Integrate BACKBEAT SDK and resolve KACHING license validation

Major integrations and fixes:
- Added BACKBEAT SDK integration for P2P operation timing
- Implemented beat-aware status tracking for distributed operations
- Added Docker secrets support for secure license management
- Resolved KACHING license validation via HTTPS/TLS
- Updated docker-compose configuration for clean stack deployment
- Disabled rollback policies to prevent deployment failures
- Added license credential storage (CHORUS-DEV-MULTI-001)

Technical improvements:
- BACKBEAT P2P operation tracking with phase management
- Enhanced configuration system with file-based secrets
- Improved error handling for license validation
- Clean separation of KACHING and CHORUS deployment stacks

🤖 Generated with [Claude Code](https://claude.ai/code)

Co-Authored-By: Claude <noreply@anthropic.com>
This commit is contained in:
anthonyrawlins
2025-09-06 07:56:26 +10:00
parent 543ab216f9
commit 9bdcbe0447
4730 changed files with 1480093 additions and 1916 deletions

54
vendor/go.etcd.io/bbolt/internal/common/bucket.go generated vendored Normal file
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@@ -0,0 +1,54 @@
package common
import (
"fmt"
"unsafe"
)
const BucketHeaderSize = int(unsafe.Sizeof(InBucket{}))
// InBucket represents the on-file representation of a bucket.
// This is stored as the "value" of a bucket key. If the bucket is small enough,
// then its root page can be stored inline in the "value", after the bucket
// header. In the case of inline buckets, the "root" will be 0.
type InBucket struct {
root Pgid // page id of the bucket's root-level page
sequence uint64 // monotonically incrementing, used by NextSequence()
}
func NewInBucket(root Pgid, seq uint64) InBucket {
return InBucket{
root: root,
sequence: seq,
}
}
func (b *InBucket) RootPage() Pgid {
return b.root
}
func (b *InBucket) SetRootPage(id Pgid) {
b.root = id
}
// InSequence returns the sequence. The reason why not naming it `Sequence`
// is to avoid duplicated name as `(*Bucket) Sequence()`
func (b *InBucket) InSequence() uint64 {
return b.sequence
}
func (b *InBucket) SetInSequence(v uint64) {
b.sequence = v
}
func (b *InBucket) IncSequence() {
b.sequence++
}
func (b *InBucket) InlinePage(v []byte) *Page {
return (*Page)(unsafe.Pointer(&v[BucketHeaderSize]))
}
func (b *InBucket) String() string {
return fmt.Sprintf("<pgid=%d,seq=%d>", b.root, b.sequence)
}

115
vendor/go.etcd.io/bbolt/internal/common/inode.go generated vendored Normal file
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@@ -0,0 +1,115 @@
package common
import "unsafe"
// Inode represents an internal node inside of a node.
// It can be used to point to elements in a page or point
// to an element which hasn't been added to a page yet.
type Inode struct {
flags uint32
pgid Pgid
key []byte
value []byte
}
type Inodes []Inode
func (in *Inode) Flags() uint32 {
return in.flags
}
func (in *Inode) SetFlags(flags uint32) {
in.flags = flags
}
func (in *Inode) Pgid() Pgid {
return in.pgid
}
func (in *Inode) SetPgid(id Pgid) {
in.pgid = id
}
func (in *Inode) Key() []byte {
return in.key
}
func (in *Inode) SetKey(key []byte) {
in.key = key
}
func (in *Inode) Value() []byte {
return in.value
}
func (in *Inode) SetValue(value []byte) {
in.value = value
}
func ReadInodeFromPage(p *Page) Inodes {
inodes := make(Inodes, int(p.Count()))
isLeaf := p.IsLeafPage()
for i := 0; i < int(p.Count()); i++ {
inode := &inodes[i]
if isLeaf {
elem := p.LeafPageElement(uint16(i))
inode.SetFlags(elem.Flags())
inode.SetKey(elem.Key())
inode.SetValue(elem.Value())
} else {
elem := p.BranchPageElement(uint16(i))
inode.SetPgid(elem.Pgid())
inode.SetKey(elem.Key())
}
Assert(len(inode.Key()) > 0, "read: zero-length inode key")
}
return inodes
}
func WriteInodeToPage(inodes Inodes, p *Page) uint32 {
// Loop over each item and write it to the page.
// off tracks the offset into p of the start of the next data.
off := unsafe.Sizeof(*p) + p.PageElementSize()*uintptr(len(inodes))
isLeaf := p.IsLeafPage()
for i, item := range inodes {
Assert(len(item.Key()) > 0, "write: zero-length inode key")
// Create a slice to write into of needed size and advance
// byte pointer for next iteration.
sz := len(item.Key()) + len(item.Value())
b := UnsafeByteSlice(unsafe.Pointer(p), off, 0, sz)
off += uintptr(sz)
// Write the page element.
if isLeaf {
elem := p.LeafPageElement(uint16(i))
elem.SetPos(uint32(uintptr(unsafe.Pointer(&b[0])) - uintptr(unsafe.Pointer(elem))))
elem.SetFlags(item.Flags())
elem.SetKsize(uint32(len(item.Key())))
elem.SetVsize(uint32(len(item.Value())))
} else {
elem := p.BranchPageElement(uint16(i))
elem.SetPos(uint32(uintptr(unsafe.Pointer(&b[0])) - uintptr(unsafe.Pointer(elem))))
elem.SetKsize(uint32(len(item.Key())))
elem.SetPgid(item.Pgid())
Assert(elem.Pgid() != p.Id(), "write: circular dependency occurred")
}
// Write data for the element to the end of the page.
l := copy(b, item.Key())
copy(b[l:], item.Value())
}
return uint32(off)
}
func UsedSpaceInPage(inodes Inodes, p *Page) uint32 {
off := unsafe.Sizeof(*p) + p.PageElementSize()*uintptr(len(inodes))
for _, item := range inodes {
sz := len(item.Key()) + len(item.Value())
off += uintptr(sz)
}
return uint32(off)
}

