RRG-Proxmark3/client/pyscripts/fm11rf08_full.py

1059 lines
36 KiB
Python

#!/usr/bin/env python3
# ------------------------------------------------------------------------------
# Imports
#
import re
import os
import sys
import argparse
import pm3
import struct
import json
from fm11rf08s_recovery import recovery
author = "@csBlueChip"
script_ver = "1.2.0"
# Copyright @csBlueChip
# This program is free software: you can redistribute it and/or modify
# it under the terms of the GNU General Public License as published by
# the Free Software Foundation, either version 3 of the License, or
# (at your option) any later version.
# This program is distributed in the hope that it will be useful,
# but WITHOUT ANY WARRANTY; without even the implied warranty of
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
# GNU General Public License for more details.
# See LICENSE.txt for the text of the license.
# ~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~~
# The original version of this script can be found at:
# https://github.com/csBlueChip/Proxmark_Stuff/tree/main/MiFare_Docs/Fudan_RF08(S)/PM3_Script
# The original version is released with an MIT Licence.
# Or please reach out to me [BlueChip] personally for alternative licenses.
# optional color support .. `pip install ansicolors`
try:
from colors import color
except ModuleNotFoundError:
def color(s, fg=None):
_ = fg
return str(s)
def initlog():
"""Print and Log: init globals
globals:
- logbuffer (W)
- logfile (W)
"""
global logbuffer
global logfile
logbuffer = ''
logfile = None
def startlog(uid, dpath, append=False):
"""Print and Log: set logfile and flush logbuffer
globals:
- logbuffer (RW)
- logfile (RW)
"""
global logfile
global logbuffer
logfile = f"{dpath}hf-mf-{uid.hex().upper()}-log.txt"
if append is False:
with open(logfile, 'w'):
pass
if logbuffer != '':
with open(logfile, 'a') as f:
f.write(logbuffer)
logbuffer = ''
def lprint(s='', end='\n', flush=False, prompt="[" + color("=", fg="yellow") + "] ", log=True):
"""Print and Log
globals:
- logbuffer (RW)
- logfile (R)
"""
s = f"{prompt}" + f"\n{prompt}".join(s.split('\n'))
print(s, end=end, flush=flush)
if log is True:
global logbuffer
if logfile is not None:
with open(logfile, 'a') as f:
f.write(s + end)
else:
# buffering
logbuffer += s + end
def main():
"""== MAIN ==
globals:
- p (W)
"""
global p
p = pm3.pm3() # console interface
initlog()
if not checkVer():
return
dpath = getPrefs()
args = parseCli()
# No logfile name yet
lprint("Fudan FM11RF08[S] full card recovery")
lprint("\nDump folder... " + color(f"{dpath}", fg="yellow"))
# FIXME: script is announced as for RF08 and for RF08S but it comprises RF32N key
# and if RF08 is supported, all other NXP/Infineon with same backdoor can be treated
# by the same script (once properly implemented, see other FIXME)
bdkey, blk0 = getBackdoorKey()
if bdkey is None:
return
uid = getUIDfromBlock0(blk0)
startlog(uid, dpath, append=False)
decodeBlock0(blk0)
fudanValidate(blk0, args.validate)
mad = False
keyfile = f"{dpath}hf-mf-{uid.hex().upper()}-key.bin"
# FIXME: nr of sectors depend on the tag. RF32N is 40, RF32 is 64, RF08 is 16, RF08S is 16+1
# Currently loadKeys is hardcoded for RF08S
if args.force or (key := loadKeys(keyfile)) is None:
if args.recover is False:
s = color("--recover", fg="yellow")
lprint(f" Keys not loaded, use {s} to run recovery script [slow]", prompt="[" + color("!", fg="red") + "]")
else:
# FIXME: recovery() is only for RF08S. TODO for the other ones with a "darknested" attack
keyfile = recoverKeys(uid=uid, kdf=[["Bambu v1", kdfBambu1]])
if keyfile == False:
lprint("Script failed - aborting")
return
key = loadKeys(keyfile)
if key is not None:
ret, mad, key = verifyKeys(key)
if ret is False:
if args.nokeys is False:
s = color("--nokeys", fg="yellow")
lprint(f" Use {s} to keep going past this point", prompt="[" + color("!", fg="red") + "]")
return
# FIXME: nr of blocks depend on the tag. RF32 is 256, RF08 is 64, RF08S is 64+8
# Currently readBlocks is hardcoded for RF08S
data, blkn = readBlocks(bdkey, args.fast)
data = patchKeys(data, key)
dump18 = diskDump(data, uid, dpath) # save it before you do anything else
dumpData(data, blkn)
# FIXME: nr of blocks depend on the tag. RF32 is 256, RF08 is 64, RF08S is 64+8,
# Currently dumpAcl is hardcoded for RF08S
dumpAcl(data)
if (mad is True) or (args.mad is True):
dumpMad(dump18)
if (args.bambu is True) or (detectBambu(data) is True):
dumpBambu(data)
lprint("\nTadah!")
