LBRYCommunity/herald.go
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herald.go/db/prefixes/prefixes.go
Jonathan Moody d2193e980a
blockchain.transaction.broadcast implementation (#80) 
* Generate secondary hashXNotification(s) on every headerNotification.

* Attempt LBCD connection with rpc.Client.

* Optional --daemon-url.

* Correct HashXStatusKey field. Should be HASHX_LEN.

* Connect to lbcd using lbcd/rpcclient library.

* Handle deprecation of node.js 12 actions.

* Add --daemon-ca-path argument and establish HTTPS connection if specified.

* Remove dead code. Tighten definition of TransactionBroadcastReq.

* Correct default daemon URL.
2022-12-16 13:54:19 -06:00

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package prefixes
// The prefixes package contains the key/value structures for the rocksdb prefix
// store and related functions.
// Each key/value prefix pair has a pack and unpack function for serializing / deserializing
// it into bytes for storage in rocksdb. They also have a pack partial function which allows
// for serialization of a set number of fields, this is used i.e. for keys with a hash, tx_num
// and height where there multiple be multiple with the same hash but different tx_num and height.
import (
"bytes"
"encoding/binary"
"encoding/hex"
"fmt"
"reflect"
"sort"
"strings"
"github.com/lbryio/herald.go/internal"
"github.com/lbryio/lbcd/chaincfg/chainhash"
log "github.com/sirupsen/logrus"
)
const (
ClaimToSupport = 'K'
SupportToClaim = 'L'
ClaimToTXO = 'E'
TXOToClaim = 'G'
ClaimToChannel = 'I'
ChannelToClaim = 'J'
ClaimShortIdPrefix = 'F'
BidOrder = 'D'
ClaimExpiration = 'O'
ClaimTakeover = 'P'
PendingActivation = 'Q'
ActivatedClaimAndSupport = 'R'
ActiveAmount = 'S'
Repost = 'V'
RepostedClaim = 'W'
Undo = 'M'
ClaimDiff = 'Y'
Tx = 'B'
BlockHash = 'C'
Header = 'H'
TxNum = 'N'
TxCount = 'T'
TxHash = 'X'
UTXO = 'u'
HashXUTXO = 'h'
HashXHistory = 'x'
DBState = 's'
ChannelCount = 'Z'
SupportAmount = 'a'
BlockTXs = 'b'
TrendingNotifications = 'c'
MempoolTx = 'd'
TouchedHashX = 'e'
HashXStatus = 'f'
HashXMempoolStatus = 'g'
EffectiveAmount = 'i'
RepostedCount = 'j'
ActivateClaimTXOType = 1
ActivatedSupportTXOType = 2
OnesCompTwiddle64 uint64 = 0xffffffffffffffff
OnesCompTwiddle32 uint32 = 0xffffffff
)
// GetPrefixes returns an array of all the byte prefix constants.
func GetPrefixes() [][]byte {
return [][]byte{
{ClaimToSupport},
{SupportToClaim},
{ClaimToTXO},
{TXOToClaim},
{ClaimToChannel},
{ChannelToClaim},
{ClaimShortIdPrefix},
{BidOrder},
{ClaimExpiration},
{ClaimTakeover},
{PendingActivation},
{ActivatedClaimAndSupport},
{ActiveAmount},
{Repost},
{RepostedClaim},
{Undo},
{ClaimDiff},
{Tx},
{BlockHash},
{Header},
{TxNum},
{TxCount},
{TxHash},
{UTXO},
{HashXUTXO},
{HashXHistory},
{DBState},
{ChannelCount},
{SupportAmount},
{BlockTXs},
{TrendingNotifications},
{MempoolTx},
{TouchedHashX},
{HashXStatus},
{HashXMempoolStatus},
{EffectiveAmount},
{RepostedCount},
}
}
// PrefixRowKV is a generic key/value pair for a prefix.
type PrefixRowKV struct {
Key BaseKey
Value BaseValue
RawKey []byte
RawValue []byte
Error error
}
type BaseKey interface {
NumFields() int
PartialPack(fields int) []byte
PackKey() []byte
}
type BaseValue interface {
PackValue() []byte
}
type KeyUnpacker interface {
UnpackKey(buf []byte)
}
type ValueUnpacker interface {
UnpackValue(buf []byte)
}
type LengthEncodedName struct {
NameLen uint16 `struct:"sizeof=Name"`
Name string `json:"name"`
}
func NewLengthEncodedName(s string) LengthEncodedName {
return LengthEncodedName{
NameLen: uint16(len(s)),
Name: s,
}
}
type LengthEncodedNormalizedName struct {
NormalizedNameLen uint16 `struct:"sizeof=NormalizedName"`
NormalizedName string `json:"normalized_name"`
}
func NewLengthEncodedNormalizedName(s string) LengthEncodedNormalizedName {
return LengthEncodedNormalizedName{
NormalizedNameLen: uint16(len(s)),
NormalizedName: s,
}
}
type LengthEncodedPartialClaimId struct {
PartialClaimIdLen uint8 `struct:"sizeof=PartialClaimId"`
PartialClaimId string `json:"partial_claim_id"`
}
func NewLengthEncodedPartialClaimId(s string) LengthEncodedPartialClaimId {
return LengthEncodedPartialClaimId{
PartialClaimIdLen: uint8(len(s)),
PartialClaimId: s,
}
}
type BigEndianChainHash struct {
chainhash.Hash
}
func NewBigEndianChainHash(hash *chainhash.Hash) BigEndianChainHash {
if hash != nil {
return BigEndianChainHash{
*hash,
}
}
return BigEndianChainHash{}
}
type DBStateKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
}
type DBStateValue struct {
Genesis BigEndianChainHash
Height uint32
TxCount uint32
Tip *chainhash.Hash
UtxoFlushCount uint32
WallTime uint32
FirstSync bool
DBVersion uint8
HistFlushCount int32
CompFlushCount int32
CompCursor int32
EsSyncHeight uint32
}
func NewDBStateValue() *DBStateValue {
return &DBStateValue{
Genesis: NewBigEndianChainHash(nil),
Height: 0,
TxCount: 0,
Tip: new(chainhash.Hash),
UtxoFlushCount: 0,
WallTime: 0,
FirstSync: true,
DBVersion: 0,
HistFlushCount: 0,
CompFlushCount: -1,
CompCursor: -1,
EsSyncHeight: 0,
}
}
func NewDBStateKey() *DBStateKey {
return &DBStateKey{
Prefix: []byte{DBState},
}
}
func (k *DBStateKey) PackKey() []byte {
prefixLen := 1
n := prefixLen
key := make([]byte, n)
copy(key, k.Prefix)
return key
}
func (v *DBStateValue) PackValue() []byte {
// b'>32sLL32sLLBBlllL'
n := 32 + 4 + 4 + 32 + 4 + 4 + 1 + 1 + 4 + 4 + 4 + 4
value := make([]byte, n)
genesis := v.Genesis.CloneBytes()
// HACK: Instances of chainhash.Hash use the internal byte-order.
// Python scribe writes bytes of genesis hash in external byte-order.
internal.ReverseBytesInPlace(genesis)
copy(value, genesis[:32])
binary.BigEndian.PutUint32(value[32:], v.Height)
binary.BigEndian.PutUint32(value[32+4:], v.TxCount)
copy(value[32+4+4:], v.Tip[:32])
binary.BigEndian.PutUint32(value[32+4+4+32:], v.UtxoFlushCount)
binary.BigEndian.PutUint32(value[32+4+4+32+4:], v.WallTime)
var bitSetVar uint8
if v.FirstSync {
bitSetVar = 1
}
value[32+4+4+32+4+4] = bitSetVar
value[32+4+4+32+4+4+1] = v.DBVersion
binary.BigEndian.PutUint32(value[32+4+4+32+4+4+1+1:], uint32(v.HistFlushCount))
binary.BigEndian.PutUint32(value[32+4+4+32+4+4+1+1+4:], uint32(v.CompFlushCount))
binary.BigEndian.PutUint32(value[32+4+4+32+4+4+1+1+4+4:], uint32(v.CompCursor))
binary.BigEndian.PutUint32(value[32+4+4+32+4+4+1+1+4+4+4:], v.EsSyncHeight)
return value
}
func (kv *DBStateKey) NumFields() int {
return 0
}
func (k *DBStateKey) PartialPack(fields int) []byte {
prefixLen := 1
var n = prefixLen
key := make([]byte, n)
copy(key, k.Prefix)
return key
}
func DBStateKeyUnpack(key []byte) *DBStateKey {
prefixLen := 1
return &DBStateKey{
Prefix: key[:prefixLen],
}
}
func DBStateValueUnpack(value []byte) *DBStateValue {
genesis := (*chainhash.Hash)(value[:32])
tip := (*chainhash.Hash)(value[32+4+4 : 32+4+4+32])
// HACK: Python scribe writes bytes of genesis hash in external byte-order.
// Instances of chainhash.Hash should use the internal byte-order.
