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45 Commits
kart ... master

Author SHA1 Message Date
Christian Kroll 4642f779f9 uart_commands.c: added joytick test 2014-10-06 23:49:08 +02:00
Christian Kroll c9ffc868dc borg_gw_borg16.c: trigger watchdog 134 times per sec. (instead of 6465) 2014-10-06 19:48:15 +02:00
Christian Kroll fa3c01d0c2 borg_hw_borg16.c: some uncluttering 2014-10-06 00:14:30 +02:00
Christian Kroll 47d9b5e548 borg_hw_borg16.c: slightly higher contrast for Borg16 (optional) 2014-10-05 04:37:55 +02:00
Christian Kroll 850e92f766 uart_commands.c etc.: added test command for matrix overhaul 2014-10-05 04:06:01 +02:00
Christian Kroll edda250312 uart_commands.c: removed stray character 2014-10-02 01:31:20 +02:00
Christian Kroll 496f6a9ced uart_commands.c: allow for complete line removal via Ctrl-U 2014-09-28 05:13:25 +02:00
Christian Kroll 45ba07b9d7 uart_commands.c: fixed UART1 ouput, added line reprint via Ctrl-L 2014-09-28 04:27:05 +02:00
Christian Kroll 877bebd41a uart.c: save resources if UART1 isn't used 2014-09-28 00:45:04 +02:00
Christian Kroll 43f4fc9b2c uart_commands.c: typo in error message corrected 2014-09-26 03:28:51 +02:00
Christian Kroll 656ec1c5c3 uart_commands.c: nicer backspace 2014-09-26 00:53:09 +02:00
Christian Kroll 1e99121751 uart_commands.c: sanitizing input even more 2014-09-26 00:14:38 +02:00
Christian Kroll ecec6bae36 uart_commands.c: small cleanups 2014-09-24 02:46:29 +02:00
Christian Kroll f48994b222 uart_commands.c: no more text inception 2014-09-16 23:34:53 +02:00
Christian Kroll 0d69c2d209 added UART support for the LoL Shield (except for Arduino Leonardo) 2014-09-14 18:37:50 +02:00
Christian Kroll 469ac61fa5 Merge remote-tracking branch 'origin/openbsd_port' 2014-09-08 01:45:03 +02:00
Christian Kroll 5ca1b807f4 provide Snake POV control option in Menuconfig 2014-09-08 00:35:12 +02:00
Christian Kroll bf6b2d95dd tetris/input.c: taking more countermeasures against joystick chatter 2014-09-07 23:46:51 +02:00
Christian Kroll d5d58f8c0d add eeprom_busy_wait() to some routines; better safe than sorry 2014-09-07 21:32:49 +02:00
Christian Kroll 7d0022a22d persistentCounter.c etc.: made the persistent counter more versatile, it
is not limited to hard reset counts anymore
2014-09-07 21:06:25 +02:00
Christian Kroll 967ab9a05e snake_game.c: resolved bug where the head gets bitten by itself 2014-09-04 02:15:30 +02:00
Christian Kroll 126c1d0c44 invader_init.c: better playability of level 4 2014-09-04 02:14:13 +02:00
Christian Kroll 09d7d80674 uart_commands.c: improved UART error handling 2014-08-31 23:31:42 +02:00
Christian Kroll 82c44aec65 uart_commands: no text messages during games 2014-08-31 22:45:33 +02:00
Christian Kroll 937d9da592 uart_commands.c etc.: added mode change command 2014-08-28 03:07:37 +02:00
Christian Kroll 09ce8f22b3 display_loop.c, uart_commands.c: more reliable "prev" command 2014-08-27 05:08:39 +02:00
Christian Kroll b9471a6637 uart_commands.c: Backspace/Delete capability 2014-08-27 04:26:30 +02:00
Christian Kroll cc060261d4 scrolltext3.c: small optimization 2014-08-27 00:08:37 +02:00
Christian Kroll 5ad9905dee fancier CTDO scrolltext 2014-08-24 12:45:34 +02:00
Christian Kroll bec7a9edff uart_commands.(ch): small refinements, added "erase" command for EEPROM 2014-08-19 11:01:52 +02:00
Christian Kroll 7937f86137 disable mode change during games 2014-08-17 00:03:54 +02:00
Christian Kroll 6c1b652d46 Amphibian instead of Labor logo in the CTDO profile 2014-08-16 07:56:20 +02:00
Christian Kroll a53a78ea3b oops 2014-08-16 07:27:19 +02:00
Christian Kroll fca9b8f07a UART support for Borg16; using Peter Fleury's UART library 2014-08-16 07:01:07 +02:00
Christian Kroll c6fde40211 kart.c: removed warning 2014-08-16 06:57:34 +02:00
Stefan Kinzel 6057b6e3e8 DNA: corrected uint8_t-error 2014-08-15 00:47:24 +02:00
Stefan Kinzel 95bd1ba238 some more bugfixes for the DNA-animation 2014-08-15 00:30:46 +02:00
Stefan Kinzel b435b52217 some bugfixes for the DNA-animation 2014-08-14 23:46:45 +02:00
Christian Kroll 306ad40288 moved dna anim within display loop 2014-08-14 22:45:34 +02:00
Stefan Kinzel da9d0adc57 first version of the DNA-Animation 2014-08-14 22:35:03 +02:00
Christian Kroll 1dff4f3885 fpmath_patterns.c: fixed some bugs which made the higher precision mode
unusable; animations look slightly different, now
2014-08-10 06:29:01 +02:00
Christian Kroll 3a5052900d tetris view.c: fixed counter offset of oversize displays 2014-07-16 00:10:58 +02:00
Christian Kroll 2919187ae1 OpenBSD support (only amd64 verfified) 2014-07-13 07:22:05 +02:00
Christian Kroll b8c997e9d3 removed obsolete comment 2014-06-20 08:20:31 +02:00
Christian Kroll f4d9d55626 saved between 424 and 478 bytes in the LoL Shield driver, replaced bit
shifting with conditional branches in the framebuffer conversion routine
2014-06-20 08:03:08 +02:00
43 changed files with 2998 additions and 892 deletions

View File

@ -6,19 +6,23 @@ comment "General Setup"
#bool 'Prompt for experimental code' CONFIG_EXPERIMENTAL #bool 'Prompt for experimental code' CONFIG_EXPERIMENTAL
choice 'Target MCU' \ choice 'Target MCU' \
"ATmega8 atmega8 \ "ATmega8 atmega8 \
ATmega16 atmega16 \ ATmega16 atmega16 \
ATmega168 atmega168 \ ATmega164 atmega164 \
ATmega168P atmega168p \ ATmega164P atmega164p \
ATmega168 atmega168 \
ATmega168P atmega168p \
ATmega32 atmega32 \ ATmega32 atmega32 \
ATmega324 atmega324 \
ATmega324P atmega324p \
ATmega32U4 atmega32u4 \ ATmega32U4 atmega32u4 \
ATmega328 atmega328 \ ATmega328 atmega328 \
ATmega328p atmega328p \ ATmega328P atmega328p \
ATmega644 atmega644 \ ATmega644 atmega644 \
ATmega644p atmega644p \ ATmega644P atmega644p \
ATmega1280 atmega1280 \ ATmega1280 atmega1280 \
ATmega1284 atmega1284 \ ATmega1284 atmega1284 \
ATmega1284p atmega1284p \ ATmega1284P atmega1284p \
ATmega2560 atmega2560 \ ATmega2560 atmega2560 \
ATmega8515 atmega8515" \ ATmega8515 atmega8515" \
'ATmega32' MCU 'ATmega32' MCU
@ -62,9 +66,13 @@ source src/can/config.in
############################################################################### ###############################################################################
### UART Menu #################################################################
source src/uart/config.in
###############################################################################
### Borg Menu ################################################################# ### Borg Menu #################################################################
dep_bool "Menu Support" MENU_SUPPORT $JOYSTICK_SUPPORT dep_bool "Menu Support" MENU_SUPPORT $JOYSTICK_SUPPORT
depends on JOYSTICK_SUPPORT
############################################################################### ###############################################################################

View File

@ -36,69 +36,85 @@ OSTYPE = $(shell uname)
MACHINE = $(shell uname -m) MACHINE = $(shell uname -m)
ifeq ($(findstring CYGWIN,$(OSTYPE)),CYGWIN) ifeq ($(findstring CYGWIN,$(OSTYPE)),CYGWIN)
CFLAGS_SIM = -g -Wall -pedantic -std=c99 -O0 -D_WIN32 -D_XOPEN_SOURCE=600 CFLAGS_SIM = -g -Wall -pedantic -std=c99 -O0 -D_WIN32 -D_XOPEN_SOURCE=600
ifeq ($(MACHINE),x86_64) ifeq ($(MACHINE),x86_64)
LDFLAGS_SIM = -T ld_scripts/i386pep.x LDFLAGS_SIM = -T ld_scripts/i386pep.x
else else
ifeq ($(MACHINE),i686) ifeq ($(MACHINE),i686)
LDFLAGS_SIM = -T ld_scripts/i386pe.x LDFLAGS_SIM = -T ld_scripts/i386pe.x
else else
$(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n)) $(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n))
endif endif
endif endif
LIBS_SIM = -lgdi32 -lwinmm -lm LIBS_SIM = -lgdi32 -lwinmm -lm
else else
ifeq ($(OSTYPE),FreeBSD) ifeq ($(OSTYPE),FreeBSD)
CFLAGS_SIM = -g -I/usr/local/include -Wall -pedantic -std=c99 -O0 CFLAGS_SIM = -g -I/usr/local/include -Wall -pedantic -std=c99 -O0
CFLAGS_SIM += -D_XOPEN_SOURCE=600 CFLAGS_SIM += -D_XOPEN_SOURCE=600
ifeq ($(MACHINE),amd64) ifeq ($(MACHINE),amd64)
LDFLAGS_SIM = -L/usr/local/lib -T ld_scripts/elf_x86_64_fbsd.x LDFLAGS_SIM = -L/usr/local/lib -T ld_scripts/elf_x86_64_fbsd.x
else else
ifeq ($(MACHINE),i386) ifeq ($(MACHINE),i386)
LDFLAGS_SIM = -L/usr/local/lib -T ld_scripts/elf_i386_fbsd.x LDFLAGS_SIM = -L/usr/local/lib -T ld_scripts/elf_i386_fbsd.x
else else
$(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n)) $(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n))
endif endif
endif endif
LIBS_SIM = -lglut -lpthread -lGL -lGLU -lm LIBS_SIM = -lglut -lpthread -lGL -lGLU -lm
else else
ifeq ($(OSTYPE),NetBSD) ifeq ($(OSTYPE),NetBSD)
CFLAGS_SIM = -g -I /usr/pkg/include -I/usr/X11R7/include -Wall -pedantic -std=c99 -O0 CFLAGS_SIM = -g -I /usr/pkg/include -I/usr/X11R7/include -Wall -pedantic -std=c99 -O0
CFLAGS_SIM += -D_XOPEN_SOURCE=600 CFLAGS_SIM += -D_XOPEN_SOURCE=600
ifeq ($(MACHINE),amd64) ifeq ($(MACHINE),amd64)
LDFLAGS_SIM = -L/usr/pkg/lib -L/usr/X11R7/lib -T ld_scripts/elf_x86_64_nbsd.x -Wl,-R/usr/pkg/lib,-R/usr/X11R7/lib LDFLAGS_SIM = -L/usr/pkg/lib -L/usr/X11R7/lib -T ld_scripts/elf_x86_64_nbsd.x -Wl,-R/usr/pkg/lib,-R/usr/X11R7/lib
else else
ifeq ($(MACHINE),i386) ifeq ($(MACHINE),i386)
LDFLAGS_SIM = -L/usr/pkg/lib -L/usr/X11R7/lib -T ld_scripts/elf_i386_nbsd.x -Wl,-R/usr/pkg/lib,-R/usr/X11R7/lib LDFLAGS_SIM = -L/usr/pkg/lib -L/usr/X11R7/lib -T ld_scripts/elf_i386_nbsd.x -Wl,-R/usr/pkg/lib,-R/usr/X11R7/lib
else else
$(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n)) $(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n))
endif endif
endif endif
LIBS_SIM = -lglut -lpthread -lGL -lGLU -lm LIBS_SIM = -lglut -lpthread -lGL -lGLU -lm
else else
ifeq ($(OSTYPE),Linux) ifeq ($(OSTYPE),OpenBSD)
CFLAGS_SIM = -g -Wall -pedantic -std=c99 -O0 -D_XOPEN_SOURCE=600 CFLAGS_SIM = -g -I/usr/local/include -I/usr/X11R6/include -Wall -pedantic -std=c99 -O0
ifeq ($(MACHINE),x86_64) CFLAGS_SIM += -D_XOPEN_SOURCE=600
LDFLAGS_SIM = -T ld_scripts/elf_x86_64.x ifeq ($(MACHINE),amd64)
else LDFLAGS_SIM = -L/usr/local/lib -L/usr/X11R6/lib -T ld_scripts/elf_x86_64_obsd.xd
ifeq ($(MACHINE),i686) else
LDFLAGS_SIM = -T ld_scripts/elf_i386.x ifeq ($(MACHINE),i386)
else LDFLAGS_SIM = -L/usr/local/lib -L/usr/X11R6/lib -T ld_scripts/elf_i386_obsd.xd
$(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n)) else
endif $(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n))
endif endif
LIBS_SIM = -lglut -lpthread -lGL -lGLU -lm endif
else LIBS_SIM = -lglut -lpthread -lGL -lGLU -lm
($(warning $(n)$(n)Simulator build is not supported on your system.$(n)$(n)\ else
ifeq ($(OSTYPE),Linux)
CFLAGS_SIM = -g -Wall -pedantic -std=c99 -O0 -D_XOPEN_SOURCE=600
ifeq ($(MACHINE),x86_64)
LDFLAGS_SIM = -T ld_scripts/elf_x86_64.x
else
ifeq ($(MACHINE),i686)
LDFLAGS_SIM = -T ld_scripts/elf_i386.x
else
$(warning $(n)$(n)Simulator build is only supported on i386 and amd64.$(n)$(n))
endif
endif
LIBS_SIM = -lglut -lpthread -lGL -lGLU -lm
else
($(warning $(n)$(n)Simulator build is not supported on your system.$(n)$(n)\
Currently supported platforms:$(n) \ Currently supported platforms:$(n) \
Linux on i386 and amd64$(n) \ Linux on i386 and amd64$(n) \
FreeBSD on i386 and amd64$(n) \ FreeBSD on i386 and amd64$(n) \
NetBSD on i386 and amd64$(n) \ NetBSD on i386 and amd64$(n) \
Windows (via Cygwin) on i386 and amd64) Windows (via Cygwin) on i386 and amd64)
endif endif
endif endif
endif endif
endif
endif endif
############################################################################## ##############################################################################
# the default target # the default target
$(TARGET): $(TARGET):
@ -106,7 +122,7 @@ $(TARGET):
############################################################################## ##############################################################################
# include user's config.mk file # include user's config.mk file
$(MAKETOPDIR)/config.mk: $(MAKETOPDIR)/config.mk:
@echo "# Customize your config here!" >$@ @echo "# Customize your config here!" >$@
@echo "# Add further CFLAGS by using the += operator, eg." >>$@ @echo "# Add further CFLAGS by using the += operator, eg." >>$@
@echo "# CFLAGS += -mstrict-X" >>$@ @echo "# CFLAGS += -mstrict-X" >>$@
@ -116,38 +132,35 @@ $(MAKETOPDIR)/config.mk:
@echo "#" >>$@ @echo "#" >>$@
@echo "# Other flags you might want to tune: CPPFLAGS, LDFLAGS ..." >>$@ @echo "# Other flags you might want to tune: CPPFLAGS, LDFLAGS ..." >>$@
@echo "Created default config.mk, tune your settings there!" @echo "Created default config.mk, tune your settings there!"
-include $(MAKETOPDIR)/config.mk
-include $(MAKETOPDIR)/config.mk
############################################################################## ##############################################################################
# configure load address for bootloader, if enabled # configure load address for bootloader, if enabled
# #
ifneq ($(MAKECMDGOALS),clean) ifneq ($(MAKECMDGOALS),clean)
ifneq ($(MAKECMDGOALS),mrproper) ifneq ($(MAKECMDGOALS),mrproper)
ifneq ($(MAKECMDGOALS),menuconfig) ifneq ($(MAKECMDGOALS),menuconfig)
include $(MAKETOPDIR)/.config
CPPFLAGS += -DF_CPU=$(FREQ)UL -mmcu=$(MCU)
include $(MAKETOPDIR)/.config # flags for the linker, choose appropriate linker script
ifeq ($(findstring atmega256,$(MCU)),atmega256)
CPPFLAGS += -DF_CPU=$(FREQ)UL -mmcu=$(MCU) LDFLAGS += -T ld_scripts/avr6.x -Wl,-Map,image.map -mmcu=$(MCU)
else
# flags for the linker, choose appropriate linker script ifeq ($(findstring atmega128,$(MCU)),atmega128)
ifeq ($(findstring atmega256,$(MCU)),atmega256) LDFLAGS += -T ld_scripts/avr51.x -Wl,-Map,image.map -mmcu=$(MCU)
LDFLAGS += -T ld_scripts/avr6.x -Wl,-Map,image.map -mmcu=$(MCU) else
else LDFLAGS += -T ld_scripts/avr5.x -Wl,-Map,image.map -mmcu=$(MCU)
ifeq ($(findstring atmega128,$(MCU)),atmega128) endif
LDFLAGS += -T ld_scripts/avr51.x -Wl,-Map,image.map -mmcu=$(MCU) endif
else endif # MAKECMDGOALS!=menuconfig
LDFLAGS += -T ld_scripts/avr5.x -Wl,-Map,image.map -mmcu=$(MCU) endif # MAKECMDGOALS!=mrproper
endif
endif
endif # MAKECMDGOALS!=menuconfig
endif # MAKECMDGOALS!=mrproper
endif # MAKECMDGOALS!=clean endif # MAKECMDGOALS!=clean
ifeq ($(BOOTLOADER_SUPPORT),y) ifeq ($(BOOTLOADER_SUPPORT),y)
LDFLAGS += -Wl,--section-start=.text=0xE000 LDFLAGS += -Wl,--section-start=.text=0xE000
CFLAGS += -mcall-prologues CFLAGS += -mcall-prologues
endif endif