161
vendor/go.etcd.io/bbolt/internal/common/meta.go generated vendored Normal file
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@@ -0,0 +1,161 @@
package common
import (
"fmt"
"hash/fnv"
"io"
"unsafe"
"go.etcd.io/bbolt/errors"
)
type Meta struct {
magic uint32
version uint32
pageSize uint32
flags uint32
root InBucket
freelist Pgid
pgid Pgid
txid Txid
checksum uint64
}
// Validate checks the marker bytes and version of the meta page to ensure it matches this binary.
func (m *Meta) Validate() error {
if m.magic != Magic {
return errors.ErrInvalid
} else if m.version != Version {
return errors.ErrVersionMismatch
} else if m.checksum != m.Sum64() {
return errors.ErrChecksum
}
return nil
}
// Copy copies one meta object to another.
func (m *Meta) Copy(dest *Meta) {
*dest = *m
}
// Write writes the meta onto a page.
func (m *Meta) Write(p *Page) {
if m.root.root >= m.pgid {
panic(fmt.Sprintf("root bucket pgid (%d) above high water mark (%d)", m.root.root, m.pgid))
} else if m.freelist >= m.pgid && m.freelist != PgidNoFreelist {
// TODO: reject pgidNoFreeList if !NoFreelistSync
panic(fmt.Sprintf("freelist pgid (%d) above high water mark (%d)", m.freelist, m.pgid))
}
// Page id is either going to be 0 or 1 which we can determine by the transaction ID.
p.id = Pgid(m.txid % 2)
p.SetFlags(MetaPageFlag)
// Calculate the checksum.
m.checksum = m.Sum64()
m.Copy(p.Meta())
}
// Sum64 generates the checksum for the meta.
func (m *Meta) Sum64() uint64 {
var h = fnv.New64a()
_, _ = h.Write((*[unsafe.Offsetof(Meta{}.checksum)]byte)(unsafe.Pointer(m))[:])
return h.Sum64()
}
func (m *Meta) Magic() uint32 {
return m.magic
}
func (m *Meta) SetMagic(v uint32) {
m.magic = v
}
func (m *Meta) Version() uint32 {
return m.version
}
func (m *Meta) SetVersion(v uint32) {
m.version = v
}
func (m *Meta) PageSize() uint32 {
return m.pageSize
}
func (m *Meta) SetPageSize(v uint32) {
m.pageSize = v
}
func (m *Meta) Flags() uint32 {
return m.flags
}
func (m *Meta) SetFlags(v uint32) {
m.flags = v
}
func (m *Meta) SetRootBucket(b InBucket) {
m.root = b
}
func (m *Meta) RootBucket() *InBucket {
return &m.root
}
func (m *Meta) Freelist() Pgid {
return m.freelist
}
func (m *Meta) SetFreelist(v Pgid) {
m.freelist = v
}
func (m *Meta) IsFreelistPersisted() bool {
return m.freelist != PgidNoFreelist
}
func (m *Meta) Pgid() Pgid {
return m.pgid
}
func (m *Meta) SetPgid(id Pgid) {
m.pgid = id
}
func (m *Meta) Txid() Txid {
return m.txid
}
func (m *Meta) SetTxid(id Txid) {
m.txid = id
}
func (m *Meta) IncTxid() {
m.txid += 1
}
func (m *Meta) DecTxid() {
m.txid -= 1
}
func (m *Meta) Checksum() uint64 {
return m.checksum
}
func (m *Meta) SetChecksum(v uint64) {
m.checksum = v
}
func (m *Meta) Print(w io.Writer) {
fmt.Fprintf(w, "Version: %d\n", m.version)
fmt.Fprintf(w, "Page Size: %d bytes\n", m.pageSize)
fmt.Fprintf(w, "Flags: %08x\n", m.flags)
fmt.Fprintf(w, "Root: <pgid=%d>\n", m.root.root)
fmt.Fprintf(w, "Freelist: <pgid=%d>\n", m.freelist)
fmt.Fprintf(w, "HWM: <pgid=%d>\n", m.pgid)
fmt.Fprintf(w, "Txn ID: %d\n", m.txid)
fmt.Fprintf(w, "Checksum: %016x\n", m.checksum)
fmt.Fprintf(w, "\n")
}

