diff --git a/I2C_serial.py b/I2C_serial.py
new file mode 100644
index 0000000000000000000000000000000000000000..b49776a5b7e91586ac182a17d4cbdd075b26756a
--- /dev/null
+++ b/I2C_serial.py
@@ -0,0 +1,92 @@
+'''
+I2C Class
+
+'''
+import sys
+sys.path.insert(0,'c:\python34\lib\site-packages')
+import serial
+from time import *
+
+DEBUG=False
+
+ser = serial.Serial()
+ser.baudrate = 57600
+ser.port = 'COM11'
+ser.parity = serial.PARITY_NONE
+ser.timeout = 1
+
+class I2C:
+
+ def __init__(self, ADDRESS='040'):
+ self.I2C_Address = ADDRESS
+
+
+# def chk_ack(self):
+# return ret_ack
+# def write_bytes(self,register,data):
+# return ret_ack
+# def write_last_reg(self,data):
+# return ret_ack
+
+ def read_bytes(self, register, bytes_to_read=2):
+ serial_string='S{0:x}{1:{fill}2x}PS{2:x}{3:02}45P'.format(self.I2C_Address*2, register, (self.I2C_Address*2+1), bytes_to_read, fill = '0')
+ serial_string=serial_string.upper()
+ ret_ack = 1
+ if DEBUG:
+ print(serial_string)
+ ret_value="0F"
+ else:
+ ser.open()
+ ser.write(bytes(serial_string, 'utf-8'))
+ ret_value = ser.read(bytes_to_read*2)
+ ser.close()
+ ret_value = ret_value.decode("utf-8")
+ return ret_ack, ret_value
+
+
+ def read_last_reg(self, bytes_to_read):
+ serial_string='S{0:x}{1:02}P'.format((self.I2C_Address*2+1), bytes_to_read)
+ serial_string=serial_string.upper()
+ ret_ack = 1
+ if DEBUG:
+ print(serial_string)
+ ret_value="0F"
+ else:
+ ser.open()
+ ser.write(bytes(serial_string, 'utf-8'))
+ ret_value = ser.read(bytes_to_read*2)
+ ser.close()
+ ret_value = ret_value.decode("utf-8")
+ return ret_ack,ret_value
+
+ def write_bytes(self, register, data):
+ ret_value=[]
+ serial_string='S{0:x}{1:02x}{2:02x}P'.format(self.I2C_Address*2, register, data)
+ serial_string=serial_string.upper()
+ ret_ack = 1
+ if DEBUG:
+ print(serial_string)
+ else:
+ ser.open()
+ ser.write(bytes(serial_string, 'utf-8'))
+ ser.close()
+ return ret_ack
+
+ def write_pointer(self, register):
+ ret_value=[]
+ serial_string='S{0:x}{1:02x}P'.format(self.I2C_Address*2, register)
+ serial_string=serial_string.upper()
+ ret_ack = 1
+ if DEBUG:
+ print(serial_string)
+ else:
+ ser.open()
+ ser.write(bytes(serial_string, 'utf-8'))
+ ser.close()
+ return ret_ack
+
+if __name__ == "__main__":
+ I2C_Device = I2C(0x40)
+ I2C_Device.write_bytes(0x00, 0x00)
+ ret_ack, ret_value = I2C_Device.read_bytes(0x8C, 2)
+ print(ret_value)
diff --git a/set_adc.py b/set_adc.py
new file mode 100644
index 0000000000000000000000000000000000000000..8aabf0305a73eef6f9a3f7da3daadbf5b88cb9a4
--- /dev/null
+++ b/set_adc.py
@@ -0,0 +1,241 @@
+'''
+Set ADC
+
+'''
+import sys
+import time
+sys.path.insert(0,'.')
