tech.comTag_reqa()
break
except:
pass
uuid, sak = tech.selectOne()
print 'uuid:', [hex(a) for a in uuid]
print 'sak:', hex(sak)
if sak & 0x40:
print 'iso 18092'
if sak & 0x20:
print 'iso 14443-4'
if sak & 0x20:
tag = iso14443_4(tech)
tag.transcieve([0x60])
# print c.comTag14443A([0x3, 0xaf])
# print c.comTag14443A([0x2, 0xaf])
# self.comTag_halt()
spi.resetBP()
#todo # set fwt
print "failed."
sys.exit()
print "Configuring SPI."
if not spi.cfg_pins(PinCfg.POWER | PinCfg.CS | PinCfg.AUX):
print "Failed to set SPI peripherals."
sys.exit()
print "Configuring SPI configuration: ",
if spi.cfg_spi(SPICfg.CLK_EDGE | SPICfg.SAMPLE | SPICfg.OUT_TYPE):
print "OK."
else:
print "failed."
sys.exit()
spi.timeout(0.2)
print "Dumping %d bytes out of the EEPROM." % args.size
spi.CS_Low()
spi.bulk_trans(3, [0x3, 0, 0])
for i in range(args.size / 16):
data = spi.bulk_trans(16, read_list_data(16))
args.outfile.write(data)
spi.CS_High()
print "Reset Bus Pirate to user terminal: "
if spi.resetBP():
print "OK."
else:
print "failed."
sys.exit()
#!/usr/bin/env python
import sys
#import math
import time
import struct
from pyBusPirateLite.SPI import *
spi = SPI('/dev/tty.usbserial-A5005CUQ', 115200)
spi.resetBP()
if not spi.BBmode():
print('BBmode() failed')
sys.exit()
if not spi.enter_SPI():
print('enter_SPI() failed')
sys.exit()
# speed = 30kHz
# polarity = idle low (default)
# output clock edge = active to idle (default)
# input sample phase = middle (default)
# CS = /CS (default)
# output type = normal
if not spi.cfg_pins(PinCfg.POWER | PinCfg.CS | PinCfg.AUX):
print('cfg_pins() failed')
sys.exit()
class bpnrf24lReader:
def __init__(self):
self.status_byte = PinCfg.POWER | PinCfg.CS
self.spi = None
# SPI Commands
self.SPI_WREN = 0x06 #Set flash write enable,FSR.WEN
self.SPI_WRDIS = 0x04 #Reset flash write enable, FSR.WEN
self.SPI_RDSR = 0x05 #Read Flash Status Register (FSR)
self.SPI_WRSR = 0x01
self.SPI_READ = 0x03
self.SPI_PROGRAM = 0x02
self.SPI_ERASEPAGE = 0x52
self.SPI_ERASEALL = 0x62
self.SPI_RDFPCR = 0x89
self.SPI_RDISIP = 0x84
self.SPI_RDISMB = 0x85
self.SPI_ENDEBUG = 0x86
#FSR Bits
self.FSR_RESERVED = 0
self.FSR_RDISIP = 1
self.FSR_RDISMB = 2
self.FSR_INFEN = 3
self.FSR_RDYN = 4
self.FSR_WEN = 5
self.FSR_STP = 6
self.FSR_DBG = 7
def connect(self, usb_port):
self.spi = SPI(usb_port, 115200)
print "Entering binmode: ",
if self.spi.BBmode():
print "OK."
else:
print "failed."
sys.exit()
print "Entering raw SPI mode: ",
if self.spi.enter_SPI():
print "OK."
else:
print "failed."
sys.exit()
print "Configuring SPI."
if not self.spi.cfg_pins(self.status_byte):
print "Failed to set SPI peripherals."
sys.exit()
if not self.spi.set_speed(SPISpeed._2_6MHZ):
print "Failed to set SPI Speed."