391
vendor/go.etcd.io/bbolt/internal/common/page.go generated vendored Normal file
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@@ -0,0 +1,391 @@
package common
import (
"fmt"
"os"
"sort"
"unsafe"
)
const PageHeaderSize = unsafe.Sizeof(Page{})
const MinKeysPerPage = 2
const BranchPageElementSize = unsafe.Sizeof(branchPageElement{})
const LeafPageElementSize = unsafe.Sizeof(leafPageElement{})
const pgidSize = unsafe.Sizeof(Pgid(0))
const (
BranchPageFlag = 0x01
LeafPageFlag = 0x02
MetaPageFlag = 0x04
FreelistPageFlag = 0x10
)
const (
BucketLeafFlag = 0x01
)
type Pgid uint64
type Page struct {
id Pgid
flags uint16
count uint16
overflow uint32
}
func NewPage(id Pgid, flags, count uint16, overflow uint32) *Page {
return &Page{
id: id,
flags: flags,
count: count,
overflow: overflow,
}
}
// Typ returns a human-readable page type string used for debugging.
func (p *Page) Typ() string {
if p.IsBranchPage() {
return "branch"
} else if p.IsLeafPage() {
return "leaf"
} else if p.IsMetaPage() {
return "meta"
} else if p.IsFreelistPage() {
return "freelist"
}
return fmt.Sprintf("unknown<%02x>", p.flags)
}
func (p *Page) IsBranchPage() bool {
return p.flags == BranchPageFlag
}
func (p *Page) IsLeafPage() bool {
return p.flags == LeafPageFlag
}
func (p *Page) IsMetaPage() bool {
return p.flags == MetaPageFlag
}
func (p *Page) IsFreelistPage() bool {
return p.flags == FreelistPageFlag
}
// Meta returns a pointer to the metadata section of the page.
func (p *Page) Meta() *Meta {
return (*Meta)(UnsafeAdd(unsafe.Pointer(p), unsafe.Sizeof(*p)))
}
func (p *Page) FastCheck(id Pgid) {
Assert(p.id == id, "Page expected to be: %v, but self identifies as %v", id, p.id)
// Only one flag of page-type can be set.
Assert(p.IsBranchPage() ||
p.IsLeafPage() ||
p.IsMetaPage() ||
p.IsFreelistPage(),
"page %v: has unexpected type/flags: %x", p.id, p.flags)
}
// LeafPageElement retrieves the leaf node by index
func (p *Page) LeafPageElement(index uint16) *leafPageElement {
return (*leafPageElement)(UnsafeIndex(unsafe.Pointer(p), unsafe.Sizeof(*p),
LeafPageElementSize, int(index)))
}
// LeafPageElements retrieves a list of leaf nodes.
func (p *Page) LeafPageElements() []leafPageElement {
if p.count == 0 {
return nil
}
data := UnsafeAdd(unsafe.Pointer(p), unsafe.Sizeof(*p))
elems := unsafe.Slice((*leafPageElement)(data), int(p.count))
return elems
}
// BranchPageElement retrieves the branch node by index
func (p *Page) BranchPageElement(index uint16) *branchPageElement {
return (*branchPageElement)(UnsafeIndex(unsafe.Pointer(p), unsafe.Sizeof(*p),
unsafe.Sizeof(branchPageElement{}), int(index)))
}
// BranchPageElements retrieves a list of branch nodes.
func (p *Page) BranchPageElements() []branchPageElement {
if p.count == 0 {
return nil
}
data := UnsafeAdd(unsafe.Pointer(p), unsafe.Sizeof(*p))
elems := unsafe.Slice((*branchPageElement)(data), int(p.count))
return elems
}
func (p *Page) FreelistPageCount() (int, int) {
Assert(p.IsFreelistPage(), fmt.Sprintf("can't get freelist page count from a non-freelist page: %2x", p.flags))
// If the page.count is at the max uint16 value (64k) then it's considered
// an overflow and the size of the freelist is stored as the first element.
var idx, count = 0, int(p.count)
if count == 0xFFFF {
idx = 1
c := *(*Pgid)(UnsafeAdd(unsafe.Pointer(p), unsafe.Sizeof(*p)))
count = int(c)
if count < 0 {
panic(fmt.Sprintf("leading element count %d overflows int", c))
}
}
return idx, count
}
func (p *Page) FreelistPageIds() []Pgid {
Assert(p.IsFreelistPage(), fmt.Sprintf("can't get freelist page IDs from a non-freelist page: %2x", p.flags))
idx, count := p.FreelistPageCount()
if count == 0 {
return nil
}
data := UnsafeIndex(unsafe.Pointer(p), unsafe.Sizeof(*p), pgidSize, idx)
ids := unsafe.Slice((*Pgid)(data), count)
return ids
}
// dump writes n bytes of the page to STDERR as hex output.
func (p *Page) hexdump(n int) {
buf := UnsafeByteSlice(unsafe.Pointer(p), 0, 0, n)
fmt.Fprintf(os.Stderr, "%x\n", buf)
}
func (p *Page) PageElementSize() uintptr {
if p.IsLeafPage() {
return LeafPageElementSize
}
return BranchPageElementSize
}
func (p *Page) Id() Pgid {
return p.id
}
func (p *Page) SetId(target Pgid) {
p.id = target
}
func (p *Page) Flags() uint16 {
return p.flags
}
func (p *Page) SetFlags(v uint16) {
p.flags = v
}
func (p *Page) Count() uint16 {
return p.count
}
func (p *Page) SetCount(target uint16) {
p.count = target
}
func (p *Page) Overflow() uint32 {
return p.overflow
}
func (p *Page) SetOverflow(target uint32) {
p.overflow = target
}
func (p *Page) String() string {
return fmt.Sprintf("ID: %d, Type: %s, count: %d, overflow: %d", p.id, p.Typ(), p.count, p.overflow)
}
type Pages []*Page
func (s Pages) Len() int { return len(s) }
func (s Pages) Swap(i, j int) { s[i], s[j] = s[j], s[i] }
func (s Pages) Less(i, j int) bool { return s[i].id < s[j].id }
// branchPageElement represents a node on a branch page.
type branchPageElement struct {
pos uint32
ksize uint32
pgid Pgid
}
func (n *branchPageElement) Pos() uint32 {
return n.pos
}
func (n *branchPageElement) SetPos(v uint32) {
n.pos = v
}
func (n *branchPageElement) Ksize() uint32 {
return n.ksize
}
func (n *branchPageElement) SetKsize(v uint32) {
n.ksize = v
}
func (n *branchPageElement) Pgid() Pgid {
return n.pgid
}
func (n *branchPageElement) SetPgid(v Pgid) {
n.pgid = v
}
// Key returns a byte slice of the node key.
func (n *branchPageElement) Key() []byte {
return UnsafeByteSlice(unsafe.Pointer(n), 0, int(n.pos), int(n.pos)+int(n.ksize))
}
// leafPageElement represents a node on a leaf page.
type leafPageElement struct {
flags uint32
pos uint32
ksize uint32
vsize uint32
}
func NewLeafPageElement(flags, pos, ksize, vsize uint32) *leafPageElement {
return &leafPageElement{
flags: flags,
pos: pos,
ksize: ksize,
vsize: vsize,
}
}
func (n *leafPageElement) Flags() uint32 {
return n.flags
}
func (n *leafPageElement) SetFlags(v uint32) {
n.flags = v
}
func (n *leafPageElement) Pos() uint32 {
return n.pos
}
func (n *leafPageElement) SetPos(v uint32) {
n.pos = v
}
func (n *leafPageElement) Ksize() uint32 {
return n.ksize
}
func (n *leafPageElement) SetKsize(v uint32) {
n.ksize = v
}
func (n *leafPageElement) Vsize() uint32 {
return n.vsize
}
func (n *leafPageElement) SetVsize(v uint32) {
n.vsize = v
}
// Key returns a byte slice of the node key.
func (n *leafPageElement) Key() []byte {
i := int(n.pos)
j := i + int(n.ksize)
return UnsafeByteSlice(unsafe.Pointer(n), 0, i, j)
}
// Value returns a byte slice of the node value.
func (n *leafPageElement) Value() []byte {
i := int(n.pos) + int(n.ksize)
j := i + int(n.vsize)
return UnsafeByteSlice(unsafe.Pointer(n), 0, i, j)
}
func (n *leafPageElement) IsBucketEntry() bool {
return n.flags&uint32(BucketLeafFlag) != 0
}
func (n *leafPageElement) Bucket() *InBucket {
if n.IsBucketEntry() {
return LoadBucket(n.Value())
} else {
return nil
}
}
// PageInfo represents human readable information about a page.
type PageInfo struct {
ID int
Type string
Count int
OverflowCount int
}
type Pgids []Pgid
func (s Pgids) Len() int { return len(s) }
func (s Pgids) Swap(i, j int) { s[i], s[j] = s[j], s[i] }
func (s Pgids) Less(i, j int) bool { return s[i] < s[j] }
// Merge returns the sorted union of a and b.
func (a Pgids) Merge(b Pgids) Pgids {
// Return the opposite slice if one is nil.
if len(a) == 0 {
return b
}
if len(b) == 0 {
return a
}
merged := make(Pgids, len(a)+len(b))
Mergepgids(merged, a, b)
return merged
}
// Mergepgids copies the sorted union of a and b into dst.
// If dst is too small, it panics.
func Mergepgids(dst, a, b Pgids) {
if len(dst) < len(a)+len(b) {
panic(fmt.Errorf("mergepgids bad len %d < %d + %d", len(dst), len(a), len(b)))
}
// Copy in the opposite slice if one is nil.
if len(a) == 0 {
copy(dst, b)
return
}
if len(b) == 0 {
copy(dst, a)
return
}
// Merged will hold all elements from both lists.
merged := dst[:0]
// Assign lead to the slice with a lower starting value, follow to the higher value.
lead, follow := a, b
if b[0] < a[0] {
lead, follow = b, a
}
// Continue while there are elements in the lead.
for len(lead) > 0 {
// Merge largest prefix of lead that is ahead of follow[0].
n := sort.Search(len(lead), func(i int) bool { return lead[i] > follow[0] })
merged = append(merged, lead[:n]...)
if n >= len(lead) {
break
}
// Swap lead and follow.
lead, follow = follow, lead[n:]
}
// Append what's left in follow.
_ = append(merged, follow...)
}

