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mirror of https://git.code.sf.net/p/openocd/code synced 2024-11-14 18:37:11 +00:00
openocd/tcl/target/qualcomm_qca4531.cfg
Antonio Borneo e6505b0489 tcl/target: add SPDX tag
For historical reasons, no license information was added to the
tcl files. This makes trivial adding the SPDX tag through script:
	fgrep -rL SPDX tcl/ target| while read a;do \
	sed -i '1{i# SPDX-License-Identifier: GPL-2.0-or-later\n
	}' $a;done

With no specific license information from the author, let's extend
the OpenOCD project license GPL-2.0-or-later to the files.

Change-Id: I7b2610300b24cccd07bfa6fb5f1266970d5d3a1b
Signed-off-by: Antonio Borneo <borneo.antonio@gmail.com>
Reviewed-on: https://review.openocd.org/c/openocd/+/7027
Tested-by: jenkins
2022-06-24 21:53:35 +00:00

157 lines
4.1 KiB
INI

# SPDX-License-Identifier: GPL-2.0-or-later
# The QCA4531 is a two stream (2x2) 802.11b/g/n single-band programmable
# Wi-Fi System-on-Chip (SoC) for the Internet of Things (IoT).
#
# Product page:
# https://www.qualcomm.com/products/qca4531
#
# Notes:
# - MIPS Processor ID (PRId): 0x00019374
# - 24Kc MIPS processor with 64 KB I-Cache and 32 KB D-Cache,
# operating at up to 650 MHz
# - External 16-bit DDR1, operating at up to 200 MHz, DDR2 operating at up
# to 300 MHz
# - TRST is not available.
# - EJTAG PrRst signal is not supported
# - RESET_L pin B56 on the SoC will reset internal JTAG logic.
#
# Pins related for debug and bootstrap:
# Name Pin Description
# JTAG
# JTAG_TCK GPIO0, (A27) Software configurable, default JTAG
# JTAG_TDI GPIO1, (B23) Software configurable, default JTAG
# JTAG_TDO GPIO2, (A28) Software configurable, default JTAG
# JTAG_TMS GPIO3, (A29) Software configurable, default JTAG
# Reset
# RESET_L -, (B56) Input only
# SYS_RST_L GPIO17, (A79) Output reset request or GPIO
# Bootstrap
# JTAG_MODE GPIO16, (A78) 0 - JTAG (Default); 1 - EJTAG
# DDR_SELECT GPIO10, (A57) 0 - DDR2; 1 - DDR1
# UART
# UART0_SOUT GPIO10, (A57)
# UART0_SIN GPIO9, (B49)
# Per default we need to use "none" variant to be able properly "reset init"
# or "reset halt" the CPU.
reset_config none srst_pulls_trst
# For SRST based variant we still need proper timings.
# For ETH part the reset should be asserted at least for 10ms
# Since there is no other information let's take 100ms to be sure.
adapter srst pulse_width 100
# according to the SoC documentation it should take at least 5ms from
# reset end till bootstrap end. In the practice we need 8ms to get JTAG back
# to live.
adapter srst delay 8
if { [info exists CHIPNAME] } {
set _CHIPNAME $_CHIPNAME
} else {
set _CHIPNAME qca4531
}
jtag newtap $_CHIPNAME cpu -irlen 5 -expected-id 0x00000001
set _TARGETNAME $_CHIPNAME.cpu
target create $_TARGETNAME mips_m4k -endian big -chain-position $_TARGETNAME
# provide watchdog helper.
proc disable_watchdog { } {
mww 0xb8060008 0x0
}
$_TARGETNAME configure -event halted { disable_watchdog }
# Since PrRst is not supported and SRST will reset complete chip
# with JTAG engine, we need to reset CPU from CPU itself.
$_TARGETNAME configure -event reset-assert-pre {
halt
}
$_TARGETNAME configure -event reset-assert {
catch "mww 0xb806001C 0x01000000"
}
# To be able to trigger complete chip reset, in case JTAG is blocked
# or CPU not responding, we still can use this helper.
proc full_reset { } {
reset_config srst_only
reset
halt
reset_config none
}
# Section with helpers which can be used by boards
proc qca4531_ddr2_550_550_init {} {
# Clear reset flags for different SoC components
mww 0xb806001c 0xfeceffff
mww 0xb806001c 0xeeceffff
mww 0xb806001c 0xe6ceffff
# PMU configurations
# Internal Switcher
mww 0xb8116c40 0x633c8176
# Increase the DDR voltage
mww 0xb8116c44 0x10200000
# XTAL Configurations
mww 0xb81162c0 0x4b962100
mww 0xb81162c4 0x480
mww 0xb81162c8 0x04000144
# Recommended PLL configurations
mww 0xb81161c4 0x54086000
mww 0xb8116244 0x54086000
# PLL init
mww 0xb8050008 0x0131001c
mww 0xb8050000 0x40001580
mww 0xb8050004 0x40015800
mww 0xb8050008 0x0131001c
mww 0xb8050000 0x00001580
mww 0xb8050004 0x00015800
mww 0xb8050008 0x01310000
mww 0xb8050044 0x781003ff
mww 0xb8050048 0x003c103f
# DDR2 init
mww 0xb8000108 0x401f0042
mww 0xb80000b8 0x0000166d
mww 0xb8000000 0xcfaaf33b
mww 0xb800015c 0x0000000f
mww 0xb8000004 0xa272efa8
mww 0xb8000018 0x0000ffff
mww 0xb80000c4 0x74444444
mww 0xb80000c8 0x00000444
mww 0xb8000004 0xa210ee28
mww 0xb8000004 0xa2b2e1a8
mww 0xb8000010 0x8
mww 0xb80000bc 0x0
mww 0xb8000010 0x10
mww 0xb80000c0 0x0
mww 0xb8000010 0x40
mww 0xb800000c 0x2
mww 0xb8000010 0x2
mww 0xb8000008 0xb43
mww 0xb8000010 0x1
mww 0xb8000010 0x8
mww 0xb8000010 0x4
mww 0xb8000010 0x4
mww 0xb8000008 0xa43
mww 0xb8000010 0x1
mww 0xb800000c 0x382
mww 0xb8000010 0x2
mww 0xb800000c 0x402
mww 0xb8000010 0x2
mww 0xb8000014 0x40be
mww 0xb800001C 0x20
mww 0xb8000020 0x20
mww 0xb80000cc 0xfffff
# UART GPIO programming
mww 0xb8040000 0xff30b
mww 0xb8040044 0x908
mww 0xb8040034 0x160000
}