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Fix some build failures 

Signed-off-by: Vincent Demeester <vincent@sbr.pm>
This commit is contained in:
Vincent Demeester 2017-12-01 11:11:27 +01:00 committed by Silvin Lubecki
parent 8417e49792
commit 1ff277ad8f
50 changed files with 7 additions and 18402 deletions
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1
circle.yml
View File

@ -37,7 +37,6 @@ jobs:
docker build -f $dockerfile --tag cli-builder:$CIRCLE_BUILD_NUM .
name=cross-$CIRCLE_BUILD_NUM-$CIRCLE_NODE_INDEX
docker run \
-e VERSION=$VERSION \
-e CROSS_GROUP=$CIRCLE_NODE_INDEX \
--name $name cli-builder:$CIRCLE_BUILD_NUM \
make cross

2
dockerfiles/Dockerfile.dev
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@ -1,7 +1,7 @@
FROM golang:1.9.2-alpine3.6
RUN apk add -U git make bash coreutils ca-certificates openssh
RUN apk add -U git make bash coreutils ca-certificates
ARG VNDR_SHA=a6e196d8b4b0cbbdc29aebdb20c59ac6926bb384
RUN go get -d github.com/LK4D4/vndr && \

2
e2e/compose-env.yaml
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@ -8,6 +8,8 @@ services:
image: 'docker:${TEST_ENGINE_VERSION:-edge-dind}'
privileged: true
command: ['--insecure-registry=registry:5000']
depends_on:
- registry
notary-server:
image: 'notary:server-0.4.2'

5
e2e/stack/remove_test.go
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@ -2,6 +2,7 @@ package stack
import (
"fmt"
"os"
"strings"
"testing"
@ -20,7 +21,9 @@ func TestRemove(t *testing.T) {
deployFullStack(t, stackname)
defer cleanupFullStack(t, stackname)
result := icmd.RunCmd(shell(t, "docker stack rm %s", stackname))
result := icmd.RunCmd(shell(t, "docker version"))
fmt.Println(result.Stdout(), os.Getenv("DOCKER_HOST"), os.Getenv("TEST_DOCKER_HOST"))
result = icmd.RunCmd(shell(t, "docker stack rm %s", stackname))
result.Assert(t, icmd.Expected{Err: icmd.None})
golden.Assert(t, result.Stdout(), "stack-remove-success.golden")

60
vendor/github.com/docker/docker/hack/README.md generated vendored
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@ -1,60 +0,0 @@
## About
This directory contains a collection of scripts used to build and manage this
repository. If there are any issues regarding the intention of a particular
script (or even part of a certain script), please reach out to us.
It may help us either refine our current scripts, or add on new ones
that are appropriate for a given use case.
## DinD (dind.sh)
DinD is a wrapper script which allows Docker to be run inside a Docker
container. DinD requires the container to
be run with privileged mode enabled.
## Generate Authors (generate-authors.sh)
Generates AUTHORS; a file with all the names and corresponding emails of
individual contributors. AUTHORS can be found in the home directory of
this repository.
## Make
There are two make files, each with different extensions. Neither are supposed
to be called directly; only invoke `make`. Both scripts run inside a Docker
container.
### make.ps1
- The Windows native build script that uses PowerShell semantics; it is limited
unlike `hack\make.sh` since it does not provide support for the full set of
operations provided by the Linux counterpart, `make.sh`. However, `make.ps1`
does provide support for local Windows development and Windows to Windows CI.
More information is found within `make.ps1` by the author, @jhowardmsft
### make.sh
- Referenced via `make test` when running tests on a local machine,
or directly referenced when running tests inside a Docker development container.
- When running on a local machine, `make test` to run all tests found in
`test`, `test-unit`, `test-integration`, and `test-docker-py` on
your local machine. The default timeout is set in `make.sh` to 60 minutes
(`${TIMEOUT:=60m}`), since it currently takes up to an hour to run
all of the tests.
- When running inside a Docker development container, `hack/make.sh` does
not have a single target that runs all the tests. You need to provide a
single command line with multiple targets that performs the same thing.
An example referenced from [Run targets inside a development container](https://docs.docker.com/opensource/project/test-and-docs/#run-targets-inside-a-development-container): `root@5f8630b873fe:/go/src/github.com/moby/moby# hack/make.sh dynbinary binary cross test-unit test-integration test-docker-py`
- For more information related to testing outside the scope of this README,
refer to
[Run tests and test documentation](https://docs.docker.com/opensource/project/test-and-docs/)
## Release (release.sh)
Releases any bundles built by `make` on a public AWS S3 bucket.
For information regarding configuration, please view `release.sh`.
## Vendor (vendor.sh)
A shell script that is a wrapper around Vndr. For information on how to use
this, please refer to [vndr's README](https://github.com/LK4D4/vndr/blob/master/README.md)

69
vendor/github.com/docker/docker/hack/integration-cli-on-swarm/README.md generated vendored
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@ -1,69 +0,0 @@
# Integration Testing on Swarm
IT on Swarm allows you to execute integration test in parallel across a Docker Swarm cluster
## Architecture
### Master service
- Works as a funker caller
- Calls a worker funker (`-worker-service`) with a chunk of `-check.f` filter strings (passed as a file via `-input` flag, typically `/mnt/input`)
### Worker service
- Works as a funker callee
- Executes an equivalent of `TESTFLAGS=-check.f TestFoo|TestBar|TestBaz ... make test-integration-cli` using the bind-mounted API socket (`docker.sock`)
### Client
- Controls master and workers via `docker stack`
- No need to have a local daemon
Typically, the master and workers are supposed to be running on a cloud environment,
while the client is supposed to be running on a laptop, e.g. Docker for Mac/Windows.
## Requirement
- Docker daemon 1.13 or later
- Private registry for distributed execution with multiple nodes
## Usage
### Step 1: Prepare images
$ make build-integration-cli-on-swarm
Following environment variables are known to work in this step:
- `BUILDFLAGS`
- `DOCKER_INCREMENTAL_BINARY`
Note: during the transition into Moby Project, you might need to create a symbolic link `$GOPATH/src/github.com/docker/docker` to `$GOPATH/src/github.com/moby/moby`.
### Step 2: Execute tests
$ ./hack/integration-cli-on-swarm/integration-cli-on-swarm -replicas 40 -push-worker-image YOUR_REGISTRY.EXAMPLE.COM/integration-cli-worker:latest
Following environment variables are known to work in this step:
- `DOCKER_GRAPHDRIVER`
- `DOCKER_EXPERIMENTAL`
#### Flags
Basic flags:
- `-replicas N`: the number of worker service replicas. i.e. degree of parallelism.
- `-chunks N`: the number of chunks. By default, `chunks` == `replicas`.
- `-push-worker-image REGISTRY/IMAGE:TAG`: push the worker image to the registry. Note that if you have only single node and hence you do not need a private registry, you do not need to specify `-push-worker-image`.
Experimental flags for mitigating makespan nonuniformity:
- `-shuffle`: Shuffle the test filter strings
Flags for debugging IT on Swarm itself:
- `-rand-seed N`: the random seed. This flag is useful for deterministic replaying. By default(0), the timestamp is used.
- `-filters-file FILE`: the file contains `-check.f` strings. By default, the file is automatically generated.
- `-dry-run`: skip the actual workload
- `keep-executor`: do not auto-remove executor containers, which is used for running privileged programs on Swarm

2
vendor/github.com/docker/docker/hack/integration-cli-on-swarm/agent/vendor.conf generated vendored
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@ -1,2 +0,0 @@
# dependencies specific to worker (i.e. github.com/docker/docker/...) are not vendored here
github.com/bfirsh/funker-go eaa0a2e06f30e72c9a0b7f858951e581e26ef773

97
vendor/github.com/docker/docker/pkg/archive/example_changes.go generated vendored
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@ -1,97 +0,0 @@
// +build ignore
// Simple tool to create an archive stream from an old and new directory
//
// By default it will stream the comparison of two temporary directories with junk files
package main
import (
"flag"
"fmt"
"io"
"io/ioutil"
"os"
"path"
"github.com/docker/docker/pkg/archive"
"github.com/sirupsen/logrus"
)
var (
flDebug = flag.Bool("D", false, "debugging output")
flNewDir = flag.String("newdir", "", "")
flOldDir = flag.String("olddir", "", "")
log = logrus.New()
)
func main() {
flag.Usage = func() {
fmt.Println("Produce a tar from comparing two directory paths. By default a demo tar is created of around 200 files (including hardlinks)")
fmt.Printf("%s [OPTIONS]\n", os.Args[0])
flag.PrintDefaults()
}
flag.Parse()
log.Out = os.Stderr
if (len(os.Getenv("DEBUG")) > 0) || *flDebug {
logrus.SetLevel(logrus.DebugLevel)
}
var newDir, oldDir string
if len(*flNewDir) == 0 {
var err error
newDir, err = ioutil.TempDir("", "docker-test-newDir")
if err != nil {
log.Fatal(err)
}
defer os.RemoveAll(newDir)
if _, err := prepareUntarSourceDirectory(100, newDir, true); err != nil {
log.Fatal(err)
}
} else {
newDir = *flNewDir
}
if len(*flOldDir) == 0 {
oldDir, err := ioutil.TempDir("", "docker-test-oldDir")
if err != nil {
log.Fatal(err)
}
defer os.RemoveAll(oldDir)
} else {
oldDir = *flOldDir
}
changes, err := archive.ChangesDirs(newDir, oldDir)
if err != nil {
log.Fatal(err)
}
a, err := archive.ExportChanges(newDir, changes)
if err != nil {
log.Fatal(err)
}
defer a.Close()
i, err := io.Copy(os.Stdout, a)
if err != nil && err != io.EOF {
log.Fatal(err)
}
fmt.Fprintf(os.Stderr, "wrote archive of %d bytes", i)
}
func prepareUntarSourceDirectory(numberOfFiles int, targetPath string, makeLinks bool) (int, error) {
fileData := []byte("fooo")
for n := 0; n < numberOfFiles; n++ {
fileName := fmt.Sprintf("file-%d", n)
if err := ioutil.WriteFile(path.Join(targetPath, fileName), fileData, 0700); err != nil {
return 0, err
}
if makeLinks {
if err := os.Link(path.Join(targetPath, fileName), path.Join(targetPath, fileName+"-link")); err != nil {
return 0, err
}
}
}
totalSize := numberOfFiles * len(fileData)
return totalSize, nil
}

76
vendor/github.com/google/btree/btree_mem.go generated vendored
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@ -1,76 +0,0 @@
// Copyright 2014 Google Inc.
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
// +build ignore
// This binary compares memory usage between btree and gollrb.
package main
import (
"flag"
"fmt"
"math/rand"
"runtime"
"time"
"github.com/google/btree"
"github.com/petar/GoLLRB/llrb"
)
var (
size = flag.Int("size", 1000000, "size of the tree to build")
degree = flag.Int("degree", 8, "degree of btree")
gollrb = flag.Bool("llrb", false, "use llrb instead of btree")
)
func main() {
flag.Parse()
vals := rand.Perm(*size)
var t, v interface{}
v = vals
var stats runtime.MemStats
for i := 0; i < 10; i++ {
runtime.GC()
}
fmt.Println("-------- BEFORE ----------")
runtime.ReadMemStats(&stats)
fmt.Printf("%+v\n", stats)
start := time.Now()
if *gollrb {
tr := llrb.New()
for _, v := range vals {
tr.ReplaceOrInsert(llrb.Int(v))
}
t = tr // keep it around
} else {
tr := btree.New(*degree)
for _, v := range vals {
tr.ReplaceOrInsert(btree.Int(v))
}
t = tr // keep it around
}
fmt.Printf("%v inserts in %v\n", *size, time.Since(start))
fmt.Println("-------- AFTER ----------")
runtime.ReadMemStats(&stats)
fmt.Printf("%+v\n", stats)
for i := 0; i < 10; i++ {
runtime.GC()
}
fmt.Println("-------- AFTER GC ----------")
runtime.ReadMemStats(&stats)
fmt.Printf("%+v\n", stats)
if t == v {
fmt.Println("to make sure vals and tree aren't GC'd")
}
}

93
vendor/golang.org/x/sys/unix/mkpost.go generated vendored
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@ -1,93 +0,0 @@
// Copyright 2016 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
// mkpost processes the output of cgo -godefs to
// modify the generated types. It is used to clean up
// the sys API in an architecture specific manner.
//
// mkpost is run after cgo -godefs; see README.md.
package main
import (
"bytes"
"fmt"
"go/format"
"io/ioutil"
"log"
"os"
"regexp"
)
func main() {
// Get the OS and architecture (using GOARCH_TARGET if it exists)
goos := os.Getenv("GOOS")
goarch := os.Getenv("GOARCH_TARGET")
if goarch == "" {
goarch = os.Getenv("GOARCH")
}
// Check that we are using the new build system if we should be.
if goos == "linux" && goarch != "sparc64" {
if os.Getenv("GOLANG_SYS_BUILD") != "docker" {
os.Stderr.WriteString("In the new build system, mkpost should not be called directly.\n")
os.Stderr.WriteString("See README.md\n")
os.Exit(1)
}
}
b, err := ioutil.ReadAll(os.Stdin)
if err != nil {
log.Fatal(err)
}
// If we have empty Ptrace structs, we should delete them. Only s390x emits
// nonempty Ptrace structs.
ptraceRexexp := regexp.MustCompile(`type Ptrace((Psw|Fpregs|Per) struct {\s*})`)
b = ptraceRexexp.ReplaceAll(b, nil)
// Replace the control_regs union with a blank identifier for now.
controlRegsRegex := regexp.MustCompile(`(Control_regs)\s+\[0\]uint64`)
b = controlRegsRegex.ReplaceAll(b, []byte("_ [0]uint64"))
// Remove fields that are added by glibc
// Note that this is unstable as the identifers are private.
removeFieldsRegex := regexp.MustCompile(`X__glibc\S*`)
b = removeFieldsRegex.ReplaceAll(b, []byte("_"))
// Convert [65]int8 to [65]byte in Utsname members to simplify
// conversion to string; see golang.org/issue/20753
convertUtsnameRegex := regexp.MustCompile(`((Sys|Node|Domain)name|Release|Version|Machine)(\s+)\[(\d+)\]u?int8`)
b = convertUtsnameRegex.ReplaceAll(b, []byte("$1$3[$4]byte"))
// We refuse to export private fields on s390x
if goarch == "s390x" && goos == "linux" {
// Remove cgo padding fields
removeFieldsRegex := regexp.MustCompile(`Pad_cgo_\d+`)
b = removeFieldsRegex.ReplaceAll(b, []byte("_"))
// Remove padding, hidden, or unused fields
removeFieldsRegex = regexp.MustCompile(`X_\S+`)
b = removeFieldsRegex.ReplaceAll(b, []byte("_"))
}
// Remove the first line of warning from cgo
b = b[bytes.IndexByte(b, '\n')+1:]
// Modify the command in the header to include:
// mkpost, our own warning, and a build tag.
replacement := fmt.Sprintf(`$1 | go run mkpost.go
// Code generated by the command above; see README.md. DO NOT EDIT.
// +build %s,%s`, goarch, goos)
cgoCommandRegex := regexp.MustCompile(`(cgo -godefs .*)`)
b = cgoCommandRegex.ReplaceAll(b, []byte(replacement))
// gofmt
b, err = format.Source(b)
if err != nil {
log.Fatal(err)
}
os.Stdout.Write(b)
}

272
vendor/golang.org/x/sys/unix/types_darwin.go generated vendored
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@ -1,272 +0,0 @@
// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
/*
Input to cgo -godefs. See README.md
*/
// +godefs map struct_in_addr [4]byte /* in_addr */
// +godefs map struct_in6_addr [16]byte /* in6_addr */
package unix
/*
#define __DARWIN_UNIX03 0
#define KERNEL
#define _DARWIN_USE_64_BIT_INODE
#include <dirent.h>
#include <fcntl.h>
#include <poll.h>
#include <signal.h>
#include <termios.h>
#include <unistd.h>
#include <mach/mach.h>
#include <mach/message.h>
#include <sys/event.h>
#include <sys/mman.h>
#include <sys/mount.h>
#include <sys/param.h>
#include <sys/ptrace.h>
#include <sys/resource.h>
#include <sys/select.h>
#include <sys/signal.h>
#include <sys/socket.h>
#include <sys/stat.h>
#include <sys/time.h>
#include <sys/types.h>
#include <sys/uio.h>
#include <sys/un.h>
#include <sys/wait.h>
#include <net/bpf.h>
#include <net/if.h>
#include <net/if_dl.h>
#include <net/if_var.h>
#include <net/route.h>
#include <netinet/in.h>
#include <netinet/icmp6.h>
#include <netinet/tcp.h>
enum {
sizeofPtr = sizeof(void*),
};
union sockaddr_all {
struct sockaddr s1; // this one gets used for fields
struct sockaddr_in s2; // these pad it out
struct sockaddr_in6 s3;
struct sockaddr_un s4;
struct sockaddr_dl s5;
};
struct sockaddr_any {
struct sockaddr addr;
char pad[sizeof(union sockaddr_all) - sizeof(struct sockaddr)];
};
*/
import "C"
// Machine characteristics; for internal use.
const (
sizeofPtr = C.sizeofPtr
sizeofShort = C.sizeof_short
sizeofInt = C.sizeof_int
sizeofLong = C.sizeof_long
sizeofLongLong = C.sizeof_longlong
)
// Basic types
type (
_C_short C.short
_C_int C.int
_C_long C.long
_C_long_long C.longlong
)
// Time
type Timespec C.struct_timespec
type Timeval C.struct_timeval
type Timeval32 C.struct_timeval32
// Processes
type Rusage C.struct_rusage
type Rlimit C.struct_rlimit
type _Gid_t C.gid_t
// Files
type Stat_t C.struct_stat64
type Statfs_t C.struct_statfs64
type Flock_t C.struct_flock
type Fstore_t C.struct_fstore
type Radvisory_t C.struct_radvisory
type Fbootstraptransfer_t C.struct_fbootstraptransfer
type Log2phys_t C.struct_log2phys
type Fsid C.struct_fsid
type Dirent C.struct_dirent
// Sockets
type RawSockaddrInet4 C.struct_sockaddr_in
type RawSockaddrInet6 C.struct_sockaddr_in6
type RawSockaddrUnix C.struct_sockaddr_un
type RawSockaddrDatalink C.struct_sockaddr_dl
type RawSockaddr C.struct_sockaddr
type RawSockaddrAny C.struct_sockaddr_any
type _Socklen C.socklen_t
type Linger C.struct_linger
type Iovec C.struct_iovec
type IPMreq C.struct_ip_mreq
type IPv6Mreq C.struct_ipv6_mreq
type Msghdr C.struct_msghdr
type Cmsghdr C.struct_cmsghdr
type Inet4Pktinfo C.struct_in_pktinfo
type Inet6Pktinfo C.struct_in6_pktinfo
type IPv6MTUInfo C.struct_ip6_mtuinfo
type ICMPv6Filter C.struct_icmp6_filter
const (
SizeofSockaddrInet4 = C.sizeof_struct_sockaddr_in
SizeofSockaddrInet6 = C.sizeof_struct_sockaddr_in6
SizeofSockaddrAny = C.sizeof_struct_sockaddr_any
SizeofSockaddrUnix = C.sizeof_struct_sockaddr_un
SizeofSockaddrDatalink = C.sizeof_struct_sockaddr_dl
SizeofLinger = C.sizeof_struct_linger
SizeofIPMreq = C.sizeof_struct_ip_mreq
SizeofIPv6Mreq = C.sizeof_struct_ipv6_mreq
SizeofMsghdr = C.sizeof_struct_msghdr
SizeofCmsghdr = C.sizeof_struct_cmsghdr
SizeofInet4Pktinfo = C.sizeof_struct_in_pktinfo
SizeofInet6Pktinfo = C.sizeof_struct_in6_pktinfo
SizeofIPv6MTUInfo = C.sizeof_struct_ip6_mtuinfo
SizeofICMPv6Filter = C.sizeof_struct_icmp6_filter
)
// Ptrace requests
const (
PTRACE_TRACEME = C.PT_TRACE_ME
PTRACE_CONT = C.PT_CONTINUE
PTRACE_KILL = C.PT_KILL
)
// Events (kqueue, kevent)
type Kevent_t C.struct_kevent
// Select
type FdSet C.fd_set
// Routing and interface messages
const (
SizeofIfMsghdr = C.sizeof_struct_if_msghdr
SizeofIfData = C.sizeof_struct_if_data
SizeofIfaMsghdr = C.sizeof_struct_ifa_msghdr
SizeofIfmaMsghdr = C.sizeof_struct_ifma_msghdr
SizeofIfmaMsghdr2 = C.sizeof_struct_ifma_msghdr2
SizeofRtMsghdr = C.sizeof_struct_rt_msghdr
SizeofRtMetrics = C.sizeof_struct_rt_metrics
)
type IfMsghdr C.struct_if_msghdr
type IfData C.struct_if_data
type IfaMsghdr C.struct_ifa_msghdr
type IfmaMsghdr C.struct_ifma_msghdr
type IfmaMsghdr2 C.struct_ifma_msghdr2
type RtMsghdr C.struct_rt_msghdr
type RtMetrics C.struct_rt_metrics
// Berkeley packet filter
const (
SizeofBpfVersion = C.sizeof_struct_bpf_version
SizeofBpfStat = C.sizeof_struct_bpf_stat
SizeofBpfProgram = C.sizeof_struct_bpf_program
SizeofBpfInsn = C.sizeof_struct_bpf_insn
SizeofBpfHdr = C.sizeof_struct_bpf_hdr
)
type BpfVersion C.struct_bpf_version
type BpfStat C.struct_bpf_stat
type BpfProgram C.struct_bpf_program
type BpfInsn C.struct_bpf_insn
type BpfHdr C.struct_bpf_hdr
// Terminal handling
type Termios C.struct_termios
type Winsize C.struct_winsize
// fchmodat-like syscalls.
const (
AT_FDCWD = C.AT_FDCWD
AT_REMOVEDIR = C.AT_REMOVEDIR
AT_SYMLINK_FOLLOW = C.AT_SYMLINK_FOLLOW
AT_SYMLINK_NOFOLLOW = C.AT_SYMLINK_NOFOLLOW
)
// poll
type PollFd C.struct_pollfd
const (
POLLERR = C.POLLERR
POLLHUP = C.POLLHUP
POLLIN = C.POLLIN
POLLNVAL = C.POLLNVAL
POLLOUT = C.POLLOUT
POLLPRI = C.POLLPRI
POLLRDBAND = C.POLLRDBAND
POLLRDNORM = C.POLLRDNORM
POLLWRBAND = C.POLLWRBAND
POLLWRNORM = C.POLLWRNORM
)

267
vendor/golang.org/x/sys/unix/types_dragonfly.go generated vendored
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@ -1,267 +0,0 @@
// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
/*
Input to cgo -godefs. See README.md
*/
// +godefs map struct_in_addr [4]byte /* in_addr */
// +godefs map struct_in6_addr [16]byte /* in6_addr */
package unix
/*
#define KERNEL
#include <dirent.h>
#include <fcntl.h>
#include <poll.h>
#include <signal.h>
#include <termios.h>
#include <stdio.h>
#include <unistd.h>
#include <sys/event.h>
#include <sys/mman.h>
#include <sys/mount.h>
#include <sys/param.h>
#include <sys/ptrace.h>
#include <sys/resource.h>
#include <sys/select.h>
#include <sys/signal.h>
#include <sys/socket.h>
#include <sys/stat.h>
#include <sys/time.h>
#include <sys/types.h>
#include <sys/un.h>
#include <sys/wait.h>
#include <net/bpf.h>
#include <net/if.h>
#include <net/if_dl.h>
#include <net/route.h>
#include <netinet/in.h>
#include <netinet/icmp6.h>
#include <netinet/tcp.h>
enum {
sizeofPtr = sizeof(void*),
};
union sockaddr_all {
struct sockaddr s1; // this one gets used for fields
struct sockaddr_in s2; // these pad it out
struct sockaddr_in6 s3;
struct sockaddr_un s4;
struct sockaddr_dl s5;
};
struct sockaddr_any {
struct sockaddr addr;
char pad[sizeof(union sockaddr_all) - sizeof(struct sockaddr)];
};
*/
import "C"
// Machine characteristics; for internal use.
const (
sizeofPtr = C.sizeofPtr
sizeofShort = C.sizeof_short
sizeofInt = C.sizeof_int
sizeofLong = C.sizeof_long
sizeofLongLong = C.sizeof_longlong
)
// Basic types
type (
_C_short C.short
_C_int C.int
_C_long C.long
_C_long_long C.longlong
)
// Time
type Timespec C.struct_timespec
type Timeval C.struct_timeval
// Processes
type Rusage C.struct_rusage
type Rlimit C.struct_rlimit
type _Gid_t C.gid_t
// Files
const ( // Directory mode bits
S_IFMT = C.S_IFMT
S_IFIFO = C.S_IFIFO
S_IFCHR = C.S_IFCHR
S_IFDIR = C.S_IFDIR
S_IFBLK = C.S_IFBLK
S_IFREG = C.S_IFREG
S_IFLNK = C.S_IFLNK
S_IFSOCK = C.S_IFSOCK
S_ISUID = C.S_ISUID
S_ISGID = C.S_ISGID
S_ISVTX = C.S_ISVTX
S_IRUSR = C.S_IRUSR
S_IWUSR = C.S_IWUSR
S_IXUSR = C.S_IXUSR
)
type Stat_t C.struct_stat
type Statfs_t C.struct_statfs
type Flock_t C.struct_flock
type Dirent C.struct_dirent
type Fsid C.struct_fsid
// Sockets
type RawSockaddrInet4 C.struct_sockaddr_in
type RawSockaddrInet6 C.struct_sockaddr_in6
type RawSockaddrUnix C.struct_sockaddr_un
type RawSockaddrDatalink C.struct_sockaddr_dl
type RawSockaddr C.struct_sockaddr
type RawSockaddrAny C.struct_sockaddr_any
type _Socklen C.socklen_t
type Linger C.struct_linger
type Iovec C.struct_iovec
type IPMreq C.struct_ip_mreq
type IPv6Mreq C.struct_ipv6_mreq
type Msghdr C.struct_msghdr
type Cmsghdr C.struct_cmsghdr
type Inet6Pktinfo C.struct_in6_pktinfo
type IPv6MTUInfo C.struct_ip6_mtuinfo
type ICMPv6Filter C.struct_icmp6_filter
const (
SizeofSockaddrInet4 = C.sizeof_struct_sockaddr_in
SizeofSockaddrInet6 = C.sizeof_struct_sockaddr_in6
SizeofSockaddrAny = C.sizeof_struct_sockaddr_any
SizeofSockaddrUnix = C.sizeof_struct_sockaddr_un
SizeofSockaddrDatalink = C.sizeof_struct_sockaddr_dl
SizeofLinger = C.sizeof_struct_linger
SizeofIPMreq = C.sizeof_struct_ip_mreq
SizeofIPv6Mreq = C.sizeof_struct_ipv6_mreq
SizeofMsghdr = C.sizeof_struct_msghdr
SizeofCmsghdr = C.sizeof_struct_cmsghdr
SizeofInet6Pktinfo = C.sizeof_struct_in6_pktinfo
SizeofIPv6MTUInfo = C.sizeof_struct_ip6_mtuinfo
SizeofICMPv6Filter = C.sizeof_struct_icmp6_filter
)
// Ptrace requests
const (
PTRACE_TRACEME = C.PT_TRACE_ME
PTRACE_CONT = C.PT_CONTINUE
PTRACE_KILL = C.PT_KILL
)
// Events (kqueue, kevent)
type Kevent_t C.struct_kevent
// Select
type FdSet C.fd_set
// Routing and interface messages
const (
SizeofIfMsghdr = C.sizeof_struct_if_msghdr
SizeofIfData = C.sizeof_struct_if_data
SizeofIfaMsghdr = C.sizeof_struct_ifa_msghdr
SizeofIfmaMsghdr = C.sizeof_struct_ifma_msghdr
SizeofIfAnnounceMsghdr = C.sizeof_struct_if_announcemsghdr
SizeofRtMsghdr = C.sizeof_struct_rt_msghdr
SizeofRtMetrics = C.sizeof_struct_rt_metrics
)
type IfMsghdr C.struct_if_msghdr
type IfData C.struct_if_data
type IfaMsghdr C.struct_ifa_msghdr
type IfmaMsghdr C.struct_ifma_msghdr
type IfAnnounceMsghdr C.struct_if_announcemsghdr
type RtMsghdr C.struct_rt_msghdr
type RtMetrics C.struct_rt_metrics
// Berkeley packet filter
const (
SizeofBpfVersion = C.sizeof_struct_bpf_version
SizeofBpfStat = C.sizeof_struct_bpf_stat
SizeofBpfProgram = C.sizeof_struct_bpf_program
SizeofBpfInsn = C.sizeof_struct_bpf_insn
SizeofBpfHdr = C.sizeof_struct_bpf_hdr
)
type BpfVersion C.struct_bpf_version
type BpfStat C.struct_bpf_stat
type BpfProgram C.struct_bpf_program
type BpfInsn C.struct_bpf_insn
type BpfHdr C.struct_bpf_hdr
// Terminal handling
type Termios C.struct_termios
// fchmodat-like syscalls.
const (
AT_FDCWD = C.AT_FDCWD
AT_SYMLINK_NOFOLLOW = C.AT_SYMLINK_NOFOLLOW
)
// poll
type PollFd C.struct_pollfd
const (
POLLERR = C.POLLERR
POLLHUP = C.POLLHUP
POLLIN = C.POLLIN
POLLNVAL = C.POLLNVAL
POLLOUT = C.POLLOUT
POLLPRI = C.POLLPRI
POLLRDBAND = C.POLLRDBAND
POLLRDNORM = C.POLLRDNORM
POLLWRBAND = C.POLLWRBAND
POLLWRNORM = C.POLLWRNORM
)