193
ld_scripts/elf_i386_obsd.xd Normal file
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@ -0,0 +1,193 @@
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OUTPUT_FORMAT("elf32-i386", "elf32-i386",
"elf32-i386")
OUTPUT_ARCH(i386)
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SEARCH_DIR("/usr/lib");
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/DISCARD/ : { *(.note.GNU-stack) }
}

View File

@ -0,0 +1,193 @@
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}

164
profiles/CTDO-Borg Normal file
View File

@ -0,0 +1,164 @@
#
# Automatically generated by make menuconfig: don't edit
#
#
# General Setup
#
MCU=atmega644
FREQ=16000000
#
# Borg Hardware
#
NUM_ROWS=16
NUM_COLS=16
NUMPLANE=3
BORG_HW=HW_BORG_16
#
# Borg16 port setup
#
HIGH_CONTRAST=y
UART_SUPPORT=y
UART_BAUDRATE_SETTING=19200
COLPORT1=PORTC
COLPORT2=PORTA
ROWPORT=PORTD
PIN_MCLR=4
PIN_CLK=6
PIN_DATA=7
# REVERSE_COLS is not set
# INVERT_ROWS is not set
# INTERLACED_ROWS is not set
# INTERLACED_COLS is not set
#
# Features
#
RANDOM_SUPPORT=y
# LAP_TIME_EXTENSION is not set
SCROLLTEXT_SUPPORT=y
SCROLLTEXT_FONT=FONT_ARIAL8
SCROLLTEXT_BUFFER_SIZE=128
SCROLL_X_SPEED=20
SCROLL_Y_SPEED=20
SCROLLTEXT_TEXT="d/#C#</#T#u/#D#>/#O#p2# #</#www.chaostreff-dortmund.de"
# RFM12_SUPPORT is not set
#
# Joystick Support
#
JOYSTICK_SUPPORT=y
JOYSTICK_CHOICE=JOY_PARALLEL
#
# Joystick Settings
#
PARALLEL_JOYSTICK_SUPPORT=y
JOYSTICK_PIN_UP=PINB
JOYSTICK_BIT_UP=0
JOYSTICK_PIN_DOWN=PINB
JOYSTICK_BIT_DOWN=1
JOYSTICK_PIN_LEFT=PINB
JOYSTICK_BIT_LEFT=2
JOYSTICK_PIN_RIGHT=PINB
JOYSTICK_BIT_RIGHT=3
JOYSTICK_PIN_FIRE=PIND
JOYSTICK_BIT_FIRE=3
CAN_SUPPORT=y
# SPI_HARDWARE is not set
SPI_PORTIDX=1
SPI_PIN_MOSI=5
SPI_PIN_MISO=6
SPI_PIN_SCK=7
SPI_PIN_SS=4
# CAN_INTERRUPT is not set
SPI_REG_PIN_MCP_INT=PIND
SPI_PIN_MCP_INT=2
MENU_SUPPORT=y
#
# Games
#
GAME_TETRIS_CORE=y
GAME_TETRIS=y
GAME_BASTET=y
GAME_TETRIS_FP=y
GAME_SPACE_INVADERS=y
GAME_SNAKE=y
# SNAKE_POV_CONTROL is not set
SNAKE_GAME_DELAY=200
GAME_BREAKOUT=y
GAME_KART=y
#
# Animations
#
ANIMATION_SCROLLTEXT=y
ANIMATION_SPIRAL=y
SPIRAL_DELAY=5
ANIMATION_JOERN1=y
ANIMATION_SNAKE=y
SNAKE_ANIM_DELAY=100
SNAKE_TERMINATION_DELAY=60
SNAKE_MAX_LENGTH=64
SNAKE_MAX_APPLES=10
ANIMATION_CHECKERBOARD=y
ANIMATION_FIRE=y
FIRE_S=30
FIRE_N=5
FIRE_DIV=44
FIRE_DELAY=50
FIRE_CYCLES=800
ANIMATION_MATRIX=y
MATRIX_STREAMER_NUM=30
MATRIX_CYCLES=500
MATRIX_DELAY=60
ANIMATION_RANDOM_BRIGHT=y
ANIMATION_STONEFLY=y
ANIMATION_FLYINGDOTS=y
ANIMATION_GAMEOFLIFE=y
GOL_DELAY=100
GOL_CYCLES=360
ANIMATION_BREAKOUT=y
# ANIMATION_MHERWEG is not set
ANIMATION_MOIRE=y
ANIMATION_LTN_ANT=y
# ANIMATION_TIME is not set
TIME_MASTER_ADDR=0x00
TIME_UPDATE_TIMEOUT=23
ANIMATION_BMSCROLLER=y
# ANIMATION_LABORLOGO is not set
ANIMATION_AMPHIBIAN=y
# ANIMATION_LOGO_OOS is not set
ANIMATION_FAIRYDUST=y
#
# Fixed-point math patterns
#
ANIMATION_PLASMA=y
FP_PLASMA_DELAY=1
ANIMATION_PSYCHEDELIC=y
FP_PSYCHO_DELAY=15
ANIMATION_BLACKHOLE=y
ANIMATION_DNA=y
ANIMATION_SQUARES=y
ANIMATION_TESTS=y
ANIMATION_OFF=y
#
# small Animations
#
# SMALLANIMATION_ROWWALK is not set
SMALLANIMATION_ROWWALK_SPEED=50
SMALLANIMATION_ROWWALK_COUNT=10
# SMALLANIMATION_COLWALK is not set
SMALLANIMATION_COLWALK_SPEED=50
SMALLANIMATION_COLWALK_COUNT=10
# SMALLANIMATION_ROWBOUNCE is not set
SMALLANIMATION_ROWBOUNCE_SPEED=50
SMALLANIMATION_ROWBOUNCE_COUNT=10
# SMALLANIMATION_COLBOUNCE is not set
SMALLANIMATION_COLBOUNCE_SPEED=50
SMALLANIMATION_COLBOUNCE_COUNT=10

View File

@ -20,8 +20,11 @@ BORG_HW=HW_LOLSHIELD
# lolshield setup # lolshield setup
# #
USER_TIMER0_FOR_WAIT=1 USER_TIMER0_FOR_WAIT=1
BRIGHTNESS=127 LOLSHIELD=y
BRIGHTNESS=120
FRAMERATE=80 FRAMERATE=80
# UART_SUPPORT is not set
UART_BAUDRATE_SETTING=19200
# #
# Features # Features
@ -54,7 +57,10 @@ GAME_TETRIS=y
# GAME_TETRIS_FP is not set # GAME_TETRIS_FP is not set
# GAME_SPACE_INVADERS is not set # GAME_SPACE_INVADERS is not set
GAME_SNAKE=y GAME_SNAKE=y
# SNAKE_POV_CONTROL is not set
SNAKE_GAME_DELAY=200
GAME_BREAKOUT=y GAME_BREAKOUT=y
# GAME_KART is not set
# #
# Animations # Animations
@ -64,7 +70,6 @@ ANIMATION_SPIRAL=y
SPIRAL_DELAY=5 SPIRAL_DELAY=5
ANIMATION_JOERN1=y ANIMATION_JOERN1=y
ANIMATION_SNAKE=y ANIMATION_SNAKE=y
SNAKE_GAME_DELAY=200
SNAKE_ANIM_DELAY=100 SNAKE_ANIM_DELAY=100
SNAKE_TERMINATION_DELAY=60 SNAKE_TERMINATION_DELAY=60
SNAKE_MAX_LENGTH=64 SNAKE_MAX_LENGTH=64
@ -107,6 +112,7 @@ FP_PLASMA_DELAY=10
ANIMATION_PSYCHEDELIC=y ANIMATION_PSYCHEDELIC=y
FP_PSYCHO_DELAY=25 FP_PSYCHO_DELAY=25
# ANIMATION_BLACKHOLE is not set # ANIMATION_BLACKHOLE is not set
# ANIMATION_DNA is not set
ANIMATION_SQUARES=y ANIMATION_SQUARES=y
# ANIMATION_TESTS is not set # ANIMATION_TESTS is not set
# ANIMATION_OFF is not set # ANIMATION_OFF is not set

View File

@ -20,8 +20,11 @@ BORG_HW=HW_LOLSHIELD
# lolshield setup # lolshield setup
# #
USER_TIMER0_FOR_WAIT=1 USER_TIMER0_FOR_WAIT=1
BRIGHTNESS=127 LOLSHIELD=y
BRIGHTNESS=120
FRAMERATE=80 FRAMERATE=80
# UART_SUPPORT is not set
UART_BAUDRATE_SETTING=19200
# #
# Features # Features
@ -54,7 +57,10 @@ GAME_BASTET=y
# GAME_TETRIS_FP is not set # GAME_TETRIS_FP is not set
GAME_SPACE_INVADERS=y GAME_SPACE_INVADERS=y
GAME_SNAKE=y GAME_SNAKE=y
# SNAKE_POV_CONTROL is not set
SNAKE_GAME_DELAY=200
GAME_BREAKOUT=y GAME_BREAKOUT=y
# GAME_KART is not set
# #
# Animations # Animations
@ -64,7 +70,6 @@ ANIMATION_SPIRAL=y
SPIRAL_DELAY=5 SPIRAL_DELAY=5
ANIMATION_JOERN1=y ANIMATION_JOERN1=y
ANIMATION_SNAKE=y ANIMATION_SNAKE=y
SNAKE_GAME_DELAY=200
SNAKE_ANIM_DELAY=100 SNAKE_ANIM_DELAY=100
SNAKE_TERMINATION_DELAY=60 SNAKE_TERMINATION_DELAY=60
SNAKE_MAX_LENGTH=64 SNAKE_MAX_LENGTH=64
@ -107,6 +112,7 @@ FP_PLASMA_DELAY=10
ANIMATION_PSYCHEDELIC=y ANIMATION_PSYCHEDELIC=y
FP_PSYCHO_DELAY=25 FP_PSYCHO_DELAY=25
ANIMATION_BLACKHOLE=y ANIMATION_BLACKHOLE=y
# ANIMATION_DNA is not set
ANIMATION_SQUARES=y ANIMATION_SQUARES=y
ANIMATION_TESTS=y ANIMATION_TESTS=y
ANIMATION_OFF=y ANIMATION_OFF=y

View File

@ -20,8 +20,11 @@ BORG_HW=HW_LOLSHIELD
# lolshield setup # lolshield setup
# #
USER_TIMER0_FOR_WAIT=1 USER_TIMER0_FOR_WAIT=1
BRIGHTNESS=127 LOLSHIELD=y
BRIGHTNESS=120
FRAMERATE=80 FRAMERATE=80
# UART_SUPPORT is not set
UART_BAUDRATE_SETTING=19200
# #
# Features # Features
@ -54,7 +57,10 @@ GAME_BASTET=y
# GAME_TETRIS_FP is not set # GAME_TETRIS_FP is not set
GAME_SPACE_INVADERS=y GAME_SPACE_INVADERS=y
GAME_SNAKE=y GAME_SNAKE=y
# SNAKE_POV_CONTROL is not set
SNAKE_GAME_DELAY=200
GAME_BREAKOUT=y GAME_BREAKOUT=y
# GAME_KART is not set
# #
# Animations # Animations
@ -64,7 +70,6 @@ ANIMATION_SPIRAL=y
SPIRAL_DELAY=5 SPIRAL_DELAY=5
ANIMATION_JOERN1=y ANIMATION_JOERN1=y
ANIMATION_SNAKE=y ANIMATION_SNAKE=y
SNAKE_GAME_DELAY=200
SNAKE_ANIM_DELAY=100 SNAKE_ANIM_DELAY=100
SNAKE_TERMINATION_DELAY=60 SNAKE_TERMINATION_DELAY=60
SNAKE_MAX_LENGTH=64 SNAKE_MAX_LENGTH=64
@ -107,6 +112,7 @@ FP_PLASMA_DELAY=10
ANIMATION_PSYCHEDELIC=y ANIMATION_PSYCHEDELIC=y
FP_PSYCHO_DELAY=25 FP_PSYCHO_DELAY=25
ANIMATION_BLACKHOLE=y ANIMATION_BLACKHOLE=y
# ANIMATION_DNA is not set
ANIMATION_SQUARES=y ANIMATION_SQUARES=y
ANIMATION_TESTS=y ANIMATION_TESTS=y
ANIMATION_OFF=y ANIMATION_OFF=y

