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#!/usr/bin/env python

#-*- coding: utf-8 -*-

pywversion="2.2"

never_update=False

# jackjack's pywallet.py

# https://github.com/jackjack-jj/pywallet

# forked from Joric's pywallet.py

beta_version = ('a' in pywversion.split('-')[0]) or ('b' in pywversion.split('-')[0])

missing_dep = []

try:

from bsddb.db import *

except:

try:

from bsddb3.db import *

except:

missing_dep.append('bsddb')

import os, sys, time, re

pyw_filename = os.path.basename(__file__)

pyw_path = os.path.dirname(os.path.realpath(__file__))

try:

for i in os.listdir('/usr/lib/python2.5/site-packages'):

if 'Twisted' in i:

sys.path.append('/usr/lib/python2.5/site-packages/'+i)

except:

try:

import json

except:

try:

import simplejson as json

except:

print("Json or simplejson package is needed")

import logging

import struct

import StringIO

import traceback

import socket

import types

import string

import exceptions

import hashlib

import random

import urllib

import math

try:

from twisted.internet import reactor

from twisted.web import server, resource

from twisted.web.static import File

from twisted.python import log

except:

missing_dep.append('twisted')

from datetime import datetime

from subprocess import *

import os

import os.path

import platform

max_version = 81000

addrtype = 0

json_db = {}

private_keys = []

private_hex_keys = []

passphrase = ""

global_merging_message = ["",""]

balance_site = 'https://blockchain.info/q/addressbalance/'

aversions = {};

for i in range(256):

aversions[i] = "version %d" % i;

aversions[0] = 'Bitcoin';

aversions[48] = 'Litecoin';

aversions[52] = 'Namecoin';

aversions[111] = 'Testnet';

wallet_dir = ""

wallet_name = ""

ko = 1e3

kio = 1024

Mo = 1e6

Mio = 1024 ** 2

Go = 1e9

Gio = 1024 ** 3

To = 1e12

Tio = 1024 ** 4

prekeys = ["308201130201010420".decode('hex'), "308201120201010420".decode('hex')]

postkeys = ["a081a530".decode('hex'), "81a530".decode('hex')]

def iais(a):

if a>= 2:

return 's'

else:

return ''

def systype():

if platform.system() == "Darwin":

return 'Mac'

elif platform.system() == "Windows":

return 'Win'

return 'Linux'

def determine_db_dir():

if wallet_dir in "":

if platform.system() == "Darwin":

return os.path.expanduser("~/Library/Application Support/Bitcoin/")

elif platform.system() == "Windows":

return os.path.join(os.environ['APPDATA'], "Bitcoin")

return os.path.expanduser("~/.bitcoin")

else:

return wallet_dir

def determine_db_name():

if wallet_name in "":

return "wallet.dat"

else:

return wallet_name

########################

# begin of aes.py code #

########################

# from the SlowAES project, http://code.google.com/p/slowaes (aes.py)

def append_PKCS7_padding(s):

"""return s padded to a multiple of 16-bytes by PKCS7 padding"""

numpads = 16 - (len(s)%16)

return s + numpads*chr(numpads)

def strip_PKCS7_padding(s):

"""return s stripped of PKCS7 padding"""

if len(s)%16 or not s:

raise ValueError("String of len %d can't be PCKS7-padded" % len(s))

numpads = ord(s[-1])

if numpads > 16:

raise ValueError("String ending with %r can't be PCKS7-padded" % s[-1])

return s[:-numpads]

class AES(object):

# valid key sizes

keySize = dict(SIZE_128=16, SIZE_192=24, SIZE_256=32)

# Rijndael S-box

sbox = [0x63, 0x7c, 0x77, 0x7b, 0xf2, 0x6b, 0x6f, 0xc5, 0x30, 0x01, 0x67,

0x2b, 0xfe, 0xd7, 0xab, 0x76, 0xca, 0x82, 0xc9, 0x7d, 0xfa, 0x59,

0x47, 0xf0, 0xad, 0xd4, 0xa2, 0xaf, 0x9c, 0xa4, 0x72, 0xc0, 0xb7,

0xfd, 0x93, 0x26, 0x36, 0x3f, 0xf7, 0xcc, 0x34, 0xa5, 0xe5, 0xf1,

0x71, 0xd8, 0x31, 0x15, 0x04, 0xc7, 0x23, 0xc3, 0x18, 0x96, 0x05,

0x9a, 0x07, 0x12, 0x80, 0xe2, 0xeb, 0x27, 0xb2, 0x75, 0x09, 0x83,

0x2c, 0x1a, 0x1b, 0x6e, 0x5a, 0xa0, 0x52, 0x3b, 0xd6, 0xb3, 0x29,

0xe3, 0x2f, 0x84, 0x53, 0xd1, 0x00, 0xed, 0x20, 0xfc, 0xb1, 0x5b,

0x6a, 0xcb, 0xbe, 0x39, 0x4a, 0x4c, 0x58, 0xcf, 0xd0, 0xef, 0xaa,

0xfb, 0x43, 0x4d, 0x33, 0x85, 0x45, 0xf9, 0x02, 0x7f, 0x50, 0x3c,

0x9f, 0xa8, 0x51, 0xa3, 0x40, 0x8f, 0x92, 0x9d, 0x38, 0xf5, 0xbc,

0xb6, 0xda, 0x21, 0x10, 0xff, 0xf3, 0xd2, 0xcd, 0x0c, 0x13, 0xec,

0x5f, 0x97, 0x44, 0x17, 0xc4, 0xa7, 0x7e, 0x3d, 0x64, 0x5d, 0x19,

0x73, 0x60, 0x81, 0x4f, 0xdc, 0x22, 0x2a, 0x90, 0x88, 0x46, 0xee,

0xb8, 0x14, 0xde, 0x5e, 0x0b, 0xdb, 0xe0, 0x32, 0x3a, 0x0a, 0x49,

0x06, 0x24, 0x5c, 0xc2, 0xd3, 0xac, 0x62, 0x91, 0x95, 0xe4, 0x79,

0xe7, 0xc8, 0x37, 0x6d, 0x8d, 0xd5, 0x4e, 0xa9, 0x6c, 0x56, 0xf4,

0xea, 0x65, 0x7a, 0xae, 0x08, 0xba, 0x78, 0x25, 0x2e, 0x1c, 0xa6,

0xb4, 0xc6, 0xe8, 0xdd, 0x74, 0x1f, 0x4b, 0xbd, 0x8b, 0x8a, 0x70,

0x3e, 0xb5, 0x66, 0x48, 0x03, 0xf6, 0x0e, 0x61, 0x35, 0x57, 0xb9,

0x86, 0xc1, 0x1d, 0x9e, 0xe1, 0xf8, 0x98, 0x11, 0x69, 0xd9, 0x8e,

0x94, 0x9b, 0x1e, 0x87, 0xe9, 0xce, 0x55, 0x28, 0xdf, 0x8c, 0xa1,

0x89, 0x0d, 0xbf, 0xe6, 0x42, 0x68, 0x41, 0x99, 0x2d, 0x0f, 0xb0,

0x54, 0xbb, 0x16]

# Rijndael Inverted S-box

rsbox = [0x52, 0x09, 0x6a, 0xd5, 0x30, 0x36, 0xa5, 0x38, 0xbf, 0x40, 0xa3,

0x9e, 0x81, 0xf3, 0xd7, 0xfb , 0x7c, 0xe3, 0x39, 0x82, 0x9b, 0x2f,

0xff, 0x87, 0x34, 0x8e, 0x43, 0x44, 0xc4, 0xde, 0xe9, 0xcb , 0x54,

0x7b, 0x94, 0x32, 0xa6, 0xc2, 0x23, 0x3d, 0xee, 0x4c, 0x95, 0x0b,

0x42, 0xfa, 0xc3, 0x4e , 0x08, 0x2e, 0xa1, 0x66, 0x28, 0xd9, 0x24,

0xb2, 0x76, 0x5b, 0xa2, 0x49, 0x6d, 0x8b, 0xd1, 0x25 , 0x72, 0xf8,

0xf6, 0x64, 0x86, 0x68, 0x98, 0x16, 0xd4, 0xa4, 0x5c, 0xcc, 0x5d,

0x65, 0xb6, 0x92 , 0x6c, 0x70, 0x48, 0x50, 0xfd, 0xed, 0xb9, 0xda,

0x5e, 0x15, 0x46, 0x57, 0xa7, 0x8d, 0x9d, 0x84 , 0x90, 0xd8, 0xab,

0x00, 0x8c, 0xbc, 0xd3, 0x0a, 0xf7, 0xe4, 0x58, 0x05, 0xb8, 0xb3,

0x45, 0x06 , 0xd0, 0x2c, 0x1e, 0x8f, 0xca, 0x3f, 0x0f, 0x02, 0xc1,

0xaf, 0xbd, 0x03, 0x01, 0x13, 0x8a, 0x6b , 0x3a, 0x91, 0x11, 0x41,

0x4f, 0x67, 0xdc, 0xea, 0x97, 0xf2, 0xcf, 0xce, 0xf0, 0xb4, 0xe6,

0x73 , 0x96, 0xac, 0x74, 0x22, 0xe7, 0xad, 0x35, 0x85, 0xe2, 0xf9,

0x37, 0xe8, 0x1c, 0x75, 0xdf, 0x6e , 0x47, 0xf1, 0x1a, 0x71, 0x1d,

0x29, 0xc5, 0x89, 0x6f, 0xb7, 0x62, 0x0e, 0xaa, 0x18, 0xbe, 0x1b ,

0xfc, 0x56, 0x3e, 0x4b, 0xc6, 0xd2, 0x79, 0x20, 0x9a, 0xdb, 0xc0,

0xfe, 0x78, 0xcd, 0x5a, 0xf4 , 0x1f, 0xdd, 0xa8, 0x33, 0x88, 0x07,

0xc7, 0x31, 0xb1, 0x12, 0x10, 0x59, 0x27, 0x80, 0xec, 0x5f , 0x60,

0x51, 0x7f, 0xa9, 0x19, 0xb5, 0x4a, 0x0d, 0x2d, 0xe5, 0x7a, 0x9f,

0x93, 0xc9, 0x9c, 0xef , 0xa0, 0xe0, 0x3b, 0x4d, 0xae, 0x2a, 0xf5,

0xb0, 0xc8, 0xeb, 0xbb, 0x3c, 0x83, 0x53, 0x99, 0x61 , 0x17, 0x2b,

0x04, 0x7e, 0xba, 0x77, 0xd6, 0x26, 0xe1, 0x69, 0x14, 0x63, 0x55,

0x21, 0x0c, 0x7d]

def getSBoxValue(self,num):

"""Retrieves a given S-Box Value"""

return self.sbox[num]

def getSBoxInvert(self,num):

"""Retrieves a given Inverted S-Box Value"""

return self.rsbox[num]

def rotate(self, word):

""" Rijndael's key schedule rotate operation.

Rotate a word eight bits to the left: eg, rotate(1d2c3a4f) == 2c3a4f1d

Word is an char list of size 4 (32 bits overall).

"""

return word[1:] + word[:1]

# Rijndael Rcon

Rcon = [0x8d, 0x01, 0x02, 0x04, 0x08, 0x10, 0x20, 0x40, 0x80, 0x1b, 0x36,

0x6c, 0xd8, 0xab, 0x4d, 0x9a, 0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97,

0x35, 0x6a, 0xd4, 0xb3, 0x7d, 0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72,

0xe4, 0xd3, 0xbd, 0x61, 0xc2, 0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66,

0xcc, 0x83, 0x1d, 0x3a, 0x74, 0xe8, 0xcb, 0x8d, 0x01, 0x02, 0x04,

0x08, 0x10, 0x20, 0x40, 0x80, 0x1b, 0x36, 0x6c, 0xd8, 0xab, 0x4d,

0x9a, 0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97, 0x35, 0x6a, 0xd4, 0xb3,

0x7d, 0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72, 0xe4, 0xd3, 0xbd, 0x61,

0xc2, 0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66, 0xcc, 0x83, 0x1d, 0x3a,

0x74, 0xe8, 0xcb, 0x8d, 0x01, 0x02, 0x04, 0x08, 0x10, 0x20, 0x40,

0x80, 0x1b, 0x36, 0x6c, 0xd8, 0xab, 0x4d, 0x9a, 0x2f, 0x5e, 0xbc,

0x63, 0xc6, 0x97, 0x35, 0x6a, 0xd4, 0xb3, 0x7d, 0xfa, 0xef, 0xc5,

0x91, 0x39, 0x72, 0xe4, 0xd3, 0xbd, 0x61, 0xc2, 0x9f, 0x25, 0x4a,

0x94, 0x33, 0x66, 0xcc, 0x83, 0x1d, 0x3a, 0x74, 0xe8, 0xcb, 0x8d,

0x01, 0x02, 0x04, 0x08, 0x10, 0x20, 0x40, 0x80, 0x1b, 0x36, 0x6c,

0xd8, 0xab, 0x4d, 0x9a, 0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97, 0x35,

0x6a, 0xd4, 0xb3, 0x7d, 0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72, 0xe4,

0xd3, 0xbd, 0x61, 0xc2, 0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66, 0xcc,

0x83, 0x1d, 0x3a, 0x74, 0xe8, 0xcb, 0x8d, 0x01, 0x02, 0x04, 0x08,

0x10, 0x20, 0x40, 0x80, 0x1b, 0x36, 0x6c, 0xd8, 0xab, 0x4d, 0x9a,

0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97, 0x35, 0x6a, 0xd4, 0xb3, 0x7d,

0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72, 0xe4, 0xd3, 0xbd, 0x61, 0xc2,

0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66, 0xcc, 0x83, 0x1d, 0x3a, 0x74,

0xe8, 0xcb ]

def getRconValue(self, num):

"""Retrieves a given Rcon Value"""

return self.Rcon[num]

def core(self, word, iteration):

"""Key schedule core."""

# rotate the 32-bit word 8 bits to the left

word = self.rotate(word)

# apply S-Box substitution on all 4 parts of the 32-bit word

for i in range(4):

word[i] = self.getSBoxValue(word[i])

# XOR the output of the rcon operation with i to the first part

# (leftmost) only

word[0] = word[0] ^ self.getRconValue(iteration)

return word

def expandKey(self, key, size, expandedKeySize):

"""Rijndael's key expansion.

Expands an 128,192,256 key into an 176,208,240 bytes key

expandedKey is a char list of large enough size,

key is the non-expanded key.

"""

# current expanded keySize, in bytes

currentSize = 0

rconIteration = 1

expandedKey = [0] * expandedKeySize

# set the 16, 24, 32 bytes of the expanded key to the input key

for j in range(size):

expandedKey[j] = key[j]

currentSize += size

while currentSize < expandedKeySize:

# assign the previous 4 bytes to the temporary value t

t = expandedKey[currentSize-4:currentSize]

# every 16,24,32 bytes we apply the core schedule to t

# and increment rconIteration afterwards

if currentSize % size == 0:

t = self.core(t, rconIteration)

rconIteration += 1

# For 256-bit keys, we add an extra sbox to the calculation

if size == self.keySize["SIZE_256"] and ((currentSize % size) == 16):

for l in range(4): t[l] = self.getSBoxValue(t[l])

# We XOR t with the four-byte block 16,24,32 bytes before the new

# expanded key. This becomes the next four bytes in the expanded

# key.

for m in range(4):

expandedKey[currentSize] = expandedKey[currentSize - size] ^ \

t[m]

currentSize += 1

return expandedKey

def addRoundKey(self, state, roundKey):

"""Adds (XORs) the round key to the state."""

for i in range(16):

state[i] ^= roundKey[i]

return state

def createRoundKey(self, expandedKey, roundKeyPointer):

"""Create a round key.

Creates a round key from the given expanded key and the

position within the expanded key.

"""

roundKey = [0] * 16

for i in range(4):

for j in range(4):

roundKey[j*4+i] = expandedKey[roundKeyPointer + i*4 + j]

return roundKey

def galois_multiplication(self, a, b):

"""Galois multiplication of 8 bit characters a and b."""

p = 0

for counter in range(8):

if b & 1: p ^= a

hi_bit_set = a & 0x80

a <<= 1

# keep a 8 bit

a &= 0xFF

if hi_bit_set:

a ^= 0x1b

b >>= 1

return p

# substitute all the values from the state with the value in the SBox

# using the state value as index for the SBox

def subBytes(self, state, isInv):

if isInv: getter = self.getSBoxInvert

else: getter = self.getSBoxValue

for i in range(16): state[i] = getter(state[i])

return state

# iterate over the 4 rows and call shiftRow() with that row

def shiftRows(self, state, isInv):

for i in range(4):

state = self.shiftRow(state, i*4, i, isInv)

return state

# each iteration shifts the row to the left by 1

def shiftRow(self, state, statePointer, nbr, isInv):

for i in range(nbr):

if isInv:

state[statePointer:statePointer+4] = \

state[statePointer+3:statePointer+4] + \

state[statePointer:statePointer+3]

else:

state[statePointer:statePointer+4] = \

state[statePointer+1:statePointer+4] + \

state[statePointer:statePointer+1]

return state

# galois multiplication of the 4x4 matrix

def mixColumns(self, state, isInv):

# iterate over the 4 columns

for i in range(4):

# construct one column by slicing over the 4 rows

column = state[i:i+16:4]

# apply the mixColumn on one column

column = self.mixColumn(column, isInv)

# put the values back into the state

state[i:i+16:4] = column

return state

# galois multiplication of 1 column of the 4x4 matrix

def mixColumn(self, column, isInv):

if isInv: mult = [14, 9, 13, 11]

else: mult = [2, 1, 1, 3]

cpy = list(column)

g = self.galois_multiplication

column[0] = g(cpy[0], mult[0]) ^ g(cpy[3], mult[1]) ^ \

g(cpy[2], mult[2]) ^ g(cpy[1], mult[3])

column[1] = g(cpy[1], mult[0]) ^ g(cpy[0], mult[1]) ^ \

g(cpy[3], mult[2]) ^ g(cpy[2], mult[3])

column[2] = g(cpy[2], mult[0]) ^ g(cpy[1], mult[1]) ^ \

g(cpy[0], mult[2]) ^ g(cpy[3], mult[3])

column[3] = g(cpy[3], mult[0]) ^ g(cpy[2], mult[1]) ^ \

g(cpy[1], mult[2]) ^ g(cpy[0], mult[3])

return column

# applies the 4 operations of the forward round in sequence

def aes_round(self, state, roundKey):

state = self.subBytes(state, False)

state = self.shiftRows(state, False)

state = self.mixColumns(state, False)

state = self.addRoundKey(state, roundKey)

return state

# applies the 4 operations of the inverse round in sequence

def aes_invRound(self, state, roundKey):

state = self.shiftRows(state, True)

state = self.subBytes(state, True)

state = self.addRoundKey(state, roundKey)

state = self.mixColumns(state, True)

return state

# Perform the initial operations, the standard round, and the final

# operations of the forward aes, creating a round key for each round

def aes_main(self, state, expandedKey, nbrRounds):

state = self.addRoundKey(state, self.createRoundKey(expandedKey, 0))

i = 1

while i < nbrRounds:

state = self.aes_round(state,

self.createRoundKey(expandedKey, 16*i))

i += 1

state = self.subBytes(state, False)

state = self.shiftRows(state, False)

state = self.addRoundKey(state,

self.createRoundKey(expandedKey, 16*nbrRounds))

return state

# Perform the initial operations, the standard round, and the final

# operations of the inverse aes, creating a round key for each round

def aes_invMain(self, state, expandedKey, nbrRounds):

state = self.addRoundKey(state,

self.createRoundKey(expandedKey, 16*nbrRounds))

i = nbrRounds - 1

while i > 0:

state = self.aes_invRound(state,

self.createRoundKey(expandedKey, 16*i))

i -= 1

state = self.shiftRows(state, True)

state = self.subBytes(state, True)

state = self.addRoundKey(state, self.createRoundKey(expandedKey, 0))

return state

# encrypts a 128 bit input block against the given key of size specified

def encrypt(self, iput, key, size):

output = [0] * 16

# the number of rounds

nbrRounds = 0

# the 128 bit block to encode

block = [0] * 16

# set the number of rounds

if size == self.keySize["SIZE_128"]: nbrRounds = 10

elif size == self.keySize["SIZE_192"]: nbrRounds = 12

elif size == self.keySize["SIZE_256"]: nbrRounds = 14

else: return None

# the expanded keySize

expandedKeySize = 16*(nbrRounds+1)

# Set the block values, for the block:

# a0,0 a0,1 a0,2 a0,3

# a1,0 a1,1 a1,2 a1,3

# a2,0 a2,1 a2,2 a2,3

# a3,0 a3,1 a3,2 a3,3

# the mapping order is a0,0 a1,0 a2,0 a3,0 a0,1 a1,1 ... a2,3 a3,3

# iterate over the columns

for i in range(4):

# iterate over the rows

for j in range(4):

block[(i+(j*4))] = iput[(i*4)+j]

# expand the key into an 176, 208, 240 bytes key

# the expanded key

expandedKey = self.expandKey(key, size, expandedKeySize)

# encrypt the block using the expandedKey

block = self.aes_main(block, expandedKey, nbrRounds)

# unmap the block again into the output

for k in range(4):

# iterate over the rows

for l in range(4):

output[(k*4)+l] = block[(k+(l*4))]

return output

# decrypts a 128 bit input block against the given key of size specified

def decrypt(self, iput, key, size):

output = [0] * 16

# the number of rounds

nbrRounds = 0

# the 128 bit block to decode

block = [0] * 16

# set the number of rounds

if size == self.keySize["SIZE_128"]: nbrRounds = 10

elif size == self.keySize["SIZE_192"]: nbrRounds = 12

elif size == self.keySize["SIZE_256"]: nbrRounds = 14

else: return None

# the expanded keySize

expandedKeySize = 16*(nbrRounds+1)

# Set the block values, for the block:

# a0,0 a0,1 a0,2 a0,3

# a1,0 a1,1 a1,2 a1,3

# a2,0 a2,1 a2,2 a2,3

# a3,0 a3,1 a3,2 a3,3

# the mapping order is a0,0 a1,0 a2,0 a3,0 a0,1 a1,1 ... a2,3 a3,3

# iterate over the columns

for i in range(4):

# iterate over the rows

for j in range(4):

block[(i+(j*4))] = iput[(i*4)+j]

# expand the key into an 176, 208, 240 bytes key

expandedKey = self.expandKey(key, size, expandedKeySize)

# decrypt the block using the expandedKey

block = self.aes_invMain(block, expandedKey, nbrRounds)

# unmap the block again into the output

for k in range(4):

# iterate over the rows

for l in range(4):

output[(k*4)+l] = block[(k+(l*4))]

return output

class AESModeOfOperation(object):

aes = AES()

# structure of supported modes of operation

modeOfOperation = dict(OFB=0, CFB=1, CBC=2)

# converts a 16 character string into a number array

def convertString(self, string, start, end, mode):

if end - start > 16: end = start + 16

if mode == self.modeOfOperation["CBC"]: ar = [0] * 16

else: ar = []

i = start

j = 0

while len(ar) < end - start:

ar.append(0)

while i < end:

ar[j] = ord(string[i])

j += 1

i += 1

return ar

# Mode of Operation Encryption

# stringIn - Input String

# mode - mode of type modeOfOperation

# hexKey - a hex key of the bit length size

# size - the bit length of the key

# hexIV - the 128 bit hex Initilization Vector

def encrypt(self, stringIn, mode, key, size, IV):

if len(key) % size:

return None

if len(IV) % 16:

return None

# the AES input/output

plaintext = []

iput = [0] * 16

output = []

ciphertext = [0] * 16

# the output cipher string

cipherOut = []

# char firstRound

firstRound = True

if stringIn != None:

for j in range(int(math.ceil(float(len(stringIn))/16))):

start = j*16

end = j*16+16

if end > len(stringIn):

end = len(stringIn)

plaintext = self.convertString(stringIn, start, end, mode)

# print 'PT@%s:%s' % (j, plaintext)

if mode == self.modeOfOperation["CFB"]:

if firstRound:

output = self.aes.encrypt(IV, key, size)

firstRound = False

else:

output = self.aes.encrypt(iput, key, size)

for i in range(16):

if len(plaintext)-1 < i:

ciphertext[i] = 0 ^ output[i]

elif len(output)-1 < i:

ciphertext[i] = plaintext[i] ^ 0

elif len(plaintext)-1 < i and len(output) < i:

ciphertext[i] = 0 ^ 0

else:

ciphertext[i] = plaintext[i] ^ output[i]

for k in range(end-start):

cipherOut.append(ciphertext[k])

iput = ciphertext

elif mode == self.modeOfOperation["OFB"]:

if firstRound:

output = self.aes.encrypt(IV, key, size)

firstRound = False

else:

output = self.aes.encrypt(iput, key, size)

for i in range(16):

if len(plaintext)-1 < i:

ciphertext[i] = 0 ^ output[i]

elif len(output)-1 < i:

ciphertext[i] = plaintext[i] ^ 0

elif len(plaintext)-1 < i and len(output) < i:

ciphertext[i] = 0 ^ 0

else:

ciphertext[i] = plaintext[i] ^ output[i]

for k in range(end-start):

cipherOut.append(ciphertext[k])

iput = output

elif mode == self.modeOfOperation["CBC"]:

for i in range(16):

if firstRound:

iput[i] = plaintext[i] ^ IV[i]

else:

iput[i] = plaintext[i] ^ ciphertext[i]

# print 'IP@%s:%s' % (j, iput)

firstRound = False

ciphertext = self.aes.encrypt(iput, key, size)

# always 16 bytes because of the padding for CBC

for k in range(16):

cipherOut.append(ciphertext[k])

return mode, len(stringIn), cipherOut

# Mode of Operation Decryption

# cipherIn - Encrypted String

# originalsize - The unencrypted string length - required for CBC

# mode - mode of type modeOfOperation

# key - a number array of the bit length size

# size - the bit length of the key

# IV - the 128 bit number array Initilization Vector

def decrypt(self, cipherIn, originalsize, mode, key, size, IV):

# cipherIn = unescCtrlChars(cipherIn)

if len(key) % size:

return None

if len(IV) % 16:

return None

# the AES input/output

ciphertext = []

iput = []

output = []

plaintext = [0] * 16

# the output plain text string

stringOut = ''