40
vendor/go.etcd.io/bbolt/internal/common/types.go generated vendored Normal file
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@@ -0,0 +1,40 @@
package common
import (
"os"
"runtime"
"time"
)
// MaxMmapStep is the largest step that can be taken when remapping the mmap.
const MaxMmapStep = 1 << 30 // 1GB
// Version represents the data file format version.
const Version uint32 = 2
// Magic represents a marker value to indicate that a file is a Bolt DB.
const Magic uint32 = 0xED0CDAED
const PgidNoFreelist Pgid = 0xffffffffffffffff
// DO NOT EDIT. Copied from the "bolt" package.
const pageMaxAllocSize = 0xFFFFFFF
// IgnoreNoSync specifies whether the NoSync field of a DB is ignored when
// syncing changes to a file. This is required as some operating systems,
// such as OpenBSD, do not have a unified buffer cache (UBC) and writes
// must be synchronized using the msync(2) syscall.
const IgnoreNoSync = runtime.GOOS == "openbsd"
// Default values if not set in a DB instance.
const (
DefaultMaxBatchSize int = 1000
DefaultMaxBatchDelay = 10 * time.Millisecond
DefaultAllocSize = 16 * 1024 * 1024
)
// DefaultPageSize is the default page size for db which is set to the OS page size.
var DefaultPageSize = os.Getpagesize()
// Txid represents the internal transaction identifier.
type Txid uint64

27
vendor/go.etcd.io/bbolt/internal/common/unsafe.go generated vendored Normal file
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@@ -0,0 +1,27 @@
package common
import (
"unsafe"
)
func UnsafeAdd(base unsafe.Pointer, offset uintptr) unsafe.Pointer {
return unsafe.Pointer(uintptr(base) + offset)
}
func UnsafeIndex(base unsafe.Pointer, offset uintptr, elemsz uintptr, n int) unsafe.Pointer {
return unsafe.Pointer(uintptr(base) + offset + uintptr(n)*elemsz)
}
func UnsafeByteSlice(base unsafe.Pointer, offset uintptr, i, j int) []byte {
// See: https://github.com/golang/go/wiki/cgo#turning-c-arrays-into-go-slices
//
// This memory is not allocated from C, but it is unmanaged by Go's
// garbage collector and should behave similarly, and the compiler
// should produce similar code. Note that this conversion allows a
// subslice to begin after the base address, with an optional offset,
// while the URL above does not cover this case and only slices from
// index 0. However, the wiki never says that the address must be to
// the beginning of a C allocation (or even that malloc was used at
// all), so this is believed to be correct.
return (*[pageMaxAllocSize]byte)(UnsafeAdd(base, offset))[i:j:j]
}

64
vendor/go.etcd.io/bbolt/internal/common/utils.go generated vendored Normal file
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@@ -0,0 +1,64 @@
package common
import (
"fmt"
"io"
"os"
"unsafe"
)
func LoadBucket(buf []byte) *InBucket {
return (*InBucket)(unsafe.Pointer(&buf[0]))
}
func LoadPage(buf []byte) *Page {
return (*Page)(unsafe.Pointer(&buf[0]))
}
func LoadPageMeta(buf []byte) *Meta {
return (*Meta)(unsafe.Pointer(&buf[PageHeaderSize]))
}
func CopyFile(srcPath, dstPath string) error {
// Ensure source file exists.
_, err := os.Stat(srcPath)
if os.IsNotExist(err) {
return fmt.Errorf("source file %q not found", srcPath)
} else if err != nil {
return err
}
// Ensure output file not exist.
_, err = os.Stat(dstPath)
if err == nil {
return fmt.Errorf("output file %q already exists", dstPath)
} else if !os.IsNotExist(err) {
return err
}
srcDB, err := os.Open(srcPath)
if err != nil {
return fmt.Errorf("failed to open source file %q: %w", srcPath, err)
}
defer srcDB.Close()
dstDB, err := os.Create(dstPath)
if err != nil {
return fmt.Errorf("failed to create output file %q: %w", dstPath, err)
}
defer dstDB.Close()
written, err := io.Copy(dstDB, srcDB)
if err != nil {
return fmt.Errorf("failed to copy database file from %q to %q: %w", srcPath, dstPath, err)
}
srcFi, err := srcDB.Stat()
if err != nil {
return fmt.Errorf("failed to get source file info %q: %w", srcPath, err)
}
initialSize := srcFi.Size()
if initialSize != written {
return fmt.Errorf("the byte copied (%q: %d) isn't equal to the initial db size (%q: %d)", dstPath, written, srcPath, initialSize)
}
return nil
}