View File

@ -20,8 +20,11 @@ BORG_HW=HW_LOLSHIELD
# lolshield setup # lolshield setup
# #
USER_TIMER0_FOR_WAIT=1 USER_TIMER0_FOR_WAIT=1
BRIGHTNESS=127 LOLSHIELD=y
BRIGHTNESS=120
FRAMERATE=80 FRAMERATE=80
# UART_SUPPORT is not set
UART_BAUDRATE_SETTING=19200
# #
# Features # Features
@ -54,7 +57,10 @@ GAME_TETRIS=y
# GAME_TETRIS_FP is not set # GAME_TETRIS_FP is not set
# GAME_SPACE_INVADERS is not set # GAME_SPACE_INVADERS is not set
GAME_SNAKE=y GAME_SNAKE=y
# SNAKE_POV_CONTROL is not set
SNAKE_GAME_DELAY=200
GAME_BREAKOUT=y GAME_BREAKOUT=y
# GAME_KART is not set
# #
# Animations # Animations
@ -64,7 +70,6 @@ ANIMATION_SPIRAL=y
SPIRAL_DELAY=5 SPIRAL_DELAY=5
ANIMATION_JOERN1=y ANIMATION_JOERN1=y
ANIMATION_SNAKE=y ANIMATION_SNAKE=y
SNAKE_GAME_DELAY=200
SNAKE_ANIM_DELAY=100 SNAKE_ANIM_DELAY=100
SNAKE_TERMINATION_DELAY=60 SNAKE_TERMINATION_DELAY=60
SNAKE_MAX_LENGTH=64 SNAKE_MAX_LENGTH=64
@ -107,6 +112,7 @@ FP_PLASMA_DELAY=10
ANIMATION_PSYCHEDELIC=y ANIMATION_PSYCHEDELIC=y
FP_PSYCHO_DELAY=25 FP_PSYCHO_DELAY=25
ANIMATION_BLACKHOLE=y ANIMATION_BLACKHOLE=y
# ANIMATION_DNA is not set
ANIMATION_SQUARES=y ANIMATION_SQUARES=y
# ANIMATION_TESTS is not set # ANIMATION_TESTS is not set
# ANIMATION_OFF is not set # ANIMATION_OFF is not set

View File

@ -58,6 +58,11 @@ ifeq ($(ANIMATION_TIME),y)
SRC += borg_time.c SRC += borg_time.c
endif endif
ifeq ($(ANIMATION_DNA),y)
SRC += dna.c
endif
include $(MAKETOPDIR)/rules.mk include $(MAKETOPDIR)/rules.mk
include $(MAKETOPDIR)/depend.mk include $(MAKETOPDIR)/depend.mk

View File

@ -9,7 +9,6 @@ comment "Animations"
bool "Joern1" ANIMATION_JOERN1 bool "Joern1" ANIMATION_JOERN1
dep_bool_menu "Snake" ANIMATION_SNAKE $RANDOM_SUPPORT dep_bool_menu "Snake" ANIMATION_SNAKE $RANDOM_SUPPORT
int "Snake Game Round Delay" SNAKE_GAME_DELAY 200
int "Snake Anim Round Delay" SNAKE_ANIM_DELAY 100 int "Snake Anim Round Delay" SNAKE_ANIM_DELAY 100
int "Snake Termination Delay" SNAKE_TERMINATION_DELAY 60 int "Snake Termination Delay" SNAKE_TERMINATION_DELAY 60
uint "Snake Max Length" SNAKE_MAX_LENGTH 64 uint "Snake Max Length" SNAKE_MAX_LENGTH 64
@ -63,6 +62,8 @@ comment "Animations"
endmenu endmenu
bool "Black Hole" ANIMATION_BLACKHOLE bool "Black Hole" ANIMATION_BLACKHOLE
bool "DNA" ANIMATION_DNA $RANDOM_SUPPORT
dep_bool "Squares" ANIMATION_SQUARES $RANDOM_SUPPORT dep_bool "Squares" ANIMATION_SQUARES $RANDOM_SUPPORT

114
src/animations/dna.c Normal file
View File

@ -0,0 +1,114 @@
#include "../config.h"
#include <stdint.h>
#include "../random/prng.h"
#include "../pixel.h"
#include "../util.h"
#define HEIGHT 12
#define LINE_DISTANCE 4
#define SIN_LENGTH 18
#define SIN_MAX 6
// uint8_t sin[SIN_LENGTH] = {0, 1, 2, 2, 3, 3, 4, 4, 4, 3, 3, 3, 2, 2, 1, 0};
uint8_t sintab[SIN_LENGTH] = {
0,
1,
2,
3,
4,
5,
5,
6,
6,
6,
6,
6,
5,
5,
4,
3,
2,
1,
};
/**
* Shifts the Pixmap one px right
*/
static void move(){
unsigned char plane, row, byte;
for(plane=0; plane<NUMPLANE; plane++){
for(row=NUM_ROWS; row--;){
for(byte=0; byte < LINEBYTES; byte++){
pixmap[plane][row][byte] = pixmap[plane][row][byte] >> 1;
if(byte < LINEBYTES-1){
pixmap[plane][row][byte] =
pixmap[plane][row][byte] |
(pixmap[plane][row][byte+1] & 0x01) << 7;
}
}
}
}
}
void dna(){
uint8_t mid = NUM_COLS / 2;
uint8_t draw_line = 0;
uint8_t top = 0;
uint8_t bottom = 0;
uint8_t top_color = 3;
uint8_t bottom_color = 2;
uint32_t c = 600;
uint8_t sinpos = 0;
int8_t direction = 1;
clear_screen(0);
while(c--){
top = mid - sintab[sinpos];
bottom = mid + sintab[sinpos];
setpixel((pixel){NUM_COLS-1,top}, top_color);
setpixel((pixel){NUM_COLS-1,bottom}, bottom_color);
if(draw_line == 0){
for(uint8_t linex = top+1; linex < bottom; linex++){
setpixel((pixel){NUM_COLS-1, linex}, 1);
}
setpixel((pixel){NUM_COLS-1, mid}, 1);
}
if(sinpos == 0){
if(mid-SIN_MAX <= 0){
direction = 1;
}
if(mid+SIN_MAX >= NUM_ROWS-1){
direction = -1;
}
mid = mid + (random8() > 200) * direction;
}
draw_line = (draw_line+1) % LINE_DISTANCE;
sinpos = (sinpos + 1) % SIN_LENGTH;
if(sinpos == 0){
uint8_t tmp_color = top_color;
top_color = bottom_color;
bottom_color = tmp_color;
}
wait(50);
move();
}
}

13
src/animations/dna.h Normal file
View File

@ -0,0 +1,13 @@
/*
* dna.h
*
* Created on: 15.07.2014
* Author: stefan
*/
#ifndef DNA_H_
#define DNA_H_
void dna();
#endif /* DNA_H_ */

View File

@ -20,18 +20,20 @@
#ifdef DOXYGEN #ifdef DOXYGEN
/** /**
* Low precision means that we use Q10.5 values and 16 bit types for almost * Low precision means that we use Q9.6 values and 16 bit types for almost
* every calculation (with multiplication and division as notable exceptions * every calculation (with multiplication being a notable exception as its
* as they and their interim results utilize 32 bit). * interim results utilize 32 bit types).
* *
* Use this precision mode with care as image quality will suffer * Use this precision mode with care as image quality will suffer noticeably
* noticeably. It produces leaner and faster code, though. This mode should * at higher resolutions. This mode should not be used with resolutions
* not be used with resolutions higher than 16x16 as overflows are likely to * higher than 16x16 as overflows are likely to occur in interim
* occur in interim calculations. * calculations. It produces leaner and faster code, though.
* *
* Normal precision (i.e. #undef LOW_PRECISION) conforms to Q7.8 with the * Normal precision (i.e. #undef LOW_PRECISION) conforms to Q23.8 for actual
* ability to store every interim result as Q23.8. Most operations like * values and interim results. Operations like square root, sine, cosine,
* square root, sine, cosine, multiplication etc. utilize 32 bit types. * multiplication etc. utilize 32 bit types. It's extremly slow on AVR, but
* it's your only chance to run those animations on devices with resolutions
* higher than 16x16.
*/ */
#define FP_LOW_PRECISION #define FP_LOW_PRECISION
#endif /* DOXYGEN */ #endif /* DOXYGEN */
@ -66,18 +68,18 @@
// lookup table as well! // lookup table as well!
/** Multiply a number by this factor to convert it to a fixed-point value.*/ /** Multiply a number by this factor to convert it to a fixed-point value.*/
#define FIX 32 #define FIX 64
/** Number of fractional bits of a value (i.e. ceil(log_2(FIX))). */ /** Number of fractional bits of a value (i.e. ceil(log_2(FIX))). */
#define FIX_FRACBITS 5 #define FIX_FRACBITS 6
/** /**
* The number of temporal quantization steps of the sine lookup table. It * The number of temporal quantization steps of the sine lookup table. It
* must be a divisor of (FIX * 2 * pi) and this divisor must be divisable by * must be a divisor of (FIX * 2 * pi) and this divisor must be divisable by
* 4 itself. Approximate this value as close as possible to keep rounding * 4 itself. Approximate this value as close as possible to keep rounding
* errors at a minimum. * errors at a minimum.
*/ */
#define FIX_SIN_COUNT 200 #define FIX_SIN_COUNT 200u
/** The rounded down quotient of (FIX * 2 * pi) and FIX_SIN_COUNT */ /** The rounded down quotient of (FIX * 2 * pi) and FIX_SIN_COUNT */
#define FIX_SIN_DIVIDER 1 #define FIX_SIN_DIVIDER 2u
/** Type of the lookup table elements. */ /** Type of the lookup table elements. */
typedef uint8_t lut_t; typedef uint8_t lut_t;
@ -85,26 +87,26 @@
/** /**
* Lookup table of fractional parts which model the first quarter of a * Lookup table of fractional parts which model the first quarter of a
* sine period. The rest of that period is calculated by mirroring those * sine period. The rest of that period is calculated by mirroring those
* values. These values are intended for Q5 types. * values. These values are intended for Q6 types.
*/ */
static lut_t const fix_sine_lut[FIX_SIN_COUNT / 4] = static lut_t const fix_sine_lut[FIX_SIN_COUNT / 4] =
{ 0, 1, 2, 3, 4, 5, 6, 7, { 0, 2, 4, 6, 8, 10, 12, 14,
8, 9, 10, 11, 12, 13, 14, 14, 16, 18, 20, 22, 24, 25, 27, 29,
15, 16, 17, 18, 19, 20, 20, 21, 31, 33, 34, 36, 38, 39, 41, 42,
22, 23, 23, 24, 25, 25, 26, 26, 44, 45, 47, 48, 49, 51, 52, 53,
27, 27, 28, 28, 29, 29, 30, 30, 54, 55, 56, 57, 58, 59, 60, 60,
30, 31, 31, 31, 31, 32, 32, 32, 61, 61, 62, 62, 63, 63, 63, 64,
32, 32}; 64, 64};
#else #else
/** This is the type we expect ordinary integers to be. */ /** This is the type we expect ordinary integers to be. */
typedef int16_t ordinary_int_t; typedef int16_t ordinary_int_t;
/** This is the type which we use for fixed-point values. */ /** This is the type which we use for fixed-point values. */
typedef int16_t fixp_t; typedef int32_t fixp_t;
/** This type covers arguments of fixSin() and fixCos(). */ /** This type covers arguments of fixSin() and fixCos(). */
typedef int32_t fixp_trig_t; typedef int32_t fixp_trig_t;
/** This type covers interim results of fixed-point operations. */ /** This type covers interim results of fixed-point operations. */
typedef int32_t fixp_interim_t; typedef uint32_t fixp_interim_t;
/** This type covers interim results of the fixSqrt() function. */ /** This type covers interim results of the fixSqrt() function. */
typedef uint32_t ufixp_interim_t; typedef uint32_t ufixp_interim_t;
/** Number of bits the fixSqrt() function can handle. */ /** Number of bits the fixSqrt() function can handle. */
@ -123,12 +125,12 @@
* 4 itself. Approximate this value as close as possible to keep rounding * 4 itself. Approximate this value as close as possible to keep rounding
* errors at a minimum. * errors at a minimum.
*/ */
#define FIX_SIN_COUNT 200 #define FIX_SIN_COUNT 200u
/** The rounded down quotient of (FIX * 2 * pi) and FIX_SIN_COUNT */ /** The rounded down quotient of (FIX * 2 * pi) and FIX_SIN_COUNT */
#define FIX_SIN_DIVIDER 8 #define FIX_SIN_DIVIDER 8u
/** Type of the lookup table elements. */ /** Type of the lookup table elements. */
typedef uint8_t lut_t; typedef int16_t lut_t;
/** /**
* Lookup table of fractional parts which model the first quarter of a * Lookup table of fractional parts which model the first quarter of a
@ -142,7 +144,7 @@
175, 181, 186, 192, 197, 202, 207, 211, 175, 181, 186, 192, 197, 202, 207, 211,
216, 220, 224, 228, 231, 235, 238, 240, 216, 220, 224, 228, 231, 235, 238, 240,
243, 245, 247, 249, 251, 252, 253, 254, 243, 245, 247, 249, 251, 252, 253, 254,
255, 255}; 255, 256};
#endif #endif
@ -252,14 +254,14 @@ static fixp_t fixSin(fixp_trig_t fAngle)
/** /**
* Fixed-point variant of the cosine function which takes a fixed-point angle * Fixed-point variant of the cosine function which takes a fixed-point angle
* (radian). It adds FIX_PI_2 to the given angle and consults the fixSin() * (radian). It substracts FIX_PI_2 from the given angle and consults the
* function for the final result. * fixSin() function for the final result.
* @param fAngle A fixed-point value in radian. * @param fAngle A fixed-point value in radian.
* @return Result of the cosine function normalized to a range from -FIX to FIX. * @return Result of the cosine function normalized to a range from -FIX to FIX.
*/ */
static fixp_t fixCos(fixp_trig_t const fAngle) static inline fixp_t fixCos(fixp_trig_t const fAngle)
{ {
return fixSin(fAngle + FIX_PI_2); return fixSin(fAngle - FIX_PI_2);
} }
@ -275,11 +277,11 @@ static fixp_t fixSqrt(ufixp_interim_t const a)
nRoot = 0; // clear root nRoot = 0; // clear root
nRemainingHigh = 0; // clear high part of partial remainder nRemainingHigh = 0; // clear high part of partial remainder
nRemainingLow = a; // get argument into low part of partial remainder nRemainingLow = a; // get argument into low part of partial remainder
nCount = (SQRT_BITS / 2 - 1) + (FIX_FRACBITS >> 1); // load loop counter nCount = ((SQRT_BITS - 1) + FIX_FRACBITS) / 2; // load loop counter
do do
{ {
nRemainingHigh = nRemainingHigh =
(nRemainingHigh << 2) | (nRemainingLow >> (SQRT_BITS - 2)); (nRemainingHigh << 2) | (nRemainingLow >> (SQRT_BITS - 2));
nRemainingLow <<= 2; // get 2 bits of the argument nRemainingLow <<= 2; // get 2 bits of the argument
nRoot <<= 1; // get ready for the next bit in the root nRoot <<= 1; // get ready for the next bit in the root
nTestDiv = (nRoot << 1) + 1; // test radical nTestDiv = (nRoot << 1) + 1; // test radical
@ -451,16 +453,16 @@ static unsigned char fixAnimPlasma(unsigned char const x,
assert(x < (LINEBYTES * 8)); assert(x < (LINEBYTES * 8));
assert(y < NUM_ROWS); assert(y < NUM_ROWS);
// scaling factor
static fixp_t const fPlasmaX = (2 * PI * FIX) / NUM_COLS;
// reentrant data // reentrant data
fixp_plasma_t *const p = (fixp_plasma_t *)r; fixp_plasma_t *const p = (fixp_plasma_t *)r;
// scaling factor
static fixp_t const fPlasmaX = FIX / 3.7;
if (x == 0 && y == 0) if (x == 0 && y == 0)
{ {
p->fFunc2CosArg = NUM_ROWS * fixCos(t) + fixScaleUp(NUM_ROWS); p->fFunc2CosArg = NUM_COLS * (fixCos(t) + FIX);
p->fFunc2SinArg = NUM_COLS * fixSin(t) + fixScaleUp(NUM_COLS); p->fFunc2SinArg = NUM_ROWS * (fixSin(t) + FIX);
for (unsigned char i = LINEBYTES * 8u; i--;) for (unsigned char i = LINEBYTES * 8u; i--;)
{ {
p->fFunc1[i] = fixSin(fixMul(fixScaleUp(i), fPlasmaX) + t); p->fFunc1[i] = fixSin(fixMul(fixScaleUp(i), fPlasmaX) + t);
@ -470,8 +472,8 @@ static unsigned char fixAnimPlasma(unsigned char const x,
fixp_t const fFunc2 = fixSin(fixMul(fixDist(fixScaleUp(x), fixScaleUp(y), fixp_t const fFunc2 = fixSin(fixMul(fixDist(fixScaleUp(x), fixScaleUp(y),
p->fFunc2SinArg, p->fFunc2CosArg), fPlasmaX)); p->fFunc2SinArg, p->fFunc2CosArg), fPlasmaX));
unsigned char const nRes = (unsigned char)(fixMul(p->fFunc1[x] + fFunc2 + unsigned char const nRes = (fixMul(p->fFunc1[x] + fFunc2 +
fixScaleUp(2), ((NUMPLANE + 1) / 4.0 - 0.05) * FIX)) / FIX; 2 * FIX, ((NUMPLANE + 1) / 4.0 - 0.05) * FIX)) / FIX;
assert (nRes <= NUMPLANE); assert (nRes <= NUMPLANE);
return nRes; return nRes;
@ -484,12 +486,12 @@ void plasma(void)
{ {
fixp_plasma_t r; fixp_plasma_t r;
#ifndef __AVR__ #ifndef __AVR__
fixDrawPattern(0, fixScaleUp(75), 0.1 * FIX, 15, fixAnimPlasma, &r); fixDrawPattern(0, fixScaleUp(75), 0.05 * FIX, 15, fixAnimPlasma, &r);
#else #else
#ifndef FP_PLASMA_DELAY #ifndef FP_PLASMA_DELAY
#define FP_PLASMA_DELAY 1 #define FP_PLASMA_DELAY 1
#endif #endif
fixDrawPattern(0, fixScaleUp(60), 0.1 * FIX, fixDrawPattern(0, fixScaleUp(60), 0.05 * FIX,
FP_PLASMA_DELAY, fixAnimPlasma, &r); FP_PLASMA_DELAY, fixAnimPlasma, &r);
#endif /* __AVR__ */ #endif /* __AVR__ */
} }
@ -505,9 +507,9 @@ void plasma(void)
*/ */
typedef struct fixp_psychedelic_s typedef struct fixp_psychedelic_s
{ {
fixp_t fCos; /**< One of the column factors of the curl. */ fixp_t fCos; /**< X-coordinate of the curl's center. */
fixp_t fSin; /**< One of the row factors of the curl. */ fixp_t fSin; /**< Y-coordinate of the curl's center. */
fixp_interim_t ft10; /**< A value involved in rotating the curl's center. */ fixp_t fPhaseShift; /**< Phase-shift for the flow effect. */
} fixp_psychedelic_t; } fixp_psychedelic_t;
@ -530,15 +532,15 @@ static unsigned char fixAnimPsychedelic(unsigned char const x,
if (x == 0 && y == 0) if (x == 0 && y == 0)
{ {
p->fCos = NUM_COLS/2 * fixCos(t); p->fCos = (fixp_t)(NUM_COLS * 0.72) * (fixCos(t) + FIX);
p->fSin = NUM_ROWS/2 * fixSin(t); p->fSin = (fixp_t)(NUM_ROWS * 0.72) * (fixSin(t) + FIX);
p->ft10 = fixMul(t, fixScaleUp(10)); p->fPhaseShift = t * 8;
} }
unsigned char const nResult = unsigned char const nResult =
(unsigned char)(fixMul(fixSin(fixDist(fixScaleUp(x), fixScaleUp(y), fixMul(fixSin(fixDist(fixScaleUp(x), fixScaleUp(y),
p->fCos, p->fSin) - p->ft10) + fixScaleUp(1), p->fSin, p->fCos) - p->fPhaseShift) + FIX,
(fixp_t)((NUMPLANE - 1.05) * FIX))) / FIX; (fixp_t)((NUMPLANE - 1.05) * FIX)) / FIX;
assert(nResult <= NUMPLANE); assert(nResult <= NUMPLANE);
return nResult; return nResult;