+from I2C_serial import *
+
+sleep_time=0.05
+CHECK_I2C_DEVICES = False
+WRITE_DATA = True
+READ_BYTE = True
+PWR_RST = False
+SET_ADC = True
+
+CS = 0
+
+SCLK = [1, 3, 5]
+SDIO = [0, 2, 4]
+ADC_ORDER = [0, 1, 2]
+
+
+
+def blink_led(address=0x76, times = 5):
+ print("Blink LED")
+ I2C_device = I2C(address)
+ I2C_device.write_bytes(0x06, 00)
+ I2C_device.write_bytes(0x07, 00)
+ for cnt in range(times):
+ I2C_device.write_bytes(0x03, 0x40)
+ sleep(0.5)
+ I2C_device.write_bytes(0x03, 0x80)
+ sleep(0.5)
+ I2C_device.write_bytes(0x03, 0x40)
+
+
+def Write_byte_ADC(ADC_reg_address, ADC_data, ADC_bytes=1, ADC_NR = 0, ADDRESS=0x20):
+ #
+ # Write Byte to the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ ADC_rw = 0x00 # 0 for write, 1 for read
+ stri = "Write : {0:2x} to Address : {1:2x}".format(ADC_data, ADC_reg_address)
+ print(stri)
+ data = ( ADC_rw << 23) + ( ADC_bytes << 21 ) + (ADC_reg_address << 8) + int(ADC_data)
+
+ I2C_device.write_bytes(0x06, 00) # Config registers IO-expander
+ I2C_device.write_bytes(0x07, 00) # Config registers IO-expander
+ I2C_device.write_bytes(0x03, (0x0F ^ (0x01 << ADC_NR)))
+
+ bit_array = "{0:{fill}24b}".format(data, fill='0')
+# print(bit_array)
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | (int(bit) << SDIO[ADC_NR])
+ I2C_device.write_bytes(0x02, Write_data)
+ # sleep(sleep_time)
+
+ for extra_cylces in range(5):
+ for clk in range(2):
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | (0 << SDIO[ADC_NR])
+ I2C_device.write_bytes(0x02, Write_data)
+
+ Write_data = (0x00 | (0 << SCLK[ADC_NR]) | ( 0 << SDIO[ADC_NR] ))
+ I2C_device.write_bytes(0x02, Write_data)
+ I2C_device.write_bytes(0x03, 0x0F)
+
+def Read_byte_ADC(ADC_reg_address, ADC_bytes=0, ADC_NR = 0, ADDRESS=0x20 ):
+ #
+ # Read Byte from the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ ADC_rw = 0x01 # 0 for write, 1 for read
+
+ stri = "Read ADC from Address {:8x}".format(ADC_reg_address)
+ print(stri)
+
+ data = ( ADC_rw << 15) + ( ADC_bytes << 13 ) + ADC_reg_address
+
+# print("write read command")
+ I2C_device.write_bytes(0x06, 00)
+ I2C_device.write_bytes(0x07, 00)
+ I2C_device.write_bytes(0x03, (0x0F ^ (0x01 << ADC_NR)))
+
+ bit_array = "{0:{fill}16b}".format(data, fill='0')
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | ( int(bit) << SDIO[ADC_NR] )
+ I2C_device.write_bytes(0x02, Write_data)
+# sleep(sleep_time)
+ I2C_device.write_bytes(0x03, 0x0F)
+# print("read byte")
+ I2C_device.write_bytes(0x06, (1 << SDIO[ADC_NR]))
+ I2C_device.write_bytes(0x03, (0x0F ^ (0x01 << ADC_NR)))
+ read_bit = ''
+ for cnt in range(8*(ADC_bytes+1)):
+ for clk in [1,0]: # Read after faling edge
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | ( int(bit) << SDIO[ADC_NR] )
+ I2C_device.write_bytes(0x02, Write_data)
+ ret_ack, ret_value = I2C_device.read_bytes(0x00, 1)
+ if ret_ack:
+ read_bit += str((int(ret_value, 16) >> SDIO[ADC_NR]) & 0x01)
+ else:
+ print("ACK nok")
+ I2C_device.write_bytes(0x03, 0x0F)
+ I2C_device.write_bytes(0x07, 00)
+ Write_data = 0x00 | (0 << SCLK[ADC_NR]) | ( 0 << SDIO[ADC_NR] )
+ I2C_device.write_bytes(0x02, Write_data)
+ I2C_device.write_bytes(0x03, 0x0F)
+ stri = "Read back data is: {0:2x} ".format(int(read_bit, 2))
+ print(stri)
+ return read_bit;
+
+def rcu_sensors():
+ addr = 0x14
+ Vref = 3.3
+ one_step = Vref/(2**(16+1))
+ I2C_device = I2C(addr)
+ I2C_device.write_bytes(0xB8, 0xB0)
+ sleep(1)