return
def getPrefs():
"""Get PM3 preferences
globals:
- p (R)
"""
p.console("prefs show --json")
prefs = json.loads(p.grabbed_output)
dpath = prefs['file.default.dumppath'] + os.path.sep
return dpath
def checkVer():
"""Assert python version"""
required_version = (3, 8)
if sys.version_info < required_version:
print(f"Python version: {sys.version}")
print(f"The script needs at least Python v{required_version[0]}.{required_version[1]}. Abort.")
return False
return True
def parseCli():
"""Parse the CLi arguments"""
parser = argparse.ArgumentParser(description='Full recovery of Fudan FM11RF08* cards.')
parser.add_argument('-n', '--nokeys', action='store_true', help='extract data even if keys are missing')
parser.add_argument('-r', '--recover', action='store_true', help='run key recovery script if required')
parser.add_argument('-f', '--force', action='store_true', help='force recovery of keys')
parser.add_argument('-b', '--bambu', action='store_true', help='force Bambu tag decode')
parser.add_argument('-m', '--mad', action='store_true', help='force M.A.D. decode')
parser.add_argument('-v', '--validate', action='store_true', help='check Fudan signature (requires internet)')
parser.add_argument('--fast', action='store_true', help='use ecfill for faster card transactions')
args = parser.parse_args()
if args.force is True:
args.recover = True
return args
def getBackdoorKey():
"""Find backdoor key
[=] # | sector 00 / 0x00 | ascii
[=] ----+-------------------------------------------------+-----------------
[=] 0 | 5C B4 9C A6 D2 08 04 00 04 59 92 25 BF 5F 70 90 | \\........Y.%._p.
globals:
- p (R)
"""
# FM11RF08S FM11RF08 FM11RF32
dklist = ["A396EFA4E24F", "A31667A8CEC1", "518b3354E760"]
lprint("\nTrying known backdoor keys...")
bdkey = ""
for k in dklist:
cmd = f"hf mf rdbl -c 4 --key {k} --blk 0"
lprint(f"\n`{cmd}`", end='', flush=True)
res = p.console(cmd)
for line in p.grabbed_output.split('\n'):
if " | " in line and "# | s" not in line:
blk0 = line[10:56+1]
if res == 0:
s = color('ok', fg='green')
lprint(f" ( {s} )", prompt='')
bdkey = k
break
s = color('fail', fg='yellow')
lprint(f" ( {s} ) [{res}]", prompt='')
if bdkey == "":
lprint("\n Unknown key, or card not detected.", prompt="[" + color("!", fg="red") + "]")
return None, None
return bdkey, blk0
def getUIDfromBlock0(blk0):
"""Extract UID from block 0"""
uids = blk0[0:11] # UID string : "11 22 33 44"
uid = bytes.fromhex(uids.replace(' ', '')) # UID (bytes) : 11223344
return uid
def decodeBlock0(blk0):
"""Extract data from block 0"""
lprint()
lprint(" UID BCC ++----- RF08 ID -----++")
lprint(" ! ! SAK !! !!")
lprint(" ! ! ! ATQA !! Fudan Sig !!")
lprint(" !---------. !. !. !---. VV .---------------. VV")
# 0 12 15 18 24 27 45
# ! ! ! ! ! ! !
# 00 11 22 33 44 55 66 77 88 99 AA BB CC DD EE FF
lprint(f" Block 0 : {blk0}")
# --- decode block 0 ---
uid = getUIDfromBlock0(blk0)
bcc = int(blk0[12:14], 16) # BCC
chk = 0 # calculate checksum
for h in uid:
chk ^= h
sak = int(blk0[15:17], 16) # SAK
atqa = int(blk0[18:23].replace(' ', ''), 16) # 0x7788
fida = int(blk0[24:26], 16) # Fudan ID 0x88
fidb = int(blk0[45:47], 16) # Fudan ID 0xFF
# fid = (fida<<8)|fidb # Fudan ID 0x88FF
hash = blk0[27:44] # Fudan hash "99 AA BB CC DD EE"
type = f"[{fida:02X}:{fidb:02X}]" # type/name
if fidb == 0x90:
if fida == 0x01 or fida == 0x03 or fida == 0x04:
type += " - Fudan FM11RF08S"
elif fidb == 0x1D:
if fida == 0x01 or fida == 0x02 or fida == 0x03:
type += " - Fudan FM11RF08"
elif fidb == 0x91 or fidb == 0x98:
type += " - Fudan FM11RF08 (never seen in the wild)"
else:
type += " - Unknown (please report)"
# --- show results ---
lprint()
if bcc == chk:
desc = "verified"
else:
desc = f"fail. Expected {chk:02X}"
lprint(f" UID/BCC : {uid.hex().upper()}/{bcc:02X} - {desc}")
if sak == 0x01:
desc = "NXP MIFARE TNP3xxx 1K"
elif sak == 0x08:
desc = "NXP MIFARE CLASSIC 1k | Plus 1k | Ev1 1K"
elif sak == 0x09:
desc = "NXP MIFARE Mini 0.3k"
elif sak == 0x10:
desc = "NXP MIFARE Plus 2k"
elif sak == 0x18:
desc = "NXP MIFARE Classic 4k | Plus 4k | Ev1 4k"
else:
desc = "{unknown}"
lprint(f" SAK : {sak:02X} - {desc}")
lprint(f" ATQA : {atqa:04X}") # show ATQA
lprint(f" Fudan ID : {type}") # show type
lprint(f" Fudan Sig: {hash}") # show ?Partial HMAC?