View File

@ -1,4 +1,5 @@
#include <stdbool.h>
#include "../config.h" #include "../config.h"
#include "../compat/pgmspace.h" #include "../compat/pgmspace.h"
#include "../random/prng.h" #include "../random/prng.h"
@ -9,38 +10,43 @@
#ifdef ANIMATION_TESTS #ifdef ANIMATION_TESTS
void test_level(unsigned char level){ void test_level(unsigned char level, bool debug){
for (unsigned char y=NUM_ROWS;y--;){ for (unsigned char y=NUM_ROWS;y--;){
for (unsigned char x=NUM_COLS;x--;){ for (unsigned char x=NUM_COLS;x--;){
setpixel((pixel){x,y}, level); setpixel((pixel){x,y}, level);
wait(5); wait(5);
} }
} }
wait(2000); if (!debug) {
wait(2000);
}
} }
void test_palette(){ void test_palette(bool debug){
for (unsigned char y=NUM_ROWS;y--;){ for (unsigned char y=NUM_ROWS;y--;){
for (unsigned char x=NUM_COLS;x--;){ for (unsigned char x=NUM_COLS;x--;){
setpixel((pixel){x,y}, y%4); setpixel((pixel){x,y}, y%4);
// wait(1); // wait(1);
} }
} }
wait(2000); if (!debug) {
wait(2000);
}
} }
void test_palette2(){ void test_palette2(bool debug){
for (unsigned char x=NUM_COLS;x--;){ for (unsigned char x=NUM_COLS;x--;){
for (unsigned char y=NUM_ROWS;y--;){ for (unsigned char y=NUM_ROWS;y--;){
setpixel((pixel){x,y}, x%4); setpixel((pixel){x,y}, x%4);
// wait(1);
} }
} }
wait(1000); if (!debug) {
for (unsigned char x=NUM_COLS;x--;){ wait(1000);
// shift image right for (unsigned char x=NUM_COLS;x--;){
shift_pixmap_l(); // shift image right
wait(30); shift_pixmap_l();
wait(30);
}
} }
} }
#endif #endif

View File

@ -1,13 +1,14 @@
#ifndef PROGRAMM_H_ #ifndef PROGRAMM_H_
#define PROGRAMM_H_ #define PROGRAMM_H_
#include <stdbool.h>
#include "../pixel.h" #include "../pixel.h"
#include "../util.h" #include "../util.h"
void test_level(unsigned char level); void test_level(unsigned char level, bool debug);
void test_palette(); void test_palette(bool debug);
void test_palette2(); void test_palette2(bool debug);
#ifdef ANIMATION_OFF #ifdef ANIMATION_OFF
inline static void off() inline static void off()

View File

@ -33,15 +33,34 @@
#define COLDDR2 DDR(COLPORT2) #define COLDDR2 DDR(COLPORT2)
#define ROWDDR DDR(ROWPORT) #define ROWDDR DDR(ROWPORT)
#if defined (__AVR_ATmega644P__) || defined (__AVR_ATmega644__) || (__AVR_ATmega1284P__) || defined (__AVR_ATmega1284__) #if defined(__AVR_ATmega164__) || \
/* more ifdef magic :-( */ defined(__AVR_ATmega164P__) || \
#define OCR0 OCR0A defined(__AVR_ATmega324__) || \
#define TIMER0_COMP_vect TIMER0_COMPA_vect defined(__AVR_ATmega324P__) || \
defined(__AVR_ATmega644__) || \
defined(__AVR_ATmega644P__) || \
defined(__AVR_ATmega1284__) || \
defined(__AVR_ATmega1284P__)
# define TIMER0_OFF() TCCR0A = 0; TCCR0B = 0
# define TIMER0_CTC_CS256() TCCR0A = _BV(WGM01); TCCR0B = _BV(CS02)
# define TIMER0_RESET() TCNT0 = 0
# define TIMER0_COMPARE(t) OCR0A = t
# define TIMER0_INT_ENABLE() TIMSK0 = _BV(OCIE0A)
# define TIMER0_ISR TIMER0_COMPA_vect
#else // ATmega16/32
# define TIMER0_OFF() TCCR0 = 0
# define TIMER0_CTC_CS256() TCCR0 = _BV(WGM01) | _BV(CS02)
# define TIMER0_RESET() TCNT0 = 0
# define TIMER0_COMPARE(t) OCR0 = t
# define TIMER0_INT_ENABLE() TIMSK = _BV(OCIE0)
# define TIMER0_ISR TIMER0_COMP_vect
#endif #endif
// buffer which holds the currently shown frame // buffer which holds the currently shown frame
unsigned char pixmap[NUMPLANE][NUM_ROWS][LINEBYTES]; unsigned char pixmap[NUMPLANE][NUM_ROWS][LINEBYTES];
// switch to next row // switch to next row
static void nextrow(uint8_t row) { static void nextrow(uint8_t row) {
//reset states of preceding row //reset states of preceding row
@ -80,12 +99,18 @@ static void nextrow(uint8_t row) {
} }
} }
// show a row // show a row
static void rowshow(unsigned char row, unsigned char plane) { static void rowshow(unsigned char row, unsigned char plane) {
// depending on the currently drawn plane, display the row for a specific // depending on the currently drawn plane, display the row for a specific
// amount of time // amount of time
#ifdef HIGH_CONTRAST
static unsigned char const ocr_table[] = {2, 5, 22};
#else
static unsigned char const ocr_table[] = {3, 4, 22}; static unsigned char const ocr_table[] = {3, 4, 22};
OCR0 = ocr_table[plane]; #endif
TIMER0_COMPARE(ocr_table[plane]);
// output data of the current row to the column drivers // output data of the current row to the column drivers
uint8_t tmp, tmp1; uint8_t tmp, tmp1;
@ -124,19 +149,19 @@ static void rowshow(unsigned char row, unsigned char plane) {
} }
// depending on the plane this interrupt triggers at 50 kHz, 31.25 kHz or
// 12.5 kHz // interrupt handler
ISR(TIMER0_COMP_vect) { ISR(TIMER0_ISR) {
static unsigned char plane = 0; static unsigned char plane = 0;
static unsigned char row = 0; static unsigned char row = 0;
// reset watchdog
wdt_reset();
// increment both row and plane // increment both row and plane
if (++plane == NUMPLANE) { if (++plane == NUMPLANE) {
plane = 0; plane = 0;
if (++row == NUM_ROWS) { if (++row == NUM_ROWS) {
// reset watchdog
wdt_reset();
row = 0; row = 0;
} }
nextrow(row); nextrow(row);
@ -146,49 +171,27 @@ ISR(TIMER0_COMP_vect) {
rowshow(row, plane); rowshow(row, plane);
} }
// disables timer, causing the watchdog to reset the MCU
void timer0_off() { void timer0_off() {
cli(); cli();
COLPORT1 = 0; COLPORT1 = 0;
COLPORT2 = 0; COLPORT2 = 0;
ROWPORT = 0; ROWPORT = 0;
TIMER0_OFF();
#if defined (__AVR_ATmega644P__) || defined (__AVR_ATmega644__) || (__AVR_ATmega1284P__) || defined (__AVR_ATmega1284__)
TCCR0A = 0x00;
TCCR0B = 0x00;
#else
TCCR0 = 0x00;
#endif
sei(); sei();
} }
// initialize timer which triggers the interrupt // initialize timer which triggers the interrupt
static void timer0_on() { static void timer0_on() {
/* TCCR0: FOC0 WGM00 COM01 COM00 WGM01 CS02 CS01 CS00 TIMER0_CTC_CS256(); // CTC mode, prescaling conforms to clk/256
CS02 CS01 CS00 TIMER0_RESET(); // set counter to 0
0 0 0 stop TIMER0_COMPARE(20); // compare with this value first
0 0 1 clk TIMER0_INT_ENABLE(); // enable Timer/Counter0 Output Compare Match (A) Int.
0 1 0 clk/8
0 1 1 clk/64
1 0 0 clk/256
1 0 1 clk/1024
*/
#if defined (__AVR_ATmega644P__) || defined (__AVR_ATmega644__) || (__AVR_ATmega1284P__) || defined (__AVR_ATmega1284__)
TCCR0A = 0x02; // CTC Mode
TCCR0B = 0x04; // clk/256
TCNT0 = 0; // reset timer
OCR0 = 20; // compare with this value
TIMSK0 = 0x02; // compare match Interrupt on
#else
TCCR0 = 0x0C; // CTC Mode, clk/256
TCNT0 = 0; // reset timer
OCR0 = 20; // compare with this value
TIMSK = 0x02; // compare match Interrupt on
#endif
} }
void borg_hw_init() { void borg_hw_init() {
// switch column ports to output mode // switch column ports to output mode
COLDDR1 = 0xFF; COLDDR1 = 0xFF;
@ -208,5 +211,5 @@ void borg_hw_init() {
// activate watchdog timer // activate watchdog timer
wdt_reset(); wdt_reset();
wdt_enable(0x00); // 17ms watchdog wdt_enable(WDTO_15MS); // 15ms watchdog
} }