sys.exit()
if not self.spi.cfg_spi(SPICfg.CLK_EDGE | SPICfg.OUT_TYPE):
print "Failed to set SPI configuration.";
sys.exit()
self.spi.timeout(0.2)
#Bring PROG to High
self.status_byte |= PinCfg.AUX
if not self.spi.cfg_pins(self.status_byte):
print "Failed to set PROG pin to HIGH"
sys.exit()
def disconnect(self):
#Cleanup
print "Reset Bus Pirate to user terminal: ",
if self.spi.resetBP():
print "OK."
else:
print "failed."
sys.exit()
def set_CS(self, status_flip, onfail_exit = False):
if status_flip:
self.status_byte &= ~PinCfg.CS;
else:
self.status_byte |= PinCfg.CS;
if not self.spi.cfg_pins(self.status_byte):
print "send_spi_command : Failed to enable writing."
if onfail_exit: sys.exit()
def send_spi_command(self, data=[]):
return self.spi.bulk_trans(len(data), data)
def is_bit_set(self, check, bit):
return (check & (1 << bit) != 0)
def set_bit(self, check, bit):
return check | (1 << bit)
def unset_bit(self, check, bit):
return check & ~(1 << bit)
def get_fsr(self):
self.set_CS(True, True)
ret = self.send_spi_command([self.SPI_RDSR, 0x00])[1]
#print "get_fsr() returned : " + repr(ret)
self.set_CS(False, True)
return ord(ret)
def parse_fsr(self, fsr=None):
fsr_string = ["FSR_RESERVED", "FSR_RDISIP", "FSR_RDISMB", "FSR_INFEN", "FSR_RDYN", "FSR_WEN", "FSR_STP", "FSR_DBG"]
print "=== Parsing FSR START ==="
if not fsr:
fsr = self.get_fsr()
#print repr(fsr)
for i in xrange(8):
if self.is_bit_set(fsr, i):
print "%s bit is set" % (fsr_string[i])
print "=== Parsing FSR END ==="
return fsr
def enable_read_infopage(self, disable_infopage = False):
fsr = self.get_fsr()
if disable_infopage:
fsr = self.unset_bit(fsr, self.FSR_INFEN)
else:
fsr = self.set_bit(fsr, self.FSR_INFEN)
self.set_CS(True, True)
if not self.send_spi_command([self.SPI_WRSR, fsr]):
print "enable_write() failed"
sys.exit()
self.set_CS(False, True)
def enable_write(self):
self.set_CS(True, True)
if not self.send_spi_command([self.SPI_WREN,]):
print "enable_write() failed"
sys.exit()
self.set_CS(False, True)
def erase_chip(self):
print "Erasing Mainblock..."
#Enable writing of chip
self.enable_write()
ret = self.get_fsr()
if ret != 0x20 and ret != 0x24:
print "Incorrect status, 0x%x returned, erase_chip probably failed. Check your connections." % (ret)
self.set_CS(True, True)
self.send_spi_command([self.SPI_ERASEALL])
self.set_CS(False, True)
while True:
ret = self.get_fsr()
if ret == 0x00 or ret == 0x08: #FSR_INFEN may be flagged
break
def erase_page(self, page): #Each page is 512 bytes and contain 8 blocks
print "Erasing Page : %d" % (page)
self.enable_write()
ret = self.get_fsr()
if ret != 0x20 and ret != 0x28 and ret != 0x2C:
print "Incorrect status, 0x%x returned, erase_page probably failed. Check your connections." % (ret)
self.set_CS(True, True)
self.send_spi_command([self.SPI_ERASEPAGE,] + map(ord, list(struct.pack(">B",page))) )
self.set_CS(False, True)
while True:
ret = self.get_fsr()
if ret == 0x00 or ret == 0x08: #FSR_INFEN may be flagged
break
def program_data(self, rom_data, start_address = 0):
print "=== PROGRAM CHIP START ==="
split_length = 4
#pad rom data to be % split_length == 0
if len(rom_data) % split_length != 0:
rom_data = rom_data + ("\xFF" * (split_length-len(rom_data) % split_length))
self.enable_write()
ret = self.get_fsr()
if ret != 0x20 and ret != 0x28: #FSR_INFEN may be flagged
print "Incorrect status, 0x%x returned, program_data probably failed. Check your connections." % (ret)