def fudanValidate(blk0, live=False):
"""Fudan validation"""
url = "https://rfid.fm-uivs.com/nfcTools/api/M1KeyRest"
hdr = "Content-Type: application/text; charset=utf-8"
post = f"{blk0.replace(' ', '')}"
lprint(f"\n Validator:\n`wget -q -O -"
f" --header=\"{hdr}\""
f" --post-data \"{post}\""
f" {url}"
" | json_pp`")
if live:
# Warning, this import causes a "double free or corruption" crash if the script is called twice...
# So for now we limit the import only when really needed
try:
import requests
except ModuleNotFoundError:
s = color("not found", fg="red")
lprint(f"Python module 'requests' {s}, please install!", prompt="[" + color("!", fg="red") + "] ")
return
lprint("\nCheck Fudan signature (requires internet)...")
headers = {"Content-Type": "application/text; charset=utf-8"}
resp = requests.post(url, headers=headers, data=post)
if resp.status_code != 200:
lprint(f"HTTP Error {resp.status_code} - check request not processed")
else:
r = json.loads(resp.text)
if r['data'] is not None:
desc = f" {{{r['data']}}}"
else:
desc = ""
lprint(f"The man from Fudan, he say: {r['code']} - {r['message']}{desc}")
else:
s = color('--validate', fg="yellow")
lprint(f'\n Use {s} to perform Fudan signature check automatically', prompt='[?]')
def loadKeys(keyfile):
"""Load keys from file
If keys cannot be loaded AND --recover is specified, then run key recovery
"""
key = [[b'' for _ in range(2)] for _ in range(17)] # create a fresh array
lprint("\nLoad keys from file... " + color(f"{keyfile}", fg="yellow"))
try:
with (open(keyfile, "rb")) as fh:
for ab in [0, 1]:
for sec in range((16+2)-1):
key[sec][ab] = fh.read(6)
except IOError:
return None
return key
def recoverKeys(uid, kdf=[[]]):
"""Run key recovery script"""
badrk = 0 # 'bad recovered key' count (ie. not recovered)
keys = False
lprint(f"\nTrying KDFs:");
for fn in kdf:
lprint(f" {fn[0]:s}", end='')
keys = fn[1](uid)
if keys != False:
lprint(" .. Success", prompt='')
break
lprint(" .. Fail", prompt='')
lprint("\nRunning recovery script, ETA: Less than 30 minutes")
lprint('\n`-._,-\'"`-._,-"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,')
r = recovery(quiet=False, keyset=keys)
lprint('`-._,-\'"`-._,-"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,')
if r == False:
return False
keyfile = r['keyfile']
rkey = r['found_keys']
# fdump = r['dumpfile']
# rdata = r['data']
for k in range(0, 16+1):
for ab in [0, 1]:
if rkey[k][ab] == "":
if badrk == 0:
lprint("Some keys were not recovered: ", end='')
else:
lprint(", ", end='', prompt='')
badrk += 1
kn = k
if kn > 15:
kn += 16
lprint(f"[{kn}/", end='', prompt='')
lprint("A]" if ab == 0 else "B]", end='', prompt='')
if badrk > 0:
lprint("", prompt='')
return keyfile
def kdfBambu1(uid):
from Cryptodome.Protocol.KDF import HKDF
from Cryptodome.Hash import SHA256
# Generate all keys
try:
# extracted from Bambu firmware
salt = bytes([0x9a,0x75,0x9c,0xf2,0xc4,0xf7,0xca,0xff,0x22,0x2c,0xb9,0x76,0x9b,0x41,0xbc,0x96])
keyA = HKDF(uid, 6, salt, SHA256, 16, context=b"RFID-A\0")
keyB = HKDF(uid, 6, salt, SHA256, 16, context=b"RFID-B\0")
except Exception as e:
print(f"{e}")
return False
# --- Grab block 13 (in sector 3) ---
cmd = f"hf mf rdbl -c 0 --key {keyA[3].hex()} --blk 12"
#lprint(f" `{cmd}`", flush=True, log=False, end='')
for retry in range(5):
p.console(cmd)
found = False
for line in p.grabbed_output.split('\n'):
if " | " in line and "# | s" not in line:
lsub = line[4:76]
found = True
if found:
break
if not found:
return False
# --- Try to decode it as a bambu date string ---
try:
dl = bytes.fromhex(lsub[6:53]).decode('ascii').rstrip('\x00')
except Exception:
return False
# dl 2024_03_22_16_29
# yy y y m m d d h h m m
exp = r"20[2-3][0-9]_[0-1][0-9]_[0-3][0-9]_[0-2][0-9]_[0-5][0-9]"
if not re.search(exp, dl):
return False
# --- valid date string, we are confident this is a bambu card ---
keys = []
for i in range(0, 15+1):
keys.append([keyA[i].hex(), keyB[i].hex()])
return keys
def verifyKeys(key):
"""Verify keys
globals:
- p (R)
"""
badk = 0
mad = False
lprint("Checking keys...")