# char firstRound

firstRound = True

if cipherIn != None:

for j in range(int(math.ceil(float(len(cipherIn))/16))):

start = j*16

end = j*16+16

if j*16+16 > len(cipherIn):

end = len(cipherIn)

ciphertext = cipherIn[start:end]

if mode == self.modeOfOperation["CFB"]:

if firstRound:

output = self.aes.encrypt(IV, key, size)

firstRound = False

else:

output = self.aes.encrypt(iput, key, size)

for i in range(16):

if len(output)-1 < i:

plaintext[i] = 0 ^ ciphertext[i]

elif len(ciphertext)-1 < i:

plaintext[i] = output[i] ^ 0

elif len(output)-1 < i and len(ciphertext) < i:

plaintext[i] = 0 ^ 0

else:

plaintext[i] = output[i] ^ ciphertext[i]

for k in range(end-start):

stringOut += chr(plaintext[k])

iput = ciphertext

elif mode == self.modeOfOperation["OFB"]:

if firstRound:

output = self.aes.encrypt(IV, key, size)

firstRound = False

else:

output = self.aes.encrypt(iput, key, size)

for i in range(16):

if len(output)-1 < i:

plaintext[i] = 0 ^ ciphertext[i]

elif len(ciphertext)-1 < i:

plaintext[i] = output[i] ^ 0

elif len(output)-1 < i and len(ciphertext) < i:

plaintext[i] = 0 ^ 0

else:

plaintext[i] = output[i] ^ ciphertext[i]

for k in range(end-start):

stringOut += chr(plaintext[k])

iput = output

elif mode == self.modeOfOperation["CBC"]:

output = self.aes.decrypt(ciphertext, key, size)

for i in range(16):

if firstRound:

plaintext[i] = IV[i] ^ output[i]

else:

plaintext[i] = iput[i] ^ output[i]

firstRound = False

if originalsize is not None and originalsize < end:

for k in range(originalsize-start):

stringOut += chr(plaintext[k])

else:

for k in range(end-start):

stringOut += chr(plaintext[k])

iput = ciphertext

return stringOut

######################

# end of aes.py code #

######################

###################################

# pywallet crypter implementation #

###################################

crypter = None

try:

from Crypto.Cipher import AES

crypter = 'pycrypto'

except:

pass

class Crypter_pycrypto( object ):

def SetKeyFromPassphrase(self, vKeyData, vSalt, nDerivIterations, nDerivationMethod):

if nDerivationMethod != 0:

return 0

data = vKeyData + vSalt

for i in xrange(nDerivIterations):

data = hashlib.sha512(data).digest()

self.SetKey(data[0:32])

self.SetIV(data[32:32+16])

return len(data)

def SetKey(self, key):

self.chKey = key

def SetIV(self, iv):

self.chIV = iv[0:16]

def Encrypt(self, data):

return AES.new(self.chKey,AES.MODE_CBC,self.chIV).encrypt(append_PKCS7_padding(data))

def Decrypt(self, data):

return AES.new(self.chKey,AES.MODE_CBC,self.chIV).decrypt(data)[0:32]

try:

if not crypter:

import ctypes

import ctypes.util

ssl = ctypes.cdll.LoadLibrary (ctypes.util.find_library ('ssl') or 'libeay32')

crypter = 'ssl'

except:

pass

class Crypter_ssl(object):

def __init__(self):

self.chKey = ctypes.create_string_buffer (32)

self.chIV = ctypes.create_string_buffer (16)

def SetKeyFromPassphrase(self, vKeyData, vSalt, nDerivIterations, nDerivationMethod):

if nDerivationMethod != 0:

return 0

strKeyData = ctypes.create_string_buffer (vKeyData)

chSalt = ctypes.create_str

Diferenças salvas

Texto original

Abrir arquivo

#!/usr/bin/env python
#-*- coding: utf-8 -*-
pywversion="2.2"
never_update=False

#
# jackjack's pywallet.py
# https://github.com/jackjack-jj/pywallet
# forked from Joric's pywallet.py
#

beta_version =  ('a' in pywversion.split('-')[0]) or ('b' in pywversion.split('-')[0])

missing_dep = []

try:
	from bsddb.db import *
except:
	try:
		from bsddb3.db import *
	except:
		missing_dep.append('bsddb')

import os, sys, time, re
pyw_filename = os.path.basename(__file__)
pyw_path = os.path.dirname(os.path.realpath(__file__))

try:
	for i in os.listdir('/usr/lib/python2.5/site-packages'):
		if 'Twisted' in i:
			sys.path.append('/usr/lib/python2.5/site-packages/'+i)
except:
	''

try:
	import json
except:
	try:
		 import simplejson as json
	except:
		 print("Json or simplejson package is needed")

import logging
import struct
import StringIO
import traceback
import socket
import types
import string
import exceptions
import hashlib
import random
import urllib
import math

try:
	from twisted.internet import reactor
	from twisted.web import server, resource
	from twisted.web.static import File
	from twisted.python import log
except:
	missing_dep.append('twisted')

from datetime import datetime
from subprocess import *

import os
import os.path
import platform

max_version = 81000
addrtype = 0
json_db = {}
private_keys = []
private_hex_keys = []
passphrase = ""
global_merging_message = ["",""]

balance_site = 'https://blockchain.info/q/addressbalance/'
aversions = {};
for i in range(256):
	aversions[i] = "version %d" % i;
aversions[0] = 'Bitcoin';
aversions[48] = 'Litecoin';
aversions[52] = 'Namecoin';
aversions[111] = 'Testnet';

wallet_dir = ""
wallet_name = ""

ko = 1e3
kio = 1024
Mo = 1e6
Mio = 1024 ** 2
Go = 1e9
Gio = 1024 ** 3
To = 1e12
Tio = 1024 ** 4

prekeys = ["308201130201010420".decode('hex'), "308201120201010420".decode('hex')]
postkeys = ["a081a530".decode('hex'), "81a530".decode('hex')]

def iais(a):
	if a>= 2:
		return 's'
	else:
		return ''

def systype():
	if platform.system() == "Darwin":
		return 'Mac'
	elif platform.system() == "Windows":
		return 'Win'
	return 'Linux'

def determine_db_dir():
	if wallet_dir in "":
		if platform.system() == "Darwin":
			return os.path.expanduser("~/Library/Application Support/Bitcoin/")
		elif platform.system() == "Windows":
			return os.path.join(os.environ['APPDATA'], "Bitcoin")
		return os.path.expanduser("~/.bitcoin")
	else:
		return wallet_dir

def determine_db_name():
	if wallet_name in "":
		return "wallet.dat"
	else:
		return wallet_name

########################
# begin of aes.py code #
########################

# from the SlowAES project, http://code.google.com/p/slowaes (aes.py)

def append_PKCS7_padding(s):
	"""return s padded to a multiple of 16-bytes by PKCS7 padding"""
	numpads = 16 - (len(s)%16)
	return s + numpads*chr(numpads)

def strip_PKCS7_padding(s):
	"""return s stripped of PKCS7 padding"""
	if len(s)%16 or not s:
		raise ValueError("String of len %d can't be PCKS7-padded" % len(s))
	numpads = ord(s[-1])
	if numpads > 16:
		raise ValueError("String ending with %r can't be PCKS7-padded" % s[-1])
	return s[:-numpads]

class AES(object):
	# valid key sizes
	keySize = dict(SIZE_128=16, SIZE_192=24, SIZE_256=32)

# Rijndael S-box
	sbox =  [0x63, 0x7c, 0x77, 0x7b, 0xf2, 0x6b, 0x6f, 0xc5, 0x30, 0x01, 0x67,
			0x2b, 0xfe, 0xd7, 0xab, 0x76, 0xca, 0x82, 0xc9, 0x7d, 0xfa, 0x59,
			0x47, 0xf0, 0xad, 0xd4, 0xa2, 0xaf, 0x9c, 0xa4, 0x72, 0xc0, 0xb7,
			0xfd, 0x93, 0x26, 0x36, 0x3f, 0xf7, 0xcc, 0x34, 0xa5, 0xe5, 0xf1,
			0x71, 0xd8, 0x31, 0x15, 0x04, 0xc7, 0x23, 0xc3, 0x18, 0x96, 0x05,
			0x9a, 0x07, 0x12, 0x80, 0xe2, 0xeb, 0x27, 0xb2, 0x75, 0x09, 0x83,
			0x2c, 0x1a, 0x1b, 0x6e, 0x5a, 0xa0, 0x52, 0x3b, 0xd6, 0xb3, 0x29,
			0xe3, 0x2f, 0x84, 0x53, 0xd1, 0x00, 0xed, 0x20, 0xfc, 0xb1, 0x5b,
			0x6a, 0xcb, 0xbe, 0x39, 0x4a, 0x4c, 0x58, 0xcf, 0xd0, 0xef, 0xaa,
			0xfb, 0x43, 0x4d, 0x33, 0x85, 0x45, 0xf9, 0x02, 0x7f, 0x50, 0x3c,
			0x9f, 0xa8, 0x51, 0xa3, 0x40, 0x8f, 0x92, 0x9d, 0x38, 0xf5, 0xbc,
			0xb6, 0xda, 0x21, 0x10, 0xff, 0xf3, 0xd2, 0xcd, 0x0c, 0x13, 0xec,
			0x5f, 0x97, 0x44, 0x17, 0xc4, 0xa7, 0x7e, 0x3d, 0x64, 0x5d, 0x19,
			0x73, 0x60, 0x81, 0x4f, 0xdc, 0x22, 0x2a, 0x90, 0x88, 0x46, 0xee,
			0xb8, 0x14, 0xde, 0x5e, 0x0b, 0xdb, 0xe0, 0x32, 0x3a, 0x0a, 0x49,
			0x06, 0x24, 0x5c, 0xc2, 0xd3, 0xac, 0x62, 0x91, 0x95, 0xe4, 0x79,
			0xe7, 0xc8, 0x37, 0x6d, 0x8d, 0xd5, 0x4e, 0xa9, 0x6c, 0x56, 0xf4,
			0xea, 0x65, 0x7a, 0xae, 0x08, 0xba, 0x78, 0x25, 0x2e, 0x1c, 0xa6,
			0xb4, 0xc6, 0xe8, 0xdd, 0x74, 0x1f, 0x4b, 0xbd, 0x8b, 0x8a, 0x70,
			0x3e, 0xb5, 0x66, 0x48, 0x03, 0xf6, 0x0e, 0x61, 0x35, 0x57, 0xb9,
			0x86, 0xc1, 0x1d, 0x9e, 0xe1, 0xf8, 0x98, 0x11, 0x69, 0xd9, 0x8e,
			0x94, 0x9b, 0x1e, 0x87, 0xe9, 0xce, 0x55, 0x28, 0xdf, 0x8c, 0xa1,
			0x89, 0x0d, 0xbf, 0xe6, 0x42, 0x68, 0x41, 0x99, 0x2d, 0x0f, 0xb0,
			0x54, 0xbb, 0x16]

# Rijndael Inverted S-box
	rsbox = [0x52, 0x09, 0x6a, 0xd5, 0x30, 0x36, 0xa5, 0x38, 0xbf, 0x40, 0xa3,
			0x9e, 0x81, 0xf3, 0xd7, 0xfb , 0x7c, 0xe3, 0x39, 0x82, 0x9b, 0x2f,
			0xff, 0x87, 0x34, 0x8e, 0x43, 0x44, 0xc4, 0xde, 0xe9, 0xcb , 0x54,
			0x7b, 0x94, 0x32, 0xa6, 0xc2, 0x23, 0x3d, 0xee, 0x4c, 0x95, 0x0b,
			0x42, 0xfa, 0xc3, 0x4e , 0x08, 0x2e, 0xa1, 0x66, 0x28, 0xd9, 0x24,
			0xb2, 0x76, 0x5b, 0xa2, 0x49, 0x6d, 0x8b, 0xd1, 0x25 , 0x72, 0xf8,
			0xf6, 0x64, 0x86, 0x68, 0x98, 0x16, 0xd4, 0xa4, 0x5c, 0xcc, 0x5d,
			0x65, 0xb6, 0x92 , 0x6c, 0x70, 0x48, 0x50, 0xfd, 0xed, 0xb9, 0xda,
			0x5e, 0x15, 0x46, 0x57, 0xa7, 0x8d, 0x9d, 0x84 , 0x90, 0xd8, 0xab,
			0x00, 0x8c, 0xbc, 0xd3, 0x0a, 0xf7, 0xe4, 0x58, 0x05, 0xb8, 0xb3,
			0x45, 0x06 , 0xd0, 0x2c, 0x1e, 0x8f, 0xca, 0x3f, 0x0f, 0x02, 0xc1,
			0xaf, 0xbd, 0x03, 0x01, 0x13, 0x8a, 0x6b , 0x3a, 0x91, 0x11, 0x41,
			0x4f, 0x67, 0xdc, 0xea, 0x97, 0xf2, 0xcf, 0xce, 0xf0, 0xb4, 0xe6,
			0x73 , 0x96, 0xac, 0x74, 0x22, 0xe7, 0xad, 0x35, 0x85, 0xe2, 0xf9,
			0x37, 0xe8, 0x1c, 0x75, 0xdf, 0x6e , 0x47, 0xf1, 0x1a, 0x71, 0x1d,
			0x29, 0xc5, 0x89, 0x6f, 0xb7, 0x62, 0x0e, 0xaa, 0x18, 0xbe, 0x1b ,
			0xfc, 0x56, 0x3e, 0x4b, 0xc6, 0xd2, 0x79, 0x20, 0x9a, 0xdb, 0xc0,
			0xfe, 0x78, 0xcd, 0x5a, 0xf4 , 0x1f, 0xdd, 0xa8, 0x33, 0x88, 0x07,
			0xc7, 0x31, 0xb1, 0x12, 0x10, 0x59, 0x27, 0x80, 0xec, 0x5f , 0x60,
			0x51, 0x7f, 0xa9, 0x19, 0xb5, 0x4a, 0x0d, 0x2d, 0xe5, 0x7a, 0x9f,
			0x93, 0xc9, 0x9c, 0xef , 0xa0, 0xe0, 0x3b, 0x4d, 0xae, 0x2a, 0xf5,
			0xb0, 0xc8, 0xeb, 0xbb, 0x3c, 0x83, 0x53, 0x99, 0x61 , 0x17, 0x2b,
			0x04, 0x7e, 0xba, 0x77, 0xd6, 0x26, 0xe1, 0x69, 0x14, 0x63, 0x55,
			0x21, 0x0c, 0x7d]

def getSBoxValue(self,num):
		"""Retrieves a given S-Box Value"""
		return self.sbox[num]

def getSBoxInvert(self,num):
		"""Retrieves a given Inverted S-Box Value"""
		return self.rsbox[num]

def rotate(self, word):
		""" Rijndael's key schedule rotate operation.

Rotate a word eight bits to the left: eg, rotate(1d2c3a4f) == 2c3a4f1d
		Word is an char list of size 4 (32 bits overall).
		"""
		return word[1:] + word[:1]

# Rijndael Rcon
	Rcon = [0x8d, 0x01, 0x02, 0x04, 0x08, 0x10, 0x20, 0x40, 0x80, 0x1b, 0x36,
			0x6c, 0xd8, 0xab, 0x4d, 0x9a, 0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97,
			0x35, 0x6a, 0xd4, 0xb3, 0x7d, 0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72,
			0xe4, 0xd3, 0xbd, 0x61, 0xc2, 0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66,
			0xcc, 0x83, 0x1d, 0x3a, 0x74, 0xe8, 0xcb, 0x8d, 0x01, 0x02, 0x04,
			0x08, 0x10, 0x20, 0x40, 0x80, 0x1b, 0x36, 0x6c, 0xd8, 0xab, 0x4d,
			0x9a, 0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97, 0x35, 0x6a, 0xd4, 0xb3,
			0x7d, 0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72, 0xe4, 0xd3, 0xbd, 0x61,
			0xc2, 0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66, 0xcc, 0x83, 0x1d, 0x3a,
			0x74, 0xe8, 0xcb, 0x8d, 0x01, 0x02, 0x04, 0x08, 0x10, 0x20, 0x40,
			0x80, 0x1b, 0x36, 0x6c, 0xd8, 0xab, 0x4d, 0x9a, 0x2f, 0x5e, 0xbc,
			0x63, 0xc6, 0x97, 0x35, 0x6a, 0xd4, 0xb3, 0x7d, 0xfa, 0xef, 0xc5,
			0x91, 0x39, 0x72, 0xe4, 0xd3, 0xbd, 0x61, 0xc2, 0x9f, 0x25, 0x4a,
			0x94, 0x33, 0x66, 0xcc, 0x83, 0x1d, 0x3a, 0x74, 0xe8, 0xcb, 0x8d,
			0x01, 0x02, 0x04, 0x08, 0x10, 0x20, 0x40, 0x80, 0x1b, 0x36, 0x6c,
			0xd8, 0xab, 0x4d, 0x9a, 0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97, 0x35,
			0x6a, 0xd4, 0xb3, 0x7d, 0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72, 0xe4,
			0xd3, 0xbd, 0x61, 0xc2, 0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66, 0xcc,
			0x83, 0x1d, 0x3a, 0x74, 0xe8, 0xcb, 0x8d, 0x01, 0x02, 0x04, 0x08,
			0x10, 0x20, 0x40, 0x80, 0x1b, 0x36, 0x6c, 0xd8, 0xab, 0x4d, 0x9a,
			0x2f, 0x5e, 0xbc, 0x63, 0xc6, 0x97, 0x35, 0x6a, 0xd4, 0xb3, 0x7d,
			0xfa, 0xef, 0xc5, 0x91, 0x39, 0x72, 0xe4, 0xd3, 0xbd, 0x61, 0xc2,
			0x9f, 0x25, 0x4a, 0x94, 0x33, 0x66, 0xcc, 0x83, 0x1d, 0x3a, 0x74,
			0xe8, 0xcb ]

def getRconValue(self, num):
		"""Retrieves a given Rcon Value"""
		return self.Rcon[num]

def core(self, word, iteration):
		"""Key schedule core."""
		# rotate the 32-bit word 8 bits to the left
		word = self.rotate(word)
		# apply S-Box substitution on all 4 parts of the 32-bit word
		for i in range(4):
			word[i] = self.getSBoxValue(word[i])
		# XOR the output of the rcon operation with i to the first part
		# (leftmost) only
		word[0] = word[0] ^ self.getRconValue(iteration)
		return word

def expandKey(self, key, size, expandedKeySize):
		"""Rijndael's key expansion.

Expands an 128,192,256 key into an 176,208,240 bytes key

expandedKey is a char list of large enough size,
		key is the non-expanded key.
		"""
		# current expanded keySize, in bytes
		currentSize = 0
		rconIteration = 1
		expandedKey = [0] * expandedKeySize

# set the 16, 24, 32 bytes of the expanded key to the input key
		for j in range(size):
			expandedKey[j] = key[j]
		currentSize += size

while currentSize < expandedKeySize:
			# assign the previous 4 bytes to the temporary value t
			t = expandedKey[currentSize-4:currentSize]

# every 16,24,32 bytes we apply the core schedule to t
			# and increment rconIteration afterwards
			if currentSize % size == 0:
				t = self.core(t, rconIteration)
				rconIteration += 1
			# For 256-bit keys, we add an extra sbox to the calculation
			if size == self.keySize["SIZE_256"] and ((currentSize % size) == 16):
				for l in range(4): t[l] = self.getSBoxValue(t[l])

# We XOR t with the four-byte block 16,24,32 bytes before the new
			# expanded key.  This becomes the next four bytes in the expanded
			# key.
			for m in range(4):
				expandedKey[currentSize] = expandedKey[currentSize - size] ^ \
						t[m]
				currentSize += 1

return expandedKey

def addRoundKey(self, state, roundKey):
		"""Adds (XORs) the round key to the state."""
		for i in range(16):
			state[i] ^= roundKey[i]
		return state

def createRoundKey(self, expandedKey, roundKeyPointer):
		"""Create a round key.
		Creates a round key from the given expanded key and the
		position within the expanded key.
		"""
		roundKey = [0] * 16
		for i in range(4):
			for j in range(4):
				roundKey[j*4+i] = expandedKey[roundKeyPointer + i*4 + j]
		return roundKey

def galois_multiplication(self, a, b):
		"""Galois multiplication of 8 bit characters a and b."""
		p = 0
		for counter in range(8):
			if b & 1: p ^= a
			hi_bit_set = a & 0x80
			a <<= 1
			# keep a 8 bit
			a &= 0xFF
			if hi_bit_set:
				a ^= 0x1b
			b >>= 1
		return p

#
	# substitute all the values from the state with the value in the SBox
	# using the state value as index for the SBox
	#
	def subBytes(self, state, isInv):
		if isInv: getter = self.getSBoxInvert
		else: getter = self.getSBoxValue
		for i in range(16): state[i] = getter(state[i])
		return state

# iterate over the 4 rows and call shiftRow() with that row
	def shiftRows(self, state, isInv):
		for i in range(4):
			state = self.shiftRow(state, i*4, i, isInv)
		return state

# each iteration shifts the row to the left by 1
	def shiftRow(self, state, statePointer, nbr, isInv):
		for i in range(nbr):
			if isInv:
				state[statePointer:statePointer+4] = \
						state[statePointer+3:statePointer+4] + \
						state[statePointer:statePointer+3]
			else:
				state[statePointer:statePointer+4] = \
						state[statePointer+1:statePointer+4] + \
						state[statePointer:statePointer+1]
		return state

# galois multiplication of the 4x4 matrix
	def mixColumns(self, state, isInv):
		# iterate over the 4 columns
		for i in range(4):
			# construct one column by slicing over the 4 rows
			column = state[i:i+16:4]
			# apply the mixColumn on one column
			column = self.mixColumn(column, isInv)
			# put the values back into the state
			state[i:i+16:4] = column

return state

# galois multiplication of 1 column of the 4x4 matrix
	def mixColumn(self, column, isInv):
		if isInv: mult = [14, 9, 13, 11]
		else: mult = [2, 1, 1, 3]
		cpy = list(column)
		g = self.galois_multiplication

column[0] = g(cpy[0], mult[0]) ^ g(cpy[3], mult[1]) ^ \
					g(cpy[2], mult[2]) ^ g(cpy[1], mult[3])
		column[1] = g(cpy[1], mult[0]) ^ g(cpy[0], mult[1]) ^ \
					g(cpy[3], mult[2]) ^ g(cpy[2], mult[3])
		column[2] = g(cpy[2], mult[0]) ^ g(cpy[1], mult[1]) ^ \
					g(cpy[0], mult[2]) ^ g(cpy[3], mult[3])
		column[3] = g(cpy[3], mult[0]) ^ g(cpy[2], mult[1]) ^ \
					g(cpy[1], mult[2]) ^ g(cpy[0], mult[3])
		return column

# applies the 4 operations of the forward round in sequence
	def aes_round(self, state, roundKey):
		state = self.subBytes(state, False)
		state = self.shiftRows(state, False)
		state = self.mixColumns(state, False)
		state = self.addRoundKey(state, roundKey)
		return state

# applies the 4 operations of the inverse round in sequence
	def aes_invRound(self, state, roundKey):
		state = self.shiftRows(state, True)
		state = self.subBytes(state, True)
		state = self.addRoundKey(state, roundKey)
		state = self.mixColumns(state, True)
		return state

# Perform the initial operations, the standard round, and the final
	# operations of the forward aes, creating a round key for each round
	def aes_main(self, state, expandedKey, nbrRounds):
		state = self.addRoundKey(state, self.createRoundKey(expandedKey, 0))
		i = 1
		while i < nbrRounds:
			state = self.aes_round(state,
								   self.createRoundKey(expandedKey, 16*i))
			i += 1
		state = self.subBytes(state, False)
		state = self.shiftRows(state, False)
		state = self.addRoundKey(state,
								 self.createRoundKey(expandedKey, 16*nbrRounds))
		return state

# Perform the initial operations, the standard round, and the final
	# operations of the inverse aes, creating a round key for each round
	def aes_invMain(self, state, expandedKey, nbrRounds):
		state = self.addRoundKey(state,
								 self.createRoundKey(expandedKey, 16*nbrRounds))
		i = nbrRounds - 1
		while i > 0:
			state = self.aes_invRound(state,
									  self.createRoundKey(expandedKey, 16*i))
			i -= 1
		state = self.shiftRows(state, True)
		state = self.subBytes(state, True)
		state = self.addRoundKey(state, self.createRoundKey(expandedKey, 0))
		return state

# encrypts a 128 bit input block against the given key of size specified
	def encrypt(self, iput, key, size):
		output = [0] * 16
		# the number of rounds
		nbrRounds = 0
		# the 128 bit block to encode
		block = [0] * 16
		# set the number of rounds
		if size == self.keySize["SIZE_128"]: nbrRounds = 10
		elif size == self.keySize["SIZE_192"]: nbrRounds = 12
		elif size == self.keySize["SIZE_256"]: nbrRounds = 14
		else: return None

# the expanded keySize
		expandedKeySize = 16*(nbrRounds+1)

# Set the block values, for the block:
		# a0,0 a0,1 a0,2 a0,3
		# a1,0 a1,1 a1,2 a1,3
		# a2,0 a2,1 a2,2 a2,3
		# a3,0 a3,1 a3,2 a3,3
		# the mapping order is a0,0 a1,0 a2,0 a3,0 a0,1 a1,1 ... a2,3 a3,3
		#
		# iterate over the columns
		for i in range(4):
			# iterate over the rows
			for j in range(4):
				block[(i+(j*4))] = iput[(i*4)+j]

# expand the key into an 176, 208, 240 bytes key
		# the expanded key
		expandedKey = self.expandKey(key, size, expandedKeySize)

# encrypt the block using the expandedKey
		block = self.aes_main(block, expandedKey, nbrRounds)

# unmap the block again into the output
		for k in range(4):
			# iterate over the rows
			for l in range(4):
				output[(k*4)+l] = block[(k+(l*4))]
		return output

# decrypts a 128 bit input block against the given key of size specified
	def decrypt(self, iput, key, size):
		output = [0] * 16
		# the number of rounds
		nbrRounds = 0
		# the 128 bit block to decode
		block = [0] * 16
		# set the number of rounds
		if size == self.keySize["SIZE_128"]: nbrRounds = 10
		elif size == self.keySize["SIZE_192"]: nbrRounds = 12
		elif size == self.keySize["SIZE_256"]: nbrRounds = 14
		else: return None

# the expanded keySize
		expandedKeySize = 16*(nbrRounds+1)

# iterate over the columns
		for i in range(4):
			# iterate over the rows
			for j in range(4):
				block[(i+(j*4))] = iput[(i*4)+j]
		# expand the key into an 176, 208, 240 bytes key
		expandedKey = self.expandKey(key, size, expandedKeySize)
		# decrypt the block using the expandedKey
		block = self.aes_invMain(block, expandedKey, nbrRounds)
		# unmap the block again into the output
		for k in range(4):
			# iterate over the rows
			for l in range(4):
				output[(k*4)+l] = block[(k+(l*4))]
		return output

class AESModeOfOperation(object):

aes = AES()