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// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
/*
Input to cgo -godefs. See README.md
*/
// +godefs map struct_in_addr [4]byte /* in_addr */
// +godefs map struct_in6_addr [16]byte /* in6_addr */
package unix
/*
#define KERNEL
#include <dirent.h>
#include <fcntl.h>
#include <poll.h>
#include <signal.h>
#include <termios.h>
#include <stdio.h>
#include <unistd.h>
#include <sys/capability.h>
#include <sys/event.h>
#include <sys/mman.h>
#include <sys/mount.h>
#include <sys/param.h>
#include <sys/ptrace.h>
#include <sys/resource.h>
#include <sys/select.h>
#include <sys/signal.h>
#include <sys/socket.h>
#include <sys/stat.h>
#include <sys/time.h>
#include <sys/types.h>
#include <sys/un.h>
#include <sys/wait.h>
#include <net/bpf.h>
#include <net/if.h>
#include <net/if_dl.h>
#include <net/route.h>
#include <netinet/in.h>
#include <netinet/icmp6.h>
#include <netinet/tcp.h>
enum {
sizeofPtr = sizeof(void*),
};
union sockaddr_all {
struct sockaddr s1; // this one gets used for fields
struct sockaddr_in s2; // these pad it out
struct sockaddr_in6 s3;
struct sockaddr_un s4;
struct sockaddr_dl s5;
};
struct sockaddr_any {
struct sockaddr addr;
char pad[sizeof(union sockaddr_all) - sizeof(struct sockaddr)];
};
// This structure is a duplicate of stat on FreeBSD 8-STABLE.
// See /usr/include/sys/stat.h.
struct stat8 {
#undef st_atimespec st_atim
#undef st_mtimespec st_mtim
#undef st_ctimespec st_ctim
#undef st_birthtimespec st_birthtim
__dev_t st_dev;
ino_t st_ino;
mode_t st_mode;
nlink_t st_nlink;
uid_t st_uid;
gid_t st_gid;
__dev_t st_rdev;
#if __BSD_VISIBLE
struct timespec st_atimespec;
struct timespec st_mtimespec;
struct timespec st_ctimespec;
#else
time_t st_atime;
long __st_atimensec;
time_t st_mtime;
long __st_mtimensec;
time_t st_ctime;
long __st_ctimensec;
#endif
off_t st_size;
blkcnt_t st_blocks;
blksize_t st_blksize;
fflags_t st_flags;
__uint32_t st_gen;
__int32_t st_lspare;
#if __BSD_VISIBLE
struct timespec st_birthtimespec;
unsigned int :(8 / 2) * (16 - (int)sizeof(struct timespec));
unsigned int :(8 / 2) * (16 - (int)sizeof(struct timespec));
#else
time_t st_birthtime;
long st_birthtimensec;
unsigned int :(8 / 2) * (16 - (int)sizeof(struct __timespec));
unsigned int :(8 / 2) * (16 - (int)sizeof(struct __timespec));
#endif
};
// This structure is a duplicate of if_data on FreeBSD 8-STABLE.
// See /usr/include/net/if.h.
struct if_data8 {
u_char ifi_type;
u_char ifi_physical;
u_char ifi_addrlen;
u_char ifi_hdrlen;
u_char ifi_link_state;
u_char ifi_spare_char1;
u_char ifi_spare_char2;
u_char ifi_datalen;
u_long ifi_mtu;
u_long ifi_metric;
u_long ifi_baudrate;
u_long ifi_ipackets;
u_long ifi_ierrors;
u_long ifi_opackets;
u_long ifi_oerrors;
u_long ifi_collisions;
u_long ifi_ibytes;
u_long ifi_obytes;
u_long ifi_imcasts;
u_long ifi_omcasts;
u_long ifi_iqdrops;
u_long ifi_noproto;
u_long ifi_hwassist;
// FIXME: these are now unions, so maybe need to change definitions?
#undef ifi_epoch
time_t ifi_epoch;
#undef ifi_lastchange
struct timeval ifi_lastchange;
};
// This structure is a duplicate of if_msghdr on FreeBSD 8-STABLE.
// See /usr/include/net/if.h.
struct if_msghdr8 {
u_short ifm_msglen;
u_char ifm_version;
u_char ifm_type;
int ifm_addrs;
int ifm_flags;
u_short ifm_index;
struct if_data8 ifm_data;
};
*/
import "C"
// Machine characteristics; for internal use.
const (
sizeofPtr = C.sizeofPtr
sizeofShort = C.sizeof_short
sizeofInt = C.sizeof_int
sizeofLong = C.sizeof_long
sizeofLongLong = C.sizeof_longlong
)
// Basic types
type (
_C_short C.short
_C_int C.int
_C_long C.long
_C_long_long C.longlong
)
// Time
type Timespec C.struct_timespec
type Timeval C.struct_timeval
// Processes
type Rusage C.struct_rusage
type Rlimit C.struct_rlimit
type _Gid_t C.gid_t
// Files
const ( // Directory mode bits
S_IFMT = C.S_IFMT
S_IFIFO = C.S_IFIFO
S_IFCHR = C.S_IFCHR
S_IFDIR = C.S_IFDIR
S_IFBLK = C.S_IFBLK
S_IFREG = C.S_IFREG
S_IFLNK = C.S_IFLNK
S_IFSOCK = C.S_IFSOCK
S_ISUID = C.S_ISUID
S_ISGID = C.S_ISGID
S_ISVTX = C.S_ISVTX
S_IRUSR = C.S_IRUSR
S_IWUSR = C.S_IWUSR
S_IXUSR = C.S_IXUSR
)
type Stat_t C.struct_stat8
type Statfs_t C.struct_statfs
type Flock_t C.struct_flock
type Dirent C.struct_dirent
type Fsid C.struct_fsid
// Advice to Fadvise
const (
FADV_NORMAL = C.POSIX_FADV_NORMAL
FADV_RANDOM = C.POSIX_FADV_RANDOM
FADV_SEQUENTIAL = C.POSIX_FADV_SEQUENTIAL
FADV_WILLNEED = C.POSIX_FADV_WILLNEED
FADV_DONTNEED = C.POSIX_FADV_DONTNEED
FADV_NOREUSE = C.POSIX_FADV_NOREUSE
)
// Sockets
type RawSockaddrInet4 C.struct_sockaddr_in
type RawSockaddrInet6 C.struct_sockaddr_in6
type RawSockaddrUnix C.struct_sockaddr_un
type RawSockaddrDatalink C.struct_sockaddr_dl
type RawSockaddr C.struct_sockaddr
type RawSockaddrAny C.struct_sockaddr_any
type _Socklen C.socklen_t
type Linger C.struct_linger
type Iovec C.struct_iovec
type IPMreq C.struct_ip_mreq
type IPMreqn C.struct_ip_mreqn
type IPv6Mreq C.struct_ipv6_mreq
type Msghdr C.struct_msghdr
type Cmsghdr C.struct_cmsghdr
type Inet6Pktinfo C.struct_in6_pktinfo
type IPv6MTUInfo C.struct_ip6_mtuinfo
type ICMPv6Filter C.struct_icmp6_filter
const (
SizeofSockaddrInet4 = C.sizeof_struct_sockaddr_in
SizeofSockaddrInet6 = C.sizeof_struct_sockaddr_in6
SizeofSockaddrAny = C.sizeof_struct_sockaddr_any
SizeofSockaddrUnix = C.sizeof_struct_sockaddr_un
SizeofSockaddrDatalink = C.sizeof_struct_sockaddr_dl
SizeofLinger = C.sizeof_struct_linger
SizeofIPMreq = C.sizeof_struct_ip_mreq
SizeofIPMreqn = C.sizeof_struct_ip_mreqn
SizeofIPv6Mreq = C.sizeof_struct_ipv6_mreq
SizeofMsghdr = C.sizeof_struct_msghdr
SizeofCmsghdr = C.sizeof_struct_cmsghdr
SizeofInet6Pktinfo = C.sizeof_struct_in6_pktinfo
SizeofIPv6MTUInfo = C.sizeof_struct_ip6_mtuinfo
SizeofICMPv6Filter = C.sizeof_struct_icmp6_filter
)
// Ptrace requests
const (
PTRACE_TRACEME = C.PT_TRACE_ME
PTRACE_CONT = C.PT_CONTINUE
PTRACE_KILL = C.PT_KILL
)
// Events (kqueue, kevent)
type Kevent_t C.struct_kevent
// Select
type FdSet C.fd_set
// Routing and interface messages
const (
sizeofIfMsghdr = C.sizeof_struct_if_msghdr
SizeofIfMsghdr = C.sizeof_struct_if_msghdr8
sizeofIfData = C.sizeof_struct_if_data
SizeofIfData = C.sizeof_struct_if_data8
SizeofIfaMsghdr = C.sizeof_struct_ifa_msghdr
SizeofIfmaMsghdr = C.sizeof_struct_ifma_msghdr
SizeofIfAnnounceMsghdr = C.sizeof_struct_if_announcemsghdr
SizeofRtMsghdr = C.sizeof_struct_rt_msghdr
SizeofRtMetrics = C.sizeof_struct_rt_metrics
)
type ifMsghdr C.struct_if_msghdr
type IfMsghdr C.struct_if_msghdr8
type ifData C.struct_if_data
type IfData C.struct_if_data8
type IfaMsghdr C.struct_ifa_msghdr
type IfmaMsghdr C.struct_ifma_msghdr
type IfAnnounceMsghdr C.struct_if_announcemsghdr
type RtMsghdr C.struct_rt_msghdr
type RtMetrics C.struct_rt_metrics
// Berkeley packet filter
const (
SizeofBpfVersion = C.sizeof_struct_bpf_version
SizeofBpfStat = C.sizeof_struct_bpf_stat
SizeofBpfZbuf = C.sizeof_struct_bpf_zbuf
SizeofBpfProgram = C.sizeof_struct_bpf_program
SizeofBpfInsn = C.sizeof_struct_bpf_insn
SizeofBpfHdr = C.sizeof_struct_bpf_hdr
SizeofBpfZbufHeader = C.sizeof_struct_bpf_zbuf_header
)
type BpfVersion C.struct_bpf_version
type BpfStat C.struct_bpf_stat
type BpfZbuf C.struct_bpf_zbuf
type BpfProgram C.struct_bpf_program
type BpfInsn C.struct_bpf_insn
type BpfHdr C.struct_bpf_hdr
type BpfZbufHeader C.struct_bpf_zbuf_header
// Terminal handling
type Termios C.struct_termios
type Winsize C.struct_winsize
// fchmodat-like syscalls.
const (
AT_FDCWD = C.AT_FDCWD
AT_REMOVEDIR = C.AT_REMOVEDIR
AT_SYMLINK_FOLLOW = C.AT_SYMLINK_FOLLOW
AT_SYMLINK_NOFOLLOW = C.AT_SYMLINK_NOFOLLOW
)
// poll
type PollFd C.struct_pollfd
const (
POLLERR = C.POLLERR
POLLHUP = C.POLLHUP
POLLIN = C.POLLIN
POLLINIGNEOF = C.POLLINIGNEOF
POLLNVAL = C.POLLNVAL
POLLOUT = C.POLLOUT
POLLPRI = C.POLLPRI
POLLRDBAND = C.POLLRDBAND
POLLRDNORM = C.POLLRDNORM
POLLWRBAND = C.POLLWRBAND
POLLWRNORM = C.POLLWRNORM
)
// Capabilities
type CapRights C.struct_cap_rights

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// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
/*
Input to cgo -godefs. See README.md
*/
// +godefs map struct_in_addr [4]byte /* in_addr */
// +godefs map struct_in6_addr [16]byte /* in6_addr */
package unix
/*
#define KERNEL
#include <dirent.h>
#include <fcntl.h>
#include <poll.h>
#include <signal.h>
#include <termios.h>
#include <stdio.h>
#include <unistd.h>
#include <sys/param.h>
#include <sys/types.h>
#include <sys/event.h>
#include <sys/mman.h>
#include <sys/mount.h>
#include <sys/ptrace.h>
#include <sys/resource.h>
#include <sys/select.h>
#include <sys/signal.h>
#include <sys/socket.h>
#include <sys/stat.h>
#include <sys/sysctl.h>
#include <sys/time.h>
#include <sys/uio.h>
#include <sys/un.h>
#include <sys/wait.h>
#include <net/bpf.h>
#include <net/if.h>
#include <net/if_dl.h>
#include <net/route.h>
#include <netinet/in.h>
#include <netinet/icmp6.h>
#include <netinet/tcp.h>
enum {
sizeofPtr = sizeof(void*),
};
union sockaddr_all {
struct sockaddr s1; // this one gets used for fields
struct sockaddr_in s2; // these pad it out
struct sockaddr_in6 s3;
struct sockaddr_un s4;
struct sockaddr_dl s5;
};
struct sockaddr_any {
struct sockaddr addr;
char pad[sizeof(union sockaddr_all) - sizeof(struct sockaddr)];
};
*/
import "C"
// Machine characteristics; for internal use.
const (
sizeofPtr = C.sizeofPtr
sizeofShort = C.sizeof_short
sizeofInt = C.sizeof_int
sizeofLong = C.sizeof_long
sizeofLongLong = C.sizeof_longlong
)
// Basic types
type (
_C_short C.short
_C_int C.int
_C_long C.long
_C_long_long C.longlong
)
// Time
type Timespec C.struct_timespec
type Timeval C.struct_timeval
// Processes
type Rusage C.struct_rusage
type Rlimit C.struct_rlimit
type _Gid_t C.gid_t
// Files
type Stat_t C.struct_stat
type Statfs_t C.struct_statfs
type Flock_t C.struct_flock
type Dirent C.struct_dirent
type Fsid C.fsid_t
// Sockets
type RawSockaddrInet4 C.struct_sockaddr_in
type RawSockaddrInet6 C.struct_sockaddr_in6
type RawSockaddrUnix C.struct_sockaddr_un
type RawSockaddrDatalink C.struct_sockaddr_dl
type RawSockaddr C.struct_sockaddr
type RawSockaddrAny C.struct_sockaddr_any
type _Socklen C.socklen_t
type Linger C.struct_linger
type Iovec C.struct_iovec
type IPMreq C.struct_ip_mreq
type IPv6Mreq C.struct_ipv6_mreq
type Msghdr C.struct_msghdr
type Cmsghdr C.struct_cmsghdr
type Inet6Pktinfo C.struct_in6_pktinfo
type IPv6MTUInfo C.struct_ip6_mtuinfo
type ICMPv6Filter C.struct_icmp6_filter
const (
SizeofSockaddrInet4 = C.sizeof_struct_sockaddr_in
SizeofSockaddrInet6 = C.sizeof_struct_sockaddr_in6
SizeofSockaddrAny = C.sizeof_struct_sockaddr_any
SizeofSockaddrUnix = C.sizeof_struct_sockaddr_un
SizeofSockaddrDatalink = C.sizeof_struct_sockaddr_dl
SizeofLinger = C.sizeof_struct_linger
SizeofIPMreq = C.sizeof_struct_ip_mreq
SizeofIPv6Mreq = C.sizeof_struct_ipv6_mreq
SizeofMsghdr = C.sizeof_struct_msghdr
SizeofCmsghdr = C.sizeof_struct_cmsghdr
SizeofInet6Pktinfo = C.sizeof_struct_in6_pktinfo
SizeofIPv6MTUInfo = C.sizeof_struct_ip6_mtuinfo
SizeofICMPv6Filter = C.sizeof_struct_icmp6_filter
)
// Ptrace requests
const (
PTRACE_TRACEME = C.PT_TRACE_ME
PTRACE_CONT = C.PT_CONTINUE
PTRACE_KILL = C.PT_KILL
)
// Events (kqueue, kevent)
type Kevent_t C.struct_kevent
// Select
type FdSet C.fd_set
// Routing and interface messages
const (
SizeofIfMsghdr = C.sizeof_struct_if_msghdr
SizeofIfData = C.sizeof_struct_if_data
SizeofIfaMsghdr = C.sizeof_struct_ifa_msghdr
SizeofIfAnnounceMsghdr = C.sizeof_struct_if_announcemsghdr
SizeofRtMsghdr = C.sizeof_struct_rt_msghdr
SizeofRtMetrics = C.sizeof_struct_rt_metrics
)
type IfMsghdr C.struct_if_msghdr
type IfData C.struct_if_data
type IfaMsghdr C.struct_ifa_msghdr
type IfAnnounceMsghdr C.struct_if_announcemsghdr
type RtMsghdr C.struct_rt_msghdr
type RtMetrics C.struct_rt_metrics
type Mclpool C.struct_mclpool
// Berkeley packet filter
const (
SizeofBpfVersion = C.sizeof_struct_bpf_version
SizeofBpfStat = C.sizeof_struct_bpf_stat
SizeofBpfProgram = C.sizeof_struct_bpf_program
SizeofBpfInsn = C.sizeof_struct_bpf_insn
SizeofBpfHdr = C.sizeof_struct_bpf_hdr
)
type BpfVersion C.struct_bpf_version
type BpfStat C.struct_bpf_stat
type BpfProgram C.struct_bpf_program
type BpfInsn C.struct_bpf_insn
type BpfHdr C.struct_bpf_hdr
type BpfTimeval C.struct_bpf_timeval
// Terminal handling
type Termios C.struct_termios
// fchmodat-like syscalls.
const (
AT_FDCWD = C.AT_FDCWD
AT_SYMLINK_NOFOLLOW = C.AT_SYMLINK_NOFOLLOW
)
// poll
type PollFd C.struct_pollfd
const (
POLLERR = C.POLLERR
POLLHUP = C.POLLHUP
POLLIN = C.POLLIN
POLLNVAL = C.POLLNVAL
POLLOUT = C.POLLOUT
POLLPRI = C.POLLPRI
POLLRDBAND = C.POLLRDBAND
POLLRDNORM = C.POLLRDNORM
POLLWRBAND = C.POLLWRBAND
POLLWRNORM = C.POLLWRNORM
)
// Sysctl
type Sysctlnode C.struct_sysctlnode

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// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
/*
Input to cgo -godefs. See README.md
*/
// +godefs map struct_in_addr [4]byte /* in_addr */
// +godefs map struct_in6_addr [16]byte /* in6_addr */
package unix
/*
#define KERNEL
#include <dirent.h>
#include <fcntl.h>
#include <poll.h>
#include <signal.h>
#include <termios.h>
#include <stdio.h>
#include <unistd.h>
#include <sys/param.h>
#include <sys/types.h>
#include <sys/event.h>
#include <sys/mman.h>
#include <sys/mount.h>
#include <sys/ptrace.h>
#include <sys/resource.h>
#include <sys/select.h>
#include <sys/signal.h>
#include <sys/socket.h>
#include <sys/stat.h>
#include <sys/time.h>
#include <sys/uio.h>
#include <sys/un.h>
#include <sys/wait.h>
#include <net/bpf.h>
#include <net/if.h>
#include <net/if_dl.h>
#include <net/route.h>
#include <netinet/in.h>
#include <netinet/icmp6.h>
#include <netinet/tcp.h>
enum {
sizeofPtr = sizeof(void*),
};
union sockaddr_all {
struct sockaddr s1; // this one gets used for fields
struct sockaddr_in s2; // these pad it out
struct sockaddr_in6 s3;
struct sockaddr_un s4;
struct sockaddr_dl s5;
};
struct sockaddr_any {
struct sockaddr addr;
char pad[sizeof(union sockaddr_all) - sizeof(struct sockaddr)];
};
*/
import "C"
// Machine characteristics; for internal use.
const (
sizeofPtr = C.sizeofPtr
sizeofShort = C.sizeof_short
sizeofInt = C.sizeof_int
sizeofLong = C.sizeof_long
sizeofLongLong = C.sizeof_longlong
)
// Basic types
type (
_C_short C.short
_C_int C.int
_C_long C.long
_C_long_long C.longlong
)
// Time
type Timespec C.struct_timespec
type Timeval C.struct_timeval
// Processes
type Rusage C.struct_rusage
type Rlimit C.struct_rlimit
type _Gid_t C.gid_t
// Files
const ( // Directory mode bits
S_IFMT = C.S_IFMT
S_IFIFO = C.S_IFIFO
S_IFCHR = C.S_IFCHR
S_IFDIR = C.S_IFDIR
S_IFBLK = C.S_IFBLK
S_IFREG = C.S_IFREG
S_IFLNK = C.S_IFLNK
S_IFSOCK = C.S_IFSOCK
S_ISUID = C.S_ISUID
S_ISGID = C.S_ISGID
S_ISVTX = C.S_ISVTX
S_IRUSR = C.S_IRUSR
S_IWUSR = C.S_IWUSR
S_IXUSR = C.S_IXUSR
)
type Stat_t C.struct_stat
type Statfs_t C.struct_statfs
type Flock_t C.struct_flock
type Dirent C.struct_dirent
type Fsid C.fsid_t
// Sockets
type RawSockaddrInet4 C.struct_sockaddr_in
type RawSockaddrInet6 C.struct_sockaddr_in6
type RawSockaddrUnix C.struct_sockaddr_un
type RawSockaddrDatalink C.struct_sockaddr_dl
type RawSockaddr C.struct_sockaddr
type RawSockaddrAny C.struct_sockaddr_any
type _Socklen C.socklen_t
type Linger C.struct_linger
type Iovec C.struct_iovec
type IPMreq C.struct_ip_mreq
type IPv6Mreq C.struct_ipv6_mreq
type Msghdr C.struct_msghdr
type Cmsghdr C.struct_cmsghdr
type Inet6Pktinfo C.struct_in6_pktinfo
type IPv6MTUInfo C.struct_ip6_mtuinfo
type ICMPv6Filter C.struct_icmp6_filter
const (
SizeofSockaddrInet4 = C.sizeof_struct_sockaddr_in
SizeofSockaddrInet6 = C.sizeof_struct_sockaddr_in6
SizeofSockaddrAny = C.sizeof_struct_sockaddr_any
SizeofSockaddrUnix = C.sizeof_struct_sockaddr_un
SizeofSockaddrDatalink = C.sizeof_struct_sockaddr_dl
SizeofLinger = C.sizeof_struct_linger
SizeofIPMreq = C.sizeof_struct_ip_mreq
SizeofIPv6Mreq = C.sizeof_struct_ipv6_mreq
SizeofMsghdr = C.sizeof_struct_msghdr
SizeofCmsghdr = C.sizeof_struct_cmsghdr
SizeofInet6Pktinfo = C.sizeof_struct_in6_pktinfo
SizeofIPv6MTUInfo = C.sizeof_struct_ip6_mtuinfo
SizeofICMPv6Filter = C.sizeof_struct_icmp6_filter
)
// Ptrace requests
const (
PTRACE_TRACEME = C.PT_TRACE_ME
PTRACE_CONT = C.PT_CONTINUE
PTRACE_KILL = C.PT_KILL
)
// Events (kqueue, kevent)
type Kevent_t C.struct_kevent
// Select
type FdSet C.fd_set
// Routing and interface messages
const (
SizeofIfMsghdr = C.sizeof_struct_if_msghdr
SizeofIfData = C.sizeof_struct_if_data
SizeofIfaMsghdr = C.sizeof_struct_ifa_msghdr
SizeofIfAnnounceMsghdr = C.sizeof_struct_if_announcemsghdr
SizeofRtMsghdr = C.sizeof_struct_rt_msghdr
SizeofRtMetrics = C.sizeof_struct_rt_metrics
)
type IfMsghdr C.struct_if_msghdr
type IfData C.struct_if_data
type IfaMsghdr C.struct_ifa_msghdr
type IfAnnounceMsghdr C.struct_if_announcemsghdr
type RtMsghdr C.struct_rt_msghdr
type RtMetrics C.struct_rt_metrics
type Mclpool C.struct_mclpool
// Berkeley packet filter
const (
SizeofBpfVersion = C.sizeof_struct_bpf_version
SizeofBpfStat = C.sizeof_struct_bpf_stat
SizeofBpfProgram = C.sizeof_struct_bpf_program
SizeofBpfInsn = C.sizeof_struct_bpf_insn
SizeofBpfHdr = C.sizeof_struct_bpf_hdr
)
type BpfVersion C.struct_bpf_version
type BpfStat C.struct_bpf_stat
type BpfProgram C.struct_bpf_program
type BpfInsn C.struct_bpf_insn
type BpfHdr C.struct_bpf_hdr
type BpfTimeval C.struct_bpf_timeval
// Terminal handling
type Termios C.struct_termios
// fchmodat-like syscalls.
const (
AT_FDCWD = C.AT_FDCWD
AT_SYMLINK_NOFOLLOW = C.AT_SYMLINK_NOFOLLOW
)
// poll
type PollFd C.struct_pollfd
const (
POLLERR = C.POLLERR
POLLHUP = C.POLLHUP
POLLIN = C.POLLIN
POLLNVAL = C.POLLNVAL
POLLOUT = C.POLLOUT
POLLPRI = C.POLLPRI
POLLRDBAND = C.POLLRDBAND
POLLRDNORM = C.POLLRDNORM
POLLWRBAND = C.POLLWRBAND
POLLWRNORM = C.POLLWRNORM
)

283
vendor/golang.org/x/sys/unix/types_solaris.go generated vendored
View File

@ -1,283 +0,0 @@
// Copyright 2009 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
/*
Input to cgo -godefs. See README.md
*/
// +godefs map struct_in_addr [4]byte /* in_addr */
// +godefs map struct_in6_addr [16]byte /* in6_addr */
package unix
/*
#define KERNEL
// These defines ensure that builds done on newer versions of Solaris are
// backwards-compatible with older versions of Solaris and
// OpenSolaris-based derivatives.
#define __USE_SUNOS_SOCKETS__ // msghdr
#define __USE_LEGACY_PROTOTYPES__ // iovec
#include <dirent.h>
#include <fcntl.h>
#include <netdb.h>
#include <limits.h>
#include <poll.h>
#include <signal.h>
#include <termios.h>
#include <termio.h>
#include <stdio.h>
#include <unistd.h>
#include <sys/mman.h>
#include <sys/mount.h>
#include <sys/param.h>
#include <sys/resource.h>
#include <sys/select.h>
#include <sys/signal.h>
#include <sys/socket.h>
#include <sys/stat.h>
#include <sys/statvfs.h>
#include <sys/time.h>
#include <sys/times.h>
#include <sys/types.h>
#include <sys/utsname.h>
#include <sys/un.h>
#include <sys/wait.h>
#include <net/bpf.h>
#include <net/if.h>
#include <net/if_dl.h>
#include <net/route.h>
#include <netinet/in.h>
#include <netinet/icmp6.h>
#include <netinet/tcp.h>
#include <ustat.h>
#include <utime.h>
enum {
sizeofPtr = sizeof(void*),
};
union sockaddr_all {
struct sockaddr s1; // this one gets used for fields
struct sockaddr_in s2; // these pad it out
struct sockaddr_in6 s3;
struct sockaddr_un s4;
struct sockaddr_dl s5;
};
struct sockaddr_any {
struct sockaddr addr;
char pad[sizeof(union sockaddr_all) - sizeof(struct sockaddr)];
};
*/
import "C"
// Machine characteristics; for internal use.
const (
sizeofPtr = C.sizeofPtr
sizeofShort = C.sizeof_short
sizeofInt = C.sizeof_int
sizeofLong = C.sizeof_long
sizeofLongLong = C.sizeof_longlong
PathMax = C.PATH_MAX
MaxHostNameLen = C.MAXHOSTNAMELEN
)
// Basic types
type (
_C_short C.short
_C_int C.int
_C_long C.long
_C_long_long C.longlong
)
// Time
type Timespec C.struct_timespec
type Timeval C.struct_timeval
type Timeval32 C.struct_timeval32
type Tms C.struct_tms
type Utimbuf C.struct_utimbuf
// Processes
type Rusage C.struct_rusage
type Rlimit C.struct_rlimit
type _Gid_t C.gid_t
// Files
const ( // Directory mode bits
S_IFMT = C.S_IFMT
S_IFIFO = C.S_IFIFO
S_IFCHR = C.S_IFCHR
S_IFDIR = C.S_IFDIR
S_IFBLK = C.S_IFBLK
S_IFREG = C.S_IFREG
S_IFLNK = C.S_IFLNK
S_IFSOCK = C.S_IFSOCK
S_ISUID = C.S_ISUID
S_ISGID = C.S_ISGID
S_ISVTX = C.S_ISVTX
S_IRUSR = C.S_IRUSR
S_IWUSR = C.S_IWUSR
S_IXUSR = C.S_IXUSR
)
type Stat_t C.struct_stat
type Flock_t C.struct_flock
type Dirent C.struct_dirent
// Filesystems
type _Fsblkcnt_t C.fsblkcnt_t
type Statvfs_t C.struct_statvfs
// Sockets
type RawSockaddrInet4 C.struct_sockaddr_in
type RawSockaddrInet6 C.struct_sockaddr_in6
type RawSockaddrUnix C.struct_sockaddr_un
type RawSockaddrDatalink C.struct_sockaddr_dl
type RawSockaddr C.struct_sockaddr
type RawSockaddrAny C.struct_sockaddr_any
type _Socklen C.socklen_t
type Linger C.struct_linger
type Iovec C.struct_iovec
type IPMreq C.struct_ip_mreq
type IPv6Mreq C.struct_ipv6_mreq
type Msghdr C.struct_msghdr
type Cmsghdr C.struct_cmsghdr
type Inet6Pktinfo C.struct_in6_pktinfo
type IPv6MTUInfo C.struct_ip6_mtuinfo
type ICMPv6Filter C.struct_icmp6_filter
const (
SizeofSockaddrInet4 = C.sizeof_struct_sockaddr_in
SizeofSockaddrInet6 = C.sizeof_struct_sockaddr_in6
SizeofSockaddrAny = C.sizeof_struct_sockaddr_any
SizeofSockaddrUnix = C.sizeof_struct_sockaddr_un
SizeofSockaddrDatalink = C.sizeof_struct_sockaddr_dl
SizeofLinger = C.sizeof_struct_linger
SizeofIPMreq = C.sizeof_struct_ip_mreq
SizeofIPv6Mreq = C.sizeof_struct_ipv6_mreq
SizeofMsghdr = C.sizeof_struct_msghdr
SizeofCmsghdr = C.sizeof_struct_cmsghdr
SizeofInet6Pktinfo = C.sizeof_struct_in6_pktinfo
SizeofIPv6MTUInfo = C.sizeof_struct_ip6_mtuinfo
SizeofICMPv6Filter = C.sizeof_struct_icmp6_filter
)
// Select
type FdSet C.fd_set
// Misc
type Utsname C.struct_utsname
type Ustat_t C.struct_ustat
const (
AT_FDCWD = C.AT_FDCWD
AT_SYMLINK_NOFOLLOW = C.AT_SYMLINK_NOFOLLOW
AT_SYMLINK_FOLLOW = C.AT_SYMLINK_FOLLOW
AT_REMOVEDIR = C.AT_REMOVEDIR
AT_EACCESS = C.AT_EACCESS
)
// Routing and interface messages
const (
SizeofIfMsghdr = C.sizeof_struct_if_msghdr
SizeofIfData = C.sizeof_struct_if_data
SizeofIfaMsghdr = C.sizeof_struct_ifa_msghdr
SizeofRtMsghdr = C.sizeof_struct_rt_msghdr
SizeofRtMetrics = C.sizeof_struct_rt_metrics
)
type IfMsghdr C.struct_if_msghdr
type IfData C.struct_if_data
type IfaMsghdr C.struct_ifa_msghdr
type RtMsghdr C.struct_rt_msghdr
type RtMetrics C.struct_rt_metrics
// Berkeley packet filter
const (
SizeofBpfVersion = C.sizeof_struct_bpf_version
SizeofBpfStat = C.sizeof_struct_bpf_stat
SizeofBpfProgram = C.sizeof_struct_bpf_program
SizeofBpfInsn = C.sizeof_struct_bpf_insn
SizeofBpfHdr = C.sizeof_struct_bpf_hdr
)
type BpfVersion C.struct_bpf_version
type BpfStat C.struct_bpf_stat
type BpfProgram C.struct_bpf_program
type BpfInsn C.struct_bpf_insn
type BpfTimeval C.struct_bpf_timeval
type BpfHdr C.struct_bpf_hdr
// Terminal handling
type Termios C.struct_termios
type Termio C.struct_termio
type Winsize C.struct_winsize
// poll
type PollFd C.struct_pollfd
const (
POLLERR = C.POLLERR
POLLHUP = C.POLLHUP
POLLIN = C.POLLIN
POLLNVAL = C.POLLNVAL
POLLOUT = C.POLLOUT
POLLPRI = C.POLLPRI
POLLRDBAND = C.POLLRDBAND
POLLRDNORM = C.POLLRDNORM
POLLWRBAND = C.POLLWRBAND
POLLWRNORM = C.POLLWRNORM
)