for sec in range(0, 16+1): # 16 normal, 1 dark
sn = sec
if (sn > 15):
sn = sn + 16
for ab in [0, 1]:
bn = (sec * 4) + 3
if bn >= 64:
bn += 64
cmd = f"hf mf rdbl -c {ab} --key {key[sec][ab].hex()} --blk {bn}"
lprint(f" `{cmd}`", end='', flush=True)
res = p.console(cmd, capture=False)
lprint(" " * (3-len(str(bn))), end='', prompt='')
if res == 0:
s = color("ok", fg="green")
lprint(f" ( {s} )", end='', prompt='')
else:
s = color("fail", fg="red")
lprint(f" ( {s} )", end='', prompt='')
badk += 1
key[sec][ab] = b''
# check for Mifare Application Directory
if (sec == 0) and (ab == 0) \
and (key[0][0] == b'\xa0\xa1\xa2\xa3\xa4\xa5'):
mad = True
lprint(" - MAD Key", prompt='')
else:
lprint("", prompt='')
if badk > 0:
s = color(f'{badk}', fg="red")
e = "s exist" if badk != 1 else " exists"
lprint(f" {s} bad key{e}", prompt="[" + color("!", fg="red") + "]")
rv = False, mad, key
else:
lprint("All keys verified")
rv = True, mad, key
if mad is True:
lprint("MAD key detected")
return rv
def readBlocks(bdkey, fast=False):
"""
Read all block data - INCLUDING advanced verification blocks
[=] # | sector 00 / 0x00 | ascii
[=] ----+-------------------------------------------------+-----------------
[=] 0 | 5C B4 9C A6 D2 08 04 00 04 59 92 25 BF 5F 70 90 | \\........Y.%._p.
globals:
- p (R)
"""
data = []
blkn = list(range(0, 63 + 1)) + list(range(128, 135 + 1))
lprint("\nLoad blocks {0..63, 128..135}[64 + 8 = 72] from the card")
blkn_todo = blkn
if fast:
# Try fast dump first
# The user uses keyhole #0 (-a)
# The vendor uses keyhole #1 (-b)
# The thief uses keyhole #4 (backdoor)
# |___
cmd = f"hf mf ecfill -c 4 --key {bdkey}"
lprint(f"`{cmd}`", flush=True, log=False)
p.console(cmd)
for line in p.grabbed_output.split('\n'):
if "ok" in line:
cmd = "hf mf eview"
lprint(f"`{cmd}`", flush=True, log=False)
p.console(cmd)
for line in p.grabbed_output.split('\n'):
if " | " in line and "sec | blk | data" not in line:
lsub = line[11:83]
data.append(lsub)
blkn_todo = list(range(128, 135+1))
bad = 0
for n in blkn_todo:
cmd = f"hf mf rdbl -c 4 --key {bdkey} --blk {n}"
lprint(f" `{cmd}`", flush=True, log=False, end='')
for retry in range(5):
p.console(cmd)
found = False
for line in p.grabbed_output.split('\n'):
if " | " in line and "# | s" not in line:
lsub = line[4:76]
data.append(lsub)
found = True
if found:
break
s = color("ok", fg="green")
if not found:
data.append(f"{n:3d} | -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- -- | ----------------")
bad += 1
s = color("fail", fg="red")
lprint(" " * (3 - len(str(n))), flush=True, log=False, end='', prompt='')
lprint(f' ( {s} )', flush=True, log=False, prompt='')
s = color("ok", fg="green")
if bad > 0:
s = color("fail", fg="red")
lprint(f'Loading ( {s} )', log=False)
return data, blkn
def patchKeys(data, key):
"""Patch keys in to data
3 | 00 00 00 00 00 00 87 87 87 69 00 00 00 00 00 00 | .........i......