+ ret_ack, ret_value = I2C_device.read_last_reg(3)
+ if ret_ack:
+ stri = "Return value input 0 : 0x{0} ".format(ret_value)
+ print(stri)
+ if int(ret_value, 16) >= 0xC00000:
+ print("over range")
+ else:
+ steps = (int(ret_value, 16) & 0x1FFFFF) >> 6
+ voltage = one_step * steps
+ string = "Voltage is {0:.4f}".format(voltage)
+ print(string)
+ else:
+ print("ACK nok")
+ sleep(1)
+ temp_slope = 93.5E-6 * 2**(16+1) / Vref
+ I2C_device.write_bytes(0xA0, 0xE0)
+ sleep(1)
+ ret_ack, ret_value = I2C_device.read_last_reg(3)
+ if ret_ack:
+ raw_value = (int(ret_value, 16) & 0x1FFFFF) >> 6
+ temperature_K = (raw_value/temp_slope)
+ temperature = temperature_K-273
+ stri = "Return value : 0x{0} Temperature : {1:.2f} gr. C".format(ret_value, temperature)
+ print(stri)
+ else:
+ print("ACK nok")
+
+
+def rw_eeprom(value=0xAB):
+ ADDR = 0x50
+ I2C_eeprom = I2C(0x53)
+ I2C_eeprom.write_bytes(0x00, value)
+ I2C_eeprom.write_pointer(0x00)
+ ret_ack, ret_value = I2C_eeprom.read_last_reg(1)
+ if ret_ack:
+ stri = "EEPROM readback : {0} ".format(ret_value)
+ print(stri)
+ else:
+ print("ACK nok")
+
+def power(state):
+ ADDRESS_IO = 0x76
+ I2C_IO_device = I2C(ADDRESS_IO)
+ I2C_IO_device.write_bytes(0x06, 00)
+ if state=='ON':
+ print("Switch ON")
+ bits_to_set = 0x40
+ I2C_IO_device.write_bytes(0x02, bits_to_set)
+ else:
+ I2C_IO_device.write_bytes(0x06, 0xFF)
+ print("Switch OFF")
+ bits_to_set = 0x0
+
+
+
+def set_gain(gain, channel):
+ string = "Set Channel {0} to a gain of {1} dB".format(channel, gain)
+ print(string)
+ if channel <= 1:
+ ADDRESS_IO = 0x75
+ max_gain = 15
+ min_gain = -6
+ elif channel <= 2:
+ ADDRESS_IO = 0x76
+ max_gain = 20
+ min_gain = -4
+ else:
+ print(" wrong channel number 0 <= Channel <= 2 channel set to 2")
+ channel = 2
+ ADDRESS_IO = 0x76
+ max_gain = 20
+ min_gain = -4
+ if min_gain <= gain <= max_gain:
+ set_gain = max_gain-gain
+ else:
+ set_gain = max_gain-min_gain
+ bits_to_set = set_gain
+ I2C_IO_device = I2C(ADDRESS_IO)
+ I2C_IO_device.write_bytes(0x06, 00)
+ I2C_IO_device.write_bytes(0x07, 00)
+ if channel == 0:
+ I2C_IO_device.write_bytes(0x02, bits_to_set)
+ elif channel == 1:
+ I2C_IO_device.write_bytes(0x03, bits_to_set)
+ elif channel == 2:
+ I2C_IO_device.write_bytes(0x02, bits_to_set | 0x40)
+ else:
+ print("no update done")
+
+if PWR_RST:
+ power('OFF')
+ sleep(1)
+
+power('ON')
+
+if CHECK_I2C_DEVICES:
+ blink_led(address = 0x76, times=6)
+ rw_eeprom(0xAC)
+ rcu_sensors()
+
+for cnt in range(3):
+ if SET_ADC :
+ ADC_address = 0x3A # see address table
+ ADC_data = 0x00 # 8 bits data
+ ADC_bytes = 0x00 # 00 / 11 + 1 bytes
+ ADCNR = ADC_ORDER[cnt]
+ set_gain(10, ADCNR)
+ stri = "Set channel {}".format(ADCNR)
+ print(stri)
+
+ Write_byte_ADC(0x5F, 0x14, ADC_NR = ADCNR) # ILAS normal mode standard value
+ Write_byte_ADC(0x15, 0x07, ADC_NR = ADCNR) # CML level
+ Write_byte_ADC(0x3A, 0x01, ADC_NR=ADCNR) # SYNC / SYSREF control
+# Write_byte_ADC(0x60, 0x80, ADC_NR=ADCNR) # Single ended SYNC pulse
+ if ADCNR == 2:
+ Write_byte_ADC(0x14, 0x05, ADC_NR=ADCNR) # ADC ON
+ Write_byte_ADC(0xFF, 0x01, ADC_NR = ADCNR) # transfer settings
+ Read_byte_ADC(0x0A, ADC_NR = ADCNR)
+
+
diff --git a/set_adc_tm.py b/set_adc_tm.py
new file mode 100644
index 0000000000000000000000000000000000000000..4b1ff4ee5733cd740358a08b711ab39f4ee396a9
--- /dev/null
+++ b/set_adc_tm.py
@@ -0,0 +1,265 @@
+'''
+Set ADC
+
+'''
+import sys
+import time
+sys.path.insert(0,'.')
