// right place when we start editing the AST behind its back,
	// so we use ast1 to look for the doc comments on import "C"
	// and on exported functions, and we use ast2 for translating
	// and reprinting.
	// In cgo mode, we ignore ast2 and just apply edits directly
	// the text behind ast1. In godefs mode we modify and print ast2.
	ast1 := parse(abspath, src, parser.SkipObjectResolution|parser.ParseComments)

	}
}

func verifyPrint(t *testing.T, filename string, ast1 *File) {
	var buf1 bytes.Buffer
	_, err := Fprint(&buf1, ast1, LineForm)
	if err != nil {
		panic(err)
	}
	bytes1 := buf1.Bytes()

	ast2, err := Parse(NewFileBase(filename), &buf1, nil, nil, 0)
	if err != nil {
		panic(err)
	}

	var buf2 bytes.Buffer
	_, err = Fprint(&buf2, ast2, LineForm)
	if err != nil {
		panic(err)
	}

package cryptobyte

import (
	encoding_asn1 "encoding/asn1"
	"fmt"
	"math/big"
	"reflect"
	"time"

	"golang.org/x/crypto/cryptobyte/asn1"
)

// This file contains ASN.1-related methods for String and Builder.

// Builder

// AddASN1Int64 appends a DER-encoded ASN.1 INTEGER.
func (b *Builder) AddASN1Int64(v int64) {
	b.addASN1Signed(asn1.INTEGER, v)
}

// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.

// Package asn1 implements parsing of DER-encoded ASN.1 data structures,
// as defined in ITU-T Rec X.690.
//
// See also “A Layman's Guide to a Subset of ASN.1, BER, and DER,”
// http://luca.ntop.org/Teaching/Appunti/asn1.html.
package asn1

// ASN.1 is a syntax for specifying abstract objects and BER, DER, PER, XER etc

	// be conservative and guard against bad ASTs
	if len(f.List) > 0 {
		return f.List[0].Pos()
	}
	return token.NoPos
}

func (f *FieldList) End() token.Pos {
	if f.Closing.IsValid() {
		return f.Closing + 1
	}
	// the list should not be empty in this case;
	// be conservative and guard against bad ASTs
	if n := len(f.List); n > 0 {
		return f.List[n-1].End()
	}

		{oid: mustNewOIDFromInts(t, []uint64{1, 33, 23}), oid2: asn1.ObjectIdentifier{1, 33, 22}, eq: false},
		{oid: mustNewOIDFromInts(t, []uint64{1, 33, 127}), oid2: asn1.ObjectIdentifier{1, 33, 127}, eq: true},
		{oid: mustNewOIDFromInts(t, []uint64{1, 33, 128}), oid2: asn1.ObjectIdentifier{1, 33, 127}, eq: false},

	ASHRQ
	ASHRW
	ASHRXL
	ASHRXQ
	ASHUFPD
	ASHUFPS
	ASIDT
	ASLDTL
	ASLDTQ
	ASLDTW
	ASMSWL
	ASMSWQ
	ASMSWW
	ASQRTPD
	ASQRTPS
	ASQRTSD
	ASQRTSS
	ASTAC
	ASTC
	ASTD
	ASTI
	ASTMXCSR
	ASTOSB
	ASTOSL
	ASTOSQ
	ASTOSW
	ASTRL
	ASTRQ
	ASTRW
	ASUBB
	ASUBL
	ASUBPD
	ASUBPS
	ASUBQ
	ASUBSD
	ASUBSS
	ASUBW
	ASWAPGS
	ASYSCALL

pkg encoding/asn1, const TagSequence ideal-int
pkg encoding/asn1, const TagSet = 17
pkg encoding/asn1, const TagSet ideal-int
pkg encoding/asn1, const TagT61String = 20
pkg encoding/asn1, const TagT61String ideal-int
pkg encoding/asn1, const TagUTCTime = 23
pkg encoding/asn1, const TagUTCTime ideal-int
pkg encoding/asn1, const TagUTF8String = 12
pkg encoding/asn1, const TagUTF8String ideal-int

type optionalRawValueTest struct {
	A RawValue `asn1:"optional"`
}

type omitEmptyTest struct {
	A []string `asn1:"omitempty"`
}

type defaultTest struct {
	A int `asn1:"optional,default:1"`
}

type applicationTest struct {
	A int `asn1:"application,tag:0"`
	B int `asn1:"application,tag:1,explicit"`
}

type privateTest struct {
	A int `asn1:"private,tag:0"`
	B int `asn1:"private,tag:1,explicit"`

// CHECK-NEXT: %[[q:.*]] = "tfl.quantize"(%arg0) <{qtype = tensor<1x224x224x3x!quant.uniform<i8:f32, 7.812500e-03>>}> : (tensor<1x224x224x3xf32>) -> tensor<1x224x224x3x!quant.uniform<i8:f32, 7.812500e-03>>
// CHECK-NEXT: %[[cst1:.*]] = "tfl.pseudo_qconst"() <{qtype = tensor<32x3x3x3x!quant.uniform<i8<-127:127>:f32, 0.021826678373682216:151>>, value = dense<-76> : tensor<32x3x3x3xi8>}> : () -> tensor<32x3x3x3x!quant.uniform<i8<-127:127>:f32, 0.021826678373682216>>