"""
lprint("\nPatching keys in to data")
for sec in range(0, 16 + 1):
blk = (sec * 4) + 3 # find "trailer" for this sector
if key is not None:
if key[sec][0] == b'':
keyA = "-- -- -- -- -- -- "
else:
kstr = key[sec][0].hex()
keyA = "".join([kstr[i:i+2] + " " for i in range(0, len(kstr), 2)])
if key[sec][1] == b'':
keyB = "-- -- -- -- -- -- "
else:
kstr = key[sec][1].hex()
keyB = "".join([kstr[i:i+2] + " " for i in range(0, len(kstr), 2)])
data[blk] = data[blk][:6] + keyA + data[blk][24:36] + keyB
else:
data[blk] = data[blk][:6] + "-- -- -- -- -- -- " + data[blk][24:36] + "-- -- -- -- -- --"
return data
def dumpData(data, blkn):
"""Dump data"""
lprint()
lprint("===========")
lprint(" Card Data")
lprint("===========")
lprint()
cnt = 0
for n in blkn:
sec = (cnt // 4)
if sec > 15:
sec = sec + 16
if (n % 4 == 0):
lprint(f"{sec:2d}:{data[cnt]}")
else:
lprint(f" :{data[cnt]}")
cnt += 1
if (cnt % 4 == 0) and (n != blkn[-1]): # Space between sectors
lprint()
def detectBambu(data):
"""Let's try to detect a Bambu card by the date strings..."""
try:
dl = bytes.fromhex(data[12][6:53]).decode('ascii').rstrip('\x00')
dls = dl[2:13]
ds = bytes.fromhex(data[13][6:41]).decode('ascii').rstrip('\x00')
except Exception:
return False
# ds 24_03_22_16
# dl 2024_03_22_16_29
# yy y y m m d d h h m m
exp = r"20[2-3][0-9]_[0-1][0-9]_[0-3][0-9]_[0-2][0-9]_[0-5][0-9]"
if re.search(exp, dl) and (ds == dls):
lprint("\nBambu date strings detected.")
return True
else:
lprint("\nBambu date strings not detected.")
return False
def dumpBambu(data):
"""Dump bambu details
https://github.com/Bambu-Research-Group/RFID-Tag-Guide/blob/main/README.md
6 18 30 42 53
| | | | |
3 | 00 00 00 00 00 00 87 87 87 69 00 00 00 00 00 00 | .........i......
"""
try:
lprint()
lprint("===========")
lprint(" Bambu Tag")
lprint("===========")
lprint()
lprint("Decompose as Bambu tag .. ", end='')
MaterialVariantIdentifier_s = bytes.fromhex(data[1][6:29]).decode('ascii').rstrip('\x00')
UniqueMaterialIdentifier_s = bytes.fromhex(data[1][30:53]).decode('ascii').rstrip('\x00') # [**] 8not16
FilamentType_s = bytes.fromhex(data[2][6:53]).decode('ascii').rstrip('\x00')
DetailedFilamentType_s = bytes.fromhex(data[4][6:53]).decode('ascii').rstrip('\x00')
Colour_rgba = int(data[5][6:17].replace(' ', ''), 16)
SpoolWeight_g = int(data[5][21:23] + data[5][18:20], 16)
Block5_7to8 = data[5][24:29]
FilamentDiameter_mm = struct.unpack('f', bytes.fromhex(data[5][30:41].replace(' ', '')))[0]
Block5_12to15 = data[5][42:50]
DryingTemperature_c = int(data[6][9:11] + data[6][6:8], 16)
DryingTime_h = int(data[6][15:17] + data[6][12:14], 16)
BedTemperatureType_q = int(data[6][21:23] + data[6][18:20], 16)
BedTemperature_c = int(data[6][27:29] + data[6][24:26], 16)
MaxTemperatureForHotend_c = int(data[6][33:35] + data[6][30:32], 16)
MinTemperatureForHotend_c = int(data[6][39:41] + data[6][36:38], 16)
Block6_12to15 = data[6][42:50]
# XCamInfo_x = bytes.fromhex(data[8][6:41].replace(' ', ''))
XCamInfo_x = data[8][6:41]