839
vendor/golang.org/x/text/cases/gen.go generated vendored
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@ -1,839 +0,0 @@
// Copyright 2014 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
// This program generates the trie for casing operations. The Unicode casing
// algorithm requires the lookup of various properties and mappings for each
// rune. The table generated by this generator combines several of the most
// frequently used of these into a single trie so that they can be accessed
// with a single lookup.
package main
import (
"bytes"
"fmt"
"io"
"io/ioutil"
"log"
"reflect"
"strconv"
"strings"
"unicode"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/triegen"
"golang.org/x/text/internal/ucd"
"golang.org/x/text/unicode/norm"
)
func main() {
gen.Init()
genTables()
genTablesTest()
gen.Repackage("gen_trieval.go", "trieval.go", "cases")
}
// runeInfo contains all information for a rune that we care about for casing
// operations.
type runeInfo struct {
Rune rune
entry info // trie value for this rune.
CaseMode info
// Simple case mappings.
Simple [1 + maxCaseMode][]rune
// Special casing
HasSpecial bool
Conditional bool
Special [1 + maxCaseMode][]rune
// Folding
FoldSimple rune
FoldSpecial rune
FoldFull []rune
// TODO: FC_NFKC, or equivalent data.
// Properties
SoftDotted bool
CaseIgnorable bool
Cased bool
DecomposeGreek bool
BreakType string
BreakCat breakCategory
// We care mostly about 0, Above, and IotaSubscript.
CCC byte
}
type breakCategory int
const (
breakBreak breakCategory = iota
breakLetter
breakMid
)
// mapping returns the case mapping for the given case type.
func (r *runeInfo) mapping(c info) string {
if r.HasSpecial {
return string(r.Special[c])
}
if len(r.Simple[c]) != 0 {
return string(r.Simple[c])
}
return string(r.Rune)
}
func parse(file string, f func(p *ucd.Parser)) {
ucd.Parse(gen.OpenUCDFile(file), f)
}
func parseUCD() []runeInfo {
chars := make([]runeInfo, unicode.MaxRune)
get := func(r rune) *runeInfo {
c := &chars[r]
c.Rune = r
return c
}
parse("UnicodeData.txt", func(p *ucd.Parser) {
ri := get(p.Rune(0))
ri.CCC = byte(p.Int(ucd.CanonicalCombiningClass))
ri.Simple[cLower] = p.Runes(ucd.SimpleLowercaseMapping)
ri.Simple[cUpper] = p.Runes(ucd.SimpleUppercaseMapping)
ri.Simple[cTitle] = p.Runes(ucd.SimpleTitlecaseMapping)
if p.String(ucd.GeneralCategory) == "Lt" {
ri.CaseMode = cTitle
}
})
// <code>; <property>
parse("PropList.txt", func(p *ucd.Parser) {
if p.String(1) == "Soft_Dotted" {
chars[p.Rune(0)].SoftDotted = true
}
})
// <code>; <word break type>
parse("DerivedCoreProperties.txt", func(p *ucd.Parser) {
ri := get(p.Rune(0))
switch p.String(1) {
case "Case_Ignorable":
ri.CaseIgnorable = true
case "Cased":
ri.Cased = true
case "Lowercase":
ri.CaseMode = cLower
case "Uppercase":
ri.CaseMode = cUpper
}
})
// <code>; <lower> ; <title> ; <upper> ; (<condition_list> ;)?
parse("SpecialCasing.txt", func(p *ucd.Parser) {
// We drop all conditional special casing and deal with them manually in
// the language-specific case mappers. Rune 0x03A3 is the only one with
// a conditional formatting that is not language-specific. However,
// dealing with this letter is tricky, especially in a streaming
// context, so we deal with it in the Caser for Greek specifically.
ri := get(p.Rune(0))
if p.String(4) == "" {
ri.HasSpecial = true
ri.Special[cLower] = p.Runes(1)
ri.Special[cTitle] = p.Runes(2)
ri.Special[cUpper] = p.Runes(3)
} else {
ri.Conditional = true
}
})
// TODO: Use text breaking according to UAX #29.
// <code>; <word break type>
parse("auxiliary/WordBreakProperty.txt", func(p *ucd.Parser) {
ri := get(p.Rune(0))
ri.BreakType = p.String(1)
// We collapse the word breaking properties onto the categories we need.
switch p.String(1) { // TODO: officially we need to canonicalize.
case "MidLetter", "MidNumLet", "Single_Quote":
ri.BreakCat = breakMid
if !ri.CaseIgnorable {
// finalSigma relies on the fact that all breakMid runes are
// also a Case_Ignorable. Revisit this code when this changes.
log.Fatalf("Rune %U, which has a break category mid, is not a case ignorable", ri)
}
case "ALetter", "Hebrew_Letter", "Numeric", "Extend", "ExtendNumLet", "Format", "ZWJ":
ri.BreakCat = breakLetter
}
})
// <code>; <type>; <mapping>
parse("CaseFolding.txt", func(p *ucd.Parser) {
ri := get(p.Rune(0))
switch p.String(1) {
case "C":
ri.FoldSimple = p.Rune(2)
ri.FoldFull = p.Runes(2)
case "S":
ri.FoldSimple = p.Rune(2)
case "T":
ri.FoldSpecial = p.Rune(2)
case "F":
ri.FoldFull = p.Runes(2)
default:
log.Fatalf("%U: unknown type: %s", p.Rune(0), p.String(1))
}
})
return chars
}
func genTables() {
chars := parseUCD()
verifyProperties(chars)
t := triegen.NewTrie("case")
for i := range chars {
c := &chars[i]
makeEntry(c)
t.Insert(rune(i), uint64(c.entry))
}
w := gen.NewCodeWriter()
defer w.WriteGoFile("tables.go", "cases")
gen.WriteUnicodeVersion(w)
// TODO: write CLDR version after adding a mechanism to detect that the
// tables on which the manually created locale-sensitive casing code is
// based hasn't changed.
w.WriteVar("xorData", string(xorData))
w.WriteVar("exceptions", string(exceptionData))
sz, err := t.Gen(w, triegen.Compact(&sparseCompacter{}))
if err != nil {
log.Fatal(err)
}
w.Size += sz
}
func makeEntry(ri *runeInfo) {
if ri.CaseIgnorable {
if ri.Cased {
ri.entry = cIgnorableCased
} else {
ri.entry = cIgnorableUncased
}
} else {
ri.entry = ri.CaseMode
}
// TODO: handle soft-dotted.
ccc := cccOther
switch ri.CCC {
case 0: // Not_Reordered
ccc = cccZero
case above: // Above
ccc = cccAbove
}
switch ri.BreakCat {
case breakBreak:
ccc = cccBreak
case breakMid:
ri.entry |= isMidBit
}
ri.entry |= ccc
if ri.CaseMode == cUncased {
return
}
// Need to do something special.
if ri.CaseMode == cTitle || ri.HasSpecial || ri.mapping(cTitle) != ri.mapping(cUpper) {
makeException(ri)
return
}
if f := string(ri.FoldFull); len(f) > 0 && f != ri.mapping(cUpper) && f != ri.mapping(cLower) {
makeException(ri)
return
}
// Rune is either lowercase or uppercase.
orig := string(ri.Rune)
mapped := ""
if ri.CaseMode == cUpper {
mapped = ri.mapping(cLower)
} else {
mapped = ri.mapping(cUpper)
}
if len(orig) != len(mapped) {
makeException(ri)
return
}
if string(ri.FoldFull) == ri.mapping(cUpper) {
ri.entry |= inverseFoldBit
}
n := len(orig)
// Create per-byte XOR mask.
var b []byte
for i := 0; i < n; i++ {
b = append(b, orig[i]^mapped[i])
}
// Remove leading 0 bytes, but keep at least one byte.
for ; len(b) > 1 && b[0] == 0; b = b[1:] {
}
if len(b) == 1 && b[0]&0xc0 == 0 {
ri.entry |= info(b[0]) << xorShift
return
}
key := string(b)
x, ok := xorCache[key]
if !ok {
xorData = append(xorData, 0) // for detecting start of sequence
xorData = append(xorData, b...)
x = len(xorData) - 1
xorCache[key] = x
}
ri.entry |= info(x<<xorShift) | xorIndexBit
}
var xorCache = map[string]int{}
// xorData contains byte-wise XOR data for the least significant bytes of a
// UTF-8 encoded rune. An index points to the last byte. The sequence starts
// with a zero terminator.
var xorData = []byte{}
// See the comments in gen_trieval.go re "the exceptions slice".
var exceptionData = []byte{0}
// makeException encodes case mappings that cannot be expressed in a simple
// XOR diff.
func makeException(ri *runeInfo) {
ccc := ri.entry & cccMask
// Set exception bit and retain case type.
ri.entry &= 0x0007
ri.entry |= exceptionBit
if len(exceptionData) >= 1<<numExceptionBits {
log.Fatalf("%U:exceptionData too large %x > %d bits", ri.Rune, len(exceptionData), numExceptionBits)
}
// Set the offset in the exceptionData array.
ri.entry |= info(len(exceptionData) << exceptionShift)
orig := string(ri.Rune)
tc := ri.mapping(cTitle)
uc := ri.mapping(cUpper)
lc := ri.mapping(cLower)
ff := string(ri.FoldFull)
// addString sets the length of a string and adds it to the expansions array.
addString := func(s string, b *byte) {
if len(s) == 0 {
// Zero-length mappings exist, but only for conditional casing,
// which we are representing outside of this table.
log.Fatalf("%U: has zero-length mapping.", ri.Rune)
}
*b <<= 3
if s != orig {
n := len(s)
if n > 7 {
log.Fatalf("%U: mapping larger than 7 (%d)", ri.Rune, n)
}
*b |= byte(n)
exceptionData = append(exceptionData, s...)
}
}
// byte 0:
exceptionData = append(exceptionData, byte(ccc)|byte(len(ff)))
// byte 1:
p := len(exceptionData)
exceptionData = append(exceptionData, 0)
if len(ff) > 7 { // May be zero-length.
log.Fatalf("%U: fold string larger than 7 (%d)", ri.Rune, len(ff))
}
exceptionData = append(exceptionData, ff...)
ct := ri.CaseMode
if ct != cLower {
addString(lc, &exceptionData[p])
}
if ct != cUpper {
addString(uc, &exceptionData[p])
}
if ct != cTitle {
// If title is the same as upper, we set it to the original string so
// that it will be marked as not present. This implies title case is
// the same as upper case.
if tc == uc {
tc = orig
}
addString(tc, &exceptionData[p])
}
}
// sparseCompacter is a trie value block Compacter. There are many cases where
// successive runes alternate between lower- and upper-case. This Compacter
// exploits this by adding a special case type where the case value is obtained
// from or-ing it with the least-significant bit of the rune, creating large
// ranges of equal case values that compress well.
type sparseCompacter struct {
sparseBlocks [][]uint16
sparseOffsets []uint16
sparseCount int
}
// makeSparse returns the number of elements that compact block would contain
// as well as the modified values.
func makeSparse(vals []uint64) ([]uint16, int) {
// Copy the values.
values := make([]uint16, len(vals))
for i, v := range vals {
values[i] = uint16(v)
}
alt := func(i int, v uint16) uint16 {
if cm := info(v & fullCasedMask); cm == cUpper || cm == cLower {
// Convert cLower or cUpper to cXORCase value, which has the form 11x.
xor := v
xor &^= 1
xor |= uint16(i&1) ^ (v & 1)
xor |= 0x4
return xor
}
return v
}
var count int
var previous uint16
for i, v := range values {
if v != 0 {
// Try if the unmodified value is equal to the previous.
if v == previous {
continue
}
// Try if the xor-ed value is equal to the previous value.
a := alt(i, v)
if a == previous {
values[i] = a
continue
}
// This is a new value.
count++
// Use the xor-ed value if it will be identical to the next value.
if p := i + 1; p < len(values) && alt(p, values[p]) == a {
values[i] = a
v = a
}
}
previous = v
}
return values, count
}
func (s *sparseCompacter) Size(v []uint64) (int, bool) {
_, n := makeSparse(v)
// We limit using this method to having 16 entries.
if n > 16 {
return 0, false
}
return 2 + int(reflect.TypeOf(valueRange{}).Size())*n, true
}
func (s *sparseCompacter) Store(v []uint64) uint32 {
h := uint32(len(s.sparseOffsets))
values, sz := makeSparse(v)
s.sparseBlocks = append(s.sparseBlocks, values)
s.sparseOffsets = append(s.sparseOffsets, uint16(s.sparseCount))
s.sparseCount += sz
return h
}
func (s *sparseCompacter) Handler() string {
// The sparse global variable and its lookup method is defined in gen_trieval.go.
return "sparse.lookup"
}
func (s *sparseCompacter) Print(w io.Writer) (retErr error) {
p := func(format string, args ...interface{}) {
_, err := fmt.Fprintf(w, format, args...)
if retErr == nil && err != nil {
retErr = err
}
}
ls := len(s.sparseBlocks)
if ls == len(s.sparseOffsets) {
s.sparseOffsets = append(s.sparseOffsets, uint16(s.sparseCount))
}
p("// sparseOffsets: %d entries, %d bytes\n", ls+1, (ls+1)*2)
p("var sparseOffsets = %#v\n\n", s.sparseOffsets)
ns := s.sparseCount
p("// sparseValues: %d entries, %d bytes\n", ns, ns*4)
p("var sparseValues = [%d]valueRange {", ns)
for i, values := range s.sparseBlocks {
p("\n// Block %#x, offset %#x", i, s.sparseOffsets[i])
var v uint16
for i, nv := range values {
if nv != v {
if v != 0 {
p(",hi:%#02x},", 0x80+i-1)
}
if nv != 0 {
p("\n{value:%#04x,lo:%#02x", nv, 0x80+i)
}
}
v = nv
}
if v != 0 {
p(",hi:%#02x},", 0x80+len(values)-1)
}
}
p("\n}\n\n")
return
}
// verifyProperties that properties of the runes that are relied upon in the
// implementation. Each property is marked with an identifier that is referred
// to in the places where it is used.
func verifyProperties(chars []runeInfo) {
for i, c := range chars {
r := rune(i)
// Rune properties.
// A.1: modifier never changes on lowercase. [ltLower]
if c.CCC > 0 && unicode.ToLower(r) != r {
log.Fatalf("%U: non-starter changes when lowercased", r)
}
// A.2: properties of decompositions starting with I or J. [ltLower]
d := norm.NFD.PropertiesString(string(r)).Decomposition()
if len(d) > 0 {
if d[0] == 'I' || d[0] == 'J' {
// A.2.1: we expect at least an ASCII character and a modifier.
if len(d) < 3 {
log.Fatalf("%U: length of decomposition was %d; want >= 3", r, len(d))
}
// All subsequent runes are modifiers and all have the same CCC.
runes := []rune(string(d[1:]))
ccc := chars[runes[0]].CCC
for _, mr := range runes[1:] {
mc := chars[mr]
// A.2.2: all modifiers have a CCC of Above or less.
if ccc == 0 || ccc > above {
log.Fatalf("%U: CCC of successive rune (%U) was %d; want (0,230]", r, mr, ccc)
}
// A.2.3: a sequence of modifiers all have the same CCC.
if mc.CCC != ccc {
log.Fatalf("%U: CCC of follow-up modifier (%U) was %d; want %d", r, mr, mc.CCC, ccc)
}
// A.2.4: for each trailing r, r in [0x300, 0x311] <=> CCC == Above.
if (ccc == above) != (0x300 <= mr && mr <= 0x311) {
log.Fatalf("%U: modifier %U in [U+0300, U+0311] != ccc(%U) == 230", r, mr, mr)
}
if i += len(string(mr)); i >= len(d) {
break
}
}
}
}
// A.3: no U+0307 in decomposition of Soft-Dotted rune. [ltUpper]
if unicode.Is(unicode.Soft_Dotted, r) && strings.Contains(string(d), "\u0307") {
log.Fatalf("%U: decomposition of soft-dotted rune may not contain U+0307", r)
}
// A.4: only rune U+0345 may be of CCC Iota_Subscript. [elUpper]
if c.CCC == iotaSubscript && r != 0x0345 {
log.Fatalf("%U: only rune U+0345 may have CCC Iota_Subscript", r)
}
// A.5: soft-dotted runes do not have exceptions.
if c.SoftDotted && c.entry&exceptionBit != 0 {
log.Fatalf("%U: soft-dotted has exception", r)
}
// A.6: Greek decomposition. [elUpper]
if unicode.Is(unicode.Greek, r) {
if b := norm.NFD.PropertiesString(string(r)).Decomposition(); b != nil {
runes := []rune(string(b))
// A.6.1: If a Greek rune decomposes and the first rune of the
// decomposition is greater than U+00FF, the rune is always
// great and not a modifier.
if f := runes[0]; unicode.IsMark(f) || f > 0xFF && !unicode.Is(unicode.Greek, f) {
log.Fatalf("%U: expeced first rune of Greek decomposition to be letter, found %U", r, f)
}
// A.6.2: Any follow-up rune in a Greek decomposition is a
// modifier of which the first should be gobbled in
// decomposition.
for _, m := range runes[1:] {
switch m {
case 0x0313, 0x0314, 0x0301, 0x0300, 0x0306, 0x0342, 0x0308, 0x0304, 0x345:
default:
log.Fatalf("%U: modifier %U is outside of expeced Greek modifier set", r, m)
}
}
}
}
// Breaking properties.
// B.1: all runes with CCC > 0 are of break type Extend.
if c.CCC > 0 && c.BreakType != "Extend" {
log.Fatalf("%U: CCC == %d, but got break type %s; want Extend", r, c.CCC, c.BreakType)
}
// B.2: all cased runes with c.CCC == 0 are of break type ALetter.
if c.CCC == 0 && c.Cased && c.BreakType != "ALetter" {
log.Fatalf("%U: cased, but got break type %s; want ALetter", r, c.BreakType)
}
// B.3: letter category.
if c.CCC == 0 && c.BreakCat != breakBreak && !c.CaseIgnorable {
if c.BreakCat != breakLetter {
log.Fatalf("%U: check for letter break type gave %d; want %d", r, c.BreakCat, breakLetter)
}
}
}
}
func genTablesTest() {
w := &bytes.Buffer{}
fmt.Fprintln(w, "var (")
printProperties(w, "DerivedCoreProperties.txt", "Case_Ignorable", verifyIgnore)
// We discard the output as we know we have perfect functions. We run them
// just to verify the properties are correct.
n := printProperties(ioutil.Discard, "DerivedCoreProperties.txt", "Cased", verifyCased)
n += printProperties(ioutil.Discard, "DerivedCoreProperties.txt", "Lowercase", verifyLower)
n += printProperties(ioutil.Discard, "DerivedCoreProperties.txt", "Uppercase", verifyUpper)
if n > 0 {
log.Fatalf("One of the discarded properties does not have a perfect filter.")
}
// <code>; <lower> ; <title> ; <upper> ; (<condition_list> ;)?
fmt.Fprintln(w, "\tspecial = map[rune]struct{ toLower, toTitle, toUpper string }{")
parse("SpecialCasing.txt", func(p *ucd.Parser) {
// Skip conditional entries.
if p.String(4) != "" {
return
}
r := p.Rune(0)
fmt.Fprintf(w, "\t\t0x%04x: {%q, %q, %q},\n",
r, string(p.Runes(1)), string(p.Runes(2)), string(p.Runes(3)))
})
fmt.Fprint(w, "\t}\n\n")
// <code>; <type>; <runes>
table := map[rune]struct{ simple, full, special string }{}
parse("CaseFolding.txt", func(p *ucd.Parser) {
r := p.Rune(0)
t := p.String(1)
v := string(p.Runes(2))
if t != "T" && v == string(unicode.ToLower(r)) {
return
}
x := table[r]
switch t {
case "C":
x.full = v
x.simple = v
case "S":
x.simple = v
case "F":
x.full = v
case "T":
x.special = v
}
table[r] = x
})
fmt.Fprintln(w, "\tfoldMap = map[rune]struct{ simple, full, special string }{")
for r := rune(0); r < 0x10FFFF; r++ {
x, ok := table[r]
if !ok {
continue
}
fmt.Fprintf(w, "\t\t0x%04x: {%q, %q, %q},\n", r, x.simple, x.full, x.special)
}
fmt.Fprint(w, "\t}\n\n")
// Break property
notBreak := map[rune]bool{}
parse("auxiliary/WordBreakProperty.txt", func(p *ucd.Parser) {
switch p.String(1) {
case "Extend", "Format", "MidLetter", "MidNumLet", "Single_Quote",
"ALetter", "Hebrew_Letter", "Numeric", "ExtendNumLet", "ZWJ":
notBreak[p.Rune(0)] = true
}
})
fmt.Fprintln(w, "\tbreakProp = []struct{ lo, hi rune }{")
inBreak := false
for r := rune(0); r <= lastRuneForTesting; r++ {
if isBreak := !notBreak[r]; isBreak != inBreak {
if isBreak {
fmt.Fprintf(w, "\t\t{0x%x, ", r)
} else {
fmt.Fprintf(w, "0x%x},\n", r-1)
}
inBreak = isBreak
}
}
if inBreak {
fmt.Fprintf(w, "0x%x},\n", lastRuneForTesting)
}
fmt.Fprint(w, "\t}\n\n")
// Word break test
// Filter out all samples that do not contain cased characters.
cased := map[rune]bool{}
parse("DerivedCoreProperties.txt", func(p *ucd.Parser) {
if p.String(1) == "Cased" {
cased[p.Rune(0)] = true
}
})
fmt.Fprintln(w, "\tbreakTest = []string{")
parse("auxiliary/WordBreakTest.txt", func(p *ucd.Parser) {
c := strings.Split(p.String(0), " ")
const sep = '|'
numCased := 0
test := ""
for ; len(c) >= 2; c = c[2:] {
if c[0] == "÷" && test != "" {
test += string(sep)
}
i, err := strconv.ParseUint(c[1], 16, 32)
r := rune(i)
if err != nil {
log.Fatalf("Invalid rune %q.", c[1])
}
if r == sep {
log.Fatalf("Separator %q not allowed in test data. Pick another one.", sep)
}
if cased[r] {
numCased++
}
test += string(r)
}
if numCased > 1 {
fmt.Fprintf(w, "\t\t%q,\n", test)
}
})
fmt.Fprintln(w, "\t}")
fmt.Fprintln(w, ")")
gen.WriteGoFile("tables_test.go", "cases", w.Bytes())
}
// These functions are just used for verification that their definition have not
// changed in the Unicode Standard.
func verifyCased(r rune) bool {
return verifyLower(r) || verifyUpper(r) || unicode.IsTitle(r)
}
func verifyLower(r rune) bool {
return unicode.IsLower(r) || unicode.Is(unicode.Other_Lowercase, r)
}
func verifyUpper(r rune) bool {
return unicode.IsUpper(r) || unicode.Is(unicode.Other_Uppercase, r)
}
// verifyIgnore is an approximation of the Case_Ignorable property using the
// core unicode package. It is used to reduce the size of the test data.
func verifyIgnore(r rune) bool {
props := []*unicode.RangeTable{
unicode.Mn,
unicode.Me,
unicode.Cf,
unicode.Lm,
unicode.Sk,
}
for _, p := range props {
if unicode.Is(p, r) {
return true
}
}
return false
}
// printProperties prints tables of rune properties from the given UCD file.
// A filter func f can be given to exclude certain values. A rune r will have
// the indicated property if it is in the generated table or if f(r).
func printProperties(w io.Writer, file, property string, f func(r rune) bool) int {
verify := map[rune]bool{}
n := 0
varNameParts := strings.Split(property, "_")
varNameParts[0] = strings.ToLower(varNameParts[0])
fmt.Fprintf(w, "\t%s = map[rune]bool{\n", strings.Join(varNameParts, ""))
parse(file, func(p *ucd.Parser) {
if p.String(1) == property {
r := p.Rune(0)
verify[r] = true
if !f(r) {
n++
fmt.Fprintf(w, "\t\t0x%.4x: true,\n", r)
}
}
})
fmt.Fprint(w, "\t}\n\n")
// Verify that f is correct, that is, it represents a subset of the property.
for r := rune(0); r <= lastRuneForTesting; r++ {
if !verify[r] && f(r) {
log.Fatalf("Incorrect filter func for property %q.", property)
}
}
return n
}
// The newCaseTrie, sparseValues and sparseOffsets definitions below are
// placeholders referred to by gen_trieval.go. The real definitions are
// generated by this program and written to tables.go.
func newCaseTrie(int) int { return 0 }
var (
sparseValues [0]valueRange
sparseOffsets [0]uint16
)

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vendor/golang.org/x/text/cases/gen_trieval.go generated vendored
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@ -1,219 +0,0 @@
// Copyright 2014 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
// This file contains definitions for interpreting the trie value of the case
// trie generated by "go run gen*.go". It is shared by both the generator
// program and the resultant package. Sharing is achieved by the generator
// copying gen_trieval.go to trieval.go and changing what's above this comment.
// info holds case information for a single rune. It is the value returned
// by a trie lookup. Most mapping information can be stored in a single 16-bit
// value. If not, for example when a rune is mapped to multiple runes, the value
// stores some basic case data and an index into an array with additional data.
//
// The per-rune values have the following format:
//
// if (exception) {
// 15..5 unsigned exception index
// 4 unused
// } else {
// 15..8 XOR pattern or index to XOR pattern for case mapping
// Only 13..8 are used for XOR patterns.
// 7 inverseFold (fold to upper, not to lower)
// 6 index: interpret the XOR pattern as an index
// or isMid if case mode is cIgnorableUncased.
// 5..4 CCC: zero (normal or break), above or other
// }
// 3 exception: interpret this value as an exception index
// (TODO: is this bit necessary? Probably implied from case mode.)
// 2..0 case mode
//
// For the non-exceptional cases, a rune must be either uncased, lowercase or
// uppercase. If the rune is cased, the XOR pattern maps either a lowercase
// rune to uppercase or an uppercase rune to lowercase (applied to the 10
// least-significant bits of the rune).
//
// See the definitions below for a more detailed description of the various
// bits.
type info uint16
const (
casedMask = 0x0003
fullCasedMask = 0x0007
ignorableMask = 0x0006
ignorableValue = 0x0004
inverseFoldBit = 1 << 7
isMidBit = 1 << 6
exceptionBit = 1 << 3
exceptionShift = 5
numExceptionBits = 11
xorIndexBit = 1 << 6
xorShift = 8
// There is no mapping if all xor bits and the exception bit are zero.
hasMappingMask = 0xff80 | exceptionBit
)
// The case mode bits encodes the case type of a rune. This includes uncased,
// title, upper and lower case and case ignorable. (For a definition of these
// terms see Chapter 3 of The Unicode Standard Core Specification.) In some rare
// cases, a rune can be both cased and case-ignorable. This is encoded by
// cIgnorableCased. A rune of this type is always lower case. Some runes are
// cased while not having a mapping.
//
// A common pattern for scripts in the Unicode standard is for upper and lower
// case runes to alternate for increasing rune values (e.g. the accented Latin
// ranges starting from U+0100 and U+1E00 among others and some Cyrillic
// characters). We use this property by defining a cXORCase mode, where the case
// mode (always upper or lower case) is derived from the rune value. As the XOR
// pattern for case mappings is often identical for successive runes, using
// cXORCase can result in large series of identical trie values. This, in turn,
// allows us to better compress the trie blocks.
const (
cUncased info = iota // 000
cTitle // 001
cLower // 010
cUpper // 011
cIgnorableUncased // 100
cIgnorableCased // 101 // lower case if mappings exist
cXORCase // 11x // case is cLower | ((rune&1) ^ x)
maxCaseMode = cUpper
)
func (c info) isCased() bool {
return c&casedMask != 0
}
func (c info) isCaseIgnorable() bool {
return c&ignorableMask == ignorableValue
}
func (c info) isNotCasedAndNotCaseIgnorable() bool {
return c&fullCasedMask == 0
}
func (c info) isCaseIgnorableAndNotCased() bool {
return c&fullCasedMask == cIgnorableUncased
}
func (c info) isMid() bool {
return c&(fullCasedMask|isMidBit) == isMidBit|cIgnorableUncased
}
// The case mapping implementation will need to know about various Canonical
// Combining Class (CCC) values. We encode two of these in the trie value:
// cccZero (0) and cccAbove (230). If the value is cccOther, it means that
// CCC(r) > 0, but not 230. A value of cccBreak means that CCC(r) == 0 and that
// the rune also has the break category Break (see below).
const (
cccBreak info = iota << 4
cccZero
cccAbove
cccOther
cccMask = cccBreak | cccZero | cccAbove | cccOther
)
const (
starter = 0
above = 230
iotaSubscript = 240
)
// The exceptions slice holds data that does not fit in a normal info entry.
// The entry is pointed to by the exception index in an entry. It has the
// following format:
//
// Header
// byte 0:
// 7..6 unused
// 5..4 CCC type (same bits as entry)
// 3 unused
// 2..0 length of fold
//
// byte 1:
// 7..6 unused
// 5..3 length of 1st mapping of case type
// 2..0 length of 2nd mapping of case type
//
// case 1st 2nd
// lower -> upper, title
// upper -> lower, title
// title -> lower, upper
//
// Lengths with the value 0x7 indicate no value and implies no change.
// A length of 0 indicates a mapping to zero-length string.
//
// Body bytes:
// case folding bytes
// lowercase mapping bytes
// uppercase mapping bytes
// titlecase mapping bytes
// closure mapping bytes (for NFKC_Casefold). (TODO)
//
// Fallbacks:
// missing fold -> lower
// missing title -> upper
// all missing -> original rune
//
// exceptions starts with a dummy byte to enforce that there is no zero index
// value.
const (
lengthMask = 0x07
lengthBits = 3
noChange = 0
)
// References to generated trie.
var trie = newCaseTrie(0)
var sparse = sparseBlocks{
values: sparseValues[:],
offsets: sparseOffsets[:],
}
// Sparse block lookup code.
// valueRange is an entry in a sparse block.
type valueRange struct {
value uint16
lo, hi byte
}
type sparseBlocks struct {
values []valueRange
offsets []uint16
}
// lookup returns the value from values block n for byte b using binary search.
func (s *sparseBlocks) lookup(n uint32, b byte) uint16 {
lo := s.offsets[n]
hi := s.offsets[n+1]
for lo < hi {
m := lo + (hi-lo)/2
r := s.values[m]
if r.lo <= b && b <= r.hi {
return r.value
}
if b < r.lo {
hi = m
} else {
lo = m + 1
}
}
return 0
}
// lastRuneForTesting is the last rune used for testing. Everything after this
// is boring.
const lastRuneForTesting = rune(0x1FFFF)

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vendor/golang.org/x/text/internal/gen.go generated vendored
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@ -1,52 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
import (
"log"
"golang.org/x/text/internal/gen"
"golang.org/x/text/language"
"golang.org/x/text/unicode/cldr"
)
func main() {
r := gen.OpenCLDRCoreZip()
defer r.Close()
d := &cldr.Decoder{}
data, err := d.DecodeZip(r)
if err != nil {
log.Fatalf("DecodeZip: %v", err)
}
w := gen.NewCodeWriter()
defer w.WriteGoFile("tables.go", "internal")
// Create parents table.
parents := make([]uint16, language.NumCompactTags)
for _, loc := range data.Locales() {
tag := language.MustParse(loc)
index, ok := language.CompactIndex(tag)
if !ok {
continue
}
parentIndex := 0 // und
for p := tag.Parent(); p != language.Und; p = p.Parent() {
if x, ok := language.CompactIndex(p); ok {
parentIndex = x
break
}
}
parents[index] = uint16(parentIndex)
}
w.WriteComment(`
Parent maps a compact index of a tag to the compact index of the parent of
this tag.`)
w.WriteVar("Parent", parents)
}

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vendor/golang.org/x/text/internal/gen/code.go generated vendored
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@ -1,351 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package gen
import (
"bytes"
"encoding/gob"
"fmt"
"hash"
"hash/fnv"
"io"
"log"
"os"
"reflect"
"strings"
"unicode"
"unicode/utf8"
)
// This file contains utilities for generating code.
// TODO: other write methods like:
// - slices, maps, types, etc.
// CodeWriter is a utility for writing structured code. It computes the content
// hash and size of written content. It ensures there are newlines between
// written code blocks.
type CodeWriter struct {
buf bytes.Buffer
Size int
Hash hash.Hash32 // content hash
gob *gob.Encoder
// For comments we skip the usual one-line separator if they are followed by
// a code block.
skipSep bool
}
func (w *CodeWriter) Write(p []byte) (n int, err error) {
return w.buf.Write(p)
}
// NewCodeWriter returns a new CodeWriter.
func NewCodeWriter() *CodeWriter {
h := fnv.New32()
return &CodeWriter{Hash: h, gob: gob.NewEncoder(h)}
}
// WriteGoFile appends the buffer with the total size of all created structures
// and writes it as a Go file to the the given file with the given package name.
func (w *CodeWriter) WriteGoFile(filename, pkg string) {
f, err := os.Create(filename)
if err != nil {
log.Fatalf("Could not create file %s: %v", filename, err)
}
defer f.Close()
if _, err = w.WriteGo(f, pkg); err != nil {
log.Fatalf("Error writing file %s: %v", filename, err)
}
}
// WriteGo appends the buffer with the total size of all created structures and
// writes it as a Go file to the the given writer with the given package name.
func (w *CodeWriter) WriteGo(out io.Writer, pkg string) (n int, err error) {
sz := w.Size
w.WriteComment("Total table size %d bytes (%dKiB); checksum: %X\n", sz, sz/1024, w.Hash.Sum32())
defer w.buf.Reset()
return WriteGo(out, pkg, w.buf.Bytes())
}
func (w *CodeWriter) printf(f string, x ...interface{}) {
fmt.Fprintf(w, f, x...)
}
func (w *CodeWriter) insertSep() {
if w.skipSep {
w.skipSep = false
return
}
// Use at least two newlines to ensure a blank space between the previous
// block. WriteGoFile will remove extraneous newlines.
w.printf("\n\n")
}
// WriteComment writes a comment block. All line starts are prefixed with "//".
// Initial empty lines are gobbled. The indentation for the first line is
// stripped from consecutive lines.
func (w *CodeWriter) WriteComment(comment string, args ...interface{}) {
s := fmt.Sprintf(comment, args...)
s = strings.Trim(s, "\n")
// Use at least two newlines to ensure a blank space between the previous
// block. WriteGoFile will remove extraneous newlines.
w.printf("\n\n// ")
w.skipSep = true
// strip first indent level.
sep := "\n"
for ; len(s) > 0 && (s[0] == '\t' || s[0] == ' '); s = s[1:] {
sep += s[:1]
}
strings.NewReplacer(sep, "\n// ", "\n", "\n// ").WriteString(w, s)
w.printf("\n")
}
func (w *CodeWriter) writeSizeInfo(size int) {
w.printf("// Size: %d bytes\n", size)
}
// WriteConst writes a constant of the given name and value.
func (w *CodeWriter) WriteConst(name string, x interface{}) {
w.insertSep()
v := reflect.ValueOf(x)
switch v.Type().Kind() {
case reflect.String:
w.printf("const %s %s = ", name, typeName(x))
w.WriteString(v.String())
w.printf("\n")
default:
w.printf("const %s = %#v\n", name, x)
}
}
// WriteVar writes a variable of the given name and value.
func (w *CodeWriter) WriteVar(name string, x interface{}) {
w.insertSep()
v := reflect.ValueOf(x)
oldSize := w.Size
sz := int(v.Type().Size())
w.Size += sz
switch v.Type().Kind() {
case reflect.String:
w.printf("var %s %s = ", name, typeName(x))
w.WriteString(v.String())
case reflect.Struct:
w.gob.Encode(x)
fallthrough
case reflect.Slice, reflect.Array:
w.printf("var %s = ", name)
w.writeValue(v)
w.writeSizeInfo(w.Size - oldSize)
default:
w.printf("var %s %s = ", name, typeName(x))
w.gob.Encode(x)
w.writeValue(v)
w.writeSizeInfo(w.Size - oldSize)
}
w.printf("\n")
}
func (w *CodeWriter) writeValue(v reflect.Value) {
x := v.Interface()
switch v.Kind() {
case reflect.String:
w.WriteString(v.String())
case reflect.Array:
// Don't double count: callers of WriteArray count on the size being
// added, so we need to discount it here.
w.Size -= int(v.Type().Size())
w.writeSlice(x, true)
case reflect.Slice:
w.writeSlice(x, false)
case reflect.Struct:
w.printf("%s{\n", typeName(v.Interface()))
t := v.Type()
for i := 0; i < v.NumField(); i++ {
w.printf("%s: ", t.Field(i).Name)
w.writeValue(v.Field(i))
w.printf(",\n")
}
w.printf("}")
default:
w.printf("%#v", x)
}
}
// WriteString writes a string literal.
func (w *CodeWriter) WriteString(s string) {
s = strings.Replace(s, `\`, `\\`, -1)
io.WriteString(w.Hash, s) // content hash
w.Size += len(s)
const maxInline = 40
if len(s) <= maxInline {
w.printf("%q", s)
return
}
// We will render the string as a multi-line string.
const maxWidth = 80 - 4 - len(`"`) - len(`" +`)
// When starting on its own line, go fmt indents line 2+ an extra level.
n, max := maxWidth, maxWidth-4
// As per https://golang.org/issue/18078, the compiler has trouble
// compiling the concatenation of many strings, s0 + s1 + s2 + ... + sN,
// for large N. We insert redundant, explicit parentheses to work around
// that, lowering the N at any given step: (s0 + s1 + ... + s63) + (s64 +
// ... + s127) + etc + (etc + ... + sN).
explicitParens, extraComment := len(s) > 128*1024, ""
if explicitParens {
w.printf(`(`)
extraComment = "; the redundant, explicit parens are for https://golang.org/issue/18078"
}
// Print "" +\n, if a string does not start on its own line.
b := w.buf.Bytes()
if p := len(bytes.TrimRight(b, " \t")); p > 0 && b[p-1] != '\n' {
w.printf("\"\" + // Size: %d bytes%s\n", len(s), extraComment)
n, max = maxWidth, maxWidth
}
w.printf(`"`)
for sz, p, nLines := 0, 0, 0; p < len(s); {
var r rune
r, sz = utf8.DecodeRuneInString(s[p:])
out := s[p : p+sz]
chars := 1
if !unicode.IsPrint(r) || r == utf8.RuneError || r == '"' {
switch sz {
case 1:
out = fmt.Sprintf("\\x%02x", s[p])
case 2, 3:
out = fmt.Sprintf("\\u%04x", r)
case 4:
out = fmt.Sprintf("\\U%08x", r)
}
chars = len(out)
}
if n -= chars; n < 0 {
nLines++
if explicitParens && nLines&63 == 63 {
w.printf("\") + (\"")
}
w.printf("\" +\n\"")
n = max - len(out)
}
w.printf("%s", out)
p += sz
}
w.printf(`"`)
if explicitParens {
w.printf(`)`)
}
}
// WriteSlice writes a slice value.
func (w *CodeWriter) WriteSlice(x interface{}) {
w.writeSlice(x, false)
}
// WriteArray writes an array value.
func (w *CodeWriter) WriteArray(x interface{}) {
w.writeSlice(x, true)
}
func (w *CodeWriter) writeSlice(x interface{}, isArray bool) {
v := reflect.ValueOf(x)
w.gob.Encode(v.Len())
w.Size += v.Len() * int(v.Type().Elem().Size())
name := typeName(x)
if isArray {
name = fmt.Sprintf("[%d]%s", v.Len(), name[strings.Index(name, "]")+1:])
}
if isArray {
w.printf("%s{\n", name)
} else {
w.printf("%s{ // %d elements\n", name, v.Len())
}
switch kind := v.Type().Elem().Kind(); kind {
case reflect.String:
for _, s := range x.([]string) {
w.WriteString(s)
w.printf(",\n")
}
case reflect.Int, reflect.Int8, reflect.Int16, reflect.Int32, reflect.Int64,
reflect.Uint, reflect.Uint8, reflect.Uint16, reflect.Uint32, reflect.Uint64:
// nLine and nBlock are the number of elements per line and block.
nLine, nBlock, format := 8, 64, "%d,"
switch kind {
case reflect.Uint8:
format = "%#02x,"
case reflect.Uint16:
format = "%#04x,"
case reflect.Uint32:
nLine, nBlock, format = 4, 32, "%#08x,"
case reflect.Uint, reflect.Uint64:
nLine, nBlock, format = 4, 32, "%#016x,"
case reflect.Int8:
nLine = 16
}
n := nLine
for i := 0; i < v.Len(); i++ {
if i%nBlock == 0 && v.Len() > nBlock {
w.printf("// Entry %X - %X\n", i, i+nBlock-1)
}
x := v.Index(i).Interface()
w.gob.Encode(x)
w.printf(format, x)
if n--; n == 0 {
n = nLine
w.printf("\n")
}
}
w.printf("\n")
case reflect.Struct:
zero := reflect.Zero(v.Type().Elem()).Interface()
for i := 0; i < v.Len(); i++ {
x := v.Index(i).Interface()
w.gob.EncodeValue(v)
if !reflect.DeepEqual(zero, x) {
line := fmt.Sprintf("%#v,\n", x)
line = line[strings.IndexByte(line, '{'):]
w.printf("%d: ", i)
w.printf(line)
}
}
case reflect.Array:
for i := 0; i < v.Len(); i++ {
w.printf("%d: %#v,\n", i, v.Index(i).Interface())
}
default:
panic("gen: slice elem type not supported")
}
w.printf("}")
}
// WriteType writes a definition of the type of the given value and returns the
// type name.
func (w *CodeWriter) WriteType(x interface{}) string {
t := reflect.TypeOf(x)
w.printf("type %s struct {\n", t.Name())
for i := 0; i < t.NumField(); i++ {
w.printf("\t%s %s\n", t.Field(i).Name, t.Field(i).Type)
}
w.printf("}\n")
return t.Name()
}
// typeName returns the name of the go type of x.
func typeName(x interface{}) string {
t := reflect.ValueOf(x).Type()
return strings.Replace(fmt.Sprint(t), "main.", "", 1)
}

