#
# lib jtag core init config script
#
# This script is built-in the jtag library and is executed at startup to apply
# the default variables values.
#
# You can put a "config.script" file in the JTAG boundaryscanner software's
# folder to change one or more of these variables if needed.
# Your "config.script" will be executed right after this script at startup.
# The syntax to use in your script is exactly the same.
#

# ----------------------------------------------------------------------------
# ----------------------------------------------------------------------------

# Log messages filter level
#
# 0 : Debug messages
# 1 : Info level 0 messages
# 2 : Info level 1 messages
# 3 : Warning level messages
# 4 : Error level messages
# 5 : No log / no message

set LOG_MESSAGES_FILTER_LEVEL 1

# Log file

#set LOG_MESSAGES_FILE_OUTPUT "logs_file.txt"

# ----------------------------------------------------------------------------
# ----------------------------------------------------------------------------

#
# Pins name sorter
#
# 0 To keep the bsdl pins order.
# 1 To sort the bsdl pins name.
#

set BSDL_LOADER_SORT_PINS_NAME 1

# ----------------------------------------------------------------------------
# ----------------------------------------------------------------------------

#
# This section expose the FTDI probes parameters
#

#
# Parameters to compute the FDTI FT2232D/H clock divisor.
# ( TCK clock = (12Mhz or 60Mhz)/ ((1 + ([ValueH << 8 | ValueL]))*2) )
#

# Internal clock : FT2232H -> 60 MHz, FT2232D -> 12MHz

set PROBE_FTDI_INTERNAL_FREQ_KHZ 60000

# Max TCK Clock

set PROBE_FTDI_TCK_FREQ_KHZ 1000

#
# To enable the RTCK / adaptative clock mode set the following
# variable to 1.
# Warning : Need a FDTI chip supporting this mode (FT2232H,...)
#

set PROBE_FTDI_JTAG_ENABLE_RTCK 0

#
# Probe internal mapping
#
# Olimex ARM-USB-OCD-H JTAG signals example
#
# VREF – voltage follower input for the output buffers adjust
# JTAG signals as per your target board voltage levels
#
# The TCK/TDI/TDO/TMS signals are fixed to these pins
# ADBUS0 -> TCK; (out)
# ADBUS1 -> TDI; (out)
# ADBUS2 -> TDO; (in)
# ADBUS3 -> TMS; (out)

# ADBUS4 -> 0 to enable JTAG buffers;  (GPIOL0) (out)
# ADBUS5 -> 0 if target present;       (GPIOL1) (in)
# ADBUS6 -> TSRST in;                  (GPIOL2) (in)
# ADBUS7 -> RTCK; (in)                 (GPIOL3) (in)
# ACBUS0 -> TRST;                      (GPIOH0)
# ACBUS1 -> SRST;                      (GPIOH1)
# ACBUS2 -> TRST buffer enable         (GPIOH2)
# ACBUS3 -> RED LED;                   (GPIOH3)

#
# Set the internal GPIO direction (0 -> input, 1 -> output)
#

set PROBE_FTDI_SET_PIN_DIR_ADBUS0             1 # TCK -> out
set PROBE_FTDI_SET_PIN_DIR_ADBUS1             1 # TDI -> out
set PROBE_FTDI_SET_PIN_DIR_ADBUS2             0 # TDO -> in
set PROBE_FTDI_SET_PIN_DIR_ADBUS3             1 # TMS -> out
set PROBE_FTDI_SET_PIN_DIR_ADBUS4             1 # Buffers enable -> out
set PROBE_FTDI_SET_PIN_DIR_ADBUS5             0 # Target presence : 0 if target present -> in
set PROBE_FTDI_SET_PIN_DIR_ADBUS6             0 # TSRST -> in
set PROBE_FTDI_SET_PIN_DIR_ADBUS7             0 # RTCK -> in

set PROBE_FTDI_SET_PIN_DIR_ACBUS0             1 # TRST -> out
set PROBE_FTDI_SET_PIN_DIR_ACBUS1             1 # SRST -> out
set PROBE_FTDI_SET_PIN_DIR_ACBUS2             1 # TRST buffer enable -> out
set PROBE_FTDI_SET_PIN_DIR_ACBUS3             1 # RED LED -> out

#
# Set the internal GPIOs output state
#

set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS0   0
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS1   0
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS2   0
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS3   1
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS4   0 # JTAG buffer enable (active low)
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS5   0
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS6   0
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ADBUS7   0

set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ACBUS0   0 # TRST
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ACBUS1   0 # SRST
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ACBUS2   0 # TRST buffer enable
set PROBE_FTDI_SET_PIN_DEFAULT_STATE_ACBUS3   0 # RED LED

#
# Set the internal GPIOs polarity
# 0 : Active High.
# 1 : Active Low.
#

set PROBE_FTDI_SET_PIN_POLARITY_ADBUS0        0
set PROBE_FTDI_SET_PIN_POLARITY_ADBUS1        0
set PROBE_FTDI_SET_PIN_POLARITY_ADBUS2        0
set PROBE_FTDI_SET_PIN_POLARITY_ADBUS3        0
set PROBE_FTDI_SET_PIN_POLARITY_ADBUS4        0
set PROBE_FTDI_SET_PIN_POLARITY_ADBUS5        0
set PROBE_FTDI_SET_PIN_POLARITY_ADBUS6        0
set PROBE_FTDI_SET_PIN_POLARITY_ADBUS7        0

set PROBE_FTDI_SET_PIN_POLARITY_ACBUS0        1 # TRST is active-low
set PROBE_FTDI_SET_PIN_POLARITY_ACBUS1        0
set PROBE_FTDI_SET_PIN_POLARITY_ACBUS2        0
set PROBE_FTDI_SET_PIN_POLARITY_ACBUS3        0

#
# Assign the TRST / SRST control pins
# 0<>7  : ADBUS
# 8<>11 : ACBUS
# Set to -1 when not available/used.
#

set PROBE_FTDI_SET_TRST_OE_PINNUM             10
set PROBE_FTDI_SET_TRST_STATE_PINNUM          8

set PROBE_FTDI_SET_SRST_OE_PINNUM             -1
set PROBE_FTDI_SET_SRST_STATE_PINNUM          -1

set PROBE_FTDI_SET_CONNECTION_LED_PINNUM      11

set PROBE_FTDI_JTAG_TRST_DELAY_MS             200

# ----------------------------------------------------------------------------
# ----------------------------------------------------------------------------

set PROBE_LINUXGPIO_ENABLE 0

set PROBE_LINUXGPIO_BASE_FOLDER "/sys/class/gpio"

set PROBE_LINUXGPIO_TMS_PIN 24
set PROBE_LINUXGPIO_TDI_PIN 25
set PROBE_LINUXGPIO_TDO_PIN 26
set PROBE_LINUXGPIO_TCK_PIN 27

set PROBE_LINUXGPIO_TMS_PIN_INVERT_POLARITY 0
set PROBE_LINUXGPIO_TDI_PIN_INVERT_POLARITY 0
set PROBE_LINUXGPIO_TDO_PIN_INVERT_POLARITY 0
set PROBE_LINUXGPIO_TCK_PIN_INVERT_POLARITY 0