NozzleDiameter_q = struct.unpack('f', bytes.fromhex(data[8][42:53].replace(' ', '')))[0]
# TrayUID_s = bytes.fromhex(data[9][6:53]).decode('ascii').rstrip('\x00') #[**] !ascii
TrayUID_s = data[9][6:53]
Block10_0to3 = data[10][6:17]
SpoolWidth_um = int(data[10][21:23] + data[14][18:20], 16)
Block10_6to15 = data[10][24:50]
ProductionDateTime_s = bytes.fromhex(data[12][6:53]).decode('ascii').rstrip('\x00')
ShortProductionDateTime_s = bytes.fromhex(data[13][6:53]).decode('ascii').rstrip('\x00')
# Block14_0to3 = data[14][6:17]
FilamentLength_m = int(data[14][21:23] + data[14][18:20], 16)
# Block14_6to15 = data[14][24:51]
# (16blocks * 16bytes = 256) * 8bits = 2048 bits
hblk = [42,
44, 45, 46,
48, 49, 50,
52, 53, 54,
56, 57, 58,
60, 61, 62]
Hash = []
for b in hblk:
Hash.append(data[b][6:53])
lprint("[offset:length]", prompt='')
lprint(" Block 1:")
lprint(f" [ 0: 8] MaterialVariantIdentifier_s = \"{MaterialVariantIdentifier_s}\"")
lprint(f" [ 8: 8] UniqueMaterialIdentifier_s = \"{UniqueMaterialIdentifier_s}\"")
lprint(" Block 2:")
lprint(f" [ 0:16] FilamentType_s = \"{FilamentType_s}\"")
lprint(" Block 4:")
lprint(f" [ 0:16] DetailedFilamentType_s = \"{DetailedFilamentType_s}\"")
lprint(" Block 5:")
lprint(f" [ 0: 4] Colour_rgba = 0x{Colour_rgba:08X}")
lprint(f" [ 4: 2] SpoolWeight_g = {SpoolWeight_g}g")
lprint(f" [ 6: 2] Block5_7to8 = {{{Block5_7to8}}}")
lprint(f" [ 8: 4] FilamentDiameter_mm = {FilamentDiameter_mm}mm")
lprint(f" [12: 4] Block5_12to15 = {{{Block5_12to15}}}")
lprint(" Block 6:")
lprint(f" [ 0: 2] DryingTemperature_c = {DryingTemperature_c}^C")
lprint(f" [ 2: 2] DryingTime_h = {DryingTime_h}hrs")
lprint(f" [ 4: 4] BedTemperatureType_q = {BedTemperatureType_q}")
lprint(f" [ 6: 2] BedTemperature_c = {BedTemperature_c}^C")
lprint(f" [ 8: 2] MaxTemperatureForHotend_c = {MaxTemperatureForHotend_c}^C")
lprint(f" [10: 2] MinTemperatureForHotend_c = {MinTemperatureForHotend_c}^C")
lprint(f" [12: 4] Block6_12to15 = {{{Block6_12to15}}}")
lprint(" Block 8:")
lprint(f" [ 0:12] XCamInfo_x = {{{XCamInfo_x}}}")
lprint(f" [12: 4] NozzleDiameter_q = {NozzleDiameter_q:.6f}__")
lprint(" Block 9:")
# lprint(f" [ 0:16] TrayUID_s = \"{TrayUID_s}\"")
lprint(f" [ 0:16] TrayUID_s = {{{TrayUID_s}}} ; not ASCII")
lprint(" Block 10:")
lprint(f" [ 0: 4] Block10_0to3 = {{{Block10_0to3}}}")
lprint(f" [ 4: 2] SpoolWidth_um = {SpoolWidth_um}um")
lprint(f" [ 6:10] Block10_6to15 = {{{Block10_6to15}}}")
lprint(" Block 12:")
lprint(f" [ 0:16] ProductionDateTime_s = \"{ProductionDateTime_s}\"")
lprint(" Block 13:")
lprint(f" [ 0:16] ShortProductionDateTime_s = \"{ShortProductionDateTime_s}\"")
lprint(" Block 14:")
lprint(f" [ 0: 4] Block10_0to3 = {{{Block10_0to3}}}")
lprint(f" [ 4: 2] FilamentLength_m = {FilamentLength_m}m")
lprint(f" [ 6:10] Block10_6to15 = {{{Block10_6to15}}}")
lprint(f"\n Blocks {hblk}:")
for i in range(0, len(hblk)):
lprint(f" [ 0:16] HashBlock[{i:2d}] = {{{Hash[i]}}} // #{hblk[i]:2d}")
except Exception as e:
lprint(prompt='')
lprint(f"Failed: {e}")