internal.ReverseBytesInPlace(genesis[:])
x := &DBStateValue{
Genesis: NewBigEndianChainHash(genesis),
Height: binary.BigEndian.Uint32(value[32:]),
TxCount: binary.BigEndian.Uint32(value[32+4:]),
Tip: tip,
UtxoFlushCount: binary.BigEndian.Uint32(value[32+4+4+32:]),
WallTime: binary.BigEndian.Uint32(value[32+4+4+32+4:]),
FirstSync: value[32+4+4+32+4+4] == 1,
DBVersion: value[32+4+4+32+4+4+1],
HistFlushCount: int32(binary.BigEndian.Uint32(value[32+4+4+32+4+4+1+1:])),
CompFlushCount: int32(binary.BigEndian.Uint32(value[32+4+4+32+4+4+1+1+4:])),
CompCursor: int32(binary.BigEndian.Uint32(value[32+4+4+32+4+4+1+1+4+4:])),
EsSyncHeight: binary.BigEndian.Uint32(value[32+4+4+32+4+4+1+1+4+4+4:]),
}
return x
}
type UndoKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint64 `json:"height"`
}
type UndoValue struct {
Data []byte `struct-while:"!_eof" json:"data"`
}
func (k *UndoKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 8
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint64(key[prefixLen:], k.Height)
return key
}
func (v *UndoValue) PackValue() []byte {
len := len(v.Data)
value := make([]byte, len)
copy(value, v.Data)
return value
}
func (kv *UndoKey) NumFields() int {
return 1
}
func (k *UndoKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 8
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint64(key[prefixLen:], k.Height)
}
}
return key
}
func UndoKeyUnpack(key []byte) *UndoKey {
prefixLen := 1
return &UndoKey{
Prefix: key[:prefixLen],
Height: binary.BigEndian.Uint64(key[prefixLen:]),
}
}
func UndoValueUnpack(value []byte) *UndoValue {
return &UndoValue{
Data: value,
}
}
type UTXOKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
HashX []byte `struct:"[11]byte" json:"hashx"`
TxNum uint32 `json:"tx_num"`
Nout uint16 `json:"nout"`
}
type UTXOValue struct {
Amount uint64 `json:"amount"`
}
type HashXUTXOKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ShortTXHash []byte `struct:"[4]byte" json:"short_tx_hash"`
TxNum uint32 `json:"tx_num"`
Nout uint16 `json:"nout"`
}
type HashXUTXOValue struct {
HashX []byte `struct:"[11]byte" json:"hashx"`
}
//
// HashXUTXOKey / HashXUTXOValue
//
func (k *HashXUTXOKey) String() string {
return fmt.Sprintf(
"%s(short_tx_hash=%s, tx_num=%d, nout=%d)",
reflect.TypeOf(k),
hex.EncodeToString(k.ShortTXHash),
k.TxNum,
k.Nout,
)
}
func (v *HashXUTXOValue) String() string {
return fmt.Sprintf(
"%s(hashX=%s)",
reflect.TypeOf(v),
hex.EncodeToString(v.HashX),
)
}
func (k *HashXUTXOKey) PackKey() []byte {
prefixLen := 1
// b'>4sLH'
n := prefixLen + 4 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ShortTXHash)
binary.BigEndian.PutUint32(key[prefixLen+4:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+8:], k.Nout)
return key
}
func (v *HashXUTXOValue) PackValue() []byte {
value := make([]byte, 11)
copy(value, v.HashX)
return value
}
func (kv *HashXUTXOKey) NumFields() int {
return 3
}
// HashXUTXOKeyPackPartial packs a variable number of fields into a byte
// array
func (k *HashXUTXOKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 3 {
fields = 3
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ShortTXHash)
case 2:
binary.BigEndian.PutUint32(key[prefixLen+4:], k.TxNum)
case 3:
binary.BigEndian.PutUint16(key[prefixLen+8:], k.Nout)
}
}
return key
}
func HashXUTXOKeyUnpack(key []byte) *HashXUTXOKey {
prefixLen := 1
return &HashXUTXOKey{
Prefix: key[:prefixLen],
ShortTXHash: key[prefixLen : prefixLen+4],
TxNum: binary.BigEndian.Uint32(key[prefixLen+4:]),
Nout: binary.BigEndian.Uint16(key[prefixLen+8:]),
}
}
func HashXUTXOValueUnpack(value []byte) *HashXUTXOValue {
return &HashXUTXOValue{
HashX: value[:11],
}
}
type HashXHistoryKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
HashX []byte `struct:"[11]byte" json:"hashx"`
Height uint32 `json:"height"`
}
type HashXHistoryValue struct {
TxNums []uint32 `struct:"lsb" struct-while:"!_eof" json:"tx_nums"`
}
func (k *HashXHistoryKey) String() string {
return fmt.Sprintf(
"%s(hashx=%s, height=%d)",
reflect.TypeOf(k),
hex.EncodeToString(k.HashX),
k.Height,
)
}
func (k *HashXHistoryKey) PackKey() []byte {
prefixLen := 1
// b'>11sL'
n := prefixLen + 11 + 4
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.HashX)
binary.BigEndian.PutUint32(key[prefixLen+11:], k.Height)
return key
}
func (v *HashXHistoryValue) PackValue() []byte {
n := len(v.TxNums)
value := make([]byte, n*4)
for i, x := range v.TxNums {
binary.LittleEndian.PutUint32(value[i*4:], x)
}
return value
}
func (kv *HashXHistoryKey) NumFields() int {
return 2
}
// HashXHistoryKeyPackPartial packs a variable number of fields into a byte
// array
func (k *HashXHistoryKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 2 {
fields = 2
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 11
case 2:
n += 4
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.HashX[:11])
case 2:
binary.BigEndian.PutUint32(key[prefixLen+11:], k.Height)
}
}
return key
}
func HashXHistoryKeyUnpack(key []byte) *HashXHistoryKey {
prefixLen := 1
return &HashXHistoryKey{
Prefix: key[:prefixLen],
HashX: key[prefixLen : prefixLen+11],
Height: binary.BigEndian.Uint32(key[prefixLen+11:]),
}
}
func HashXHistoryValueUnpack(value []byte) *HashXHistoryValue {
n := len(value) / 4
txnums := make([]uint32, n)
for i := 0; i < n; i++ {
txnums[i] = binary.LittleEndian.Uint32(value[i*4:])
}
return &HashXHistoryValue{
TxNums: txnums,
}
}
type BlockHashKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint32 `json:"height"`
}
type BlockHashValue struct {
BlockHash *chainhash.Hash `json:"block_hash"`
}
func NewBlockHashKey(height uint32) *BlockHashKey {
return &BlockHashKey{
Prefix: []byte{BlockHash},
Height: height,
}
}
func (k *BlockHashKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 4
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
return key
}
func (v *BlockHashValue) PackValue() []byte {
value := make([]byte, 32)
copy(value, v.BlockHash[:32])
return value
}
func (kv *BlockHashKey) NumFields() int {
return 1
}
func (k *BlockHashKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
}
}
return key
}
func BlockHashKeyUnpack(key []byte) *BlockHashKey {
prefixLen := 1
return &BlockHashKey{
Prefix: key[:prefixLen],
Height: binary.BigEndian.Uint32(key[prefixLen:]),
}
}
func BlockHashValueUnpack(value []byte) *BlockHashValue {
hash := (*chainhash.Hash)(value)
return &BlockHashValue{
BlockHash: hash,
}
}
type BlockTxsKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint32 `json:"height"`
}
type BlockTxsValue struct {
TxHashes []*chainhash.Hash `struct:"*[32]byte" struct-while:"!_eof" json:"tx_hashes"`
}
func (k *BlockTxsKey) NewBlockTxsKey(height uint32) *BlockTxsKey {
return &BlockTxsKey{
Prefix: []byte{BlockTXs},
Height: height,
}
}
func (k *BlockTxsKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 4
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
return key
}
func (v *BlockTxsValue) PackValue() []byte {
numHashes := len(v.TxHashes)
n := numHashes * 32
value := make([]byte, n)
for i, tx := range v.TxHashes {
if len(tx) != 32 {
log.Println("Warning, txhash not 32 bytes", tx)
return nil
}
copy(value[i*32:], tx[:])
}
return value
}
func (kv *BlockTxsKey) NumFields() int {
return 1
}
func (k *BlockTxsKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
}
}
return key
}
func BlockTxsKeyUnpack(key []byte) *BlockTxsKey {
prefixLen := 1
return &BlockTxsKey{
Prefix: key[:prefixLen],
Height: binary.BigEndian.Uint32(key[prefixLen:]),
}
}
func BlockTxsValueUnpack(value []byte) *BlockTxsValue {
numHashes := len(value) / 32
txs := make([]*chainhash.Hash, numHashes)
for i := 0; i < numHashes; i++ {
txs[i] = (*chainhash.Hash)(value[i*32 : (i+1)*32])
}
return &BlockTxsValue{
TxHashes: txs,
}
}
type TxCountKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint32 `json:"height"`
}
type TxCountValue struct {
TxCount uint32 `json:"tx_count"`
}
func NewTxCountKey(height uint32) *TxCountKey {
return &TxCountKey{
Prefix: []byte{TxCount},
Height: height,
}
}
func (k *TxCountKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 4
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
return key
}
func (v *TxCountValue) PackValue() []byte {
value := make([]byte, 4)
binary.BigEndian.PutUint32(value, v.TxCount)
return value
}
func (kv *TxCountKey) NumFields() int {
return 1
}
func (k *TxCountKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
}
}
return key
}
func TxCountKeyUnpack(key []byte) *TxCountKey {
prefixLen := 1
return &TxCountKey{
Prefix: key[:prefixLen],
Height: binary.BigEndian.Uint32(key[prefixLen:]),
}
}
func TxCountValueUnpack(value []byte) *TxCountValue {
return &TxCountValue{
TxCount: binary.BigEndian.Uint32(value),
}
}
type TxHashKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
TxNum uint32 `json:"tx_num"`
}
type TxHashValue struct {
TxHash *chainhash.Hash `json:"tx_hash"`
}
func NewTxHashKey(txNum uint32) *TxHashKey {
return &TxHashKey{
Prefix: []byte{TxHash},
TxNum: txNum,
}
}
func (k *TxHashKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 4
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.TxNum)
return key
}
func (v *TxHashValue) PackValue() []byte {
n := len(v.TxHash)
value := make([]byte, n)
copy(value, v.TxHash[:n])
return value
}
func (kv *TxHashKey) NumFields() int {
return 1
}
func (k *TxHashKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.TxNum)
}
}
return key
}
func TxHashKeyUnpack(key []byte) *TxHashKey {
prefixLen := 1
return &TxHashKey{
Prefix: key[:prefixLen],
TxNum: binary.BigEndian.Uint32(key[prefixLen:]),
}
}
func TxHashValueUnpack(value []byte) *TxHashValue {
return &TxHashValue{
TxHash: (*chainhash.Hash)(value),
}
}
type TxNumKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
TxHash *chainhash.Hash `json:"tx_hash"`
}
type TxNumValue struct {
TxNum uint32 `json:"tx_num"`
}
func (k *TxNumKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 32
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.TxHash[:32])
return key
}
func (v *TxNumValue) PackValue() []byte {
value := make([]byte, 4)
binary.BigEndian.PutUint32(value, v.TxNum)
return value
}
func (kv *TxNumKey) NumFields() int {
return 1
}
func (k *TxNumKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 32
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.TxHash[:32])
}
}
return key
}
func TxNumKeyUnpack(key []byte) *TxNumKey {
prefixLen := 1
return &TxNumKey{
Prefix: key[:prefixLen],
TxHash: (*chainhash.Hash)(key[prefixLen : prefixLen+32]),
}
}
func TxNumValueUnpack(value []byte) *TxNumValue {
return &TxNumValue{
TxNum: binary.BigEndian.Uint32(value),
}
}
type BlockHeaderKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint32 `json:"height"`
}
type BlockHeaderValue struct {
Header []byte `struct:"[112]byte" json:"header"`
}
func (k *BlockHeaderValue) Equals(v *BlockHeaderValue) bool {
return bytes.Equal(k.Header, v.Header)
}
func NewHeaderKey(height uint32) *BlockHeaderKey {
return &BlockHeaderKey{
Prefix: []byte{Header},
Height: height,
}
}
func (k *BlockHeaderKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 4
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
return key
}
func (v *BlockHeaderValue) PackValue() []byte {
value := make([]byte, 112)
copy(value, v.Header)
return value
}
func (kv *BlockHeaderKey) NumFields() int {
return 1
}
func (k *BlockHeaderKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
}
}
return key
}
func BlockHeaderKeyUnpack(key []byte) *BlockHeaderKey {
prefixLen := 1
return &BlockHeaderKey{
Prefix: key[:prefixLen],
Height: binary.BigEndian.Uint32(key[prefixLen:]),
}
}
func BlockHeaderValueUnpack(value []byte) *BlockHeaderValue {
return &BlockHeaderValue{
Header: value[:112],
}
}
type ClaimToTXOKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
type ClaimToTXOValue struct {
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
RootTxNum uint32 `json:"root_tx_num"`
RootPosition uint16 `json:"root_position"`
Amount uint64 `json:"amount"`
ChannelSignatureIsValid bool `json:"channel_signature_is_valid"`
LengthEncodedName
}
func NewClaimToTXOKey(claimHash []byte) *ClaimToTXOKey {
return &ClaimToTXOKey{
Prefix: []byte{ClaimToTXO},
ClaimHash: claimHash,
}
}
func (v *ClaimToTXOValue) NormalizedName() string {
//TODO implement? Might not need to do anything.