281
vendor/golang.org/x/text/internal/gen/gen.go generated vendored
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@ -1,281 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// Package gen contains common code for the various code generation tools in the
// text repository. Its usage ensures consistency between tools.
//
// This package defines command line flags that are common to most generation
// tools. The flags allow for specifying specific Unicode and CLDR versions
// in the public Unicode data repository (http://www.unicode.org/Public).
//
// A local Unicode data mirror can be set through the flag -local or the
// environment variable UNICODE_DIR. The former takes precedence. The local
// directory should follow the same structure as the public repository.
//
// IANA data can also optionally be mirrored by putting it in the iana directory
// rooted at the top of the local mirror. Beware, though, that IANA data is not
// versioned. So it is up to the developer to use the right version.
package gen // import "golang.org/x/text/internal/gen"
import (
"bytes"
"flag"
"fmt"
"go/build"
"go/format"
"io"
"io/ioutil"
"log"
"net/http"
"os"
"path"
"path/filepath"
"sync"
"unicode"
"golang.org/x/text/unicode/cldr"
)
var (
url = flag.String("url",
"http://www.unicode.org/Public",
"URL of Unicode database directory")
iana = flag.String("iana",
"http://www.iana.org",
"URL of the IANA repository")
unicodeVersion = flag.String("unicode",
getEnv("UNICODE_VERSION", unicode.Version),
"unicode version to use")
cldrVersion = flag.String("cldr",
getEnv("CLDR_VERSION", cldr.Version),
"cldr version to use")
)
func getEnv(name, def string) string {
if v := os.Getenv(name); v != "" {
return v
}
return def
}
// Init performs common initialization for a gen command. It parses the flags
// and sets up the standard logging parameters.
func Init() {
log.SetPrefix("")
log.SetFlags(log.Lshortfile)
flag.Parse()
}
const header = `// This file was generated by go generate; DO NOT EDIT
package %s
`
// UnicodeVersion reports the requested Unicode version.
func UnicodeVersion() string {
return *unicodeVersion
}
// UnicodeVersion reports the requested CLDR version.
func CLDRVersion() string {
return *cldrVersion
}
// IsLocal reports whether data files are available locally.
func IsLocal() bool {
dir, err := localReadmeFile()
if err != nil {
return false
}
if _, err = os.Stat(dir); err != nil {
return false
}
return true
}
// OpenUCDFile opens the requested UCD file. The file is specified relative to
// the public Unicode root directory. It will call log.Fatal if there are any
// errors.
func OpenUCDFile(file string) io.ReadCloser {
return openUnicode(path.Join(*unicodeVersion, "ucd", file))
}
// OpenCLDRCoreZip opens the CLDR core zip file. It will call log.Fatal if there
// are any errors.
func OpenCLDRCoreZip() io.ReadCloser {
return OpenUnicodeFile("cldr", *cldrVersion, "core.zip")
}
// OpenUnicodeFile opens the requested file of the requested category from the
// root of the Unicode data archive. The file is specified relative to the
// public Unicode root directory. If version is "", it will use the default
// Unicode version. It will call log.Fatal if there are any errors.
func OpenUnicodeFile(category, version, file string) io.ReadCloser {
if version == "" {
version = UnicodeVersion()
}
return openUnicode(path.Join(category, version, file))
}
// OpenIANAFile opens the requested IANA file. The file is specified relative
// to the IANA root, which is typically either http://www.iana.org or the
// iana directory in the local mirror. It will call log.Fatal if there are any
// errors.
func OpenIANAFile(path string) io.ReadCloser {
return Open(*iana, "iana", path)
}
var (
dirMutex sync.Mutex
localDir string
)
const permissions = 0755
func localReadmeFile() (string, error) {
p, err := build.Import("golang.org/x/text", "", build.FindOnly)
if err != nil {
return "", fmt.Errorf("Could not locate package: %v", err)
}
return filepath.Join(p.Dir, "DATA", "README"), nil
}
func getLocalDir() string {
dirMutex.Lock()
defer dirMutex.Unlock()
readme, err := localReadmeFile()
if err != nil {
log.Fatal(err)
}
dir := filepath.Dir(readme)
if _, err := os.Stat(readme); err != nil {
if err := os.MkdirAll(dir, permissions); err != nil {
log.Fatalf("Could not create directory: %v", err)
}
ioutil.WriteFile(readme, []byte(readmeTxt), permissions)
}
return dir
}
const readmeTxt = `Generated by golang.org/x/text/internal/gen. DO NOT EDIT.
This directory contains downloaded files used to generate the various tables
in the golang.org/x/text subrepo.
Note that the language subtag repo (iana/assignments/language-subtag-registry)
and all other times in the iana subdirectory are not versioned and will need
to be periodically manually updated. The easiest way to do this is to remove
the entire iana directory. This is mostly of concern when updating the language
package.
`
// Open opens subdir/path if a local directory is specified and the file exists,
// where subdir is a directory relative to the local root, or fetches it from
// urlRoot/path otherwise. It will call log.Fatal if there are any errors.
func Open(urlRoot, subdir, path string) io.ReadCloser {
file := filepath.Join(getLocalDir(), subdir, filepath.FromSlash(path))
return open(file, urlRoot, path)
}
func openUnicode(path string) io.ReadCloser {
file := filepath.Join(getLocalDir(), filepath.FromSlash(path))
return open(file, *url, path)
}
// TODO: automatically periodically update non-versioned files.
func open(file, urlRoot, path string) io.ReadCloser {
if f, err := os.Open(file); err == nil {
return f
}
r := get(urlRoot, path)
defer r.Close()
b, err := ioutil.ReadAll(r)
if err != nil {
log.Fatalf("Could not download file: %v", err)
}
os.MkdirAll(filepath.Dir(file), permissions)
if err := ioutil.WriteFile(file, b, permissions); err != nil {
log.Fatalf("Could not create file: %v", err)
}
return ioutil.NopCloser(bytes.NewReader(b))
}
func get(root, path string) io.ReadCloser {
url := root + "/" + path
fmt.Printf("Fetching %s...", url)
defer fmt.Println(" done.")
resp, err := http.Get(url)
if err != nil {
log.Fatalf("HTTP GET: %v", err)
}
if resp.StatusCode != 200 {
log.Fatalf("Bad GET status for %q: %q", url, resp.Status)
}
return resp.Body
}
// TODO: use Write*Version in all applicable packages.
// WriteUnicodeVersion writes a constant for the Unicode version from which the
// tables are generated.
func WriteUnicodeVersion(w io.Writer) {
fmt.Fprintf(w, "// UnicodeVersion is the Unicode version from which the tables in this package are derived.\n")
fmt.Fprintf(w, "const UnicodeVersion = %q\n\n", UnicodeVersion())
}
// WriteCLDRVersion writes a constant for the CLDR version from which the
// tables are generated.
func WriteCLDRVersion(w io.Writer) {
fmt.Fprintf(w, "// CLDRVersion is the CLDR version from which the tables in this package are derived.\n")
fmt.Fprintf(w, "const CLDRVersion = %q\n\n", CLDRVersion())
}
// WriteGoFile prepends a standard file comment and package statement to the
// given bytes, applies gofmt, and writes them to a file with the given name.
// It will call log.Fatal if there are any errors.
func WriteGoFile(filename, pkg string, b []byte) {
w, err := os.Create(filename)
if err != nil {
log.Fatalf("Could not create file %s: %v", filename, err)
}
defer w.Close()
if _, err = WriteGo(w, pkg, b); err != nil {
log.Fatalf("Error writing file %s: %v", filename, err)
}
}
// WriteGo prepends a standard file comment and package statement to the given
// bytes, applies gofmt, and writes them to w.
func WriteGo(w io.Writer, pkg string, b []byte) (n int, err error) {
src := []byte(fmt.Sprintf(header, pkg))
src = append(src, b...)
formatted, err := format.Source(src)
if err != nil {
// Print the generated code even in case of an error so that the
// returned error can be meaningfully interpreted.
n, _ = w.Write(src)
return n, err
}
return w.Write(formatted)
}
// Repackage rewrites a Go file from belonging to package main to belonging to
// the given package.
func Repackage(inFile, outFile, pkg string) {
src, err := ioutil.ReadFile(inFile)
if err != nil {
log.Fatalf("reading %s: %v", inFile, err)
}
const toDelete = "package main\n\n"
i := bytes.Index(src, []byte(toDelete))
if i < 0 {
log.Fatalf("Could not find %q in %s.", toDelete, inFile)
}
w := &bytes.Buffer{}
w.Write(src[i+len(toDelete):])
WriteGoFile(outFile, pkg, w.Bytes())
}

58
vendor/golang.org/x/text/internal/triegen/compact.go generated vendored
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@ -1,58 +0,0 @@
// Copyright 2014 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package triegen
// This file defines Compacter and its implementations.
import "io"
// A Compacter generates an alternative, more space-efficient way to store a
// trie value block. A trie value block holds all possible values for the last
// byte of a UTF-8 encoded rune. Excluding ASCII characters, a trie value block
// always has 64 values, as a UTF-8 encoding ends with a byte in [0x80, 0xC0).
type Compacter interface {
// Size returns whether the Compacter could encode the given block as well
// as its size in case it can. len(v) is always 64.
Size(v []uint64) (sz int, ok bool)
// Store stores the block using the Compacter's compression method.
// It returns a handle with which the block can be retrieved.
// len(v) is always 64.
Store(v []uint64) uint32
// Print writes the data structures associated to the given store to w.
Print(w io.Writer) error
// Handler returns the name of a function that gets called during trie
// lookup for blocks generated by the Compacter. The function should be of
// the form func (n uint32, b byte) uint64, where n is the index returned by
// the Compacter's Store method and b is the last byte of the UTF-8
// encoding, where 0x80 <= b < 0xC0, for which to do the lookup in the
// block.
Handler() string
}
// simpleCompacter is the default Compacter used by builder. It implements a
// normal trie block.
type simpleCompacter builder
func (b *simpleCompacter) Size([]uint64) (sz int, ok bool) {
return blockSize * b.ValueSize, true
}
func (b *simpleCompacter) Store(v []uint64) uint32 {
h := uint32(len(b.ValueBlocks) - blockOffset)
b.ValueBlocks = append(b.ValueBlocks, v)
return h
}
func (b *simpleCompacter) Print(io.Writer) error {
// Structures are printed in print.go.
return nil
}
func (b *simpleCompacter) Handler() string {
panic("Handler should be special-cased for this Compacter")
}

251
vendor/golang.org/x/text/internal/triegen/print.go generated vendored
View File

@ -1,251 +0,0 @@
// Copyright 2014 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package triegen
import (
"bytes"
"fmt"
"io"
"strings"
"text/template"
)
// print writes all the data structures as well as the code necessary to use the
// trie to w.
func (b *builder) print(w io.Writer) error {
b.Stats.NValueEntries = len(b.ValueBlocks) * blockSize
b.Stats.NValueBytes = len(b.ValueBlocks) * blockSize * b.ValueSize
b.Stats.NIndexEntries = len(b.IndexBlocks) * blockSize
b.Stats.NIndexBytes = len(b.IndexBlocks) * blockSize * b.IndexSize
b.Stats.NHandleBytes = len(b.Trie) * 2 * b.IndexSize
// If we only have one root trie, all starter blocks are at position 0 and
// we can access the arrays directly.
if len(b.Trie) == 1 {
// At this point we cannot refer to the generated tables directly.
b.ASCIIBlock = b.Name + "Values"
b.StarterBlock = b.Name + "Index"
} else {
// Otherwise we need to have explicit starter indexes in the trie
// structure.
b.ASCIIBlock = "t.ascii"
b.StarterBlock = "t.utf8Start"
}
b.SourceType = "[]byte"
if err := lookupGen.Execute(w, b); err != nil {
return err
}
b.SourceType = "string"
if err := lookupGen.Execute(w, b); err != nil {
return err
}
if err := trieGen.Execute(w, b); err != nil {
return err
}
for _, c := range b.Compactions {
if err := c.c.Print(w); err != nil {
return err
}
}
return nil
}
func printValues(n int, values []uint64) string {
w := &bytes.Buffer{}
boff := n * blockSize
fmt.Fprintf(w, "\t// Block %#x, offset %#x", n, boff)
var newline bool
for i, v := range values {
if i%6 == 0 {
newline = true
}
if v != 0 {
if newline {
fmt.Fprintf(w, "\n")
newline = false
}
fmt.Fprintf(w, "\t%#02x:%#04x, ", boff+i, v)
}
}
return w.String()
}
func printIndex(b *builder, nr int, n *node) string {
w := &bytes.Buffer{}
boff := nr * blockSize
fmt.Fprintf(w, "\t// Block %#x, offset %#x", nr, boff)
var newline bool
for i, c := range n.children {
if i%8 == 0 {
newline = true
}
if c != nil {
v := b.Compactions[c.index.compaction].Offset + uint32(c.index.index)
if v != 0 {
if newline {
fmt.Fprintf(w, "\n")
newline = false
}
fmt.Fprintf(w, "\t%#02x:%#02x, ", boff+i, v)
}
}
}
return w.String()
}
var (
trieGen = template.Must(template.New("trie").Funcs(template.FuncMap{
"printValues": printValues,
"printIndex": printIndex,
"title": strings.Title,
"dec": func(x int) int { return x - 1 },
"psize": func(n int) string {
return fmt.Sprintf("%d bytes (%.2f KiB)", n, float64(n)/1024)
},
}).Parse(trieTemplate))
lookupGen = template.Must(template.New("lookup").Parse(lookupTemplate))
)
// TODO: consider the return type of lookup. It could be uint64, even if the
// internal value type is smaller. We will have to verify this with the
// performance of unicode/norm, which is very sensitive to such changes.
const trieTemplate = `{{$b := .}}{{$multi := gt (len .Trie) 1}}
// {{.Name}}Trie. Total size: {{psize .Size}}. Checksum: {{printf "%08x" .Checksum}}.
type {{.Name}}Trie struct { {{if $multi}}
ascii []{{.ValueType}} // index for ASCII bytes
utf8Start []{{.IndexType}} // index for UTF-8 bytes >= 0xC0
{{end}}}
func new{{title .Name}}Trie(i int) *{{.Name}}Trie { {{if $multi}}
h := {{.Name}}TrieHandles[i]
return &{{.Name}}Trie{ {{.Name}}Values[uint32(h.ascii)<<6:], {{.Name}}Index[uint32(h.multi)<<6:] }
}
type {{.Name}}TrieHandle struct {
ascii, multi {{.IndexType}}
}
// {{.Name}}TrieHandles: {{len .Trie}} handles, {{.Stats.NHandleBytes}} bytes
var {{.Name}}TrieHandles = [{{len .Trie}}]{{.Name}}TrieHandle{
{{range .Trie}} { {{.ASCIIIndex}}, {{.StarterIndex}} }, // {{printf "%08x" .Checksum}}: {{.Name}}
{{end}}}{{else}}
return &{{.Name}}Trie{}
}
{{end}}
// lookupValue determines the type of block n and looks up the value for b.
func (t *{{.Name}}Trie) lookupValue(n uint32, b byte) {{.ValueType}}{{$last := dec (len .Compactions)}} {
switch { {{range $i, $c := .Compactions}}
{{if eq $i $last}}default{{else}}case n < {{$c.Cutoff}}{{end}}:{{if ne $i 0}}
n -= {{$c.Offset}}{{end}}
return {{print $b.ValueType}}({{$c.Handler}}){{end}}
}
}
// {{.Name}}Values: {{len .ValueBlocks}} blocks, {{.Stats.NValueEntries}} entries, {{.Stats.NValueBytes}} bytes
// The third block is the zero block.
var {{.Name}}Values = [{{.Stats.NValueEntries}}]{{.ValueType}} {
{{range $i, $v := .ValueBlocks}}{{printValues $i $v}}
{{end}}}
// {{.Name}}Index: {{len .IndexBlocks}} blocks, {{.Stats.NIndexEntries}} entries, {{.Stats.NIndexBytes}} bytes
// Block 0 is the zero block.
var {{.Name}}Index = [{{.Stats.NIndexEntries}}]{{.IndexType}} {
{{range $i, $v := .IndexBlocks}}{{printIndex $b $i $v}}
{{end}}}
`
// TODO: consider allowing zero-length strings after evaluating performance with
// unicode/norm.
const lookupTemplate = `
// lookup{{if eq .SourceType "string"}}String{{end}} returns the trie value for the first UTF-8 encoding in s and
// the width in bytes of this encoding. The size will be 0 if s does not
// hold enough bytes to complete the encoding. len(s) must be greater than 0.
func (t *{{.Name}}Trie) lookup{{if eq .SourceType "string"}}String{{end}}(s {{.SourceType}}) (v {{.ValueType}}, sz int) {
c0 := s[0]
switch {
case c0 < 0x80: // is ASCII
return {{.ASCIIBlock}}[c0], 1
case c0 < 0xC2:
return 0, 1 // Illegal UTF-8: not a starter, not ASCII.
case c0 < 0xE0: // 2-byte UTF-8
if len(s) < 2 {
return 0, 0
}
i := {{.StarterBlock}}[c0]
c1 := s[1]
if c1 < 0x80 || 0xC0 <= c1 {
return 0, 1 // Illegal UTF-8: not a continuation byte.
}
return t.lookupValue(uint32(i), c1), 2
case c0 < 0xF0: // 3-byte UTF-8
if len(s) < 3 {
return 0, 0
}
i := {{.StarterBlock}}[c0]
c1 := s[1]
if c1 < 0x80 || 0xC0 <= c1 {
return 0, 1 // Illegal UTF-8: not a continuation byte.
}
o := uint32(i)<<6 + uint32(c1)
i = {{.Name}}Index[o]
c2 := s[2]
if c2 < 0x80 || 0xC0 <= c2 {
return 0, 2 // Illegal UTF-8: not a continuation byte.
}
return t.lookupValue(uint32(i), c2), 3
case c0 < 0xF8: // 4-byte UTF-8
if len(s) < 4 {
return 0, 0
}
i := {{.StarterBlock}}[c0]
c1 := s[1]
if c1 < 0x80 || 0xC0 <= c1 {
return 0, 1 // Illegal UTF-8: not a continuation byte.
}
o := uint32(i)<<6 + uint32(c1)
i = {{.Name}}Index[o]
c2 := s[2]
if c2 < 0x80 || 0xC0 <= c2 {
return 0, 2 // Illegal UTF-8: not a continuation byte.
}
o = uint32(i)<<6 + uint32(c2)
i = {{.Name}}Index[o]
c3 := s[3]
if c3 < 0x80 || 0xC0 <= c3 {
return 0, 3 // Illegal UTF-8: not a continuation byte.
}
return t.lookupValue(uint32(i), c3), 4
}
// Illegal rune
return 0, 1
}
// lookup{{if eq .SourceType "string"}}String{{end}}Unsafe returns the trie value for the first UTF-8 encoding in s.
// s must start with a full and valid UTF-8 encoded rune.
func (t *{{.Name}}Trie) lookup{{if eq .SourceType "string"}}String{{end}}Unsafe(s {{.SourceType}}) {{.ValueType}} {
c0 := s[0]
if c0 < 0x80 { // is ASCII
return {{.ASCIIBlock}}[c0]
}
i := {{.StarterBlock}}[c0]
if c0 < 0xE0 { // 2-byte UTF-8
return t.lookupValue(uint32(i), s[1])
}
i = {{.Name}}Index[uint32(i)<<6+uint32(s[1])]
if c0 < 0xF0 { // 3-byte UTF-8
return t.lookupValue(uint32(i), s[2])
}
i = {{.Name}}Index[uint32(i)<<6+uint32(s[2])]
if c0 < 0xF8 { // 4-byte UTF-8
return t.lookupValue(uint32(i), s[3])
}
return 0
}
`

494
vendor/golang.org/x/text/internal/triegen/triegen.go generated vendored
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@ -1,494 +0,0 @@
// Copyright 2014 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// Package triegen implements a code generator for a trie for associating
// unsigned integer values with UTF-8 encoded runes.
//
// Many of the go.text packages use tries for storing per-rune information. A
// trie is especially useful if many of the runes have the same value. If this
// is the case, many blocks can be expected to be shared allowing for
// information on many runes to be stored in little space.
//
// As most of the lookups are done directly on []byte slices, the tries use the
// UTF-8 bytes directly for the lookup. This saves a conversion from UTF-8 to
// runes and contributes a little bit to better performance. It also naturally
// provides a fast path for ASCII.
//
// Space is also an issue. There are many code points defined in Unicode and as
// a result tables can get quite large. So every byte counts. The triegen
// package automatically chooses the smallest integer values to represent the
// tables. Compacters allow further compression of the trie by allowing for
// alternative representations of individual trie blocks.
//
// triegen allows generating multiple tries as a single structure. This is
// useful when, for example, one wants to generate tries for several languages
// that have a lot of values in common. Some existing libraries for
// internationalization store all per-language data as a dynamically loadable
// chunk. The go.text packages are designed with the assumption that the user
// typically wants to compile in support for all supported languages, in line
// with the approach common to Go to create a single standalone binary. The
// multi-root trie approach can give significant storage savings in this
// scenario.
//
// triegen generates both tables and code. The code is optimized to use the
// automatically chosen data types. The following code is generated for a Trie
// or multiple Tries named "foo":
// - type fooTrie
// The trie type.
//
// - func newFooTrie(x int) *fooTrie
// Trie constructor, where x is the index of the trie passed to Gen.
//
// - func (t *fooTrie) lookup(s []byte) (v uintX, sz int)
// The lookup method, where uintX is automatically chosen.
//
// - func lookupString, lookupUnsafe and lookupStringUnsafe
// Variants of the above.
//
// - var fooValues and fooIndex and any tables generated by Compacters.
// The core trie data.
//
// - var fooTrieHandles
// Indexes of starter blocks in case of multiple trie roots.
//
// It is recommended that users test the generated trie by checking the returned
// value for every rune. Such exhaustive tests are possible as the the number of
// runes in Unicode is limited.
package triegen // import "golang.org/x/text/internal/triegen"
// TODO: Arguably, the internally optimized data types would not have to be
// exposed in the generated API. We could also investigate not generating the
// code, but using it through a package. We would have to investigate the impact
// on performance of making such change, though. For packages like unicode/norm,
// small changes like this could tank performance.
import (
"encoding/binary"
"fmt"
"hash/crc64"
"io"
"log"
"unicode/utf8"
)
// builder builds a set of tries for associating values with runes. The set of
// tries can share common index and value blocks.
type builder struct {
Name string
// ValueType is the type of the trie values looked up.
ValueType string
// ValueSize is the byte size of the ValueType.
ValueSize int
// IndexType is the type of trie index values used for all UTF-8 bytes of
// a rune except the last one.
IndexType string
// IndexSize is the byte size of the IndexType.
IndexSize int
// SourceType is used when generating the lookup functions. If the user
// requests StringSupport, all lookup functions will be generated for
// string input as well.
SourceType string
Trie []*Trie
IndexBlocks []*node
ValueBlocks [][]uint64
Compactions []compaction
Checksum uint64
ASCIIBlock string
StarterBlock string
indexBlockIdx map[uint64]int
valueBlockIdx map[uint64]nodeIndex
asciiBlockIdx map[uint64]int
// Stats are used to fill out the template.
Stats struct {
NValueEntries int
NValueBytes int
NIndexEntries int
NIndexBytes int
NHandleBytes int
}
err error
}
// A nodeIndex encodes the index of a node, which is defined by the compaction
// which stores it and an index within the compaction. For internal nodes, the
// compaction is always 0.
type nodeIndex struct {
compaction int
index int
}
// compaction keeps track of stats used for the compaction.
type compaction struct {
c Compacter
blocks []*node
maxHandle uint32
totalSize int
// Used by template-based generator and thus exported.
Cutoff uint32
Offset uint32
Handler string
}
func (b *builder) setError(err error) {
if b.err == nil {
b.err = err
}
}
// An Option can be passed to Gen.
type Option func(b *builder) error
// Compact configures the trie generator to use the given Compacter.
func Compact(c Compacter) Option {
return func(b *builder) error {
b.Compactions = append(b.Compactions, compaction{
c: c,
Handler: c.Handler() + "(n, b)"})
return nil
}
}
// Gen writes Go code for a shared trie lookup structure to w for the given
// Tries. The generated trie type will be called nameTrie. newNameTrie(x) will
// return the *nameTrie for tries[x]. A value can be looked up by using one of
// the various lookup methods defined on nameTrie. It returns the table size of
// the generated trie.
func Gen(w io.Writer, name string, tries []*Trie, opts ...Option) (sz int, err error) {
// The index contains two dummy blocks, followed by the zero block. The zero
// block is at offset 0x80, so that the offset for the zero block for
// continuation bytes is 0.
b := &builder{
Name: name,
Trie: tries,
IndexBlocks: []*node{{}, {}, {}},
Compactions: []compaction{{
Handler: name + "Values[n<<6+uint32(b)]",
}},
// The 0 key in indexBlockIdx and valueBlockIdx is the hash of the zero
// block.
indexBlockIdx: map[uint64]int{0: 0},
valueBlockIdx: map[uint64]nodeIndex{0: {}},
asciiBlockIdx: map[uint64]int{},
}
b.Compactions[0].c = (*simpleCompacter)(b)
for _, f := range opts {
if err := f(b); err != nil {
return 0, err
}
}
b.build()
if b.err != nil {
return 0, b.err
}
if err = b.print(w); err != nil {
return 0, err
}
return b.Size(), nil
}
// A Trie represents a single root node of a trie. A builder may build several
// overlapping tries at once.
type Trie struct {
root *node
hiddenTrie
}
// hiddenTrie contains values we want to be visible to the template generator,
// but hidden from the API documentation.
type hiddenTrie struct {
Name string
Checksum uint64
ASCIIIndex int
StarterIndex int
}
// NewTrie returns a new trie root.
func NewTrie(name string) *Trie {
return &Trie{
&node{
children: make([]*node, blockSize),
values: make([]uint64, utf8.RuneSelf),
},
hiddenTrie{Name: name},
}
}
// Gen is a convenience wrapper around the Gen func passing t as the only trie
// and uses the name passed to NewTrie. It returns the size of the generated
// tables.
func (t *Trie) Gen(w io.Writer, opts ...Option) (sz int, err error) {
return Gen(w, t.Name, []*Trie{t}, opts...)
}
// node is a node of the intermediate trie structure.
type node struct {
// children holds this node's children. It is always of length 64.
// A child node may be nil.
children []*node
// values contains the values of this node. If it is non-nil, this node is
// either a root or leaf node:
// For root nodes, len(values) == 128 and it maps the bytes in [0x00, 0x7F].
// For leaf nodes, len(values) == 64 and it maps the bytes in [0x80, 0xBF].
values []uint64
index nodeIndex
}
// Insert associates value with the given rune. Insert will panic if a non-zero
// value is passed for an invalid rune.
func (t *Trie) Insert(r rune, value uint64) {
if value == 0 {
return
}
s := string(r)
if []rune(s)[0] != r && value != 0 {
// Note: The UCD tables will always assign what amounts to a zero value
// to a surrogate. Allowing a zero value for an illegal rune allows
// users to iterate over [0..MaxRune] without having to explicitly
// exclude surrogates, which would be tedious.
panic(fmt.Sprintf("triegen: non-zero value for invalid rune %U", r))
}
if len(s) == 1 {
// It is a root node value (ASCII).
t.root.values[s[0]] = value
return
}
n := t.root
for ; len(s) > 1; s = s[1:] {
if n.children == nil {
n.children = make([]*node, blockSize)
}
p := s[0] % blockSize
c := n.children[p]
if c == nil {
c = &node{}
n.children[p] = c
}
if len(s) > 2 && c.values != nil {
log.Fatalf("triegen: insert(%U): found internal node with values", r)
}
n = c
}
if n.values == nil {
n.values = make([]uint64, blockSize)
}
if n.children != nil {
log.Fatalf("triegen: insert(%U): found leaf node that also has child nodes", r)
}
n.values[s[0]-0x80] = value
}
// Size returns the number of bytes the generated trie will take to store. It
// needs to be exported as it is used in the templates.
func (b *builder) Size() int {
// Index blocks.
sz := len(b.IndexBlocks) * blockSize * b.IndexSize
// Skip the first compaction, which represents the normal value blocks, as
// its totalSize does not account for the ASCII blocks, which are managed
// separately.
sz += len(b.ValueBlocks) * blockSize * b.ValueSize
for _, c := range b.Compactions[1:] {
sz += c.totalSize
}
// TODO: this computation does not account for the fixed overhead of a using
// a compaction, either code or data. As for data, though, the typical
// overhead of data is in the order of bytes (2 bytes for cases). Further,
// the savings of using a compaction should anyway be substantial for it to
// be worth it.
// For multi-root tries, we also need to account for the handles.
if len(b.Trie) > 1 {
sz += 2 * b.IndexSize * len(b.Trie)
}
return sz
}
func (b *builder) build() {
// Compute the sizes of the values.
var vmax uint64
for _, t := range b.Trie {
vmax = maxValue(t.root, vmax)
}
b.ValueType, b.ValueSize = getIntType(vmax)
// Compute all block allocations.
// TODO: first compute the ASCII blocks for all tries and then the other
// nodes. ASCII blocks are more restricted in placement, as they require two
// blocks to be placed consecutively. Processing them first may improve
// sharing (at least one zero block can be expected to be saved.)
for _, t := range b.Trie {
b.Checksum += b.buildTrie(t)
}
// Compute the offsets for all the Compacters.
offset := uint32(0)
for i := range b.Compactions {
c := &b.Compactions[i]
c.Offset = offset
offset += c.maxHandle + 1
c.Cutoff = offset
}
// Compute the sizes of indexes.
// TODO: different byte positions could have different sizes. So far we have
// not found a case where this is beneficial.
imax := uint64(b.Compactions[len(b.Compactions)-1].Cutoff)
for _, ib := range b.IndexBlocks {
if x := uint64(ib.index.index); x > imax {
imax = x
}
}
b.IndexType, b.IndexSize = getIntType(imax)
}
func maxValue(n *node, max uint64) uint64 {
if n == nil {
return max
}
for _, c := range n.children {
max = maxValue(c, max)
}
for _, v := range n.values {
if max < v {
max = v
}
}
return max
}
func getIntType(v uint64) (string, int) {
switch {
case v < 1<<8:
return "uint8", 1
case v < 1<<16:
return "uint16", 2
case v < 1<<32:
return "uint32", 4
}
return "uint64", 8
}
const (
blockSize = 64
// Subtract two blocks to offset 0x80, the first continuation byte.
blockOffset = 2
// Subtract three blocks to offset 0xC0, the first non-ASCII starter.
rootBlockOffset = 3
)
var crcTable = crc64.MakeTable(crc64.ISO)
func (b *builder) buildTrie(t *Trie) uint64 {
n := t.root
// Get the ASCII offset. For the first trie, the ASCII block will be at
// position 0.
hasher := crc64.New(crcTable)
binary.Write(hasher, binary.BigEndian, n.values)
hash := hasher.Sum64()
v, ok := b.asciiBlockIdx[hash]
if !ok {
v = len(b.ValueBlocks)
b.asciiBlockIdx[hash] = v
b.ValueBlocks = append(b.ValueBlocks, n.values[:blockSize], n.values[blockSize:])
if v == 0 {
// Add the zero block at position 2 so that it will be assigned a
// zero reference in the lookup blocks.
// TODO: always do this? This would allow us to remove a check from
// the trie lookup, but at the expense of extra space. Analyze
// performance for unicode/norm.
b.ValueBlocks = append(b.ValueBlocks, make([]uint64, blockSize))
}
}
t.ASCIIIndex = v
// Compute remaining offsets.
t.Checksum = b.computeOffsets(n, true)
// We already subtracted the normal blockOffset from the index. Subtract the
// difference for starter bytes.
t.StarterIndex = n.index.index - (rootBlockOffset - blockOffset)
return t.Checksum
}
func (b *builder) computeOffsets(n *node, root bool) uint64 {
// For the first trie, the root lookup block will be at position 3, which is
// the offset for UTF-8 non-ASCII starter bytes.
first := len(b.IndexBlocks) == rootBlockOffset
if first {
b.IndexBlocks = append(b.IndexBlocks, n)
}
// We special-case the cases where all values recursively are 0. This allows
// for the use of a zero block to which all such values can be directed.
hash := uint64(0)
if n.children != nil || n.values != nil {
hasher := crc64.New(crcTable)
for _, c := range n.children {
var v uint64
if c != nil {
v = b.computeOffsets(c, false)
}
binary.Write(hasher, binary.BigEndian, v)
}
binary.Write(hasher, binary.BigEndian, n.values)
hash = hasher.Sum64()
}
if first {
b.indexBlockIdx[hash] = rootBlockOffset - blockOffset
}
// Compacters don't apply to internal nodes.
if n.children != nil {
v, ok := b.indexBlockIdx[hash]
if !ok {
v = len(b.IndexBlocks) - blockOffset
b.IndexBlocks = append(b.IndexBlocks, n)
b.indexBlockIdx[hash] = v
}
n.index = nodeIndex{0, v}
} else {
h, ok := b.valueBlockIdx[hash]
if !ok {
bestI, bestSize := 0, blockSize*b.ValueSize
for i, c := range b.Compactions[1:] {
if sz, ok := c.c.Size(n.values); ok && bestSize > sz {
bestI, bestSize = i+1, sz
}
}
c := &b.Compactions[bestI]
c.totalSize += bestSize
v := c.c.Store(n.values)
if c.maxHandle < v {
c.maxHandle = v
}
h = nodeIndex{bestI, int(v)}
b.valueBlockIdx[hash] = h
}
n.index = h
}
return hash
}