# structure of supported modes of operation
	modeOfOperation = dict(OFB=0, CFB=1, CBC=2)

# converts a 16 character string into a number array
	def convertString(self, string, start, end, mode):
		if end - start > 16: end = start + 16
		if mode == self.modeOfOperation["CBC"]: ar = [0] * 16
		else: ar = []

i = start
		j = 0
		while len(ar) < end - start:
			ar.append(0)
		while i < end:
			ar[j] = ord(string[i])
			j += 1
			i += 1
		return ar

# Mode of Operation Encryption
	# stringIn - Input String
	# mode - mode of type modeOfOperation
	# hexKey - a hex key of the bit length size
	# size - the bit length of the key
	# hexIV - the 128 bit hex Initilization Vector
	def encrypt(self, stringIn, mode, key, size, IV):
		if len(key) % size:
			return None
		if len(IV) % 16:
			return None
		# the AES input/output
		plaintext = []
		iput = [0] * 16
		output = []
		ciphertext = [0] * 16
		# the output cipher string
		cipherOut = []
		# char firstRound
		firstRound = True
		if stringIn != None:
			for j in range(int(math.ceil(float(len(stringIn))/16))):
				start = j*16
				end = j*16+16
				if  end > len(stringIn):
					end = len(stringIn)
				plaintext = self.convertString(stringIn, start, end, mode)
				# print 'PT@%s:%s' % (j, plaintext)
				if mode == self.modeOfOperation["CFB"]:
					if firstRound:
						output = self.aes.encrypt(IV, key, size)
						firstRound = False
					else:
						output = self.aes.encrypt(iput, key, size)
					for i in range(16):
						if len(plaintext)-1 < i:
							ciphertext[i] = 0 ^ output[i]
						elif len(output)-1 < i:
							ciphertext[i] = plaintext[i] ^ 0
						elif len(plaintext)-1 < i and len(output) < i:
							ciphertext[i] = 0 ^ 0
						else:
							ciphertext[i] = plaintext[i] ^ output[i]
					for k in range(end-start):
						cipherOut.append(ciphertext[k])
					iput = ciphertext
				elif mode == self.modeOfOperation["OFB"]:
					if firstRound:
						output = self.aes.encrypt(IV, key, size)
						firstRound = False
					else:
						output = self.aes.encrypt(iput, key, size)
					for i in range(16):
						if len(plaintext)-1 < i:
							ciphertext[i] = 0 ^ output[i]
						elif len(output)-1 < i:
							ciphertext[i] = plaintext[i] ^ 0
						elif len(plaintext)-1 < i and len(output) < i:
							ciphertext[i] = 0 ^ 0
						else:
							ciphertext[i] = plaintext[i] ^ output[i]
					for k in range(end-start):
						cipherOut.append(ciphertext[k])
					iput = output
				elif mode == self.modeOfOperation["CBC"]:
					for i in range(16):
						if firstRound:
							iput[i] =  plaintext[i] ^ IV[i]
						else:
							iput[i] =  plaintext[i] ^ ciphertext[i]
					# print 'IP@%s:%s' % (j, iput)
					firstRound = False
					ciphertext = self.aes.encrypt(iput, key, size)
					# always 16 bytes because of the padding for CBC
					for k in range(16):
						cipherOut.append(ciphertext[k])
		return mode, len(stringIn), cipherOut

# Mode of Operation Decryption
	# cipherIn - Encrypted String
	# originalsize - The unencrypted string length - required for CBC
	# mode - mode of type modeOfOperation
	# key - a number array of the bit length size
	# size - the bit length of the key
	# IV - the 128 bit number array Initilization Vector
	def decrypt(self, cipherIn, originalsize, mode, key, size, IV):
		# cipherIn = unescCtrlChars(cipherIn)
		if len(key) % size:
			return None
		if len(IV) % 16:
			return None
		# the AES input/output
		ciphertext = []
		iput = []
		output = []
		plaintext = [0] * 16
		# the output plain text string
		stringOut = ''
		# char firstRound
		firstRound = True
		if cipherIn != None:
			for j in range(int(math.ceil(float(len(cipherIn))/16))):
				start = j*16
				end = j*16+16
				if j*16+16 > len(cipherIn):
					end = len(cipherIn)
				ciphertext = cipherIn[start:end]
				if mode == self.modeOfOperation["CFB"]:
					if firstRound:
						output = self.aes.encrypt(IV, key, size)
						firstRound = False
					else:
						output = self.aes.encrypt(iput, key, size)
					for i in range(16):
						if len(output)-1 < i:
							plaintext[i] = 0 ^ ciphertext[i]
						elif len(ciphertext)-1 < i:
							plaintext[i] = output[i] ^ 0
						elif len(output)-1 < i and len(ciphertext) < i:
							plaintext[i] = 0 ^ 0
						else:
							plaintext[i] = output[i] ^ ciphertext[i]
					for k in range(end-start):
						stringOut += chr(plaintext[k])
					iput = ciphertext
				elif mode == self.modeOfOperation["OFB"]:
					if firstRound:
						output = self.aes.encrypt(IV, key, size)
						firstRound = False
					else:
						output = self.aes.encrypt(iput, key, size)
					for i in range(16):
						if len(output)-1 < i:
							plaintext[i] = 0 ^ ciphertext[i]
						elif len(ciphertext)-1 < i:
							plaintext[i] = output[i] ^ 0
						elif len(output)-1 < i and len(ciphertext) < i:
							plaintext[i] = 0 ^ 0
						else:
							plaintext[i] = output[i] ^ ciphertext[i]
					for k in range(end-start):
						stringOut += chr(plaintext[k])
					iput = output
				elif mode == self.modeOfOperation["CBC"]:
					output = self.aes.decrypt(ciphertext, key, size)
					for i in range(16):
						if firstRound:
							plaintext[i] = IV[i] ^ output[i]
						else:
							plaintext[i] = iput[i] ^ output[i]
					firstRound = False
					if originalsize is not None and originalsize < end:
						for k in range(originalsize-start):
							stringOut += chr(plaintext[k])
					else:
						for k in range(end-start):
							stringOut += chr(plaintext[k])
					iput = ciphertext
		return stringOut

######################
# end of aes.py code #
######################

###################################
# pywallet crypter implementation #
###################################

crypter = None

try:
	from Crypto.Cipher import AES
	crypter = 'pycrypto'
except:
	pass

class Crypter_pycrypto( object ):
	def SetKeyFromPassphrase(self, vKeyData, vSalt, nDerivIterations, nDerivationMethod):
		if nDerivationMethod != 0:
			return 0
		data = vKeyData + vSalt
		for i in xrange(nDerivIterations):
			data = hashlib.sha512(data).digest()
		self.SetKey(data[0:32])
		self.SetIV(data[32:32+16])
		return len(data)

def SetKey(self, key):
		self.chKey = key

def SetIV(self, iv):
		self.chIV = iv[0:16]

def Encrypt(self, data):
		return AES.new(self.chKey,AES.MODE_CBC,self.chIV).encrypt(append_PKCS7_padding(data))

def Decrypt(self, data):
		return AES.new(self.chKey,AES.MODE_CBC,self.chIV).decrypt(data)[0:32]

try:
	if not crypter:
		import ctypes
		import ctypes.util
		ssl = ctypes.cdll.LoadLibrary (ctypes.util.find_library ('ssl') or 'libeay32')
		crypter = 'ssl'
except:
	pass

class Crypter_ssl(object):
	def __init__(self):
		self.chKey = ctypes.create_string_buffer (32)
		self.chIV = ctypes.create_string_buffer (16)

def SetKeyFromPassphrase(self, vKeyData, vSalt, nDerivIterations, nDerivationMethod):
		if nDerivationMethod != 0:
			return 0
		strKeyData = ctypes.create_string_buffer (vKeyData)
		chSalt = ctypes.create_string_buffer (vSalt)
		return ssl.EVP_BytesToKey(ssl.EVP_aes_256_cbc(), ssl.EVP_sha512(), chSalt, strKeyData,
			len(vKeyData), nDerivIterations, ctypes.byref(self.chKey), ctypes.byref(self.chIV))

def SetKey(self, key):
		self.chKey = ctypes.create_string_buffer(key)

def SetIV(self, iv):
		self.chIV = ctypes.create_string_buffer(iv)

def Encrypt(self, data):
		buf = ctypes.create_string_buffer(len(data) + 16)
		written = ctypes.c_int(0)
		final = ctypes.c_int(0)
		ctx = ssl.EVP_CIPHER_CTX_new()
		ssl.EVP_CIPHER_CTX_init(ctx)
		ssl.EVP_EncryptInit_ex(ctx, ssl.EVP_aes_256_cbc(), None, self.chKey, self.chIV)
		ssl.EVP_EncryptUpdate(ctx, buf, ctypes.byref(written), data, len(data))
		output = buf.raw[:written.value]
		ssl.EVP_EncryptFinal_ex(ctx, buf, ctypes.byref(final))
		output += buf.raw[:final.value]
		return output

def Decrypt(self, data):
		buf = ctypes.create_string_buffer(len(data) + 16)
		written = ctypes.c_int(0)
		final = ctypes.c_int(0)
		ctx = ssl.EVP_CIPHER_CTX_new()
		ssl.EVP_CIPHER_CTX_init(ctx)
		ssl.EVP_DecryptInit_ex(ctx, ssl.EVP_aes_256_cbc(), None, self.chKey, self.chIV)
		ssl.EVP_DecryptUpdate(ctx, buf, ctypes.byref(written), data, len(data))
		output = buf.raw[:written.value]
		ssl.EVP_DecryptFinal_ex(ctx, buf, ctypes.byref(final))
		output += buf.raw[:final.value]
		return output

class Crypter_pure(object):
	def __init__(self):
		self.m = AESModeOfOperation()
		self.cbc = self.m.modeOfOperation["CBC"]
		self.sz = self.m.aes.keySize["SIZE_256"]

def SetKeyFromPassphrase(self, vKeyData, vSalt, nDerivIterations, nDerivationMethod):
		if nDerivationMethod != 0:
			return 0
		data = vKeyData + vSalt
		for i in xrange(nDerivIterations):
			data = hashlib.sha512(data).digest()
		self.SetKey(data[0:32])
		self.SetIV(data[32:32+16])
		return len(data)

def SetKey(self, key):
		self.chKey = [ord(i) for i in key]

def SetIV(self, iv):
		self.chIV = [ord(i) for i in iv]

def Encrypt(self, data):
		mode, size, cypher = self.m.encrypt(append_PKCS7_padding(data), self.cbc, self.chKey, self.sz, self.chIV)
		return ''.join(map(chr, cypher))

def Decrypt(self, data):
		chData = [ord(i) for i in data]
		return self.m.decrypt(chData, self.sz, self.cbc, self.chKey, self.sz, self.chIV)

if crypter == 'pycrypto':
	crypter = Crypter_pycrypto()
#	print "Crypter: pycrypto"
elif crypter == 'ssl':
	crypter = Crypter_ssl()
#	print "Crypter: ssl"
else:
	crypter = Crypter_pure()
#	print "Crypter: pure"
	logging.warning("pycrypto or libssl not found, decryption may be slow")

##########################################
# end of pywallet crypter implementation #
##########################################

# secp256k1

try:
	_p = 0xFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFEFFFFFC2FL
except:
	print "Python 3 is not supported, you need Python 2.7.x"
	exit(1)
_r = 0xFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFEBAAEDCE6AF48A03BBFD25E8CD0364141L
_b = 0x0000000000000000000000000000000000000000000000000000000000000007L
_a = 0x0000000000000000000000000000000000000000000000000000000000000000L
_Gx = 0x79BE667EF9DCBBAC55A06295CE870B07029BFCDB2DCE28D959F2815B16F81798L
_Gy = 0x483ada7726a3c4655da4fbfc0e1108a8fd17b448a68554199c47d08ffb10d4b8L

try:
	import ecdsa
	from ecdsa import der
	curve_secp256k1 = ecdsa.ellipticcurve.CurveFp (_p, _a, _b)
	generator_secp256k1 = g = ecdsa.ellipticcurve.Point (curve_secp256k1, _Gx, _Gy, _r)
	randrange = random.SystemRandom().randrange
	secp256k1 = ecdsa.curves.Curve ( "secp256k1", curve_secp256k1, generator_secp256k1, (1, 3, 132, 0, 10) )
	ecdsa.curves.curves.append (secp256k1)
except:
	missing_dep.append('ecdsa')

# python-ecdsa code (EC_KEY implementation)

class CurveFp( object ):
	def __init__( self, p, a, b ):
		self.__p = p
		self.__a = a
		self.__b = b

def p( self ):
		return self.__p

def a( self ):
		return self.__a

def b( self ):
		return self.__b

def contains_point( self, x, y ):
		return ( y * y - ( x * x * x + self.__a * x + self.__b ) ) % self.__p == 0

class Point( object ):
	def __init__( self, curve, x, y, order = None ):
		self.__curve = curve
		self.__x = x
		self.__y = y
		self.__order = order
		if self.__curve: assert self.__curve.contains_point( x, y )
		if order: assert self * order == INFINITY

def __add__( self, other ):
		if other == INFINITY: return self
		if self == INFINITY: return other
		assert self.__curve == other.__curve
		if self.__x == other.__x:
			if ( self.__y + other.__y ) % self.__curve.p() == 0:
				return INFINITY
			else:
				return self.double()

p = self.__curve.p()
		l = ( ( other.__y - self.__y ) * \
					inverse_mod( other.__x - self.__x, p ) ) % p
		x3 = ( l * l - self.__x - other.__x ) % p
		y3 = ( l * ( self.__x - x3 ) - self.__y ) % p
		return Point( self.__curve, x3, y3 )

def __mul__( self, other ):
		def leftmost_bit( x ):
			assert x > 0
			result = 1L
			while result <= x: result = 2 * result
			return result / 2

e = other
		if self.__order: e = e % self.__order
		if e == 0: return INFINITY
		if self == INFINITY: return INFINITY
		assert e > 0
		e3 = 3 * e
		negative_self = Point( self.__curve, self.__x, -self.__y, self.__order )
		i = leftmost_bit( e3 ) / 2
		result = self
		while i > 1:
			result = result.double()
			if ( e3 & i ) != 0 and ( e & i ) == 0: result = result + self
			if ( e3 & i ) == 0 and ( e & i ) != 0: result = result + negative_self
			i = i / 2
		return result

def __rmul__( self, other ):
		return self * other

def __str__( self ):
		if self == INFINITY: return "infinity"
		return "(%d,%d)" % ( self.__x, self.__y )

def double( self ):
		if self == INFINITY:
			return INFINITY

p = self.__curve.p()
		a = self.__curve.a()
		l = ( ( 3 * self.__x * self.__x + a ) * \
					inverse_mod( 2 * self.__y, p ) ) % p
		x3 = ( l * l - 2 * self.__x ) % p
		y3 = ( l * ( self.__x - x3 ) - self.__y ) % p
		return Point( self.__curve, x3, y3 )

def x( self ):
		return self.__x

def y( self ):
		return self.__y

def curve( self ):
		return self.__curve

def order( self ):
		return self.__order

INFINITY = Point( None, None, None )

def inverse_mod( a, m ):
	if a < 0 or m <= a: a = a % m
	c, d = a, m
	uc, vc, ud, vd = 1, 0, 0, 1
	while c != 0:
		q, c, d = divmod( d, c ) + ( c, )
		uc, vc, ud, vd = ud - q*uc, vd - q*vc, uc, vc
	assert d == 1
	if ud > 0: return ud
	else: return ud + m

class Signature( object ):
	def __init__( self, r, s ):
		self.r = r
		self.s = s

class Public_key( object ):
	def __init__( self, generator, point, c=None ):
		self.curve = generator.curve()
		self.generator = generator
		self.point = point
		self.compressed = c
		n = generator.order()
		if not n:
			raise RuntimeError, "Generator point must have order."
		if not n * point == INFINITY:
			raise RuntimeError, "Generator point order is bad."
		if point.x() < 0 or n <= point.x() or point.y() < 0 or n <= point.y():
			raise RuntimeError, "Generator point has x or y out of range."

def verifies( self, hash, signature ):
		G = self.generator
		n = G.order()
		r = signature.r
		s = signature.s
		if r < 1 or r > n-1: return False
		if s < 1 or s > n-1: return False
		c = inverse_mod( s, n )
		u1 = ( hash * c ) % n
		u2 = ( r * c ) % n
		xy = u1 * G + u2 * self.point
		v = xy.x() % n
		return v == r

def ser(self):
		if self.compressed:
			pk=('%02x'%(2+(self.point.y()&1))) + '%064x' % self.point.x()
		else:
			pk='04%064x%064x' % (self.point.x(), self.point.y())

return pk.decode('hex')

def get_addr(self, v=0):
		return public_key_to_bc_address(self.ser(), v)

class Private_key( object ):
	def __init__( self, public_key, secret_multiplier ):
		self.public_key = public_key
		self.secret_multiplier = secret_multiplier

def der( self ):
		hex_der_key = '06052b8104000a30740201010420' + \
			'%064x' % self.secret_multiplier + \
			'a00706052b8104000aa14403420004' + \
			'%064x' % self.public_key.point.x() + \
			'%064x' % self.public_key.point.y()
		return hex_der_key.decode('hex')

def sign( self, hash, random_k ):
		G = self.public_key.generator
		n = G.order()
		k = random_k % n
		p1 = k * G
		r = p1.x()
		if r == 0: raise RuntimeError, "amazingly unlucky random number r"
		s = ( inverse_mod( k, n ) * \
					( hash + ( self.secret_multiplier * r ) % n ) ) % n
		if s == 0: raise RuntimeError, "amazingly unlucky random number s"
		return Signature( r, s )

class EC_KEY(object):
	def __init__( self, secret ):
		curve = CurveFp( _p, _a, _b )
		generator = Point( curve, _Gx, _Gy, _r )
		self.pubkey = Public_key( generator, generator * secret )
		self.privkey = Private_key( self.pubkey, secret )
		self.secret = secret

# end of python-ecdsa code

# pywallet openssl private key implementation

def i2d_ECPrivateKey(pkey, compressed=False):#, crypted=True):
	part3='a081a53081a2020101302c06072a8648ce3d0101022100'  # for uncompressed keys
	if compressed:
		if True:#not crypted:  ## Bitcoin accepts both part3's for crypted wallets...
			part3='a08185308182020101302c06072a8648ce3d0101022100'  # for compressed keys
		key = '3081d30201010420' + \
			'%064x' % pkey.secret + \
			part3 + \
			'%064x' % _p + \
			'3006040100040107042102' + \
			'%064x' % _Gx + \
			'022100' + \
			'%064x' % _r + \
			'020101a124032200'
	else:
		key = '308201130201010420' + \
			'%064x' % pkey.secret + \
			part3 + \
			'%064x' % _p + \
			'3006040100040107044104' + \
			'%064x' % _Gx + \
			'%064x' % _Gy + \
			'022100' + \
			'%064x' % _r + \
			'020101a144034200'

return key.decode('hex') + i2o_ECPublicKey(pkey, compressed)

def i2o_ECPublicKey(pkey, compressed=False):
	# public keys are 65 bytes long (520 bits)
	# 0x04 + 32-byte X-coordinate + 32-byte Y-coordinate
	# 0x00 = point at infinity, 0x02 and 0x03 = compressed, 0x04 = uncompressed
	# compressed keys: <sign> <x> where <sign> is 0x02 if y is even and 0x03 if y is odd
	if compressed:
		if pkey.pubkey.point.y() & 1:
			key = '03' + '%064x' % pkey.pubkey.point.x()
		else:
			key = '02' + '%064x' % pkey.pubkey.point.x()
	else:
		key = '04' + \
			'%064x' % pkey.pubkey.point.x() + \
			'%064x' % pkey.pubkey.point.y()

return key.decode('hex')

# bitcointools hashes and base58 implementation

def hash_160(public_key):
 	md = hashlib.new('ripemd160')
	md.update(hashlib.sha256(public_key).digest())
	return md.digest()

def public_key_to_bc_address(public_key, v=None):
	if v==None:
		v=addrtype
	h160 = hash_160(public_key)
	return hash_160_to_bc_address(h160, v)

def hash_160_to_bc_address(h160, v=None):
	if v==None:
		v=addrtype
	vh160 = chr(v) + h160
	h = Hash(vh160)
	addr = vh160 + h[0:4]
	return b58encode(addr)

def bc_address_to_hash_160(addr):
	bytes = b58decode(addr, 25)
	return bytes[1:21]

__b58chars = '123456789ABCDEFGHJKLMNPQRSTUVWXYZabcdefghijkmnopqrstuvwxyz'
__b58base = len(__b58chars)

def b58encode(v):
	""" encode v, which is a string of bytes, to base58.
	"""

long_value = 0L
	for (i, c) in enumerate(v[::-1]):
		long_value += (256**i) * ord(c)

result = ''
	while long_value >= __b58base:
		div, mod = divmod(long_value, __b58base)
		result = __b58chars[mod] + result
		long_value = div
	result = __b58chars[long_value] + result

# Bitcoin does a little leading-zero-compression:
	# leading 0-bytes in the input become leading-1s
	nPad = 0
	for c in v:
		if c == '\0': nPad += 1
		else: break

return (__b58chars[0]*nPad) + result

def b58decode(v, length):
	""" decode v into a string of len bytes
	"""
	long_value = 0L
	for (i, c) in enumerate(v[::-1]):
		long_value += __b58chars.find(c) * (__b58base**i)

result = ''
	while long_value >= 256:
		div, mod = divmod(long_value, 256)
		result = chr(mod) + result
		long_value = div
	result = chr(long_value) + result

nPad = 0
	for c in v:
		if c == __b58chars[0]: nPad += 1
		else: break

result = chr(0)*nPad + result
	if length is not None and len(result) != length:
		return None

return result

# end of bitcointools base58 implementation

# address handling code

def long_hex(bytes):
	return bytes.encode('hex_codec')

def Hash(data):
	return hashlib.sha256(hashlib.sha256(data).digest()).digest()

def EncodeBase58Check(secret):
	hash = Hash(secret)
	return b58encode(secret + hash[0:4])

def DecodeBase58Check(sec):
	vchRet = b58decode(sec, None)
	secret = vchRet[0:-4]
	csum = vchRet[-4:]
	hash = Hash(secret)
	cs32 = hash[0:4]
	if cs32 != csum:
		return None
	else:
		return secret

def str_to_long(b):
	res = 0
	pos = 1
	for a in reversed(b):
		res += ord(a) * pos
		pos *= 256
	return res

def PrivKeyToSecret(privkey):
	if len(privkey) == 279:
		return privkey[9:9+32]
	else:
		return privkey[8:8+32]

def SecretToASecret(secret, compressed=False):
	prefix = chr((addrtype+128)&255)
	if addrtype==48:  #assuming Litecoin
		prefix = chr(128)
	vchIn = prefix + secret
	if compressed: vchIn += '\01'
	return EncodeBase58Check(vchIn)

def ASecretToSecret(sec):
	vch = DecodeBase58Check(sec)
	if not vch:
		return False
	if vch[0] != chr((addrtype+128)&255):
		print 'Warning: adress prefix seems bad (%d vs %d)'%(ord(vch[0]), (addrtype+128)&255)
	return vch[1:]

def regenerate_key(sec):
	b = ASecretToSecret(sec)
	if not b:
		return False
	b = b[0:32]
	secret = int('0x' + b.encode('hex'), 16)
	return EC_KEY(secret)

def GetPubKey(pkey, compressed=False):
	return i2o_ECPublicKey(pkey, compressed)

def GetPrivKey(pkey, compressed=False):
	return i2d_ECPrivateKey(pkey, compressed)

def GetSecret(pkey):
	return ('%064x' % pkey.secret).decode('hex')

def is_compressed(sec):
	b = ASecretToSecret(sec)
	return len(b) == 33

# bitcointools wallet.dat handling code

def parse_CAddress(vds):
	d = {'ip':'0.0.0.0','port':0,'nTime': 0}
	try:
		d['nVersion'] = vds.read_int32()
		d['nTime'] = vds.read_uint32()
		d['nServices'] = vds.read_uint64()
		d['pchReserved'] = vds.read_bytes(12)
		d['ip'] = socket.inet_ntoa(vds.read_bytes(4))
		d['port'] = vds.read_uint16()
	except:
		pass
	return d

def deserialize_CAddress(d):
	return d['ip']+":"+str(d['port'])

def parse_BlockLocator(vds):
	d = { 'hashes' : [] }
	nHashes = vds.read_compact_size()
	for i in xrange(nHashes):
		d['hashes'].append(vds.read_bytes(32))
		return d

def deserialize_BlockLocator(d):
  result = "Block Locator top: "+d['hashes'][0][::-1].encode('hex_codec')
  return result

def parse_setting(setting, vds):
	if setting[0] == "f":	# flag (boolean) settings
		return str(vds.read_boolean())
	elif setting[0:4] == "addr": # CAddress
		d = parse_CAddress(vds)
		return deserialize_CAddress(d)
	elif setting == "nTransactionFee":
		return vds.read_int64()
	elif setting == "nLimitProcessors":
		return vds.read_int32()
	return 'unknown setting'

class SerializationError(Exception):
	""" Thrown when there's a problem deserializing or serializing """

def search_patterns_on_disk(device, size, inc, patternlist):   # inc must be higher than 1k
	try:
		otype=os.O_RDONLY|os.O_BINARY
	except:
		otype=os.O_RDONLY
	try:
		fd = os.open(device, otype)
	except Exception as e:
		print "Can't open %s, check the path or try as root"%device
		print "  Error:", e.args
		exit(0)

i = 0
	data=''

tzero=time.time()
	sizetokeep=0
	BlocksToInspect=dict(map(lambda x:[x,[]], patternlist))
	syst=systype()
	lendataloaded=None
	writeProgressEvery=100*Mo
	while i < int(size) and (lendataloaded!=0 or lendataloaded==None):
		if int(i/writeProgressEvery)!=int((i+inc)/writeProgressEvery):
			print "%.2f Go read"%(i/1e9)
		try:
			datakept=data[-sizetokeep:]
			data = datakept+os.read(fd, inc)
			lendataloaded = len(data)-len(datakept)   #should be inc
			for text in patternlist:
				if text in data:
					BlocksToInspect[text].append([i-len(datakept), data, len(datakept)])
					pass
			sizetokeep=20   # 20 because all the patterns have a len<20. Could be higher.
			i += lendataloaded
		except Exception as exc:
			if lendataloaded%512>0:
				raise Exception("SPOD error 1: %d, %d"%(lendataloaded, i-len(datakept)))
			os.lseek(fd, lendataloaded, os.SEEK_CUR)
			print str(exc)
			i += lendataloaded
			continue
	os.close(fd)