return internal.NormalizeName(v.Name)
}
func (k *ClaimToTXOKey) PackKey() []byte {
prefixLen := 1
// b'>20s'
n := prefixLen + 20
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ClaimHash[:20])
return key
}
func (v *ClaimToTXOValue) PackValue() []byte {
nameLen := len(v.Name)
n := 4 + 2 + 4 + 2 + 8 + 1 + 2 + nameLen
value := make([]byte, n)
binary.BigEndian.PutUint32(value, v.TxNum)
binary.BigEndian.PutUint16(value[4:], v.Position)
binary.BigEndian.PutUint32(value[6:], v.RootTxNum)
binary.BigEndian.PutUint16(value[10:], v.RootPosition)
binary.BigEndian.PutUint64(value[12:], v.Amount)
var bitSetVar uint8
if v.ChannelSignatureIsValid {
bitSetVar = 1
}
value[20] = bitSetVar
binary.BigEndian.PutUint16(value[21:], uint16(nameLen))
copy(value[23:], []byte(v.Name[:nameLen]))
return value
}
func (kv *ClaimToTXOKey) NumFields() int {
return 1
}
func (k *ClaimToTXOKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ClaimHash[:20])
}
}
return key
}
func ClaimToTXOKeyUnpack(key []byte) *ClaimToTXOKey {
prefixLen := 1
return &ClaimToTXOKey{
Prefix: key[:prefixLen],
ClaimHash: key[prefixLen : prefixLen+20],
}
}
func ClaimToTXOValueUnpack(value []byte) *ClaimToTXOValue {
nameLen := binary.BigEndian.Uint16(value[21:])
return &ClaimToTXOValue{
TxNum: binary.BigEndian.Uint32(value),
Position: binary.BigEndian.Uint16(value[4:]),
RootTxNum: binary.BigEndian.Uint32(value[6:]),
RootPosition: binary.BigEndian.Uint16(value[10:]),
Amount: binary.BigEndian.Uint64(value[12:]),
ChannelSignatureIsValid: value[20] == 1,
LengthEncodedName: NewLengthEncodedName(string(value[23 : 23+nameLen])),
}
}
type TXOToClaimKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type TXOToClaimValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
LengthEncodedName
}
func NewTXOToClaimKey(txNum uint32, position uint16) *TXOToClaimKey {
return &TXOToClaimKey{
Prefix: []byte{TXOToClaim},
TxNum: txNum,
Position: position,
}
}
func (k *TXOToClaimKey) PackKey() []byte {
prefixLen := 1
// b'>LH'
n := prefixLen + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+4:], k.Position)
return key
}
func (v *TXOToClaimValue) PackValue() []byte {
nameLen := len(v.Name)
n := 20 + 2 + nameLen
value := make([]byte, n)
copy(value, v.ClaimHash[:20])
binary.BigEndian.PutUint16(value[20:], uint16(nameLen))
copy(value[22:], []byte(v.Name))
return value
}
func (kv *TXOToClaimKey) NumFields() int {
return 2
}
func (k *TXOToClaimKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 2 {
fields = 2
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
case 2:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.TxNum)
case 2:
binary.BigEndian.PutUint16(key[prefixLen+4:], k.Position)
}
}
return key
}
func TXOToClaimKeyUnpack(key []byte) *TXOToClaimKey {
prefixLen := 1
return &TXOToClaimKey{
Prefix: key[:prefixLen],
TxNum: binary.BigEndian.Uint32(key[prefixLen:]),
Position: binary.BigEndian.Uint16(key[prefixLen+4:]),
}
}
func TXOToClaimValueUnpack(value []byte) *TXOToClaimValue {
nameLen := binary.BigEndian.Uint16(value[20:])
return &TXOToClaimValue{
ClaimHash: value[:20],
LengthEncodedName: NewLengthEncodedName(string(value[22 : 22+nameLen])),
}
}
type ClaimShortIDKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
LengthEncodedNormalizedName // fields NormalizedNameLen, NormalizedName
LengthEncodedPartialClaimId // fields PartialClaimIdLen, PartialClaimId
RootTxNum uint32 `json:"root_tx_num"`
RootPosition uint16 `json:"root_position"`
}
type ClaimShortIDValue struct {
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
func NewClaimShortIDKey(normalizedName, partialClaimId string) *ClaimShortIDKey {
return &ClaimShortIDKey{
Prefix: []byte{ClaimShortIdPrefix},
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(normalizedName),
LengthEncodedPartialClaimId: NewLengthEncodedPartialClaimId(partialClaimId),
}
}
func (k *ClaimShortIDKey) PackKey() []byte {
prefixLen := 1
nameLen := len(k.NormalizedName)
partialClaimLen := len(k.PartialClaimId)
log.Printf("nameLen: %d, partialClaimLen: %d\n", nameLen, partialClaimLen)
n := prefixLen + 2 + nameLen + 1 + partialClaimLen + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint16(key[prefixLen:], uint16(nameLen))
copy(key[prefixLen+2:], []byte(k.NormalizedName[:nameLen]))
key[prefixLen+2+nameLen] = uint8(partialClaimLen)
copy(key[prefixLen+2+nameLen+1:], []byte(k.PartialClaimId[:partialClaimLen]))
binary.BigEndian.PutUint32(key[prefixLen+2+nameLen+1+partialClaimLen:], k.RootTxNum)
binary.BigEndian.PutUint16(key[prefixLen+2+nameLen+1+partialClaimLen+4:], k.RootPosition)
return key
}
func (v *ClaimShortIDValue) PackValue() []byte {
value := make([]byte, 6)
binary.BigEndian.PutUint32(value, v.TxNum)
binary.BigEndian.PutUint16(value[4:], v.Position)
return value
}
func (kv *ClaimShortIDKey) NumFields() int {
return 4
}
func (k *ClaimShortIDKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 4 {
fields = 4
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
nameLen := len(k.NormalizedName)
partialClaimLen := len(k.PartialClaimId)
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 2 + nameLen
case 2:
n += 1 + partialClaimLen
case 3:
n += 4
case 4:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint16(key[prefixLen:], uint16(nameLen))
copy(key[prefixLen+2:], []byte(k.NormalizedName))
case 2:
key[prefixLen+2+nameLen] = uint8(partialClaimLen)
copy(key[prefixLen+2+nameLen+1:], []byte(k.PartialClaimId))
case 3:
binary.BigEndian.PutUint32(key[prefixLen+2+nameLen+1+partialClaimLen:], k.RootTxNum)
case 4:
binary.BigEndian.PutUint16(key[prefixLen+2+nameLen+1+partialClaimLen+4:], k.RootPosition)
}
}
return key
}
func ClaimShortIDKeyUnpack(key []byte) *ClaimShortIDKey {
prefixLen := 1
nameLen := int(binary.BigEndian.Uint16(key[prefixLen:]))
partialClaimLen := int(uint8(key[prefixLen+2+nameLen]))
return &ClaimShortIDKey{
Prefix: key[:prefixLen],
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(string(key[prefixLen+2 : prefixLen+2+nameLen])),
LengthEncodedPartialClaimId: NewLengthEncodedPartialClaimId(string(key[prefixLen+2+nameLen+1 : prefixLen+2+nameLen+1+partialClaimLen])),
RootTxNum: binary.BigEndian.Uint32(key[prefixLen+2+nameLen+1+partialClaimLen:]),
RootPosition: binary.BigEndian.Uint16(key[prefixLen+2+nameLen+1+partialClaimLen+4:]),
}
}
func ClaimShortIDValueUnpack(value []byte) *ClaimShortIDValue {
return &ClaimShortIDValue{
TxNum: binary.BigEndian.Uint32(value),
Position: binary.BigEndian.Uint16(value[4:]),
}
}
type ClaimToChannelKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type ClaimToChannelValue struct {
SigningHash []byte `struct:"[20]byte" json:"signing_hash"`
}
func NewClaimToChannelKey(claimHash []byte, txNum uint32, position uint16) *ClaimToChannelKey {
return &ClaimToChannelKey{
Prefix: []byte{ClaimToChannel},
ClaimHash: claimHash,
TxNum: txNum,
Position: position,
}
}
func (k *ClaimToChannelKey) PackKey() []byte {
prefixLen := 1
// b'>20sLH'
n := prefixLen + 20 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ClaimHash[:20])
binary.BigEndian.PutUint32(key[prefixLen+20:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+24:], k.Position)
return key
}
func (v *ClaimToChannelValue) PackValue() []byte {
value := make([]byte, 20)
copy(value, v.SigningHash[:20])
return value
}
func (kv *ClaimToChannelKey) NumFields() int {
return 3
}
func (k *ClaimToChannelKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 3 {
fields = 3
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ClaimHash[:20])
case 2:
binary.BigEndian.PutUint32(key[prefixLen+20:], k.TxNum)
case 3:
binary.BigEndian.PutUint16(key[prefixLen+24:], k.Position)
}
}
return key
}
func ClaimToChannelKeyUnpack(key []byte) *ClaimToChannelKey {
prefixLen := 1
return &ClaimToChannelKey{
Prefix: key[:prefixLen],
ClaimHash: key[prefixLen : prefixLen+20],
TxNum: binary.BigEndian.Uint32(key[prefixLen+20:]),
Position: binary.BigEndian.Uint16(key[prefixLen+24:]),
}
}
func ClaimToChannelValueUnpack(value []byte) *ClaimToChannelValue {
return &ClaimToChannelValue{
SigningHash: value[:20],
}
}
type ChannelToClaimKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
SigningHash []byte `struct:"[20]byte" json:"signing_hash"`
LengthEncodedName // fields NameLen, Name
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type ChannelToClaimValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
func NewChannelToClaimKey(channelHash []byte, normalizedName string) *ChannelToClaimKey {
return &ChannelToClaimKey{
Prefix: []byte{ChannelToClaim},
SigningHash: channelHash,
LengthEncodedName: NewLengthEncodedName(normalizedName),
}
}
func NewChannelToClaimKeyWHash(channelHash []byte) *ChannelToClaimKey {
return &ChannelToClaimKey{
Prefix: []byte{ChannelToClaim},
SigningHash: channelHash,
}
}
func (k *ChannelToClaimKey) PackKey() []byte {
prefixLen := 1
nameLen := len(k.Name)
n := prefixLen + 20 + 2 + nameLen + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.SigningHash[:20])
binary.BigEndian.PutUint16(key[prefixLen+20:], uint16(nameLen))
copy(key[prefixLen+22:], []byte(k.Name[:nameLen]))
binary.BigEndian.PutUint32(key[prefixLen+22+nameLen:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+22+nameLen+4:], k.Position)
return key
}
func (v *ChannelToClaimValue) PackValue() []byte {
value := make([]byte, 20)
copy(value, v.ClaimHash[:20])
return value
}
func (kv *ChannelToClaimKey) NumFields() int {
return 4
}
func (k *ChannelToClaimKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 4 {
fields = 4
}
if fields < 0 {
fields = 0
}
nameLen := len(k.Name)
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
case 2:
n += 2 + nameLen
case 3:
n += 4
case 4:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.SigningHash[:20])
case 2:
binary.BigEndian.PutUint16(key[prefixLen+20:], uint16(nameLen))
copy(key[prefixLen+22:], []byte(k.Name))
case 3:
binary.BigEndian.PutUint32(key[prefixLen+22+nameLen:], k.TxNum)
case 4:
binary.BigEndian.PutUint16(key[prefixLen+22+nameLen+4:], k.Position)
}
}
return key
}
func ChannelToClaimKeyUnpack(key []byte) *ChannelToClaimKey {
prefixLen := 1
nameLen := int(binary.BigEndian.Uint16(key[prefixLen+20:]))
return &ChannelToClaimKey{
Prefix: key[:prefixLen],
SigningHash: key[prefixLen : prefixLen+20],
LengthEncodedName: NewLengthEncodedName(string(key[prefixLen+22 : prefixLen+22+nameLen])),
TxNum: binary.BigEndian.Uint32(key[prefixLen+22+nameLen:]),
Position: binary.BigEndian.Uint16(key[prefixLen+22+nameLen+4:]),
}
}
func ChannelToClaimValueUnpack(value []byte) *ChannelToClaimValue {
return &ChannelToClaimValue{
ClaimHash: value[:20],
}
}
type ChannelCountKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ChannelHash []byte `struct:"[20]byte" json:"channel_hash"`
}
type ChannelCountValue struct {
Count uint32 `json:"count"`
}
func NewChannelCountKey(channelHash []byte) *ChannelCountKey {
return &ChannelCountKey{
Prefix: []byte{ChannelCount},
ChannelHash: channelHash,
}
}
func (k *ChannelCountKey) PackKey() []byte {
prefixLen := 1
// b'>20sLH'
n := prefixLen + 20
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ChannelHash[:20])
return key
}
func (v *ChannelCountValue) PackValue() []byte {
value := make([]byte, 4)
binary.BigEndian.PutUint32(value, v.Count)
return value
}
func (kv *ChannelCountKey) NumFields() int {
return 1
}
func (k *ChannelCountKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ChannelHash)
}
}
return key
}
func ChannelCountKeyUnpack(key []byte) *ChannelCountKey {
prefixLen := 1
return &ChannelCountKey{
Prefix: key[:prefixLen],
ChannelHash: key[prefixLen : prefixLen+20],
}
}
func ChannelCountValueUnpack(value []byte) *ChannelCountValue {
return &ChannelCountValue{
Count: binary.BigEndian.Uint32(value),
}
}
type SupportAmountKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
type SupportAmountValue struct {
Amount uint64 `json:"amount"`
}
func NewSupportAmountKey(claimHash []byte) *SupportAmountKey {
return &SupportAmountKey{
Prefix: []byte{SupportAmount},
ClaimHash: claimHash,
}
}
func (k *SupportAmountKey) PackKey() []byte {
prefixLen := 1
// b'>20sLH'
n := prefixLen + 20
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ClaimHash[:20])
return key
}
func (v *SupportAmountValue) PackValue() []byte {
value := make([]byte, 8)
binary.BigEndian.PutUint64(value, v.Amount)
return value
}
func (kv *SupportAmountKey) NumFields() int {
return 1
}
func (k *SupportAmountKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ClaimHash)
}
}
return key
}
func SupportAmountKeyUnpack(key []byte) *SupportAmountKey {
prefixLen := 1
return &SupportAmountKey{
Prefix: key[:prefixLen],
ClaimHash: key[prefixLen : prefixLen+20],
}
}
func SupportAmountValueUnpack(value []byte) *SupportAmountValue {
return &SupportAmountValue{
Amount: binary.BigEndian.Uint64(value),
}
}
type ClaimToSupportKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type ClaimToSupportValue struct {
Amount uint64 `json:"amount"`
}
func (k *ClaimToSupportKey) PackKey() []byte {
prefixLen := 1
// b'>20sLH'
n := prefixLen + 20 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ClaimHash[:20])
binary.BigEndian.PutUint32(key[prefixLen+20:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+24:], k.Position)
return key
}
func (v *ClaimToSupportValue) PackValue() []byte {
value := make([]byte, 8)
binary.BigEndian.PutUint64(value, v.Amount)
return value
}
func (kv *ClaimToSupportKey) NumFields() int {
return 3
}
func (k *ClaimToSupportKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 3 {
fields = 3
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ClaimHash)
case 2:
binary.BigEndian.PutUint32(key[prefixLen+20:], k.TxNum)
case 3:
binary.BigEndian.PutUint16(key[prefixLen+24:], k.Position)
}
}
return key
}
func ClaimToSupportKeyUnpack(key []byte) *ClaimToSupportKey {
prefixLen := 1
return &ClaimToSupportKey{
Prefix: key[:prefixLen],
ClaimHash: key[prefixLen : prefixLen+20],
TxNum: binary.BigEndian.Uint32(key[prefixLen+20:]),
Position: binary.BigEndian.Uint16(key[prefixLen+24:]),
}
}
func ClaimToSupportValueUnpack(value []byte) *ClaimToSupportValue {
return &ClaimToSupportValue{
Amount: binary.BigEndian.Uint64(value),
}
}
type SupportToClaimKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type SupportToClaimValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
func (k *SupportToClaimKey) PackKey() []byte {
prefixLen := 1
// b'>LH'
n := prefixLen + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+4:], k.Position)
return key
}
func (v *SupportToClaimValue) PackValue() []byte {
value := make([]byte, 20)
copy(value, v.ClaimHash)
return value
}
func (kv *SupportToClaimKey) NumFields() int {
return 2
}
func (k *SupportToClaimKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 2 {
fields = 2
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
case 2:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.TxNum)
case 2:
binary.BigEndian.PutUint16(key[prefixLen+4:], k.Position)
}
}
return key
}
func SupportToClaimKeyUnpack(key []byte) *SupportToClaimKey {
prefixLen := 1
return &SupportToClaimKey{
Prefix: key[:prefixLen],
TxNum: binary.BigEndian.Uint32(key[prefixLen:]),
Position: binary.BigEndian.Uint16(key[prefixLen+4:]),
}
}
func SupportToClaimValueUnpack(value []byte) *SupportToClaimValue {
return &SupportToClaimValue{
ClaimHash: value[:20],
}
}
type ClaimExpirationKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Expiration uint32 `json:"expiration"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type ClaimExpirationValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
LengthEncodedNormalizedName // fields NormalizedNameLen, NormalizedName
}
func (k *ClaimExpirationKey) PackKey() []byte {
prefixLen := 1
// b'>LLH'
n := prefixLen + 4 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.Expiration)
binary.BigEndian.PutUint32(key[prefixLen+4:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+8:], k.Position)
return key
}
func (v *ClaimExpirationValue) PackValue() []byte {
nameLen := len(v.NormalizedName)
n := 20 + 2 + nameLen
value := make([]byte, n)
copy(value, v.ClaimHash)
binary.BigEndian.PutUint16(value[20:], uint16(nameLen))
copy(value[22:], []byte(v.NormalizedName))
return value
}
func (kv *ClaimExpirationKey) NumFields() int {
return 3
}
func (k *ClaimExpirationKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 3 {
fields = 3
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.Expiration)
case 2:
binary.BigEndian.PutUint32(key[prefixLen+4:], k.TxNum)
case 3:
binary.BigEndian.PutUint16(key[prefixLen+8:], k.Position)
}
}
return key
}
func ClaimExpirationKeyUnpack(key []byte) *ClaimExpirationKey {
prefixLen := 1
return &ClaimExpirationKey{
Prefix: key[:prefixLen],
Expiration: binary.BigEndian.Uint32(key[prefixLen:]),
TxNum: binary.BigEndian.Uint32(key[prefixLen+4:]),
Position: binary.BigEndian.Uint16(key[prefixLen+8:]),
}
}
func ClaimExpirationValueUnpack(value []byte) *ClaimExpirationValue {
nameLen := binary.BigEndian.Uint16(value[20:])
return &ClaimExpirationValue{
ClaimHash: value[:20],
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(string(value[22 : 22+nameLen])),
}
}
type ClaimTakeoverKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
LengthEncodedNormalizedName // fields NormalizedNameLen, NormalizedName
}
type ClaimTakeoverValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
Height uint32 `json:"height"`
}
func NewClaimTakeoverKey(normalizedName string) *ClaimTakeoverKey {
return &ClaimTakeoverKey{
Prefix: []byte{ClaimTakeover},
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(normalizedName),
}
}
func (v *ClaimTakeoverValue) String() string {
return fmt.Sprintf(
"%s(claim_hash=%s, height=%d)",
reflect.TypeOf(v),
hex.EncodeToString(v.ClaimHash),
v.Height,
)
}
func (k *ClaimTakeoverKey) PackKey() []byte {
prefixLen := 1
nameLen := len(k.NormalizedName)
n := prefixLen + 2 + nameLen
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint16(key[prefixLen:], uint16(nameLen))
copy(key[prefixLen+2:], []byte(k.NormalizedName))
return key
}
func (v *ClaimTakeoverValue) PackValue() []byte {
// b'>20sL'
value := make([]byte, 24)
copy(value, v.ClaimHash[:20])
binary.BigEndian.PutUint32(value[20:], uint32(v.Height))
return value
}
func (kv *ClaimTakeoverKey) NumFields() int {
return 1
}
func (k *ClaimTakeoverKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
nameLen := len(k.NormalizedName)
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 2 + nameLen
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint16(key[prefixLen:], uint16(nameLen))
copy(key[prefixLen+2:], []byte(k.NormalizedName))
}
}
return key
}
func ClaimTakeoverKeyUnpack(key []byte) *ClaimTakeoverKey {
prefixLen := 1
nameLen := binary.BigEndian.Uint16(key[prefixLen:])
return &ClaimTakeoverKey{
Prefix: key[:prefixLen],
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(string(key[prefixLen+2 : prefixLen+2+int(nameLen)])),
}
}
func ClaimTakeoverValueUnpack(value []byte) *ClaimTakeoverValue {
return &ClaimTakeoverValue{
ClaimHash: value[:20],
Height: binary.BigEndian.Uint32(value[20:]),
}
}
type PendingActivationKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint32 `json:"height"`
TxoType uint8 `json:"txo_type"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
func (k *PendingActivationKey) IsSupport() bool {