376
vendor/golang.org/x/text/internal/ucd/ucd.go generated vendored
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@ -1,376 +0,0 @@
// Copyright 2014 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// Package ucd provides a parser for Unicode Character Database files, the
// format of which is defined in http://www.unicode.org/reports/tr44/. See
// http://www.unicode.org/Public/UCD/latest/ucd/ for example files.
//
// It currently does not support substitutions of missing fields.
package ucd // import "golang.org/x/text/internal/ucd"
import (
"bufio"
"bytes"
"errors"
"io"
"log"
"regexp"
"strconv"
"strings"
)
// UnicodeData.txt fields.
const (
CodePoint = iota
Name
GeneralCategory
CanonicalCombiningClass
BidiClass
DecompMapping
DecimalValue
DigitValue
NumericValue
BidiMirrored
Unicode1Name
ISOComment
SimpleUppercaseMapping
SimpleLowercaseMapping
SimpleTitlecaseMapping
)
// Parse calls f for each entry in the given reader of a UCD file. It will close
// the reader upon return. It will call log.Fatal if any error occurred.
//
// This implements the most common usage pattern of using Parser.
func Parse(r io.ReadCloser, f func(p *Parser)) {
defer r.Close()
p := New(r)
for p.Next() {
f(p)
}
if err := p.Err(); err != nil {
r.Close() // os.Exit will cause defers not to be called.
log.Fatal(err)
}
}
// An Option is used to configure a Parser.
type Option func(p *Parser)
func keepRanges(p *Parser) {
p.keepRanges = true
}
var (
// KeepRanges prevents the expansion of ranges. The raw ranges can be
// obtained by calling Range(0) on the parser.
KeepRanges Option = keepRanges
)
// The Part option register a handler for lines starting with a '@'. The text
// after a '@' is available as the first field. Comments are handled as usual.
func Part(f func(p *Parser)) Option {
return func(p *Parser) {
p.partHandler = f
}
}
// The CommentHandler option passes comments that are on a line by itself to
// a given handler.
func CommentHandler(f func(s string)) Option {
return func(p *Parser) {
p.commentHandler = f
}
}
// A Parser parses Unicode Character Database (UCD) files.
type Parser struct {
scanner *bufio.Scanner
keepRanges bool // Don't expand rune ranges in field 0.
err error
comment []byte
field [][]byte
// parsedRange is needed in case Range(0) is called more than once for one
// field. In some cases this requires scanning ahead.
parsedRange bool
rangeStart, rangeEnd rune
partHandler func(p *Parser)
commentHandler func(s string)
}
func (p *Parser) setError(err error) {
if p.err == nil {
p.err = err
}
}
func (p *Parser) getField(i int) []byte {
if i >= len(p.field) {
return nil
}
return p.field[i]
}
// Err returns a non-nil error if any error occurred during parsing.
func (p *Parser) Err() error {
return p.err
}
// New returns a Parser for the given Reader.
func New(r io.Reader, o ...Option) *Parser {
p := &Parser{
scanner: bufio.NewScanner(r),
}
for _, f := range o {
f(p)
}
return p
}
// Next parses the next line in the file. It returns true if a line was parsed
// and false if it reached the end of the file.
func (p *Parser) Next() bool {
if !p.keepRanges && p.rangeStart < p.rangeEnd {
p.rangeStart++
return true
}
p.comment = nil
p.field = p.field[:0]
p.parsedRange = false
for p.scanner.Scan() {
b := p.scanner.Bytes()
if len(b) == 0 {
continue
}
if b[0] == '#' {
if p.commentHandler != nil {
p.commentHandler(strings.TrimSpace(string(b[1:])))
}
continue
}
// Parse line
if i := bytes.IndexByte(b, '#'); i != -1 {
p.comment = bytes.TrimSpace(b[i+1:])
b = b[:i]
}
if b[0] == '@' {
if p.partHandler != nil {
p.field = append(p.field, bytes.TrimSpace(b[1:]))
p.partHandler(p)
p.field = p.field[:0]
}
p.comment = nil
continue
}
for {
i := bytes.IndexByte(b, ';')
if i == -1 {
p.field = append(p.field, bytes.TrimSpace(b))
break
}
p.field = append(p.field, bytes.TrimSpace(b[:i]))
b = b[i+1:]
}
if !p.keepRanges {
p.rangeStart, p.rangeEnd = p.getRange(0)
}
return true
}
p.setError(p.scanner.Err())
return false
}
func parseRune(b []byte) (rune, error) {
if len(b) > 2 && b[0] == 'U' && b[1] == '+' {
b = b[2:]
}
x, err := strconv.ParseUint(string(b), 16, 32)
return rune(x), err
}
func (p *Parser) parseRune(b []byte) rune {
x, err := parseRune(b)
p.setError(err)
return x
}
// Rune parses and returns field i as a rune.
func (p *Parser) Rune(i int) rune {
if i > 0 || p.keepRanges {
return p.parseRune(p.getField(i))
}
return p.rangeStart
}
// Runes interprets and returns field i as a sequence of runes.
func (p *Parser) Runes(i int) (runes []rune) {
add := func(b []byte) {
if b = bytes.TrimSpace(b); len(b) > 0 {
runes = append(runes, p.parseRune(b))
}
}
for b := p.getField(i); ; {
i := bytes.IndexByte(b, ' ')
if i == -1 {
add(b)
break
}
add(b[:i])
b = b[i+1:]
}
return
}
var (
errIncorrectLegacyRange = errors.New("ucd: unmatched <* First>")
// reRange matches one line of a legacy rune range.
reRange = regexp.MustCompile("^([0-9A-F]*);<([^,]*), ([^>]*)>(.*)$")
)
// Range parses and returns field i as a rune range. A range is inclusive at
// both ends. If the field only has one rune, first and last will be identical.
// It supports the legacy format for ranges used in UnicodeData.txt.
func (p *Parser) Range(i int) (first, last rune) {
if !p.keepRanges {
return p.rangeStart, p.rangeStart
}
return p.getRange(i)
}
func (p *Parser) getRange(i int) (first, last rune) {
b := p.getField(i)
if k := bytes.Index(b, []byte("..")); k != -1 {
return p.parseRune(b[:k]), p.parseRune(b[k+2:])
}
// The first field may not be a rune, in which case we may ignore any error
// and set the range as 0..0.
x, err := parseRune(b)
if err != nil {
// Disable range parsing henceforth. This ensures that an error will be
// returned if the user subsequently will try to parse this field as
// a Rune.
p.keepRanges = true
}
// Special case for UnicodeData that was retained for backwards compatibility.
if i == 0 && len(p.field) > 1 && bytes.HasSuffix(p.field[1], []byte("First>")) {
if p.parsedRange {
return p.rangeStart, p.rangeEnd
}
mf := reRange.FindStringSubmatch(p.scanner.Text())
if mf == nil || !p.scanner.Scan() {
p.setError(errIncorrectLegacyRange)
return x, x
}
// Using Bytes would be more efficient here, but Text is a lot easier
// and this is not a frequent case.
ml := reRange.FindStringSubmatch(p.scanner.Text())
if ml == nil || mf[2] != ml[2] || ml[3] != "Last" || mf[4] != ml[4] {
p.setError(errIncorrectLegacyRange)
return x, x
}
p.rangeStart, p.rangeEnd = x, p.parseRune(p.scanner.Bytes()[:len(ml[1])])
p.parsedRange = true
return p.rangeStart, p.rangeEnd
}
return x, x
}
// bools recognizes all valid UCD boolean values.
var bools = map[string]bool{
"": false,
"N": false,
"No": false,
"F": false,
"False": false,
"Y": true,
"Yes": true,
"T": true,
"True": true,
}
// Bool parses and returns field i as a boolean value.
func (p *Parser) Bool(i int) bool {
b := p.getField(i)
for s, v := range bools {
if bstrEq(b, s) {
return v
}
}
p.setError(strconv.ErrSyntax)
return false
}
// Int parses and returns field i as an integer value.
func (p *Parser) Int(i int) int {
x, err := strconv.ParseInt(string(p.getField(i)), 10, 64)
p.setError(err)
return int(x)
}
// Uint parses and returns field i as an unsigned integer value.
func (p *Parser) Uint(i int) uint {
x, err := strconv.ParseUint(string(p.getField(i)), 10, 64)
p.setError(err)
return uint(x)
}
// Float parses and returns field i as a decimal value.
func (p *Parser) Float(i int) float64 {
x, err := strconv.ParseFloat(string(p.getField(i)), 64)
p.setError(err)
return x
}
// String parses and returns field i as a string value.
func (p *Parser) String(i int) string {
return string(p.getField(i))
}
// Strings parses and returns field i as a space-separated list of strings.
func (p *Parser) Strings(i int) []string {
ss := strings.Split(string(p.getField(i)), " ")
for i, s := range ss {
ss[i] = strings.TrimSpace(s)
}
return ss
}
// Comment returns the comments for the current line.
func (p *Parser) Comment() string {
return string(p.comment)
}
var errUndefinedEnum = errors.New("ucd: undefined enum value")
// Enum interprets and returns field i as a value that must be one of the values
// in enum.
func (p *Parser) Enum(i int, enum ...string) string {
b := p.getField(i)
for _, s := range enum {
if bstrEq(b, s) {
return s
}
}
p.setError(errUndefinedEnum)
return ""
}
func bstrEq(b []byte, s string) bool {
if len(b) != len(s) {
return false
}
for i, c := range b {
if c != s[i] {
return false
}
}
return true
}

20
vendor/golang.org/x/text/language/gen_common.go generated vendored
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@ -1,20 +0,0 @@
// Copyright 2014 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
// This file contains code common to the maketables.go and the package code.
// langAliasType is the type of an alias in langAliasMap.
type langAliasType int8
const (
langDeprecated langAliasType = iota
langMacro
langLegacy
langAliasTypeUnknown langAliasType = -1
)

162
vendor/golang.org/x/text/language/gen_index.go generated vendored
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@ -1,162 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
// This file generates derivative tables based on the language package itself.
import (
"bytes"
"flag"
"fmt"
"io/ioutil"
"log"
"reflect"
"sort"
"strings"
"golang.org/x/text/internal/gen"
"golang.org/x/text/language"
"golang.org/x/text/unicode/cldr"
)
var (
test = flag.Bool("test", false,
"test existing tables; can be used to compare web data with package data.")
draft = flag.String("draft",
"contributed",
`Minimal draft requirements (approved, contributed, provisional, unconfirmed).`)
)
func main() {
gen.Init()
// Read the CLDR zip file.
r := gen.OpenCLDRCoreZip()
defer r.Close()
d := &cldr.Decoder{}
data, err := d.DecodeZip(r)
if err != nil {
log.Fatalf("DecodeZip: %v", err)
}
w := gen.NewCodeWriter()
defer func() {
buf := &bytes.Buffer{}
if _, err = w.WriteGo(buf, "language"); err != nil {
log.Fatalf("Error formatting file index.go: %v", err)
}
// Since we're generating a table for our own package we need to rewrite
// doing the equivalent of go fmt -r 'language.b -> b'. Using
// bytes.Replace will do.
out := bytes.Replace(buf.Bytes(), []byte("language."), nil, -1)
if err := ioutil.WriteFile("index.go", out, 0600); err != nil {
log.Fatalf("Could not create file index.go: %v", err)
}
}()
m := map[language.Tag]bool{}
for _, lang := range data.Locales() {
// We include all locales unconditionally to be consistent with en_US.
// We want en_US, even though it has no data associated with it.
// TODO: put any of the languages for which no data exists at the end
// of the index. This allows all components based on ICU to use that
// as the cutoff point.
// if x := data.RawLDML(lang); false ||
// x.LocaleDisplayNames != nil ||
// x.Characters != nil ||
// x.Delimiters != nil ||
// x.Measurement != nil ||
// x.Dates != nil ||
// x.Numbers != nil ||
// x.Units != nil ||
// x.ListPatterns != nil ||
// x.Collations != nil ||
// x.Segmentations != nil ||
// x.Rbnf != nil ||
// x.Annotations != nil ||
// x.Metadata != nil {
// TODO: support POSIX natively, albeit non-standard.
tag := language.Make(strings.Replace(lang, "_POSIX", "-u-va-posix", 1))
m[tag] = true
// }
}
// Include locales for plural rules, which uses a different structure.
for _, plurals := range data.Supplemental().Plurals {
for _, rules := range plurals.PluralRules {
for _, lang := range strings.Split(rules.Locales, " ") {
m[language.Make(lang)] = true
}
}
}
var core, special []language.Tag
for t := range m {
if x := t.Extensions(); len(x) != 0 && fmt.Sprint(x) != "[u-va-posix]" {
log.Fatalf("Unexpected extension %v in %v", x, t)
}
if len(t.Variants()) == 0 && len(t.Extensions()) == 0 {
core = append(core, t)
} else {
special = append(special, t)
}
}
w.WriteComment(`
NumCompactTags is the number of common tags. The maximum tag is
NumCompactTags-1.`)
w.WriteConst("NumCompactTags", len(core)+len(special))
sort.Sort(byAlpha(special))
w.WriteVar("specialTags", special)
// TODO: order by frequency?
sort.Sort(byAlpha(core))
// Size computations are just an estimate.
w.Size += int(reflect.TypeOf(map[uint32]uint16{}).Size())
w.Size += len(core) * 6 // size of uint32 and uint16
fmt.Fprintln(w)
fmt.Fprintln(w, "var coreTags = map[uint32]uint16{")
fmt.Fprintln(w, "0x0: 0, // und")
i := len(special) + 1 // Und and special tags already written.
for _, t := range core {
if t == language.Und {
continue
}
fmt.Fprint(w.Hash, t, i)
b, s, r := t.Raw()
fmt.Fprintf(w, "0x%s%s%s: %d, // %s\n",
getIndex(b, 3), // 3 is enough as it is guaranteed to be a compact number
getIndex(s, 2),
getIndex(r, 3),
i, t)
i++
}
fmt.Fprintln(w, "}")
}
// getIndex prints the subtag type and extracts its index of size nibble.
// If the index is less than n nibbles, the result is prefixed with 0s.
func getIndex(x interface{}, n int) string {
s := fmt.Sprintf("%#v", x) // s is of form Type{typeID: 0x00}
s = s[strings.Index(s, "0x")+2 : len(s)-1]
return strings.Repeat("0", n-len(s)) + s
}
type byAlpha []language.Tag
func (a byAlpha) Len() int { return len(a) }
func (a byAlpha) Swap(i, j int) { a[i], a[j] = a[j], a[i] }
func (a byAlpha) Less(i, j int) bool { return a[i].String() < a[j].String() }

1648
vendor/golang.org/x/text/language/maketables.go generated vendored
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310
vendor/golang.org/x/text/secure/precis/gen.go generated vendored
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@ -1,310 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// Unicode table generator.
// Data read from the web.
// +build ignore
package main
import (
"flag"
"log"
"unicode"
"unicode/utf8"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/triegen"
"golang.org/x/text/internal/ucd"
"golang.org/x/text/unicode/norm"
"golang.org/x/text/unicode/rangetable"
)
var outputFile = flag.String("output", "tables.go", "output file for generated tables; default tables.go")
var assigned, disallowedRunes *unicode.RangeTable
var runeCategory = map[rune]category{}
var overrides = map[category]category{
viramaModifier: viramaJoinT,
greek: greekJoinT,
hebrew: hebrewJoinT,
}
func setCategory(r rune, cat category) {
if c, ok := runeCategory[r]; ok {
if override, ok := overrides[c]; cat == joiningT && ok {
cat = override
} else {
log.Fatalf("%U: multiple categories for rune (%v and %v)", r, c, cat)
}
}
runeCategory[r] = cat
}
func init() {
if numCategories > 1<<propShift {
log.Fatalf("Number of categories is %d; may at most be %d", numCategories, 1<<propShift)
}
}
func main() {
gen.Init()
// Load data
runes := []rune{}
// PrecisIgnorableProperties: https://tools.ietf.org/html/rfc7564#section-9.13
ucd.Parse(gen.OpenUCDFile("DerivedCoreProperties.txt"), func(p *ucd.Parser) {
if p.String(1) == "Default_Ignorable_Code_Point" {
runes = append(runes, p.Rune(0))
}
})
ucd.Parse(gen.OpenUCDFile("PropList.txt"), func(p *ucd.Parser) {
switch p.String(1) {
case "Noncharacter_Code_Point":
runes = append(runes, p.Rune(0))
}
})
// OldHangulJamo: https://tools.ietf.org/html/rfc5892#section-2.9
ucd.Parse(gen.OpenUCDFile("HangulSyllableType.txt"), func(p *ucd.Parser) {
switch p.String(1) {
case "L", "V", "T":
runes = append(runes, p.Rune(0))
}
})
disallowedRunes = rangetable.New(runes...)
assigned = rangetable.Assigned(unicode.Version)
// Load category data.
runeCategory['l'] = latinSmallL
ucd.Parse(gen.OpenUCDFile("UnicodeData.txt"), func(p *ucd.Parser) {
const cccVirama = 9
if p.Int(ucd.CanonicalCombiningClass) == cccVirama {
setCategory(p.Rune(0), viramaModifier)
}
})
ucd.Parse(gen.OpenUCDFile("Scripts.txt"), func(p *ucd.Parser) {
switch p.String(1) {
case "Greek":
setCategory(p.Rune(0), greek)
case "Hebrew":
setCategory(p.Rune(0), hebrew)
case "Hiragana", "Katakana", "Han":
setCategory(p.Rune(0), japanese)
}
})
// Set the rule categories associated with exceptions. This overrides any
// previously set categories. The original categories are manually
// reintroduced in the categoryTransitions table.
for r, e := range exceptions {
if e.cat != 0 {
runeCategory[r] = e.cat
}
}
cat := map[string]category{
"L": joiningL,
"D": joiningD,
"T": joiningT,
"R": joiningR,
}
ucd.Parse(gen.OpenUCDFile("extracted/DerivedJoiningType.txt"), func(p *ucd.Parser) {
switch v := p.String(1); v {
case "L", "D", "T", "R":
setCategory(p.Rune(0), cat[v])
}
})
writeTables()
gen.Repackage("gen_trieval.go", "trieval.go", "precis")
}
type exception struct {
prop property
cat category
}
func init() {
// Programmatically add the Arabic and Indic digits to the exceptions map.
// See comment in the exceptions map below why these are marked disallowed.
for i := rune(0); i <= 9; i++ {
exceptions[0x0660+i] = exception{
prop: disallowed,
cat: arabicIndicDigit,
}
exceptions[0x06F0+i] = exception{
prop: disallowed,
cat: extendedArabicIndicDigit,
}
}
}
// The Exceptions class as defined in RFC 5892
// https://tools.ietf.org/html/rfc5892#section-2.6
var exceptions = map[rune]exception{
0x00DF: {prop: pValid},
0x03C2: {prop: pValid},
0x06FD: {prop: pValid},
0x06FE: {prop: pValid},
0x0F0B: {prop: pValid},
0x3007: {prop: pValid},
// ContextO|J rules are marked as disallowed, taking a "guilty until proven
// innocent" approach. The main reason for this is that the check for
// whether a context rule should be applied can be moved to the logic for
// handing disallowed runes, taken it off the common path. The exception to
// this rule is for katakanaMiddleDot, as the rule logic is handled without
// using a rule function.
// ContextJ (Join control)
0x200C: {prop: disallowed, cat: zeroWidthNonJoiner},
0x200D: {prop: disallowed, cat: zeroWidthJoiner},
// ContextO
0x00B7: {prop: disallowed, cat: middleDot},
0x0375: {prop: disallowed, cat: greekLowerNumeralSign},
0x05F3: {prop: disallowed, cat: hebrewPreceding}, // punctuation Geresh
0x05F4: {prop: disallowed, cat: hebrewPreceding}, // punctuation Gershayim
0x30FB: {prop: pValid, cat: katakanaMiddleDot},
// These are officially ContextO, but the implementation does not require
// special treatment of these, so we simply mark them as valid.
0x0660: {prop: pValid},
0x0661: {prop: pValid},
0x0662: {prop: pValid},
0x0663: {prop: pValid},
0x0664: {prop: pValid},
0x0665: {prop: pValid},
0x0666: {prop: pValid},
0x0667: {prop: pValid},
0x0668: {prop: pValid},
0x0669: {prop: pValid},
0x06F0: {prop: pValid},
0x06F1: {prop: pValid},
0x06F2: {prop: pValid},
0x06F3: {prop: pValid},
0x06F4: {prop: pValid},
0x06F5: {prop: pValid},
0x06F6: {prop: pValid},
0x06F7: {prop: pValid},
0x06F8: {prop: pValid},
0x06F9: {prop: pValid},
0x0640: {prop: disallowed},
0x07FA: {prop: disallowed},
0x302E: {prop: disallowed},
0x302F: {prop: disallowed},
0x3031: {prop: disallowed},
0x3032: {prop: disallowed},
0x3033: {prop: disallowed},
0x3034: {prop: disallowed},
0x3035: {prop: disallowed},
0x303B: {prop: disallowed},
}
// LetterDigits: https://tools.ietf.org/html/rfc5892#section-2.1
// r in {Ll, Lu, Lo, Nd, Lm, Mn, Mc}.
func isLetterDigits(r rune) bool {
return unicode.In(r,
unicode.Ll, unicode.Lu, unicode.Lm, unicode.Lo, // Letters
unicode.Mn, unicode.Mc, // Modifiers
unicode.Nd, // Digits
)
}
func isIdDisAndFreePVal(r rune) bool {
return unicode.In(r,
// OtherLetterDigits: https://tools.ietf.org/html/rfc7564#section-9.18
// r in in {Lt, Nl, No, Me}
unicode.Lt, unicode.Nl, unicode.No, // Other letters / numbers
unicode.Me, // Modifiers
// Spaces: https://tools.ietf.org/html/rfc7564#section-9.14
// r in in {Zs}
unicode.Zs,
// Symbols: https://tools.ietf.org/html/rfc7564#section-9.15
// r in {Sm, Sc, Sk, So}
unicode.Sm, unicode.Sc, unicode.Sk, unicode.So,
// Punctuation: https://tools.ietf.org/html/rfc7564#section-9.16
// r in {Pc, Pd, Ps, Pe, Pi, Pf, Po}
unicode.Pc, unicode.Pd, unicode.Ps, unicode.Pe,
unicode.Pi, unicode.Pf, unicode.Po,
)
}
// HasCompat: https://tools.ietf.org/html/rfc7564#section-9.17
func hasCompat(r rune) bool {
return !norm.NFKC.IsNormalString(string(r))
}
// From https://tools.ietf.org/html/rfc5892:
//
// If .cp. .in. Exceptions Then Exceptions(cp);
// Else If .cp. .in. BackwardCompatible Then BackwardCompatible(cp);
// Else If .cp. .in. Unassigned Then UNASSIGNED;
// Else If .cp. .in. ASCII7 Then PVALID;
// Else If .cp. .in. JoinControl Then CONTEXTJ;
// Else If .cp. .in. OldHangulJamo Then DISALLOWED;
// Else If .cp. .in. PrecisIgnorableProperties Then DISALLOWED;
// Else If .cp. .in. Controls Then DISALLOWED;
// Else If .cp. .in. HasCompat Then ID_DIS or FREE_PVAL;
// Else If .cp. .in. LetterDigits Then PVALID;
// Else If .cp. .in. OtherLetterDigits Then ID_DIS or FREE_PVAL;
// Else If .cp. .in. Spaces Then ID_DIS or FREE_PVAL;
// Else If .cp. .in. Symbols Then ID_DIS or FREE_PVAL;
// Else If .cp. .in. Punctuation Then ID_DIS or FREE_PVAL;
// Else DISALLOWED;
func writeTables() {
propTrie := triegen.NewTrie("derivedProperties")
w := gen.NewCodeWriter()
defer w.WriteGoFile(*outputFile, "precis")
gen.WriteUnicodeVersion(w)
// Iterate over all the runes...
for i := rune(0); i < unicode.MaxRune; i++ {
r := rune(i)
if !utf8.ValidRune(r) {
continue
}
e, ok := exceptions[i]
p := e.prop
switch {
case ok:
case !unicode.In(r, assigned):
p = unassigned
case r >= 0x0021 && r <= 0x007e: // Is ASCII 7
p = pValid
case unicode.In(r, disallowedRunes, unicode.Cc):
p = disallowed
case hasCompat(r):
p = idDisOrFreePVal
case isLetterDigits(r):
p = pValid
case isIdDisAndFreePVal(r):
p = idDisOrFreePVal
default:
p = disallowed
}
cat := runeCategory[r]
// Don't set category for runes that are disallowed.
if p == disallowed {
cat = exceptions[r].cat
}
propTrie.Insert(r, uint64(p)|uint64(cat))
}
sz, err := propTrie.Gen(w)
if err != nil {
log.Fatal(err)
}
w.Size += sz
}

68
vendor/golang.org/x/text/secure/precis/gen_trieval.go generated vendored
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@ -1,68 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
// entry is the entry of a trie table
// 7..6 property (unassigned, disallowed, maybe, valid)
// 5..0 category
type entry uint8
const (
propShift = 6
propMask = 0xc0
catMask = 0x3f
)
func (e entry) property() property { return property(e & propMask) }
func (e entry) category() category { return category(e & catMask) }
type property uint8
// The order of these constants matter. A Profile may consider runes to be
// allowed either from pValid or idDisOrFreePVal.
const (
unassigned property = iota << propShift
disallowed
idDisOrFreePVal // disallowed for Identifier, pValid for FreeForm
pValid
)
// compute permutations of all properties and specialCategories.
type category uint8
const (
other category = iota
// Special rune types
joiningL
joiningD
joiningT
joiningR
viramaModifier
viramaJoinT // Virama + JoiningT
latinSmallL // U+006c
greek
greekJoinT // Greek + JoiningT
hebrew
hebrewJoinT // Hebrew + JoiningT
japanese // hirigana, katakana, han
// Special rune types associated with contextual rules defined in
// https://tools.ietf.org/html/rfc5892#appendix-A.
// ContextO
zeroWidthNonJoiner // rule 1
zeroWidthJoiner // rule 2
// ContextJ
middleDot // rule 3
greekLowerNumeralSign // rule 4
hebrewPreceding // rule 5 and 6
katakanaMiddleDot // rule 7
arabicIndicDigit // rule 8
extendedArabicIndicDigit // rule 9
numCategories
)

133
vendor/golang.org/x/text/unicode/bidi/gen.go generated vendored
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@ -1,133 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
import (
"flag"
"log"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/triegen"
"golang.org/x/text/internal/ucd"
)
var outputFile = flag.String("out", "tables.go", "output file")
func main() {
gen.Init()
gen.Repackage("gen_trieval.go", "trieval.go", "bidi")
gen.Repackage("gen_ranges.go", "ranges_test.go", "bidi")
genTables()
}
// bidiClass names and codes taken from class "bc" in
// http://www.unicode.org/Public/8.0.0/ucd/PropertyValueAliases.txt
var bidiClass = map[string]Class{
"AL": AL, // ArabicLetter
"AN": AN, // ArabicNumber
"B": B, // ParagraphSeparator
"BN": BN, // BoundaryNeutral
"CS": CS, // CommonSeparator
"EN": EN, // EuropeanNumber
"ES": ES, // EuropeanSeparator
"ET": ET, // EuropeanTerminator
"L": L, // LeftToRight
"NSM": NSM, // NonspacingMark
"ON": ON, // OtherNeutral
"R": R, // RightToLeft
"S": S, // SegmentSeparator
"WS": WS, // WhiteSpace
"FSI": Control,
"PDF": Control,
"PDI": Control,
"LRE": Control,
"LRI": Control,
"LRO": Control,
"RLE": Control,
"RLI": Control,
"RLO": Control,
}
func genTables() {
if numClass > 0x0F {
log.Fatalf("Too many Class constants (%#x > 0x0F).", numClass)
}
w := gen.NewCodeWriter()
defer w.WriteGoFile(*outputFile, "bidi")
gen.WriteUnicodeVersion(w)
t := triegen.NewTrie("bidi")
// Build data about bracket mapping. These bits need to be or-ed with
// any other bits.
orMask := map[rune]uint64{}
xorMap := map[rune]int{}
xorMasks := []rune{0} // First value is no-op.
ucd.Parse(gen.OpenUCDFile("BidiBrackets.txt"), func(p *ucd.Parser) {
r1 := p.Rune(0)
r2 := p.Rune(1)
xor := r1 ^ r2
if _, ok := xorMap[xor]; !ok {
xorMap[xor] = len(xorMasks)
xorMasks = append(xorMasks, xor)
}
entry := uint64(xorMap[xor]) << xorMaskShift
switch p.String(2) {
case "o":
entry |= openMask
case "c", "n":
default:
log.Fatalf("Unknown bracket class %q.", p.String(2))
}
orMask[r1] = entry
})
w.WriteComment(`
xorMasks contains masks to be xor-ed with brackets to get the reverse
version.`)
w.WriteVar("xorMasks", xorMasks)
done := map[rune]bool{}
insert := func(r rune, c Class) {
if !done[r] {
t.Insert(r, orMask[r]|uint64(c))
done[r] = true
}
}
// Insert the derived BiDi properties.
ucd.Parse(gen.OpenUCDFile("extracted/DerivedBidiClass.txt"), func(p *ucd.Parser) {
r := p.Rune(0)
class, ok := bidiClass[p.String(1)]
if !ok {
log.Fatalf("%U: Unknown BiDi class %q", r, p.String(1))
}
insert(r, class)
})
visitDefaults(insert)
// TODO: use sparse blocks. This would reduce table size considerably
// from the looks of it.
sz, err := t.Gen(w)
if err != nil {
log.Fatal(err)
}
w.Size += sz
}
// dummy values to make methods in gen_common compile. The real versions
// will be generated by this file to tables.go.
var (
xorMasks []rune
)

57
vendor/golang.org/x/text/unicode/bidi/gen_ranges.go generated vendored
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@ -1,57 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
import (
"unicode"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/ucd"
"golang.org/x/text/unicode/rangetable"
)
// These tables are hand-extracted from:
// http://www.unicode.org/Public/8.0.0/ucd/extracted/DerivedBidiClass.txt
func visitDefaults(fn func(r rune, c Class)) {
// first write default values for ranges listed above.
visitRunes(fn, AL, []rune{
0x0600, 0x07BF, // Arabic
0x08A0, 0x08FF, // Arabic Extended-A
0xFB50, 0xFDCF, // Arabic Presentation Forms
0xFDF0, 0xFDFF,
0xFE70, 0xFEFF,
0x0001EE00, 0x0001EEFF, // Arabic Mathematical Alpha Symbols
})
visitRunes(fn, R, []rune{
0x0590, 0x05FF, // Hebrew
0x07C0, 0x089F, // Nko et al.
0xFB1D, 0xFB4F,
0x00010800, 0x00010FFF, // Cypriot Syllabary et. al.
0x0001E800, 0x0001EDFF,
0x0001EF00, 0x0001EFFF,
})
visitRunes(fn, ET, []rune{ // European Terminator
0x20A0, 0x20Cf, // Currency symbols
})
rangetable.Visit(unicode.Noncharacter_Code_Point, func(r rune) {
fn(r, BN) // Boundary Neutral
})
ucd.Parse(gen.OpenUCDFile("DerivedCoreProperties.txt"), func(p *ucd.Parser) {
if p.String(1) == "Default_Ignorable_Code_Point" {
fn(p.Rune(0), BN) // Boundary Neutral
}
})
}
func visitRunes(fn func(r rune, c Class), c Class, runes []rune) {
for i := 0; i < len(runes); i += 2 {
lo, hi := runes[i], runes[i+1]
for j := lo; j <= hi; j++ {
fn(j, c)
}
}
}

64
vendor/golang.org/x/text/unicode/bidi/gen_trieval.go generated vendored
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@ -1,64 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
// Class is the Unicode BiDi class. Each rune has a single class.
type Class uint
const (
L Class = iota // LeftToRight
R // RightToLeft
EN // EuropeanNumber
ES // EuropeanSeparator
ET // EuropeanTerminator
AN // ArabicNumber
CS // CommonSeparator
B // ParagraphSeparator
S // SegmentSeparator
WS // WhiteSpace
ON // OtherNeutral
BN // BoundaryNeutral
NSM // NonspacingMark
AL // ArabicLetter
Control // Control LRO - PDI
numClass
LRO // LeftToRightOverride
RLO // RightToLeftOverride
LRE // LeftToRightEmbedding
RLE // RightToLeftEmbedding
PDF // PopDirectionalFormat
LRI // LeftToRightIsolate
RLI // RightToLeftIsolate
FSI // FirstStrongIsolate
PDI // PopDirectionalIsolate
unknownClass = ^Class(0)
)
var controlToClass = map[rune]Class{
0x202D: LRO, // LeftToRightOverride,
0x202E: RLO, // RightToLeftOverride,
0x202A: LRE, // LeftToRightEmbedding,
0x202B: RLE, // RightToLeftEmbedding,
0x202C: PDF, // PopDirectionalFormat,
0x2066: LRI, // LeftToRightIsolate,
0x2067: RLI, // RightToLeftIsolate,
0x2068: FSI, // FirstStrongIsolate,
0x2069: PDI, // PopDirectionalIsolate,
}
// A trie entry has the following bits:
// 7..5 XOR mask for brackets
// 4 1: Bracket open, 0: Bracket close
// 3..0 Class type
const (
openMask = 0x10
xorMaskShift = 5
)