67
vendor/go.etcd.io/bbolt/internal/common/verify.go generated vendored Normal file
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@@ -0,0 +1,67 @@
// Copied from https://github.com/etcd-io/etcd/blob/main/client/pkg/verify/verify.go
package common
import (
"fmt"
"os"
"strings"
)
const ENV_VERIFY = "BBOLT_VERIFY"
type VerificationType string
const (
ENV_VERIFY_VALUE_ALL VerificationType = "all"
ENV_VERIFY_VALUE_ASSERT VerificationType = "assert"
)
func getEnvVerify() string {
return strings.ToLower(os.Getenv(ENV_VERIFY))
}
func IsVerificationEnabled(verification VerificationType) bool {
env := getEnvVerify()
return env == string(ENV_VERIFY_VALUE_ALL) || env == strings.ToLower(string(verification))
}
// EnableVerifications sets `ENV_VERIFY` and returns a function that
// can be used to bring the original settings.
func EnableVerifications(verification VerificationType) func() {
previousEnv := getEnvVerify()
os.Setenv(ENV_VERIFY, string(verification))
return func() {
os.Setenv(ENV_VERIFY, previousEnv)
}
}
// EnableAllVerifications enables verification and returns a function
// that can be used to bring the original settings.
func EnableAllVerifications() func() {
return EnableVerifications(ENV_VERIFY_VALUE_ALL)
}
// DisableVerifications unsets `ENV_VERIFY` and returns a function that
// can be used to bring the original settings.
func DisableVerifications() func() {
previousEnv := getEnvVerify()
os.Unsetenv(ENV_VERIFY)
return func() {
os.Setenv(ENV_VERIFY, previousEnv)
}
}
// Verify performs verification if the assertions are enabled.
// In the default setup running in tests and skipped in the production code.
func Verify(f func()) {
if IsVerificationEnabled(ENV_VERIFY_VALUE_ASSERT) {
f()
}
}
// Assert will panic with a given formatted message if the given condition is false.
func Assert(condition bool, msg string, v ...any) {
if !condition {
panic(fmt.Sprintf("assertion failed: "+msg, v...))
}
}

108
vendor/go.etcd.io/bbolt/internal/freelist/array.go generated vendored Normal file
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package freelist
import (
"fmt"
"sort"
"go.etcd.io/bbolt/internal/common"
)
type array struct {
*shared
ids []common.Pgid // all free and available free page ids.
}
func (f *array) Init(ids common.Pgids) {
f.ids = ids
f.reindex()
}
func (f *array) Allocate(txid common.Txid, n int) common.Pgid {
if len(f.ids) == 0 {
return 0
}
var initial, previd common.Pgid
for i, id := range f.ids {
if id <= 1 {
panic(fmt.Sprintf("invalid page allocation: %d", id))
}
// Reset initial page if this is not contiguous.
if previd == 0 || id-previd != 1 {
initial = id
}
// If we found a contiguous block then remove it and return it.
if (id-initial)+1 == common.Pgid(n) {
// If we're allocating off the beginning then take the fast path
// and just adjust the existing slice. This will use extra memory
// temporarily but the append() in free() will realloc the slice
// as is necessary.
if (i + 1) == n {
f.ids = f.ids[i+1:]
} else {
copy(f.ids[i-n+1:], f.ids[i+1:])
f.ids = f.ids[:len(f.ids)-n]
}
// Remove from the free cache.
for i := common.Pgid(0); i < common.Pgid(n); i++ {
delete(f.cache, initial+i)
}
f.allocs[initial] = txid
return initial
}
previd = id
}
return 0
}
func (f *array) FreeCount() int {
return len(f.ids)
}
func (f *array) freePageIds() common.Pgids {
return f.ids
}
func (f *array) mergeSpans(ids common.Pgids) {
sort.Sort(ids)
common.Verify(func() {
idsIdx := make(map[common.Pgid]struct{})
for _, id := range f.ids {
// The existing f.ids shouldn't have duplicated free ID.
if _, ok := idsIdx[id]; ok {
panic(fmt.Sprintf("detected duplicated free page ID: %d in existing f.ids: %v", id, f.ids))
}
idsIdx[id] = struct{}{}
}
prev := common.Pgid(0)
for _, id := range ids {
// The ids shouldn't have duplicated free ID. Note page 0 and 1
// are reserved for meta pages, so they can never be free page IDs.
if prev == id {
panic(fmt.Sprintf("detected duplicated free ID: %d in ids: %v", id, ids))
}
prev = id
// The ids shouldn't have any overlap with the existing f.ids.
if _, ok := idsIdx[id]; ok {
panic(fmt.Sprintf("detected overlapped free page ID: %d between ids: %v and existing f.ids: %v", id, ids, f.ids))
}
}
})
f.ids = common.Pgids(f.ids).Merge(ids)
}
func NewArrayFreelist() Interface {
a := &array{
shared: newShared(),
ids: []common.Pgid{},
}
a.Interface = a
return a
}

