// load the content of the "balance/" folder
func load_balance(showbalance bool) {
var unknownInputs, multisigInputs int
f, e := os.Open("balance/unspent.txt")
if e != nil {
println(e.Error())
return
}
rd := bufio.NewReader(f)
for {
l, _, e := rd.ReadLine()
if len(l) == 0 && e != nil {
break
}
if l[64] == '-' {
txid := btc.NewUint256FromString(string(l[:64]))
rst := strings.SplitN(string(l[65:]), " ", 2)
vout, _ := strconv.ParseUint(rst[0], 10, 32)
uns := new(btc.TxPrevOut)
copy(uns.Hash[:], txid.Hash[:])
uns.Vout = uint32(vout)
lab := ""
if len(rst) > 1 {
lab = rst[1]
}
str := string(l)
if sti := strings.Index(str, "_StealthC:"); sti != -1 {
c, e := hex.DecodeString(str[sti+10 : sti+10+64])
if e != nil {
fmt.Println("ERROR at stealth", txid.String(), vout, e.Error())
} else {
// add a new key to the wallet
sec := btc.DeriveNextPrivate(first_seed[:], c)
is_stealth[len(priv_keys)] = true
priv_keys = append(priv_keys, sec)
labels = append(labels, lab)
pub_key := btc.PublicFromPrivate(sec, true)
publ_addrs = append(publ_addrs, btc.NewAddrFromPubkey(pub_key, btc.AddrVerPubkey(*testnet)))
compressed_key = append(compressed_key, true) // stealth keys are always compressed
}
}
if _, ok := loadedTxs[txid.Hash]; !ok {
tf, _ := os.Open("balance/" + txid.String() + ".tx")
if tf != nil {
siz, _ := tf.Seek(0, os.SEEK_END)
tf.Seek(0, os.SEEK_SET)
buf := make([]byte, siz)
tf.Read(buf)
tf.Close()
th := btc.Sha2Sum(buf)
if bytes.Equal(th[:], txid.Hash[:]) {
tx, _ := btc.NewTx(buf)
if tx != nil {
loadedTxs[txid.Hash] = tx
} else {
println("transaction is corrupt:", txid.String())
}
} else {
println("transaction file is corrupt:", txid.String())
os.Exit(1)
}
} else {
println("transaction file not found:", txid.String())
os.Exit(1)
}
}
// Sum up all the balance and check if we have private key for this input
uo := UO(uns)
add_it := true
if !btc.IsP2SH(uo.Pk_script) {
fnd := false
for j := range publ_addrs {
if publ_addrs[j].Owns(uo.Pk_script) {
fnd = true
break
}
}
if !fnd {
if *onlvalid {
add_it = false
}
if showbalance {
unknownInputs++
if *verbose {
ss := uns.String()
ss = ss[:8] + "..." + ss[len(ss)-12:]
fmt.Println(ss, "does not belong to your wallet (cannot sign it)")
}
}
}
} else {
if *onlvalid {
add_it = false
}
if *verbose {
ss := uns.String()
ss = ss[:8] + "..." + ss[len(ss)-12:]
fmt.Println(ss, "belongs to a multisig address")
}
multisigInputs++
}
if add_it {
unspentOuts = append(unspentOuts, uns)
unspentOutsLabel = append(unspentOutsLabel, lab)
totBtc += UO(uns).Value
}
}
}
f.Close()
fmt.Printf("You have %.8f BTC in %d unspent outputs. %d inputs are multisig type\n",
float64(totBtc)/1e8, len(unspentOuts), multisigInputs)
if showbalance {
if unknownInputs > 0 {
fmt.Printf("WARNING: Some inputs (%d) cannot be spent with this password (-v to print them)\n", unknownInputs)
}
}
}
// Get the secret seed and generate "*keycnt" key pairs (both private and public)
func make_wallet() {
var lab string
if *testnet {
verbyte = 0x6f
privver = 0xef
} else {
// verbyte is be zero by definition
privver = 0x80
}
load_others()
pass := getpass()
seed_key := make([]byte, 32)
btc.ShaHash([]byte(pass), seed_key)
if *waltype == 3 {
lab = "TypC"
} else if *waltype == 2 {
if *type2sec != "" {
d, e := hex.DecodeString(*type2sec)
if e != nil {
println("t2sec error:", e.Error())
os.Exit(1)
}
type2_secret = new(big.Int).SetBytes(d)
} else {
var buf [32]byte
btc.ShaHash([]byte(pass+pass), buf[:])
type2_secret = new(big.Int).SetBytes(buf[:])
}
lab = "TypB"
} else {
lab = "TypA"
}
if pass != "" {
if *verbose {
fmt.Println("Generating", *keycnt, "keys, version", verbyte, "...")