rom_data_split = [rom_data[i:i+split_length] for i in range(0, len(rom_data), split_length)]
pAddress = start_address
for d in rom_data_split:
self.enable_write() #Enable writing
#Program bytes
print "%.4X : %s" % (pAddress, repr(map(ord,list(d))))
self.set_CS(True, True)
self.send_spi_command([self.SPI_PROGRAM,] + map(ord, list(struct.pack(">H",pAddress)) + list(d)))
self.set_CS(False, True)
pAddress += split_length
print "=== PROGRAM CHIP END ==="
def can_read_infopage(self):
fsr = self.get_fsr()
if self.is_bit_set(fsr, self.FSR_RDISIP):
return False
return True
def is_chip_protected(self):
#This check can be used to see if we can read data from MB and write to IP
fsr = self.get_fsr()
if self.is_bit_set(fsr, self.FSR_RDISMB):
return True
return False
def dump_rom(self, max_size):
return_data = ""
for pAddress in xrange(max_size/4):
spi_read_cmd = [self.SPI_READ,] + map(ord, list(struct.pack(">H",pAddress*4))) + [0, 0, 0, 0]
#print "Sending SPI command: " + repr(spi_read_cmd)
self.set_CS(True, True)
ret = self.send_spi_command(spi_read_cmd)
self.set_CS(False, True)
print "%.4X : %s" % (pAddress*4, repr(map(ord,list(ret[3:]))))
return_data += "".join(ret[3:])
return return_data
def dump_infopage(self):
if not self.can_read_infopage(): return None
return_data = ""
self.enable_read_infopage()
return_data = self.dump_rom(512)
self.enable_read_infopage(disable_infopage=True)
return return_data
def dump_mainblock(self, is_16kb = False):
if self.is_chip_protected(): return None
read_size = 0x8000
if is_16kb:
read_size = 0x4000
return_data = ""
return_data = self.dump_rom(read_size)
return return_data
f.write(data) spi.CS_High() elif opt.command == "write": print "Writing EEPROM." spi.CS_Low() spi.bulk_trans(4, [0xA, 0, 0, 0]) for i in range((int(opt.flash_size)/16)): spi.bulk_trans(16, None) spi.CS_High() elif opt.command == "id": print "Reading Chip ID: ", spi.CS_Low() d = spi.bulk_trans(4, [0x9F, 0, 0, 0]) spi.CS_High() for each in d[1:]: print "%02X " % ord(each), print elif opt.command == "erase": pass print "Reset Bus Pirate to user terminal: ", if spi.resetBP(): print "OK." else: print "failed." sys.exit()
class GD25Q128Reader:
def __init__(self):
self.status_byte = PinCfg.POWER | PinCfg.CS
self.spi = None
#Chip Size
#self.chip_block = 256
#self.chip_sectors = 16
#self.chip_pages = 4096
self.chip_bytes = 0x1000000
#Commands
self.CMD_WREN = 0x06 #Write Enable
self.CMD_WRDI = 0x04 #Write Disable
self.CMD_RDSR1 = 0x05 #Read status register 0-7
self.CMD_RDSR2 = 0x35 #Read status register 8-15
self.CMD_RDSR3 = 0x15 #Read status register 16-23
self.CMD_READ = 0x03 #Read data bytes
self.CMD_PP = 0x02 #Page Program
#self.CMD_SE = 0x20 #Sector Erase
#self.CMD_BE32 = 0x52 #32kb Block Erase
#self.CMD_BE64 = 0xD8 #64kb Block Erase
self.CMD_CE = 0xC7 #Chip Erase
self.CMD_REMS = 0x90 #Read Manufacture ID/Device ID
self.CMD_RDID = 0x9F #Read Identification
#Status Registers
self.SR_HOLD_RST = 7
self.SR_DRV1 = 6
self.SR_DRV0 = 5
self.SR_WPS = 2
self.SR_SUS1 = 7
self.SR_CMP = 6
self.SR_LB3 = 5
self.SR_LB2 = 4
self.SR_LB1 = 3
self.SR_SUS2 = 2
self.SR_QE = 1
self.SR_SRP1 = 0
self.SR_SRP0 = 7
self.SR_BP4 = 6
self.SR_BP3 = 5
self.SR_BP2 = 4
self.SR_BP1 = 3
self.SR_BP0 = 2
self.SR_WEL = 1
self.SR_WIP = 0
def connect(self, usb_port):
self.spi = SPI(usb_port, 115200)
print "Entering binmode: ",
if self.spi.BBmode():
print "OK."