100
vendor/golang.org/x/text/unicode/cldr/base.go generated vendored
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@ -1,100 +0,0 @@
// Copyright 2013 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package cldr
import (
"encoding/xml"
"regexp"
"strconv"
)
// Elem is implemented by every XML element.
type Elem interface {
setEnclosing(Elem)
setName(string)
enclosing() Elem
GetCommon() *Common
}
type hidden struct {
CharData string `xml:",chardata"`
Alias *struct {
Common
Source string `xml:"source,attr"`
Path string `xml:"path,attr"`
} `xml:"alias"`
Def *struct {
Common
Choice string `xml:"choice,attr,omitempty"`
Type string `xml:"type,attr,omitempty"`
} `xml:"default"`
}
// Common holds several of the most common attributes and sub elements
// of an XML element.
type Common struct {
XMLName xml.Name
name string
enclElem Elem
Type string `xml:"type,attr,omitempty"`
Reference string `xml:"reference,attr,omitempty"`
Alt string `xml:"alt,attr,omitempty"`
ValidSubLocales string `xml:"validSubLocales,attr,omitempty"`
Draft string `xml:"draft,attr,omitempty"`
hidden
}
// Default returns the default type to select from the enclosed list
// or "" if no default value is specified.
func (e *Common) Default() string {
if e.Def == nil {
return ""
}
if e.Def.Choice != "" {
return e.Def.Choice
} else if e.Def.Type != "" {
// Type is still used by the default element in collation.
return e.Def.Type
}
return ""
}
// GetCommon returns e. It is provided such that Common implements Elem.
func (e *Common) GetCommon() *Common {
return e
}
// Data returns the character data accumulated for this element.
func (e *Common) Data() string {
e.CharData = charRe.ReplaceAllStringFunc(e.CharData, replaceUnicode)
return e.CharData
}
func (e *Common) setName(s string) {
e.name = s
}
func (e *Common) enclosing() Elem {
return e.enclElem
}
func (e *Common) setEnclosing(en Elem) {
e.enclElem = en
}
// Escape characters that can be escaped without further escaping the string.
var charRe = regexp.MustCompile(`&#x[0-9a-fA-F]*;|\\u[0-9a-fA-F]{4}|\\U[0-9a-fA-F]{8}|\\x[0-9a-fA-F]{2}|\\[0-7]{3}|\\[abtnvfr]`)
// replaceUnicode converts hexadecimal Unicode codepoint notations to a one-rune string.
// It assumes the input string is correctly formatted.
func replaceUnicode(s string) string {
if s[1] == '#' {
r, _ := strconv.ParseInt(s[3:len(s)-1], 16, 32)
return string(r)
}
r, _, _, _ := strconv.UnquoteChar(s, 0)
return string(r)
}

130
vendor/golang.org/x/text/unicode/cldr/cldr.go generated vendored
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@ -1,130 +0,0 @@
// Copyright 2013 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
//go:generate go run makexml.go -output xml.go
// Package cldr provides a parser for LDML and related XML formats.
// This package is intended to be used by the table generation tools
// for the various internationalization-related packages.
// As the XML types are generated from the CLDR DTD, and as the CLDR standard
// is periodically amended, this package may change considerably over time.
// This mostly means that data may appear and disappear between versions.
// That is, old code should keep compiling for newer versions, but data
// may have moved or changed.
// CLDR version 22 is the first version supported by this package.
// Older versions may not work.
package cldr // import "golang.org/x/text/unicode/cldr"
import (
"fmt"
"sort"
)
// CLDR provides access to parsed data of the Unicode Common Locale Data Repository.
type CLDR struct {
parent map[string][]string
locale map[string]*LDML
resolved map[string]*LDML
bcp47 *LDMLBCP47
supp *SupplementalData
}
func makeCLDR() *CLDR {
return &CLDR{
parent: make(map[string][]string),
locale: make(map[string]*LDML),
resolved: make(map[string]*LDML),
bcp47: &LDMLBCP47{},
supp: &SupplementalData{},
}
}
// BCP47 returns the parsed BCP47 LDML data. If no such data was parsed, nil is returned.
func (cldr *CLDR) BCP47() *LDMLBCP47 {
return nil
}
// Draft indicates the draft level of an element.
type Draft int
const (
Approved Draft = iota
Contributed
Provisional
Unconfirmed
)
var drafts = []string{"unconfirmed", "provisional", "contributed", "approved", ""}
// ParseDraft returns the Draft value corresponding to the given string. The
// empty string corresponds to Approved.
func ParseDraft(level string) (Draft, error) {
if level == "" {
return Approved, nil
}
for i, s := range drafts {
if level == s {
return Unconfirmed - Draft(i), nil
}
}
return Approved, fmt.Errorf("cldr: unknown draft level %q", level)
}
func (d Draft) String() string {
return drafts[len(drafts)-1-int(d)]
}
// SetDraftLevel sets which draft levels to include in the evaluated LDML.
// Any draft element for which the draft level is higher than lev will be excluded.
// If multiple draft levels are available for a single element, the one with the
// lowest draft level will be selected, unless preferDraft is true, in which case
// the highest draft will be chosen.
// It is assumed that the underlying LDML is canonicalized.
func (cldr *CLDR) SetDraftLevel(lev Draft, preferDraft bool) {
// TODO: implement
cldr.resolved = make(map[string]*LDML)
}
// RawLDML returns the LDML XML for id in unresolved form.
// id must be one of the strings returned by Locales.
func (cldr *CLDR) RawLDML(loc string) *LDML {
return cldr.locale[loc]
}
// LDML returns the fully resolved LDML XML for loc, which must be one of
// the strings returned by Locales.
func (cldr *CLDR) LDML(loc string) (*LDML, error) {
return cldr.resolve(loc)
}
// Supplemental returns the parsed supplemental data. If no such data was parsed,
// nil is returned.
func (cldr *CLDR) Supplemental() *SupplementalData {
return cldr.supp
}
// Locales returns the locales for which there exist files.
// Valid sublocales for which there is no file are not included.
// The root locale is always sorted first.
func (cldr *CLDR) Locales() []string {
loc := []string{"root"}
hasRoot := false
for l, _ := range cldr.locale {
if l == "root" {
hasRoot = true
continue
}
loc = append(loc, l)
}
sort.Strings(loc[1:])
if !hasRoot {
return loc[1:]
}
return loc
}
// Get fills in the fields of x based on the XPath path.
func Get(e Elem, path string) (res Elem, err error) {
return walkXPath(e, path)
}

359
vendor/golang.org/x/text/unicode/cldr/collate.go generated vendored
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@ -1,359 +0,0 @@
// Copyright 2013 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package cldr
import (
"bufio"
"encoding/xml"
"errors"
"fmt"
"strconv"
"strings"
"unicode"
"unicode/utf8"
)
// RuleProcessor can be passed to Collator's Process method, which
// parses the rules and calls the respective method for each rule found.
type RuleProcessor interface {
Reset(anchor string, before int) error
Insert(level int, str, context, extend string) error
Index(id string)
}
const (
// cldrIndex is a Unicode-reserved sentinel value used to mark the start
// of a grouping within an index.
// We ignore any rule that starts with this rune.
// See http://unicode.org/reports/tr35/#Collation_Elements for details.
cldrIndex = "\uFDD0"
// specialAnchor is the format in which to represent logical reset positions,
// such as "first tertiary ignorable".
specialAnchor = "<%s/>"
)
// Process parses the rules for the tailorings of this collation
// and calls the respective methods of p for each rule found.
func (c Collation) Process(p RuleProcessor) (err error) {
if len(c.Cr) > 0 {
if len(c.Cr) > 1 {
return fmt.Errorf("multiple cr elements, want 0 or 1")
}
return processRules(p, c.Cr[0].Data())
}
if c.Rules.Any != nil {
return c.processXML(p)
}
return errors.New("no tailoring data")
}
// processRules parses rules in the Collation Rule Syntax defined in
// http://www.unicode.org/reports/tr35/tr35-collation.html#Collation_Tailorings.
func processRules(p RuleProcessor, s string) (err error) {
chk := func(s string, e error) string {
if err == nil {
err = e
}
return s
}
i := 0 // Save the line number for use after the loop.
scanner := bufio.NewScanner(strings.NewReader(s))
for ; scanner.Scan() && err == nil; i++ {
for s := skipSpace(scanner.Text()); s != "" && s[0] != '#'; s = skipSpace(s) {
level := 5
var ch byte
switch ch, s = s[0], s[1:]; ch {
case '&': // followed by <anchor> or '[' <key> ']'
if s = skipSpace(s); consume(&s, '[') {
s = chk(parseSpecialAnchor(p, s))
} else {
s = chk(parseAnchor(p, 0, s))
}
case '<': // sort relation '<'{1,4}, optionally followed by '*'.
for level = 1; consume(&s, '<'); level++ {
}
if level > 4 {
err = fmt.Errorf("level %d > 4", level)
}
fallthrough
case '=': // identity relation, optionally followed by *.
if consume(&s, '*') {
s = chk(parseSequence(p, level, s))
} else {
s = chk(parseOrder(p, level, s))
}
default:
chk("", fmt.Errorf("illegal operator %q", ch))
break
}
}
}
if chk("", scanner.Err()); err != nil {
return fmt.Errorf("%d: %v", i, err)
}
return nil
}
// parseSpecialAnchor parses the anchor syntax which is either of the form
// ['before' <level>] <anchor>
// or
// [<label>]
// The starting should already be consumed.
func parseSpecialAnchor(p RuleProcessor, s string) (tail string, err error) {
i := strings.IndexByte(s, ']')
if i == -1 {
return "", errors.New("unmatched bracket")
}
a := strings.TrimSpace(s[:i])
s = s[i+1:]
if strings.HasPrefix(a, "before ") {
l, err := strconv.ParseUint(skipSpace(a[len("before "):]), 10, 3)
if err != nil {
return s, err
}
return parseAnchor(p, int(l), s)
}
return s, p.Reset(fmt.Sprintf(specialAnchor, a), 0)
}
func parseAnchor(p RuleProcessor, level int, s string) (tail string, err error) {
anchor, s, err := scanString(s)
if err != nil {
return s, err
}
return s, p.Reset(anchor, level)
}
func parseOrder(p RuleProcessor, level int, s string) (tail string, err error) {
var value, context, extend string
if value, s, err = scanString(s); err != nil {
return s, err
}
if strings.HasPrefix(value, cldrIndex) {
p.Index(value[len(cldrIndex):])
return
}
if consume(&s, '|') {
if context, s, err = scanString(s); err != nil {
return s, errors.New("missing string after context")
}
}
if consume(&s, '/') {
if extend, s, err = scanString(s); err != nil {
return s, errors.New("missing string after extension")
}
}
return s, p.Insert(level, value, context, extend)
}
// scanString scans a single input string.
func scanString(s string) (str, tail string, err error) {
if s = skipSpace(s); s == "" {
return s, s, errors.New("missing string")
}
buf := [16]byte{} // small but enough to hold most cases.
value := buf[:0]
for s != "" {
if consume(&s, '\'') {
i := strings.IndexByte(s, '\'')
if i == -1 {
return "", "", errors.New(`unmatched single quote`)
}
if i == 0 {
value = append(value, '\'')
} else {
value = append(value, s[:i]...)
}
s = s[i+1:]
continue
}
r, sz := utf8.DecodeRuneInString(s)
if unicode.IsSpace(r) || strings.ContainsRune("&<=#", r) {
break
}
value = append(value, s[:sz]...)
s = s[sz:]
}
return string(value), skipSpace(s), nil
}
func parseSequence(p RuleProcessor, level int, s string) (tail string, err error) {
if s = skipSpace(s); s == "" {
return s, errors.New("empty sequence")
}
last := rune(0)
for s != "" {
r, sz := utf8.DecodeRuneInString(s)
s = s[sz:]
if r == '-' {
// We have a range. The first element was already written.
if last == 0 {
return s, errors.New("range without starter value")
}
r, sz = utf8.DecodeRuneInString(s)
s = s[sz:]
if r == utf8.RuneError || r < last {
return s, fmt.Errorf("invalid range %q-%q", last, r)
}
for i := last + 1; i <= r; i++ {
if err := p.Insert(level, string(i), "", ""); err != nil {
return s, err
}
}
last = 0
continue
}
if unicode.IsSpace(r) || unicode.IsPunct(r) {
break
}
// normal case
if err := p.Insert(level, string(r), "", ""); err != nil {
return s, err
}
last = r
}
return s, nil
}
func skipSpace(s string) string {
return strings.TrimLeftFunc(s, unicode.IsSpace)
}
// consumes returns whether the next byte is ch. If so, it gobbles it by
// updating s.
func consume(s *string, ch byte) (ok bool) {
if *s == "" || (*s)[0] != ch {
return false
}
*s = (*s)[1:]
return true
}
// The following code parses Collation rules of CLDR version 24 and before.
var lmap = map[byte]int{
'p': 1,
's': 2,
't': 3,
'i': 5,
}
type rulesElem struct {
Rules struct {
Common
Any []*struct {
XMLName xml.Name
rule
} `xml:",any"`
} `xml:"rules"`
}
type rule struct {
Value string `xml:",chardata"`
Before string `xml:"before,attr"`
Any []*struct {
XMLName xml.Name
rule
} `xml:",any"`
}
var emptyValueError = errors.New("cldr: empty rule value")
func (r *rule) value() (string, error) {
// Convert hexadecimal Unicode codepoint notation to a string.
s := charRe.ReplaceAllStringFunc(r.Value, replaceUnicode)
r.Value = s
if s == "" {
if len(r.Any) != 1 {
return "", emptyValueError
}
r.Value = fmt.Sprintf(specialAnchor, r.Any[0].XMLName.Local)
r.Any = nil
} else if len(r.Any) != 0 {
return "", fmt.Errorf("cldr: XML elements found in collation rule: %v", r.Any)
}
return r.Value, nil
}
func (r rule) process(p RuleProcessor, name, context, extend string) error {
v, err := r.value()
if err != nil {
return err
}
switch name {
case "p", "s", "t", "i":
if strings.HasPrefix(v, cldrIndex) {
p.Index(v[len(cldrIndex):])
return nil
}
if err := p.Insert(lmap[name[0]], v, context, extend); err != nil {
return err
}
case "pc", "sc", "tc", "ic":
level := lmap[name[0]]
for _, s := range v {
if err := p.Insert(level, string(s), context, extend); err != nil {
return err
}
}
default:
return fmt.Errorf("cldr: unsupported tag: %q", name)
}
return nil
}
// processXML parses the format of CLDR versions 24 and older.
func (c Collation) processXML(p RuleProcessor) (err error) {
// Collation is generated and defined in xml.go.
var v string
for _, r := range c.Rules.Any {
switch r.XMLName.Local {
case "reset":
level := 0
switch r.Before {
case "primary", "1":
level = 1
case "secondary", "2":
level = 2
case "tertiary", "3":
level = 3
case "":
default:
return fmt.Errorf("cldr: unknown level %q", r.Before)
}
v, err = r.value()
if err == nil {
err = p.Reset(v, level)
}
case "x":
var context, extend string
for _, r1 := range r.Any {
v, err = r1.value()
switch r1.XMLName.Local {
case "context":
context = v
case "extend":
extend = v
}
}
for _, r1 := range r.Any {
if t := r1.XMLName.Local; t == "context" || t == "extend" {
continue
}
r1.rule.process(p, r1.XMLName.Local, context, extend)
}
default:
err = r.rule.process(p, r.XMLName.Local, "", "")
}
if err != nil {
return err
}
}
return nil
}

171
vendor/golang.org/x/text/unicode/cldr/decode.go generated vendored
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@ -1,171 +0,0 @@
// Copyright 2013 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package cldr
import (
"archive/zip"
"bytes"
"encoding/xml"
"fmt"
"io"
"io/ioutil"
"log"
"os"
"path/filepath"
"regexp"
)
// A Decoder loads an archive of CLDR data.
type Decoder struct {
dirFilter []string
sectionFilter []string
loader Loader
cldr *CLDR
curLocale string
}
// SetSectionFilter takes a list top-level LDML element names to which
// evaluation of LDML should be limited. It automatically calls SetDirFilter.
func (d *Decoder) SetSectionFilter(filter ...string) {
d.sectionFilter = filter
// TODO: automatically set dir filter
}
// SetDirFilter limits the loading of LDML XML files of the specied directories.
// Note that sections may be split across directories differently for different CLDR versions.
// For more robust code, use SetSectionFilter.
func (d *Decoder) SetDirFilter(dir ...string) {
d.dirFilter = dir
}
// A Loader provides access to the files of a CLDR archive.
type Loader interface {
Len() int
Path(i int) string
Reader(i int) (io.ReadCloser, error)
}
var fileRe = regexp.MustCompile(".*/(.*)/(.*)\\.xml")
// Decode loads and decodes the files represented by l.
func (d *Decoder) Decode(l Loader) (cldr *CLDR, err error) {
d.cldr = makeCLDR()
for i := 0; i < l.Len(); i++ {
fname := l.Path(i)
if m := fileRe.FindStringSubmatch(fname); m != nil {
if len(d.dirFilter) > 0 && !in(d.dirFilter, m[1]) {
continue
}
var r io.Reader
if r, err = l.Reader(i); err == nil {
err = d.decode(m[1], m[2], r)
}
if err != nil {
return nil, err
}
}
}
d.cldr.finalize(d.sectionFilter)
return d.cldr, nil
}
func (d *Decoder) decode(dir, id string, r io.Reader) error {
var v interface{}
var l *LDML
cldr := d.cldr
switch {
case dir == "supplemental":
v = cldr.supp
case dir == "transforms":
return nil
case dir == "bcp47":
v = cldr.bcp47
case dir == "validity":
return nil
default:
ok := false
if v, ok = cldr.locale[id]; !ok {
l = &LDML{}
v, cldr.locale[id] = l, l
}
}
x := xml.NewDecoder(r)
if err := x.Decode(v); err != nil {
log.Printf("%s/%s: %v", dir, id, err)
return err
}
if l != nil {
if l.Identity == nil {
return fmt.Errorf("%s/%s: missing identity element", dir, id)
}
// TODO: verify when CLDR bug http://unicode.org/cldr/trac/ticket/8970
// is resolved.
// path := strings.Split(id, "_")
// if lang := l.Identity.Language.Type; lang != path[0] {
// return fmt.Errorf("%s/%s: language was %s; want %s", dir, id, lang, path[0])
// }
}
return nil
}
type pathLoader []string
func makePathLoader(path string) (pl pathLoader, err error) {
err = filepath.Walk(path, func(path string, _ os.FileInfo, err error) error {
pl = append(pl, path)
return err
})
return pl, err
}
func (pl pathLoader) Len() int {
return len(pl)
}
func (pl pathLoader) Path(i int) string {
return pl[i]
}
func (pl pathLoader) Reader(i int) (io.ReadCloser, error) {
return os.Open(pl[i])
}
// DecodePath loads CLDR data from the given path.
func (d *Decoder) DecodePath(path string) (cldr *CLDR, err error) {
loader, err := makePathLoader(path)
if err != nil {
return nil, err
}
return d.Decode(loader)
}
type zipLoader struct {
r *zip.Reader
}
func (zl zipLoader) Len() int {
return len(zl.r.File)
}
func (zl zipLoader) Path(i int) string {
return zl.r.File[i].Name
}
func (zl zipLoader) Reader(i int) (io.ReadCloser, error) {
return zl.r.File[i].Open()
}
// DecodeZip loads CLDR data from the zip archive for which r is the source.
func (d *Decoder) DecodeZip(r io.Reader) (cldr *CLDR, err error) {
buffer, err := ioutil.ReadAll(r)
if err != nil {
return nil, err
}
archive, err := zip.NewReader(bytes.NewReader(buffer), int64(len(buffer)))
if err != nil {
return nil, err
}
return d.Decode(zipLoader{archive})
}

400
vendor/golang.org/x/text/unicode/cldr/makexml.go generated vendored
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@ -1,400 +0,0 @@
// Copyright 2013 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
// This tool generates types for the various XML formats of CLDR.
package main
import (
"archive/zip"
"bytes"
"encoding/xml"
"flag"
"fmt"
"io"
"io/ioutil"
"log"
"os"
"regexp"
"strings"
"golang.org/x/text/internal/gen"
)
var outputFile = flag.String("output", "xml.go", "output file name")
func main() {
flag.Parse()
r := gen.OpenCLDRCoreZip()
buffer, err := ioutil.ReadAll(r)
if err != nil {
log.Fatal("Could not read zip file")
}
r.Close()
z, err := zip.NewReader(bytes.NewReader(buffer), int64(len(buffer)))
if err != nil {
log.Fatalf("Could not read zip archive: %v", err)
}
var buf bytes.Buffer
version := gen.CLDRVersion()
for _, dtd := range files {
for _, f := range z.File {
if strings.HasSuffix(f.Name, dtd.file+".dtd") {
r, err := f.Open()
failOnError(err)
b := makeBuilder(&buf, dtd)
b.parseDTD(r)
b.resolve(b.index[dtd.top[0]])
b.write()
if b.version != "" && version != b.version {
println(f.Name)
log.Fatalf("main: inconsistent versions: found %s; want %s", b.version, version)
}
break
}
}
}
fmt.Fprintln(&buf, "// Version is the version of CLDR from which the XML definitions are generated.")
fmt.Fprintf(&buf, "const Version = %q\n", version)
gen.WriteGoFile(*outputFile, "cldr", buf.Bytes())
}
func failOnError(err error) {
if err != nil {
log.New(os.Stderr, "", log.Lshortfile).Output(2, err.Error())
os.Exit(1)
}
}
// configuration data per DTD type
type dtd struct {
file string // base file name
root string // Go name of the root XML element
top []string // create a different type for this section
skipElem []string // hard-coded or deprecated elements
skipAttr []string // attributes to exclude
predefined []string // hard-coded elements exist of the form <name>Elem
forceRepeat []string // elements to make slices despite DTD
}
var files = []dtd{
{
file: "ldmlBCP47",
root: "LDMLBCP47",
top: []string{"ldmlBCP47"},
skipElem: []string{
"cldrVersion", // deprecated, not used
},
},
{
file: "ldmlSupplemental",
root: "SupplementalData",
top: []string{"supplementalData"},
skipElem: []string{
"cldrVersion", // deprecated, not used
},
forceRepeat: []string{
"plurals", // data defined in plurals.xml and ordinals.xml
},
},
{
file: "ldml",
root: "LDML",
top: []string{
"ldml", "collation", "calendar", "timeZoneNames", "localeDisplayNames", "numbers",
},
skipElem: []string{
"cp", // not used anywhere
"special", // not used anywhere
"fallback", // deprecated, not used
"alias", // in Common
"default", // in Common
},
skipAttr: []string{
"hiraganaQuarternary", // typo in DTD, correct version included as well
},
predefined: []string{"rules"},
},
}
var comments = map[string]string{
"ldmlBCP47": `
// LDMLBCP47 holds information on allowable values for various variables in LDML.
`,
"supplementalData": `
// SupplementalData holds information relevant for internationalization
// and proper use of CLDR, but that is not contained in the locale hierarchy.
`,
"ldml": `
// LDML is the top-level type for locale-specific data.
`,
"collation": `
// Collation contains rules that specify a certain sort-order,
// as a tailoring of the root order.
// The parsed rules are obtained by passing a RuleProcessor to Collation's
// Process method.
`,
"calendar": `
// Calendar specifies the fields used for formatting and parsing dates and times.
// The month and quarter names are identified numerically, starting at 1.
// The day (of the week) names are identified with short strings, since there is
// no universally-accepted numeric designation.
`,
"dates": `
// Dates contains information regarding the format and parsing of dates and times.
`,
"localeDisplayNames": `
// LocaleDisplayNames specifies localized display names for for scripts, languages,
// countries, currencies, and variants.
`,
"numbers": `
// Numbers supplies information for formatting and parsing numbers and currencies.
`,
}
type element struct {
name string // XML element name
category string // elements contained by this element
signature string // category + attrKey*
attr []*attribute // attributes supported by this element.
sub []struct { // parsed and evaluated sub elements of this element.
e *element
repeat bool // true if the element needs to be a slice
}
resolved bool // prevent multiple resolutions of this element.
}
type attribute struct {
name string
key string
list []string
tag string // Go tag
}
var (
reHead = regexp.MustCompile(` *(\w+) +([\w\-]+)`)
reAttr = regexp.MustCompile(` *(\w+) *(?:(\w+)|\(([\w\- \|]+)\)) *(?:#([A-Z]*) *(?:\"([\.\d+])\")?)? *("[\w\-:]*")?`)
reElem = regexp.MustCompile(`^ *(EMPTY|ANY|\(.*\)[\*\+\?]?) *$`)
reToken = regexp.MustCompile(`\w\-`)
)
// builder is used to read in the DTD files from CLDR and generate Go code
// to be used with the encoding/xml package.
type builder struct {
w io.Writer
index map[string]*element
elem []*element
info dtd
version string
}
func makeBuilder(w io.Writer, d dtd) builder {
return builder{
w: w,
index: make(map[string]*element),
elem: []*element{},
info: d,
}
}
// parseDTD parses a DTD file.
func (b *builder) parseDTD(r io.Reader) {
for d := xml.NewDecoder(r); ; {
t, err := d.Token()
if t == nil {
break
}
failOnError(err)
dir, ok := t.(xml.Directive)
if !ok {
continue
}
m := reHead.FindSubmatch(dir)
dir = dir[len(m[0]):]
ename := string(m[2])
el, elementFound := b.index[ename]
switch string(m[1]) {
case "ELEMENT":
if elementFound {
log.Fatal("parseDTD: duplicate entry for element %q", ename)
}
m := reElem.FindSubmatch(dir)
if m == nil {
log.Fatalf("parseDTD: invalid element %q", string(dir))
}
if len(m[0]) != len(dir) {
log.Fatal("parseDTD: invalid element %q", string(dir), len(dir), len(m[0]), string(m[0]))
}
s := string(m[1])
el = &element{
name: ename,
category: s,
}
b.index[ename] = el
case "ATTLIST":
if !elementFound {
log.Fatalf("parseDTD: unknown element %q", ename)
}
s := string(dir)
m := reAttr.FindStringSubmatch(s)
if m == nil {
log.Fatal(fmt.Errorf("parseDTD: invalid attribute %q", string(dir)))
}
if m[4] == "FIXED" {
b.version = m[5]
} else {
switch m[1] {
case "draft", "references", "alt", "validSubLocales", "standard" /* in Common */ :
case "type", "choice":
default:
el.attr = append(el.attr, &attribute{
name: m[1],
key: s,
list: reToken.FindAllString(m[3], -1),
})
el.signature = fmt.Sprintf("%s=%s+%s", el.signature, m[1], m[2])
}
}
}
}
}
var reCat = regexp.MustCompile(`[ ,\|]*(?:(\(|\)|\#?[\w_-]+)([\*\+\?]?))?`)
// resolve takes a parsed element and converts it into structured data
// that can be used to generate the XML code.
func (b *builder) resolve(e *element) {
if e.resolved {
return
}
b.elem = append(b.elem, e)
e.resolved = true
s := e.category
found := make(map[string]bool)
sequenceStart := []int{}
for len(s) > 0 {
m := reCat.FindStringSubmatch(s)
if m == nil {
log.Fatalf("%s: invalid category string %q", e.name, s)
}
repeat := m[2] == "*" || m[2] == "+" || in(b.info.forceRepeat, m[1])
switch m[1] {
case "":
case "(":
sequenceStart = append(sequenceStart, len(e.sub))
case ")":
if len(sequenceStart) == 0 {
log.Fatalf("%s: unmatched closing parenthesis", e.name)
}
for i := sequenceStart[len(sequenceStart)-1]; i < len(e.sub); i++ {
e.sub[i].repeat = e.sub[i].repeat || repeat
}
sequenceStart = sequenceStart[:len(sequenceStart)-1]
default:
if in(b.info.skipElem, m[1]) {
} else if sub, ok := b.index[m[1]]; ok {
if !found[sub.name] {
e.sub = append(e.sub, struct {
e *element
repeat bool
}{sub, repeat})
found[sub.name] = true
b.resolve(sub)
}
} else if m[1] == "#PCDATA" || m[1] == "ANY" {
} else if m[1] != "EMPTY" {
log.Fatalf("resolve:%s: element %q not found", e.name, m[1])
}
}
s = s[len(m[0]):]
}
}
// return true if s is contained in set.
func in(set []string, s string) bool {
for _, v := range set {
if v == s {
return true
}
}
return false
}
var repl = strings.NewReplacer("-", " ", "_", " ")
// title puts the first character or each character following '_' in title case and
// removes all occurrences of '_'.
func title(s string) string {
return strings.Replace(strings.Title(repl.Replace(s)), " ", "", -1)
}
// writeElem generates Go code for a single element, recursively.
func (b *builder) writeElem(tab int, e *element) {
p := func(f string, x ...interface{}) {
f = strings.Replace(f, "\n", "\n"+strings.Repeat("\t", tab), -1)
fmt.Fprintf(b.w, f, x...)
}
if len(e.sub) == 0 && len(e.attr) == 0 {
p("Common")
return
}
p("struct {")
tab++
p("\nCommon")
for _, attr := range e.attr {
if !in(b.info.skipAttr, attr.name) {
p("\n%s string `xml:\"%s,attr\"`", title(attr.name), attr.name)
}
}
for _, sub := range e.sub {
if in(b.info.predefined, sub.e.name) {
p("\n%sElem", sub.e.name)
continue
}
if in(b.info.skipElem, sub.e.name) {
continue
}
p("\n%s ", title(sub.e.name))
if sub.repeat {
p("[]")
}
p("*")
if in(b.info.top, sub.e.name) {
p(title(sub.e.name))
} else {
b.writeElem(tab, sub.e)
}
p(" `xml:\"%s\"`", sub.e.name)
}
tab--
p("\n}")
}
// write generates the Go XML code.
func (b *builder) write() {
for i, name := range b.info.top {
e := b.index[name]
if e != nil {
fmt.Fprintf(b.w, comments[name])
name := title(e.name)
if i == 0 {
name = b.info.root
}
fmt.Fprintf(b.w, "type %s ", name)
b.writeElem(0, e)
fmt.Fprint(b.w, "\n")
}
}
}

602
vendor/golang.org/x/text/unicode/cldr/resolve.go generated vendored
View File