# +=============================================================================
# Dump ACL
#
# ,-------------------.
# ( 2.2 : ACCESS BITS )
# `-------------------'
# The Access bits on both (used) Sectors is the same: 78 77 88
# Let's reorganise that according to the official spec Fig 9.
# Access C1 C2 C3
# ========== ===========
# 78 77 88 --> 78 87 87
# ab cd ef --> cb fa ed
# The second nybble of each byte is the inverse of the first nybble.
# It is there to trap tranmission errors, so we can just ignore it/them.
# So our Access Control value is : {c, f, e} == {7, 8, 8}
# Let's convert those nybbles to binary
# (c) 7 --> 0111
# (f) 8 --> 1000
# (e) 8 --> 1000
# |||| ...and transpose them:
# ||||
# |||`--- 100 - Block 0 Access bits
# ||`---- 100 - Block 1 Access bits
# |`----- 100 - Block 2 Access bits
# `------ 011 - Block 3 Access bits [Sector Trailer]
# Now we can use the lookup table [Table 3] to work out what we can do
# with the Sector Trailer (Block(S,3)):
# | Key A | | Access Bits | | Key B |
# | read ¦ write | | read ¦ write | | read ¦ write |
# +------¦-------+ +------¦-------+ +------¦-------+
# 000 : | -- ¦ KeyA | | KeyA ¦ -- | | KeyA ¦ KeyA |
# 001 : | -- ¦ KeyA | | KeyA ¦ KeyA | | KeyA ¦ KeyA | Transport Mode
# 010 : | -- ¦ -- | | KeyA ¦ -- | | KeyA ¦ -- |
# 011 : | -- ¦ KeyB | | A+B ¦ KeyB | | -- ¦ KeyB | <-- Our Card!
# 100 : | -- ¦ KeyB | | A+B ¦ -- | | -- ¦ KeyB |
# 101 : | -- ¦ -- | | A+B ¦ KeyB | | -- ¦ -- |
# 110 : | -- ¦ -- | | A+B ¦ -- | | -- ¦ -- | }__
# 111 : | -- ¦ -- | | A+B ¦ -- | | -- ¦ -- | } The Same!?
# Our card uses 011, for (both of) the (used) Sector Trailer(s). So:
# Both Key A and Key B can READ the Access Bits
# Key B can (additionally) WRITE to Key A, Key B (itself), and the Access Bits
# Then we can do a similar lookup for the 3 data Blocks (in this Sector)
# This time using [Table 4]
# | Data | Counter |
# | read ¦ write | Inc ¦ Dec |
# +------¦-------+------¦------+
# 000 : | A+B ¦ A+B | A+B ¦ A+B | Transport Mode
# 001 : | A+B ¦ -- | -- ¦ A+B |
# 010 : | A+B ¦ -- | -- ¦ -- |
# 011 : | KeyB ¦ KeyB | -- ¦ -- |
# 100 : | A+B ¦ KeyB | -- ¦ -- | <-- Our Card!
# 101 : | KeyB ¦ -- | -- ¦ -- |
# 110 : | A+B ¦ KeyB | KeyB ¦ A+B |
# 111 : | -- ¦ -- | -- ¦ -- |
# Our card uses 100, for all of the (used) Sectors. So:
# Both Key A and Key B can READ the Block
# Only Key B can WRITE to the Block
# The block cannot be used as a "counter" because:
# Neither key can perform increment nor decrement commands
# WARNING:
# IF YOU PLAN TO CHANGE ACCESS BITS, RTFM, THERE IS MUCH TO CONSIDER !
# ==============================================================================
def dumpAcl(data):
"""Dump ACL
6 18 24 27 30 33 42 53
| | | | | | | |
3 | 00 00 00 00 00 00 87 87 87 69 00 00 00 00 00 00 | .........i......
ab cd ef
"""
aclkh = [] # key header
aclk = [""] * 8 # key lookup
aclkx = [] # key output
lprint()
lprint("=====================")
lprint(" Access Control List")
lprint("=====================")
lprint()
aclkh.append(" _______________________________________________________ ")
aclkh.append("| | Sector Trailers |")
aclkh.append("| |----------------------------------------------|")
aclkh.append("| Sector |____Key_A_____||_Access_Bits__||____Key_B_____|")
aclkh.append("| | read ¦ write || read ¦ write || read ¦ write |")
aclkh.append("|--------+------¦-------++------¦-------++------¦-------|")
# "| xx | -- ¦ KeyA || KeyA ¦ -- || KeyA ¦ KeyA |"
aclk[0] = "| -- ¦ KeyA || KeyA ¦ -- || KeyA ¦ KeyA | [000]" # noqa: E222
aclk[1] = "| -- ¦ KeyA || KeyA ¦ KeyA || KeyA ¦ KeyA | [001]" # noqa: E222
aclk[2] = "| -- ¦ -- || KeyA ¦ -- || KeyA ¦ -- | [010]" # noqa: E222
aclk[3] = "| -- ¦ KeyB || A+B ¦ KeyB || -- ¦ KeyB | [011]" # noqa: E222
aclk[4] = "| -- ¦ KeyB || A+B ¦ -- || -- ¦ KeyB | [100]" # noqa: E222
aclk[5] = "| -- ¦ -- || A+B ¦ KeyB || -- ¦ -- | [101]" # noqa: E222
aclk[6] = "| -- ¦ -- || A+B ¦ -- || -- ¦ -- | [110]" # noqa: E222 # yes, the same!?