View File

@ -292,160 +292,158 @@ static void compose_cycle(uint8_t const cycle, uint8_t plane) {
uint8_t pins_h = sink_h = pgm_read_byte(&sink_h_cycle[cycle]); uint8_t pins_h = sink_h = pgm_read_byte(&sink_h_cycle[cycle]);
// convert framebuffer to LoL Shield cycles on Arduino Mega 1280/2560 // convert framebuffer to LoL Shield cycles on Arduino Mega 1280/2560
// (I could have done this with a lookup table, but that would be slower as
// non-constant bit shifts are quite expensive on AVR)
// NOTE: (0,0) is UPPER RIGHT in the Borgware realm // NOTE: (0,0) is UPPER RIGHT in the Borgware realm
if (plane < NUMPLANE) { if (plane < NUMPLANE) {
switch(cycle) { switch(cycle) {
case 0: case 0:
pins_b |= (0x02u & p[ 0]) << 6; // x= 1, y= 0, mapped pin D13 if (0x02u & p[ 0]) pins_b |= 0x80; // x= 1, y= 0, mapped pin D13
pins_b |= (0x02u & p[ 2]) << 5; // x= 1, y= 1, mapped pin D12 if (0x02u & p[ 2]) pins_b |= 0x40; // x= 1, y= 1, mapped pin D12
pins_b |= (0x02u & p[ 4]) << 4; // x= 1, y= 2, mapped pin D11 if (0x02u & p[ 4]) pins_b |= 0x20; // x= 1, y= 2, mapped pin D11
pins_b |= (0x02u & p[ 6]) << 3; // x= 1, y= 3, mapped pin D10 if (0x02u & p[ 6]) pins_b |= 0x10; // x= 1, y= 3, mapped pin D10
pins_e |= (0x02u & p[16]) << 2; // x= 1, y= 8, mapped pin D5 if (0x02u & p[ 8]) pins_h |= 0x40; // x= 1, y= 4, mapped pin D9
pins_h |= (0x02u & p[ 8]) << 5; // x= 1, y= 4, mapped pin D9 if (0x02u & p[10]) pins_h |= 0x20; // x= 1, y= 5, mapped pin D8
pins_h |= (0x02u & p[10]) << 4; // x= 1, y= 5, mapped pin D8 if (0x02u & p[12]) pins_h |= 0x10; // x= 1, y= 6, mapped pin D7
pins_h |= (0x02u & p[12]) << 3; // x= 1, y= 6, mapped pin D7 if (0x02u & p[14]) pins_h |= 0x08; // x= 1, y= 7, mapped pin D6
pins_h |= (0x02u & p[14]) << 2; // x= 1, y= 7, mapped pin D6 if (0x02u & p[16]) pins_e |= 0x08; // x= 1, y= 8, mapped pin D5
break; break;
case 1: case 1:
pins_b |= (0x08u & p[ 0]) << 4; // x= 3, y= 0, mapped pin D13 if (0x08u & p[ 0]) pins_b |= 0x80; // x= 3, y= 0, mapped pin D13
pins_b |= (0x08u & p[ 2]) << 3; // x= 3, y= 1, mapped pin D12 if (0x08u & p[ 2]) pins_b |= 0x40; // x= 3, y= 1, mapped pin D12
pins_b |= (0x08u & p[ 4]) << 2; // x= 3, y= 2, mapped pin D11 if (0x08u & p[ 4]) pins_b |= 0x20; // x= 3, y= 2, mapped pin D11
pins_b |= (0x08u & p[ 6]) << 1; // x= 3, y= 3, mapped pin D10 if (0x08u & p[ 6]) pins_b |= 0x10; // x= 3, y= 3, mapped pin D10
pins_e |= (0x08u & p[16]); // x= 3, y= 8, mapped pin D5 if (0x08u & p[ 8]) pins_h |= 0x40; // x= 3, y= 4, mapped pin D9
pins_h |= (0x08u & p[ 8]) << 3; // x= 3, y= 4, mapped pin D9 if (0x08u & p[10]) pins_h |= 0x20; // x= 3, y= 5, mapped pin D8
pins_h |= (0x08u & p[10]) << 2; // x= 3, y= 5, mapped pin D8 if (0x08u & p[12]) pins_h |= 0x10; // x= 3, y= 6, mapped pin D7
pins_h |= (0x08u & p[12]) << 1; // x= 3, y= 6, mapped pin D7 pins_e |= (0x08u & p[16]); // x= 3, y= 8, mapped pin D5
pins_h |= (0x08u & p[14]); // x= 3, y= 7, mapped pin D6 pins_h |= (0x08u & p[14]); // x= 3, y= 7, mapped pin D6
break; break;
case 2: case 2:
pins_b |= (0x20u & p[ 0]) << 2; // x= 5, y= 0, mapped pin D13 if (0x20u & p[ 0]) pins_b |= 0x80; // x= 5, y= 0, mapped pin D13
pins_b |= (0x20u & p[ 2]) << 1; // x= 5, y= 1, mapped pin D12 if (0x20u & p[ 2]) pins_b |= 0x40; // x= 5, y= 1, mapped pin D12
pins_b |= (0x20u & p[ 4]); // x= 5, y= 2, mapped pin D11 if (0x20u & p[ 6]) pins_b |= 0x10; // x= 5, y= 3, mapped pin D10
pins_b |= (0x20u & p[ 6]) >> 1; // x= 5, y= 3, mapped pin D10 if (0x20u & p[ 8]) pins_h |= 0x40; // x= 5, y= 4, mapped pin D9
pins_e |= (0x20u & p[16]) >> 2; // x= 5, y= 8, mapped pin D5 if (0x20u & p[12]) pins_h |= 0x10; // x= 5, y= 6, mapped pin D7
pins_h |= (0x20u & p[ 8]) << 1; // x= 5, y= 4, mapped pin D9 if (0x20u & p[14]) pins_h |= 0x08; // x= 5, y= 7, mapped pin D6
pins_h |= (0x20u & p[10]); // x= 5, y= 5, mapped pin D8 if (0x20u & p[16]) pins_e |= 0x08; // x= 5, y= 8, mapped pin D5
pins_h |= (0x20u & p[12]) >> 1; // x= 5, y= 6, mapped pin D7 pins_b |= (0x20u & p[ 4]); // x= 5, y= 2, mapped pin D11
pins_h |= (0x20u & p[14]) >> 2; // x= 5, y= 7, mapped pin D6 pins_h |= (0x20u & p[10]); // x= 5, y= 5, mapped pin D8
break; break;
case 3: case 3:
pins_b |= (0x20u & p[ 1]) << 2; // x=13, y= 0, mapped pin D13 if (0x01u & p[16]) pins_e |= 0x10; // x= 0, y= 8, mapped pin D2
pins_b |= (0x20u & p[ 3]) << 1; // x=13, y= 1, mapped pin D12 if (0x04u & p[16]) pins_e |= 0x20; // x= 2, y= 8, mapped pin D3
pins_b |= (0x20u & p[ 5]); // x=13, y= 2, mapped pin D11 if (0x10u & p[16]) pins_g |= 0x20; // x= 4, y= 8, mapped pin D4
pins_b |= (0x20u & p[ 7]) >> 1; // x=13, y= 3, mapped pin D10 if (0x20u & p[ 1]) pins_b |= 0x80; // x=13, y= 0, mapped pin D13
pins_e |= (0x01u & p[16]) << 4; // x= 0, y= 8, mapped pin D2 if (0x20u & p[ 3]) pins_b |= 0x40; // x=13, y= 1, mapped pin D12
pins_e |= (0x04u & p[16]) << 3; // x= 2, y= 8, mapped pin D3 if (0x20u & p[ 7]) pins_b |= 0x10; // x=13, y= 3, mapped pin D10
pins_g |= (0x10u & p[16]) << 1; // x= 4, y= 8, mapped pin D4 if (0x20u & p[ 9]) pins_h |= 0x40; // x=13, y= 4, mapped pin D9
pins_h |= (0x20u & p[ 9]) << 1; // x=13, y= 4, mapped pin D9 if (0x20u & p[13]) pins_h |= 0x10; // x=13, y= 6, mapped pin D7
pins_h |= (0x20u & p[11]); // x=13, y= 5, mapped pin D8 if (0x20u & p[15]) pins_h |= 0x08; // x=13, y= 7, mapped pin D6
pins_h |= (0x20u & p[13]) >> 1; // x=13, y= 6, mapped pin D7 pins_b |= (0x20u & p[ 5]); // x=13, y= 2, mapped pin D11
pins_h |= (0x20u & p[15]) >> 2; // x=13, y= 7, mapped pin D6 pins_h |= (0x20u & p[11]); // x=13, y= 5, mapped pin D8
break; break;
case 4: case 4:
pins_b |= (0x10u & p[ 1]) << 3; // x=12, y= 0, mapped pin D13 if (0x01u & p[14]) pins_e |= 0x10; // x= 0, y= 7, mapped pin D2
pins_b |= (0x10u & p[ 3]) << 2; // x=12, y= 1, mapped pin D12 if (0x04u & p[14]) pins_e |= 0x20; // x= 2, y= 7, mapped pin D3
pins_b |= (0x10u & p[ 5]) << 1; // x=12, y= 2, mapped pin D11 if (0x10u & p[ 1]) pins_b |= 0x80; // x=12, y= 0, mapped pin D13
pins_b |= (0x10u & p[ 7]); // x=12, y= 3, mapped pin D10 if (0x10u & p[ 3]) pins_b |= 0x40; // x=12, y= 1, mapped pin D12
pins_e |= (0x01u & p[14]) << 4; // x= 0, y= 7, mapped pin D2 if (0x10u & p[ 5]) pins_b |= 0x20; // x=12, y= 2, mapped pin D11
pins_e |= (0x04u & p[14]) << 3; // x= 2, y= 7, mapped pin D3 if (0x10u & p[ 9]) pins_h |= 0x40; // x=12, y= 4, mapped pin D9
pins_e |= (0x20u & p[17]) >> 2; // x=13, y= 8, mapped pin D5 if (0x10u & p[11]) pins_h |= 0x20; // x=12, y= 5, mapped pin D8
pins_g |= (0x10u & p[14]) << 1; // x= 4, y= 7, mapped pin D4 if (0x10u & p[14]) pins_g |= 0x20; // x= 4, y= 7, mapped pin D4
pins_h |= (0x10u & p[ 9]) << 2; // x=12, y= 4, mapped pin D9 if (0x20u & p[17]) pins_e |= 0x08; // x=13, y= 8, mapped pin D5
pins_h |= (0x10u & p[11]) << 1; // x=12, y= 5, mapped pin D8 pins_b |= (0x10u & p[ 7]); // x=12, y= 3, mapped pin D10
pins_h |= (0x10u & p[13]); // x=12, y= 6, mapped pin D7 pins_h |= (0x10u & p[13]); // x=12, y= 6, mapped pin D7
break; break;
case 5: case 5:
pins_b |= (0x08u & p[ 1]) << 4; // x=11, y= 0, mapped pin D13 if (0x01u & p[12]) pins_e |= 0x10; // x= 0, y= 6, mapped pin D2
pins_b |= (0x08u & p[ 3]) << 3; // x=11, y= 1, mapped pin D12 if (0x04u & p[12]) pins_e |= 0x20; // x= 2, y= 6, mapped pin D3
pins_b |= (0x08u & p[ 5]) << 2; // x=11, y= 2, mapped pin D11 if (0x08u & p[ 1]) pins_b |= 0x80; // x=11, y= 0, mapped pin D13
pins_b |= (0x08u & p[ 7]) << 1; // x=11, y= 3, mapped pin D10 if (0x08u & p[ 3]) pins_b |= 0x40; // x=11, y= 1, mapped pin D12
pins_e |= (0x01u & p[12]) << 4; // x= 0, y= 6, mapped pin D2 if (0x08u & p[ 5]) pins_b |= 0x20; // x=11, y= 2, mapped pin D11
pins_e |= (0x04u & p[12]) << 3; // x= 2, y= 6, mapped pin D3 if (0x08u & p[ 7]) pins_b |= 0x10; // x=11, y= 3, mapped pin D10
pins_e |= (0x10u & p[17]) >> 1; // x=12, y= 8, mapped pin D5 if (0x08u & p[ 9]) pins_h |= 0x40; // x=11, y= 4, mapped pin D9
pins_g |= (0x10u & p[12]) << 1; // x= 4, y= 6, mapped pin D4 if (0x08u & p[11]) pins_h |= 0x20; // x=11, y= 5, mapped pin D8
pins_h |= (0x08u & p[ 9]) << 3; // x=11, y= 4, mapped pin D9 if (0x10u & p[12]) pins_g |= 0x20; // x= 4, y= 6, mapped pin D4
pins_h |= (0x08u & p[11]) << 2; // x=11, y= 5, mapped pin D8 if (0x10u & p[15]) pins_h |= 0x08; // x=12, y= 7, mapped pin D6
pins_h |= (0x10u & p[15]) >> 1; // x=12, y= 7, mapped pin D6 if (0x10u & p[17]) pins_e |= 0x08; // x=12, y= 8, mapped pin D5
break; break;
case 6: case 6:
pins_b |= (0x04u & p[ 1]) << 5; // x=10, y= 0, mapped pin D13 if (0x01u & p[10]) pins_e |= 0x10; // x= 0, y= 5, mapped pin D2
pins_b |= (0x04u & p[ 3]) << 4; // x=10, y= 1, mapped pin D12 if (0x04u & p[ 1]) pins_b |= 0x80; // x=10, y= 0, mapped pin D13
pins_b |= (0x04u & p[ 5]) << 3; // x=10, y= 2, mapped pin D11 if (0x04u & p[ 3]) pins_b |= 0x40; // x=10, y= 1, mapped pin D12
pins_b |= (0x04u & p[ 7]) << 2; // x=10, y= 3, mapped pin D10 if (0x04u & p[ 5]) pins_b |= 0x20; // x=10, y= 2, mapped pin D11
pins_e |= (0x01u & p[10]) << 4; // x= 0, y= 5, mapped pin D2 if (0x04u & p[ 7]) pins_b |= 0x10; // x=10, y= 3, mapped pin D10
pins_e |= (0x04u & p[10]) << 3; // x= 2, y= 5, mapped pin D3 if (0x04u & p[ 9]) pins_h |= 0x40; // x=10, y= 4, mapped pin D9
pins_e |= (0x08u & p[17]); // x=11, y= 8, mapped pin D5 if (0x04u & p[10]) pins_e |= 0x20; // x= 2, y= 5, mapped pin D3
pins_g |= (0x10u & p[10]) << 1; // x= 4, y= 5, mapped pin D4 if (0x08u & p[13]) pins_h |= 0x10; // x=11, y= 6, mapped pin D7
pins_h |= (0x04u & p[ 9]) << 4; // x=10, y= 4, mapped pin D9 if (0x10u & p[10]) pins_g |= 0x20; // x= 4, y= 5, mapped pin D4
pins_h |= (0x08u & p[13]) << 1; // x=11, y= 6, mapped pin D7 pins_e |= (0x08u & p[17]); // x=11, y= 8, mapped pin D5
pins_h |= (0x08u & p[15]); // x=11, y= 7, mapped pin D6 pins_h |= (0x08u & p[15]); // x=11, y= 7, mapped pin D6
break; break;
case 7: case 7:
pins_b |= (0x02u & p[ 1]) << 6; // x= 9, y= 0, mapped pin D13 if (0x01u & p[ 8]) pins_e |= 0x10; // x= 0, y= 4, mapped pin D2
pins_b |= (0x02u & p[ 3]) << 5; // x= 9, y= 1, mapped pin D12 if (0x02u & p[ 1]) pins_b |= 0x80; // x= 9, y= 0, mapped pin D13
pins_b |= (0x02u & p[ 5]) << 4; // x= 9, y= 2, mapped pin D11 if (0x02u & p[ 3]) pins_b |= 0x40; // x= 9, y= 1, mapped pin D12