else:
print "failed."
sys.exit()
print "Entering raw SPI mode: ",
if self.spi.enter_SPI():
print "OK."
else:
print "failed."
sys.exit()
print "Configuring SPI."
if not self.spi.cfg_pins(self.status_byte):
print "Failed to set SPI peripherals."
sys.exit()
if not self.spi.set_speed(SPISpeed._2_6MHZ):
print "Failed to set SPI Speed."
sys.exit()
if not self.spi.cfg_spi(SPICfg.CLK_EDGE | SPICfg.OUT_TYPE):
print "Failed to set SPI configuration."
sys.exit()
self.spi.timeout(0.2)
#Bring PROG to High
self.status_byte |= PinCfg.AUX
if not self.spi.cfg_pins(self.status_byte):
print "Failed to set PROG pin to HIGH"
sys.exit()
def disconnect(self):
#Cleanup
print "Reset Bus Pirate to user terminal: ",
if self.spi.resetBP():
print "OK."
else:
print "failed."
sys.exit()
def send_single_spi_command(self, data=[]):
self.spi.CS_Low()
ret = self.spi.bulk_trans(len(data), data)
self.spi.CS_High()
return ret
def send_spi_command(self, data=[]):
return self.spi.bulk_trans(len(data), data)
def is_bit_set(self, check, bit):
return (check & (1 << bit) != 0)
def set_bit(self, check, bit):
return check | (1 << bit)
def unset_bit(self, check, bit):
return check & ~(1 << bit)
def parse_SR(self):
SR1, SR2, SR3 = self.get_SR()
print "Parsing STATUS_REGISTERS"
SR1_Dict = {
"SR_SRP0": self.is_bit_set(SR1, self.SR_SRP0),
"SR_BP4": self.is_bit_set(SR1, self.SR_BP4),
"SR_BP3": self.is_bit_set(SR1, self.SR_BP3),
"SR_BP2": self.is_bit_set(SR1, self.SR_BP2),
"SR_BP1": self.is_bit_set(SR1, self.SR_BP1),
"SR_BP0": self.is_bit_set(SR1, self.SR_BP0),
"SR_WEL": self.is_bit_set(SR1, self.SR_WEL),
"SR_WIP": self.is_bit_set(SR1, self.SR_WIP)
}
SR2_Dict = {
"SR_SUS1": self.is_bit_set(SR1, self.SR_SUS1),
"SR_CMP": self.is_bit_set(SR1, self.SR_CMP),
"SR_LB3": self.is_bit_set(SR1, self.SR_LB3),
"SR_LB2": self.is_bit_set(SR1, self.SR_LB2),
"SR_LB1": self.is_bit_set(SR1, self.SR_LB1),
"SR_SUS2": self.is_bit_set(SR1, self.SR_SUS2),
"SR_QE": self.is_bit_set(SR1, self.SR_QE),
"SR_SRP1": self.is_bit_set(SR1, self.SR_SRP1)
}
SR3_Dict = {
"SR_HOLD_RST": self.is_bit_set(SR1, self.SR_HOLD_RST),
"SR_DRV1": self.is_bit_set(SR1, self.SR_DRV1),
"SR_DRV0": self.is_bit_set(SR1, self.SR_DRV0),
"SR_WPS": self.is_bit_set(SR1, self.SR_WPS),
}
for i in [SR1_Dict, SR2_Dict]:
for item in i:
if i[item]:
print "ENABLED: " + repr(item)
def get_SR(self, SR_NUM=None):
if SR_NUM:
dsrnum = {1: self.CMD_RDSR1, 2: self.CMD_RDSR2, 3: self.CMD_RDSR3}
ret = ord(self.send_single_spi_command([dsrnum[SR_NUM], 0x00])[1])
return ret
ret1 = ord(self.send_single_spi_command([self.CMD_RDSR1, 0x00])[1])
ret2 = ord(self.send_single_spi_command([self.CMD_RDSR2, 0x00])[1])
ret3 = ord(self.send_single_spi_command([self.CMD_RDSR3, 0x00])[1])
return [ret1, ret2, ret3]
def read_id(self):
ret = self.send_single_spi_command([self.CMD_RDID, 0x00, 0x00,
0x00])[1:]
ret2 = self.send_single_spi_command(
[self.CMD_REMS, 0x00, 0x00, 0x00, 0x00, 0x00])[1:]
print "Manufacturer ID: " + hex(ord(ret[0]))
print "Memory Type: " + hex(ord(ret[1]))
print "Capacity: " + hex(ord(ret[2]))
print "DeviceID: " + hex(ord(ret2[4]))
return ret
def write_enable(self):
#print "Sending Write Enable"
self.send_single_spi_command([self.CMD_WREN])
def write_disable(self):
#print "Sending Write Disable"
self.send_single_spi_command([self.CMD_WRDI])
def dump_rom(self, output_file):
read_size = 16
self.spi.CS_Low()
self.send_spi_command([self.CMD_READ, 0, 0, 0])
with open(output_file, "wb") as f:
for pAddress in xrange(self.chip_bytes / read_size):
data = self.spi.bulk_trans(read_size, list([0] * read_size))
f.write("".join(data))
if (pAddress % (0x100 / read_size) == 0):
print "%.6X : %s" % (pAddress * read_size,
repr(map(ord, list(data))))
self.spi.CS_High()
def is_busy(self):
SR = self.get_SR(1)
if self.is_bit_set(SR, self.SR_WIP):
return True
return False
def chip_erase(self):
print "Erasing Entire Chip..."
#Enable WREN
self.write_enable()
#Send chip erase
self.send_single_spi_command([self.CMD_CE])
while self.is_busy():
self.spi.timeout(0.1)
print "Erase Complete..."
def chunk(self, data, chunk_size):
return [
data[i:i + chunk_size] for i in xrange(0, len(data), chunk_size)
]
def write_rom(self, input_file):
write_size = 16
with open(input_file, "rb") as f:
input_data = f.read()
input_data_len = len(input_data)
if input_data_len > self.chip_bytes:
print "Input file is bigger than maximum flash size"
return
if input_data_len % write_size != 0:
print "Data is not divisible by %d" % (write_size)
return
self.chip_erase()
print "Writing file to flash..."