AllOffsets=dict(map(lambda x:[x,[]], patternlist))
	for text,blocks in BlocksToInspect.items():
		for offset,data,ldk in blocks:  #ldk = len(datakept)
			offsetslist=[offset+m.start() for m in re.finditer(text, data)]
			AllOffsets[text].extend(offsetslist)

AllOffsets['PRFdevice']=device
	AllOffsets['PRFdt']=time.time()-tzero
	AllOffsets['PRFsize']=i
	return AllOffsets

def multiextract(s, ll):
	r=[]
	cursor=0
	for length in ll:
		r.append(s[cursor:cursor+length])
		cursor+=length
	if s[cursor:]!='':
		r.append(s[cursor:])
	return r

class RecovCkey(object):
	def __init__(self, epk, pk):
		self.encrypted_pk=epk
		self.public_key=pk
		self.mkey=None
		self.privkey=None

class RecovMkey(object):
	def __init__(self, ekey, salt, nditer, ndmethod, nid):
		self.encrypted_key=ekey
		self.salt=salt
		self.iterations=nditer
		self.method=ndmethod
		self.id=nid

def readpartfile(fd, offset, length):   #make everything 512*n because of windows...
	rest=offset%512
	new_offset=offset-rest
	big_length=512*(int((length+rest-1)/512)+1)
	os.lseek(fd, new_offset, os.SEEK_SET)
	d=os.read(fd, big_length)
	return d[rest:rest+length]

def recov_ckey(fd, offset):
	d=readpartfile(fd, offset-49, 122)
	me=multiextract(d, [1,48,4,4,1])

checks=[]
	checks.append([0, '30'])
	checks.append([3, '636b6579'])
	if sum(map(lambda x:int(me[x[0]]!=x[1].decode('hex')), checks)):  #number of false statements
		return None

return me

def recov_mkey(fd, offset):
	d=readpartfile(fd, offset-72, 84)
	me=multiextract(d, [4,48,1,8,4,4,1,2,8,4])

checks=[]
	checks.append([0, '43000130'])
	checks.append([2, '08'])
	checks.append([6, '00'])
	checks.append([8, '090001046d6b6579'])
	if sum(map(lambda x:int(me[x[0]]!=x[1].decode('hex')), checks)):  #number of false statements
		return None

return me

def recov_uckey(fd, offset):
	checks=[]

d=readpartfile(fd, offset-217, 223)
	if d[-7]=='\x26':
		me=multiextract(d, [2,1,4,1,32,141,33,2,1,6])

checks.append([0, '3081'])
		checks.append([2, '02010104'])
	elif d[-7]=='\x46':
		d=readpartfile(fd, offset-282, 286)

me=multiextract(d, [2,1,4,1,32,173,65,1,2,5])

checks.append([0, '8201'])
		checks.append([2, '02010104'])
		checks.append([-1, '460001036b'])
	else:
		return None

if sum(map(lambda x:int(me[x[0]]!=x[1].decode('hex')), checks)):  #number of false statements
		return None

return me

def starts_with(s, b):
	return len(s)>=len(b) and s[:len(b)]==b

def recov(device, passes, size=102400, inc=10240, outputdir='.'):
	if inc%512>0:
		inc-=inc%512   #inc must be 512*n on Windows... Don't ask me why...

nameToDBName={'mkey':'\x09\x00\x01\x04mkey','ckey':'\x27\x00\x01\x04ckey','key':'\x00\x01\x03key',}

if not starts_with(device, 'PartialRecoveryFile:'):
		r=search_patterns_on_disk(device, size, inc, map(lambda x:nameToDBName[x], ['mkey', 'ckey', 'key']))
		f=open(outputdir+'/pywallet_partial_recovery_%d.dat'%ts(), 'w')
		f.write(str(r))
		f.close()
		print "\nRead %.1f Go in %.1f minutes\n"%(r['PRFsize']/1e9, r['PRFdt']/60.0)
	else:
		prf=device[20:]
		f=open(prf, 'r')
		content=f.read()
		f.close()
		cmd=("z = "+content+"")
		exec cmd in locals()
		r=z
		device=r['PRFdevice']
		print "\nLoaded %.1f Go from %s\n"%(r['PRFsize']/1e9, device)

try:
		otype=os.O_RDONLY|os.O_BINARY
	except:
		otype=os.O_RDONLY
	fd = os.open(device, otype)

mkeys=[]
	crypters=[]
	syst=systype()
	for offset in r[nameToDBName['mkey']]:
		s=recov_mkey(fd, offset)
		if s==None:
			continue
		newmkey=RecovMkey(s[1],s[3],int(s[5][::-1].encode('hex'), 16),int(s[4][::-1].encode('hex'), 16),int(s[-1][::-1].encode('hex'), 16))
		mkeys.append([offset,newmkey])

print "Found", len(mkeys), 'possible wallets'

ckeys=[]
	for offset in r[nameToDBName['ckey']]:
		s=recov_ckey(fd, offset)
		if s==None:
			continue
		newckey=RecovCkey(s[1], s[5][:int(s[4].encode('hex'),16)])
		ckeys.append([offset,newckey])
	print "Found", len(ckeys), 'possible encrypted keys'

uckeys=[]
	for offset in r[nameToDBName['key']]:
		s=recov_uckey(fd, offset)
		if s==None:
			continue
		uckeys.append(s[4])
	print "Found", len(uckeys), 'possible unencrypted keys'

os.close(fd)

list_of_possible_keys_per_master_key=dict(map(lambda x:[x[1],[]], mkeys))
	for cko,ck in ckeys:
		tl=map(lambda x:[abs(x[0]-cko)]+x, mkeys)
		tl=sorted(tl, key=lambda x:x[0])
		list_of_possible_keys_per_master_key[tl[0][2]].append(ck)

cpt=0
	mki=1
	tzero=time.time()
	if len(passes)==0:
		if len(ckeys)>0:
			print "Can't decrypt them as you didn't provide any passphrase."
	else:
		for mko,mk in mkeys:
			list_of_possible_keys=list_of_possible_keys_per_master_key[mk]
			sys.stdout.write( "\nPossible wallet #"+str(mki))
			sys.stdout.flush()
			for ppi,pp in enumerate(passes):
				sys.stdout.write( "\n    with passphrase #"+str(ppi+1)+"  ")
				sys.stdout.flush()
				failures_in_a_row=0
#				print "SKFP params:", pp, mk.salt, mk.iterations, mk.method
				res = crypter.SetKeyFromPassphrase(pp, mk.salt, mk.iterations, mk.method)
				if res == 0:
					print "Unsupported derivation method"
					sys.exit(1)
				masterkey = crypter.Decrypt(mk.encrypted_key)
				crypter.SetKey(masterkey)
				for ck in list_of_possible_keys:
					if cpt%10==9 and failures_in_a_row==0:
						sys.stdout.write('.')
						sys.stdout.flush()
					if failures_in_a_row>5:
						break
					crypter.SetIV(Hash(ck.public_key))
					secret = crypter.Decrypt(ck.encrypted_pk)
					compressed = ck.public_key[0] != '\04'

pkey = EC_KEY(int('0x' + secret.encode('hex'), 16))
					if ck.public_key != GetPubKey(pkey, compressed):
						failures_in_a_row+=1
					else:
						failures_in_a_row=0
						ck.mkey=mk
						ck.privkey=secret
					cpt+=1
			mki+=1
		print "\n"
		tone=time.time()
		try:
			calcspeed=1.0*cpt/(tone-tzero)*60  #calc/min
		except:
			calcspeed=1.0
		if calcspeed==0:
			calcspeed=1.0

ckeys_not_decrypted=filter(lambda x:x[1].privkey==None, ckeys)
		refused_to_test_all_pps=True
		if len(ckeys_not_decrypted)==0:
			print "All the found encrypted private keys have been decrypted."
			return map(lambda x:x[1].privkey, ckeys)
		else:
			print "Private keys not decrypted: %d"%len(ckeys_not_decrypted)
			print "Trying all the remaining possibilities (%d) might take up to %d minutes."%(len(ckeys_not_decrypted)*len(passes)*len(mkeys),int(len(ckeys_not_decrypted)*len(passes)*len(mkeys)/calcspeed))
			cont=raw_input("Do you want to test them? (y/n): ")
			while len(cont)==0:
                                cont=raw_input("Do you want to test them? (y/n): ")
                        if cont[0]=='y':
                                refused_to_test_all_pps=False
                                cpt=0
                                for dist,mko,mk in tl:
                                        for ppi,pp in enumerate(passes):
                                                res = crypter.SetKeyFromPassphrase(pp, mk.salt, mk.iterations, mk.method)
                                                if res == 0:
                                                        logging.error("Unsupported derivation method")
                                                        sys.exit(1)
                                                masterkey = crypter.Decrypt(mk.encrypted_key)
                                                crypter.SetKey(masterkey)
                                                for cko,ck in ckeys_not_decrypted:
                                                        tl=map(lambda x:[abs(x[0]-cko)]+x, mkeys)
                                                        tl=sorted(tl, key=lambda x:x[0])
                                                        if mk==tl[0][2]:
                                                                continue         #because already tested
                                                        crypter.SetIV(Hash(ck.public_key))
                                                        secret = crypter.Decrypt(ck.encrypted_pk)
                                                        compressed = ck.public_key[0] != '\04'

pkey = EC_KEY(int('0x' + secret.encode('hex'), 16))
                                                        if ck.public_key == GetPubKey(pkey, compressed):
                                                                ck.mkey=mk
                                                                ck.privkey=secret
                                                        cpt+=1

print
		ckeys_not_decrypted=filter(lambda x:x[1].privkey==None, ckeys)
		if len(ckeys_not_decrypted)==0:
			print "All the found encrypted private keys have been finally decrypted."
		elif not refused_to_test_all_pps:
			print "Private keys not decrypted: %d"%len(ckeys_not_decrypted)
			print "Try another password, check the size of your partition or seek help"

uncrypted_ckeys=filter(lambda x:x!=None, map(lambda x:x[1].privkey, ckeys))
	uckeys.extend(uncrypted_ckeys)

return uckeys

def ts():
	return int(time.mktime(datetime.now().timetuple()))

def check_postkeys(key, postkeys):
	for i in postkeys:
		if key[:len(i)] == i:
			return True
	return False

def one_element_in(a, string):
	for i in a:
		if i in string:
			return True
	return False

def first_read(device, size, prekeys, inc=10000):
	t0 = ts()-1
	try:
		fd = os.open (device, os.O_RDONLY)
	except:
		print("Can't open %s, check the path or try as root"%device)
		exit(0)
	prekey = prekeys[0]
	data = ""
	i = 0
	data = os.read (fd, i)
	before_contained_key = False
	contains_key = False
	ranges = []

while i < int(size):
		if i%(10*Mio) > 0 and i%(10*Mio) <= inc:
			print("\n%.2f/%.2f Go"%(i/1e9, size/1e9))
			t = ts()
			speed = i/(t-t0)
			ETAts = size/speed + t0
			d = datetime.fromtimestamp(ETAts)
			print(d.strftime("   ETA: %H:%M:%S"))

try:
			data = os.read (fd, inc)
		except Exception as exc:
			os.lseek(fd, inc, os.SEEK_CUR)
			print str(exc)
			i += inc
			continue

contains_key = one_element_in(prekeys, data)

if not before_contained_key and contains_key:
			ranges.append(i)

if before_contained_key and not contains_key:
			ranges.append(i)

before_contained_key = contains_key

i += inc

os.close (fd)
	return ranges

def shrink_intervals(device, ranges, prekeys, inc=1000):
	prekey = prekeys[0]
	nranges = []
	fd = os.open (device, os.O_RDONLY)
	for j in range(len(ranges)/2):
		before_contained_key = False
		contains_key = False
		bi = ranges[2*j]
		bf = ranges[2*j+1]

mini_blocks = []
		k = bi
		while k <= bf + len(prekey) + 1:
			mini_blocks.append(k)
			k += inc
			mini_blocks.append(k)

for k in range(len(mini_blocks)/2):
			mini_blocks[2*k] -= len(prekey) +1
			mini_blocks[2*k+1] += len(prekey) +1

bi = mini_blocks[2*k]
			bf = mini_blocks[2*k+1]

os.lseek(fd, bi, 0)

data = os.read(fd, bf-bi+1)
			contains_key = one_element_in(prekeys, data)

if not before_contained_key and contains_key:
				nranges.append(bi)

if before_contained_key and not contains_key:
				nranges.append(bi+len(prekey) +1+len(prekey) +1)

before_contained_key = contains_key

os.close (fd)

return nranges

def find_offsets(device, ranges, prekeys):
	prekey = prekeys[0]
	list_offsets = []
	to_read = 0
	fd = os.open (device, os.O_RDONLY)
	for i in range(len(ranges)/2):
		bi = ranges[2*i]-len(prekey)-1
		os.lseek(fd, bi, 0)
		bf = ranges[2*i+1]+len(prekey)+1
		to_read += bf-bi+1
		buf = ""
		for j in range(len(prekey)):
			buf += "\x00"
		curs = bi

while curs <= bf:
			data = os.read(fd, 1)
			buf = buf[1:] + data
			if buf in prekeys:
				list_offsets.append(curs)
			curs += 1

os.close (fd)

return [to_read, list_offsets]

def read_keys(device, list_offsets):
	found_hexkeys = []
	fd = os.open (device, os.O_RDONLY)
	for offset in list_offsets:
		os.lseek(fd, offset+1, 0)
		data = os.read(fd, 40)
		hexkey = data[1:33].encode('hex')
		after_key = data[33:39].encode('hex')
		if hexkey not in found_hexkeys and check_postkeys(after_key.decode('hex'), postkeys):
			found_hexkeys.append(hexkey)

os.close (fd)

return found_hexkeys

def read_device_size(size):
	if size[-2] == 'i':
		unit = size[-3:]
		value = float(size[:-3])
	else:
		unit = size[-2:]
		value = float(size[:-2])
	exec 'unit = %s' % unit
	return int(value * unit)

def md5_2(a):
	return hashlib.md5(a).digest()

def md5_file(nf):
  try:
	fichier = file(nf, 'r').read()
	return md5_2(fichier)
  except:
	return 'zz'

def md5_onlinefile(add):
	page = urllib.urlopen(add).read()
	return md5_2(page)

class KEY:

def __init__ (self):
		  self.prikey = None
		  self.pubkey = None

def generate (self, secret=None):
		  if secret:
				exp = int ('0x' + secret.encode ('hex'), 16)
				self.prikey = ecdsa.SigningKey.from_secret_exponent (exp, curve=secp256k1)
		  else:
				self.prikey = ecdsa.SigningKey.generate (curve=secp256k1)
		  self.pubkey = self.prikey.get_verifying_key()
		  return self.prikey.to_der()

def set_privkey (self, key):
		  if len(key) == 279:
				seq1, rest = der.remove_sequence (key)
				integer, rest = der.remove_integer (seq1)
				octet_str, rest = der.remove_octet_string (rest)
				tag1, cons1, rest, = der.remove_constructed (rest)
				tag2, cons2, rest, = der.remove_constructed (rest)
				point_str, rest = der.remove_bitstring (cons2)
				self.prikey = ecdsa.SigningKey.from_string(octet_str, curve=secp256k1)
		  else:
				self.prikey = ecdsa.SigningKey.from_der (key)

def set_pubkey (self, key):
		  key = key[1:]
		  self.pubkey = ecdsa.VerifyingKey.from_string (key, curve=secp256k1)

def get_privkey (self):
		  _p = self.prikey.curve.curve.p ()
		  _r = self.prikey.curve.generator.order ()
		  _Gx = self.prikey.curve.generator.x ()
		  _Gy = self.prikey.curve.generator.y ()
		  encoded_oid2 = der.encode_oid (*(1, 2, 840, 10045, 1, 1))
		  encoded_gxgy = "\x04" + ("%64x" % _Gx).decode('hex') + ("%64x" % _Gy).decode('hex')
		  param_sequence = der.encode_sequence (
				ecdsa.der.encode_integer(1),
					der.encode_sequence (
					encoded_oid2,
					der.encode_integer (_p),
				),
				der.encode_sequence (
					der.encode_octet_string("\x00"),
					der.encode_octet_string("\x07"),
				),
				der.encode_octet_string (encoded_gxgy),
				der.encode_integer (_r),
				der.encode_integer (1),
		  );
		  encoded_vk = "\x00\x04" + self.pubkey.to_string ()
		  return der.encode_sequence (
				der.encode_integer (1),
				der.encode_octet_string (self.prikey.to_string ()),
				der.encode_constructed (0, param_sequence),
				der.encode_constructed (1, der.encode_bitstring (encoded_vk)),
		  )

def get_pubkey (self):
		  return "\x04" + self.pubkey.to_string()

def sign (self, hash):
		  sig = self.prikey.sign_digest (hash, sigencode=ecdsa.util.sigencode_der)
		  return sig.encode('hex')

def verify (self, hash, sig):
		  return self.pubkey.verify_digest (sig, hash, sigdecode=ecdsa.util.sigdecode_der)

def bool_to_int(b):
	if b:
		return 1
	return 0

class BCDataStream(object):
	def __init__(self):
		self.input = None
		self.read_cursor = 0

def clear(self):
		self.input = None
		self.read_cursor = 0

def write(self, bytes):	# Initialize with string of bytes
		if self.input is None:
			self.input = bytes
		else:
			self.input += bytes

def map_file(self, file, start):	# Initialize with bytes from file
		self.input = mmap.mmap(file.fileno(), 0, access=mmap.ACCESS_READ)
		self.read_cursor = start
	def seek_file(self, position):
		self.read_cursor = position
	def close_file(self):
		self.input.close()

def read_string(self):
		# Strings are encoded depending on length:
		# 0 to 252 :	1-byte-length followed by bytes (if any)
		# 253 to 65,535 : byte'253' 2-byte-length followed by bytes
		# 65,536 to 4,294,967,295 : byte '254' 4-byte-length followed by bytes
		# ... and the Bitcoin client is coded to understand:
		# greater than 4,294,967,295 : byte '255' 8-byte-length followed by bytes of string
		# ... but I don't think it actually handles any strings that big.
		if self.input is None:
			raise SerializationError("call write(bytes) before trying to deserialize")

try:
			length = self.read_compact_size()
		except IndexError:
			raise SerializationError("attempt to read past end of buffer")

return self.read_bytes(length)

def write_string(self, string):
		# Length-encoded as with read-string
		self.write_compact_size(len(string))
		self.write(string)

def read_bytes(self, length):
		try:
			result = self.input[self.read_cursor:self.read_cursor+length]
			self.read_cursor += length
			return result
		except IndexError:
			raise SerializationError("attempt to read past end of buffer")

return ''

def read_boolean(self): return self.read_bytes(1)[0] != chr(0)
	def read_int16(self): return self._read_num('<h')
	def read_uint16(self): return self._read_num('<H')
	def read_int32(self): return self._read_num('<i')
	def read_uint32(self): return self._read_num('<I')
	def read_int64(self): return self._read_num('<q')
	def read_uint64(self): return self._read_num('<Q')

def write_boolean(self, val): return self.write(chr(bool_to_int(val)))
	def write_int16(self, val): return self._write_num('<h', val)
	def write_uint16(self, val): return self._write_num('<H', val)
	def write_int32(self, val): return self._write_num('<i', val)
	def write_uint32(self, val): return self._write_num('<I', val)
	def write_int64(self, val): return self._write_num('<q', val)
	def write_uint64(self, val): return self._write_num('<Q', val)

def read_compact_size(self):
		size = ord(self.input[self.read_cursor])
		self.read_cursor += 1
		if size == 253:
			size = self._read_num('<H')
		elif size == 254:
			size = self._read_num('<I')
		elif size == 255:
			size = self._read_num('<Q')
		return size

def write_compact_size(self, size):
		if size < 0:
			raise SerializationError("attempt to write size < 0")
		elif size < 253:
			 self.write(chr(size))
		elif size < 2**16:
			self.write('\xfd')
			self._write_num('<H', size)
		elif size < 2**32:
			self.write('\xfe')
			self._write_num('<I', size)
		elif size < 2**64:
			self.write('\xff')
			self._write_num('<Q', size)

def _read_num(self, format):
		(i,) = struct.unpack_from(format, self.input, self.read_cursor)
		self.read_cursor += struct.calcsize(format)
		return i

def _write_num(self, format, num):
		s = struct.pack(format, num)
		self.write(s)

def open_wallet(db_env, walletfile, writable=False):
	db = DB(db_env)
	if writable:
		DB_TYPEOPEN = DB_CREATE
	else:
		DB_TYPEOPEN = DB_RDONLY
	flags = DB_THREAD | DB_TYPEOPEN
	try:
		r = db.open(walletfile, "main", DB_BTREE, flags)
	except DBError:
		r = True

if r is not None:
		logging.error("Couldn't open wallet.dat/main. Try quitting Bitcoin and running this again.")
		sys.exit(1)

return db

def inversetxid(txid):
	if len(txid) is not 64:
		print("Bad txid")
		return "CORRUPTEDTXID:"+txid
#		exit(0)
	new_txid = ""
	for i in range(32):
		new_txid += txid[62-2*i];
		new_txid += txid[62-2*i+1];
	return new_txid

def parse_wallet(db, item_callback):
	kds = BCDataStream()
	vds = BCDataStream()

def parse_TxIn(vds):
		d = {}
		d['prevout_hash'] = vds.read_bytes(32).encode('hex')
		d['prevout_n'] = vds.read_uint32()
		d['scriptSig'] = vds.read_bytes(vds.read_compact_size()).encode('hex')
		d['sequence'] = vds.read_uint32()
		return d

def parse_TxOut(vds):
		d = {}
		d['value'] = vds.read_int64()/1e8
		d['scriptPubKey'] = vds.read_bytes(vds.read_compact_size()).encode('hex')
		return d

for (key, value) in db.items():
		d = { }

kds.clear(); kds.write(key)
		vds.clear(); vds.write(value)

type = kds.read_string()

d["__key__"] = key
		d["__value__"] = value
		d["__type__"] = type

try:
			if type == "tx":
				d["tx_id"] = inversetxid(kds.read_bytes(32).encode('hex_codec'))
				start = vds.read_cursor
				d['version'] = vds.read_int32()
				n_vin = vds.read_compact_size()
				d['txIn'] = []
				for i in xrange(n_vin):
					d['txIn'].append(parse_TxIn(vds))
				n_vout = vds.read_compact_size()
				d['txOut'] = []
				for i in xrange(n_vout):
					d['txOut'].append(parse_TxOut(vds))
				d['lockTime'] = vds.read_uint32()
				d['tx'] = vds.input[start:vds.read_cursor].encode('hex_codec')
				d['txv'] = value.encode('hex_codec')
				d['txk'] = key.encode('hex_codec')
			elif type == "name":
				d['hash'] = kds.read_string()
				d['name'] = vds.read_string()
			elif type == "version":
				d['version'] = vds.read_uint32()
			elif type == "minversion":
				d['minversion'] = vds.read_uint32()
			elif type == "setting":
				d['setting'] = kds.read_string()
				d['value'] = parse_setting(d['setting'], vds)
			elif type == "key":
				d['public_key'] = kds.read_bytes(kds.read_compact_size())
				d['private_key'] = vds.read_bytes(vds.read_compact_size())
			elif type == "wkey":
				d['public_key'] = kds.read_bytes(kds.read_compact_size())
				d['private_key'] = vds.read_bytes(vds.read_compact_size())
				d['created'] = vds.read_int64()
				d['expires'] = vds.read_int64()
				d['comment'] = vds.read_string()
			elif type == "defaultkey":
				d['key'] = vds.read_bytes(vds.read_compact_size())
			elif type == "pool":
				d['n'] = kds.read_int64()
				d['nVersion'] = vds.read_int32()
				d['nTime'] = vds.read_int64()
				d['public_key'] = vds.read_bytes(vds.read_compact_size())
			elif type == "acc":
				d['account'] = kds.read_string()
				d['nVersion'] = vds.read_int32()
				d['public_key'] = vds.read_bytes(vds.read_compact_size())
			elif type == "acentry":
				d['account'] = kds.read_string()
				d['n'] = kds.read_uint64()
				d['nVersion'] = vds.read_int32()
				d['nCreditDebit'] = vds.read_int64()
				d['nTime'] = vds.read_int64()
				d['otherAccount'] = vds.read_string()
				d['comment'] = vds.read_string()
			elif type == "bestblock":
				d['nVersion'] = vds.read_int32()
				d.update(parse_BlockLocator(vds))
			elif type == "ckey":
				d['public_key'] = kds.read_bytes(kds.read_compact_size())
				d['encrypted_private_key'] = vds.read_bytes(vds.read_compact_size())
			elif type == "mkey":
				d['nID'] = kds.read_uint32()
				d['encrypted_key'] = vds.read_string()
				d['salt'] = vds.read_string()
				d['nDerivationMethod'] = vds.read_uint32()
				d['nDerivationIterations'] = vds.read_uint32()
				d['otherParams'] = vds.read_string()

item_callback(type, d)

except Exception, e:
			traceback.print_exc()
			print("ERROR parsing wallet.dat, type %s" % type)
			print("key data: %s"%key)
			print("key data in hex: %s"%key.encode('hex_codec'))
			print("value data in hex: %s"%value.encode('hex_codec'))
			sys.exit(1)

def delete_from_wallet(db_env, walletfile, typedel, kd):
	db = open_wallet(db_env, walletfile, True)
	kds = BCDataStream()
	vds = BCDataStream()

deleted_items = 0

if not isinstance(kd, list):
		kd=[kd]

if typedel=='tx' and kd!=['all']:
		for keydel in kd:
			db.delete('\x02\x74\x78'+keydel.decode('hex')[::-1])
			deleted_items+=1

else:
		for i,keydel in enumerate(kd):
			for (key, value) in db.items():
				kds.clear(); kds.write(key)
				vds.clear(); vds.write(value)
				type = kds.read_string()

if typedel == "tx" and type == "tx":
					db.delete(key)
					deleted_items+=1
				elif typedel == "key":
					if type == "key" or type == "ckey":
						if keydel == public_key_to_bc_address(kds.read_bytes(kds.read_compact_size())):
							db.delete(key)
							deleted_items+=1
					elif type == "pool":
						vds.read_int32()
						vds.read_int64()
						if keydel == public_key_to_bc_address(vds.read_bytes(vds.read_compact_size())):
							db.delete(key)
							deleted_items+=1
					elif type == "name":
						if keydel == kds.read_string():
							db.delete(key)
							deleted_items+=1

db.close()
	return deleted_items

def merge_keys_lists(la, lb):
	lr={}
	llr=[]
	for k in la:
		lr[k[0]]=k[1]

for k in lb:
		if k[0] in lr.keys():
			lr[k[0]]=lr[k[0]]+" / "+k[1]
		else:
			lr[k[0]]=k[1]

for k,j in lr.items():
		llr.append([k,j])

return llr

def merge_wallets(wadir, wa, wbdir, wb, wrdir, wr, passphrase_a, passphrase_b, passphrase_r):
	global passphrase
	passphrase_LAST=passphrase

#Read Wallet 1
	passphrase=passphrase_a
	dba_env = create_env(wadir)
	crypted_a = read_wallet(json_db, dba_env, wa, True, True, "", None)['crypted']

list_keys_a=[]
	for i in json_db['keys']:
		try:
			label=i['label']
		except:
			label="#Reserve"
		try:
			list_keys_a.append([i['secret'], label])
		except:
			pass

if len(list_keys_a)==0:
		return [False, "Something went wrong with the first wallet."]