82
vendor/go.etcd.io/bbolt/internal/freelist/freelist.go generated vendored Normal file
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@@ -0,0 +1,82 @@
package freelist
import (
"go.etcd.io/bbolt/internal/common"
)
type ReadWriter interface {
// Read calls Init with the page ids stored in the given page.
Read(page *common.Page)
// Write writes the freelist into the given page.
Write(page *common.Page)
// EstimatedWritePageSize returns the size in bytes of the freelist after serialization in Write.
// This should never underestimate the size.
EstimatedWritePageSize() int
}
type Interface interface {
ReadWriter
// Init initializes this freelist with the given list of pages.
Init(ids common.Pgids)
// Allocate tries to allocate the given number of contiguous pages
// from the free list pages. It returns the starting page ID if
// available; otherwise, it returns 0.
Allocate(txid common.Txid, numPages int) common.Pgid
// Count returns the number of free and pending pages.
Count() int
// FreeCount returns the number of free pages.
FreeCount() int
// PendingCount returns the number of pending pages.
PendingCount() int
// AddReadonlyTXID adds a given read-only transaction id for pending page tracking.
AddReadonlyTXID(txid common.Txid)
// RemoveReadonlyTXID removes a given read-only transaction id for pending page tracking.
RemoveReadonlyTXID(txid common.Txid)
// ReleasePendingPages releases any pages associated with closed read-only transactions.
ReleasePendingPages()
// Free releases a page and its overflow for a given transaction id.
// If the page is already free or is one of the meta pages, then a panic will occur.
Free(txId common.Txid, p *common.Page)
// Freed returns whether a given page is in the free list.
Freed(pgId common.Pgid) bool
// Rollback removes the pages from a given pending tx.
Rollback(txId common.Txid)
// Copyall copies a list of all free ids and all pending ids in one sorted list.
// f.count returns the minimum length required for dst.
Copyall(dst []common.Pgid)
// Reload reads the freelist from a page and filters out pending items.
Reload(p *common.Page)
// NoSyncReload reads the freelist from Pgids and filters out pending items.
NoSyncReload(pgIds common.Pgids)
// freePageIds returns the IDs of all free pages. Returns an empty slice if no free pages are available.
freePageIds() common.Pgids
// pendingPageIds returns all pending pages by transaction id.
pendingPageIds() map[common.Txid]*txPending
// release moves all page ids for a transaction id (or older) to the freelist.
release(txId common.Txid)
// releaseRange moves pending pages allocated within an extent [begin,end] to the free list.
releaseRange(begin, end common.Txid)
// mergeSpans is merging the given pages into the freelist
mergeSpans(ids common.Pgids)
}

292
vendor/go.etcd.io/bbolt/internal/freelist/hashmap.go generated vendored Normal file
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@@ -0,0 +1,292 @@
package freelist
import (
"fmt"
"reflect"
"sort"
"go.etcd.io/bbolt/internal/common"
)
// pidSet holds the set of starting pgids which have the same span size
type pidSet map[common.Pgid]struct{}
type hashMap struct {
*shared
freePagesCount uint64 // count of free pages(hashmap version)
freemaps map[uint64]pidSet // key is the size of continuous pages(span), value is a set which contains the starting pgids of same size
forwardMap map[common.Pgid]uint64 // key is start pgid, value is its span size
backwardMap map[common.Pgid]uint64 // key is end pgid, value is its span size
}
func (f *hashMap) Init(pgids common.Pgids) {
// reset the counter when freelist init
f.freePagesCount = 0
f.freemaps = make(map[uint64]pidSet)
f.forwardMap = make(map[common.Pgid]uint64)
f.backwardMap = make(map[common.Pgid]uint64)
if len(pgids) == 0 {
return
}
if !sort.SliceIsSorted([]common.Pgid(pgids), func(i, j int) bool { return pgids[i] < pgids[j] }) {
panic("pgids not sorted")
}
size := uint64(1)
start := pgids[0]
for i := 1; i < len(pgids); i++ {
// continuous page
if pgids[i] == pgids[i-1]+1 {
size++
} else {
f.addSpan(start, size)
size = 1
start = pgids[i]
}
}
// init the tail
if size != 0 && start != 0 {
f.addSpan(start, size)
}
f.reindex()
}
func (f *hashMap) Allocate(txid common.Txid, n int) common.Pgid {
if n == 0 {
return 0
}
// if we have a exact size match just return short path
if bm, ok := f.freemaps[uint64(n)]; ok {
for pid := range bm {
// remove the span
f.delSpan(pid, uint64(n))
f.allocs[pid] = txid
for i := common.Pgid(0); i < common.Pgid(n); i++ {
delete(f.cache, pid+i)
}
return pid
}
}
// lookup the map to find larger span
for size, bm := range f.freemaps {
if size < uint64(n) {
continue
}
for pid := range bm {
// remove the initial
f.delSpan(pid, size)
f.allocs[pid] = txid
remain := size - uint64(n)
// add remain span
f.addSpan(pid+common.Pgid(n), remain)