return k.TxoType == ActivatedSupportTXOType
}
func (k *PendingActivationKey) IsClaim() bool {
return k.TxoType == ActivateClaimTXOType
}
type PendingActivationValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
LengthEncodedNormalizedName // fields NormalizedNameLen, NormalizedName
}
func (k *PendingActivationKey) PackKey() []byte {
prefixLen := 1
// b'>LBLH'
n := prefixLen + 4 + 1 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
key[prefixLen+4] = k.TxoType
binary.BigEndian.PutUint32(key[prefixLen+5:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+9:], k.Position)
return key
}
func (v *PendingActivationValue) PackValue() []byte {
nameLen := len(v.NormalizedName)
n := 20 + 2 + nameLen
value := make([]byte, n)
copy(value, v.ClaimHash[:20])
binary.BigEndian.PutUint16(value[20:], uint16(nameLen))
copy(value[22:], []byte(v.NormalizedName))
return value
}
func (kv *PendingActivationKey) NumFields() int {
return 4
}
func (k *PendingActivationKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 4 {
fields = 4
}
if fields < 0 {
fields = 0
}
// b'>4sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
case 2:
n += 1
case 3:
n += 4
case 4:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], k.Height)
case 2:
key[prefixLen+4] = k.TxoType
case 3:
binary.BigEndian.PutUint32(key[prefixLen+5:], k.TxNum)
case 4:
binary.BigEndian.PutUint16(key[prefixLen+9:], k.Position)
}
}
return key
}
func PendingActivationKeyUnpack(key []byte) *PendingActivationKey {
prefixLen := 1
return &PendingActivationKey{
Prefix: key[:prefixLen],
Height: binary.BigEndian.Uint32(key[prefixLen:]),
TxoType: key[prefixLen+4],
TxNum: binary.BigEndian.Uint32(key[prefixLen+5:]),
Position: binary.BigEndian.Uint16(key[prefixLen+9:]),
}
}
func PendingActivationValueUnpack(value []byte) *PendingActivationValue {
nameLen := binary.BigEndian.Uint16(value[20:])
return &PendingActivationValue{
ClaimHash: value[:20],
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(string(value[22 : 22+nameLen])),
}
}
type ActivationKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
TxoType uint8 `json:"txo_type"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type ActivationValue struct {
Height uint32 `json:"height"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
LengthEncodedNormalizedName // fields NormalizedNameLen, NormalizedName
}
func NewActivationKey(txoType uint8, txNum uint32, position uint16) *ActivationKey {
return &ActivationKey{
Prefix: []byte{ActivatedClaimAndSupport},
TxoType: txoType,
TxNum: txNum,
Position: position,
}
}
func (k *ActivationKey) PackKey() []byte {
prefixLen := 1
// b'>BLH'
n := prefixLen + 1 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], []byte{k.TxoType})
binary.BigEndian.PutUint32(key[prefixLen+1:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+5:], k.Position)
return key
}
func (v *ActivationValue) PackValue() []byte {
nameLen := len(v.NormalizedName)
n := 4 + 20 + 2 + nameLen
value := make([]byte, n)
binary.BigEndian.PutUint32(value, v.Height)
copy(value[4:], v.ClaimHash[:20])
binary.BigEndian.PutUint16(value[24:], uint16(nameLen))
copy(value[26:], []byte(v.NormalizedName))
return value
}
func (kv *ActivationKey) NumFields() int {
return 3
}
func (k *ActivationKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 3 {
fields = 3
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 1
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
key[prefixLen] = k.TxoType
case 2:
binary.BigEndian.PutUint32(key[prefixLen+1:], k.TxNum)
case 3:
binary.BigEndian.PutUint16(key[prefixLen+5:], k.Position)
}
}
return key
}
func ActivationKeyUnpack(key []byte) *ActivationKey {
prefixLen := 1
return &ActivationKey{
Prefix: key[:prefixLen],
TxoType: key[prefixLen],
TxNum: binary.BigEndian.Uint32(key[prefixLen+1:]),
Position: binary.BigEndian.Uint16(key[prefixLen+5:]),
}
}
func ActivationValueUnpack(value []byte) *ActivationValue {
nameLen := binary.BigEndian.Uint16(value[24:])
return &ActivationValue{
Height: binary.BigEndian.Uint32(value),
ClaimHash: value[4 : 20+4],
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(string(value[26 : 26+nameLen])),
}
}
type ActiveAmountKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
TxoType uint8 `json:"txo_type"`
ActivationHeight uint32 `json:"activation_height"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type ActiveAmountValue struct {
Amount uint64 `json:"amount"`
}
func NewActiveAmountKey(claimHash []byte, txoType uint8, activationHeight uint32) *ActiveAmountKey {
return &ActiveAmountKey{
Prefix: []byte{ActiveAmount},
ClaimHash: claimHash,
TxoType: txoType,
ActivationHeight: activationHeight,
}
}
func (k *ActiveAmountKey) PackKey() []byte {
prefixLen := 1
// b'>20sBLLH'
n := prefixLen + 20 + 1 + 4 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ClaimHash[:20])
copy(key[prefixLen+20:], []byte{k.TxoType})
binary.BigEndian.PutUint32(key[prefixLen+20+1:], k.ActivationHeight)
binary.BigEndian.PutUint32(key[prefixLen+20+1+4:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+20+1+4+4:], k.Position)
return key
}
func (v *ActiveAmountValue) PackValue() []byte {
// b'>Q'
value := make([]byte, 8)
binary.BigEndian.PutUint64(value, v.Amount)
return value
}
func (kv *ActiveAmountKey) NumFields() int {
return 5
}
func (k *ActiveAmountKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 5 {
fields = 5
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
case 2:
n += 1
case 3:
n += 4
case 4:
n += 4
case 5:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ClaimHash)
case 2:
copy(key[prefixLen+20:], []byte{k.TxoType})
case 3:
binary.BigEndian.PutUint32(key[prefixLen+20+1:], k.ActivationHeight)
case 4:
binary.BigEndian.PutUint32(key[prefixLen+20+1+4:], k.TxNum)
case 5:
binary.BigEndian.PutUint16(key[prefixLen+20+1+4+4:], k.Position)
}
}
return key
}
func ActiveAmountKeyUnpack(key []byte) *ActiveAmountKey {
prefixLen := 1
return &ActiveAmountKey{
Prefix: key[:prefixLen],
ClaimHash: key[prefixLen : prefixLen+20],
TxoType: uint8(key[prefixLen+20 : prefixLen+20+1][0]),
ActivationHeight: binary.BigEndian.Uint32(key[prefixLen+20+1:]),
TxNum: binary.BigEndian.Uint32(key[prefixLen+20+1+4:]),
Position: binary.BigEndian.Uint16(key[prefixLen+20+1+4+4:]),
}
}
func ActiveAmountValueUnpack(value []byte) *ActiveAmountValue {
return &ActiveAmountValue{
Amount: binary.BigEndian.Uint64(value),
}
}
type OnesComplementEffectiveAmount uint64
type BidOrderKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
LengthEncodedNormalizedName // fields NormalizedNameLen, NormalizedName
EffectiveAmount OnesComplementEffectiveAmount `json:"effective_amount"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type BidOrderValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
func NewBidOrderKey(normalizedName string) *BidOrderKey {
return &BidOrderKey{
Prefix: []byte{BidOrder},
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(normalizedName),
}
}
func (k *BidOrderKey) PackKey() []byte {
prefixLen := 1
// 2 byte length field, plus number of bytes in name
nameLen := len(k.NormalizedName)
nameLenLen := 2 + nameLen
// b'>QLH'
n := prefixLen + nameLenLen + 8 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint16(key[prefixLen:], uint16(nameLen))
copy(key[prefixLen+2:], []byte(k.NormalizedName))
binary.BigEndian.PutUint64(key[prefixLen+nameLenLen:], OnesCompTwiddle64-uint64(k.EffectiveAmount))
binary.BigEndian.PutUint32(key[prefixLen+nameLenLen+8:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+nameLenLen+8+4:], k.Position)
return key
}
func (v *BidOrderValue) PackValue() []byte {
// b'>20s'
value := make([]byte, 20)
copy(value, v.ClaimHash[:20])
return value
}
func (kv *BidOrderKey) NumFields() int {
return 4
}
func (k *BidOrderKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
nameLen := len(k.NormalizedName)
nameLenLen := 2 + nameLen
if fields > 4 {
fields = 4
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 2 + nameLen
case 2:
n += 8
case 3:
n += 4
case 4:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint16(key[prefixLen:], uint16(nameLen))
copy(key[prefixLen+2:], []byte(k.NormalizedName))
case 2:
binary.BigEndian.PutUint64(key[prefixLen+nameLenLen:], OnesCompTwiddle64-uint64(k.EffectiveAmount))
case 3:
binary.BigEndian.PutUint32(key[prefixLen+nameLenLen+8:], k.TxNum)
case 4:
binary.BigEndian.PutUint16(key[prefixLen+nameLenLen+8+4:], k.Position)
}
}
return key
}
func BidOrderKeyUnpack(key []byte) *BidOrderKey {
prefixLen := 1
nameLen := binary.BigEndian.Uint16(key[prefixLen:])
return &BidOrderKey{
Prefix: key[:prefixLen],
LengthEncodedNormalizedName: NewLengthEncodedNormalizedName(string(key[prefixLen+2 : prefixLen+2+int(nameLen)])),
EffectiveAmount: OnesComplementEffectiveAmount(OnesCompTwiddle64 - binary.BigEndian.Uint64(key[prefixLen+2+int(nameLen):])),
TxNum: binary.BigEndian.Uint32(key[prefixLen+2+int(nameLen)+8:]),
Position: binary.BigEndian.Uint16(key[prefixLen+2+int(nameLen)+8+4:]),
}
}
func BidOrderValueUnpack(value []byte) *BidOrderValue {
return &BidOrderValue{
ClaimHash: value[:20],
}
}
type RepostKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
type RepostValue struct {
RepostedClaimHash []byte `struct:"[20]byte" json:"reposted_claim_hash"`
}
func NewRepostKey(claimHash []byte) *RepostKey {
return &RepostKey{
Prefix: []byte{Repost},
ClaimHash: claimHash,
}
}
func (k *RepostKey) PackKey() []byte {
prefixLen := 1
// b'>20s'
n := prefixLen + 20
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.ClaimHash)
return key
}
func (v *RepostValue) PackValue() []byte {
// FIXME: Is there a limit to this length?