chunk_size = 256 #Datasheet indicates each transfer is 255 bytes at a time
data_chunks = self.chunk(input_data, chunk_size)
total_written = 0
for dc in xrange(len(data_chunks)):
prog_address = dc << 8
#Enable WREN
self.write_enable()
self.spi.CS_Low()
spi_write_cmd = [
self.CMD_PP,
] + map(ord, list(struct.pack(">L", prog_address)))[1:]
self.send_spi_command(spi_write_cmd)
to_write_chunks = self.chunk(
data_chunks[dc],
write_size) #bus pirate can only latch in 16 byes each time
for twc in to_write_chunks:
conv_arr = map(int, list(ord(i) for i in twc))
self.spi.bulk_trans(write_size, conv_arr)
total_written += write_size
self.spi.CS_High()
if total_written % 4096 == 0:
print "Total bytes written: %s of %s" % ("{:,}".format(
total_written), "{:,}".format(input_data_len))
print "Total bytes written: %s" % ("{:,}".format(total_written))
class bpnrf24lReader:
def __init__(self):
self.status_byte = PinCfg.POWER | PinCfg.CS
self.spi = None
# SPI Commands
self.SPI_WREN = 0x06 #Set flash write enable,FSR.WEN
self.SPI_WRDIS = 0x04 #Reset flash write enable, FSR.WEN
self.SPI_RDSR = 0x05 #Read Flash Status Register (FSR)
self.SPI_WRSR = 0x01
self.SPI_READ = 0x03
self.SPI_PROGRAM = 0x02
self.SPI_ERASEPAGE = 0x52
self.SPI_ERASEALL = 0x62
self.SPI_RDFPCR = 0x89
self.SPI_RDISIP = 0x84
self.SPI_RDISMB = 0x85
self.SPI_ENDEBUG = 0x86
#FSR Bits
self.FSR_RESERVED = 0
self.FSR_RDISIP = 1
self.FSR_RDISMB = 2
self.FSR_INFEN = 3
self.FSR_RDYN = 4
self.FSR_WEN = 5
self.FSR_STP = 6
self.FSR_DBG = 7
def connect(self, usb_port):
self.spi = SPI(usb_port, 115200)
print "Entering binmode: ",
if self.spi.BBmode():
print "OK."
else:
print "failed."
sys.exit()
print "Entering raw SPI mode: ",
if self.spi.enter_SPI():
print "OK."
else:
print "failed."
sys.exit()
print "Configuring SPI."
if not self.spi.cfg_pins(self.status_byte):
print "Failed to set SPI peripherals."
sys.exit()
if not self.spi.set_speed(SPISpeed._2_6MHZ):
print "Failed to set SPI Speed."
sys.exit()
if not self.spi.cfg_spi(SPICfg.CLK_EDGE | SPICfg.OUT_TYPE):
print "Failed to set SPI configuration."
sys.exit()
self.spi.timeout(0.2)
#Bring PROG to High
self.status_byte |= PinCfg.AUX
if not self.spi.cfg_pins(self.status_byte):
print "Failed to set PROG pin to HIGH"
sys.exit()
def disconnect(self):
#Cleanup
print "Reset Bus Pirate to user terminal: ",
if self.spi.resetBP():
print "OK."
else:
print "failed."
sys.exit()
def set_CS(self, status_flip, onfail_exit=False):
if status_flip:
self.status_byte &= ~PinCfg.CS
else:
self.status_byte |= PinCfg.CS
if not self.spi.cfg_pins(self.status_byte):
print "send_spi_command : Failed to enable writing."