+from I2C_serial import *
+
+sleep_time=0.05
+CHECK_I2C_DEVICES = False
+WRITE_DATA = True
+READ_BYTE = True
+PWR_RST = False
+SET_ADC = True
+
+CS = 0
+
+SCLK = [1, 3, 5]
+SDIO = [0, 2, 4]
+ADC_ORDER = [0, 1, 2]
+
+
+def off_on(address=0x76):
+ print("Off_on")
+ I2C_device = I2C(address)
+ I2C_device.write_bytes(0x06, 00)
+ I2C_device.write_bytes(0x07, 00)
+ I2C_device.write_bytes(0x02, 0x0)
+ I2C_device.write_bytes(0x03, 0x8)
+ sleep(5)
+ I2C_device.write_bytes(0x02, 0xF0)
+ I2C_device.write_bytes(0x03, 0xF0)
+
+def blink_led(address=0x76, times = 5):
+ print("Blink LED")
+ I2C_device = I2C(address)
+ I2C_device.write_bytes(0x07, 00)
+ for cnt in range(times):
+ I2C_device.write_bytes(0x03, 0x40)
+ sleep(0.5)
+ I2C_device.write_bytes(0x03, 0x80)
+ sleep(0.5)
+ I2C_device.write_bytes(0x03, 0x40)
+
+
+def Write_byte_ADC(ADC_reg_address, ADC_data, ADC_bytes=1, ADC_NR = 0, ADDRESS=0x20):
+ #
+ # Write Byte to the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ ADC_rw = 0x00 # 0 for write, 1 for read
+ stri = "Write : {0:2x} to Address : {1:2x}".format(ADC_data, ADC_reg_address)
+ print(stri)
+ data = ( ADC_rw << 23) + ( ADC_bytes << 21 ) + (ADC_reg_address << 8) + int(ADC_data)
+
+ I2C_device.write_bytes(0x06, 00) # Config registers IO-expander
+ I2C_device.write_bytes(0x07, 00) # Config registers IO-expander
+ I2C_device.write_bytes(0x03, (0x0F ^ (0x01 << ADC_NR)))
+
+ bit_array = "{0:{fill}24b}".format(data, fill='0')
+ print(bit_array)
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | (int(bit) << SDIO[ADC_NR])
+ I2C_device.write_bytes(0x02, Write_data)
+ # sleep(sleep_time)
+
+ for extra_cylces in range(5):
+ for clk in range(2):
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | (0 << SDIO[ADC_NR])
+ I2C_device.write_bytes(0x02, Write_data)
+
+ Write_data = (0x00 | (0 << SCLK[ADC_NR]) | ( 0 << SDIO[ADC_NR] ))
+ I2C_device.write_bytes(0x02, Write_data)
+ I2C_device.write_bytes(0x03, 0x0F)
+
+def Read_byte_ADC(ADC_reg_address, ADC_bytes=0, ADC_NR = 0, ADDRESS=0x20 ):
+ #
+ # Read Byte from the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ ADC_rw = 0x01 # 0 for write, 1 for read
+
+ stri = "Read ADC from Address {:8x}".format(ADC_reg_address)
+ print(stri)
+
+ data = ( ADC_rw << 15) + ( ADC_bytes << 13 ) + ADC_reg_address
+
+# print("write read command")
+ I2C_device.write_bytes(0x06, 00)
+ I2C_device.write_bytes(0x07, 00)
+ I2C_device.write_bytes(0x03, (0x0F ^ (0x01 << ADC_NR)))
+
+ bit_array = "{0:{fill}16b}".format(data, fill='0')
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | ( int(bit) << SDIO[ADC_NR] )
+ I2C_device.write_bytes(0x02, Write_data)
+# sleep(sleep_time)
+ I2C_device.write_bytes(0x03, 0x0F)
+# print("read byte")
+ I2C_device.write_bytes(0x06, (1 << SDIO[ADC_NR]))
+ I2C_device.write_bytes(0x03, (0x0F ^ (0x01 << ADC_NR)))
+ read_bit = ''
+ for cnt in range(8*(ADC_bytes+1)):
+ for clk in [1,0]: # Read after faling edge
+ Write_data = 0x00 | (clk << SCLK[ADC_NR]) | ( int(bit) << SDIO[ADC_NR] )
+ I2C_device.write_bytes(0x02, Write_data)
+ ret_ack, ret_value = I2C_device.read_bytes(0x00, 1)
+ if ret_ack:
+ read_bit += str((int(ret_value, 16) >> SDIO[ADC_NR]) & 0x01)
+ else:
+ print("ACK nok")
+ I2C_device.write_bytes(0x03, 0x0F)
+ I2C_device.write_bytes(0x07, 00)
+ Write_data = 0x00 | (0 << SCLK[ADC_NR]) | ( 0 << SDIO[ADC_NR] )