n := len(v.RepostedClaimHash)
value := make([]byte, n)
copy(value, v.RepostedClaimHash)
return value
}
func (kv *RepostKey) NumFields() int {
return 1
}
func (k *RepostKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.ClaimHash)
}
}
return key
}
func RepostKeyUnpack(key []byte) *RepostKey {
prefixLen := 1
return &RepostKey{
Prefix: key[:prefixLen],
ClaimHash: key[prefixLen : prefixLen+20],
}
}
func RepostValueUnpack(value []byte) *RepostValue {
return &RepostValue{
RepostedClaimHash: value[:],
}
}
type RepostedKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
RepostedClaimHash []byte `struct:"[20]byte" json:"reposted_claim_hash"`
TxNum uint32 `json:"tx_num"`
Position uint16 `json:"position"`
}
type RepostedValue struct {
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
func NewRepostedKey(claimHash []byte) *RepostedKey {
return &RepostedKey{
Prefix: []byte{RepostedClaim},
RepostedClaimHash: claimHash,
}
}
func (k *RepostedKey) PackKey() []byte {
prefixLen := 1
// b'>20sLH'
n := prefixLen + 20 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.RepostedClaimHash)
binary.BigEndian.PutUint32(key[prefixLen+20:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+24:], k.Position)
return key
}
func (v *RepostedValue) PackValue() []byte {
// b'>20s'
value := make([]byte, 20)
copy(value, v.ClaimHash)
return value
}
func (kv *RepostedKey) NumFields() int {
return 3
}
func (k *RepostedKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 3 {
fields = 3
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 20
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.RepostedClaimHash)
case 2:
binary.BigEndian.PutUint32(key[prefixLen+20:], k.TxNum)
case 3:
binary.BigEndian.PutUint16(key[prefixLen+24:], k.Position)
}
}
return key
}
func RepostedKeyUnpack(key []byte) *RepostedKey {
prefixLen := 1
return &RepostedKey{
Prefix: key[:prefixLen],
RepostedClaimHash: key[prefixLen : prefixLen+20],
TxNum: binary.BigEndian.Uint32(key[prefixLen+20:]),
Position: binary.BigEndian.Uint16(key[prefixLen+24:]),
}
}
func RepostedValueUnpack(value []byte) *RepostedValue {
return &RepostedValue{
ClaimHash: value[:20],
}
}
type RepostedCountKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
type RepostedCountValue struct {
RepostedCount uint32 `json:"reposted_count"`
}
func (kv *RepostedCountKey) NumFields() int {
return 1
}
func (kv *RepostedCountKey) PartialPack(fields int) []byte {
// b'>20s'
n := len(kv.Prefix) + 20
buf := make([]byte, n)
offset := 0
offset += copy(buf[offset:], kv.Prefix[:1])
if fields <= 0 {
return buf[:offset]
}
offset += copy(buf[offset:], kv.ClaimHash[:20])
return buf[:offset]
}
func (kv *RepostedCountKey) PackKey() []byte {
return kv.PartialPack(kv.NumFields())
}
func (kv *RepostedCountKey) UnpackKey(buf []byte) {
// b'>20s'
offset := 0
kv.Prefix = buf[offset : offset+1]
offset += 1
kv.ClaimHash = buf[offset : offset+20]
offset += 20
}
func (kv *RepostedCountValue) PackValue() []byte {
// b'>L'
n := 4
buf := make([]byte, n)
offset := 0
binary.BigEndian.PutUint32(buf[offset:], kv.RepostedCount)
offset += 4
return buf[:offset]
}
func (kv *RepostedCountValue) UnpackValue(buf []byte) {
// b'>L'
offset := 0
kv.RepostedCount = binary.BigEndian.Uint32(buf[offset:])
offset += 4
}
type TouchedOrDeletedClaimKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height int32 `json:"height"`
}
type TouchedOrDeletedClaimValue struct {
TouchedClaimsLen uint32 `struct:"sizeof=TouchedClaims"`
DeletedClaimsLen uint32 `struct:"sizeof=DeletedClaims"`
TouchedClaims [][]byte `struct:"[][20]byte" json:"touched_claims"`
DeletedClaims [][]byte `struct:"[][20]byte" json:"deleted_claims"`
}
func (v *TouchedOrDeletedClaimValue) String() string {
touchedSB := strings.Builder{}
touchedLen := len(v.TouchedClaims)
for i, claim := range v.TouchedClaims {
touchedSB.WriteString(hex.EncodeToString(claim))
if i < touchedLen-1 {
touchedSB.WriteString(",")
}
}
deletedSB := strings.Builder{}
deletedLen := len(v.DeletedClaims)
for i, claim := range v.DeletedClaims {
deletedSB.WriteString(hex.EncodeToString(claim))
if i < deletedLen-1 {
deletedSB.WriteString(",")
}
}
return fmt.Sprintf(
"%s(touched_claims=%s, deleted_claims=%s)",
reflect.TypeOf(v),
touchedSB.String(),
deletedSB.String(),
)
}
func (k *TouchedOrDeletedClaimKey) PackKey() []byte {
prefixLen := 1
// b'>L'
n := prefixLen + 4
key := make([]byte, n)
copy(key, k.Prefix)
binary.BigEndian.PutUint32(key[prefixLen:], uint32(k.Height))
return key
}
func (v *TouchedOrDeletedClaimValue) PackValue() []byte {
var touchedLen, deletedLen uint32 = 0, 0
if v.TouchedClaims != nil {
for _, claim := range v.TouchedClaims {
if len(claim) != 20 {
log.Println("TouchedOrDeletedClaimValue: claim not length 20?!?")
return nil
}
}
touchedLen = uint32(len(v.TouchedClaims))
}
if v.DeletedClaims != nil {
for _, claim := range v.DeletedClaims {
if len(claim) != 20 {
log.Println("TouchedOrDeletedClaimValue: claim not length 20?!?")
return nil
}
}
deletedLen = uint32(len(v.DeletedClaims))
}
n := 4 + 4 + 20*touchedLen + 20*deletedLen
value := make([]byte, n)
binary.BigEndian.PutUint32(value, touchedLen)
binary.BigEndian.PutUint32(value[4:], deletedLen)
// These are sorted for consistency with the Python implementation
sort.Slice(v.TouchedClaims, func(i, j int) bool { return bytes.Compare(v.TouchedClaims[i], v.TouchedClaims[j]) < 0 })
sort.Slice(v.DeletedClaims, func(i, j int) bool { return bytes.Compare(v.DeletedClaims[i], v.DeletedClaims[j]) < 0 })
var i = 8
for j := 0; j < int(touchedLen); j++ {
copy(value[i:], v.TouchedClaims[j])
i += 20
}
for j := 0; j < int(deletedLen); j++ {
copy(value[i:], v.DeletedClaims[j])
i += 20
}
return value
}
func (kv *TouchedOrDeletedClaimKey) NumFields() int {
return 1
}
func (k *TouchedOrDeletedClaimKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 1 {
fields = 1
}
if fields < 0 {
fields = 0
}
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 4
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
binary.BigEndian.PutUint32(key[prefixLen:], uint32(k.Height))
}
}
return key
}
func TouchedOrDeletedClaimKeyUnpack(key []byte) *TouchedOrDeletedClaimKey {
prefixLen := 1
return &TouchedOrDeletedClaimKey{
Prefix: key[:prefixLen],
Height: int32(binary.BigEndian.Uint32(key[prefixLen:])),
}
}
func TouchedOrDeletedClaimValueUnpack(value []byte) *TouchedOrDeletedClaimValue {
touchedLen := binary.BigEndian.Uint32(value)
deletedLen := binary.BigEndian.Uint32(value[4:])
touchedClaims := make([][]byte, touchedLen)
deletedClaims := make([][]byte, deletedLen)
var j = 8
for i := 0; i < int(touchedLen); i++ {
touchedClaims[i] = value[j : j+20]
j += 20
}
for i := 0; i < int(deletedLen); i++ {
deletedClaims[i] = value[j : j+20]
j += 20
}
return &TouchedOrDeletedClaimValue{
TouchedClaimsLen: touchedLen,
DeletedClaimsLen: deletedLen,
TouchedClaims: touchedClaims,
DeletedClaims: deletedClaims,
}
}
func (k *UTXOKey) String() string {
return fmt.Sprintf(
"%s(hashX=%s, tx_num=%d, nout=%d)",
reflect.TypeOf(k),
hex.EncodeToString(k.HashX),
k.TxNum,
k.Nout,
)
}
func (k *UTXOKey) PackKey() []byte {
prefixLen := 1
// b'>11sLH'
n := prefixLen + 11 + 4 + 2
key := make([]byte, n)
copy(key, k.Prefix)
copy(key[prefixLen:], k.HashX)
binary.BigEndian.PutUint32(key[prefixLen+11:], k.TxNum)
binary.BigEndian.PutUint16(key[prefixLen+15:], k.Nout)
return key
}
func (k *UTXOValue) PackValue() []byte {
value := make([]byte, 8)
binary.BigEndian.PutUint64(value, k.Amount)
return value
}
func (kv *UTXOKey) NumFields() int {
return 3
}
// UTXOKeyPackPartial packs a variable number of fields for a UTXOKey into
// a byte array.
func (k *UTXOKey) PartialPack(fields int) []byte {
// Limit fields between 0 and number of fields, we always at least need
// the prefix, and we never need to iterate past the number of fields.