if onfail_exit: sys.exit()
def send_spi_command(self, data=[]):
return self.spi.bulk_trans(len(data), data)
def is_bit_set(self, check, bit):
return (check & (1 << bit) != 0)
def set_bit(self, check, bit):
return check | (1 << bit)
def unset_bit(self, check, bit):
return check & ~(1 << bit)
def get_fsr(self):
self.set_CS(True, True)
ret = self.send_spi_command([self.SPI_RDSR, 0x00])[1]
#print "get_fsr() returned : " + repr(ret)
self.set_CS(False, True)
return ord(ret)
def parse_fsr(self, fsr=None):
fsr_string = [
"FSR_RESERVED", "FSR_RDISIP", "FSR_RDISMB", "FSR_INFEN",
"FSR_RDYN", "FSR_WEN", "FSR_STP", "FSR_DBG"
]
print "=== Parsing FSR START ==="
if not fsr:
fsr = self.get_fsr()
#print repr(fsr)
for i in xrange(8):
if self.is_bit_set(fsr, i):
print "%s bit is set" % (fsr_string[i])
print "=== Parsing FSR END ==="
return fsr
def enable_read_infopage(self, disable_infopage=False):
fsr = self.get_fsr()
if disable_infopage:
fsr = self.unset_bit(fsr, self.FSR_INFEN)
else:
fsr = self.set_bit(fsr, self.FSR_INFEN)
self.set_CS(True, True)
if not self.send_spi_command([self.SPI_WRSR, fsr]):
print "enable_write() failed"
sys.exit()
self.set_CS(False, True)
def enable_write(self):
self.set_CS(True, True)
if not self.send_spi_command([
self.SPI_WREN,
]):
print "enable_write() failed"
sys.exit()
self.set_CS(False, True)
def erase_chip(self):
print "Erasing Mainblock..."
#Enable writing of chip
self.enable_write()
ret = self.get_fsr()
if ret != 0x20 and ret != 0x24:
print "Incorrect status, 0x%x returned, erase_chip probably failed. Check your connections." % (
ret)
self.set_CS(True, True)
self.send_spi_command([self.SPI_ERASEALL])
self.set_CS(False, True)
while True:
ret = self.get_fsr()
if ret == 0x00 or ret == 0x08: #FSR_INFEN may be flagged
break
def erase_page(self, page): #Each page is 512 bytes and contain 8 blocks
print "Erasing Page : %d" % (page)
self.enable_write()
ret = self.get_fsr()
if ret != 0x20 and ret != 0x28 and ret != 0x2C:
print "Incorrect status, 0x%x returned, erase_page probably failed. Check your connections." % (
ret)
self.set_CS(True, True)
self.send_spi_command([
self.SPI_ERASEPAGE,
] + map(ord, list(struct.pack(">B", page))))
self.set_CS(False, True)
while True:
ret = self.get_fsr()
if ret == 0x00 or ret == 0x08: #FSR_INFEN may be flagged
break
def program_data(self, rom_data, start_address=0):
print "=== PROGRAM CHIP START ==="
split_length = 4
#pad rom data to be % split_length == 0
if len(rom_data) % split_length != 0:
rom_data = rom_data + (
"\xFF" * (split_length - len(rom_data) % split_length))
self.enable_write()
ret = self.get_fsr()
if ret != 0x20 and ret != 0x28: #FSR_INFEN may be flagged
print "Incorrect status, 0x%x returned, program_data probably failed. Check your connections." % (
ret)
rom_data_split = [
rom_data[i:i + split_length]
for i in range(0, len(rom_data), split_length)
]
pAddress = start_address
for d in rom_data_split:
self.enable_write() #Enable writing
#Program bytes
print "%.4X : %s" % (pAddress, repr(map(ord, list(d))))
self.set_CS(True, True)
self.send_spi_command([
self.SPI_PROGRAM,
] + map(ord,
list(struct.pack(">H", pAddress)) + list(d)))
self.set_CS(False, True)
pAddress += split_length
print "=== PROGRAM CHIP END ==="
def can_read_infopage(self):
fsr = self.get_fsr()
if self.is_bit_set(fsr, self.FSR_RDISIP):
return False
return True
def is_chip_protected(self):
#This check can be used to see if we can read data from MB and write to IP
fsr = self.get_fsr()
if self.is_bit_set(fsr, self.FSR_RDISMB):
return True
return False
def dump_rom(self, max_size):
return_data = ""
for pAddress in xrange(max_size / 4):
spi_read_cmd = [
self.SPI_READ,
] + map(ord, list(struct.pack(">H", pAddress * 4))) + [0, 0, 0, 0]
#print "Sending SPI command: " + repr(spi_read_cmd)
self.set_CS(True, True)
ret = self.send_spi_command(spi_read_cmd)
self.set_CS(False, True)
print "%.4X : %s" % (pAddress * 4, repr(map(ord, list(ret[3:]))))
return_data += "".join(ret[3:])
return return_data
def dump_infopage(self):
if not self.can_read_infopage(): return None
return_data = ""
self.enable_read_infopage()
return_data = self.dump_rom(512)
self.enable_read_infopage(disable_infopage=True)
return return_data
def dump_mainblock(self, is_16kb=False):
if self.is_chip_protected(): return None
read_size = 0x8000
if is_16kb:
read_size = 0x4000
return_data = ""
return_data = self.dump_rom(read_size)
return return_data
def buspirate_test(buspirate_dev: str, filename: str):
spi = SPI(buspirate_dev, 115200)
print("Entering binmode: ")
if spi.BBmode():
print("OK.")