+ I2C_device.write_bytes(0x02, Write_data)
+ I2C_device.write_bytes(0x03, 0x0F)
+ stri = "Read back data is: {0:2x} ".format(int(read_bit, 2))
+ print(stri)
+ return read_bit;
+
+def rcu_sensors():
+ addr = 0x14
+ Vref = 3.3
+ one_step = Vref/(2**(16+1))
+ I2C_device = I2C(addr)
+ I2C_device.write_bytes(0xB8, 0xB0)
+ sleep(1)
+ ret_ack, ret_value = I2C_device.read_last_reg(3)
+ if ret_ack:
+ stri = "Return value input 0 : 0x{0} ".format(ret_value)
+ print(stri)
+ if int(ret_value, 16) >= 0xC00000:
+ print("over range")
+ else:
+ steps = (int(ret_value, 16) & 0x1FFFFF) >> 6
+ voltage = one_step * steps
+ string = "Voltage is {0:.4f}".format(voltage)
+ print(string)
+ else:
+ print("ACK nok")
+ sleep(1)
+ temp_slope = 93.5E-6 * 2**(16+1) / Vref
+ I2C_device.write_bytes(0xA0, 0xE0)
+ sleep(1)
+ ret_ack, ret_value = I2C_device.read_last_reg(3)
+ if ret_ack:
+ raw_value = (int(ret_value, 16) & 0x1FFFFF) >> 6
+ temperature_K = (raw_value/temp_slope)
+ temperature = temperature_K-273
+ stri = "Return value : 0x{0} Temperature : {1:.2f} gr. C".format(ret_value, temperature)
+ print(stri)
+ else:
+ print("ACK nok")
+
+
+def rw_eeprom(value=0xAB):
+ ADDR = 0x50
+ I2C_eeprom = I2C(0x53)
+ I2C_eeprom.write_bytes(0x00, value)
+ I2C_eeprom.write_pointer(0x00)
+ ret_ack, ret_value = I2C_eeprom.read_last_reg(1)
+ if ret_ack:
+ stri = "EEPROM readback : {0} ".format(ret_value)
+ print(stri)
+ else:
+ print("ACK nok")
+
+def power(state):
+ ADDRESS_IO = 0x76
+ I2C_IO_device = I2C(ADDRESS_IO)
+ I2C_IO_device.write_bytes(0x06, 00)
+ if state=='ON':
+ print("Switch ON")
+ bits_to_set = 0x40
+ I2C_IO_device.write_bytes(0x02, bits_to_set)
+ else:
+ I2C_IO_device.write_bytes(0x06, 0xFF)
+ print("Switch OFF")
+ bits_to_set = 0x0
+
+
+
+def set_gain(gain, channel):
+ string = "Set Channel {0} to a gain of {1} dB".format(channel, gain)
+ print(string)
+ if channel <= 1:
+ ADDRESS_IO = 0x75
+ max_gain = 15
+ min_gain = -6
+ elif channel <= 2:
+ ADDRESS_IO = 0x76
+ max_gain = 20
+ min_gain = -4
+ else:
+ print(" wrong channel number 0 <= Channel <= 2 channel set to 2")
+ channel = 2
+ ADDRESS_IO = 0x76
+ max_gain = 20
+ min_gain = -4
+ if min_gain <= gain <= max_gain:
+ set_gain = max_gain-gain
+ else:
+ set_gain = max_gain-min_gain
+ bits_to_set = set_gain
+ I2C_IO_device = I2C(ADDRESS_IO)
+ I2C_IO_device.write_bytes(0x06, 00)
+ I2C_IO_device.write_bytes(0x07, 00)
+ if channel == 0:
+ I2C_IO_device.write_bytes(0x02, bits_to_set)
+ elif channel == 1:
+ I2C_IO_device.write_bytes(0x03, bits_to_set)
+ elif channel == 2:
+ I2C_IO_device.write_bytes(0x02, bits_to_set | 0x40)
+ else:
+ print("no update done")
+
+if PWR_RST:
+ power(False)
+ sleep(1)
+ power(True)
+
+if CHECK_I2C_DEVICES:
+ blink_led(address = 0x76, times=6)
+ rw_eeprom(0xAC)
+ rcu_sensors()
+
+
+ADC_address = 0x3A # see address table
+ADC_data = 0x00 # 8 bits data
+ADC_bytes = 0x00 # 00 / 11 + 1 bytes
+ADCNR = 1
+
+ADCNR = 1
+stri = "Set channel {} in test mode".format(ADCNR)
+print(stri)
+# Write_byte_ADC(0x5F, 0x14, ADC_NR=ADCNR) # OK ILAS normal mode standard value
+# Write_byte_ADC(0x15, 0x07, ADC_NR=ADCNR) # OK CML level
+#Write_byte_ADC(0x3A, 0x01, ADC_NR=ADCNR) # SYNC / SYSREF control
+# Write_byte_ADC(0x60, 0x80, ADC_NR=ADCNR) # Single ended SYNC pulse
+#Write_byte_ADC(0xFF, 0x01, ADC_NR = ADCNR) # ILAS normal mode standard value