pins_b |= (0x02u & p[ 7]) << 3; // x= 9, y= 3, mapped pin D10 if (0x02u & p[ 5]) pins_b |= 0x20; // x= 9, y= 2, mapped pin D11
pins_e |= (0x01u & p[ 8]) << 4; // x= 0, y= 4, mapped pin D2 if (0x02u & p[ 7]) pins_b |= 0x10; // x= 9, y= 3, mapped pin D10
pins_e |= (0x04u & p[ 8]) << 3; // x= 2, y= 4, mapped pin D3 if (0x04u & p[ 8]) pins_e |= 0x20; // x= 2, y= 4, mapped pin D3
pins_e |= (0x04u & p[17]) << 1; // x=10, y= 8, mapped pin D5 if (0x04u & p[11]) pins_h |= 0x20; // x=10, y= 5, mapped pin D8
pins_g |= (0x10u & p[ 8]) << 1; // x= 4, y= 4, mapped pin D4 if (0x04u & p[13]) pins_h |= 0x10; // x=10, y= 6, mapped pin D7
pins_h |= (0x04u & p[11]) << 3; // x=10, y= 5, mapped pin D8 if (0x04u & p[15]) pins_h |= 0x08; // x=10, y= 7, mapped pin D6
pins_h |= (0x04u & p[13]) << 2; // x=10, y= 6, mapped pin D7 if (0x04u & p[17]) pins_e |= 0x08; // x=10, y= 8, mapped pin D5
pins_h |= (0x04u & p[15]) << 1; // x=10, y= 7, mapped pin D6 if (0x10u & p[ 8]) pins_g |= 0x20; // x= 4, y= 4, mapped pin D4
break; break;
case 8: case 8:
pins_b |= (0x01u & p[ 1]) << 7; // x= 8, y= 0, mapped pin D13 if (0x01u & p[ 1]) pins_b |= 0x80; // x= 8, y= 0, mapped pin D13
pins_b |= (0x01u & p[ 3]) << 6; // x= 8, y= 1, mapped pin D12 if (0x01u & p[ 3]) pins_b |= 0x40; // x= 8, y= 1, mapped pin D12
pins_b |= (0x01u & p[ 5]) << 5; // x= 8, y= 2, mapped pin D11 if (0x01u & p[ 5]) pins_b |= 0x20; // x= 8, y= 2, mapped pin D11
pins_e |= (0x01u & p[ 6]) << 4; // x= 0, y= 3, mapped pin D2 if (0x01u & p[ 6]) pins_e |= 0x10; // x= 0, y= 3, mapped pin D2
pins_e |= (0x02u & p[17]) << 2; // x= 9, y= 8, mapped pin D5 if (0x02u & p[ 9]) pins_h |= 0x40; // x= 9, y= 4, mapped pin D9
pins_e |= (0x04u & p[ 6]) << 3; // x= 2, y= 3, mapped pin D3 if (0x02u & p[11]) pins_h |= 0x20; // x= 9, y= 5, mapped pin D8
pins_g |= (0x10u & p[ 6]) << 1; // x= 4, y= 3, mapped pin D4 if (0x02u & p[13]) pins_h |= 0x10; // x= 9, y= 6, mapped pin D7
pins_h |= (0x02u & p[ 9]) << 5; // x= 9, y= 4, mapped pin D9 if (0x02u & p[15]) pins_h |= 0x08; // x= 9, y= 7, mapped pin D6
pins_h |= (0x02u & p[11]) << 4; // x= 9, y= 5, mapped pin D8 if (0x02u & p[17]) pins_e |= 0x08; // x= 9, y= 8, mapped pin D5
pins_h |= (0x02u & p[13]) << 3; // x= 9, y= 6, mapped pin D7 if (0x04u & p[ 6]) pins_e |= 0x20; // x= 2, y= 3, mapped pin D3
pins_h |= (0x02u & p[15]) << 2; // x= 9, y= 7, mapped pin D6 if (0x10u & p[ 6]) pins_g |= 0x20; // x= 4, y= 3, mapped pin D4
break; break;
case 9: case 9:
pins_b |= (0x01u & p[ 7]) << 4; // x= 8, y= 3, mapped pin D10 if (0x01u & p[ 4]) pins_e |= 0x10; // x= 0, y= 2, mapped pin D2
pins_b |= (0x80u & p[ 0]); // x= 7, y= 0, mapped pin D13 if (0x01u & p[ 7]) pins_b |= 0x10; // x= 8, y= 3, mapped pin D10
pins_b |= (0x80u & p[ 2]) >> 1; // x= 7, y= 1, mapped pin D12 if (0x01u & p[ 9]) pins_h |= 0x40; // x= 8, y= 4, mapped pin D9
pins_e |= (0x01u & p[ 4]) << 4; // x= 0, y= 2, mapped pin D2 if (0x01u & p[11]) pins_h |= 0x20; // x= 8, y= 5, mapped pin D8
pins_e |= (0x01u & p[17]) << 3; // x= 8, y= 8, mapped pin D5 if (0x01u & p[13]) pins_h |= 0x10; // x= 8, y= 6, mapped pin D7
pins_e |= (0x04u & p[ 4]) << 3; // x= 2, y= 2, mapped pin D3 if (0x01u & p[15]) pins_h |= 0x08; // x= 8, y= 7, mapped pin D6
pins_g |= (0x10u & p[ 4]) << 1; // x= 4, y= 2, mapped pin D4 if (0x01u & p[17]) pins_e |= 0x08; // x= 8, y= 8, mapped pin D5
pins_h |= (0x01u & p[ 9]) << 6; // x= 8, y= 4, mapped pin D9 if (0x04u & p[ 4]) pins_e |= 0x20; // x= 2, y= 2, mapped pin D3
pins_h |= (0x01u & p[11]) << 5; // x= 8, y= 5, mapped pin D8 if (0x10u & p[ 4]) pins_g |= 0x20; // x= 4, y= 2, mapped pin D4
pins_h |= (0x01u & p[13]) << 4; // x= 8, y= 6, mapped pin D7 if (0x80u & p[ 2]) pins_b |= 0x40; // x= 7, y= 1, mapped pin D12
pins_h |= (0x01u & p[15]) << 3; // x= 8, y= 7, mapped pin D6 pins_b |= (0x80u & p[ 0]); // x= 7, y= 0, mapped pin D13
break; break;
case 10: case 10:
pins_b |= (0x40u & p[ 0]) << 1; // x= 6, y= 0, mapped pin D13 if (0x01u & p[ 2]) pins_e |= 0x10; // x= 0, y= 1, mapped pin D2
pins_b |= (0x80u & p[ 4]) >> 2; // x= 7, y= 2, mapped pin D11 if (0x04u & p[ 2]) pins_e |= 0x20; // x= 2, y= 1, mapped pin D3
pins_b |= (0x80u & p[ 6]) >> 3; // x= 7, y= 3, mapped pin D10 if (0x10u & p[ 2]) pins_g |= 0x20; // x= 4, y= 1, mapped pin D4
pins_e |= (0x01u & p[ 2]) << 4; // x= 0, y= 1, mapped pin D2 if (0x40u & p[ 0]) pins_b |= 0x80; // x= 6, y= 0, mapped pin D13
pins_e |= (0x04u & p[ 2]) << 3; // x= 2, y= 1, mapped pin D3 if (0x80u & p[ 4]) pins_b |= 0x20; // x= 7, y= 2, mapped pin D11
pins_e |= (0x80u & p[16]) >> 4; // x= 7, y= 8, mapped pin D5 if (0x80u & p[ 6]) pins_b |= 0x10; // x= 7, y= 3, mapped pin D10
pins_g |= (0x10u & p[ 2]) << 1; // x= 4, y= 1, mapped pin D4 if (0x80u & p[ 8]) pins_h |= 0x40; // x= 7, y= 4, mapped pin D9
pins_h |= (0x80u & p[ 8]) >> 1; // x= 7, y= 4, mapped pin D9 if (0x80u & p[10]) pins_h |= 0x20; // x= 7, y= 5, mapped pin D8
pins_h |= (0x80u & p[10]) >> 2; // x= 7, y= 5, mapped pin D8 if (0x80u & p[12]) pins_h |= 0x10; // x= 7, y= 6, mapped pin D7
pins_h |= (0x80u & p[12]) >> 3; // x= 7, y= 6, mapped pin D7 if (0x80u & p[14]) pins_h |= 0x08; // x= 7, y= 7, mapped pin D6
pins_h |= (0x80u & p[14]) >> 4; // x= 7, y= 7, mapped pin D6 if (0x80u & p[16]) pins_e |= 0x08; // x= 7, y= 8, mapped pin D5
break; break;
case 11: case 11:
pins_b |= (0x40u & p[ 2]); // x= 6, y= 1, mapped pin D12 if (0x01u & p[ 0]) pins_e |= 0x10; // x= 0, y= 0, mapped pin D2
pins_b |= (0x40u & p[ 4]) >> 1; // x= 6, y= 2, mapped pin D11 if (0x04u & p[ 0]) pins_e |= 0x20; // x= 2, y= 0, mapped pin D3
pins_b |= (0x40u & p[ 6]) >> 2; // x= 6, y= 3, mapped pin D10 if (0x10u & p[ 0]) pins_g |= 0x20; // x= 4, y= 0, mapped pin D4
pins_e |= (0x01u & p[ 0]) << 4; // x= 0, y= 0, mapped pin D2 if (0x40u & p[ 4]) pins_b |= 0x20; // x= 6, y= 2, mapped pin D11
pins_e |= (0x04u & p[ 0]) << 3; // x= 2, y= 0, mapped pin D3 if (0x40u & p[ 6]) pins_b |= 0x10; // x= 6, y= 3, mapped pin D10
pins_e |= (0x40u & p[16]) >> 3; // x= 6, y= 8, mapped pin D5 if (0x40u & p[10]) pins_h |= 0x20; // x= 6, y= 5, mapped pin D8
pins_g |= (0x10u & p[ 0]) << 1; // x= 4, y= 0, mapped pin D4 if (0x40u & p[12]) pins_h |= 0x10; // x= 6, y= 6, mapped pin D7
pins_h |= (0x40u & p[ 8]); // x= 6, y= 4, mapped pin D9 if (0x40u & p[14]) pins_h |= 0x08; // x= 6, y= 7, mapped pin D6
pins_h |= (0x40u & p[10]) >> 1; // x= 6, y= 5, mapped pin D8 if (0x40u & p[16]) pins_e |= 0x08; // x= 6, y= 8, mapped pin D5
pins_h |= (0x40u & p[12]) >> 2; // x= 6, y= 6, mapped pin D7 pins_b |= (0x40u & p[ 2]); // x= 6, y= 1, mapped pin D12
pins_h |= (0x40u & p[14]) >> 3; // x= 6, y= 7, mapped pin D6 pins_h |= (0x40u & p[ 8]); // x= 6, y= 4, mapped pin D9
break; break;
} }
} }
@ -495,160 +493,158 @@ static void compose_cycle(uint8_t const cycle, uint8_t plane) {
uint8_t pins_e = sink_e = pgm_read_byte(&sink_e_cycle[cycle]); uint8_t pins_e = sink_e = pgm_read_byte(&sink_e_cycle[cycle]);
// convert Borgware-2D framebuffer to LoL Shield cycles on Arduino Leonardo // convert Borgware-2D framebuffer to LoL Shield cycles on Arduino Leonardo
// (I could have done this with a lookup table, but that would be slower as
// non-constant bit shifts are quite expensive on AVR)
// NOTE: (0,0) is UPPER RIGHT in the Borgware realm // NOTE: (0,0) is UPPER RIGHT in the Borgware realm
if (plane < NUMPLANE) { if (plane < NUMPLANE) {
switch(cycle) { switch(cycle) {
case 0: case 0:
pins_b |= (0x02u & p[ 4]) << 6; // x= 1, y= 2, mapped pin D11 if (0x02u & p[ 0]) pins_c |= 0x80; // x= 1, y= 0, mapped pin D13
pins_b |= (0x02u & p[ 6]) << 5; // x= 1, y= 3, mapped pin D10 if (0x02u & p[ 2]) pins_d |= 0x40; // x= 1, y= 1, mapped pin D12
pins_b |= (0x02u & p[ 8]) << 4; // x= 1, y= 4, mapped pin D9 if (0x02u & p[ 4]) pins_b |= 0x80; // x= 1, y= 2, mapped pin D11
pins_b |= (0x02u & p[10]) << 3; // x= 1, y= 5, mapped pin D8 if (0x02u & p[ 6]) pins_b |= 0x40; // x= 1, y= 3, mapped pin D10
pins_c |= (0x02u & p[ 0]) << 6; // x= 1, y= 0, mapped pin D13 if (0x02u & p[ 8]) pins_b |= 0x20; // x= 1, y= 4, mapped pin D9
pins_c |= (0x02u & p[16]) << 5; // x= 1, y= 8, mapped pin D5 if (0x02u & p[10]) pins_b |= 0x10; // x= 1, y= 5, mapped pin D8
pins_d |= (0x02u & p[ 2]) << 5; // x= 1, y= 1, mapped pin D12 if (0x02u & p[12]) pins_e |= 0x40; // x= 1, y= 6, mapped pin D7
pins_d |= (0x02u & p[14]) << 6; // x= 1, y= 7, mapped pin D6 if (0x02u & p[14]) pins_d |= 0x80; // x= 1, y= 7, mapped pin D6
pins_e |= (0x02u & p[12]) << 5; // x= 1, y= 6, mapped pin D7 if (0x02u & p[16]) pins_c |= 0x40; // x= 1, y= 8, mapped pin D5
break; break;
case 1: case 1:
pins_b |= (0x08u & p[ 4]) << 4; // x= 3, y= 2, mapped pin D11 if (0x08u & p[ 0]) pins_c |= 0x80; // x= 3, y= 0, mapped pin D13
pins_b |= (0x08u & p[ 6]) << 3; // x= 3, y= 3, mapped pin D10 if (0x08u & p[ 2]) pins_d |= 0x40; // x= 3, y= 1, mapped pin D12
pins_b |= (0x08u & p[ 8]) << 2; // x= 3, y= 4, mapped pin D9 if (0x08u & p[ 4]) pins_b |= 0x80; // x= 3, y= 2, mapped pin D11
pins_b |= (0x08u & p[10]) << 1; // x= 3, y= 5, mapped pin D8 if (0x08u & p[ 6]) pins_b |= 0x40; // x= 3, y= 3, mapped pin D10
pins_c |= (0x08u & p[ 0]) << 4; // x= 3, y= 0, mapped pin D13 if (0x08u & p[ 8]) pins_b |= 0x20; // x= 3, y= 4, mapped pin D9
pins_c |= (0x08u & p[16]) << 3; // x= 3, y= 8, mapped pin D5 if (0x08u & p[10]) pins_b |= 0x10; // x= 3, y= 5, mapped pin D8
pins_d |= (0x08u & p[ 2]) << 3; // x= 3, y= 1, mapped pin D12 if (0x08u & p[12]) pins_e |= 0x40; // x= 3, y= 6, mapped pin D7
pins_d |= (0x08u & p[14]) << 4; // x= 3, y= 7, mapped pin D6 if (0x08u & p[14]) pins_d |= 0x80; // x= 3, y= 7, mapped pin D6
pins_e |= (0x08u & p[12]) << 3; // x= 3, y= 6, mapped pin D7 if (0x08u & p[16]) pins_c |= 0x40; // x= 3, y= 8, mapped pin D5
break; break;
case 2: case 2:
pins_b |= (0x20u & p[ 4]) << 2; // x= 5, y= 2, mapped pin D11 if (0x20u & p[ 0]) pins_c |= 0x80; // x= 5, y= 0, mapped pin D13
pins_b |= (0x20u & p[ 6]) << 1; // x= 5, y= 3, mapped pin D10 if (0x20u & p[ 2]) pins_d |= 0x40; // x= 5, y= 1, mapped pin D12
pins_b |= (0x20u & p[ 8]); // x= 5, y= 4, mapped pin D9 if (0x20u & p[ 4]) pins_b |= 0x80; // x= 5, y= 2, mapped pin D11