for i := common.Pgid(0); i < common.Pgid(n); i++ {
delete(f.cache, pid+i)
}
return pid
}
}
return 0
}
func (f *hashMap) FreeCount() int {
common.Verify(func() {
expectedFreePageCount := f.hashmapFreeCountSlow()
common.Assert(int(f.freePagesCount) == expectedFreePageCount,
"freePagesCount (%d) is out of sync with free pages map (%d)", f.freePagesCount, expectedFreePageCount)
})
return int(f.freePagesCount)
}
func (f *hashMap) freePageIds() common.Pgids {
count := f.FreeCount()
if count == 0 {
return common.Pgids{}
}
m := make([]common.Pgid, 0, count)
startPageIds := make([]common.Pgid, 0, len(f.forwardMap))
for k := range f.forwardMap {
startPageIds = append(startPageIds, k)
}
sort.Sort(common.Pgids(startPageIds))
for _, start := range startPageIds {
if size, ok := f.forwardMap[start]; ok {
for i := 0; i < int(size); i++ {
m = append(m, start+common.Pgid(i))
}
}
}
return m
}
func (f *hashMap) hashmapFreeCountSlow() int {
count := 0
for _, size := range f.forwardMap {
count += int(size)
}
return count
}
func (f *hashMap) addSpan(start common.Pgid, size uint64) {
f.backwardMap[start-1+common.Pgid(size)] = size
f.forwardMap[start] = size
if _, ok := f.freemaps[size]; !ok {
f.freemaps[size] = make(map[common.Pgid]struct{})
}
f.freemaps[size][start] = struct{}{}
f.freePagesCount += size
}
func (f *hashMap) delSpan(start common.Pgid, size uint64) {
delete(f.forwardMap, start)
delete(f.backwardMap, start+common.Pgid(size-1))
delete(f.freemaps[size], start)
if len(f.freemaps[size]) == 0 {
delete(f.freemaps, size)
}
f.freePagesCount -= size
}
func (f *hashMap) mergeSpans(ids common.Pgids) {
common.Verify(func() {
ids1Freemap := f.idsFromFreemaps()
ids2Forward := f.idsFromForwardMap()
ids3Backward := f.idsFromBackwardMap()
if !reflect.DeepEqual(ids1Freemap, ids2Forward) {
panic(fmt.Sprintf("Detected mismatch, f.freemaps: %v, f.forwardMap: %v", f.freemaps, f.forwardMap))
}
if !reflect.DeepEqual(ids1Freemap, ids3Backward) {
panic(fmt.Sprintf("Detected mismatch, f.freemaps: %v, f.backwardMap: %v", f.freemaps, f.backwardMap))
}
sort.Sort(ids)
prev := common.Pgid(0)
for _, id := range ids {
// The ids shouldn't have duplicated free ID.
if prev == id {
panic(fmt.Sprintf("detected duplicated free ID: %d in ids: %v", id, ids))
}
prev = id
// The ids shouldn't have any overlap with the existing f.freemaps.
if _, ok := ids1Freemap[id]; ok {
panic(fmt.Sprintf("detected overlapped free page ID: %d between ids: %v and existing f.freemaps: %v", id, ids, f.freemaps))
}
}
})
for _, id := range ids {
// try to see if we can merge and update
f.mergeWithExistingSpan(id)
}
}
// mergeWithExistingSpan merges pid to the existing free spans, try to merge it backward and forward
func (f *hashMap) mergeWithExistingSpan(pid common.Pgid) {
prev := pid - 1
next := pid + 1
preSize, mergeWithPrev := f.backwardMap[prev]
nextSize, mergeWithNext := f.forwardMap[next]
newStart := pid
newSize := uint64(1)
if mergeWithPrev {
//merge with previous span
start := prev + 1 - common.Pgid(preSize)
f.delSpan(start, preSize)
newStart -= common.Pgid(preSize)
newSize += preSize
}
if mergeWithNext {
// merge with next span
f.delSpan(next, nextSize)
newSize += nextSize
}
f.addSpan(newStart, newSize)
}
// idsFromFreemaps get all free page IDs from f.freemaps.
// used by test only.
func (f *hashMap) idsFromFreemaps() map[common.Pgid]struct{} {
ids := make(map[common.Pgid]struct{})
for size, idSet := range f.freemaps {
for start := range idSet {
for i := 0; i < int(size); i++ {
id := start + common.Pgid(i)
if _, ok := ids[id]; ok {
panic(fmt.Sprintf("detected duplicated free page ID: %d in f.freemaps: %v", id, f.freemaps))
}
ids[id] = struct{}{}
}
}
}
return ids
}
// idsFromForwardMap get all free page IDs from f.forwardMap.
// used by test only.
func (f *hashMap) idsFromForwardMap() map[common.Pgid]struct{} {
ids := make(map[common.Pgid]struct{})
for start, size := range f.forwardMap {
for i := 0; i < int(size); i++ {
id := start + common.Pgid(i)
if _, ok := ids[id]; ok {
panic(fmt.Sprintf("detected duplicated free page ID: %d in f.forwardMap: %v", id, f.forwardMap))
}
ids[id] = struct{}{}
}
}
return ids
}
// idsFromBackwardMap get all free page IDs from f.backwardMap.
// used by test only.
func (f *hashMap) idsFromBackwardMap() map[common.Pgid]struct{} {
ids := make(map[common.Pgid]struct{})
for end, size := range f.backwardMap {
for i := 0; i < int(size); i++ {
id := end - common.Pgid(i)
if _, ok := ids[id]; ok {
panic(fmt.Sprintf("detected duplicated free page ID: %d in f.backwardMap: %v", id, f.backwardMap))
}
ids[id] = struct{}{}
}
}
return ids
}
func NewHashMapFreelist() Interface {
hm := &hashMap{
shared: newShared(),
freemaps: make(map[uint64]pidSet),
forwardMap: make(map[common.Pgid]uint64),
backwardMap: make(map[common.Pgid]uint64),
}
hm.Interface = hm
return hm
}