+#Read_byte_ADC(0x3A, ADC_NR = ADCNR)
+#Write_byte_ADC(0x08, 0x35, ADC_NR = 0) # ADC OFF
+#Write_byte_ADC(0x08, 0x35, ADC_NR = 1) # ADC OFF
+#Write_byte_ADC(0x08, 0x35, ADC_NR = 2) # ADC OFF
+#Write_byte_ADC(0x08, 0x00, ADC_NR = 0) # ADC ON
+#Write_byte_ADC(0x08, 0x00, ADC_NR = 1) # ADC ON
+#Write_byte_ADC(0x14, 0x05, ADC_NR = 2) # Invert signal
+#Write_byte_ADC(0x0D, 0x06, ADC_NR = 0) # Ramp output
+#Write_byte_ADC(0xFF, 0x01, ADC_NR = 0) # transfer settings
+#Write_byte_ADC(0x0D, 0x06, ADC_NR = 1) # Ramp output
+#Write_byte_ADC(0xFF, 0x01, ADC_NR = 1) # transfer settings
+#Write_byte_ADC(0x0D, 0x06, ADC_NR = 2) # Ramp output
+#Write_byte_ADC(0xFF, 0x01, ADC_NR = 2) # transfer settings
+#
+power('OFF')
+blink_led(address=0x76, times=5)
+power('ON')
+blink_led(address=0x76, times=5)
+power('OFF')
+blink_led(address=0x76, times=5)
+power('ON')
+
diff --git a/set_clk.py b/set_clk.py
new file mode 100644
index 0000000000000000000000000000000000000000..bd6da619cee65456c9b8dfbe1144a68f6b3e76ab
--- /dev/null
+++ b/set_clk.py
@@ -0,0 +1,159 @@
+'''
+Set ADC
+
+'''
+import sys
+import time
+sys.path.insert(0,'.')
+from I2C_serial import *
+
+sleep_time=0.05
+PWR_RST = False
+SET_PLL = True
+READ_LOCK = True
+INT_POWER_CYCLE = False
+RESET_PLL = False
+UPDATE_PLL = False
+READ_ALL = False
+
+CS = 6
+SCLK = 4
+SDO = 5
+SDI = 7
+
+def Write_byte_PLL(reg_address, wr_data, ADDRESS=0x20):
+ #
+ # Write Byte to the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ PLL_rw = 0x00 # 0 for write, 1 for read
+ stri = "Write : 0x{0:{fill}2x} to Address : 0x{1:{fill}2x}".format(wr_data, reg_address, fill='0')
+ print(stri)
+ I2C_device.write_bytes(0x06, 0x2C)
+ data = ( reg_address << 9 ) + ( PLL_rw << 8 )+ wr_data
+
+ bit_array = "{0:{fill}16b}".format(data, fill='0')
+ I2C_device.write_bytes(0x02, 0x02 | (0x1 << CS))
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x02 | (0 << CS) | (clk << SCLK) | ( int(bit) << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+ for clk in range(2):
+ Write_data = 0x02 | (0 << CS) | (clk << SCLK)
+ I2C_device.write_bytes(0x02, Write_data)
+ for clk in range(2):
+ Write_data = 0x02 | (1 << CS) | (clk << SCLK)
+ I2C_device.write_bytes(0x02, Write_data)
+
+ Write_data = 0x02 | (1 << CS) | (0 << SCLK) | (0 << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+
+def Read_byte_PLL(reg_address, nof_bytes=1, ADDRESS=0x20 ):
+ #
+ # Read Byte from the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ PLL_rw = 0x01 # 0 for write, 1 for read
+
+ I2C_device.write_bytes(0x06, 0x2C)
+ data = ( reg_address << 7 ) + PLL_rw
+
+# print("write read command")
+
+ bit_array = "{0:{fill}8b}".format(data, fill='0')
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x02 | (0 << CS) | (clk << SCLK) | ( int(bit) << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+# sleep(sleep_time)
+
+# print("read byte")
+ read_bit = ''
+ for cnt in range(8*nof_bytes):
+ for clk in [0, 1]: # Read after rizing edge
+ Write_data = 0x02 | (clk << SCLK) | ( int(bit) << SDI )
+ I2C_device.write_bytes(0x02, Write_data)
+ ret_ack, ret_value = I2C_device.read_bytes(0x00, 1)
+# stri= "ret_value = {}".format(int(ret_value,16))
+# print(stri)
+ if ret_ack:
+ read_bit += str((int(ret_value, 16) >> SDO) & 0x01)
+ else:
+ print("ACK nok")