else:
print("failed.")
sys.exit()
print("Entering raw SPI mode: ")
if spi.enter_SPI():
print("OK.")
else:
print("failed.")
sys.exit()
print("Configuring SPI peripherals: ")
if spi.cfg_pins(PinCfg.POWER | PinCfg.CS):
print("OK.")
else:
print("failed.")
sys.exit()
sleep(0.5)
print("Configuring SPI speed: ")
if spi.set_speed(SPISpeed._125KHZ):
print("OK.")
else:
print("failed.")
sys.exit()
print("Configuring SPI configuration: ")
if spi.cfg_spi(SPICfg.CLK_EDGE | SPICfg.OUT_TYPE):
print("OK.")
else:
print("failed.")
sys.exit()
spi.timeout(0.2)
bme280 = BME280(spi)
bme280.begin()
print("Checking chip ID: ", end='')
chipID = bme280.read_reg8(0xD0)
if chipID == 0x60:
print("OK")
else:
print(f"ERROR ({chipID} != 0x60")
sys.exit()
bme280.end()
print("Starting conversion")
bme280.begin()
bme280.write_reg8(0xF2, 0x02)
bme280.write_reg8(0xF4, 0b01001010)
bme280.end()
bme280.begin()
print("Waiting for result.", end='')
while bme280.read_reg8(0xF3) & 0x80:
print('.', end='')
sleep(0.01)
print("OK")
bme280.end()
print("Reading results:", end='')
bme280.begin()
bres = bme280.read_data(0xF7, 8)
bme280.end()
if len(bres) == 8:
print("OK")
else:
print("ERROR")
sys.exit()
raw_humidity = (bres[6] << 8) | bres[7]
raw_pressure = (bres[0] << 12) | (bres[1] << 4) | (bres[2] >> 4)
raw_temp = (bres[3] << 12) | (bres[4] << 4) | (bres[5] >> 4)
print(
f"Raw Humidity:{raw_humidity} Raw Pressure:{raw_pressure} Raw Temperature:{raw_temp}"
)
bme280.begin()
bcompA = bme280.read_data(0x88, 26) # 0x88 - 0xA1
bme280.end()
bme280.begin()
bcompB = bme280.read_data(0xE1, 7) # 0xE1 - 0xE7
bme280.end()
if filename is not None:
fp = open("bme280.bin", "wb")
fp.write(bres)
fp.write(bcompA)
fp.write(bcompB)
fp.close()
print("Reset Bus Pirate to user terminal: ", end='')
if spi.resetBP():
print("OK")
else:
print("ERROR")
sys.exit()
temperature = bme280.calculateTemperature(raw_temp, bcompA)
pressure = bme280.calculatePressure(raw_pressure, bcompA)
humidity = bme280.calculateHumidity(raw_humidity, bcompA[25:] + bcompB)
print("Temperature: {:.2f}C".format(temperature / 100.0))
print("Pressure: {:.2f}hPa".format(pressure / 100.0))
print("RH: {:.2f}%".format(humidity))