}
for i := uint(0); i < *keycnt; {
prv_key := make([]byte, 32)
if *waltype == 3 {
btc.ShaHash(seed_key, prv_key)
seed_key = append(seed_key, byte(i))
} else if *waltype == 2 {
seed_key = btc.DeriveNextPrivate(new(big.Int).SetBytes(seed_key), type2_secret).Bytes()
copy(prv_key, seed_key)
} else {
btc.ShaHash(seed_key, prv_key)
copy(seed_key, prv_key)
}
priv_keys = append(priv_keys, prv_key)
pub, er := btc.PublicFromPrivate(prv_key, !*uncompressed)
if er == nil {
publ_addrs = append(publ_addrs, btc.NewAddrFromPubkey(pub, verbyte))
labels = append(labels, fmt.Sprint(lab, " ", i+1))
i++
} else {
println("PublicFromPrivate:", er.Error())
}
}
if *verbose {
fmt.Println("Private keys re-generated")
}
}
}
// Get the secret seed and generate "*keycnt" key pairs (both private and public)
func make_wallet() {
var lab string
if *testnet {
verbyte = 0x6f
privver = 0xef
} else {
// verbyte is be zero by definition
privver = 0x80
}
load_others()
seed_key := make([]byte, 32)
if !getseed(seed_key) {
os.Exit(0)
}
defer func() {
utils.ClearBuffer(seed_key)
}()
if *waltype == 3 {
lab = "TypC"
} else if *waltype == 2 {
if *type2sec != "" {
d, e := hex.DecodeString(*type2sec)
if e != nil {
println("t2sec error:", e.Error())
os.Exit(1)
}
type2_secret = d
} else {
type2_secret = make([]byte, 20)
btc.RimpHash(seed_key, type2_secret)
}
lab = "TypB"
} else {
lab = "TypA"
}
if *verbose {
fmt.Println("Generating", *keycnt, "keys, version", verbyte, "...")
}
for i := uint(0); i < *keycnt; {
prv_key := make([]byte, 32)
if *waltype == 3 {
btc.ShaHash(seed_key, prv_key)
seed_key = append(seed_key, byte(i))
} else if *waltype == 2 {
seed_key = btc.DeriveNextPrivate(seed_key, type2_secret)
copy(prv_key, seed_key)
} else {
btc.ShaHash(seed_key, prv_key)
copy(seed_key, prv_key)
}
priv_keys = append(priv_keys, prv_key)
if *scankey != "" {
new_stealth_address(prv_key)
return
}
// for stealth keys
if i == 0 {
copy(first_seed[:], prv_key)
}
compressed_key = append(compressed_key, !*uncompressed)
pub := btc.PublicFromPrivate(prv_key, !*uncompressed)
if pub != nil {
adr := btc.NewAddrFromPubkey(pub, verbyte)
if *pubkey != "" && *pubkey == adr.String() {
fmt.Println(adr.String(), "=>", hex.EncodeToString(pub))
return
}
publ_addrs = append(publ_addrs, adr)
labels = append(labels, fmt.Sprint(lab, " ", i+1))
i++
} else {
println("PublicFromPrivate error 3")
}
}
if *verbose {
fmt.Println("Private keys re-generated")
}
}