+ Write_data = 0x02 | (1 << CS) | (0 << SCLK) | (0 << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+ stri = "Read back at address 0x{0:{fill}2x} result : 0x{1:{fill}2x} ".format(reg_address, int(read_bit, 2), fill='0')
+ print(stri)
+ return read_bit;
+
+def power(state):
+ ADDRESS_IO = 0x20
+ I2C_IO_device = I2C(ADDRESS_IO)
+ I2C_IO_device.write_bytes(0x06, 0x2C)
+ I2C_IO_device.write_bytes(0x07, 00)
+ if state:
+ bits_to_set = 0x42
+ else:
+ bits_to_set = 0x40
+ I2C_IO_device.write_bytes(0x02, bits_to_set)
+
+
+if PWR_RST :
+ power(False)
+ sleep(1)
+ power(True)
+
+
+if INT_POWER_CYCLE :
+ print("Power OFF")
+ Write_byte_PLL(0x03, 0x88) # Device down
+ sleep(1)
+ print("Power ON")
+ Write_byte_PLL(0x03, 0x08) # Device up
+ print("Done")
+
+if RESET_PLL :
+ print("Reset PLL")
+ Write_byte_PLL(0x03, 0x0C) # Device reset
+ print("Enable PLL")
+ Write_byte_PLL(0x03, 0x08) # Device reset
+ sleep(0.1)
+ print("Done")
+
+if SET_PLL :
+ # Check PLL is in lock
+# Read_byte_PLL(0x00, nof_bytes = 23)
+
+# Write_byte_PLL(0x01, 0x00) # cp inv = 0xF4 other 0xE4
+# Write_byte_PLL(0x02, 0x04) # cp inv = 0xF4 other 0xE4
+ Write_byte_PLL(0x05, 0x97)
+ Write_byte_PLL(0x06, 0x10) # cp inv = 0xF4 other 0xE4
+ Write_byte_PLL(0x07, 0x04) # Divider R = 1 dec
+ Write_byte_PLL(0x08, 0x01)
+ Write_byte_PLL(0x07, 0x00)
+ Write_byte_PLL(0x09, 0x10) # reset
+ Write_byte_PLL(0x0A, 0x14)
+ Write_byte_PLL(0x09, 0x00)
+# Write_byte_PLL(0x0D, 0x02) # Dig CLK = 200/2 = 100 MHz
+ Write_byte_PLL(0x0D, 0x01) # Dig CLK = 200/1 = 200 MHz
+ Write_byte_PLL(0x0F, 0x01) # RCU CLK = 200/1 = 200 MHz
+ Write_byte_PLL(0x11, 0x01) # PPS ref CLK = 200/1 = 200 MHz
+ Write_byte_PLL(0x13, 0x01) # T.P. CLK = 200/1 = 200 MHz
+
+
+if READ_LOCK:
+ ret_value = Read_byte_PLL(0x00, nof_bytes = 1)
+ status_pll = int(ret_value,2)
+ if status_pll == 0x04:
+ print("PLL in lock")
+ elif (status_pll & 0x10) > 0:
+ print("Not Locked --> No 10 MHz ref")
+ else:
+ print("Not locked --> PLL Error")
+
+if READ_ALL:
+ Read_byte_PLL(0x00, nof_bytes = 23)
+
+
+if UPDATE_PLL:
+ Write_byte_PLL(0x05, 0x97)
diff --git a/set_clk_tm.py b/set_clk_tm.py
new file mode 100644
index 0000000000000000000000000000000000000000..eb0b02242b9ffc02c114a2fcb5eee902c275a2da
--- /dev/null
+++ b/set_clk_tm.py
@@ -0,0 +1,160 @@
+'''
+Set ADC
+
+'''
+import sys
+import time
+sys.path.insert(0,'.')
+from I2C_serial import *
+
+sleep_time=0.05
+PWR_RST = False
+SET_PLL = True
+READ_LOCK = True
+INT_POWER_CYCLE = False
+RESET_PLL = False
+UPDATE_PLL = False
+READ_ALL = False
+
+CS = 6
+SCLK = 4
+SDO = 5
+SDI = 7
+
+def Write_byte_PLL(reg_address, wr_data, ADDRESS=0x20):
+ #
+ # Write Byte to the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ PLL_rw = 0x00 # 0 for write, 1 for read
+ stri = "Write : 0x{0:{fill}2x} to Address : 0x{1:{fill}2x}".format(wr_data, reg_address, fill='0')
+ print(stri)
+ I2C_device.write_bytes(0x06, 0x2C)
+ data = ( reg_address << 9 ) + ( PLL_rw << 8 )+ wr_data
+
+ bit_array = "{0:{fill}16b}".format(data, fill='0')
+ I2C_device.write_bytes(0x02, 0x02 | (0x1 << CS))
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x02 | (0 << CS) | (clk << SCLK) | ( int(bit) << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+ for clk in range(2):
+ Write_data = 0x02 | (0 << CS) | (clk << SCLK)
+ I2C_device.write_bytes(0x02, Write_data)