#Read Wallet 2
	passphrase=passphrase_b
	dbb_env = create_env(wbdir)
	crypted_b = read_wallet(json_db, dbb_env, wb, True, True, "", None)['crypted']

list_keys_b=[]
	for i in json_db['keys']:
		try:
			label=i['label']
		except:
			label="#Reserve"
		try:
			list_keys_b.append([i['secret'], label])
		except:
			pass
	if len(list_keys_b)==0:
		return [False, "Something went wrong with the second wallet."]

m=merge_keys_lists(list_keys_a,list_keys_b)

#Create new wallet
	dbr_env = create_env(wrdir)
	create_new_wallet(dbr_env, wr, 80100)

dbr = open_wallet(dbr_env, wr, True)
	update_wallet(dbr, 'minversion', { 'minversion' : 60000})

if len(passphrase_r)>0:
		NPP_salt=os.urandom(8)
		NPP_rounds=int(50000+random.random()*20000)
		NPP_method=0
		NPP_MK=os.urandom(32)

crypter.SetKeyFromPassphrase(passphrase_r, NPP_salt, NPP_rounds, NPP_method)
		NPP_EMK = crypter.Encrypt(NPP_MK)

update_wallet(dbr, 'mkey', {
		    "encrypted_key": NPP_EMK,
			'nDerivationIterations' : NPP_rounds,
			'nDerivationMethod' : NPP_method,
			'nID' : 1,
			'otherParams' : ''.decode('hex'),
		    "salt": NPP_salt
		})

dbr.close()

t='\n'.join(map(lambda x:';'.join(x), m))
	passphrase=passphrase_r

global global_merging_message

global_merging_message=["Merging...","Merging..."]
	thread.start_new_thread(import_csv_keys, ("\x00"+t, wrdir, wr,))
	t=""

passphrase=passphrase_LAST

return [True]

def random_string(l, alph="0123456789abcdef"):
	r=""
	la=len(alph)
	for i in range(l):
		r+=alph[int(la*(random.random()))]
	return r

def update_wallet(db, types, datas, paramsAreLists=False):
	"""Write a single item to the wallet.
	db must be open with writable=True.
	type and data are the type code and data dictionary as parse_wallet would
	give to item_callback.
	data's __key__, __value__ and __type__ are ignored; only the primary data
	fields are used.
	"""

if not paramsAreLists:
		types=[types]
		datas=[datas]

if len(types)!=len(datas):
		raise Exception("UpdateWallet: sizes are different")

for it,type in enumerate(types):
		data=datas[it]

d = data
		kds = BCDataStream()
		vds = BCDataStream()

# Write the type code to the key
		kds.write_string(type)
		vds.write("")						 # Ensure there is something

try:
			if type == "tx":
	#			raise NotImplementedError("Writing items of type 'tx'")
				kds.write(d['txi'][6:].decode('hex_codec'))
				vds.write(d['txv'].decode('hex_codec'))
			elif type == "name":
				kds.write_string(d['hash'])
				vds.write_string(d['name'])
			elif type == "version":
				vds.write_uint32(d['version'])
			elif type == "minversion":
				vds.write_uint32(d['minversion'])
			elif type == "setting":
				raise NotImplementedError("Writing items of type 'setting'")
				kds.write_string(d['setting'])
				#d['value'] = parse_setting(d['setting'], vds)
			elif type == "key":
				kds.write_string(d['public_key'])
				vds.write_string(d['private_key'])
			elif type == "wkey":
				kds.write_string(d['public_key'])
				vds.write_string(d['private_key'])
				vds.write_int64(d['created'])
				vds.write_int64(d['expires'])
				vds.write_string(d['comment'])
			elif type == "defaultkey":
				vds.write_string(d['key'])
			elif type == "pool":
				kds.write_int64(d['n'])
				vds.write_int32(d['nVersion'])
				vds.write_int64(d['nTime'])
				vds.write_string(d['public_key'])
			elif type == "acc":
				kds.write_string(d['account'])
				vds.write_int32(d['nVersion'])
				vds.write_string(d['public_key'])
			elif type == "acentry":
				kds.write_string(d['account'])
				kds.write_uint64(d['n'])
				vds.write_int32(d['nVersion'])
				vds.write_int64(d['nCreditDebit'])
				vds.write_int64(d['nTime'])
				vds.write_string(d['otherAccount'])
				vds.write_string(d['comment'])
			elif type == "bestblock":
				vds.write_int32(d['nVersion'])
				vds.write_compact_size(len(d['hashes']))
				for h in d['hashes']:
					vds.write(h)
			elif type == "ckey":
				kds.write_string(d['public_key'])
				vds.write_string(d['encrypted_private_key'])
			elif type == "mkey":
				kds.write_uint32(d['nID'])
				vds.write_string(d['encrypted_key'])
				vds.write_string(d['salt'])
				vds.write_uint32(d['nDerivationMethod'])
				vds.write_uint32(d['nDerivationIterations'])
				vds.write_string(d['otherParams'])

else:
				print "Unknown key type: "+type

# Write the key/value pair to the database
			db.put(kds.input, vds.input)

except Exception, e:
			print("ERROR writing to wallet.dat, type %s"%type)
			print("data dictionary: %r"%data)
			traceback.print_exc()

def create_new_wallet(db_env, walletfile, version):
	db_out = DB(db_env)

try:
		r = db_out.open(walletfile, "main", DB_BTREE, DB_CREATE)
	except DBError:
		r = True

if r is not None:
		logging.error("Couldn't open %s."%walletfile)
		sys.exit(1)

db_out.put("0776657273696f6e".decode('hex'), ("%08x"%version).decode('hex')[::-1])

db_out.close()

def rewrite_wallet(db_env, walletfile, destFileName, pre_put_callback=None):
	db = open_wallet(db_env, walletfile)

db_out = DB(db_env)
	try:
		r = db_out.open(destFileName, "main", DB_BTREE, DB_CREATE)
	except DBError:
		r = True

if r is not None:
		logging.error("Couldn't open %s."%destFileName)
		sys.exit(1)

def item_callback(type, d):
		if (pre_put_callback is None or pre_put_callback(type, d)):
			db_out.put(d["__key__"], d["__value__"])

parse_wallet(db, item_callback)
	db_out.close()
	db.close()

# end of bitcointools wallet.dat handling code

# wallet.dat reader / writer

addr_to_keys={}
def read_wallet(json_db, db_env, walletfile, print_wallet, print_wallet_transactions, transaction_filter, include_balance, vers=-1, FillPool=False):
	global passphrase, addr_to_keys
	crypted=False

private_keys = []
	private_hex_keys = []

if vers > -1:
		global addrtype
		oldaddrtype = addrtype
		addrtype = vers

db = open_wallet(db_env, walletfile, writable=FillPool)

json_db['keys'] = []
	json_db['pool'] = []
	json_db['tx'] = []
	json_db['names'] = {}
	json_db['ckey'] = []
	json_db['mkey'] = {}

def item_callback(type, d):
		if type == "tx":
			json_db['tx'].append({"tx_id" : d['tx_id'], "txin" : d['txIn'], "txout" : d['txOut'], "tx_v" : d['txv'], "tx_k" : d['txk']})

elif type == "name":
			json_db['names'][d['hash']] = d['name']

elif type == "version":
			json_db['version'] = d['version']

elif type == "minversion":
			json_db['minversion'] = d['minversion']

elif type == "setting":
			if not json_db.has_key('settings'): json_db['settings'] = {}
			json_db["settings"][d['setting']] = d['value']

elif type == "defaultkey":
			json_db['defaultkey'] = public_key_to_bc_address(d['key'])

elif type == "key":
			addr = public_key_to_bc_address(d['public_key'])
			compressed = d['public_key'][0] != '\04'
			sec = SecretToASecret(PrivKeyToSecret(d['private_key']), compressed)
			hexsec = ASecretToSecret(sec)[:32].encode('hex')
			private_keys.append(sec)
			addr_to_keys[addr]=[hexsec, d['public_key'].encode('hex')]
			json_db['keys'].append({'addr' : addr, 'sec' : sec, 'hexsec' : hexsec, 'secret' : hexsec, 'pubkey':d['public_key'].encode('hex'), 'compressed':compressed, 'private':d['private_key'].encode('hex')})

elif type == "wkey":
			if not json_db.has_key('wkey'): json_db['wkey'] = []
			json_db['wkey']['created'] = d['created']

elif type == "pool":
			"""	d['n'] = kds.read_int64()
				d['nVersion'] = vds.read_int32()
				d['nTime'] = vds.read_int64()
				d['public_key'] = vds.read_bytes(vds.read_compact_size())"""
			try:
				json_db['pool'].append( {'n': d['n'], 'addr': public_key_to_bc_address(d['public_key']), 'addr2': public_key_to_bc_address(d['public_key'].decode('hex')), 'addr3': public_key_to_bc_address(d['public_key'].encode('hex')), 'nTime' : d['nTime'], 'nVersion' : d['nVersion'], 'public_key_hex' : d['public_key'] } )
			except:
				json_db['pool'].append( {'n': d['n'], 'addr': public_key_to_bc_address(d['public_key']), 'nTime' : d['nTime'], 'nVersion' : d['nVersion'], 'public_key_hex' : d['public_key'].encode('hex') } )

elif type == "acc":
			json_db['acc'] = d['account']
			print("Account %s (current key: %s)"%(d['account'], public_key_to_bc_address(d['public_key'])))

elif type == "acentry":
			json_db['acentry'] = (d['account'], d['nCreditDebit'], d['otherAccount'], time.ctime(d['nTime']), d['n'], d['comment'])

elif type == "bestblock":
			json_db['bestblock'] = d['hashes'][0][::-1].encode('hex_codec')

elif type == "ckey":
			crypted=True
			compressed = d['public_key'][0] != '\04'
			json_db['keys'].append({ 'pubkey': d['public_key'].encode('hex'),'addr': public_key_to_bc_address(d['public_key']), 'encrypted_privkey':  d['encrypted_private_key'].encode('hex_codec'), 'compressed':compressed})

elif type == "mkey":
			json_db['mkey']['nID'] = d['nID']
			json_db['mkey']['encrypted_key'] = d['encrypted_key'].encode('hex_codec')
			json_db['mkey']['salt'] = d['salt'].encode('hex_codec')
			json_db['mkey']['nDerivationMethod'] = d['nDerivationMethod']
			json_db['mkey']['nDerivationIterations'] = d['nDerivationIterations']
			json_db['mkey']['otherParams'] = d['otherParams']

if passphrase:
				res = crypter.SetKeyFromPassphrase(passphrase, d['salt'], d['nDerivationIterations'], d['nDerivationMethod'])
				if res == 0:
					logging.error("Unsupported derivation method")
					sys.exit(1)
				masterkey = crypter.Decrypt(d['encrypted_key'])
				crypter.SetKey(masterkey)

else:
			json_db[type] = 'unsupported'
			print "Wallet data not recognized: "+str(d)

list_of_reserve_not_in_pool=[]
	parse_wallet(db, item_callback)

nkeys = len(json_db['keys'])
	i = 0
	for k in json_db['keys']:
		i+=1
		addr = k['addr']
		if include_balance:
#			print("%3d/%d  %s  %s" % (i, nkeys, k["addr"], k["balance"]))
			k["balance"] = balance(balance_site, k["addr"])
#			print("  %s" % (i, nkeys, k["addr"], k["balance"]))

if addr in json_db['names'].keys():
			k["label"] = json_db['names'][addr]
			k["reserve"] = 0
		else:
			k["reserve"] = 1
			list_of_reserve_not_in_pool.append(k['pubkey'])

def rnip_callback(a):
		list_of_reserve_not_in_pool.remove(a['public_key_hex'])

if FillPool:
		map(rnip_callback, json_db['pool'])

cpt=1
		for p in list_of_reserve_not_in_pool:
			update_wallet(db, 'pool', { 'public_key' : p.decode('hex'), 'n' : cpt, 'nTime' : ts(), 'nVersion':80100 })
			cpt+=1

db.close()

crypted = 'salt' in json_db['mkey']

if not crypted:
		print "The wallet is not encrypted"

if crypted and not passphrase:
		print "The wallet is encrypted but no passphrase is used"

if crypted and passphrase:
		check = True
		ppcorrect=True
		for k in json_db['keys']:
		  if 'encrypted_privkey' in k:
			ckey = k['encrypted_privkey'].decode('hex')
			public_key = k['pubkey'].decode('hex')
			crypter.SetIV(Hash(public_key))
			secret = crypter.Decrypt(ckey)
			compressed = public_key[0] != '\04'

if check:
				check = False
				pkey = EC_KEY(int('0x' + secret.encode('hex'), 16))
				if public_key != GetPubKey(pkey, compressed):
					print "The wallet is encrypted and the passphrase is incorrect"
					ppcorrect=False
					break

sec = SecretToASecret(secret, compressed)
			k['sec'] = sec
			k['hexsec'] = secret[:32].encode('hex')
			k['secret'] = secret.encode('hex')
			k['compressed'] = compressed
			addr_to_keys[k['addr']]=[sec, k['pubkey']]
#			del(k['ckey'])
#			del(k['secret'])
#			del(k['pubkey'])
			private_keys.append(sec)
		if ppcorrect:
			print "The wallet is encrypted and the passphrase is correct"

for k in json_db['keys']:
		if k['compressed'] and 'secret' in k:
			k['secret']+="01"

#	del(json_db['pool'])
#	del(json_db['names'])
	if vers > -1:
		addrtype = oldaddrtype

return {'crypted':crypted}

def importprivkey(db, sec, label, reserve, keyishex, verbose=True, addrv=addrtype):
	if keyishex is None:
		pkey = regenerate_key(sec)
		compressed = is_compressed(sec)
	elif len(sec) == 64:
		pkey = EC_KEY(str_to_long(sec.decode('hex')))
		compressed = False
	elif len(sec) == 66:
		pkey = EC_KEY(str_to_long(sec[:-2].decode('hex')))
		compressed = True
	else:
		print("Hexadecimal private keys must be 64 or 66 characters long (specified one is "+str(len(sec))+" characters long)")
		return False

if not pkey:
		return False

secret = GetSecret(pkey)
	private_key = GetPrivKey(pkey, compressed)
	public_key = GetPubKey(pkey, compressed)
	addr = public_key_to_bc_address(public_key, addrv)

if verbose:
		print "Address (%s): %s"%(aversions[addrv], addr)
		print "Privkey (%s): %s"%(aversions[addrv], SecretToASecret(secret, compressed))
		print "Hexprivkey: %s"%(secret.encode('hex'))
		print "Hash160: %s"%(bc_address_to_hash_160(addr).encode('hex'))
		if not compressed:
			print "Pubkey: 04%.64x%.64x"%(pkey.pubkey.point.x(), pkey.pubkey.point.y())
		else:
			print "Pubkey: 0%d%.64x"%(2+(pkey.pubkey.point.y()&1), pkey.pubkey.point.x())
		if int(secret.encode('hex'), 16)>_r:
			print 'Beware, 0x%s is equivalent to 0x%.33x</b>'%(secret.encode('hex'), int(secret.encode('hex'), 16)-_r)

global crypter, passphrase, json_db
	crypted = False
	if 'mkey' in json_db.keys() and 'salt' in json_db['mkey']:
		crypted = True
	if crypted:
		if passphrase:
			cry_master = json_db['mkey']['encrypted_key'].decode('hex')
			cry_salt   = json_db['mkey']['salt'].decode('hex')
			cry_rounds = json_db['mkey']['nDerivationIterations']
			cry_method = json_db['mkey']['nDerivationMethod']

crypter.SetKeyFromPassphrase(passphrase, cry_salt, cry_rounds, cry_method)
#			if verbose:
#				print "Import with", passphrase, "", cry_master.encode('hex'), "", cry_salt.encode('hex')
			masterkey = crypter.Decrypt(cry_master)
			crypter.SetKey(masterkey)
			crypter.SetIV(Hash(public_key))
			e = crypter.Encrypt(secret)
			ck_epk=e

update_wallet(db, 'ckey', { 'public_key' : public_key, 'encrypted_private_key' : ck_epk })
	else:
		update_wallet(db, 'key', { 'public_key' : public_key, 'private_key' : private_key })

if not reserve:
		update_wallet(db, 'name', { 'hash' : addr, 'name' : label })

return True

def balance(site, address):
	page=urllib.urlopen("%s%s" % (site, address))
	return page.read()

def read_jsonfile(filename):
	filin = open(filename, 'r')
	txdump = filin.read()
	filin.close()
	return json.loads(txdump)

def write_jsonfile(filename, array):
	filout = open(filename, 'w')
	filout.write(json.dumps(array, sort_keys=True, indent=0))
	filout.close()

def keyinfo(sec, keyishex):
	if keyishex is None:
		pkey = regenerate_key(sec)
		compressed = is_compressed(sec)
	elif len(sec) == 64:
		pkey = EC_KEY(str_to_long(sec.decode('hex')))
		compressed = False
	elif len(sec) == 66:
		pkey = EC_KEY(str_to_long(sec[:-2].decode('hex')))
		compressed = True
	else:
		print("Hexadecimal private keys must be 64 or 66 characters long (specified one is "+str(len(sec))+" characters long)")
		exit(0)

if not pkey:
		return False

secret = GetSecret(pkey)
	private_key = GetPrivKey(pkey, compressed)
	public_key = GetPubKey(pkey, compressed)
	addr = public_key_to_bc_address(public_key)

print "Address (%s): %s" % ( aversions[addrtype], addr )
	print "Privkey (%s): %s" % ( aversions[addrtype], SecretToASecret(secret, compressed) )
	print "Hexprivkey:   %s" % secret.encode('hex')
	print "Hash160:      %s"%(bc_address_to_hash_160(addr).encode('hex'))

return True

def css_wui():
	return """html, body {
  height: 100%;
  width: 100%;
  padding: 0;
  margin: 0;
}

body {
	margin: 0px;
	padding: 0px;
	background: 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%3D%3D) repeat;
	font-family: 'Open Sans', sans-serif;
	font-size: 10pt;
	color: #B0B0B0;
}

h1, h2, h3 {
	margin: 0;
	padding: 0;
}

h2
{
	font-weight: 400;
	font-family: 'Archivo Narrow', sans-serif;
	font-size: 2.50em;
}

p, ol, ul {
	margin-top: 0px;
}

p {
	line-height: 180%;
}

strong {
}

a {
	color: #1492C4;
}

a:hover {
	text-decoration: none;
}

a img {
	border: none;
}

img.border {
	border: 10px solid rgba(255,255,255,.10);
}

img.alignleft {
	float: left;
	margin-right: 30px;
}

img.alignright {
	float: right;
}

img.aligncenter {
	margin: 0px auto;
}

hr {
	display: none;
}

#retour-pyw{
 overflow: auto;
}

#uptodate{
	position:absolute;
	top:0px;
	right:0px;
	background: rgba(0,0,0,0.70);
	padding:10px;
}

#full-screen-background-image {
  z-index: -999;
  min-height: 100%;
  min-width: 1024px;
  width: 100%;
  height: auto;
  position: fixed;
  top: 0;
  left: 0;
}

#wrapper {
  position: relative;
  width: 100%;
  min-height: 400px;
  #margin: 30px auto;
	margin-top:10px;  #decalage p/r haut
}

#wrapper {
	overflow: hidden;
}

.container {
	width: 1000px;
	margin: 0px auto;
}

.clearfix {
	clear: both;
}

/** HEADER */

#header-wrapper-title
{
	overflow: hidden;
	height: 80px;
	margin-bottom: 10px;
	background: rgba(0,0,0,0);
}

#header-wrapper
{
	overflow: hidden;
	height: 50px;
	margin-bottom: 20px;
	background: rgba(0,0,0,0.70);
}

#header {
	overflow: hidden;
}

/** LOGO */

#logo {
	float: left;
	#width: 300px;
	height: 50px;

}

#logo h1, #logo p {
	margin: 0px;
	line-height: normal;
}

#logo h1 a {
	padding-left: 00px;
	text-decoration: none;
	font-size: 2.50em;
	font-weight: 400;
	font-family: 'Archivo Narrow', sans-serif;
	color: #FFFFFF;
}

/** MENU */

#menu {
	float: left;
	height: 50px;
}

#menu ul {
	margin: 0px;
	padding: 0px;
	list-style: none;
	line-height: normal;
}

#menu li {
	float: left;
	margin-right: 10px;
	padding: 0px 5px 0px 5px;
}

#menu a {
	display: block;
	height: 50px;
	padding: 0px 10px;
	line-height: 50px;
	text-decoration: none;
	text-transform: uppercase;
	color: #FFFFFF;
}

#menu a:hover {
	text-decoration: none;
	background: rgba(0,0,0,0.70);
}

#menu .active
{
	background: rgba(0,0,0,0.70);
}

/** PAGE */

#page {
	overflow: hidden;
	margin-bottom: 20px;
}

/** CONTENT */

#content {
	float: left;
	width: 950px;
	padding: 40px;
	background: rgba(0,0,0,0.70);
}

#content h2 a
{
	display: block;
	padding: 0px 0px 20px 0px;
	text-decoration: none;
	color: #FFFFFF;
}

#content #box1
{
	margin-bottom: 0px;
}

/** SIDEBAR */

#sidebar {
	float: right;
	width: 350px;
	padding: 20px;
	background: rgba(0,0,0,0.70);
}

#sidebar h2
{
	padding: 0px 0px 00px 0px;
	color: #FFFFFF;
}

/* Footer */

#footer {
	overflow: hidden;
	margin: 00px auto 0px auto;
	padding: 10px 0px;
	background: rgba(0,0,0,0.70);
}

#footer p {
	text-align: center;
	font-size: 12px;
}

#footer a {
}

/** LIST STYLE 1 */

ul.style1 {
	margin: 0px;
	padding: 10px 0px 0px 0px;
	list-style: none;
}

ul.style1 li {
	clear: both;
	margin-bottom: 25px;
	padding: 30px 0px 40px 0px;
	border-top: 1px solid #000000;
	box-shadow: inset 0 1px 0 rgba(255,255,255,.10);
}

ul.style1 h3 {
	padding-bottom: 5px;
	font-size: 14px;
	color: #FFFFFF;
}

ul.style1 p {
	line-height: 150%;
}

ul.style1 .button-style {
	float: left;
	margin-top: 0px;
}

ul.style1 .first {
	padding-top: 0px;
	border-top: none;
	box-shadow: none;
}

/** LIST STYLE 3 */

ul.style3 {
	margin: 0px;
	padding: 0px;
	list-style: none;
}

ul.style3 li {
	padding: 10px 0px 10px 0px;
	border-top: 1px solid #000000;
	box-shadow: inset 0 1px 0 rgba(255,255,255,.10);
}

ul.style3 a {
	text-decoration: none;
	color: #949494;
}

ul.style3 a:hover {
	text-decoration: underline;
}

ul.style3 .first {
	padding-top: 0px;
	border-top: none;
	box-shadow: none;
}

ul.style3 .date {
	width: 87px;
	background-color: #1F768D;
	margin-top: 20px;
	height: 24px;
	line-height: 24px;
	text-align: center;
	font-size: 12px;
	color: #FFFFFF;
}

ul.style3 .first .date
{
	margin-top: 0px;
}

.button-style
{
	display: inline-block;
	background-color: #1F768D;
	margin-top: 0px;
	padding: 5px 30px;
	height: 24px;
	line-height: 24px;
	text-decoration: none;
	text-align: center;
	color: #FFFFFF;
}

.button-style-red
{
	color: #ffffff;
	display: inline-block;
	background-color: #a12323;
	margin-top: 20px;
	padding: 5px 30px;
	height: 24px;
	line-height: 24px;
	text-decoration: none;
	text-align: center;
}

.entry
{
	margin-bottom: 30px;
}
"""

def onclick_on_tab(page):
	list=['DumpPage','ImportPage','DeletePage','InfoPage','AboutPage','PassphrasePage','TxPage']
	r=''
	for p in list:
		if p!=page:
			r+="document.getElementById('"+p+"').style.display='none';"
			r+="document.getElementById('"+p+"Button').className='';"
	r+="document.getElementById('"+page+"').style.display='block';"
	r+="document.getElementById('"+page+"Button').className='active';"
	return r

def html_wui(listcontent,uptodate_text):
	global pywversion
	return """<!DOCTYPE html PUBLIC "-//W3C//DTD XHTML 1.0 Strict//EN" "http://www.w3.org/TR/xhtml1/DTD/xhtml1-strict.dtd">
<html xmlns="http://www.w3.org/1999/xhtml">
<head>
<meta http-equiv="Content-Type" content="text/html; charset=utf-8" />
<title>Pywallet Web Interface - Pywallet """+pywversion+"""</title>


<style type="text/css">
@font-face {
  font-family: 'Archivo Narrow';
  font-style: normal;
  font-weight: 400;
  src: local('Archivo Narrow Regular'), local('ArchivoNarrow-Regular'), 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') format('woff');
}
@font-face {
  font-family: 'Archivo Narrow';
  font-style: normal;
  font-weight: 700;
  src: local('Archivo Narrow Bold'), local('ArchivoNarrow-Bold'), 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') format('woff');
}
@font-face {
  font-family: 'Open Sans';
  font-style: normal;
  font-weight: 400;
  src: local('Open Sans'), local('OpenSans'), 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') format('woff');
}
@font-face {
  font-family: 'Open Sans';
  font-style: normal;
  font-weight: 600;
  src: local('Open Sans Semibold'), local('OpenSans-Semibold'), 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') format('woff');
}
@font-face {
  font-family: 'Open Sans';
  font-style: normal;
  font-weight: 700;
  src: local('Open Sans Bold'), local('OpenSans-Bold'), 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') format('woff');
}