@ -1,602 +0,0 @@
// Copyright 2013 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package cldr
// This file implements the various inheritance constructs defined by LDML.
// See http://www.unicode.org/reports/tr35/#Inheritance_and_Validity
// for more details.
import (
"fmt"
"log"
"reflect"
"regexp"
"sort"
"strings"
)
// fieldIter iterates over fields in a struct. It includes
// fields of embedded structs.
type fieldIter struct {
v reflect.Value
index, n []int
}
func iter(v reflect.Value) fieldIter {
if v.Kind() != reflect.Struct {
log.Panicf("value %v must be a struct", v)
}
i := fieldIter{
v: v,
index: []int{0},
n: []int{v.NumField()},
}
i.descent()
return i
}
func (i *fieldIter) descent() {
for f := i.field(); f.Anonymous && f.Type.NumField() > 0; f = i.field() {
i.index = append(i.index, 0)
i.n = append(i.n, f.Type.NumField())
}
}
func (i *fieldIter) done() bool {
return len(i.index) == 1 && i.index[0] >= i.n[0]
}
func skip(f reflect.StructField) bool {
return !f.Anonymous && (f.Name[0] < 'A' || f.Name[0] > 'Z')
}
func (i *fieldIter) next() {
for {
k := len(i.index) - 1
i.index[k]++
if i.index[k] < i.n[k] {
if !skip(i.field()) {
break
}
} else {
if k == 0 {
return
}
i.index = i.index[:k]
i.n = i.n[:k]
}
}
i.descent()
}
func (i *fieldIter) value() reflect.Value {
return i.v.FieldByIndex(i.index)
}
func (i *fieldIter) field() reflect.StructField {
return i.v.Type().FieldByIndex(i.index)
}
type visitor func(v reflect.Value) error
var stopDescent = fmt.Errorf("do not recurse")
func (f visitor) visit(x interface{}) error {
return f.visitRec(reflect.ValueOf(x))
}
// visit recursively calls f on all nodes in v.
func (f visitor) visitRec(v reflect.Value) error {
if v.Kind() == reflect.Ptr {
if v.IsNil() {
return nil
}
return f.visitRec(v.Elem())
}
if err := f(v); err != nil {
if err == stopDescent {
return nil
}
return err
}
switch v.Kind() {
case reflect.Struct:
for i := iter(v); !i.done(); i.next() {
if err := f.visitRec(i.value()); err != nil {
return err
}
}
case reflect.Slice:
for i := 0; i < v.Len(); i++ {
if err := f.visitRec(v.Index(i)); err != nil {
return err
}
}
}
return nil
}
// getPath is used for error reporting purposes only.
func getPath(e Elem) string {
if e == nil {
return "<nil>"
}
if e.enclosing() == nil {
return e.GetCommon().name
}
if e.GetCommon().Type == "" {
return fmt.Sprintf("%s.%s", getPath(e.enclosing()), e.GetCommon().name)
}
return fmt.Sprintf("%s.%s[type=%s]", getPath(e.enclosing()), e.GetCommon().name, e.GetCommon().Type)
}
// xmlName returns the xml name of the element or attribute
func xmlName(f reflect.StructField) (name string, attr bool) {
tags := strings.Split(f.Tag.Get("xml"), ",")
for _, s := range tags {
attr = attr || s == "attr"
}
return tags[0], attr
}
func findField(v reflect.Value, key string) (reflect.Value, error) {
v = reflect.Indirect(v)
for i := iter(v); !i.done(); i.next() {
if n, _ := xmlName(i.field()); n == key {
return i.value(), nil
}
}
return reflect.Value{}, fmt.Errorf("cldr: no field %q in element %#v", key, v.Interface())
}
var xpathPart = regexp.MustCompile(`(\pL+)(?:\[@(\pL+)='([\w-]+)'\])?`)
func walkXPath(e Elem, path string) (res Elem, err error) {
for _, c := range strings.Split(path, "/") {
if c == ".." {
if e = e.enclosing(); e == nil {
panic("path ..")
return nil, fmt.Errorf(`cldr: ".." moves past root in path %q`, path)
}
continue
} else if c == "" {
continue
}
m := xpathPart.FindStringSubmatch(c)
if len(m) == 0 || len(m[0]) != len(c) {
return nil, fmt.Errorf("cldr: syntax error in path component %q", c)
}
v, err := findField(reflect.ValueOf(e), m[1])
if err != nil {
return nil, err
}
switch v.Kind() {
case reflect.Slice:
i := 0
if m[2] != "" || v.Len() > 1 {
if m[2] == "" {
m[2] = "type"
if m[3] = e.GetCommon().Default(); m[3] == "" {
return nil, fmt.Errorf("cldr: type selector or default value needed for element %s", m[1])
}
}
for ; i < v.Len(); i++ {
vi := v.Index(i)
key, err := findField(vi.Elem(), m[2])
if err != nil {
return nil, err
}
key = reflect.Indirect(key)
if key.Kind() == reflect.String && key.String() == m[3] {
break
}
}
}
if i == v.Len() || v.Index(i).IsNil() {
return nil, fmt.Errorf("no %s found with %s==%s", m[1], m[2], m[3])
}
e = v.Index(i).Interface().(Elem)
case reflect.Ptr:
if v.IsNil() {
return nil, fmt.Errorf("cldr: element %q not found within element %q", m[1], e.GetCommon().name)
}
var ok bool
if e, ok = v.Interface().(Elem); !ok {
return nil, fmt.Errorf("cldr: %q is not an XML element", m[1])
} else if m[2] != "" || m[3] != "" {
return nil, fmt.Errorf("cldr: no type selector allowed for element %s", m[1])
}
default:
return nil, fmt.Errorf("cldr: %q is not an XML element", m[1])
}
}
return e, nil
}
const absPrefix = "//ldml/"
func (cldr *CLDR) resolveAlias(e Elem, src, path string) (res Elem, err error) {
if src != "locale" {
if !strings.HasPrefix(path, absPrefix) {
return nil, fmt.Errorf("cldr: expected absolute path, found %q", path)
}
path = path[len(absPrefix):]
if e, err = cldr.resolve(src); err != nil {
return nil, err
}
}
return walkXPath(e, path)
}
func (cldr *CLDR) resolveAndMergeAlias(e Elem) error {
alias := e.GetCommon().Alias
if alias == nil {
return nil
}
a, err := cldr.resolveAlias(e, alias.Source, alias.Path)
if err != nil {
return fmt.Errorf("%v: error evaluating path %q: %v", getPath(e), alias.Path, err)
}
// Ensure alias node was already evaluated. TODO: avoid double evaluation.
err = cldr.resolveAndMergeAlias(a)
v := reflect.ValueOf(e).Elem()
for i := iter(reflect.ValueOf(a).Elem()); !i.done(); i.next() {
if vv := i.value(); vv.Kind() != reflect.Ptr || !vv.IsNil() {
if _, attr := xmlName(i.field()); !attr {
v.FieldByIndex(i.index).Set(vv)
}
}
}
return err
}
func (cldr *CLDR) aliasResolver() visitor {
return func(v reflect.Value) (err error) {
if e, ok := v.Addr().Interface().(Elem); ok {
err = cldr.resolveAndMergeAlias(e)
if err == nil && blocking[e.GetCommon().name] {
return stopDescent
}
}
return err
}
}
// elements within blocking elements do not inherit.
// Taken from CLDR's supplementalMetaData.xml.
var blocking = map[string]bool{
"identity": true,
"supplementalData": true,
"cldrTest": true,
"collation": true,
"transform": true,
}
// Distinguishing attributes affect inheritance; two elements with different
// distinguishing attributes are treated as different for purposes of inheritance,
// except when such attributes occur in the indicated elements.
// Taken from CLDR's supplementalMetaData.xml.
var distinguishing = map[string][]string{
"key": nil,
"request_id": nil,
"id": nil,
"registry": nil,
"alt": nil,
"iso4217": nil,
"iso3166": nil,
"mzone": nil,
"from": nil,
"to": nil,
"type": []string{
"abbreviationFallback",
"default",
"mapping",
"measurementSystem",
"preferenceOrdering",
},
"numberSystem": nil,
}
func in(set []string, s string) bool {
for _, v := range set {
if v == s {
return true
}
}
return false
}
// attrKey computes a key based on the distinguishable attributes of
// an element and it's values.
func attrKey(v reflect.Value, exclude ...string) string {
parts := []string{}
ename := v.Interface().(Elem).GetCommon().name
v = v.Elem()
for i := iter(v); !i.done(); i.next() {
if name, attr := xmlName(i.field()); attr {
if except, ok := distinguishing[name]; ok && !in(exclude, name) && !in(except, ename) {
v := i.value()
if v.Kind() == reflect.Ptr {
v = v.Elem()
}
if v.IsValid() {
parts = append(parts, fmt.Sprintf("%s=%s", name, v.String()))
}
}
}
}
sort.Strings(parts)
return strings.Join(parts, ";")
}
// Key returns a key for e derived from all distinguishing attributes
// except those specified by exclude.
func Key(e Elem, exclude ...string) string {
return attrKey(reflect.ValueOf(e), exclude...)
}
// linkEnclosing sets the enclosing element as well as the name
// for all sub-elements of child, recursively.
func linkEnclosing(parent, child Elem) {
child.setEnclosing(parent)
v := reflect.ValueOf(child).Elem()
for i := iter(v); !i.done(); i.next() {
vf := i.value()
if vf.Kind() == reflect.Slice {
for j := 0; j < vf.Len(); j++ {
linkEnclosing(child, vf.Index(j).Interface().(Elem))
}
} else if vf.Kind() == reflect.Ptr && !vf.IsNil() && vf.Elem().Kind() == reflect.Struct {
linkEnclosing(child, vf.Interface().(Elem))
}
}
}
func setNames(e Elem, name string) {
e.setName(name)
v := reflect.ValueOf(e).Elem()
for i := iter(v); !i.done(); i.next() {
vf := i.value()
name, _ = xmlName(i.field())
if vf.Kind() == reflect.Slice {
for j := 0; j < vf.Len(); j++ {
setNames(vf.Index(j).Interface().(Elem), name)
}
} else if vf.Kind() == reflect.Ptr && !vf.IsNil() && vf.Elem().Kind() == reflect.Struct {
setNames(vf.Interface().(Elem), name)
}
}
}
// deepCopy copies elements of v recursively. All elements of v that may
// be modified by inheritance are explicitly copied.
func deepCopy(v reflect.Value) reflect.Value {
switch v.Kind() {
case reflect.Ptr:
if v.IsNil() || v.Elem().Kind() != reflect.Struct {
return v
}
nv := reflect.New(v.Elem().Type())
nv.Elem().Set(v.Elem())
deepCopyRec(nv.Elem(), v.Elem())
return nv
case reflect.Slice:
nv := reflect.MakeSlice(v.Type(), v.Len(), v.Len())
for i := 0; i < v.Len(); i++ {
deepCopyRec(nv.Index(i), v.Index(i))
}
return nv
}
panic("deepCopy: must be called with pointer or slice")
}
// deepCopyRec is only called by deepCopy.
func deepCopyRec(nv, v reflect.Value) {
if v.Kind() == reflect.Struct {
t := v.Type()
for i := 0; i < v.NumField(); i++ {
if name, attr := xmlName(t.Field(i)); name != "" && !attr {
deepCopyRec(nv.Field(i), v.Field(i))
}
}
} else {
nv.Set(deepCopy(v))
}
}
// newNode is used to insert a missing node during inheritance.
func (cldr *CLDR) newNode(v, enc reflect.Value) reflect.Value {
n := reflect.New(v.Type())
for i := iter(v); !i.done(); i.next() {
if name, attr := xmlName(i.field()); name == "" || attr {
n.Elem().FieldByIndex(i.index).Set(i.value())
}
}
n.Interface().(Elem).GetCommon().setEnclosing(enc.Addr().Interface().(Elem))
return n
}
// v, parent must be pointers to struct
func (cldr *CLDR) inheritFields(v, parent reflect.Value) (res reflect.Value, err error) {
t := v.Type()
nv := reflect.New(t)
nv.Elem().Set(v)
for i := iter(v); !i.done(); i.next() {
vf := i.value()
f := i.field()
name, attr := xmlName(f)
if name == "" || attr {
continue
}
pf := parent.FieldByIndex(i.index)
if blocking[name] {
if vf.IsNil() {
vf = pf
}
nv.Elem().FieldByIndex(i.index).Set(deepCopy(vf))
continue
}
switch f.Type.Kind() {
case reflect.Ptr:
if f.Type.Elem().Kind() == reflect.Struct {
if !vf.IsNil() {
if vf, err = cldr.inheritStructPtr(vf, pf); err != nil {
return reflect.Value{}, err
}
vf.Interface().(Elem).setEnclosing(nv.Interface().(Elem))
nv.Elem().FieldByIndex(i.index).Set(vf)
} else if !pf.IsNil() {
n := cldr.newNode(pf.Elem(), v)
if vf, err = cldr.inheritStructPtr(n, pf); err != nil {
return reflect.Value{}, err
}
vf.Interface().(Elem).setEnclosing(nv.Interface().(Elem))
nv.Elem().FieldByIndex(i.index).Set(vf)
}
}
case reflect.Slice:
vf, err := cldr.inheritSlice(nv.Elem(), vf, pf)
if err != nil {
return reflect.Zero(t), err
}
nv.Elem().FieldByIndex(i.index).Set(vf)
}
}
return nv, nil
}
func root(e Elem) *LDML {
for ; e.enclosing() != nil; e = e.enclosing() {
}
return e.(*LDML)
}
// inheritStructPtr first merges possible aliases in with v and then inherits
// any underspecified elements from parent.
func (cldr *CLDR) inheritStructPtr(v, parent reflect.Value) (r reflect.Value, err error) {
if !v.IsNil() {
e := v.Interface().(Elem).GetCommon()
alias := e.Alias
if alias == nil && !parent.IsNil() {
alias = parent.Interface().(Elem).GetCommon().Alias
}
if alias != nil {
a, err := cldr.resolveAlias(v.Interface().(Elem), alias.Source, alias.Path)
if a != nil {
if v, err = cldr.inheritFields(v.Elem(), reflect.ValueOf(a).Elem()); err != nil {
return reflect.Value{}, err
}
}
}
if !parent.IsNil() {
return cldr.inheritFields(v.Elem(), parent.Elem())
}
} else if parent.IsNil() {
panic("should not reach here")
}
return v, nil
}
// Must be slice of struct pointers.
func (cldr *CLDR) inheritSlice(enc, v, parent reflect.Value) (res reflect.Value, err error) {
t := v.Type()
index := make(map[string]reflect.Value)
if !v.IsNil() {
for i := 0; i < v.Len(); i++ {
vi := v.Index(i)
key := attrKey(vi)
index[key] = vi
}
}
if !parent.IsNil() {
for i := 0; i < parent.Len(); i++ {
vi := parent.Index(i)
key := attrKey(vi)
if w, ok := index[key]; ok {
index[key], err = cldr.inheritStructPtr(w, vi)
} else {
n := cldr.newNode(vi.Elem(), enc)
index[key], err = cldr.inheritStructPtr(n, vi)
}
index[key].Interface().(Elem).setEnclosing(enc.Addr().Interface().(Elem))
if err != nil {
return v, err
}
}
}
keys := make([]string, 0, len(index))
for k, _ := range index {
keys = append(keys, k)
}
sort.Strings(keys)
sl := reflect.MakeSlice(t, len(index), len(index))
for i, k := range keys {
sl.Index(i).Set(index[k])
}
return sl, nil
}
func parentLocale(loc string) string {
parts := strings.Split(loc, "_")
if len(parts) == 1 {
return "root"
}
parts = parts[:len(parts)-1]
key := strings.Join(parts, "_")
return key
}
func (cldr *CLDR) resolve(loc string) (res *LDML, err error) {
if r := cldr.resolved[loc]; r != nil {
return r, nil
}
x := cldr.RawLDML(loc)
if x == nil {
return nil, fmt.Errorf("cldr: unknown locale %q", loc)
}
var v reflect.Value
if loc == "root" {
x = deepCopy(reflect.ValueOf(x)).Interface().(*LDML)
linkEnclosing(nil, x)
err = cldr.aliasResolver().visit(x)
} else {
key := parentLocale(loc)
var parent *LDML
for ; cldr.locale[key] == nil; key = parentLocale(key) {
}
if parent, err = cldr.resolve(key); err != nil {
return nil, err
}
v, err = cldr.inheritFields(reflect.ValueOf(x).Elem(), reflect.ValueOf(parent).Elem())
x = v.Interface().(*LDML)
linkEnclosing(nil, x)
}
if err != nil {
return nil, err
}
cldr.resolved[loc] = x
return x, err
}
// finalize finalizes the initialization of the raw LDML structs. It also
// removed unwanted fields, as specified by filter, so that they will not
// be unnecessarily evaluated.
func (cldr *CLDR) finalize(filter []string) {
for _, x := range cldr.locale {
if filter != nil {
v := reflect.ValueOf(x).Elem()
t := v.Type()
for i := 0; i < v.NumField(); i++ {
f := t.Field(i)
name, _ := xmlName(f)
if name != "" && name != "identity" && !in(filter, name) {
v.Field(i).Set(reflect.Zero(f.Type))
}
}
}
linkEnclosing(nil, x) // for resolving aliases and paths
setNames(x, "ldml")
}
}

144
vendor/golang.org/x/text/unicode/cldr/slice.go generated vendored
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@ -1,144 +0,0 @@
// Copyright 2013 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package cldr
import (
"fmt"
"reflect"
"sort"
)
// Slice provides utilities for modifying slices of elements.
// It can be wrapped around any slice of which the element type implements
// interface Elem.
type Slice struct {
ptr reflect.Value
typ reflect.Type
}
// Value returns the reflect.Value of the underlying slice.
func (s *Slice) Value() reflect.Value {
return s.ptr.Elem()
}
// MakeSlice wraps a pointer to a slice of Elems.
// It replaces the array pointed to by the slice so that subsequent modifications
// do not alter the data in a CLDR type.
// It panics if an incorrect type is passed.
func MakeSlice(slicePtr interface{}) Slice {
ptr := reflect.ValueOf(slicePtr)
if ptr.Kind() != reflect.Ptr {
panic(fmt.Sprintf("MakeSlice: argument must be pointer to slice, found %v", ptr.Type()))
}
sl := ptr.Elem()
if sl.Kind() != reflect.Slice {
panic(fmt.Sprintf("MakeSlice: argument must point to a slice, found %v", sl.Type()))
}
intf := reflect.TypeOf((*Elem)(nil)).Elem()
if !sl.Type().Elem().Implements(intf) {
panic(fmt.Sprintf("MakeSlice: element type of slice (%v) does not implement Elem", sl.Type().Elem()))
}
nsl := reflect.MakeSlice(sl.Type(), sl.Len(), sl.Len())
reflect.Copy(nsl, sl)
sl.Set(nsl)
return Slice{
ptr: ptr,
typ: sl.Type().Elem().Elem(),
}
}
func (s Slice) indexForAttr(a string) []int {
for i := iter(reflect.Zero(s.typ)); !i.done(); i.next() {
if n, _ := xmlName(i.field()); n == a {
return i.index
}
}
panic(fmt.Sprintf("MakeSlice: no attribute %q for type %v", a, s.typ))
}
// Filter filters s to only include elements for which fn returns true.
func (s Slice) Filter(fn func(e Elem) bool) {
k := 0
sl := s.Value()
for i := 0; i < sl.Len(); i++ {
vi := sl.Index(i)
if fn(vi.Interface().(Elem)) {
sl.Index(k).Set(vi)
k++
}
}
sl.Set(sl.Slice(0, k))
}
// Group finds elements in s for which fn returns the same value and groups
// them in a new Slice.
func (s Slice) Group(fn func(e Elem) string) []Slice {
m := make(map[string][]reflect.Value)
sl := s.Value()
for i := 0; i < sl.Len(); i++ {
vi := sl.Index(i)
key := fn(vi.Interface().(Elem))
m[key] = append(m[key], vi)
}
keys := []string{}
for k, _ := range m {
keys = append(keys, k)
}
sort.Strings(keys)
res := []Slice{}
for _, k := range keys {
nsl := reflect.New(sl.Type())
nsl.Elem().Set(reflect.Append(nsl.Elem(), m[k]...))
res = append(res, MakeSlice(nsl.Interface()))
}
return res
}
// SelectAnyOf filters s to contain only elements for which attr matches
// any of the values.
func (s Slice) SelectAnyOf(attr string, values ...string) {
index := s.indexForAttr(attr)
s.Filter(func(e Elem) bool {
vf := reflect.ValueOf(e).Elem().FieldByIndex(index)
return in(values, vf.String())
})
}
// SelectOnePerGroup filters s to include at most one element e per group of
// elements matching Key(attr), where e has an attribute a that matches any
// the values in v.
// If more than one element in a group matches a value in v preference
// is given to the element that matches the first value in v.
func (s Slice) SelectOnePerGroup(a string, v []string) {
index := s.indexForAttr(a)
grouped := s.Group(func(e Elem) string { return Key(e, a) })
sl := s.Value()
sl.Set(sl.Slice(0, 0))
for _, g := range grouped {
e := reflect.Value{}
found := len(v)
gsl := g.Value()
for i := 0; i < gsl.Len(); i++ {
vi := gsl.Index(i).Elem().FieldByIndex(index)
j := 0
for ; j < len(v) && v[j] != vi.String(); j++ {
}
if j < found {
found = j
e = gsl.Index(i)
}
}
if found < len(v) {
sl.Set(reflect.Append(sl, e))
}
}
}
// SelectDraft drops all elements from the list with a draft level smaller than d
// and selects the highest draft level of the remaining.
// This method assumes that the input CLDR is canonicalized.
func (s Slice) SelectDraft(d Draft) {
s.SelectOnePerGroup("draft", drafts[len(drafts)-2-int(d):])
}

1456
vendor/golang.org/x/text/unicode/cldr/xml.go generated vendored
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978
vendor/golang.org/x/text/unicode/norm/maketables.go generated vendored
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@ -1,978 +0,0 @@
// Copyright 2011 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
// Normalization table generator.
// Data read from the web.
// See forminfo.go for a description of the trie values associated with each rune.
package main
import (
"bytes"
"flag"
"fmt"
"io"
"log"
"sort"
"strconv"
"strings"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/triegen"
"golang.org/x/text/internal/ucd"
)
func main() {
gen.Init()
loadUnicodeData()
compactCCC()
loadCompositionExclusions()
completeCharFields(FCanonical)
completeCharFields(FCompatibility)
computeNonStarterCounts()
verifyComputed()
printChars()
if *test {
testDerived()
printTestdata()
} else {
makeTables()
}
}
var (
tablelist = flag.String("tables",
"all",
"comma-separated list of which tables to generate; "+
"can be 'decomp', 'recomp', 'info' and 'all'")
test = flag.Bool("test",
false,
"test existing tables against DerivedNormalizationProps and generate test data for regression testing")
verbose = flag.Bool("verbose",
false,
"write data to stdout as it is parsed")
)
const MaxChar = 0x10FFFF // anything above this shouldn't exist
// Quick Check properties of runes allow us to quickly
// determine whether a rune may occur in a normal form.
// For a given normal form, a rune may be guaranteed to occur
// verbatim (QC=Yes), may or may not combine with another
// rune (QC=Maybe), or may not occur (QC=No).
type QCResult int
const (
QCUnknown QCResult = iota
QCYes
QCNo
QCMaybe
)
func (r QCResult) String() string {
switch r {
case QCYes:
return "Yes"
case QCNo:
return "No"
case QCMaybe:
return "Maybe"
}
return "***UNKNOWN***"
}
const (
FCanonical = iota // NFC or NFD
FCompatibility // NFKC or NFKD
FNumberOfFormTypes
)
const (
MComposed = iota // NFC or NFKC
MDecomposed // NFD or NFKD
MNumberOfModes
)
// This contains only the properties we're interested in.
type Char struct {
name string
codePoint rune // if zero, this index is not a valid code point.
ccc uint8 // canonical combining class
origCCC uint8
excludeInComp bool // from CompositionExclusions.txt
compatDecomp bool // it has a compatibility expansion
nTrailingNonStarters uint8
nLeadingNonStarters uint8 // must be equal to trailing if non-zero
forms [FNumberOfFormTypes]FormInfo // For FCanonical and FCompatibility
state State
}
var chars = make([]Char, MaxChar+1)
var cccMap = make(map[uint8]uint8)
func (c Char) String() string {
buf := new(bytes.Buffer)
fmt.Fprintf(buf, "%U [%s]:\n", c.codePoint, c.name)
fmt.Fprintf(buf, " ccc: %v\n", c.ccc)
fmt.Fprintf(buf, " excludeInComp: %v\n", c.excludeInComp)
fmt.Fprintf(buf, " compatDecomp: %v\n", c.compatDecomp)
fmt.Fprintf(buf, " state: %v\n", c.state)
fmt.Fprintf(buf, " NFC:\n")
fmt.Fprint(buf, c.forms[FCanonical])
fmt.Fprintf(buf, " NFKC:\n")
fmt.Fprint(buf, c.forms[FCompatibility])
return buf.String()
}
// In UnicodeData.txt, some ranges are marked like this:
// 3400;<CJK Ideograph Extension A, First>;Lo;0;L;;;;;N;;;;;
// 4DB5;<CJK Ideograph Extension A, Last>;Lo;0;L;;;;;N;;;;;
// parseCharacter keeps a state variable indicating the weirdness.
type State int
const (
SNormal State = iota // known to be zero for the type
SFirst
SLast
SMissing
)
var lastChar = rune('\u0000')
func (c Char) isValid() bool {
return c.codePoint != 0 && c.state != SMissing
}
type FormInfo struct {
quickCheck [MNumberOfModes]QCResult // index: MComposed or MDecomposed
verified [MNumberOfModes]bool // index: MComposed or MDecomposed
combinesForward bool // May combine with rune on the right
combinesBackward bool // May combine with rune on the left
isOneWay bool // Never appears in result
inDecomp bool // Some decompositions result in this char.
decomp Decomposition
expandedDecomp Decomposition
}
func (f FormInfo) String() string {
buf := bytes.NewBuffer(make([]byte, 0))
fmt.Fprintf(buf, " quickCheck[C]: %v\n", f.quickCheck[MComposed])
fmt.Fprintf(buf, " quickCheck[D]: %v\n", f.quickCheck[MDecomposed])
fmt.Fprintf(buf, " cmbForward: %v\n", f.combinesForward)
fmt.Fprintf(buf, " cmbBackward: %v\n", f.combinesBackward)
fmt.Fprintf(buf, " isOneWay: %v\n", f.isOneWay)
fmt.Fprintf(buf, " inDecomp: %v\n", f.inDecomp)
fmt.Fprintf(buf, " decomposition: %X\n", f.decomp)
fmt.Fprintf(buf, " expandedDecomp: %X\n", f.expandedDecomp)
return buf.String()
}
type Decomposition []rune
func parseDecomposition(s string, skipfirst bool) (a []rune, err error) {
decomp := strings.Split(s, " ")
if len(decomp) > 0 && skipfirst {
decomp = decomp[1:]
}
for _, d := range decomp {
point, err := strconv.ParseUint(d, 16, 64)
if err != nil {
return a, err
}
a = append(a, rune(point))
}
return a, nil
}
func loadUnicodeData() {
f := gen.OpenUCDFile("UnicodeData.txt")
defer f.Close()
p := ucd.New(f)
for p.Next() {
r := p.Rune(ucd.CodePoint)
char := &chars[r]
char.ccc = uint8(p.Uint(ucd.CanonicalCombiningClass))
decmap := p.String(ucd.DecompMapping)
exp, err := parseDecomposition(decmap, false)
isCompat := false
if err != nil {
if len(decmap) > 0 {
exp, err = parseDecomposition(decmap, true)
if err != nil {
log.Fatalf(`%U: bad decomp |%v|: "%s"`, r, decmap, err)
}
isCompat = true
}
}
char.name = p.String(ucd.Name)
char.codePoint = r
char.forms[FCompatibility].decomp = exp
if !isCompat {
char.forms[FCanonical].decomp = exp
} else {
char.compatDecomp = true
}
if len(decmap) > 0 {
char.forms[FCompatibility].decomp = exp
}
}
if err := p.Err(); err != nil {
log.Fatal(err)
}
}
// compactCCC converts the sparse set of CCC values to a continguous one,
// reducing the number of bits needed from 8 to 6.
func compactCCC() {
m := make(map[uint8]uint8)
for i := range chars {
c := &chars[i]
m[c.ccc] = 0
}
cccs := []int{}
for v, _ := range m {
cccs = append(cccs, int(v))
}
sort.Ints(cccs)
for i, c := range cccs {
cccMap[uint8(i)] = uint8(c)
m[uint8(c)] = uint8(i)
}
for i := range chars {
c := &chars[i]
c.origCCC = c.ccc
c.ccc = m[c.ccc]
}
if len(m) >= 1<<6 {
log.Fatalf("too many difference CCC values: %d >= 64", len(m))
}
}
// CompositionExclusions.txt has form:
// 0958 # ...
// See http://unicode.org/reports/tr44/ for full explanation
func loadCompositionExclusions() {
f := gen.OpenUCDFile("CompositionExclusions.txt")
defer f.Close()
p := ucd.New(f)
for p.Next() {
c := &chars[p.Rune(0)]
if c.excludeInComp {
log.Fatalf("%U: Duplicate entry in exclusions.", c.codePoint)
}
c.excludeInComp = true
}
if e := p.Err(); e != nil {
log.Fatal(e)
}
}
// hasCompatDecomp returns true if any of the recursive
// decompositions contains a compatibility expansion.
// In this case, the character may not occur in NFK*.
func hasCompatDecomp(r rune) bool {
c := &chars[r]
if c.compatDecomp {
return true
}
for _, d := range c.forms[FCompatibility].decomp {
if hasCompatDecomp(d) {
return true
}
}
return false
}
// Hangul related constants.
const (
HangulBase = 0xAC00
HangulEnd = 0xD7A4 // hangulBase + Jamo combinations (19 * 21 * 28)
JamoLBase = 0x1100
JamoLEnd = 0x1113
JamoVBase = 0x1161
JamoVEnd = 0x1176
JamoTBase = 0x11A8
JamoTEnd = 0x11C3
JamoLVTCount = 19 * 21 * 28
JamoTCount = 28
)
func isHangul(r rune) bool {
return HangulBase <= r && r < HangulEnd
}
func isHangulWithoutJamoT(r rune) bool {
if !isHangul(r) {
return false
}
r -= HangulBase
return r < JamoLVTCount && r%JamoTCount == 0
}
func ccc(r rune) uint8 {
return chars[r].ccc
}
// Insert a rune in a buffer, ordered by Canonical Combining Class.
func insertOrdered(b Decomposition, r rune) Decomposition {
n := len(b)
b = append(b, 0)
cc := ccc(r)
if cc > 0 {
// Use bubble sort.
for ; n > 0; n-- {
if ccc(b[n-1]) <= cc {
break
}
b[n] = b[n-1]
}
}
b[n] = r
return b
}
// Recursively decompose.
func decomposeRecursive(form int, r rune, d Decomposition) Decomposition {
dcomp := chars[r].forms[form].decomp
if len(dcomp) == 0 {
return insertOrdered(d, r)
}
for _, c := range dcomp {
d = decomposeRecursive(form, c, d)
}
return d
}
func completeCharFields(form int) {
// Phase 0: pre-expand decomposition.
for i := range chars {
f := &chars[i].forms[form]
if len(f.decomp) == 0 {
continue
}
exp := make(Decomposition, 0)
for _, c := range f.decomp {
exp = decomposeRecursive(form, c, exp)
}
f.expandedDecomp = exp
}
// Phase 1: composition exclusion, mark decomposition.
for i := range chars {
c := &chars[i]
f := &c.forms[form]
// Marks script-specific exclusions and version restricted.
f.isOneWay = c.excludeInComp
// Singletons
f.isOneWay = f.isOneWay || len(f.decomp) == 1
// Non-starter decompositions
if len(f.decomp) > 1 {
chk := c.ccc != 0 || chars[f.decomp[0]].ccc != 0
f.isOneWay = f.isOneWay || chk
}
// Runes that decompose into more than two runes.
f.isOneWay = f.isOneWay || len(f.decomp) > 2
if form == FCompatibility {
f.isOneWay = f.isOneWay || hasCompatDecomp(c.codePoint)
}
for _, r := range f.decomp {
chars[r].forms[form].inDecomp = true
}
}
// Phase 2: forward and backward combining.
for i := range chars {
c := &chars[i]
f := &c.forms[form]
if !f.isOneWay && len(f.decomp) == 2 {
f0 := &chars[f.decomp[0]].forms[form]
f1 := &chars[f.decomp[1]].forms[form]
if !f0.isOneWay {
f0.combinesForward = true
}
if !f1.isOneWay {
f1.combinesBackward = true
}
}
if isHangulWithoutJamoT(rune(i)) {
f.combinesForward = true
}
}
// Phase 3: quick check values.
for i := range chars {
c := &chars[i]
f := &c.forms[form]
switch {
case len(f.decomp) > 0:
f.quickCheck[MDecomposed] = QCNo
case isHangul(rune(i)):
f.quickCheck[MDecomposed] = QCNo
default:
f.quickCheck[MDecomposed] = QCYes
}
switch {
case f.isOneWay:
f.quickCheck[MComposed] = QCNo
case (i & 0xffff00) == JamoLBase:
f.quickCheck[MComposed] = QCYes
if JamoLBase <= i && i < JamoLEnd {
f.combinesForward = true
}
if JamoVBase <= i && i < JamoVEnd {
f.quickCheck[MComposed] = QCMaybe
f.combinesBackward = true
f.combinesForward = true
}
if JamoTBase <= i && i < JamoTEnd {
f.quickCheck[MComposed] = QCMaybe
f.combinesBackward = true
}
case !f.combinesBackward:
f.quickCheck[MComposed] = QCYes
default:
f.quickCheck[MComposed] = QCMaybe
}
}
}
func computeNonStarterCounts() {
// Phase 4: leading and trailing non-starter count
for i := range chars {
c := &chars[i]
runes := []rune{rune(i)}
// We always use FCompatibility so that the CGJ insertion points do not
// change for repeated normalizations with different forms.
if exp := c.forms[FCompatibility].expandedDecomp; len(exp) > 0 {
runes = exp
}
// We consider runes that combine backwards to be non-starters for the
// purpose of Stream-Safe Text Processing.
for _, r := range runes {
if cr := &chars[r]; cr.ccc == 0 && !cr.forms[FCompatibility].combinesBackward {
break
}
c.nLeadingNonStarters++
}
for i := len(runes) - 1; i >= 0; i-- {
if cr := &chars[runes[i]]; cr.ccc == 0 && !cr.forms[FCompatibility].combinesBackward {
break
}
c.nTrailingNonStarters++
}
if c.nTrailingNonStarters > 3 {
log.Fatalf("%U: Decomposition with more than 3 (%d) trailing modifiers (%U)", i, c.nTrailingNonStarters, runes)
}
if isHangul(rune(i)) {
c.nTrailingNonStarters = 2
if isHangulWithoutJamoT(rune(i)) {
c.nTrailingNonStarters = 1
}
}
if l, t := c.nLeadingNonStarters, c.nTrailingNonStarters; l > 0 && l != t {
log.Fatalf("%U: number of leading and trailing non-starters should be equal (%d vs %d)", i, l, t)
}
if t := c.nTrailingNonStarters; t > 3 {
log.Fatalf("%U: number of trailing non-starters is %d > 3", t)
}
}
}
func printBytes(w io.Writer, b []byte, name string) {
fmt.Fprintf(w, "// %s: %d bytes\n", name, len(b))
fmt.Fprintf(w, "var %s = [...]byte {", name)
for i, c := range b {
switch {
case i%64 == 0:
fmt.Fprintf(w, "\n// Bytes %x - %x\n", i, i+63)
case i%8 == 0:
fmt.Fprintf(w, "\n")
}
fmt.Fprintf(w, "0x%.2X, ", c)
}
fmt.Fprint(w, "\n}\n\n")
}
// See forminfo.go for format.
func makeEntry(f *FormInfo, c *Char) uint16 {
e := uint16(0)
if r := c.codePoint; HangulBase <= r && r < HangulEnd {
e |= 0x40
}
if f.combinesForward {
e |= 0x20
}
if f.quickCheck[MDecomposed] == QCNo {
e |= 0x4
}
switch f.quickCheck[MComposed] {
case QCYes:
case QCNo:
e |= 0x10
case QCMaybe:
e |= 0x18
default:
log.Fatalf("Illegal quickcheck value %v.", f.quickCheck[MComposed])
}
e |= uint16(c.nTrailingNonStarters)
return e
}
// decompSet keeps track of unique decompositions, grouped by whether
// the decomposition is followed by a trailing and/or leading CCC.
type decompSet [7]map[string]bool
const (
normalDecomp = iota
firstMulti
firstCCC
endMulti
firstLeadingCCC
firstCCCZeroExcept
firstStarterWithNLead
lastDecomp
)
var cname = []string{"firstMulti", "firstCCC", "endMulti", "firstLeadingCCC", "firstCCCZeroExcept", "firstStarterWithNLead", "lastDecomp"}
func makeDecompSet() decompSet {
m := decompSet{}
for i := range m {
m[i] = make(map[string]bool)
}
return m
}
func (m *decompSet) insert(key int, s string) {
m[key][s] = true
}
func printCharInfoTables(w io.Writer) int {
mkstr := func(r rune, f *FormInfo) (int, string) {
d := f.expandedDecomp
s := string([]rune(d))
if max := 1 << 6; len(s) >= max {
const msg = "%U: too many bytes in decomposition: %d >= %d"
log.Fatalf(msg, r, len(s), max)
}
head := uint8(len(s))
if f.quickCheck[MComposed] != QCYes {
head |= 0x40
}
if f.combinesForward {
head |= 0x80
}
s = string([]byte{head}) + s
lccc := ccc(d[0])
tccc := ccc(d[len(d)-1])
cc := ccc(r)
if cc != 0 && lccc == 0 && tccc == 0 {
log.Fatalf("%U: trailing and leading ccc are 0 for non-zero ccc %d", r, cc)
}
if tccc < lccc && lccc != 0 {
const msg = "%U: lccc (%d) must be <= tcc (%d)"
log.Fatalf(msg, r, lccc, tccc)
}
index := normalDecomp
nTrail := chars[r].nTrailingNonStarters
if tccc > 0 || lccc > 0 || nTrail > 0 {
tccc <<= 2
tccc |= nTrail
s += string([]byte{tccc})
index = endMulti
for _, r := range d[1:] {
if ccc(r) == 0 {
index = firstCCC
}
}
if lccc > 0 {
s += string([]byte{lccc})
if index == firstCCC {
log.Fatalf("%U: multi-segment decomposition not supported for decompositions with leading CCC != 0", r)
}
index = firstLeadingCCC
}
if cc != lccc {
if cc != 0 {
log.Fatalf("%U: for lccc != ccc, expected ccc to be 0; was %d", r, cc)
}
index = firstCCCZeroExcept
}
} else if len(d) > 1 {
index = firstMulti
}
return index, s
}
decompSet := makeDecompSet()
const nLeadStr = "\x00\x01" // 0-byte length and tccc with nTrail.
decompSet.insert(firstStarterWithNLead, nLeadStr)
// Store the uniqued decompositions in a byte buffer,
// preceded by their byte length.
for _, c := range chars {
for _, f := range c.forms {
if len(f.expandedDecomp) == 0 {
continue
}
if f.combinesBackward {
log.Fatalf("%U: combinesBackward and decompose", c.codePoint)
}
index, s := mkstr(c.codePoint, &f)
decompSet.insert(index, s)
}
}
decompositions := bytes.NewBuffer(make([]byte, 0, 10000))
size := 0
positionMap := make(map[string]uint16)
decompositions.WriteString("\000")
fmt.Fprintln(w, "const (")
for i, m := range decompSet {
sa := []string{}
for s := range m {
sa = append(sa, s)
}
sort.Strings(sa)
for _, s := range sa {
p := decompositions.Len()
decompositions.WriteString(s)
positionMap[s] = uint16(p)
}
if cname[i] != "" {
fmt.Fprintf(w, "%s = 0x%X\n", cname[i], decompositions.Len())
}
}
fmt.Fprintln(w, "maxDecomp = 0x8000")
fmt.Fprintln(w, ")")
b := decompositions.Bytes()
printBytes(w, b, "decomps")
size += len(b)
varnames := []string{"nfc", "nfkc"}
for i := 0; i < FNumberOfFormTypes; i++ {
trie := triegen.NewTrie(varnames[i])
for r, c := range chars {
f := c.forms[i]
d := f.expandedDecomp
if len(d) != 0 {
_, key := mkstr(c.codePoint, &f)
trie.Insert(rune(r), uint64(positionMap[key]))
if c.ccc != ccc(d[0]) {
// We assume the lead ccc of a decomposition !=0 in this case.
if ccc(d[0]) == 0 {
log.Fatalf("Expected leading CCC to be non-zero; ccc is %d", c.ccc)
}
}
} else if c.nLeadingNonStarters > 0 && len(f.expandedDecomp) == 0 && c.ccc == 0 && !f.combinesBackward {
// Handle cases where it can't be detected that the nLead should be equal
// to nTrail.
trie.Insert(c.codePoint, uint64(positionMap[nLeadStr]))
} else if v := makeEntry(&f, &c)<<8 | uint16(c.ccc); v != 0 {
trie.Insert(c.codePoint, uint64(0x8000|v))
}
}
sz, err := trie.Gen(w, triegen.Compact(&normCompacter{name: varnames[i]}))
if err != nil {
log.Fatal(err)
}
size += sz
}
return size
}
func contains(sa []string, s string) bool {
for _, a := range sa {
if a == s {
return true
}
}
return false
}
func makeTables() {
w := &bytes.Buffer{}
size := 0
if *tablelist == "" {
return
}
list := strings.Split(*tablelist, ",")
if *tablelist == "all" {
list = []string{"recomp", "info"}
}
// Compute maximum decomposition size.
max := 0
for _, c := range chars {
if n := len(string(c.forms[FCompatibility].expandedDecomp)); n > max {
max = n
}
}
fmt.Fprintln(w, "const (")
fmt.Fprintln(w, "\t// Version is the Unicode edition from which the tables are derived.")
fmt.Fprintf(w, "\tVersion = %q\n", gen.UnicodeVersion())
fmt.Fprintln(w)
fmt.Fprintln(w, "\t// MaxTransformChunkSize indicates the maximum number of bytes that Transform")
fmt.Fprintln(w, "\t// may need to write atomically for any Form. Making a destination buffer at")
fmt.Fprintln(w, "\t// least this size ensures that Transform can always make progress and that")
fmt.Fprintln(w, "\t// the user does not need to grow the buffer on an ErrShortDst.")
fmt.Fprintf(w, "\tMaxTransformChunkSize = %d+maxNonStarters*4\n", len(string(0x034F))+max)
fmt.Fprintln(w, ")\n")
// Print the CCC remap table.
size += len(cccMap)
fmt.Fprintf(w, "var ccc = [%d]uint8{", len(cccMap))
for i := 0; i < len(cccMap); i++ {
if i%8 == 0 {
fmt.Fprintln(w)
}
fmt.Fprintf(w, "%3d, ", cccMap[uint8(i)])
}
fmt.Fprintln(w, "\n}\n")
if contains(list, "info") {
size += printCharInfoTables(w)
}
if contains(list, "recomp") {
// Note that we use 32 bit keys, instead of 64 bit.
// This clips the bits of three entries, but we know
// this won't cause a collision. The compiler will catch
// any changes made to UnicodeData.txt that introduces
// a collision.
// Note that the recomposition map for NFC and NFKC
// are identical.
// Recomposition map
nrentries := 0
for _, c := range chars {
f := c.forms[FCanonical]
if !f.isOneWay && len(f.decomp) > 0 {
nrentries++
}
}
sz := nrentries * 8
size += sz
fmt.Fprintf(w, "// recompMap: %d bytes (entries only)\n", sz)
fmt.Fprintln(w, "var recompMap = map[uint32]rune{")
for i, c := range chars {
f := c.forms[FCanonical]
d := f.decomp
if !f.isOneWay && len(d) > 0 {
key := uint32(uint16(d[0]))<<16 + uint32(uint16(d[1]))
fmt.Fprintf(w, "0x%.8X: 0x%.4X,\n", key, i)
}
}
fmt.Fprintf(w, "}\n\n")
}
fmt.Fprintf(w, "// Total size of tables: %dKB (%d bytes)\n", (size+512)/1024, size)
gen.WriteGoFile("tables.go", "norm", w.Bytes())
}
func printChars() {
if *verbose {
for _, c := range chars {
if !c.isValid() || c.state == SMissing {
continue
}
fmt.Println(c)
}
}
}
// verifyComputed does various consistency tests.
func verifyComputed() {
for i, c := range chars {
for _, f := range c.forms {
isNo := (f.quickCheck[MDecomposed] == QCNo)
if (len(f.decomp) > 0) != isNo && !isHangul(rune(i)) {
log.Fatalf("%U: NF*D QC must be No if rune decomposes", i)
}
isMaybe := f.quickCheck[MComposed] == QCMaybe
if f.combinesBackward != isMaybe {
log.Fatalf("%U: NF*C QC must be Maybe if combinesBackward", i)
}
if len(f.decomp) > 0 && f.combinesForward && isMaybe {
log.Fatalf("%U: NF*C QC must be Yes or No if combinesForward and decomposes", i)
}
if len(f.expandedDecomp) != 0 {
continue
}
if a, b := c.nLeadingNonStarters > 0, (c.ccc > 0 || f.combinesBackward); a != b {
// We accept these runes to be treated differently (it only affects
// segment breaking in iteration, most likely on improper use), but
// reconsider if more characters are added.
// U+FF9E HALFWIDTH KATAKANA VOICED SOUND MARK;Lm;0;L;<narrow> 3099;;;;N;;;;;
// U+FF9F HALFWIDTH KATAKANA SEMI-VOICED SOUND MARK;Lm;0;L;<narrow> 309A;;;;N;;;;;
// U+3133 HANGUL LETTER KIYEOK-SIOS;Lo;0;L;<compat> 11AA;;;;N;HANGUL LETTER GIYEOG SIOS;;;;
// U+318E HANGUL LETTER ARAEAE;Lo;0;L;<compat> 11A1;;;;N;HANGUL LETTER ALAE AE;;;;
// U+FFA3 HALFWIDTH HANGUL LETTER KIYEOK-SIOS;Lo;0;L;<narrow> 3133;;;;N;HALFWIDTH HANGUL LETTER GIYEOG SIOS;;;;
// U+FFDC HALFWIDTH HANGUL LETTER I;Lo;0;L;<narrow> 3163;;;;N;;;;;
if i != 0xFF9E && i != 0xFF9F && !(0x3133 <= i && i <= 0x318E) && !(0xFFA3 <= i && i <= 0xFFDC) {
log.Fatalf("%U: nLead was %v; want %v", i, a, b)
}
}
}
nfc := c.forms[FCanonical]
nfkc := c.forms[FCompatibility]
if nfc.combinesBackward != nfkc.combinesBackward {
log.Fatalf("%U: Cannot combine combinesBackward\n", c.codePoint)
}
}
}
// Use values in DerivedNormalizationProps.txt to compare against the
// values we computed.
// DerivedNormalizationProps.txt has form:
// 00C0..00C5 ; NFD_QC; N # ...
// 0374 ; NFD_QC; N # ...
// See http://unicode.org/reports/tr44/ for full explanation
func testDerived() {
f := gen.OpenUCDFile("DerivedNormalizationProps.txt")
defer f.Close()
p := ucd.New(f)
for p.Next() {
r := p.Rune(0)
c := &chars[r]
var ftype, mode int
qt := p.String(1)
switch qt {
case "NFC_QC":
ftype, mode = FCanonical, MComposed
case "NFD_QC":
ftype, mode = FCanonical, MDecomposed
case "NFKC_QC":
ftype, mode = FCompatibility, MComposed
case "NFKD_QC":
ftype, mode = FCompatibility, MDecomposed
default:
continue
}
var qr QCResult
switch p.String(2) {
case "Y":
qr = QCYes
case "N":
qr = QCNo
case "M":
qr = QCMaybe
default:
log.Fatalf(`Unexpected quick check value "%s"`, p.String(2))
}
if got := c.forms[ftype].quickCheck[mode]; got != qr {
log.Printf("%U: FAILED %s (was %v need %v)\n", r, qt, got, qr)
}
c.forms[ftype].verified[mode] = true
}
if err := p.Err(); err != nil {
log.Fatal(err)
}
// Any unspecified value must be QCYes. Verify this.
for i, c := range chars {
for j, fd := range c.forms {
for k, qr := range fd.quickCheck {
if !fd.verified[k] && qr != QCYes {
m := "%U: FAIL F:%d M:%d (was %v need Yes) %s\n"
log.Printf(m, i, j, k, qr, c.name)
}
}
}
}
}
var testHeader = `const (
Yes = iota
No
Maybe
)
type formData struct {
qc uint8
combinesForward bool
decomposition string
}
type runeData struct {
r rune
ccc uint8
nLead uint8
nTrail uint8
f [2]formData // 0: canonical; 1: compatibility
}
func f(qc uint8, cf bool, dec string) [2]formData {
return [2]formData{{qc, cf, dec}, {qc, cf, dec}}
}
func g(qc, qck uint8, cf, cfk bool, d, dk string) [2]formData {
return [2]formData{{qc, cf, d}, {qck, cfk, dk}}
}
var testData = []runeData{
`
func printTestdata() {
type lastInfo struct {
ccc uint8
nLead uint8
nTrail uint8
f string
}
last := lastInfo{}
w := &bytes.Buffer{}
fmt.Fprintf(w, testHeader)
for r, c := range chars {
f := c.forms[FCanonical]
qc, cf, d := f.quickCheck[MComposed], f.combinesForward, string(f.expandedDecomp)
f = c.forms[FCompatibility]
qck, cfk, dk := f.quickCheck[MComposed], f.combinesForward, string(f.expandedDecomp)
s := ""
if d == dk && qc == qck && cf == cfk {
s = fmt.Sprintf("f(%s, %v, %q)", qc, cf, d)
} else {
s = fmt.Sprintf("g(%s, %s, %v, %v, %q, %q)", qc, qck, cf, cfk, d, dk)
}
current := lastInfo{c.ccc, c.nLeadingNonStarters, c.nTrailingNonStarters, s}
if last != current {
fmt.Fprintf(w, "\t{0x%x, %d, %d, %d, %s},\n", r, c.origCCC, c.nLeadingNonStarters, c.nTrailingNonStarters, s)
last = current
}
}
fmt.Fprintln(w, "}")
gen.WriteGoFile("data_test.go", "norm", w.Bytes())
}