if fields > 3 {
fields = 3
}
if fields < 0 {
fields = 0
}
// b'>11sLH'
prefixLen := 1
var n = prefixLen
for i := 0; i <= fields; i++ {
switch i {
case 1:
n += 11
case 2:
n += 4
case 3:
n += 2
}
}
key := make([]byte, n)
for i := 0; i <= fields; i++ {
switch i {
case 0:
copy(key, k.Prefix)
case 1:
copy(key[prefixLen:], k.HashX)
case 2:
binary.BigEndian.PutUint32(key[prefixLen+11:], k.TxNum)
case 3:
binary.BigEndian.PutUint16(key[prefixLen+15:], k.Nout)
}
}
return key
}
func UTXOKeyUnpack(key []byte) *UTXOKey {
prefixLen := 1
return &UTXOKey{
Prefix: key[:prefixLen],
HashX: key[prefixLen : prefixLen+11],
TxNum: binary.BigEndian.Uint32(key[prefixLen+11:]),
Nout: binary.BigEndian.Uint16(key[prefixLen+15:]),
}
}
func UTXOValueUnpack(value []byte) *UTXOValue {
return &UTXOValue{
Amount: binary.BigEndian.Uint64(value),
}
}
type TrendingNotificationKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint32 `json:"height"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
type TrendingNotificationValue struct {
PreviousAmount uint64 `json:"previous_amount"`
NewAmount uint64 `json:"new_amount"`
}
func (kv *TrendingNotificationKey) NumFields() int {
return 2
}
func (kv *TrendingNotificationKey) PartialPack(fields int) []byte {
// b'>L20s'
n := len(kv.Prefix) + 4 + 20
buf := make([]byte, n)
offset := 0
offset += copy(buf, kv.Prefix[offset:])
if fields <= 0 {
return buf[:offset]
}
binary.BigEndian.PutUint32(buf[offset:], kv.Height)
offset += 4
if fields -= 1; fields <= 0 {
return buf[:offset]
}
offset += copy(buf[offset:], kv.ClaimHash[:20])
return buf[:offset]
}
func (kv *TrendingNotificationKey) PackKey() []byte {
return kv.PartialPack(kv.NumFields())
}
func (kv *TrendingNotificationKey) UnpackKey(buf []byte) {
// b'>L20s'
offset := 0
kv.Prefix = buf[offset : offset+1]
offset += 1
kv.Height = binary.BigEndian.Uint32(buf[offset:])
offset += 4
kv.ClaimHash = buf[offset : offset+20]
offset += 20
}
func (kv *TrendingNotificationValue) PackValue() []byte {
// b'>QQ'
n := 8 + 8
buf := make([]byte, n)
offset := 0
binary.BigEndian.PutUint64(buf[offset:], kv.PreviousAmount)
offset += 8
binary.BigEndian.PutUint64(buf[offset:], kv.NewAmount)
offset += 8
return buf
}
func (kv *TrendingNotificationValue) UnpackValue(buf []byte) {
// b'>QQ'
offset := 0
kv.PreviousAmount = binary.BigEndian.Uint64(buf[offset:])
offset += 8
kv.NewAmount = binary.BigEndian.Uint64(buf[offset:])
offset += 8
}
type TxKey = MempoolTxKey
type TxValue = MempoolTxValue
type MempoolTxKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
TxHash *chainhash.Hash `struct:"*[32]byte" json:"tx_hash"`
}
type MempoolTxValue struct {
RawTx []byte `struct-while:"!_eof" json:"raw_tx"`
}
func (kv *MempoolTxKey) NumFields() int {
return 1
}
func (kv *MempoolTxKey) PartialPack(fields int) []byte {
// b'>32s'
n := len(kv.Prefix) + 32
buf := make([]byte, n)
offset := 0
offset += copy(buf[offset:], kv.Prefix[:1])
if fields <= 0 {
return buf[:offset]
}
offset += copy(buf[offset:], kv.TxHash[:32])
return buf[:offset]
}
func (kv *MempoolTxKey) PackKey() []byte {
return kv.PartialPack(kv.NumFields())
}
func (kv *MempoolTxKey) UnpackKey(buf []byte) {
// b'>32s'
offset := 0
kv.Prefix = buf[offset : offset+1]
offset += 1
kv.TxHash = (*chainhash.Hash)(buf[offset : offset+32])
offset += 32
}
func (kv *MempoolTxValue) PackValue() []byte {
// variable length bytes
n := len(kv.RawTx)
buf := make([]byte, n)
offset := 0
offset += copy(buf, kv.RawTx)
return buf
}
func (kv *MempoolTxValue) UnpackValue(buf []byte) {
// variable length bytes
offset := 0
kv.RawTx = buf[:]
offset += len(buf)
}
type TouchedHashXKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
Height uint32 `json:"height"`
}
type TouchedHashXValue struct {
TouchedHashXs [][]byte `struct:"[][11]byte" struct-while:"!_eof" json:"touched_hashXs"`
}
func (kv *TouchedHashXKey) NumFields() int {
return 1
}
func (kv *TouchedHashXKey) PartialPack(fields int) []byte {
// b'>L'
n := len(kv.Prefix) + 4
buf := make([]byte, n)
offset := 0
offset += copy(buf[offset:], kv.Prefix[:1])
if fields <= 0 {
return buf[:offset]
}
binary.BigEndian.PutUint32(buf[offset:], kv.Height)
offset += 4
return buf[:offset]
}
func (kv *TouchedHashXKey) PackKey() []byte {
return kv.PartialPack(kv.NumFields())
}
func (kv *TouchedHashXKey) UnpackKey(buf []byte) {
// b'>L'
offset := 0
kv.Prefix = buf[offset : offset+1]
offset += 1
kv.Height = binary.BigEndian.Uint32(buf[offset:])
offset += 4
}
func (kv *TouchedHashXValue) PackValue() []byte {
// variable length bytes
n := len(kv.TouchedHashXs) * 11
buf := make([]byte, n)
offset := 0
for i := range kv.TouchedHashXs {
offset += copy(buf[offset:], kv.TouchedHashXs[i][:11])
}
return buf
}
func (kv *TouchedHashXValue) UnpackValue(buf []byte) {
// variable length bytes
n := len(buf)
kv.TouchedHashXs = make([][]byte, n/11)
for i, offset := 0, 0; offset+11 <= n; i, offset = i+1, offset+11 {
kv.TouchedHashXs[i] = buf[offset : offset+11]
}
}
type HashXStatusKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
HashX []byte `struct:"[11]byte" json:"hashX"`
}
type HashXStatusValue struct {
Status []byte `struct:"[32]byte" json:"status"`
}
func (kv *HashXStatusKey) NumFields() int {
return 1
}
func (kv *HashXStatusKey) PartialPack(fields int) []byte {
// b'>20s' (really HASHX_LEN 11 bytes)
n := len(kv.Prefix) + 11
buf := make([]byte, n)
offset := 0
offset += copy(buf[offset:], kv.Prefix[:1])
if fields <= 0 {
return buf[:offset]
}
offset += copy(buf[offset:], kv.HashX[:11])
return buf[:offset]
}
func (kv *HashXStatusKey) PackKey() []byte {
return kv.PartialPack(kv.NumFields())
}
func (kv *HashXStatusKey) UnpackKey(buf []byte) {
// b'>20s' (really HASHX_LEN 11 bytes)
offset := 0
kv.Prefix = buf[offset : offset+1]
offset += 1
kv.HashX = buf[offset : offset+11]
offset += 11
}
func (kv *HashXStatusValue) PackValue() []byte {
// b'32s'
n := 32
buf := make([]byte, n)
offset := 0
offset += copy(buf[offset:], kv.Status[:32])
return buf
}
func (kv *HashXStatusValue) UnpackValue(buf []byte) {
// b'32s'
offset := 0
kv.Status = buf[offset : offset+32]
offset += 32
}
type HashXMempoolStatusKey = HashXStatusKey
type HashXMempoolStatusValue = HashXStatusValue
type EffectiveAmountKey struct {
Prefix []byte `struct:"[1]byte" json:"prefix"`
ClaimHash []byte `struct:"[20]byte" json:"claim_hash"`
}
type EffectiveAmountValue struct {
ActivatedSum uint64 `json:"activated_sum"`
ActivatedSupportSum uint64 `json:"activated_support_sum"`
}
func (kv *EffectiveAmountKey) NumFields() int {
return 1
}
func (kv *EffectiveAmountKey) PartialPack(fields int) []byte {
// b'>20s'
n := len(kv.Prefix) + 20
buf := make([]byte, n)
offset := 0
offset += copy(buf[offset:], kv.Prefix[:1])
if fields <= 0 {
return buf[:offset]
}
offset += copy(buf[offset:], kv.ClaimHash[:20])
return buf[:offset]
}
func (kv *EffectiveAmountKey) PackKey() []byte {
return kv.PartialPack(kv.NumFields())
}
func (kv *EffectiveAmountKey) UnpackKey(buf []byte) {
// b'>20s'
offset := 0
kv.Prefix = buf[offset : offset+1]
offset += 1
kv.ClaimHash = buf[offset : offset+20]
offset += 20
}
func (kv *EffectiveAmountValue) PackValue() []byte {
// b'>QQ'
n := 8 + 8
buf := make([]byte, n)
offset := 0
binary.BigEndian.PutUint64(buf[offset:], kv.ActivatedSum)
offset += 8
binary.BigEndian.PutUint64(buf[offset:], kv.ActivatedSupportSum)
offset += 8
return buf[:offset]
}
func (kv *EffectiveAmountValue) UnpackValue(buf []byte) {
// b'>QQ'
offset := 0
kv.ActivatedSum = binary.BigEndian.Uint64(buf[offset:])
offset += 8
kv.ActivatedSupportSum = binary.BigEndian.Uint64(buf[offset:])
offset += 8
}
func UnpackGenericKey(key []byte) (BaseKey, error) {
if len(key) == 0 {
return nil, fmt.Errorf("key length zero")
}
// Look up the prefix metadata, and use the registered function(s)
// to create and unpack key of appropriate type.
t, ok := prefixRegistry[key[0]]
if !ok {
return nil, fmt.Errorf("unpack key function for %v not implemented", key[0])
}
if t.newKeyUnpack != nil {
// Type provides <Type>KeyUnpack() function.
return t.newKeyUnpack(key).(BaseKey), nil
}
if t.newKey != nil {
// Type provides a new<Type> function.
k := t.newKey()
unpacker, ok := k.(KeyUnpacker)
if ok {
unpacker.UnpackKey(key)
return unpacker.(BaseKey), nil
}
}
return nil, fmt.Errorf("unpack key function for %v not implemented", key[0])
}
func UnpackGenericValue(key, value []byte) (BaseValue, error) {
if len(key) == 0 {
return nil, fmt.Errorf("key length zero")
}
if len(value) == 0 {
return nil, fmt.Errorf("value length zero")
}
// Look up the prefix metadata, and use the registered function(s)
// to create and unpack value of appropriate type.
t, ok := prefixRegistry[key[0]]
if !ok {
return nil, fmt.Errorf("unpack value function for %v not implemented", key[0])
}
if t.newValueUnpack != nil {
// Type provides <Type>ValueUnpack() function.
