue(); err != nil {
	return err
	}
	continue
	}
	}
	switch index {
	case 0:
	switch value, err := dec.ReadValueString(); {
	case err != nil:
	return err
	default:
	x.Name = value
	}
	case 1:
	switch value, err := dec.ReadValueUint(64); {
	case err != nil:
	return err
	default:
	x.Iterations = value
	}
	case 2:
	switch value, err := dec.ReadValueFloat(64); {
	case err != nil:
	return err
	default:
	x.NanoSecsPerOp = value
	}
	case 3:
	switch value, err := dec.ReadValueUint(64); {
	case err != nil:
	return err
	default:
	x.AllocsPerOp = value
	}
	case 4:
	switch value, err := dec.ReadValueUint(64); {
	case err != nil:
	return err
	default:
	x.AllocedBytesPerOp = value
	}
	case 5:
	switch value, err := dec.ReadValueFloat(64); {
	case err != nil:
	return err
	default:
	x.MegaBytesPerSec = value
	}
	case 6:
	switch value, err := dec.ReadValueUint(32); {
	case err != nil:
	return err
	default:
	x.Parallelism = uint32(value)
	}
	}
	}
	}

	// Hold type definitions in package-level variables, for better performance.
	var (
	__VDLType_struct_1 *vdl.Type
	__VDLType_struct_2 *vdl.Type
	__VDLType_struct_3 *vdl.Type
	__VDLType_string_4 *vdl.Type
	__VDLType_struct_5 *vdl.Type
	)

	var __VDLInitCalled bool

	// __VDLInit performs vdl initialization. It is safe to call multiple times.
	// If you have an init ordering issue, just insert the following line verbatim
	// into your source files in this package, right after the "package foo" clause:
	//
	// var _ = __VDLInit()
	//
	// The purpose of this function is to ensure that vdl initialization occurs in
	// the right order, and very early in the init sequence. In particular, vdl
	// registration and package variable initialization needs to occur before
	// functions like vdl.TypeOf will work properly.
	//
	// This function returns a dummy value, so that it can be used to initialize the
	// first var in the file, to take advantage of Go's defined init order.
	func __VDLInit() struct{} {
	if __VDLInitCalled {
	return struct{}{}
	}
	__VDLInitCalled = true

	// Register types.
	vdl.Register((*Cpu)(nil))
	vdl.Register((*Os)(nil))
	vdl.Register((*Scenario)(nil))
	vdl.Register((*SourceCode)(nil))
	vdl.Register((*Run)(nil))

	// Initialize type definitions.
	__VDLType_struct_1 = vdl.TypeOf((*Cpu)(nil)).Elem()
	__VDLType_struct_2 = vdl.TypeOf((*Os)(nil)).Elem()
	__VDLType_struct_3 = vdl.TypeOf((*Scenario)(nil)).Elem()
	__VDLType_string_4 = vdl.TypeOf((*SourceCode)(nil))
	__VDLType_struct_5 = vdl.TypeOf((*Run)(nil)).Elem()

	return struct{}{}
	}