117
vendor/golang.org/x/text/unicode/norm/triegen.go generated vendored
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@ -1,117 +0,0 @@
// Copyright 2011 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
// Trie table generator.
// Used by make*tables tools to generate a go file with trie data structures
// for mapping UTF-8 to a 16-bit value. All but the last byte in a UTF-8 byte
// sequence are used to lookup offsets in the index table to be used for the
// next byte. The last byte is used to index into a table with 16-bit values.
package main
import (
"fmt"
"io"
)
const maxSparseEntries = 16
type normCompacter struct {
sparseBlocks [][]uint64
sparseOffset []uint16
sparseCount int
name string
}
func mostFrequentStride(a []uint64) int {
counts := make(map[int]int)
var v int
for _, x := range a {
if stride := int(x) - v; v != 0 && stride >= 0 {
counts[stride]++
}
v = int(x)
}
var maxs, maxc int
for stride, cnt := range counts {
if cnt > maxc || (cnt == maxc && stride < maxs) {
maxs, maxc = stride, cnt
}
}
return maxs
}
func countSparseEntries(a []uint64) int {
stride := mostFrequentStride(a)
var v, count int
for _, tv := range a {
if int(tv)-v != stride {
if tv != 0 {
count++
}
}
v = int(tv)
}
return count
}
func (c *normCompacter) Size(v []uint64) (sz int, ok bool) {
if n := countSparseEntries(v); n <= maxSparseEntries {
return (n+1)*4 + 2, true
}
return 0, false
}
func (c *normCompacter) Store(v []uint64) uint32 {
h := uint32(len(c.sparseOffset))
c.sparseBlocks = append(c.sparseBlocks, v)
c.sparseOffset = append(c.sparseOffset, uint16(c.sparseCount))
c.sparseCount += countSparseEntries(v) + 1
return h
}
func (c *normCompacter) Handler() string {
return c.name + "Sparse.lookup"
}
func (c *normCompacter) Print(w io.Writer) (retErr error) {
p := func(f string, x ...interface{}) {
if _, err := fmt.Fprintf(w, f, x...); retErr == nil && err != nil {
retErr = err
}
}
ls := len(c.sparseBlocks)
p("// %sSparseOffset: %d entries, %d bytes\n", c.name, ls, ls*2)
p("var %sSparseOffset = %#v\n\n", c.name, c.sparseOffset)
ns := c.sparseCount
p("// %sSparseValues: %d entries, %d bytes\n", c.name, ns, ns*4)
p("var %sSparseValues = [%d]valueRange {", c.name, ns)
for i, b := range c.sparseBlocks {
p("\n// Block %#x, offset %#x", i, c.sparseOffset[i])
var v int
stride := mostFrequentStride(b)
n := countSparseEntries(b)
p("\n{value:%#04x,lo:%#02x},", stride, uint8(n))
for i, nv := range b {
if int(nv)-v != stride {
if v != 0 {
p(",hi:%#02x},", 0x80+i-1)
}
if nv != 0 {
p("\n{value:%#04x,lo:%#02x", nv, 0x80+i)
}
}
v = int(nv)
}
if v != 0 {
p(",hi:%#02x},", 0x80+len(b)-1)
}
}
p("\n}\n\n")
return
}

113
vendor/golang.org/x/text/unicode/rangetable/gen.go generated vendored
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@ -1,113 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
import (
"bytes"
"flag"
"fmt"
"io"
"log"
"reflect"
"sort"
"strings"
"unicode"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/ucd"
"golang.org/x/text/unicode/rangetable"
)
var versionList = flag.String("versions", "",
"list of versions for which to generate RangeTables")
const bootstrapMessage = `No versions specified.
To bootstrap the code generation, run:
go run gen.go --versions=4.1.0,5.0.0,6.0.0,6.1.0,6.2.0,6.3.0,7.0.0
and ensure that the latest versions are included by checking:
http://www.unicode.org/Public/`
func getVersions() []string {
if *versionList == "" {
log.Fatal(bootstrapMessage)
}
versions := strings.Split(*versionList, ",")
sort.Strings(versions)
// Ensure that at least the current version is included.
for _, v := range versions {
if v == gen.UnicodeVersion() {
return versions
}
}
versions = append(versions, gen.UnicodeVersion())
sort.Strings(versions)
return versions
}
func main() {
gen.Init()
versions := getVersions()
w := &bytes.Buffer{}
fmt.Fprintf(w, "//go:generate go run gen.go --versions=%s\n\n", strings.Join(versions, ","))
fmt.Fprintf(w, "import \"unicode\"\n\n")
vstr := func(s string) string { return strings.Replace(s, ".", "_", -1) }
fmt.Fprintf(w, "var assigned = map[string]*unicode.RangeTable{\n")
for _, v := range versions {
fmt.Fprintf(w, "\t%q: assigned%s,\n", v, vstr(v))
}
fmt.Fprintf(w, "}\n\n")
var size int
for _, v := range versions {
assigned := []rune{}
r := gen.Open("http://www.unicode.org/Public/", "", v+"/ucd/UnicodeData.txt")
ucd.Parse(r, func(p *ucd.Parser) {
assigned = append(assigned, p.Rune(0))
})
rt := rangetable.New(assigned...)
sz := int(reflect.TypeOf(unicode.RangeTable{}).Size())
sz += int(reflect.TypeOf(unicode.Range16{}).Size()) * len(rt.R16)
sz += int(reflect.TypeOf(unicode.Range32{}).Size()) * len(rt.R32)
fmt.Fprintf(w, "// size %d bytes (%d KiB)\n", sz, sz/1024)
fmt.Fprintf(w, "var assigned%s = ", vstr(v))
print(w, rt)
size += sz
}
fmt.Fprintf(w, "// Total size %d bytes (%d KiB)\n", size, size/1024)
gen.WriteGoFile("tables.go", "rangetable", w.Bytes())
}
func print(w io.Writer, rt *unicode.RangeTable) {
fmt.Fprintln(w, "&unicode.RangeTable{")
fmt.Fprintln(w, "\tR16: []unicode.Range16{")
for _, r := range rt.R16 {
fmt.Fprintf(w, "\t\t{%#04x, %#04x, %d},\n", r.Lo, r.Hi, r.Stride)
}
fmt.Fprintln(w, "\t},")
fmt.Fprintln(w, "\tR32: []unicode.Range32{")
for _, r := range rt.R32 {
fmt.Fprintf(w, "\t\t{%#08x, %#08x, %d},\n", r.Lo, r.Hi, r.Stride)
}
fmt.Fprintln(w, "\t},")
fmt.Fprintf(w, "\tLatinOffset: %d,\n", rt.LatinOffset)
fmt.Fprintf(w, "}\n\n")
}

260
vendor/golang.org/x/text/unicode/rangetable/merge.go generated vendored
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@ -1,260 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
package rangetable
import (
"unicode"
)
// atEnd is used to mark a completed iteration.
const atEnd = unicode.MaxRune + 1
// Merge returns a new RangeTable that is the union of the given tables.
// It can also be used to compact user-created RangeTables. The entries in
// R16 and R32 for any given RangeTable should be sorted and non-overlapping.
//
// A lookup in the resulting table can be several times faster than using In
// directly on the ranges. Merge is an expensive operation, however, and only
// makes sense if one intends to use the result for more than a couple of
// hundred lookups.
func Merge(ranges ...*unicode.RangeTable) *unicode.RangeTable {
rt := &unicode.RangeTable{}
if len(ranges) == 0 {
return rt
}
iter := tablesIter(make([]tableIndex, len(ranges)))
for i, t := range ranges {
iter[i] = tableIndex{t, 0, atEnd}
if len(t.R16) > 0 {
iter[i].next = rune(t.R16[0].Lo)
}
}
if r0 := iter.next16(); r0.Stride != 0 {
for {
r1 := iter.next16()
if r1.Stride == 0 {
rt.R16 = append(rt.R16, r0)
break
}
stride := r1.Lo - r0.Hi
if (r1.Lo == r1.Hi || stride == r1.Stride) && (r0.Lo == r0.Hi || stride == r0.Stride) {
// Fully merge the next range into the previous one.
r0.Hi, r0.Stride = r1.Hi, stride
continue
} else if stride == r0.Stride {
// Move the first element of r1 to r0. This may eliminate an
// entry.
r0.Hi = r1.Lo
r0.Stride = stride
r1.Lo = r1.Lo + r1.Stride
if r1.Lo > r1.Hi {
continue
}
}
rt.R16 = append(rt.R16, r0)
r0 = r1
}
}
for i, t := range ranges {
iter[i] = tableIndex{t, 0, atEnd}
if len(t.R32) > 0 {
iter[i].next = rune(t.R32[0].Lo)
}
}
if r0 := iter.next32(); r0.Stride != 0 {
for {
r1 := iter.next32()
if r1.Stride == 0 {
rt.R32 = append(rt.R32, r0)
break
}
stride := r1.Lo - r0.Hi
if (r1.Lo == r1.Hi || stride == r1.Stride) && (r0.Lo == r0.Hi || stride == r0.Stride) {
// Fully merge the next range into the previous one.
r0.Hi, r0.Stride = r1.Hi, stride
continue
} else if stride == r0.Stride {
// Move the first element of r1 to r0. This may eliminate an
// entry.
r0.Hi = r1.Lo
r1.Lo = r1.Lo + r1.Stride
if r1.Lo > r1.Hi {
continue
}
}
rt.R32 = append(rt.R32, r0)
r0 = r1
}
}
for i := 0; i < len(rt.R16) && rt.R16[i].Hi <= unicode.MaxLatin1; i++ {
rt.LatinOffset = i + 1
}
return rt
}
type tableIndex struct {
t *unicode.RangeTable
p uint32
next rune
}
type tablesIter []tableIndex
// sortIter does an insertion sort using the next field of tableIndex. Insertion
// sort is a good sorting algorithm for this case.
func sortIter(t []tableIndex) {
for i := range t {
for j := i; j > 0 && t[j-1].next > t[j].next; j-- {
t[j], t[j-1] = t[j-1], t[j]
}
}
}
// next16 finds the ranged to be added to the table. If ranges overlap between
// multiple tables it clips the result to a non-overlapping range if the
// elements are not fully subsumed. It returns a zero range if there are no more
// ranges.
func (ti tablesIter) next16() unicode.Range16 {
sortIter(ti)
t0 := ti[0]
if t0.next == atEnd {
return unicode.Range16{}
}
r0 := t0.t.R16[t0.p]
r0.Lo = uint16(t0.next)
// We restrict the Hi of the current range if it overlaps with another range.
for i := range ti {
tn := ti[i]
// Since our tableIndices are sorted by next, we can break if the there
// is no overlap. The first value of a next range can always be merged
// into the current one, so we can break in case of equality as well.
if rune(r0.Hi) <= tn.next {
break
}
rn := tn.t.R16[tn.p]
rn.Lo = uint16(tn.next)
// Limit r0.Hi based on next ranges in list, but allow it to overlap
// with ranges as long as it subsumes it.
m := (rn.Lo - r0.Lo) % r0.Stride
if m == 0 && (rn.Stride == r0.Stride || rn.Lo == rn.Hi) {
// Overlap, take the min of the two Hi values: for simplicity's sake
// we only process one range at a time.
if r0.Hi > rn.Hi {
r0.Hi = rn.Hi
}
} else {
// Not a compatible stride. Set to the last possible value before
// rn.Lo, but ensure there is at least one value.
if x := rn.Lo - m; r0.Lo <= x {
r0.Hi = x
}
break
}
}
// Update the next values for each table.
for i := range ti {
tn := &ti[i]
if rune(r0.Hi) < tn.next {
break
}
rn := tn.t.R16[tn.p]
stride := rune(rn.Stride)
tn.next += stride * (1 + ((rune(r0.Hi) - tn.next) / stride))
if rune(rn.Hi) < tn.next {
if tn.p++; int(tn.p) == len(tn.t.R16) {
tn.next = atEnd
} else {
tn.next = rune(tn.t.R16[tn.p].Lo)
}
}
}
if r0.Lo == r0.Hi {
r0.Stride = 1
}
return r0
}
// next32 finds the ranged to be added to the table. If ranges overlap between
// multiple tables it clips the result to a non-overlapping range if the
// elements are not fully subsumed. It returns a zero range if there are no more
// ranges.
func (ti tablesIter) next32() unicode.Range32 {
sortIter(ti)
t0 := ti[0]
if t0.next == atEnd {
return unicode.Range32{}
}
r0 := t0.t.R32[t0.p]
r0.Lo = uint32(t0.next)
// We restrict the Hi of the current range if it overlaps with another range.
for i := range ti {
tn := ti[i]
// Since our tableIndices are sorted by next, we can break if the there
// is no overlap. The first value of a next range can always be merged
// into the current one, so we can break in case of equality as well.
if rune(r0.Hi) <= tn.next {
break
}
rn := tn.t.R32[tn.p]
rn.Lo = uint32(tn.next)
// Limit r0.Hi based on next ranges in list, but allow it to overlap
// with ranges as long as it subsumes it.
m := (rn.Lo - r0.Lo) % r0.Stride
if m == 0 && (rn.Stride == r0.Stride || rn.Lo == rn.Hi) {
// Overlap, take the min of the two Hi values: for simplicity's sake
// we only process one range at a time.
if r0.Hi > rn.Hi {
r0.Hi = rn.Hi
}
} else {
// Not a compatible stride. Set to the last possible value before
// rn.Lo, but ensure there is at least one value.
if x := rn.Lo - m; r0.Lo <= x {
r0.Hi = x
}
break
}
}
// Update the next values for each table.
for i := range ti {
tn := &ti[i]
if rune(r0.Hi) < tn.next {
break
}
rn := tn.t.R32[tn.p]
stride := rune(rn.Stride)
tn.next += stride * (1 + ((rune(r0.Hi) - tn.next) / stride))
if rune(rn.Hi) < tn.next {
if tn.p++; int(tn.p) == len(tn.t.R32) {
tn.next = atEnd
} else {
tn.next = rune(tn.t.R32[tn.p].Lo)
}
}
}
if r0.Lo == r0.Hi {
r0.Stride = 1
}
return r0
}

70
vendor/golang.org/x/text/unicode/rangetable/rangetable.go generated vendored
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@ -1,70 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// Package rangetable provides utilities for creating and inspecting
// unicode.RangeTables.
package rangetable
import (
"sort"
"unicode"
)
// New creates a RangeTable from the given runes, which may contain duplicates.
func New(r ...rune) *unicode.RangeTable {
if len(r) == 0 {
return &unicode.RangeTable{}
}
sort.Sort(byRune(r))
// Remove duplicates.
k := 1
for i := 1; i < len(r); i++ {
if r[k-1] != r[i] {
r[k] = r[i]
k++
}
}
var rt unicode.RangeTable
for _, r := range r[:k] {
if r <= 0xFFFF {
rt.R16 = append(rt.R16, unicode.Range16{Lo: uint16(r), Hi: uint16(r), Stride: 1})
} else {
rt.R32 = append(rt.R32, unicode.Range32{Lo: uint32(r), Hi: uint32(r), Stride: 1})
}
}
// Optimize RangeTable.
return Merge(&rt)
}
type byRune []rune
func (r byRune) Len() int { return len(r) }
func (r byRune) Swap(i, j int) { r[i], r[j] = r[j], r[i] }
func (r byRune) Less(i, j int) bool { return r[i] < r[j] }
// Visit visits all runes in the given RangeTable in order, calling fn for each.
func Visit(rt *unicode.RangeTable, fn func(rune)) {
for _, r16 := range rt.R16 {
for r := rune(r16.Lo); r <= rune(r16.Hi); r += rune(r16.Stride) {
fn(r)
}
}
for _, r32 := range rt.R32 {
for r := rune(r32.Lo); r <= rune(r32.Hi); r += rune(r32.Stride) {
fn(r)
}
}
}
// Assigned returns a RangeTable with all assigned code points for a given
// Unicode version. This includes graphic, format, control, and private-use
// characters. It returns nil if the data for the given version is not
// available.
func Assigned(version string) *unicode.RangeTable {
return assigned[version]
}

5735
vendor/golang.org/x/text/unicode/rangetable/tables.go generated vendored
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115
vendor/golang.org/x/text/width/gen.go generated vendored
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@ -1,115 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
// This program generates the trie for width operations. The generated table
// includes width category information as well as the normalization mappings.
package main
import (
"bytes"
"fmt"
"io"
"log"
"math"
"unicode/utf8"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/triegen"
)
// See gen_common.go for flags.
func main() {
gen.Init()
genTables()
genTests()
gen.Repackage("gen_trieval.go", "trieval.go", "width")
gen.Repackage("gen_common.go", "common_test.go", "width")
}
func genTables() {
t := triegen.NewTrie("width")
// fold and inverse mappings. See mapComment for a description of the format
// of each entry. Add dummy value to make an index of 0 mean no mapping.
inverse := [][4]byte{{}}
mapping := map[[4]byte]int{[4]byte{}: 0}
getWidthData(func(r rune, tag elem, alt rune) {
idx := 0
if alt != 0 {
var buf [4]byte
buf[0] = byte(utf8.EncodeRune(buf[1:], alt))
s := string(r)
buf[buf[0]] ^= s[len(s)-1]
var ok bool
if idx, ok = mapping[buf]; !ok {
idx = len(mapping)
if idx > math.MaxUint8 {
log.Fatalf("Index %d does not fit in a byte.", idx)
}
mapping[buf] = idx
inverse = append(inverse, buf)
}
}
t.Insert(r, uint64(tag|elem(idx)))
})
w := &bytes.Buffer{}
gen.WriteUnicodeVersion(w)
sz, err := t.Gen(w)
if err != nil {
log.Fatal(err)
}
sz += writeMappings(w, inverse)
fmt.Fprintf(w, "// Total table size %d bytes (%dKiB)\n", sz, sz/1024)
gen.WriteGoFile(*outputFile, "width", w.Bytes())
}
const inverseDataComment = `
// inverseData contains 4-byte entries of the following format:
// <length> <modified UTF-8-encoded rune> <0 padding>
// The last byte of the UTF-8-encoded rune is xor-ed with the last byte of the
// UTF-8 encoding of the original rune. Mappings often have the following
// pattern:
// Ａ -> A (U+FF21 -> U+0041)
// Ｂ -> B (U+FF22 -> U+0042)
// ...
// By xor-ing the last byte the same entry can be shared by many mappings. This
// reduces the total number of distinct entries by about two thirds.
// The resulting entry for the aforementioned mappings is
// { 0x01, 0xE0, 0x00, 0x00 }
// Using this entry to map U+FF21 (UTF-8 [EF BC A1]), we get
// E0 ^ A1 = 41.
// Similarly, for U+FF22 (UTF-8 [EF BC A2]), we get
// E0 ^ A2 = 42.
// Note that because of the xor-ing, the byte sequence stored in the entry is
// not valid UTF-8.`
func writeMappings(w io.Writer, data [][4]byte) int {
fmt.Fprintln(w, inverseDataComment)
fmt.Fprintf(w, "var inverseData = [%d][4]byte{\n", len(data))
for _, x := range data {
fmt.Fprintf(w, "{ 0x%02x, 0x%02x, 0x%02x, 0x%02x },\n", x[0], x[1], x[2], x[3])
}
fmt.Fprintln(w, "}")
return len(data) * 4
}
func genTests() {
w := &bytes.Buffer{}
fmt.Fprintf(w, "\nvar mapRunes = map[rune]struct{r rune; e elem}{\n")
getWidthData(func(r rune, tag elem, alt rune) {
if alt != 0 {
fmt.Fprintf(w, "\t0x%X: {0x%X, 0x%X},\n", r, alt, tag)
}
})
fmt.Fprintln(w, "}")
gen.WriteGoFile("runes_test.go", "width", w.Bytes())
}

96
vendor/golang.org/x/text/width/gen_common.go generated vendored
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@ -1,96 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
// This code is shared between the main code generator and the test code.
import (
"flag"
"log"
"strconv"
"strings"
"golang.org/x/text/internal/gen"
"golang.org/x/text/internal/ucd"
)
var (
outputFile = flag.String("out", "tables.go", "output file")
)
var typeMap = map[string]elem{
"A": tagAmbiguous,
"N": tagNeutral,
"Na": tagNarrow,
"W": tagWide,
"F": tagFullwidth,
"H": tagHalfwidth,
}
// getWidthData calls f for every entry for which it is defined.
//
// f may be called multiple times for the same rune. The last call to f is the
// correct value. f is not called for all runes. The default tag type is
// Neutral.
func getWidthData(f func(r rune, tag elem, alt rune)) {
// Set the default values for Unified Ideographs. In line with Annex 11,
// we encode full ranges instead of the defined runes in Unified_Ideograph.
for _, b := range []struct{ lo, hi rune }{
{0x4E00, 0x9FFF}, // the CJK Unified Ideographs block,
{0x3400, 0x4DBF}, // the CJK Unified Ideographs Externsion A block,
{0xF900, 0xFAFF}, // the CJK Compatibility Ideographs block,
{0x20000, 0x2FFFF}, // the Supplementary Ideographic Plane,
{0x30000, 0x3FFFF}, // the Tertiary Ideographic Plane,
} {
for r := b.lo; r <= b.hi; r++ {
f(r, tagWide, 0)
}
}
inverse := map[rune]rune{}
maps := map[string]bool{
"<wide>": true,
"<narrow>": true,
}
// We cannot reuse package norm's decomposition, as we need an unexpanded
// decomposition. We make use of the opportunity to verify that the
// decomposition type is as expected.
ucd.Parse(gen.OpenUCDFile("UnicodeData.txt"), func(p *ucd.Parser) {
r := p.Rune(0)
s := strings.SplitN(p.String(ucd.DecompMapping), " ", 2)
if !maps[s[0]] {
return
}
x, err := strconv.ParseUint(s[1], 16, 32)
if err != nil {
log.Fatalf("Error parsing rune %q", s[1])
}
if inverse[r] != 0 || inverse[rune(x)] != 0 {
log.Fatalf("Circular dependency in mapping between %U and %U", r, x)
}
inverse[r] = rune(x)
inverse[rune(x)] = r
})
// <rune range>;<type>
ucd.Parse(gen.OpenUCDFile("EastAsianWidth.txt"), func(p *ucd.Parser) {
tag, ok := typeMap[p.String(1)]
if !ok {
log.Fatalf("Unknown width type %q", p.String(1))
}
r := p.Rune(0)
alt, ok := inverse[r]
if tag == tagFullwidth || tag == tagHalfwidth && r != wonSign {
tag |= tagNeedsFold
if !ok {
log.Fatalf("Narrow or wide rune %U has no decomposition", r)
}
}
f(r, tag, alt)
})
}

34
vendor/golang.org/x/text/width/gen_trieval.go generated vendored
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@ -1,34 +0,0 @@
// Copyright 2015 The Go Authors. All rights reserved.
// Use of this source code is governed by a BSD-style
// license that can be found in the LICENSE file.
// +build ignore
package main
// elem is an entry of the width trie. The high byte is used to encode the type
// of the rune. The low byte is used to store the index to a mapping entry in
// the inverseData array.
type elem uint16
const (
tagNeutral elem = iota << typeShift
tagAmbiguous
tagWide
tagNarrow
tagFullwidth
tagHalfwidth
)
const (
numTypeBits = 3
typeShift = 16 - numTypeBits
// tagNeedsFold is true for all fullwidth and halfwidth runes except for
// the Won sign U+20A9.
tagNeedsFold = 0x1000
// The Korean Won sign is halfwidth, but SHOULD NOT be mapped to a wide
// variant.
wonSign rune = 0x20A9
)