310
vendor/go.etcd.io/bbolt/internal/freelist/shared.go generated vendored Normal file
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package freelist
import (
"fmt"
"math"
"sort"
"unsafe"
"go.etcd.io/bbolt/internal/common"
)
type txPending struct {
ids []common.Pgid
alloctx []common.Txid // txids allocating the ids
lastReleaseBegin common.Txid // beginning txid of last matching releaseRange
}
type shared struct {
Interface
readonlyTXIDs []common.Txid // all readonly transaction IDs.
allocs map[common.Pgid]common.Txid // mapping of Txid that allocated a pgid.
cache map[common.Pgid]struct{} // fast lookup of all free and pending page ids.
pending map[common.Txid]*txPending // mapping of soon-to-be free page ids by tx.
}
func newShared() *shared {
return &shared{
pending: make(map[common.Txid]*txPending),
allocs: make(map[common.Pgid]common.Txid),
cache: make(map[common.Pgid]struct{}),
}
}
func (t *shared) pendingPageIds() map[common.Txid]*txPending {
return t.pending
}
func (t *shared) PendingCount() int {
var count int
for _, txp := range t.pending {
count += len(txp.ids)
}
return count
}
func (t *shared) Count() int {
return t.FreeCount() + t.PendingCount()
}
func (t *shared) Freed(pgId common.Pgid) bool {
_, ok := t.cache[pgId]
return ok
}
func (t *shared) Free(txid common.Txid, p *common.Page) {
if p.Id() <= 1 {
panic(fmt.Sprintf("cannot free page 0 or 1: %d", p.Id()))
}
// Free page and all its overflow pages.
txp := t.pending[txid]
if txp == nil {
txp = &txPending{}
t.pending[txid] = txp
}
allocTxid, ok := t.allocs[p.Id()]
common.Verify(func() {
if allocTxid == txid {
panic(fmt.Sprintf("free: freed page (%d) was allocated by the same transaction (%d)", p.Id(), txid))
}
})
if ok {
delete(t.allocs, p.Id())
}
for id := p.Id(); id <= p.Id()+common.Pgid(p.Overflow()); id++ {
// Verify that page is not already free.
if _, ok := t.cache[id]; ok {
panic(fmt.Sprintf("page %d already freed", id))
}
// Add to the freelist and cache.
txp.ids = append(txp.ids, id)
txp.alloctx = append(txp.alloctx, allocTxid)
t.cache[id] = struct{}{}
}
}
func (t *shared) Rollback(txid common.Txid) {
// Remove page ids from cache.
txp := t.pending[txid]
if txp == nil {
return
}
for i, pgid := range txp.ids {
delete(t.cache, pgid)
tx := txp.alloctx[i]
if tx == 0 {
continue
}
if tx != txid {
// Pending free aborted; restore page back to alloc list.
t.allocs[pgid] = tx
} else {
// A writing TXN should never free a page which was allocated by itself.
panic(fmt.Sprintf("rollback: freed page (%d) was allocated by the same transaction (%d)", pgid, txid))
}
}
// Remove pages from pending list and mark as free if allocated by txid.
delete(t.pending, txid)
// Remove pgids which are allocated by this txid
for pgid, tid := range t.allocs {
if tid == txid {
delete(t.allocs, pgid)
}
}
}
func (t *shared) AddReadonlyTXID(tid common.Txid) {
t.readonlyTXIDs = append(t.readonlyTXIDs, tid)
}
func (t *shared) RemoveReadonlyTXID(tid common.Txid) {
for i := range t.readonlyTXIDs {
if t.readonlyTXIDs[i] == tid {
last := len(t.readonlyTXIDs) - 1
t.readonlyTXIDs[i] = t.readonlyTXIDs[last]
t.readonlyTXIDs = t.readonlyTXIDs[:last]
break
}
}
}
type txIDx []common.Txid
func (t txIDx) Len() int { return len(t) }
func (t txIDx) Swap(i, j int) { t[i], t[j] = t[j], t[i] }
func (t txIDx) Less(i, j int) bool { return t[i] < t[j] }
func (t *shared) ReleasePendingPages() {
// Free all pending pages prior to the earliest open transaction.
sort.Sort(txIDx(t.readonlyTXIDs))
minid := common.Txid(math.MaxUint64)
if len(t.readonlyTXIDs) > 0 {
minid = t.readonlyTXIDs[0]
}
if minid > 0 {
t.release(minid - 1)
}
// Release unused txid extents.
for _, tid := range t.readonlyTXIDs {
t.releaseRange(minid, tid-1)
minid = tid + 1
}
t.releaseRange(minid, common.Txid(math.MaxUint64))
// Any page both allocated and freed in an extent is safe to release.
}
func (t *shared) release(txid common.Txid) {
m := make(common.Pgids, 0)
for tid, txp := range t.pending {
if tid <= txid {
// Move transaction's pending pages to the available freelist.
// Don't remove from the cache since the page is still free.
m = append(m, txp.ids...)
delete(t.pending, tid)
}
}
t.mergeSpans(m)
}
func (t *shared) releaseRange(begin, end common.Txid) {
if begin > end {
return
}
m := common.Pgids{}
for tid, txp := range t.pending {
if tid < begin || tid > end {
continue
}
// Don't recompute freed pages if ranges haven't updated.
if txp.lastReleaseBegin == begin {
continue
}
for i := 0; i < len(txp.ids); i++ {
if atx := txp.alloctx[i]; atx < begin || atx > end {
continue
}
m = append(m, txp.ids[i])
txp.ids[i] = txp.ids[len(txp.ids)-1]
txp.ids = txp.ids[:len(txp.ids)-1]
txp.alloctx[i] = txp.alloctx[len(txp.alloctx)-1]
txp.alloctx = txp.alloctx[:len(txp.alloctx)-1]
i--
}
txp.lastReleaseBegin = begin
if len(txp.ids) == 0 {
delete(t.pending, tid)
}
}
t.mergeSpans(m)
}
// Copyall copies a list of all free ids and all pending ids in one sorted list.
// f.count returns the minimum length required for dst.
func (t *shared) Copyall(dst []common.Pgid) {
m := make(common.Pgids, 0, t.PendingCount())
for _, txp := range t.pendingPageIds() {
m = append(m, txp.ids...)
}
sort.Sort(m)
common.Mergepgids(dst, t.freePageIds(), m)
}
func (t *shared) Reload(p *common.Page) {
t.Read(p)
t.NoSyncReload(t.freePageIds())
}
func (t *shared) NoSyncReload(pgIds common.Pgids) {
// Build a cache of only pending pages.
pcache := make(map[common.Pgid]bool)
for _, txp := range t.pending {
for _, pendingID := range txp.ids {
pcache[pendingID] = true
}
}
// Check each page in the freelist and build a new available freelist
// with any pages not in the pending lists.
a := []common.Pgid{}
for _, id := range pgIds {
if !pcache[id] {
a = append(a, id)
}
}
t.Init(a)
}
// reindex rebuilds the free cache based on available and pending free lists.
func (t *shared) reindex() {
free := t.freePageIds()
pending := t.pendingPageIds()
t.cache = make(map[common.Pgid]struct{}, len(free))
for _, id := range free {
t.cache[id] = struct{}{}
}
for _, txp := range pending {
for _, pendingID := range txp.ids {
t.cache[pendingID] = struct{}{}
}
}
}
func (t *shared) Read(p *common.Page) {
if !p.IsFreelistPage() {
panic(fmt.Sprintf("invalid freelist page: %d, page type is %s", p.Id(), p.Typ()))
}
ids := p.FreelistPageIds()
// Copy the list of page ids from the freelist.
if len(ids) == 0 {
t.Init([]common.Pgid{})
} else {
// copy the ids, so we don't modify on the freelist page directly
idsCopy := make([]common.Pgid, len(ids))
copy(idsCopy, ids)
// Make sure they're sorted.
sort.Sort(common.Pgids(idsCopy))
t.Init(idsCopy)
}
}
func (t *shared) EstimatedWritePageSize() int {
n := t.Count()
if n >= 0xFFFF {
// The first element will be used to store the count. See freelist.write.
n++
}
return int(common.PageHeaderSize) + (int(unsafe.Sizeof(common.Pgid(0))) * n)
}
func (t *shared) Write(p *common.Page) {
// Combine the old free pgids and pgids waiting on an open transaction.
// Update the header flag.
p.SetFlags(common.FreelistPageFlag)
// The page.count can only hold up to 64k elements so if we overflow that
// number then we handle it by putting the size in the first element.
l := t.Count()
if l == 0 {
p.SetCount(uint16(l))
} else if l < 0xFFFF {
p.SetCount(uint16(l))
data := common.UnsafeAdd(unsafe.Pointer(p), unsafe.Sizeof(*p))
ids := unsafe.Slice((*common.Pgid)(data), l)
t.Copyall(ids)
} else {
p.SetCount(0xFFFF)
data := common.UnsafeAdd(unsafe.Pointer(p), unsafe.Sizeof(*p))
ids := unsafe.Slice((*common.Pgid)(data), l+1)
ids[0] = common.Pgid(l)
t.Copyall(ids[1:])
}
}