return t.newValueUnpack(value).(BaseValue), nil
}
if t.newValue != nil {
// Type provides a new<Type> function.
k := t.newValue()
unpacker, ok := k.(ValueUnpacker)
if ok {
unpacker.UnpackValue(value)
return unpacker.(BaseValue), nil
}
}
return nil, fmt.Errorf("unpack key function for %v not implemented", key[0])
}
func PackPartialGenericKey(key BaseKey, fields int) ([]byte, error) {
if key == nil {
return nil, fmt.Errorf("key is nil")
}
return key.PartialPack(fields), nil
}
func PackGenericKey(key BaseKey) ([]byte, error) {
if key == nil {
return nil, fmt.Errorf("key is nil")
}
return key.PackKey(), nil
}
func PackGenericValue(value BaseValue) ([]byte, error) {
if value == nil {
return nil, fmt.Errorf("value is nil")
}
return value.PackValue(), nil
}
// Metadata associated with each prefix/table. Currently used to
// implement generic unpacking.
type prefixMeta struct {
newKey func() interface{}
newValue func() interface{}
newKeyUnpack func([]byte) interface{}
newValueUnpack func([]byte) interface{}
API *SerializationAPI
}
var prefixRegistry = map[byte]prefixMeta{
ClaimToSupport: {
newKey: func() interface{} {
return &ClaimToSupportKey{Prefix: []byte{ClaimToSupport}}
},
newValue: func() interface{} {
return &ClaimToSupportValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ClaimToSupportKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ClaimToSupportValueUnpack(buf)
},
},
SupportToClaim: {
newKey: func() interface{} {
return &SupportToClaimKey{Prefix: []byte{SupportToClaim}}
},
newValue: func() interface{} {
return &SupportToClaimValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return SupportToClaimKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return SupportToClaimValueUnpack(buf)
},
},
ClaimToTXO: {
newKey: func() interface{} {
return &ClaimToTXOKey{Prefix: []byte{ClaimToTXO}}
},
newValue: func() interface{} {
return &ClaimToTXOValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ClaimToTXOKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ClaimToTXOValueUnpack(buf)
},
},
TXOToClaim: {
newKey: func() interface{} {
return &TXOToClaimKey{Prefix: []byte{TXOToClaim}}
},
newValue: func() interface{} {
return &TXOToClaimValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return TXOToClaimKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return TXOToClaimValueUnpack(buf)
},
},
ClaimToChannel: {
newKey: func() interface{} {
return &ClaimToChannelKey{Prefix: []byte{ClaimToChannel}}
},
newValue: func() interface{} {
return &ClaimToChannelValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ClaimToChannelKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ClaimToChannelValueUnpack(buf)
},
},
ChannelToClaim: {
newKey: func() interface{} {
return &ChannelToClaimKey{Prefix: []byte{ChannelToClaim}}
},
newValue: func() interface{} {
return &ChannelToClaimValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ChannelToClaimKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ChannelToClaimValueUnpack(buf)
},
},
ClaimShortIdPrefix: {
newKey: func() interface{} {
return &ClaimShortIDKey{Prefix: []byte{ClaimShortIdPrefix}}
},
newValue: func() interface{} {
return &ClaimShortIDValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ClaimShortIDKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ClaimShortIDValueUnpack(buf)
},
},
BidOrder: {
newKey: func() interface{} {
return &BidOrderKey{Prefix: []byte{BidOrder}}
},
newValue: func() interface{} {
return &BidOrderValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return BidOrderKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return BidOrderValueUnpack(buf)
},
},
ClaimExpiration: {
newKey: func() interface{} {
return &ClaimExpirationKey{Prefix: []byte{ClaimExpiration}}
},
newValue: func() interface{} {
return &ClaimExpirationValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ClaimExpirationKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ClaimExpirationValueUnpack(buf)
},
},
ClaimTakeover: {
newKey: func() interface{} {
return &ClaimTakeoverKey{Prefix: []byte{ClaimTakeover}}
},
newValue: func() interface{} {
return &ClaimTakeoverValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ClaimTakeoverKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ClaimTakeoverValueUnpack(buf)
},
},
PendingActivation: {
newKey: func() interface{} {
return &PendingActivationKey{Prefix: []byte{PendingActivation}}
},
newValue: func() interface{} {
return &PendingActivationValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return PendingActivationKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return PendingActivationValueUnpack(buf)
},
},
ActivatedClaimAndSupport: {
newKey: func() interface{} {
return &ActivationKey{Prefix: []byte{ActivatedClaimAndSupport}}
},
newValue: func() interface{} {
return &ActivationValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ActivationKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ActivationValueUnpack(buf)
},
},
ActiveAmount: {
newKey: func() interface{} {
return &ActiveAmountKey{Prefix: []byte{ActiveAmount}}
},
newValue: func() interface{} {
return &ActiveAmountValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ActiveAmountKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ActiveAmountValueUnpack(buf)
},
},
Repost: {
newKey: func() interface{} {
return &RepostKey{Prefix: []byte{Repost}}
},
newValue: func() interface{} {
return &RepostValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return RepostKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return RepostValueUnpack(buf)
},
},
RepostedClaim: {
newKey: func() interface{} {
return &RepostedKey{Prefix: []byte{RepostedClaim}}
},
newValue: func() interface{} {
return &RepostedValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return RepostedKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return RepostedValueUnpack(buf)
},
},
Undo: {
newKey: func() interface{} {
return &UndoKey{Prefix: []byte{Undo}}
},
newValue: func() interface{} {
return &UndoValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return UndoKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return UndoValueUnpack(buf)
},
},
ClaimDiff: {
newKey: func() interface{} {
return &TouchedOrDeletedClaimKey{Prefix: []byte{ClaimDiff}}
},
newValue: func() interface{} {
return &TouchedOrDeletedClaimValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return TouchedOrDeletedClaimKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return TouchedOrDeletedClaimValueUnpack(buf)
},
},
Tx: {
newKey: func() interface{} {
return &TxKey{Prefix: []byte{Tx}}
},
newValue: func() interface{} {
return &TxValue{}
},
},
BlockHash: {
newKey: func() interface{} {
return &BlockHashKey{Prefix: []byte{BlockHash}}
},
newValue: func() interface{} {
return &BlockHashValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return BlockHashKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return BlockHashValueUnpack(buf)
},
},
Header: {
newKey: func() interface{} {
return &BlockHeaderKey{Prefix: []byte{Header}}
},
newValue: func() interface{} {
return &BlockHeaderValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return BlockHeaderKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return BlockHeaderValueUnpack(buf)
},
},
TxNum: {
newKey: func() interface{} {
return &TxNumKey{Prefix: []byte{TxNum}}
},
newValue: func() interface{} {
return &TxNumValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return TxNumKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return TxNumValueUnpack(buf)
},
},
TxCount: {
newKey: func() interface{} {
return &TxCountKey{Prefix: []byte{TxCount}}
},
newValue: func() interface{} {
return &TxCountValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return TxCountKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return TxCountValueUnpack(buf)
},
},
TxHash: {
newKey: func() interface{} {
return &TxHashKey{Prefix: []byte{TxHash}}
},
newValue: func() interface{} {
return &TxHashValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return TxHashKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return TxHashValueUnpack(buf)
},
},
UTXO: {
newKey: func() interface{} {
return &UTXOKey{Prefix: []byte{UTXO}}
},
newValue: func() interface{} {
return &UTXOValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return UTXOKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return UTXOValueUnpack(buf)
},
},
HashXUTXO: {
newKey: func() interface{} {
return &HashXUTXOKey{Prefix: []byte{HashXUTXO}}
},
newValue: func() interface{} {
return &HashXUTXOValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return HashXUTXOKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return HashXUTXOValueUnpack(buf)
},
},
HashXHistory: {
newKey: func() interface{} {
return &HashXHistoryKey{Prefix: []byte{HashXHistory}}
},
newValue: func() interface{} {
return &HashXHistoryValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return HashXHistoryKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return HashXHistoryValueUnpack(buf)
},
},
DBState: {
newKey: func() interface{} {
return &DBStateKey{Prefix: []byte{DBState}}
},
newValue: func() interface{} {
return &DBStateValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return DBStateKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return DBStateValueUnpack(buf)
},
},
ChannelCount: {
newKey: func() interface{} {
return &ChannelCountKey{Prefix: []byte{ChannelCount}}
},
newValue: func() interface{} {
return &ChannelCountValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return ChannelCountKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return ChannelCountValueUnpack(buf)
},
},
SupportAmount: {
newKey: func() interface{} {
return &SupportAmountKey{Prefix: []byte{SupportAmount}}
},
newValue: func() interface{} {
return &SupportAmountValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return SupportAmountKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return SupportAmountValueUnpack(buf)
},
},
BlockTXs: {
newKey: func() interface{} {
return &BlockTxsKey{Prefix: []byte{BlockTXs}}
},
newValue: func() interface{} {
return &BlockTxsValue{}
},
newKeyUnpack: func(buf []byte) interface{} {
return BlockTxsKeyUnpack(buf)
},
newValueUnpack: func(buf []byte) interface{} {
return BlockTxsValueUnpack(buf)
},
},
TrendingNotifications: {
newKey: func() interface{} {
return &TrendingNotificationKey{Prefix: []byte{TrendingNotifications}}
},
newValue: func() interface{} {
return &TrendingNotificationValue{}
},
},
MempoolTx: {
newKey: func() interface{} {
return &MempoolTxKey{Prefix: []byte{MempoolTx}}
},
newValue: func() interface{} {
return &MempoolTxValue{}
},
},
TouchedHashX: {
newKey: func() interface{} {
return &TouchedHashXKey{Prefix: []byte{TouchedHashX}}
},
newValue: func() interface{} {
return &TouchedHashXValue{}
},
},
HashXStatus: {
newKey: func() interface{} {
return &HashXStatusKey{Prefix: []byte{HashXStatus}}
},
newValue: func() interface{} {
return &HashXStatusValue{}
},
},
HashXMempoolStatus: {
newKey: func() interface{} {
return &HashXMempoolStatusKey{Prefix: []byte{HashXMempoolStatus}}
},
newValue: func() interface{} {
return &HashXMempoolStatusValue{}
},
},
RepostedCount: {
newKey: func() interface{} {
return &RepostedCountKey{Prefix: []byte{RepostedCount}}
},
newValue: func() interface{} {
return &RepostedCountValue{}
},
},
EffectiveAmount: {
newKey: func() interface{} {
return &EffectiveAmountKey{Prefix: []byte{EffectiveAmount}}
},
newValue: func() interface{} {
return &EffectiveAmountValue{}
},
},
}
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