"""+css_wui()+"""
</style>
</head>
<body>
<div id="wrapper">
	<div id="header-wrapper-title">
		<div id="header" class="container">
			<div id="logo" style="height: 150px;">
				<h1><a href="#">Pywallet """+str(pywversion)+"""</a></h1>
			</div>
		</div>
	</div>
	<div id="header-wrapper">
			<div style="width:300px;float: left;">&nbsp;</div>
			<div id="menu">
				<ul>
					<li id="DumpPageButton" class="active"><a href="#" accesskey="1" title="" onclick=" """+onclick_on_tab('DumpPage')+""" " >Dump</a></li>
					<li id="ImportPageButton"><a href="#" accesskey="2" title="" onclick=" """+onclick_on_tab('ImportPage')+""" " >Import</a></li>
					<li id="InfoPageButton"><a href="#" accesskey="3" title="" onclick=" """+onclick_on_tab('InfoPage')+""" " >Info</a></li>
					<li id="DeletePageButton"><a href="#" accesskey="4" title="" onclick=" """+onclick_on_tab('DeletePage')+""" " >Delete</a></li>
					<li id="PassphrasePageButton"><a href="#" accesskey="5" title="" onclick=" """+onclick_on_tab('PassphrasePage')+""" " >Passphrase</a></li>
					<li id="TxPageButton"><a href="#" accesskey="6" title="" onclick=" """+onclick_on_tab('TxPage')+""" " >Transaction</a></li>
					<li id="AboutPageButton"><a href="#" accesskey="7" title="" onclick=" """+onclick_on_tab('AboutPage')+""" " >About</a></li>
					<li id="QuitPageButton"><a href="quit">Stop</a></li>
				</ul>
			</div>
	</div>
	<div id="page" class="container">
		<div id="content">
			"""+listcontent+"""
		</div>
		<div id="sidebar" style="display:none;">
			<a href="#" class="button-style-red" style="float:right;position:relative;top:-15px;" onclick="document.getElementById('content').style.width='950px';document.getElementById('content').style.display='block';document.getElementById('sidebar').style.display='none';document.getElementById('sidebar').style.width='350px';">Close</a>
			<a href="#" class="button-style" style="float:right;position:relative;top:5px;left:-10px;" onclick="
			if(document.getElementById('content').style.display=='none'){
				document.getElementById('sidebar').style.width='350px';
				document.getElementById('content').style.width='500px';
				document.getElementById('content').style.display='block';
				this.innerHTML='Full page';
			}else{
				document.getElementById('sidebar').style.width='970px';
				document.getElementById('content').style.display='none';
				this.innerHTML='Reduce';
			}
			document.getElementById('sidebar').style.display='block';
			">Full page</a>
			<h2 style="positive:relative;top:-20px;">Data</h2>
			<br />
			<br />
			<p id="retour-pyw">
			</p>
		</div>
	</div>
	<div id="footer">
		<p><a href="http://pywallet.tk">Instructions to use Pywallet</a></p>
	</div>
</div>
<div id="uptodate">"""+uptodate_text+"""</div>
</body>
</html>
"""

def WI_FormInit(title, action, divname):
	return "<li><h3>%s</h3>"%title
	return '<style>#h'+divname+':hover{color:red;}</style><h3 id="h'+divname+'" onClick="document.getElementById(\''+divname+'\').style.display=(document.getElementById(\''+divname+'\').style.display==\'none\')?\'block\':\'none\';document.getElementById(\'iconOF_'+divname+'\').innerHTML=image_showdiv(\''+divname+'\');"><span style="width:21px;" id="iconOF_'+divname+'"><img src="http://creation-entreprise.comprendrechoisir.com/img/puce_tab_down.png" /></span>&nbsp;&nbsp;'+title+'</h3><div id="'+divname+'"><form style="margin-left:15px;" action="'+action+'" method=get>'

def WI_InputText(label, name, id, value, size=30):
	return '%s<input type=text name="%s" id="%s" value="%s" size=%s /><br />'%(label, name, id, value, size)

def WI_InputPassword(label, name, id, value, size=30):
	return '%s<input type=password name="%s" id="%s" value="%s" size=%s /><br />'%(label, name, id, value, size)

def WI_Submit(value, local_block, local_button, function):
	return """<br /><a href="#" class="button-style"  onClick="document.getElementById('content').style.width='500px';document.getElementById('sidebar').style.display='block';%s();return false;">%s</a>"""%(function,value)

def WI_CloseButton(local_block, local_button):
	return '<input type=button value="Close" onClick="document.getElementById(\'%s\').style.display=\'none\';document.getElementById(\'%s\').style.display=\'none\';" id="%s" style="display:none;" />'%(local_block, local_button, local_button)

def WI_ReturnDiv(local_block):
	return '<div id="%s" style="display:none;margin:10px 3%% 10px;padding:10px;overflow:auto;width:90%%;max-height:600px;background-color:#fff8dd;"></div>'%(local_block)

def WI_FormEnd():
	return "</li>"

def WI_RadioButton(name, value, id, checked, label):
	return '&nbsp;&nbsp;&nbsp;<input type="radio" name="%s" value="%s" id="%s" %s >%s<br>'%(name, value, id, checked, label)

def WI_Checkbox(name, value, id, other, label):
	return '<input type="checkbox" name="%s" value="%s" id="%s" %s />%s'%(name, value, id, other, label)

def WI_Endiv(t,name,title, desc,hidden=False):
	return '<div id="'+name+'" style="display:'+X_if_else('none',hidden,'block')+';"><div id="box1"><h2 class="title"><a href="#">'+title+'</a></h2>'+X_if_else('<p>'+desc+'</p>',desc!='','')+'</div><div ><ul class="style1">'+t+'</ul></div></div>'

def WI_AjaxFunction(name, command_when_ready, query_string, command_until_ready):
	return '\n\
function ajax%s(){\n\
	var ajaxRequest;\n\
	try{\n\
		ajaxRequest = new XMLHttpRequest();\n\
	} catch (e){\n\
		try{\n\
			ajaxRequest = new ActiveXObject("Msxml2.XMLHTTP");\n\
		} catch (e) {\n\
			try{\n\
				ajaxRequest = new ActiveXObject("Microsoft.XMLHTTP");\n\
			} catch (e){\n\
				alert("Your browser broke!");\n\
				return false;\n\
			}\n\
		}\n\
	}\n\
	ajaxRequest.onreadystatechange = function(){\n\
		if(ajaxRequest.readyState == 4){\n\
			%s\n\
		}\n\
	};\n\
	var queryString = %s;\n\
	ajaxRequest.open("GET", queryString, true);\n\
	%s\n\
	ajaxRequest.send(null);\n\
}\n\
\n\
'%(name, command_when_ready, query_string, command_until_ready)

def X_if_else(iftrue, cond, iffalse):
	if cond:
		return iftrue
	return iffalse

def export_all_keys(db, ks, filename):
	txt=";".join(ks)+"\n"
	for i in db['keys']:
	  try:
		j=i.copy()
		if 'label' not in j:
			j['label']='#Reserve'
		t=";".join([str(j[k]) for k in ks])
		txt+=t+"\n"
	  except:
		return False

try:
		myFile = open(filename, 'w')
		myFile.write(txt)
		myFile.close()
		return True
	except:
		return False

def import_csv_keys(filename, wdir, wname, nbremax=9999999):
	global global_merging_message
	if filename[0]=="\x00":    #yeah, dirty workaround
		content=filename[1:]
	else:
		filen = open(filename, "r")
		content = filen.read()
		filen.close()

db_env = create_env(wdir)
	read_wallet(json_db, db_env, wname, True, True, "", None)
	db = open_wallet(db_env, wname, writable=True)

content=content.split('\n')
	content=content[:min(nbremax, len(content))]
	for i in range(len(content)):
	  c=content[i]
	  global_merging_message = ["Merging: "+str(round(100.0*(i+1)/len(content),1))+"%" for j in range(2)]
	  if ';' in c and len(c)>0 and c[0]!="#":
		cs=c.split(';')
		sec,label=cs[0:2]
		v=addrtype
		if len(cs)>2:
			v=int(cs[2])
		reserve=False
		if label=="#Reserve":
			reserve=True
		keyishex=None
		if abs(len(sec)-65)==1:
			keyishex=True
		importprivkey(db, sec, label, reserve, keyishex, verbose=False, addrv=v)

global_merging_message = ["Merging done.", ""]

db.close()

read_wallet(json_db, db_env, wname, True, True, "", None, -1, True)  #Fill the pool if empty

return True

def dep_text_aboutpage(val):
	if val:
		return "<span style='color:#bb0000;'>Not found</span>"
	else:
		return "<span style='color:#00bb00;'>Found</span>"

CTX_adds=''

if 'twisted' not in missing_dep:
	class WIRoot(resource.Resource):

def render_GET(self, request):
				try:
					request.args['update'][0]
					return update_pyw()
				except:
					True

uptodate=md5_last_pywallet[1]==md5_pywallet
				checking_finished=bool(md5_last_pywallet[0])

color="#DDDDFF"
				if checking_finished:
					if uptodate:
						color="#DDFFDD"
					else:
						color="#FFDDDD"

check_version_text = \
 X_if_else(
	X_if_else(
		'Pywallet is up-to-date',
		uptodate,
		'Pywallet is <span style="color:red;font-weight:none;">not</span> up-to-date<br /><a href="#" onclick="ajaxUpdatePyw();return false;">Click to update</a>'),
	checking_finished,
	'Checking version...'
 )

if beta_version:
					check_version_text="You are using a beta version<br />Thank you for your help"
					color="#DDDDDD"

global pywversion
				header = '<h1 title="'+pyw_filename+' in '+pyw_path+'">Pywallet Web Interface v'+pywversion+'</h1><h3>CLOSE BITCOIN BEFORE USE!</h3><div style="position:fixed;top:5px;right:5px;border:solid 1px black;padding:15px;background-color:'+color+';font-weight:bold;text-align:center;">' + check_version_text + '</div><br /><br />'

CPPForm = WI_FormInit('Change passphrase:', 'ChangePP', 'divformcpp') + \
							WI_InputPassword('', 'pp', 'cppf-pp', '') + \
							WI_Submit('Change', 'CPPDiv', 'cppf-close', 'ajaxCPP') + \
							WI_CloseButton('CPPDiv', 'cppf-close') + \
							WI_ReturnDiv('CPPDiv') + \
							WI_FormEnd()

DWForm = WI_FormInit('Dump your wallet:', 'DumpWallet', 'divformdw') + \
							WI_InputText('Wallet Directory: ', 'dir', 'dwf-dir', determine_db_dir()) + \
							WI_InputText('Wallet Filename: ', 'name', 'dwf-name', determine_db_name(), 20) + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="0 for Bitcoin, 52 for Namecoin, 111 for testnets">Version</span>:', 'vers', 'dwf-vers', '0', 1) + \
							WI_Checkbox('bal', 'y', 'dwf-bal', '', ' Dump with balance (can take minutes)') + "<br />" + \
							WI_Submit('Dump wallet', 'DWDiv', 'dwf-close', 'ajaxDW') + \
							WI_CloseButton('DWDiv', 'dwf-close') + \
							WI_ReturnDiv('DWDiv') + \
							WI_FormEnd()

MWForm = WI_FormInit('Merge two wallets:', 'MergeWallets', 'divformmw') + \
							WI_InputText('Wallet 1 Directory: ', 'dir1', 'mwf-dir1', determine_db_dir()) + \
							WI_InputText('Wallet 1 Filename: ', 'name1', 'mwf-name1', determine_db_name(), 20) + \
							WI_InputPassword('<span style="border: 0 dashed;border-bottom-width:1px;" title="empty if none">Wallet 1 Passphrase: </span>', 'pass1', 'mwf-pass1', '') + "<br />" + \
							WI_InputText('Wallet 2 Directory: ', 'dir2', 'mwf-dir2', determine_db_dir()) + \
							WI_InputText('Wallet 2 Filename: ', 'name2', 'mwf-name2', "", 20) + \
							WI_InputPassword('<span style="border: 0 dashed;border-bottom-width:1px;" title="empty if none">Wallet 2 Passphrase: </span>', 'pass2', 'mwf-pass2', '') + "<br />" + \
							WI_InputText('Merged Wallet Directory: ', 'dirm', 'mwf-dirm', determine_db_dir()) + \
							WI_InputText('Merged Wallet Filename: ', 'namem', 'mwf-namem', "", 20) + \
							WI_InputPassword('<span style="border: 0 dashed;border-bottom-width:1px;" title="empty if none">Merged Wallet Passphrase: </span>', 'passm1', 'mwf-passm1', '') + \
							WI_InputPassword('Repeat Wallet Passphrase: ', 'passm2', 'mwf-passm2', '') + \
							WI_Submit('Merge wallets', 'MWDiv', 'mwf-close', 'ajaxMW') + \
							WI_CloseButton('MWDiv', 'mwf-close') + \
							WI_ReturnDiv('MWDiv') + \
							WI_FormEnd()

DKForm = WI_FormInit('Dump your keys:', 'DumpKeys', 'divformdk') + \
							WI_InputText('Wallet Directory: ', 'dir', 'dkf-dir', determine_db_dir()) + \
							WI_InputText('Wallet Filename: ', 'name', 'dkf-name', determine_db_name(), 20) + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="0 for Bitcoin, 52 for Namecoin, 111 for testnets">Version</span>:', 'vers', 'dkf-vers', '0', 1) + \
							WI_InputText('Output file: ', 'file', 'dkf-file', '', 60) + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="to be chosen from the ones in wallet dump, separated with \',\', e.g. \'addr,secret\'">Data to print: </span>', 'keys', 'dkf-keys', '') + \
							WI_Checkbox('bal', 'y', 'dkf-bal', '', ' Dump with balance (can take minutes)') + "<br />" + \
							WI_Submit('Dump keys', 'DKDiv', 'dkf-close', 'ajaxDK') + \
							WI_CloseButton('DKDiv', 'dkf-close') + \
							WI_ReturnDiv('DKDiv') + \
							WI_FormEnd()

IKForm = WI_FormInit('Import keys:', 'ImportKeys', 'divformik') + \
"The CSV file must have the following format: '5PrivateKey;Label'<br />" + \
							WI_InputText('Wallet Directory: ', 'dir', 'ikf-dir', determine_db_dir()) + \
							WI_InputText('Wallet Filename: ', 'name', 'ikf-name', determine_db_name(), 20) + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="Format: \'privkey;label\', label=\'#Reserve\' to make the key a pool one">CSV file path</span>: ', 'file', 'ikf-file', '', 60) + \
							WI_Submit('Import keys', 'IKDiv', 'ikf-close', 'ajaxIK') + \
							WI_CloseButton('IKDiv', 'ikf-close') + \
							WI_ReturnDiv('IKDiv') + \
							WI_FormEnd()

DTxForm = WI_FormInit('Dump your transactions to a file:', 'DumpTx', 'divformdtx') + \
							WI_InputText('Wallet Directory: ', 'dir', 'dt-dir', determine_db_dir()) + \
							WI_InputText('Wallet Filename: ', 'name', 'dt-name', determine_db_name(), 20) + \
							WI_InputText('Output file: ', 'file', 'dt-file', '') + \
							WI_Submit('Dump tx\'s', 'DTxDiv', 'dt-close', 'ajaxDTx') + \
							WI_CloseButton('DTxDiv', 'dt-close') + \
							WI_ReturnDiv('DTxDiv') + \
							WI_FormEnd()

prehide_ecdsa=""
				posthide_ecdsa=""
				if 'ecdsa' in missing_dep:
					prehide_ecdsa="<span style='display:none;'>"
					posthide_ecdsa="</span>"
				InfoForm = WI_FormInit('Get some info about one key'+X_if_else(' and sign/verify messages', 'ecdsa' not in missing_dep,'')+':', 'Info', 'divforminfo') + \
							WI_InputText('Key: ', 'key', 'if-key', '', 60) + \
							prehide_ecdsa + WI_InputText('Message: ', 'msg', 'if-msg', '', 30) + posthide_ecdsa + \
							prehide_ecdsa + WI_InputText('Signature: ', 'sig', 'if-sig', '', 30) + posthide_ecdsa + \
							prehide_ecdsa + WI_InputText('Pubkey: ', 'pubkey', 'if-pubkey', '', 30) + posthide_ecdsa + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="0 for Bitcoin, 52 for Namecoin, 111 for testnets">Version</span>:', 'vers', 'if-vers', '0', 1) + \
							"Format:<br />" + \
							WI_RadioButton('format', 'reg', 'if-reg', 'CHECKED', ' Regular, base 58') + \
							WI_RadioButton('format', 'hex', 'if-hex', '', ' Hexadecimal, 64 characters long') + \
							"You want:<br />" + \
							WI_RadioButton('i-need', '1', 'if-n-info', 'CHECKED', ' Info') + \
							prehide_ecdsa + WI_RadioButton('i-need', '2', 'if-n-sv', '', ' Sign and verify') + posthide_ecdsa +\
							prehide_ecdsa + WI_RadioButton('i-need', '3', 'if-n-both', '', ' Both') + posthide_ecdsa + \
							WI_Submit('Get info', 'InfoDiv', 'if-close', 'ajaxInfo') + \
							WI_CloseButton('InfoDiv', 'if-close') + \
							WI_ReturnDiv('InfoDiv') + \
							WI_FormEnd()

ImportForm = WI_FormInit('Import a key into your wallet:', 'Import', 'divformimport') + \
							WI_InputText('Wallet Directory: ', 'dir', 'impf-dir', determine_db_dir(), 30) + \
							WI_InputText('Wallet Filename:', 'name', 'impf-name', determine_db_name(), 20) + \
							WI_InputText('Key:', 'key', 'impf-key', '', 65) + \
							WI_InputText('Label:', 'label', 'impf-label', '') + \
							WI_Checkbox('reserve', 'true', 'impf-reserve', 'onClick="document.getElementById(\'impf-label\').disabled=document.getElementById(\'impf-reserve\').checked"', ' Reserve') + "<br />" + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="0 for Bitcoin, 52 for Namecoin, 111 for testnets">Version</span>:', 'vers', 'impf-vers', '0', 1) + \
							"Format:<br />" + \
							WI_Checkbox('format', 'hex', 'impf-hex', '', ' Hexadecimal, instead of base58') + "<br />" + \
							WI_Checkbox('format', 'cry', 'impf-cry', 'hidden=true', '') + \
							WI_Checkbox('format', 'com', 'impf-com', 'hidden=true', '') + \
							WI_Submit('Import key', 'ImportDiv', 'impf-close', 'ajaxImport') + \
							WI_CloseButton('ImportDiv', 'impf-close') + \
							WI_ReturnDiv('ImportDiv') + \
							WI_FormEnd()
#							WI_RadioButton('format', 'reg', 'impf-reg', 'CHECKED', ' Regular, base 58') + \
#							WI_RadioButton('format', 'hex', 'impf-hex', '', ' Hexadecimal, 64 characters long') + \

ImportROForm = WI_FormInit('Import a read-only address (encrypted wallets only):', 'Import', 'divformimportro') + \
							WI_InputText('Wallet Directory: ', 'dir', 'irof-dir', determine_db_dir(), 30) + \
							WI_InputText('Wallet Filename:', 'name', 'irof-name', determine_db_name(), 20) + \
							WI_InputText('Public key (starting with 04): ', 'pub', 'irof-pub', '', 40) + \
							WI_InputText('Label: ', 'label', 'irof-label', '') + \
							WI_Submit('Import address', 'ImportDiv', 'irof-close', 'ajaxImportRO') + \
							WI_CloseButton('ImportRODiv', 'irof-close') + \
							WI_ReturnDiv('ImportRODiv') + \
							WI_FormEnd()

DeleteForm = WI_FormInit('Delete keys from your wallet:', 'Delete', 'divformdelete') + \
							WI_InputText('Wallet Directory: ', 'dir', 'd-dir', determine_db_dir(), 40) + \
							WI_InputText('Wallet Filename:', 'name', 'd-name', determine_db_name()) + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="divided by \'-\'">Keys</span>:', 'key', 'd-key', '', 65) + \
							"Type:<br />" + \
							WI_RadioButton('d-type', 'tx', 'd-r-tx', 'CHECKED', ' Transaction (type "all" in "Keys" to delete them all)') + \
							WI_RadioButton('d-type', 'key', 'd-r-key', '', ' Bitcoin address') + \
							WI_Submit('Delete', 'DeleteDiv', 'd-close', 'ajaxDelete') + \
							WI_CloseButton('DeleteDiv', 'd-close') + \
							WI_ReturnDiv('DeleteDiv') + \
							WI_FormEnd()

ImportTxForm = WI_FormInit('Import a transaction into your wallet:', 'ImportTx', 'divformimporttx') + \
							WI_InputText('Wallet Directory: ', 'dir', 'it-dir', determine_db_dir(), 40) + \
							WI_InputText('Wallet Filename:', 'name', 'it-name', determine_db_name()) + \
							WI_InputText('Txk:', 'key', 'it-txk', '', 65) + \
							WI_InputText('Txv:', 'label', 'it-txv', '', 65) + \
							WI_Submit('Import', 'ImportTxDiv', 'it-close', 'ajaxImportTx') + \
							WI_CloseButton('ImportTxDiv', 'it-close') + \
							WI_ReturnDiv('ImportTxDiv') + \
							WI_FormEnd()

BalanceForm = WI_FormInit('Print the balance of a Bitcoin address:', 'Balance', 'divformbalance') + \
							WI_InputText('Key:', 'key', 'bf-key', '', 35) + \
							WI_Submit('Get balance', 'BalanceDiv', 'gb-close', 'ajaxBalance') + \
							WI_CloseButton('BalanceDiv', 'gb-close') + \
							WI_ReturnDiv('BalanceDiv') + \
							WI_FormEnd()

global CTX_adds, addr_to_keys
				CTX_adds2=CTX_adds.split('|')+addr_to_keys.keys()

CreateTxForm = WI_FormInit('Create transaction', 'CTX', 'divformctx') + \
							X_if_else("Additional addresses used: " + ', '.join(CTX_adds.split('|'))+"<br /><br />",len(CTX_adds)>0,"No additional addresses used<br /><br />") + \
							listtx_txt(CTX_adds) + \
							WI_FormEnd()

CreateTxForm2 = WI_FormInit('Check addresses funds', 'ListTransactions', 'divformctx') + \
							WI_InputText('<span style="border: 0 dashed;border-bottom-width:1px;" title="Divided by a |">Addresses</span>: ', 'adds', 'ctx-adds', '', 35) + \
							WI_Submit('Check ', '', '', 'ajaxCTx') + \
							WI_FormEnd()

Misc = ''

Javascript = '<script language="javascript" type="text/javascript">interv1=0;\
					totalin=0;\
					totalout=0;\
					\
					function majfee(){\
						document.getElementById("tot_in").innerHTML=(totalin)/100000000;\
						document.getElementById("tot_out").innerHTML=(totalout)/100000000;\
						document.getElementById("tot_fee").innerHTML=(totalin-totalout)/100000000;\
					}\
					\
					function image_showdiv(a){\
						if(document.getElementById(a).style.display!="none")r="http://creation-entreprise.comprendrechoisir.com/img/puce_tab_down.png";\
						else{\
						r="http://creation-entreprise.comprendrechoisir.com/img/puce_tab.png";}\
						\
						return "<img src=\'"+r+"\' />";\
						\
					}\
					function get_radio_value(radioform){\
						var rad_val;\
						for (var i=0; i < radioform.length; i++){\
							if (radioform[i].checked){\
								rad_val = radioform[i].value;\
							}\
						}\
						return rad_val;\
					}' + \
				WI_AjaxFunction('UpdatePyw', 'document.getElementById("uptodate").innerHTML = ajaxRequest.responseText;setTimeout(function() {window.location.reload();}, 2000);', '"/?update=1"', 'document.getElementById("uptodate").innerHTML = "Updating...";') + \
				WI_AjaxFunction('CTx', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/ListTransactions?addresses="+document.getElementById("ctx-adds").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('CPP', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/ChangePP?pp="+document.getElementById("cppf-pp").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('DW', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/DumpWallet?dir="+document.getElementById("dwf-dir").value+"&name="+document.getElementById("dwf-name").value+"&bal="+document.getElementById("dwf-bal").checked+"&version="+document.getElementById("dwf-vers").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('MW', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/MergeWallets?dir1="+document.getElementById("mwf-dir1").value+"&name1="+document.getElementById("mwf-name1").value+"&pass1="+encodeURIComponent(document.getElementById("mwf-pass1").value)+"&dir2="+document.getElementById("mwf-dir2").value+"&name2="+document.getElementById("mwf-name2").value+"&pass2="+encodeURIComponent(document.getElementById("mwf-pass2").value)+"&dirm="+document.getElementById("mwf-dirm").value+"&namem="+document.getElementById("mwf-namem").value+"&passm1="+encodeURIComponent(document.getElementById("mwf-passm1").value)+"&passm2="+encodeURIComponent(document.getElementById("mwf-passm2").value)+""', 'document.getElementById("retour-pyw").innerHTML = "Merging wallets... This may take a few minutes.";interv1=setInterval(ajaxUpdateMW,300);') + \
				WI_AjaxFunction('UpdateMW', 'if(ajaxRequest.responseText.length>0){document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;}else{clearInterval(interv1);}', '"/Others?action=update_mwdiv"', '') + \
				WI_AjaxFunction('DK', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/DumpWallet?dir="+document.getElementById("dkf-dir").value+"&filetw="+document.getElementById("dkf-file").value+"&keys="+document.getElementById("dkf-keys").value+"&bal="+document.getElementById("dkf-bal").checked+"&name="+document.getElementById("dkf-name").value+"&version="+document.getElementById("dkf-vers").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('IK', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/Import?dir="+document.getElementById("ikf-dir").value+"&file="+document.getElementById("ikf-file").value+"&name="+document.getElementById("ikf-name").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('DTx', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/DumpTx?dir="+document.getElementById("dt-dir").value+"&name="+document.getElementById("dt-name").value+"&file="+document.getElementById("dt-file").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('Info', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/Info?key="+document.getElementById("if-key").value+"&msg="+document.getElementById("if-msg").value+"&pubkey="+document.getElementById("if-pubkey").value+"&sig="+document.getElementById("if-sig").value+"&vers="+document.getElementById("if-vers").value+"&format="+(document.getElementById("if-hex").checked?"hex":"reg")+"&need="+get_radio_value(document.getElementsByName("i-need"))', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('Import', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/Import?dir="+document.getElementById("impf-dir").value+"&name="+document.getElementById("impf-name").value+"&key="+document.getElementById("impf-key").value+"&label="+document.getElementById("impf-label").value+"&vers="+document.getElementById("impf-vers").value+"&com="+document.getElementById("impf-com").checked+"&cry="+document.getElementById("impf-cry").checked+"&format="+document.getElementById("impf-hex").checked+(document.getElementById("impf-reserve").checked?"&reserve=1":"")', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('ImportRO', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/Import?dir="+document.getElementById("irof-dir").value+"&name="+document.getElementById("irof-name").value+"&pub="+document.getElementById("irof-pub").value+"&label="+document.getElementById("irof-label").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('Balance', 'document.getElementById("retour-pyw").innerHTML = "Balance of " + document.getElementById("bf-key").value + ": " + ajaxRequest.responseText;', '"/Balance?key="+document.getElementById("bf-key").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('Delete', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/Delete?dir="+document.getElementById("d-dir").value+"&name="+document.getElementById("d-name").value+"&keydel="+document.getElementById("d-key").value+"&typedel="+get_radio_value(document.getElementsByName("d-type"))', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				WI_AjaxFunction('ImportTx', 'document.getElementById("retour-pyw").innerHTML = ajaxRequest.responseText;', '"/ImportTx?dir="+document.getElementById("it-dir").value+"&name="+document.getElementById("it-name").value+"&txk="+document.getElementById("it-txk").value+"&txv="+document.getElementById("it-txv").value', 'document.getElementById("retour-pyw").innerHTML = "Loading...";') + \
				'</script>'