pins_b |= (0x20u & p[10]) >> 1; // x= 5, y= 5, mapped pin D8 if (0x20u & p[ 6]) pins_b |= 0x40; // x= 5, y= 3, mapped pin D10
pins_c |= (0x20u & p[ 0]) << 2; // x= 5, y= 0, mapped pin D13 if (0x20u & p[10]) pins_b |= 0x10; // x= 5, y= 5, mapped pin D8
pins_c |= (0x20u & p[16]) << 1; // x= 5, y= 8, mapped pin D5 if (0x20u & p[12]) pins_e |= 0x40; // x= 5, y= 6, mapped pin D7
pins_d |= (0x20u & p[ 2]) << 1; // x= 5, y= 1, mapped pin D12 if (0x20u & p[14]) pins_d |= 0x80; // x= 5, y= 7, mapped pin D6
pins_d |= (0x20u & p[14]) << 2; // x= 5, y= 7, mapped pin D6 if (0x20u & p[16]) pins_c |= 0x40; // x= 5, y= 8, mapped pin D5
pins_e |= (0x20u & p[12]) << 1; // x= 5, y= 6, mapped pin D7 pins_b |= (0x20u & p[ 8]); // x= 5, y= 4, mapped pin D9
break; break;
case 3: case 3:
pins_b |= (0x20u & p[ 5]) << 2; // x=13, y= 2, mapped pin D11 if (0x01u & p[16]) pins_d |= 0x02; // x= 0, y= 8, mapped pin D2
pins_b |= (0x20u & p[ 7]) << 1; // x=13, y= 3, mapped pin D10 if (0x04u & p[16]) pins_d |= 0x01; // x= 2, y= 8, mapped pin D3
pins_b |= (0x20u & p[ 9]); // x=13, y= 4, mapped pin D9 if (0x20u & p[ 1]) pins_c |= 0x80; // x=13, y= 0, mapped pin D13
pins_b |= (0x20u & p[11]) >> 1; // x=13, y= 5, mapped pin D8 if (0x20u & p[ 3]) pins_d |= 0x40; // x=13, y= 1, mapped pin D12
pins_c |= (0x20u & p[ 1]) << 2; // x=13, y= 0, mapped pin D13 if (0x20u & p[ 5]) pins_b |= 0x80; // x=13, y= 2, mapped pin D11
pins_d |= (0x01u & p[16]) << 1; // x= 0, y= 8, mapped pin D2 if (0x20u & p[ 7]) pins_b |= 0x40; // x=13, y= 3, mapped pin D10
pins_d |= (0x04u & p[16]) >> 2; // x= 2, y= 8, mapped pin D3 if (0x20u & p[11]) pins_b |= 0x10; // x=13, y= 5, mapped pin D8
pins_d |= (0x10u & p[16]); // x= 4, y= 8, mapped pin D4 if (0x20u & p[13]) pins_e |= 0x40; // x=13, y= 6, mapped pin D7
pins_d |= (0x20u & p[ 3]) << 1; // x=13, y= 1, mapped pin D12 if (0x20u & p[15]) pins_d |= 0x80; // x=13, y= 7, mapped pin D6
pins_d |= (0x20u & p[15]) << 2; // x=13, y= 7, mapped pin D6 pins_b |= (0x20u & p[ 9]); // x=13, y= 4, mapped pin D9
pins_e |= (0x20u & p[13]) << 1; // x=13, y= 6, mapped pin D7 pins_d |= (0x10u & p[16]); // x= 4, y= 8, mapped pin D4
break; break;
case 4: case 4:
pins_b |= (0x10u & p[ 5]) << 3; // x=12, y= 2, mapped pin D11 if (0x01u & p[14]) pins_d |= 0x02; // x= 0, y= 7, mapped pin D2
pins_b |= (0x10u & p[ 7]) << 2; // x=12, y= 3, mapped pin D10 if (0x04u & p[14]) pins_d |= 0x01; // x= 2, y= 7, mapped pin D3
pins_b |= (0x10u & p[ 9]) << 1; // x=12, y= 4, mapped pin D9 if (0x10u & p[ 1]) pins_c |= 0x80; // x=12, y= 0, mapped pin D13
pins_b |= (0x10u & p[11]); // x=12, y= 5, mapped pin D8 if (0x10u & p[ 3]) pins_d |= 0x40; // x=12, y= 1, mapped pin D12
pins_c |= (0x10u & p[ 1]) << 3; // x=12, y= 0, mapped pin D13 if (0x10u & p[ 5]) pins_b |= 0x80; // x=12, y= 2, mapped pin D11
pins_c |= (0x20u & p[17]) << 1; // x=13, y= 8, mapped pin D5 if (0x10u & p[ 7]) pins_b |= 0x40; // x=12, y= 3, mapped pin D10
pins_d |= (0x01u & p[14]) << 1; // x= 0, y= 7, mapped pin D2 if (0x10u & p[ 9]) pins_b |= 0x20; // x=12, y= 4, mapped pin D9
pins_d |= (0x04u & p[14]) >> 2; // x= 2, y= 7, mapped pin D3 if (0x10u & p[13]) pins_e |= 0x40; // x=12, y= 6, mapped pin D7
pins_d |= (0x10u & p[ 3]) << 2; // x=12, y= 1, mapped pin D12 if (0x20u & p[17]) pins_c |= 0x40; // x=13, y= 8, mapped pin D5
pins_d |= (0x10u & p[14]); // x= 4, y= 7, mapped pin D4 pins_b |= (0x10u & p[11]); // x=12, y= 5, mapped pin D8
pins_e |= (0x10u & p[13]) << 2; // x=12, y= 6, mapped pin D7 pins_d |= (0x10u & p[14]); // x= 4, y= 7, mapped pin D4
break; break;
case 5: case 5:
pins_b |= (0x08u & p[ 5]) << 4; // x=11, y= 2, mapped pin D11 if (0x01u & p[12]) pins_d |= 0x02; // x= 0, y= 6, mapped pin D2
pins_b |= (0x08u & p[ 7]) << 3; // x=11, y= 3, mapped pin D10 if (0x04u & p[12]) pins_d |= 0x01; // x= 2, y= 6, mapped pin D3
pins_b |= (0x08u & p[ 9]) << 2; // x=11, y= 4, mapped pin D9 if (0x08u & p[ 1]) pins_c |= 0x80; // x=11, y= 0, mapped pin D13
pins_b |= (0x08u & p[11]) << 1; // x=11, y= 5, mapped pin D8 if (0x08u & p[ 3]) pins_d |= 0x40; // x=11, y= 1, mapped pin D12
pins_c |= (0x08u & p[ 1]) << 4; // x=11, y= 0, mapped pin D13 if (0x08u & p[ 5]) pins_b |= 0x80; // x=11, y= 2, mapped pin D11
pins_c |= (0x10u & p[17]) << 2; // x=12, y= 8, mapped pin D5 if (0x08u & p[ 7]) pins_b |= 0x40; // x=11, y= 3, mapped pin D10
pins_d |= (0x01u & p[12]) << 1; // x= 0, y= 6, mapped pin D2 if (0x08u & p[ 9]) pins_b |= 0x20; // x=11, y= 4, mapped pin D9
pins_d |= (0x04u & p[12]) >> 2; // x= 2, y= 6, mapped pin D3 if (0x08u & p[11]) pins_b |= 0x10; // x=11, y= 5, mapped pin D8
pins_d |= (0x08u & p[ 3]) << 3; // x=11, y= 1, mapped pin D12 if (0x10u & p[15]) pins_d |= 0x80; // x=12, y= 7, mapped pin D6
pins_d |= (0x10u & p[12]); // x= 4, y= 6, mapped pin D4 if (0x10u & p[17]) pins_c |= 0x40; // x=12, y= 8, mapped pin D5
pins_d |= (0x10u & p[15]) << 3; // x=12, y= 7, mapped pin D6 pins_d |= (0x10u & p[12]); // x= 4, y= 6, mapped pin D4
break; break;
case 6: case 6:
pins_b |= (0x04u & p[ 5]) << 5; // x=10, y= 2, mapped pin D11 if (0x01u & p[10]) pins_d |= 0x02; // x= 0, y= 5, mapped pin D2
pins_b |= (0x04u & p[ 7]) << 4; // x=10, y= 3, mapped pin D10 if (0x04u & p[ 1]) pins_c |= 0x80; // x=10, y= 0, mapped pin D13
pins_b |= (0x04u & p[ 9]) << 3; // x=10, y= 4, mapped pin D9 if (0x04u & p[ 3]) pins_d |= 0x40; // x=10, y= 1, mapped pin D12
pins_c |= (0x04u & p[ 1]) << 5; // x=10, y= 0, mapped pin D13 if (0x04u & p[ 5]) pins_b |= 0x80; // x=10, y= 2, mapped pin D11
pins_c |= (0x08u & p[17]) << 3; // x=11, y= 8, mapped pin D5 if (0x04u & p[ 7]) pins_b |= 0x40; // x=10, y= 3, mapped pin D10
pins_d |= (0x01u & p[10]) << 1; // x= 0, y= 5, mapped pin D2 if (0x04u & p[ 9]) pins_b |= 0x20; // x=10, y= 4, mapped pin D9
pins_d |= (0x04u & p[ 3]) << 4; // x=10, y= 1, mapped pin D12 if (0x04u & p[10]) pins_d |= 0x01; // x= 2, y= 5, mapped pin D3
pins_d |= (0x04u & p[10]) >> 2; // x= 2, y= 5, mapped pin D3 if (0x08u & p[13]) pins_e |= 0x40; // x=11, y= 6, mapped pin D7
pins_d |= (0x08u & p[15]) << 4; // x=11, y= 7, mapped pin D6 if (0x08u & p[15]) pins_d |= 0x80; // x=11, y= 7, mapped pin D6
pins_d |= (0x10u & p[10]); // x= 4, y= 5, mapped pin D4 if (0x08u & p[17]) pins_c |= 0x40; // x=11, y= 8, mapped pin D5
pins_e |= (0x08u & p[13]) << 3; // x=11, y= 6, mapped pin D7 pins_d |= (0x10u & p[10]); // x= 4, y= 5, mapped pin D4
break; break;
case 7: case 7:
pins_b |= (0x02u & p[ 5]) << 6; // x= 9, y= 2, mapped pin D11 if (0x01u & p[ 8]) pins_d |= 0x02; // x= 0, y= 4, mapped pin D2
pins_b |= (0x02u & p[ 7]) << 5; // x= 9, y= 3, mapped pin D10 if (0x02u & p[ 1]) pins_c |= 0x80; // x= 9, y= 0, mapped pin D13
pins_b |= (0x04u & p[11]) << 2; // x=10, y= 5, mapped pin D8 if (0x02u & p[ 3]) pins_d |= 0x40; // x= 9, y= 1, mapped pin D12
pins_c |= (0x02u & p[ 1]) << 6; // x= 9, y= 0, mapped pin D13 if (0x02u & p[ 5]) pins_b |= 0x80; // x= 9, y= 2, mapped pin D11
pins_c |= (0x04u & p[17]) << 4; // x=10, y= 8, mapped pin D5 if (0x02u & p[ 7]) pins_b |= 0x40; // x= 9, y= 3, mapped pin D10
pins_d |= (0x01u & p[ 8]) << 1; // x= 0, y= 4, mapped pin D2 if (0x04u & p[ 8]) pins_d |= 0x01; // x= 2, y= 4, mapped pin D3
pins_d |= (0x02u & p[ 3]) << 5; // x= 9, y= 1, mapped pin D12 if (0x04u & p[11]) pins_b |= 0x10; // x=10, y= 5, mapped pin D8
pins_d |= (0x04u & p[ 8]) >> 2; // x= 2, y= 4, mapped pin D3 if (0x04u & p[13]) pins_e |= 0x40; // x=10, y= 6, mapped pin D7
pins_d |= (0x04u & p[15]) << 5; // x=10, y= 7, mapped pin D6 if (0x04u & p[15]) pins_d |= 0x80; // x=10, y= 7, mapped pin D6
pins_d |= (0x10u & p[ 8]); // x= 4, y= 4, mapped pin D4 if (0x04u & p[17]) pins_c |= 0x40; // x=10, y= 8, mapped pin D5
pins_e |= (0x04u & p[13]) << 4; // x=10, y= 6, mapped pin D7 pins_d |= (0x10u & p[ 8]); // x= 4, y= 4, mapped pin D4
break; break;
case 8: case 8:
pins_b |= (0x01u & p[ 5]) << 7; // x= 8, y= 2, mapped pin D11 if (0x01u & p[ 1]) pins_c |= 0x80; // x= 8, y= 0, mapped pin D13
pins_b |= (0x02u & p[ 9]) << 4; // x= 9, y= 4, mapped pin D9 if (0x01u & p[ 3]) pins_d |= 0x40; // x= 8, y= 1, mapped pin D12
pins_b |= (0x02u & p[11]) << 3; // x= 9, y= 5, mapped pin D8 if (0x01u & p[ 5]) pins_b |= 0x80; // x= 8, y= 2, mapped pin D11
pins_c |= (0x01u & p[ 1]) << 7; // x= 8, y= 0, mapped pin D13 if (0x01u & p[ 6]) pins_d |= 0x02; // x= 0, y= 3, mapped pin D2
pins_c |= (0x02u & p[17]) << 5; // x= 9, y= 8, mapped pin D5 if (0x02u & p[ 9]) pins_b |= 0x20; // x= 9, y= 4, mapped pin D9
pins_d |= (0x01u & p[ 3]) << 6; // x= 8, y= 1, mapped pin D12 if (0x02u & p[11]) pins_b |= 0x10; // x= 9, y= 5, mapped pin D8
pins_d |= (0x01u & p[ 6]) << 1; // x= 0, y= 3, mapped pin D2 if (0x02u & p[13]) pins_e |= 0x40; // x= 9, y= 6, mapped pin D7
pins_d |= (0x02u & p[15]) << 6; // x= 9, y= 7, mapped pin D6 if (0x02u & p[15]) pins_d |= 0x80; // x= 9, y= 7, mapped pin D6
pins_d |= (0x04u & p[ 6]) >> 2; // x= 2, y= 3, mapped pin D3 if (0x02u & p[17]) pins_c |= 0x40; // x= 9, y= 8, mapped pin D5
pins_d |= (0x10u & p[ 6]); // x= 4, y= 3, mapped pin D4 if (0x04u & p[ 6]) pins_d |= 0x01; // x= 2, y= 3, mapped pin D3
pins_e |= (0x02u & p[13]) << 5; // x= 9, y= 6, mapped pin D7 pins_d |= (0x10u & p[ 6]); // x= 4, y= 3, mapped pin D4
break; break;
case 9: case 9:
pins_b |= (0x01u & p[ 7]) << 6; // x= 8, y= 3, mapped pin D10 if (0x01u & p[ 4]) pins_d |= 0x02; // x= 0, y= 2, mapped pin D2
pins_b |= (0x01u & p[ 9]) << 5; // x= 8, y= 4, mapped pin D9 if (0x01u & p[ 7]) pins_b |= 0x40; // x= 8, y= 3, mapped pin D10
pins_b |= (0x01u & p[11]) << 4; // x= 8, y= 5, mapped pin D8 if (0x01u & p[ 9]) pins_b |= 0x20; // x= 8, y= 4, mapped pin D9
pins_c |= (0x01u & p[17]) << 6; // x= 8, y= 8, mapped pin D5 if (0x01u & p[11]) pins_b |= 0x10; // x= 8, y= 5, mapped pin D8
pins_c |= (0x80u & p[ 0]); // x= 7, y= 0, mapped pin D13 if (0x01u & p[13]) pins_e |= 0x40; // x= 8, y= 6, mapped pin D7
pins_d |= (0x01u & p[ 4]) << 1; // x= 0, y= 2, mapped pin D2 if (0x01u & p[15]) pins_d |= 0x80; // x= 8, y= 7, mapped pin D6
pins_d |= (0x01u & p[15]) << 7; // x= 8, y= 7, mapped pin D6 if (0x01u & p[17]) pins_c |= 0x40; // x= 8, y= 8, mapped pin D5
pins_d |= (0x04u & p[ 4]) >> 2; // x= 2, y= 2, mapped pin D3 if (0x04u & p[ 4]) pins_d |= 0x01; // x= 2, y= 2, mapped pin D3