+ for clk in range(2):
+ Write_data = 0x02 | (1 << CS) | (clk << SCLK)
+ I2C_device.write_bytes(0x02, Write_data)
+
+ Write_data = 0x02 | (1 << CS) | (0 << SCLK) | (0 << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+
+def Read_byte_PLL(reg_address, nof_bytes=1, ADDRESS=0x20 ):
+ #
+ # Read Byte from the ADC
+ #
+ I2C_device = I2C(ADDRESS)
+ PLL_rw = 0x01 # 0 for write, 1 for read
+
+ I2C_device.write_bytes(0x06, 0x2C)
+ data = ( reg_address << 7 ) + PLL_rw
+
+# print("write read command")
+
+ bit_array = "{0:{fill}8b}".format(data, fill='0')
+ for bit in bit_array:
+ for clk in range(2):
+ Write_data = 0x02 | (0 << CS) | (clk << SCLK) | ( int(bit) << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+# sleep(sleep_time)
+
+# print("read byte")
+ read_bit = ''
+ for cnt in range(8*nof_bytes):
+ for clk in [0, 1]: # Read after rizing edge
+ Write_data = 0x02 | (clk << SCLK) | ( int(bit) << SDI )
+ I2C_device.write_bytes(0x02, Write_data)
+ ret_ack, ret_value = I2C_device.read_bytes(0x00, 1)
+# stri= "ret_value = {}".format(int(ret_value,16))
+# print(stri)
+ if ret_ack:
+ read_bit += str((int(ret_value, 16) >> SDO) & 0x01)
+ else:
+ print("ACK nok")
+ Write_data = 0x02 | (1 << CS) | (0 << SCLK) | (0 << SDI)
+ I2C_device.write_bytes(0x02, Write_data)
+ stri = "Read back at address 0x{0:{fill}2x} result : 0x{1:{fill}2x} ".format(reg_address, int(read_bit, 2), fill='0')
+ print(stri)
+ return read_bit;
+
+def power(state):
+ ADDRESS_IO = 0x20
+ I2C_IO_device = I2C(ADDRESS_IO)
+ I2C_IO_device.write_bytes(0x06, 0x2C)
+ I2C_IO_device.write_bytes(0x07, 00)
+ if state:
+ bits_to_set = 0x42
+ else:
+ bits_to_set = 0x40
+ I2C_IO_device.write_bytes(0x02, bits_to_set)
+
+
+if PWR_RST :
+ power(False)
+ sleep(1)
+ power(True)
+
+
+if INT_POWER_CYCLE :
+ print("Power OFF")
+ Write_byte_PLL(0x03, 0x88) # Device down
+ sleep(1)
+ print("Power ON")
+ Write_byte_PLL(0x03, 0x08) # Device up
+ print("Done")
+
+if RESET_PLL :
+ print("Reset PLL")
+ Write_byte_PLL(0x03, 0x0C) # Device reset
+ print("Enable PLL")
+ Write_byte_PLL(0x03, 0x08) # Device reset
+ sleep(0.1)
+ print("Done")
+
+if SET_PLL :
+ # Check PLL is in lock
+# Read_byte_PLL(0x00, nof_bytes = 23)
+
+# Write_byte_PLL(0x01, 0x00) # cp inv = 0xF4 other 0xE4
+# Write_byte_PLL(0x02, 0x04) # cp inv = 0xF4 other 0xE4
+# Write_byte_PLL(0x05, 0x97)
+# Write_byte_PLL(0x06, 0x10) # cp inv = 0xF4 other 0xE4
+# Write_byte_PLL(0x07, 0x04) # Divider R = 1 dec
+# Write_byte_PLL(0x08, 0x01)
+# Write_byte_PLL(0x07, 0x00)
+# Write_byte_PLL(0x09, 0x10) # Divider N = 20 dec
+# Write_byte_PLL(0x0A, 0x14)
+# Write_byte_PLL(0x09, 0x00)
+ Write_byte_PLL(0x0D, 0x02) # Dig CLK = 200/2 = 100 MHz
+# Write_byte_PLL(0x0C, 0x81) # Dig CLK delayed
+# Write_byte_PLL(0x0D, 0x01) # Dig CLK = 200/1 = 200 MHz
+# Write_byte_PLL(0x0F, 0x01) # RCU CLK = 200/1 = 200 MHz
+# Write_byte_PLL(0x11, 0x01) # PPS ref CLK = 200/1 = 200 MHz
+# Write_byte_PLL(0x13, 0x01) # T.P. CLK = 200/1 = 200 MHz
+
+
+if READ_LOCK:
+ ret_value = Read_byte_PLL(0x00, nof_bytes = 1)
+ status_pll = int(ret_value,2)
+ if status_pll == 0x04:
+ print("PLL in lock")
+ elif (status_pll & 0x10) > 0:
+ print("Not Locked --> No 10 MHz ref")
+ else:
+ print("Not locked --> PLL Error")
+
+if READ_ALL:
+ Read_byte_PLL(0x00, nof_bytes = 23)
+
+
+if UPDATE_PLL:
+ Write_byte_PLL(0x05, 0x97)