aclk[7] = "| -- ¦ -- || A+B ¦ -- || -- ¦ -- | [111]" # noqa: E222 # ...
acldh = [] # data header
acld = [""] * 8 # data lookup
acldx = [] # data output
acldh.append(" _____________________________________ ")
acldh.append("| | Data Blocks |")
acldh.append("| |-----------------------------|")
acldh.append("| Block | Data || Counter |")
acldh.append("| | read ¦ write || Inc ¦ Dec |")
acldh.append("|-------+------¦-------++------¦------+")
# "| xxx | A+B ¦ A+B || A+B ¦ A+B | "
acld[0] = "| A+B ¦ A+B || A+B ¦ A+B | [000]" # noqa: E222
acld[1] = "| A+B ¦ -- || -- ¦ A+B | [001]" # noqa: E222
acld[2] = "| A+B ¦ -- || -- ¦ -- | [010]" # noqa: E222
acld[3] = "| KeyB ¦ KeyB || -- ¦ -- | [011]" # noqa: E222
acld[4] = "| A+B ¦ KeyB || -- ¦ -- | [100]" # noqa: E222
acld[5] = "| KeyB ¦ -- || -- ¦ -- | [101]" # noqa: E222
acld[6] = "| A+B ¦ KeyB || KeyB ¦ A+B | [110]" # noqa: E222
acld[7] = "| -- ¦ -- || -- ¦ -- | [111]" # noqa: E222
idx = [[]] * (16+2)
# --- calculate the ACL indices for each sector:block ---
for d in data:
bn = int(d[0:3], 10)
if ((bn % 4) == 3):
sn = (bn // 4)
sec = sn if sn < 16 else sn - 16
c = int(d[27], 16)
f = int(d[31], 16)
e = int(d[30], 16)
r0 = ((c & (2**0)) << 2) | ((f & (2**0)) << 1) | ((e & (2**0)) ) # noqa: E202
r1 = ((c & (2**1)) << 1) | ((f & (2**1)) ) | ((e & (2**1)) >> 1) # noqa: E202
r2 = ((c & (2**2)) ) | ((f & (2**2)) >> 1) | ((e & (2**2)) >> 2) # noqa: E202
r3 = ((c & (2**3)) >> 1) | ((f & (2**3)) >> 2) | ((e & (2**3)) >> 3) # noqa: E221
idx[sec] = [r0, r1, r2, r3]
# --- build the ACL conversion table ---
for d in data:
bn = int(d[0:3], 10)
sn = (bn // 4)
sec = sn if sn < 16 else sn - 16
if ((bn % 4) == 3):
aclkx.append(f"| {sn:2d} " + aclk[idx[sec][bn % 4]]
+ f" {{{d[24:32]}}} -> {{{d[27]}{d[31]}{d[30]}}}")
else:
acldx.append(f"| {bn:3d} " + acld[idx[sec][bn % 4]])
# --- print it all out ---
for line in aclkh:
lprint(f" {line}")
i = 0
for line in aclkx:
lprint(f" {line}")
if (i % 4) == 3:
lprint(" | | ¦ || ¦ || ¦ |")
i += 1
lprint()
for line in acldh:
lprint(f" {line}")
i = 0
for line in acldx:
lprint(f" {line}")
if (i % 3) == 2:
lprint(" | | ¦ || ¦ |")
i += 1
def diskDump(data, uid, dpath):
"""Full Dump"""
dump18 = f'{dpath}hf-mf-{uid.hex().upper()}-dump18.bin'
lprint(f'\nDump card data to file... ' + color(dump18, fg='yellow'))
bad = False
try:
with open(dump18, 'wb') as f:
for d in data:
if '--' in d[6:53]:
bad = True
b = bytes.fromhex(d[6:53].replace(' ', '').replace('--', 'FF'))
f.write(b)
if bad:
lprint('Bad data exists, and has been saved as 0xFF')
s = color('ok', fg='green')
lprint(f' Save file operations ( {s} )', prompt='[+]')
except Exception as e:
s = color('fail', fg='red')
lprint(f' Save file operations: {e} ( {s} )', prompt='[!]')
return dump18
def dumpMad(dump18):
"""Dump MAD
globals:
- p (R)
"""
lprint()
lprint("====================================")
lprint(" MiFare Application Directory (MAD)")
lprint("====================================")
lprint()
cmd = f"hf mf mad --force --verbose --file {dump18}"
lprint(f"`{cmd}`", log=False)
lprint('\n`-._,-\'"`-._,-"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,\n')
p.console(cmd)
for line in p.grabbed_output.split('\n'):
lprint(line, prompt='')
lprint('`-._,-\'"`-._,-"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,-\'"`-._,')
if __name__ == "__main__":
main()