#				WI_AjaxFunction('Import', 'document.getElementById("ImportDiv").innerHTML = ajaxRequest.responseText;', '"/Import?dir="+document.getElementById("impf-dir").value+"&name="+document.getElementById("impf-name").value+"&key="+document.getElementById("impf-key").value+"&label="+document.getElementById("impf-label").value+"&vers="+document.getElementById("impf-vers").value+"&format="+(document.getElementById("impf-hex").checked?"hex":"reg")+(document.getElementById("impf-reserve").checked?"&reserve=1":"")', 'document.getElementById("ImportDiv").innerHTML = "Loading...";') + \

page = '<html><head><title>Pywallet Web Interface</title></head><body>' + header + Javascript + CPPForm + DWForm + MWForm + DKForm + IKForm + DTxForm + InfoForm + ImportForm + ImportTxForm + DeleteForm + BalanceForm + Misc + '</body></html>'

AboutPage="\
Pywallet is a tool to manage wallet files, developped by jackjack. <a href='https://bitcointalk.org/index.php?topic=34028'>Support thread</a> is on bitcointalk.<br />\
<br />\
To support pywallet's development or if you think it's worth something, you can send anything you want to 1AQDfx22pKGgXnUZFL1e4UKos3QqvRzNh5.\
\
<br /><br /><br /><br /><b>Dependencies:</b><br />\
				\
				&nbsp;&nbsp;&nbsp;ecdsa: "+dep_text_aboutpage('ecdsa' in missing_dep)+"\
				\
<br /><br /><b>Pywallet path:</b>&nbsp;&nbsp;&nbsp;"+pyw_path+"/"+pyw_filename+"\
				"

return html_wui(Javascript + \
					WI_Endiv(DWForm+DKForm+DTxForm, 'DumpPage', 'Dump', '') + \
					WI_Endiv(ImportForm+IKForm+MWForm+ImportTxForm+ImportROForm,'ImportPage', 'Import', "Don't forget to close Bitcoin when you modify your wallet", True) + \
					WI_Endiv(DeleteForm,'DeletePage', 'Delete', "Don't forget to close Bitcoin when you modify your wallet", True) + \
					WI_Endiv(CPPForm,'PassphrasePage', 'Change passphrase', '', True) + \
					WI_Endiv(InfoForm+BalanceForm,'InfoPage', 'Info', '', True) + \
					WI_Endiv(CreateTxForm2+CreateTxForm,'TxPage', 'Manage transactions', 'You can here create your own transactions. <br />By default, the unspent transactions from addresses previously dumped are shown, but you can add other addresses to check.<br />You can\'t create a transaction if you didn\'t dump the private keys of each input beforehand.', True) + \
					WI_Endiv(AboutPage,'AboutPage','About','', True)
				,check_version_text
				)

return page

def getChild(self, name, request):
			 if name == '':
				 return self
			 else:
				 if name in VIEWS.keys():
					 return resource.Resource.getChild(self, name, request)
				 else:
					 return WI404()

class WIDumpWallet(resource.Resource):

def render_GET(self, request):
			 try:

wdir=request.args['dir'][0]
					wname=request.args['name'][0]
					version = int(request.args['version'][0])
					log.msg('Wallet Dir: %s' %(wdir))
					log.msg('Wallet Name: %s' %(wname))

if not os.path.isfile(wdir+"/"+wname):
						return '%s/%s doesn\'t exist'%(wdir, wname)

try:
						bal=request.args['bal'][0]=='true'
					except:
						bal=false
					read_wallet(json_db, create_env(wdir), wname, True, True, "", bal, version)

#					print wdir
#					print wname
#					print json_db  #json.dumps(json_db, sort_keys=True, indent=4)

try:
						kfile=request.args['filetw'][0]
						kkeys=request.args['keys'][0]
#						print kkeys.split(',')
						reteak=export_all_keys(json_db, kkeys.split(','), kfile)
						return 'File'+X_if_else("",reteak," not")+' written'
					except:
						return 'Wallet: %s/%s<br />Dump:<pre>%s</pre>'%(wdir, wname, json.dumps(json_db, sort_keys=True, indent=4))
			 except:
				 log.err()
				 return 'Error in dump page'

def render_POST(self, request):
				 return self.render_GET(request)

class WIDumpTx(resource.Resource):

def render_GET(self, request):
			 try:
					wdir=request.args['dir'][0]
					wname=request.args['name'][0]
					jsonfile=request.args['file'][0]
					log.msg('Wallet Dir: %s' %(wdir))
					log.msg('Wallet Name: %s' %(wname))

if not os.path.isfile(wdir+"/"+wname):
						return '%s/%s doesn\'t exist'%(wdir, wname)
					if os.path.isfile(jsonfile):
						return '%s exists'%(jsonfile)

read_wallet(json_db, create_env(wdir), wname, True, True, "", None)
					write_jsonfile(jsonfile, json_db['tx'])
					return 'Wallet: %s/%s<br />Transations dumped in %s'%(wdir, wname, jsonfile)
			 except:
				 log.err()
				 return 'Error in dumptx page'

def render_POST(self, request):
				 return self.render_GET(request)

class WIMergeWallets(resource.Resource):

def render_GET(self, request):
			 try:
				dir1=request.args['dir1'][0]
				name1=request.args['name1'][0]
				pass1=request.args['pass1'][0]
				dir2=request.args['dir2'][0]
				name2=request.args['name2'][0]
				pass2=request.args['pass2'][0]
				dirm=request.args['dirm'][0]
				namem=request.args['namem'][0]
				passm1=request.args['passm1'][0]
				passm2=request.args['passm2'][0]
				if passm1!=passm2:
					return 'The passphrases for the merged wallet don\'t match. Aborted.'

r=merge_wallets(dir1, name1, dir2, name2, dirm, namem, pass1, pass2, passm1)
				if r[0]:
					return "Merging in progress..."
				else:
					return r[1]

return ret
			 except:
				 log.err()
				 return 'Error in mergewallets page'

def render_POST(self, request):
				 return self.render_GET(request)

class WIChangePP(resource.Resource):

def render_GET(self, request):
			 try:
				global passphrase
				passphrase=request.args['pp'][0]
				return 'Done'
			 except:
				log.err()
				return 'Error while changing passphrase'

def render_POST(self, request):
				 return self.render_GET(request)

class WIOthers(resource.Resource):

def render_GET(self, request):
			 try:
				global passphrase
				global global_merging_message

action=request.args['action'][0]
				if action=="update_mwdiv":
					ret=global_merging_message[0]
					global_merging_message[0]=global_merging_message[1]
					global_merging_message[1]=""
					return ret
				return 'Done'
			 except:
				log.err()
				return 'Error while WIOthers'

def render_POST(self, request):
				 return self.render_GET(request)

class WIBalance(resource.Resource):

def render_GET(self, request):
			 try:
					return "%s"%str(balance(balance_site, request.args['key'][0]).encode('utf-8'))
			 except:
				 log.err()
				 return 'Error in balance page'

def render_POST(self, request):
				 return self.render_GET(request)

class WIDelete(resource.Resource):

def render_GET(self, request):
			 try:
					wdir=request.args['dir'][0]
					wname=request.args['name'][0]
					keydel=request.args['keydel'][0]
					typedel=request.args['typedel'][0]
					db_env = create_env(wdir)

if not os.path.isfile(wdir+"/"+wname):
						return '%s/%s doesn\'t exist'%(wdir, wname)

deleted_items = delete_from_wallet(db_env, wname, typedel, keydel.split('-'))

return "%s:%s has been successfully deleted from %s/%s, resulting in %d deleted item%s"%(typedel, keydel, wdir, wname, deleted_items, iais(deleted_items))

except:
				 log.err()
				 return 'Error in delete page'

def render_POST(self, request):
				 return self.render_GET(request)

def message_to_hash(msg, msgIsHex=False):
	str = ""
#	str += '04%064x%064x'%(pubkey.point.x(), pubkey.point.y())
#	str += "Padding text - "
	str += msg
	if msgIsHex:
		str = str.decode('hex')
	hash = Hash(str)
	return hash

def sign_message(secret, msg, msgIsHex=False):
	k = KEY()
	k.generate(secret)
	return k.sign(message_to_hash(msg, msgIsHex))

def verify_message_signature(pubkey, sign, msg, msgIsHex=False):
	k = KEY()
	k.set_pubkey(pubkey.decode('hex'))
	return k.verify(message_to_hash(msg, msgIsHex), sign.decode('hex'))

OP_DUP = 118;
OP_HASH160 = 169;
OP_EQUALVERIFY = 136;
OP_CHECKSIG = 172;

XOP_DUP = "%02x"%OP_DUP;
XOP_HASH160 = "%02x"%OP_HASH160;
XOP_EQUALVERIFY = "%02x"%OP_EQUALVERIFY;
XOP_CHECKSIG = "%02x"%OP_CHECKSIG;

BTC = 1e8

def ct(l_prevh, l_prevn, l_prevsig, l_prevpubkey, l_value_out, l_pubkey_out, is_msg_to_sign=-1, oldScriptPubkey=""):
	scriptSig = True
	if is_msg_to_sign is not -1:
		scriptSig = False
		index = is_msg_to_sign

ret = ""
	ret += inverse_str("%08x"%1)
	nvin = len(l_prevh)
	ret += "%02x"%nvin

for i in range(nvin):
		txin_ret = ""
		txin_ret2 = ""

txin_ret += inverse_str(l_prevh[i])
		txin_ret += inverse_str("%08x"%l_prevn[i])

if scriptSig:
			txin_ret2 += "%02x"%(1+len(l_prevsig[i])/2)
			txin_ret2 += l_prevsig[i]
			txin_ret2 += "01"
			txin_ret2 += "%02x"%(len(l_prevpubkey[i])/2)
			txin_ret2 += l_prevpubkey[i]

txin_ret += "%02x"%(len(txin_ret2)/2)
			txin_ret += txin_ret2

elif index == i:
			txin_ret += "%02x"%(len(oldScriptPubkey)/2)
			txin_ret += oldScriptPubkey
		else:
			txin_ret += "00"

ret += txin_ret
		ret += "ffffffff"

nvout = len(l_value_out)
	ret += "%02x"%nvout
	for i in range(nvout):
		txout_ret = ""

txout_ret += inverse_str("%016x"%(l_value_out[i]))
		txout_ret += "%02x"%(len(l_pubkey_out[i])/2+5)
		txout_ret += "%02x"%OP_DUP
		txout_ret += "%02x"%OP_HASH160
		txout_ret += "%02x"%(len(l_pubkey_out[i])/2)
		txout_ret += l_pubkey_out[i]
		txout_ret += "%02x"%OP_EQUALVERIFY
		txout_ret += "%02x"%OP_CHECKSIG
		ret += txout_ret

ret += "00000000"
	if not scriptSig:
		ret += "01000000"
	return ret

def create_transaction(secret_key, hashes_txin, indexes_txin, pubkey_txin, prevScriptPubKey, amounts_txout, scriptPubkey):
	li1 = len(secret_key)
	li2 = len(hashes_txin)
	li3 = len(indexes_txin)
	li4 = len(pubkey_txin)
	li5 = len(prevScriptPubKey)

if li1 != li2 or li2 != li3 or li3 != li4 or li4 != li5:
		print("Error in the number of tx inputs")
		exit(0)

lo1 = len(amounts_txout)
	lo2 = len(scriptPubkey)

if lo1 != lo2:
		print("Error in the number of tx outputs")
		exit(0)

sig_txin = []
	i=0
	for cpt in hashes_txin:
		sig_txin.append(sign_message(secret_key[i].decode('hex'), ct(hashes_txin, indexes_txin, sig_txin, pubkey_txin, amounts_txout, scriptPubkey, i, prevScriptPubKey[i]), True)+"01")
		i+=1

tx = ct(hashes_txin, indexes_txin, sig_txin, pubkey_txin, amounts_txout, scriptPubkey)
	hashtx = Hash(tx.decode('hex')).encode('hex')

for i in range(len(sig_txin)):
		try:
			verify_message_signature(pubkey_txin[i], sig_txin[i][:-2], ct(hashes_txin, indexes_txin, sig_txin, pubkey_txin, amounts_txout, scriptPubkey, i, prevScriptPubKey[i]), True)
			print("sig %2d: verif ok"%i)
		except:
			print("sig %2d: verif error"%i)
			exit(0)

#	tx += end_of_wallettx([], int(time.time()))
#	return [inverse_str(hashtx), "027478" + hashtx, tx]
	return [inverse_str(hashtx), "", tx]

def inverse_str(string):
	ret = ""
	for i in range(len(string)/2):
		ret += string[len(string)-2-2*i];
		ret += string[len(string)-2-2*i+1];
	return ret

def read_table(table, beg, end):
	rows = table.split(beg)
	for i in range(len(rows)):
		rows[i] = rows[i].split(end)[0]
	return rows

def read_blockexplorer_table(table):
	cell = []
	rows = read_table(table, '<tr>', '</tr>')
	for i in range(len(rows)):
		cell.append(read_table(rows[i], '<td>', '</td>'))
		del cell[i][0]
	del cell[0]
	del cell[0]
	return cell

txin_amounts = {}

def bc_address_to_available_tx(address, testnet=False):
	TN=""
	if testnet:
		TN="testnet"

blockexplorer_url = "http://blockexplorer.com/"+TN+"/address/"
	ret = ""
	txin = []
	txin_no = {}
	global txin_amounts
	txout = []
	balance = 0
	txin_is_used = {}

page = urllib.urlopen("%s/%s" % (blockexplorer_url, address))
	try:
		table = page.read().split('<table class="txtable">')[1]
		table = table.split("</table>")[0]
	except:
		return {address:[]}

cell = read_blockexplorer_table(table)

for i in range(len(cell)):
		txhash = read_table(cell[i][0], '/tx/', '#')[1]
		post_hash = read_table(cell[i][0], '#', '">')[1]
		io = post_hash[0]
		no_tx = post_hash[1:]
		if io in 'i':
			txout.append([txhash, post_hash])
		else:
			txin.append(txhash+no_tx)
			txin_no[txhash+no_tx] = post_hash[1:]
			txin_is_used[txhash+no_tx] = 0

#hashblock = read_table(cell[i][1], '/block/', '">')[1]
		#blocknumber = read_table(cell[i][1], 'Block ', '</a>')[1]

txin_amounts[txhash+no_tx] = round(float(cell[i][2]), 8)

#		if cell[i][3][:4] in 'Sent' and io in 'o':
#			print(cell[i][3][:4])
#			print(io)
#			return 'error'
#		if cell[i][3][:4] in 'Rece' and io in 'i':
#			print(cell[i][3][:4])
#			print(io)
#			return 'error'

balance = round(float(cell[i][5]), 8)

for tx in txout:
		pagetx = urllib.urlopen("http://blockexplorer.com/"+TN+"/tx/"+tx[0])
		table_in = pagetx.read().split('<a name="outputs">Outputs</a>')[0].split('<table class="txtable">')[1].split("</table>")[0]

cell = read_blockexplorer_table(table_in)
		for i in range(len(cell)):
			txhash = read_table(cell[i][0], '/tx/', '#')[1]
			no_tx = read_table(cell[i][0], '#', '">')[1][1:]

if txhash+no_tx in txin:
				txin_is_used[txhash+no_tx] = 1

ret = []
	for tx in txin:
		if not txin_is_used[tx]:
			ret.append([tx,txin_amounts[tx],txin_no[tx]])

return {address : ret}

def write_avtx(list_avtx, testnet=False):
	TN=""
	if testnet:
		TN="testnet"
	gret = "<table border=1>"
	for add in list_avtx:
		notnull = False
		try:
			hexsec = " -> " + bc_address_to_sec[add]
		except:
			hexsec = ""
		ret = '<tr><td colspan=3 align="center" rowspan=1><a href="http://blockexplorer.com/'+TN+'/address/' +add + '">' + add + "</a>" + hexsec + '</td></tr>'
		a = list_avtx[add]
		for array in a:
			notnull = True
			no_tx = array[0][64:]
			array[0] = array[0][:64]
			link = "http://blockexplorer.com/"+TN+"/rawtx/"+array[0]
			pagetx = urllib.urlopen(link)
			ScriptPubkey = str(json.loads(pagetx.read())['out'][int(array[2])]['scriptPubKey'])
#			ret += '<a href="http://blockexplorer.com/tx/' +array[0] + '">' + array[0] + "#" + no_tx + "</a>: " + str(array[1]) + " & " + ScriptPubkey + "<br />"
			ret += '<tr><td><a href="http://blockexplorer.com/'+TN+'/tx/' +array[0] + '#' + no_tx + '">' + array[0] + "</a></td><td>" + str(array[1]) + "</td><td>" + ScriptPubkey + "</td></tr>"
		ret+="<tr><td colspan=3></td></tr>"
#		ret += "<br />" + "<br />"
		if notnull is False:
			ret = ""
		gret += ret
	gret=gret[:-len("<tr><td colspan=3></td></tr>")]

return gret+"</table>"

ct_txin = []
ct_txout = []

empty_txin={'hash':'', 'index':'', 'sig':'##', 'pubkey':'', 'oldscript':'', 'addr':''}
empty_txout={'amount':'', 'script':''}

class tx():
	ins=[]
	outs=[]
	tosign=False

def hashtypeone(index,script):
		global empty_txin
		for i in range(len(ins)):
			self.ins[i]=empty_txin
		self.ins[index]['pubkey']=""
		self.ins[index]['oldscript']=s
		self.tosign=True

def copy():
		r=tx()
		r.ins=self.ins[:]
		r.outs=self.outs[:]
		return r

def sign(n=-1):
		if n==-1:
			for i in range(len(ins)):
				self.sign(i)
				return "done"

global json_db
		txcopy=self.copy()
		txcopy.hashtypeone(i, self.ins[n]['oldscript'])

sec=''
		for k in json_db['keys']:
		  if k['addr']==self.ins[n]['addr'] and 'hexsec' in k:
			sec=k['hexsec']
		if sec=='':
			print "priv key not found (addr:"+self.ins[n]['addr']+")"
			return ""

self.ins[n]['sig']=sign_message(sec.decode('hex'), txcopy.get_tx(), True)

def ser():
		r={}
		r['ins']=self.ins
		r['outs']=self.outs
		r['tosign']=self.tosign
		return json.dumps(r)

def unser(r):
		s=json.loads(r)
		self.ins=s['ins']
		self.outs=s['outs']
		self.tosign=s['tosign']

def get_tx():
		r=''
		ret += inverse_str("%08x"%1)
		ret += "%02x"%len(self.ins)

for i in range(len(self.ins)):
			txin=self.ins[i]
			ret += inverse_str(txin['hash'])
			ret += inverse_str("%08x"%txin['index'])

if txin['pubkey']!="":
				tmp += "%02x"%(1+len(txin['sig'])/2)
				tmp += txin['sig']
				tmp += "01"
				tmp += "%02x"%(len(txin['pubkey'])/2)
				tmp += txin['pubkey']

ret += "%02x"%(len(tmp)/2)
				ret += tmp

elif txin['oldscript']!="":
				ret += "%02x"%(len(txin['oldscript'])/2)
				ret += txin['oldscript']

else:
				ret += "00"

ret += "ffffffff"

ret += "%02x"%len(self.outs)

for i in range(len(self.outs)):
			txout=self.outs[i]
			ret += inverse_str("%016x"%(txout['amount']))

if txout['script'][:2]=='s:':  #script
				script=txout['script'][:2]
				ret += "%02x"%(len(script)/2)
				ret += script
			else:                         #address
				ret += "%02x"%(len(txout['script'])/2+5)
				ret += "%02x"%OP_DUP
				ret += "%02x"%OP_HASH160
				ret += "%02x"%(len(txout['script'])/2)
				ret += txout['script']
				ret += "%02x"%OP_EQUALVERIFY
				ret += "%02x"%OP_CHECKSIG

ret += "00000000"
		if not self.tosign:
			ret += "01000000"
		return ret

def listtx_txt(adds):
			untx_site="http://blockchain.info/unspent?active="
			ret=''
			table="""<form action='CT' method=post><table border=1>"""
			utx=untx_site+adds
			try:
				utxs=json.loads(urllib.urlopen(utx).read())["unspent_outputs"]
			except:
				return "No inputs"

table+="<tr>\
					<td>Use</td>\
					<td>Tx hash</td>\
					<td>Script</td>\
					<td>Amount</td>\
				</tr>"
			for tx in utxs:
				txhash=str(tx["tx_hash"]).decode('hex')[::-1].encode('hex')
				txn=int(tx["tx_output_n"])
				txscript=str(tx["script"])
				txvalue=int(tx["value"])
				table+="<tr>"
				table+="<td>\
							<input type=checkbox onchange='totalin+=(this.checked?1:-1)*"+str(txvalue)+";majfee();' value='' defaultChecked=false name='txin_"+txhash+"_use_"+random_string(6)+"' >\
							<input type=hidden name='txin_"+txhash+"_h' value='"+str(txhash)+"'>\
							<input type=hidden name='txin_"+txhash+"_n' value='"+str(txn)+"'>\
							<input type=hidden name='txin_"+txhash+"_script' value='"+txscript+"'>\
<input type=hidden name='txin_"+txhash+"_amin' value='"+str(txvalue)+"'>\
						</td>"
#				table+="<td>"+a+"</td>"
				table+="<td>"+txhash+"</td>"
				table+=""
				if txscript[:6]+txscript[-4:]=="76a91488ac":
					table+="<td>Address "+hash_160_to_bc_address(txscript[6:-4].decode('hex'))+"</td>"
					table+="<input type=hidden name='txin_"+txhash+"_add' value='"+hash_160_to_bc_address(txscript[6:-4].decode('hex'))+"'>"
				else:
					table+="<td>"+txscript+"</td>"

table+="<td>"+str(txvalue/1e8)+"</td>"
				table+="</tr>\n"
			table+="</table>"
			ret+=table

ret+="<span id='tot_in'>0</span> BTC (inputs) - <span id='tot_out'>0</span> BTC (outputs) = <span id='tot_fee'>0</span> BTC (fee)<br /><br />"

txouts=""
			nbretxouts=30
			unserouts=["parseFloat(document.getElementById(\"txout_am_"+str(i)+"\").value)" for i in range(nbretxouts)]
			serouts="+".join(unserouts)
			for i in range(nbretxouts):
				txouts+="<span id='txout_"+str(i)+"' style='display:"+X_if_else("inline",i<3,"none")+";' >\
Amount: <input value='0' onchange='totalout=Math.round(("+serouts+")*100000000);majfee();' name='txout_am_"+str(i)+"' id='txout_am_"+str(i)+"' />&nbsp;&nbsp;&nbsp;&nbsp;Script: <input name='txout_script_"+str(i)+"' />\
\
\
\
<br />"+X_if_else("<input type=button id='button_txout_"+str(i)+"' value='Add a txout' onclick='document.getElementById(\"txout_"+str(i+X_if_else(0,i==nbretxouts-1,1))+"\").style.display=\"block\";document.getElementById(\"button_txout_"+str(i)+"\").style.display=\"none\";' />",i>=2,"")+"</span>"

ret+=txouts
			ret+="<input type=submit value='Create' /></form>"
#			ret+=WI_Submit('Create', '', '', 'ajaxCTX2')

return ret

if 'twisted' not in missing_dep:
	class WIInfo(resource.Resource):

def render_GET(self, request):
			 global addrtype
			 try:
					sec = request.args['key'][0]
					format = request.args['format'][0]
					addrtype = int(request.args['vers'][0])
					msgIsHex = False
					msgIsFile = False
					try:
						msg = request.args['msg'][0]
						if msg[0:4] == "Hex:":
							msg = msg[4:]
							msgIsHex = True
						elif msg[0:5] == "File:":
							msg = msg[5:]
							if not os.path.isfile(msg):
								return '%s doesn\'t exist'%(msg)
							filin = open(msg, 'r')
							msg = filin.read()
							filin.close()
							msgIsFile = True

sig = request.args['sig'][0]
						pubkey = request.args['pubkey'][0]
						need = int(request.args['need'][0])
					except:
						need = 1

ret = ""

if sec is not '':
						if format in 'reg':
							pkey = regenerate_key(sec)
							compressed = is_compressed(sec)
						elif len(sec) == 64:
							pkey = EC_KEY(str_to_long(sec.decode('hex')))
							compressed = False
						elif len(sec) == 66:
							pkey = EC_KEY(str_to_long(sec[:-2].decode('hex')))
							compressed = True
						else:
							return "Hexadecimal private keys must be 64 characters long"

if not pkey:
							return "Bad private key"

secret = GetSecret(pkey)
						private_key = GetPrivKey(pkey, compressed)
						public_key = GetPubKey(pkey, compressed)
						addr = public_key_to_bc_address(public_key)

if need & 1:
							ret += "Address (%s): %s<br />"%(aversions[addrtype], addr)
							ret += "Privkey (%s): %s<br />"%(aversions[addrtype], SecretToASecret(secret, compressed))
							ret += "Hexprivkey: %s<br />"%(secret.encode('hex'))
							ret += "Hash160: %s<br />"%(bc_address_to_hash_160(addr).encode('hex'))
	#						ret += "Inverted hexprivkey: %s<br />"%(inversetxid(secret.encode('hex')))
							ret += "Pubkey: <span style='font-size:60%%;'>04%.64x%.64x</span><br />"%(pkey.pubkey.point.x(), pkey.pubkey.point.y())
							ret += X_if_else('<br /><br /><b>Beware, 0x%s is equivalent to 0x%.33x</b>'%(secret.encode('hex'), int(secret.encode('hex'), 16)-_r), (int(secret.encode('hex'), 16)>_r), '')

if 'ecdsa' not in missing_dep and need & 2:
						if sec is not '' and msg is not '':
							if need & 1:
								ret += "<br />"
							ret += "Signature of '%s' by %s: <span style='font-size:60%%;'>%s</span><br />Pubkey: <span style='font-size:60%%;'>04%.64x%.64x</span><br />"%(X_if_else(msg, not msgIsFile, request.args['msg'][0]), addr, sign_message(secret, msg, msgIsHex), pkey.pubkey.point.x(), pkey.pubkey.point.y())

if sig is not '' and msg is not '' and pubkey is not '':
							addr = public_key_to_bc_address(pubkey.decode('hex'))
							try:
								verify_message_signature(pubkey, sig, msg, msgIsHex)
								ret += "<br /><span style='color:#005500;'>Signature of '%s' by %s is <span style='font-size:60%%;'>%s</span></span><br />"%(X_if_else(msg, not msgIsFile, request.args['msg'][0]), addr, sig)
							except:
								ret += "<br /><span style='color:#990000;'>Signature of '%s' by %s is NOT <span style='font-size:60%%;'>%s</span></span><br />"%(X_if_else(msg, not msgIsFile, request.args['msg'][0]), addr, sig)

return ret

except:
				 log.err()
				 return 'Error in info page'

def render_POST(self, request):
				 return self.render_GET(request)

class WIImportTx(resource.Resource):

def render_GET(self, request):
			 global addrtype
			 try:
					wdir=request.args['dir'][0]
					wname=request.args['name'][0]
					txk=request.args['txk'][0]
					txv=request.args['txv'][0]
					d = {}

if not os.path.isfile(wdir+"/"+wname):
						return '%s/%s doesn\'t exist'%(wdir, wname)

if txk not in "file":
						dd = [{'tx_k':txk, 'tx_v':txv}]
					else:
						if not os.path.isfile(txv):
							return '%s doesn\'t exist'%(txv)
						dd = read_jsonfile(txv)

db_env = create_env(wdir)
					read_wallet(json_db, db_env, wname, True, True, "", None)
					db = open_wallet(db_env, wname, writable=True)

i=0
					for tx in dd:
						d = {'txi':tx['tx_k'], 'txv':tx['tx_v']}
						print(d)
						update_wallet(db, "tx", d)
						i+=1

db.close()

return "<pre>hash: %s\n%d transaction%s imported in %s/%s<pre>" % (inverse_str(txk[6:]), i, iais(i), wdir, wname)

except:
				 log.err()
				 return 'Error in importtx page'

def render_POST(self, request):
				 return self.render_GET(request)

class WIQuit(resource.Resource):
		def render_GET(self, request):
			reactor.stop()
		def render_POST(self, request):
			return self.render_GET(request)

class WICTListTx(resource.Resource):
		def render_GET(self, request):
			global CTX_adds
			try:
				adds=request.args['addresses'][0]
				CTX_adds=adds
			except:
				return "You must provide at least one address to see the transaction you can spend. Divided by |"

ret=""
			ret=listtx_txt(adds)
			return "Refresh to display available incoming transactions"

def render_POST(self, request):
			return self.render_GET(request)

class WICT(resource.Resource):
		def render_GET(self, request):
			#CT?sec=s&hashesin=h&indexes=1&pubkeys=p&prevspk=r&amounts=2453628&spk=spk#tbend
			global txin_amounts, json_db
			display = ""

try:
				testnet=request.args['testnet'][0]
				TN="testnet"
			except:
				TN=""

try:

list_sec, list_hin, list_indexes, list_pubs, list_scriptin, list_outam, list_scriptout, list_amin = [[] for i in range(8)]

txin_to_use=[]
				txouts_nos=[]
				txouts_not_empty=[]
				for i in request.args:
					if i[:4]=='txin' and i[-10:-7]=='use':
						txin_to_use.append(i.split('_')[1])
					if i[:4]=='txou' and i.split('_')[2] not in txouts_nos:
						p=i.split('_')[1]
						no=i.split('_')[2]
						txouts_nos.append(no)

for no in txouts_nos:
				  if request.args['txout_am_'+no][0]!='' and request.args['txout_am_'+no][0]!='0':
					list_outam.append(request.args['txout_am_'+no][0])
					list_scriptout.append(request.args['txout_script_'+no][0])

global addr_to_keys
				for h in txin_to_use:
					if request.args['txin_'+h+'_add'][0] not in addr_to_keys.keys():
						return "<br />No private key for "+request.args['txin_'+h+'_add'][0]+", please dump a wallet containing this address<br /><br /><a href='http://localhost:"+str(webport)+"'>Return to Pywallet</a>"

list_hin.append(h)
					list_indexes.append(request.args['txin_'+h+'_n'][0])
					list_scriptin.append(request.args['txin_'+h+'_script'][0])
					list_sec.append(addr_to_keys[request.args['txin_'+h+'_add'][0]][0])
					list_pubs.append(addr_to_keys[request.args['txin_'+h+'_add'][0]][1])
					list_amin.append(request.args['txin_'+h+'_amin'][0])

sec=",".join(list_sec)
				hashesin=",".join(list_hin)
				indexes=",".join(list_indexes)
				pubkeys=",".join(list_pubs)
				prevspk=",".join(list_scriptin)
				amins=",".join(list_amin)
				amounts=",".join(list_outam)
				spk=",".join(list_scriptout)

except:
				display += "error"
				return display

secret_key = sec.split(',')
			hashes_txin = hashesin.split(',')
			indexes_txin = indexes.split(',')
			for i in range(len(indexes_txin)):
				indexes_txin[i] = int(indexes_txin[i])
			pubkey_txin = pubkeys.split(',')
			am_txin = amins.split(',')
			prevScriptPubKey = prevspk.split(',')

amounts_txout = amounts.split(',')
			for i in range(len(amounts_txout)):
				amounts_txout[i] = int(1e8*float(amounts_txout[i]))
			spk_txout = spk.split(',')

tx = create_transaction(secret_key, hashes_txin, indexes_txin, pubkey_txin, prevScriptPubKey, amounts_txout, spk_txout)

display += "Inputs: (go to <a href='CTTest'>CTTest</a> before)<br />"
			sum_in = 0
			for i in range(len(hashes_txin)):
				try:
#					ain = txin_amounts[hashes_txin[i] + ("%d"%indexes_txin[i])]
					ain=int(am_txin[i])/1e8
					aaa = ", %.8f BTC"%ain
					sum_in += ain
				except:
					aaa = ""
				display += ('%d: <a href="http://blockexplorer.com/'+TN+'/tx/%s#o%d">%s #%d</a>%s<br />')%(i, hashes_txin[i], indexes_txin[i], hashes_txin[i], indexes_txin[i], aaa)

display += "<br /><br />Outputs:<br />"
			sum_out = 0
			for i in range(len(spk_txout)):
				sum_out += amounts_txout[i]/BTC
				display += '%.8f BTC to %s<br />'%(amounts_txout[i]/BTC, hash_160_to_bc_address(spk_txout[i].decode('hex')))

display += "<br />"
			display += "<br />"
			display += "In: %.8f BTC"%sum_in
			display += "<br />"
			display += "Out: %.8f BTC"%sum_out
			display += "<br />"
			display += "Fee: %.8f BTC"%(sum_in-sum_out)
			display += "<br />"
			display += "<br />"
			display += "<br />"
			display += ("<pre>Transaction hash: "+tx[0])
			display += "<br />"
#			display += ("tx_k:    "+tx[1])
#			display += "<br />"
			display += ("Raw transaction:       "+tx[2])

display += "</pre><br />"

return display

def render_POST(self, request):
			return self.render_GET(request)

class WICTTest(resource.Resource):

def render_GET(self, request):
			try:
				request.args['testnet'][0]
				testnet=True
			except:
				testnet=False
			list_avtx = {}
			i = 0

try:
				for add in request.args['addresses'][0].split(','):
					print "Address %d: %s"%(i, add)
					list_avtx[add] = bc_address_to_available_tx(add, testnet)[add]
					i += 1

print(list_avtx)

display = ""
				display += write_avtx(list_avtx, testnet)
			except:
				display="You must provide at least one address to see the transaction you can spend.<br /><a href='CTTest?addresses=1BAdzvknPux2zqG2eNawvgitCW1aqwE4bb'>Like this</a>"

return display

def render_POST(self, request):
			return self.render_GET(request)

class WIImport(resource.Resource):

def render_GET(self, request):
			 global addrtype
			 try:
                                pub=request.args['pub'][0]
                                try:
										wdir=request.args['dir'][0]
										wname=request.args['name'][0]
										label=request.args['label'][0]

db_env = create_env(wdir)
										db = open_wallet(db_env, wname, writable=True)
										update_wallet(db, 'ckey', { 'public_key' : pub.decode('hex'), 'encrypted_private_key' : random_string(96).decode('hex') })
										update_wallet(db, 'name', { 'hash' : public_key_to_bc_address(pub.decode('hex')), 'name' : "Read-only: "+label })
										db.close()
										return "Read-only address "+public_key_to_bc_address(pub.decode('hex'))+" imported"
        			except:
										return "Read-only address "+public_key_to_bc_address(pub.decode('hex'))+" not imported"
			 except:
                                pass

try:

wdir=request.args['dir'][0]
					wname=request.args['name'][0]

try:		#Import a single key
						addrtype = int(request.args['vers'][0])
						format = X_if_else('hex', request.args['format'][0]=='true', 'reg')
						reserve=request.args.has_key('reserve')
						label=request.args['label'][0]
						compressed=request.args['com'][0]=='true'
						tocrypt=request.args['cry'][0]=='true'
						sec = request.args['key'][0]
					except:		#Import csv file
						ret=import_csv_keys(request.args['file'][0],wdir,wname)
						return "File "+X_if_else("", ret, "not ")+"imported"

if format in 'reg':
						pkey = regenerate_key(sec)
						compressed = is_compressed(sec)
					elif len(sec) == 64:
						pkey = EC_KEY(str_to_long(sec.decode('hex')))
						compressed = False
					elif len(sec) == 66:
						pkey = EC_KEY(str_to_long(sec[:-2].decode('hex')))
						compressed = True
					else:
						return "Hexadecimal private keys must be 64 or 66 characters long"

if not pkey:
						return "Bad private key"

if not os.path.isfile(wdir+"/"+wname):
						return '%s/%s doesn\'t exist'%(wdir, wname)

db_env = create_env(wdir)
					ret_read = read_wallet(json_db, db_env, wname, True, True, "", None)
					tocrypt = ret_read['crypted']
					db = open_wallet(db_env, wname, writable=True)

secret = GetSecret(pkey)
					private_key = GetPrivKey(pkey, compressed)
					public_key = GetPubKey(pkey, compressed)
					addr = public_key_to_bc_address(public_key)

if (format in 'reg' and sec in private_keys) or (format not in 'reg' and sec in private_hex_keys):
						return "Already exists"

if not tocrypt:
						update_wallet(db, 'key', { 'public_key' : public_key, 'private_key' : private_key })
					else:
						cry_master = json_db['mkey']['encrypted_key'].decode('hex')
						cry_salt   = json_db['mkey']['salt'].decode('hex')
						cry_rounds = json_db['mkey']['nDerivationIterations']
						cry_method = json_db['mkey']['nDerivationMethod']

crypter.SetKeyFromPassphrase(passphrase, cry_salt, cry_rounds, cry_method)
						masterkey = crypter.Decrypt(cry_master)
						crypter.SetKey(masterkey)
						crypter.SetIV(Hash(public_key))
						e = crypter.Encrypt(secret)
						ck_epk=e

update_wallet(db, 'ckey', { 'public_key' : public_key, 'encrypted_private_key' : ck_epk })

if not reserve:
						update_wallet(db, 'name', { 'hash' : addr, 'name' : label })

db.close()

return "<pre>Address: %s\nPrivkey: %s\nHexkey: %s\nKey (%scrypted, %scompressed) imported in %s/%s<pre>" % (addr, SecretToASecret(secret, compressed), secret.encode('hex'), X_if_else("",tocrypt,"un"), X_if_else("",compressed,"un"), wdir, wname)

except:
				 log.err()
				 return 'Error in import page'

def render_POST(self, request):
				 return self.render_GET(request)

class WI404(resource.Resource):

def render_GET(self, request):
			 return 'Page Not Found'

def update_pyw():
	if md5_last_pywallet[0] and md5_last_pywallet[1] not in md5_pywallet:
		dl=urllib.urlopen('https://raw.github.com/jackjack-jj/pywallet/master/pywallet.py').read()
		if len(dl)>40 and md5_2(dl)==md5_last_pywallet[1]:
			filout = open(pyw_path+"/"+pyw_filename, 'w')
			filout.write(dl)
			filout.close()
			thread.start_new_thread(restart_pywallet, ())
			return "Updated, restarting..."
		else:
			return "Problem when downloading new version ("+md5_2(dl)+"/"+md5_last_pywallet[1]+")"

def restart_pywallet():
	thread.start_new_thread(start_pywallet, ())
	time.sleep(2)
	reactor.stop()

def start_pywallet():
	a=Popen("python "+pyw_path+"/"+pyw_filename+" --web --port "+str(webport)+" --wait 3", shell=True, bufsize=-1, stdout=PIPE).stdout
	a.close()

def clone_wallet(parentPath, clonePath):
	types,datas=[],[]
	parentdir,parentname=os.path.split(parentPath)
	wdir,wname=os.path.split(clonePath)

db_env = create_env(parentdir)
	read_wallet(json_db, db_env, parentname, True, True, "", False)

types.append('version')
	datas.append({'version':json_db['version']})
	types.append('defaultkey')
	datas.append({'key':json_db['defaultkey']})
	for k in json_db['keys']:
		types.append('ckey')
		datas.append({'public_key':k['pubkey'].decode('hex'),'encrypted_private_key':random_string(96).decode('hex')})
	for k in json_db['pool']:
		types.append('pool')
		datas.append({'n':k['n'],'nVersion':k['nVersion'],'nTime':k['nTime'],'public_key':k['public_key_hex'].decode('hex')})
	for addr,label in json_db['names'].items():
		types.append('name')
		datas.append({'hash':addr,'name':'Watch:'+label})

db_env = create_env(wdir)
	create_new_wallet(db_env, wname, 60000)

db = open_wallet(db_env, wname, True)
	NPP_salt=random_string(16).decode('hex')
	NPP_rounds=int(50000+random.random()*20000)
	NPP_method=0
	NPP_MK=random_string(64).decode('hex')
	crypter.SetKeyFromPassphrase(random_string(64), NPP_salt, NPP_rounds, NPP_method)
	NPP_EMK = crypter.Encrypt(NPP_MK)
	update_wallet(db, 'mkey', {
		"encrypted_key": NPP_EMK,
		'nDerivationIterations' : NPP_rounds,
		'nDerivationMethod' : NPP_method,
		'nID' : 1,
		'otherParams' : ''.decode('hex'),
		"salt": NPP_salt
	})
	db.close()

read_wallet(json_db, db_env, wname, True, True, "", False)

db = open_wallet(db_env, wname, writable=True)
	update_wallet(db, types, datas, True)
	db.close()
	print "Wallet successfully cloned to:\n   %s"%clonePath

import thread
md5_last_pywallet = [False, ""]

def retrieve_last_pywallet_md5():
	global md5_last_pywallet
	md5_last_pywallet = [True, md5_onlinefile('https://raw.github.com/jackjack-jj/pywallet/master/pywallet.py')]

from optparse import OptionParser

if __name__ == '__main__':

parser = OptionParser(usage="%prog [options]", version="%prog 1.1")

parser.add_option("--passphrase", dest="passphrase",
		help="passphrase for the encrypted wallet")

parser.add_option("--dumpwallet", dest="dump", action="store_true",
		help="dump wallet in json format")

parser.add_option("--dumpwithbalance", dest="dumpbalance", action="store_true",
		help="includes balance of each address in the json dump, takes about 2 minutes per 100 addresses")

parser.add_option("--importprivkey", dest="key",
		help="import private key from vanitygen")

parser.add_option("--importhex", dest="keyishex", action="store_true",
		help="KEY is in hexadecimal format")

parser.add_option("--datadir", dest="datadir",
		help="wallet directory (defaults to bitcoin default)")

parser.add_option("--wallet", dest="walletfile",
		help="wallet filename (defaults to wallet.dat)",
		default="wallet.dat")

parser.add_option("--label", dest="label",
		help="label shown in the adress book (defaults to '')",
		default="")

parser.add_option("--testnet", dest="testnet", action="store_true",
		help="use testnet subdirectory and address type")

parser.add_option("--namecoin", dest="namecoin", action="store_true",
		help="use namecoin address type")

parser.add_option("--otherversion", dest="otherversion",
		help="use other network address type, whose version is OTHERVERSION")

parser.add_option("--info", dest="keyinfo", action="store_true",
		help="display pubkey, privkey (both depending on the network) and hexkey")

parser.add_option("--reserve", dest="reserve", action="store_true",
		help="import as a reserve key, i.e. it won't show in the adress book")

parser.add_option("--multidelete", dest="multidelete",
		help="deletes data in your wallet, according to the file provided")

parser.add_option("--balance", dest="key_balance",
		help="prints balance of KEY_BALANCE")

parser.add_option("--web", dest="web", action="store_true",
		help="run pywallet web interface")

parser.add_option("--port", dest="port",
		help="port of web interface (defaults to 8989)")

parser.add_option("--recover", dest="recover", action="store_true",
		help="recover your deleted keys, use with recov_size and recov_device")

parser.add_option("--recov_device", dest="recov_device",
		help="device to read (e.g. /dev/sda1 or E: or a file)")

parser.add_option("--recov_size", dest="recov_size",
		help="number of bytes to read (e.g. 20Mo or 50Gio)")

parser.add_option("--recov_outputdir", dest="recov_outputdir",
		help="output directory where the recovered wallet will be put")

parser.add_option("--clone_watchonly_from", dest="clone_watchonly_from",
		help="path of the original wallet")

parser.add_option("--clone_watchonly_to", dest="clone_watchonly_to",
		help="path of the resulting watch-only wallet")

parser.add_option("--dont_check_walletversion", dest="dcv", action="store_true",
		help="don't check if wallet version > %d before running (WARNING: this may break your wallet, be sure you know what you do)"%max_version)

parser.add_option("--wait", dest="nseconds",
		help="wait NSECONDS seconds before launch")

#	parser.add_option("--forcerun", dest="forcerun",
#		action="store_true",
#		help="run even if pywallet detects bitcoin is running")

(options, args) = parser.parse_args()

#	a=Popen("ps xa | grep ' bitcoin'", shell=True, bufsize=-1, stdout=PIPE).stdout
#	aread=a.read()
#	nl = aread.count("\n")
#	a.close()
#	if nl > 2:
#		print('Bitcoin seems to be running: \n"%s"'%(aread))
#		if options.forcerun is None:
#			exit(0)

if options.nseconds:
		time.sleep(int(options.nseconds))

if options.passphrase:
		passphrase = options.passphrase

if options.clone_watchonly_from is not None and options.clone_watchonly_to:
		clone_wallet(options.clone_watchonly_from, options.clone_watchonly_to)
		exit(0)

if options.recover:
		if options.recov_size is None or options.recov_device is None or options.recov_outputdir is None:
			print("You must provide the device, the number of bytes to read and the output directory")
			exit(0)
		device = options.recov_device
		if len(device) in [2,3] and device[1]==':':
			device="\\\\.\\"+device
		size = read_device_size(options.recov_size)

passphraseRecov=''
		while passphraseRecov=='':
			passphraseRecov=raw_input("Enter the passphrase for the wallet that will contain all the recovered keys: ")
		passphrase=passphraseRecov

passes=[]
		p=' '
		print '\nEnter the possible passphrases used in your deleted wallets.'
		print "Don't forget that more passphrases = more time to test the possibilities."
		print 'Write one passphrase per line and end with an empty line.'
		while p!='':
			p=raw_input("Possible passphrase: ")
			if p!='':
				passes.append(p)

print "\nStarting recovery."
		recoveredKeys=recov(device, passes, size, 10240, options.recov_outputdir)
		recoveredKeys=list(set(recoveredKeys))
#		print recoveredKeys[0:5]

db_env = create_env(options.recov_outputdir)
		recov_wallet_name = "recovered_wallet_%s.dat"%ts()

create_new_wallet(db_env, recov_wallet_name, 32500)

if passphraseRecov!="I don't want to put a password on the recovered wallet and I know what can be the consequences.":
			db = open_wallet(db_env, recov_wallet_name, True)

NPP_salt=os.urandom(8)
			NPP_rounds=int(50000+random.random()*20000)
			NPP_method=0
			NPP_MK=os.urandom(32)
			crypter.SetKeyFromPassphrase(passphraseRecov, NPP_salt, NPP_rounds, NPP_method)
			NPP_EMK = crypter.Encrypt(NPP_MK)
			update_wallet(db, 'mkey', {
				"encrypted_key": NPP_EMK,
				'nDerivationIterations' : NPP_rounds,
				'nDerivationMethod' : NPP_method,
				'nID' : 1,
				'otherParams' : ''.decode('hex'),
				"salt": NPP_salt
			})
			db.close()

read_wallet(json_db, db_env, recov_wallet_name, True, True, "", False)

db = open_wallet(db_env, recov_wallet_name, True)

print "\n\nImporting:"
		for i,sec in enumerate(recoveredKeys):
			sec=sec.encode('hex')
			print("\nImporting key %4d/%d:"%(i+1, len(recoveredKeys)))
			importprivkey(db, sec, "recovered: %s"%sec, None, True)
			importprivkey(db, sec+'01', "recovered: %s"%sec, None, True)
		db.close()

print("\n\nThe new wallet %s/%s contains the %d recovered key%s"%(options.recov_outputdir, recov_wallet_name, len(recoveredKeys), iais(len(recoveredKeys))))

exit(0)

if 'bsddb' in missing_dep:
		print("pywallet needs 'bsddb' package to run, please install it")
		exit(0)

if 'twisted' in missing_dep and options.web is not None:
		print("'twisted' package is not installed, pywallet web interface can't be launched")
		exit(0)

if 'ecdsa' in missing_dep:
		print("'ecdsa' package is not installed, pywallet won't be able to sign/verify messages")

if 'twisted' not in missing_dep:
		VIEWS = {
			 'DumpWallet': WIDumpWallet(),
			 'MergeWallets': WIMergeWallets(),
			 'Import': WIImport(),
			 'ImportTx': WIImportTx(),
			 'DumpTx': WIDumpTx(),
			 'Info': WIInfo(),
			 'Delete': WIDelete(),
			 'Balance': WIBalance(),
			 'ChangePP': WIChangePP(),
			 'Others': WIOthers(),
			 'LoadBalances': WICTTest(),
			 'CTTest': WICTTest(),
			 'ListTransactions': WICTListTx(),
			 'CreateTransaction': WICT(),
			 'CT': WICT(),
			 'quit': WIQuit()

}

if options.dcv is not None:
		max_version = 10 ** 9

if options.datadir is not None:
		wallet_dir = options.datadir

if options.walletfile is not None:
		wallet_name = options.walletfile

if 'twisted' not in missing_dep and options.web is not None:
		md5_pywallet = md5_file(pyw_path+"/"+pyw_filename)
		thread.start_new_thread(retrieve_last_pywallet_md5, ())

webport = 8989
		if options.port is not None:
			webport = int(options.port)
		root = WIRoot()
		for viewName, className in VIEWS.items():
			root.putChild(viewName, className)
		log.startLogging(sys.stdout)
		log.msg('Starting server: %s' %str(datetime.now()))
		server = server.Site(root)
		reactor.listenTCP(webport, server)
		reactor.run()
		exit(0)

if options.key_balance is not None:
		print(balance(balance_site, options.key_balance))
		exit(0)

if options.dump is None and options.key is None and options.multidelete is None:
		print "A mandatory option is missing\n"
		parser.print_help()
		exit(0)

if options.namecoin or options.otherversion is not None:
		if options.datadir is None and options.keyinfo is None:
			print("You must provide your wallet directory")
			exit(0)
		else:
			if options.namecoin:
				addrtype = 52
			else:
				addrtype = int(options.otherversion)

if options.keyinfo is not None:
		if not keyinfo(options.key, options.keyishex):
			print "Bad private key"
		exit(0)

db_dir = determine_db_dir()

if options.testnet:
		db_dir += "/testnet3"
		addrtype = 111

db_env = create_env(db_dir)

if options.multidelete is not None:
		filename=options.multidelete
		filin = open(filename, 'r')
		content = filin.read().split('\n')
		filin.close()
		typedel=content[0]
		kd=filter(bool,content[1:])
		try:
			r=delete_from_wallet(db_env, determine_db_name(), typedel, kd)
			print '%d element%s deleted'%(r, 's'*(int(r>1)))
		except:
			print "Error: do not try to delete a non-existing transaction."
			exit(1)
		exit(0)

read_wallet(json_db, db_env, determine_db_name(), True, True, "", options.dumpbalance is not None)

if json_db.get('minversion') > max_version:
		print "Version mismatch (must be <= %d)" % max_version
		#exit(1)

if options.dump:
		print json.dumps(json_db, sort_keys=True, indent=4)
	elif options.key:
		if json_db['version'] > max_version:
			print "Version mismatch (must be <= %d)" % max_version
		elif (options.keyishex is None and options.key in private_keys) or (options.keyishex is not None and options.key in private_hex_keys):
			print "Already exists"
		else:
			db = open_wallet(db_env, determine_db_name(), writable=True)

if importprivkey(db, options.key, options.label, options.reserve, options.keyishex):
				print "Imported successfully"
			else:
				print "Bad private key"

db.close()

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