pins_d |= (0x10u & p[ 4]); // x= 4, y= 2, mapped pin D4 if (0x80u & p[ 2]) pins_d |= 0x40; // x= 7, y= 1, mapped pin D12
pins_d |= (0x80u & p[ 2]) >> 1; // x= 7, y= 1, mapped pin D12 pins_c |= (0x80u & p[ 0]); // x= 7, y= 0, mapped pin D13
pins_e |= (0x01u & p[13]) << 6; // x= 8, y= 6, mapped pin D7 pins_d |= (0x10u & p[ 4]); // x= 4, y= 2, mapped pin D4
break; break;
case 10: case 10:
pins_b |= (0x80u & p[ 4]); // x= 7, y= 2, mapped pin D11 if (0x01u & p[ 2]) pins_d |= 0x02; // x= 0, y= 1, mapped pin D2
pins_b |= (0x80u & p[ 6]) >> 1; // x= 7, y= 3, mapped pin D10 if (0x04u & p[ 2]) pins_d |= 0x01; // x= 2, y= 1, mapped pin D3
pins_b |= (0x80u & p[ 8]) >> 2; // x= 7, y= 4, mapped pin D9 if (0x40u & p[ 0]) pins_c |= 0x80; // x= 6, y= 0, mapped pin D13
pins_b |= (0x80u & p[10]) >> 3; // x= 7, y= 5, mapped pin D8 if (0x80u & p[ 6]) pins_b |= 0x40; // x= 7, y= 3, mapped pin D10
pins_c |= (0x40u & p[ 0]) << 1; // x= 6, y= 0, mapped pin D13 if (0x80u & p[ 8]) pins_b |= 0x20; // x= 7, y= 4, mapped pin D9
pins_c |= (0x80u & p[16]) >> 1; // x= 7, y= 8, mapped pin D5 if (0x80u & p[10]) pins_b |= 0x10; // x= 7, y= 5, mapped pin D8
pins_d |= (0x01u & p[ 2]) << 1; // x= 0, y= 1, mapped pin D2 if (0x80u & p[12]) pins_e |= 0x40; // x= 7, y= 6, mapped pin D7
pins_d |= (0x04u & p[ 2]) >> 2; // x= 2, y= 1, mapped pin D3 if (0x80u & p[16]) pins_c |= 0x40; // x= 7, y= 8, mapped pin D5
pins_d |= (0x10u & p[ 2]); // x= 4, y= 1, mapped pin D4 pins_b |= (0x80u & p[ 4]); // x= 7, y= 2, mapped pin D11
pins_d |= (0x80u & p[14]); // x= 7, y= 7, mapped pin D6 pins_d |= (0x10u & p[ 2]); // x= 4, y= 1, mapped pin D4
pins_e |= (0x80u & p[12]) >> 1; // x= 7, y= 6, mapped pin D7 pins_d |= (0x80u & p[14]); // x= 7, y= 7, mapped pin D6
break; break;
case 11: case 11:
pins_b |= (0x40u & p[ 4]) << 1; // x= 6, y= 2, mapped pin D11 if (0x01u & p[ 0]) pins_d |= 0x02; // x= 0, y= 0, mapped pin D2
pins_b |= (0x40u & p[ 6]); // x= 6, y= 3, mapped pin D10 if (0x04u & p[ 0]) pins_d |= 0x01; // x= 2, y= 0, mapped pin D3
pins_b |= (0x40u & p[ 8]) >> 1; // x= 6, y= 4, mapped pin D9 if (0x40u & p[ 4]) pins_b |= 0x80; // x= 6, y= 2, mapped pin D11
pins_b |= (0x40u & p[10]) >> 2; // x= 6, y= 5, mapped pin D8 if (0x40u & p[ 8]) pins_b |= 0x20; // x= 6, y= 4, mapped pin D9
pins_c |= (0x40u & p[16]); // x= 6, y= 8, mapped pin D5 if (0x40u & p[10]) pins_b |= 0x10; // x= 6, y= 5, mapped pin D8
pins_d |= (0x01u & p[ 0]) << 1; // x= 0, y= 0, mapped pin D2 if (0x40u & p[14]) pins_d |= 0x80; // x= 6, y= 7, mapped pin D6
pins_d |= (0x04u & p[ 0]) >> 2; // x= 2, y= 0, mapped pin D3 pins_b |= (0x40u & p[ 6]); // x= 6, y= 3, mapped pin D10
pins_d |= (0x10u & p[ 0]); // x= 4, y= 0, mapped pin D4 pins_c |= (0x40u & p[16]); // x= 6, y= 8, mapped pin D5
pins_d |= (0x40u & p[ 2]); // x= 6, y= 1, mapped pin D12 pins_d |= (0x10u & p[ 0]); // x= 4, y= 0, mapped pin D4
pins_d |= (0x40u & p[14]) << 1; // x= 6, y= 7, mapped pin D6 pins_d |= (0x40u & p[ 2]); // x= 6, y= 1, mapped pin D12
pins_e |= (0x40u & p[12]); // x= 6, y= 6, mapped pin D7 pins_e |= (0x40u & p[12]); // x= 6, y= 6, mapped pin D7
break; break;
} }
} }
@ -689,160 +685,158 @@ static void compose_cycle(uint8_t const cycle, uint8_t plane) {
uint8_t pins_b = sink_b = pgm_read_byte(&sink_b_cycle[cycle]); uint8_t pins_b = sink_b = pgm_read_byte(&sink_b_cycle[cycle]);
// convert Borgware-2D framebuffer to LoL Shield cycles on Diavolino // convert Borgware-2D framebuffer to LoL Shield cycles on Diavolino
// (I could have done this with a lookup table, but that would be slower as
// non-constant bit shifts are quite expensive on AVR)
// NOTE: (0,0) is UPPER RIGHT in the Borgware realm // NOTE: (0,0) is UPPER RIGHT in the Borgware realm
if (plane < NUMPLANE) { if (plane < NUMPLANE) {
switch(cycle) { switch(cycle) {
case 0: case 0:
pins_b |= (0x02u & p[ 0]) << 4; // x= 1, y= 0, mapped pin D13 if (0x02u & p[ 0]) pins_b |= 0x20; // x= 1, y= 0, mapped pin D13
pins_b |= (0x02u & p[ 2]) << 3; // x= 1, y= 1, mapped pin D12 if (0x02u & p[ 2]) pins_b |= 0x10; // x= 1, y= 1, mapped pin D12
pins_b |= (0x02u & p[ 4]) << 2; // x= 1, y= 2, mapped pin D11 if (0x02u & p[ 4]) pins_b |= 0x08; // x= 1, y= 2, mapped pin D11
pins_b |= (0x02u & p[ 6]) << 1; // x= 1, y= 3, mapped pin D10 if (0x02u & p[ 6]) pins_b |= 0x04; // x= 1, y= 3, mapped pin D10
pins_b |= (0x02u & p[ 8]); // x= 1, y= 4, mapped pin D9 if (0x02u & p[10]) pins_b |= 0x01; // x= 1, y= 5, mapped pin D8
pins_b |= (0x02u & p[10]) >> 1; // x= 1, y= 5, mapped pin D8 if (0x02u & p[12]) pins_d |= 0x80; // x= 1, y= 6, mapped pin D7
pins_d |= (0x02u & p[12]) << 6; // x= 1, y= 6, mapped pin D7 if (0x02u & p[14]) pins_d |= 0x40; // x= 1, y= 7, mapped pin D6
pins_d |= (0x02u & p[14]) << 5; // x= 1, y= 7, mapped pin D6 if (0x02u & p[16]) pins_d |= 0x20; // x= 1, y= 8, mapped pin D5
pins_d |= (0x02u & p[16]) << 4; // x= 1, y= 8, mapped pin D5 pins_b |= (0x02u & p[ 8]); // x= 1, y= 4, mapped pin D9
break; break;
case 1: case 1:
pins_b |= (0x08u & p[ 0]) << 2; // x= 3, y= 0, mapped pin D13 if (0x08u & p[ 0]) pins_b |= 0x20; // x= 3, y= 0, mapped pin D13
pins_b |= (0x08u & p[ 2]) << 1; // x= 3, y= 1, mapped pin D12 if (0x08u & p[ 2]) pins_b |= 0x10; // x= 3, y= 1, mapped pin D12
pins_b |= (0x08u & p[ 4]); // x= 3, y= 2, mapped pin D11 if (0x08u & p[ 6]) pins_b |= 0x04; // x= 3, y= 3, mapped pin D10
pins_b |= (0x08u & p[ 6]) >> 1; // x= 3, y= 3, mapped pin D10 if (0x08u & p[ 8]) pins_b |= 0x02; // x= 3, y= 4, mapped pin D9
pins_b |= (0x08u & p[ 8]) >> 2; // x= 3, y= 4, mapped pin D9 if (0x08u & p[10]) pins_b |= 0x01; // x= 3, y= 5, mapped pin D8
pins_b |= (0x08u & p[10]) >> 3; // x= 3, y= 5, mapped pin D8 if (0x08u & p[12]) pins_d |= 0x80; // x= 3, y= 6, mapped pin D7
pins_d |= (0x08u & p[12]) << 4; // x= 3, y= 6, mapped pin D7 if (0x08u & p[14]) pins_d |= 0x40; // x= 3, y= 7, mapped pin D6
pins_d |= (0x08u & p[14]) << 3; // x= 3, y= 7, mapped pin D6 if (0x08u & p[16]) pins_d |= 0x20; // x= 3, y= 8, mapped pin D5
pins_d |= (0x08u & p[16]) << 2; // x= 3, y= 8, mapped pin D5 pins_b |= (0x08u & p[ 4]); // x= 3, y= 2, mapped pin D11
break; break;
case 2: case 2:
pins_b |= (0x20u & p[ 0]); // x= 5, y= 0, mapped pin D13 if (0x20u & p[ 2]) pins_b |= 0x10; // x= 5, y= 1, mapped pin D12
pins_b |= (0x20u & p[ 2]) >> 1; // x= 5, y= 1, mapped pin D12 if (0x20u & p[ 4]) pins_b |= 0x08; // x= 5, y= 2, mapped pin D11
pins_b |= (0x20u & p[ 4]) >> 2; // x= 5, y= 2, mapped pin D11 if (0x20u & p[ 6]) pins_b |= 0x04; // x= 5, y= 3, mapped pin D10
pins_b |= (0x20u & p[ 6]) >> 3; // x= 5, y= 3, mapped pin D10 if (0x20u & p[ 8]) pins_b |= 0x02; // x= 5, y= 4, mapped pin D9
pins_b |= (0x20u & p[ 8]) >> 4; // x= 5, y= 4, mapped pin D9 if (0x20u & p[10]) pins_b |= 0x01; // x= 5, y= 5, mapped pin D8
pins_b |= (0x20u & p[10]) >> 5; // x= 5, y= 5, mapped pin D8 if (0x20u & p[12]) pins_d |= 0x80; // x= 5, y= 6, mapped pin D7
pins_d |= (0x20u & p[12]) << 2; // x= 5, y= 6, mapped pin D7 if (0x20u & p[14]) pins_d |= 0x40; // x= 5, y= 7, mapped pin D6
pins_d |= (0x20u & p[14]) << 1; // x= 5, y= 7, mapped pin D6 pins_b |= (0x20u & p[ 0]); // x= 5, y= 0, mapped pin D13
pins_d |= (0x20u & p[16]); // x= 5, y= 8, mapped pin D5 pins_d |= (0x20u & p[16]); // x= 5, y= 8, mapped pin D5
break; break;
case 3: case 3:
pins_b |= (0x20u & p[ 1]); // x=13, y= 0, mapped pin D13 if (0x01u & p[16]) pins_d |= 0x04; // x= 0, y= 8, mapped pin D2
pins_b |= (0x20u & p[ 3]) >> 1; // x=13, y= 1, mapped pin D12 if (0x04u & p[16]) pins_d |= 0x08; // x= 2, y= 8, mapped pin D3
pins_b |= (0x20u & p[ 5]) >> 2; // x=13, y= 2, mapped pin D11 if (0x20u & p[ 3]) pins_b |= 0x10; // x=13, y= 1, mapped pin D12
pins_b |= (0x20u & p[ 7]) >> 3; // x=13, y= 3, mapped pin D10 if (0x20u & p[ 5]) pins_b |= 0x08; // x=13, y= 2, mapped pin D11
pins_b |= (0x20u & p[ 9]) >> 4; // x=13, y= 4, mapped pin D9 if (0x20u & p[ 7]) pins_b |= 0x04; // x=13, y= 3, mapped pin D10
pins_b |= (0x20u & p[11]) >> 5; // x=13, y= 5, mapped pin D8 if (0x20u & p[ 9]) pins_b |= 0x02; // x=13, y= 4, mapped pin D9
pins_d |= (0x01u & p[16]) << 2; // x= 0, y= 8, mapped pin D2 if (0x20u & p[11]) pins_b |= 0x01; // x=13, y= 5, mapped pin D8
pins_d |= (0x04u & p[16]) << 1; // x= 2, y= 8, mapped pin D3 if (0x20u & p[13]) pins_d |= 0x80; // x=13, y= 6, mapped pin D7
pins_d |= (0x10u & p[16]); // x= 4, y= 8, mapped pin D4 if (0x20u & p[15]) pins_d |= 0x40; // x=13, y= 7, mapped pin D6
pins_d |= (0x20u & p[13]) << 2; // x=13, y= 6, mapped pin D7 pins_b |= (0x20u & p[ 1]); // x=13, y= 0, mapped pin D13
pins_d |= (0x20u & p[15]) << 1; // x=13, y= 7, mapped pin D6 pins_d |= (0x10u & p[16]); // x= 4, y= 8, mapped pin D4
break; break;
case 4: case 4:
pins_b |= (0x10u & p[ 1]) << 1; // x=12, y= 0, mapped pin D13 if (0x01u & p[14]) pins_d |= 0x04; // x= 0, y= 7, mapped pin D2
pins_b |= (0x10u & p[ 3]); // x=12, y= 1, mapped pin D12 if (0x04u & p[14]) pins_d |= 0x08; // x= 2, y= 7, mapped pin D3
pins_b |= (0x10u & p[ 5]) >> 1; // x=12, y= 2, mapped pin D11 if (0x10u & p[ 1]) pins_b |= 0x20; // x=12, y= 0, mapped pin D13
pins_b |= (0x10u & p[ 7]) >> 2; // x=12, y= 3, mapped pin D10 if (0x10u & p[ 5]) pins_b |= 0x08; // x=12, y= 2, mapped pin D11
pins_b |= (0x10u & p[ 9]) >> 3; // x=12, y= 4, mapped pin D9 if (0x10u & p[ 7]) pins_b |= 0x04; // x=12, y= 3, mapped pin D10
pins_b |= (0x10u & p[11]) >> 4; // x=12, y= 5, mapped pin D8 if (0x10u & p[ 9]) pins_b |= 0x02; // x=12, y= 4, mapped pin D9
pins_d |= (0x01u & p[14]) << 2; // x= 0, y= 7, mapped pin D2 if (0x10u & p[11]) pins_b |= 0x01; // x=12, y= 5, mapped pin D8
pins_d |= (0x04u & p[14]) << 1; // x= 2, y= 7, mapped pin D3 if (0x10u & p[13]) pins_d |= 0x80; // x=12, y= 6, mapped pin D7
pins_d |= (0x10u & p[13]) << 3; // x=12, y= 6, mapped pin D7 pins_b |= (0x10u & p[ 3]); // x=12, y= 1, mapped pin D12
pins_d |= (0x10u & p[14]); // x= 4, y= 7, mapped pin D4 pins_d |= (0x10u & p[14]); // x= 4, y= 7, mapped pin D4
pins_d |= (0x20u & p[17]); // x=13, y= 8, mapped pin D5 pins_d |= (0x20u & p[17]); // x=13, y= 8, mapped pin D5
break; break;
case 5: case 5:
pins_b |= (0x08u & p[ 1]) << 2; // x=11, y= 0, mapped pin D13 if (0x01u & p[12]) pins_d |= 0x04; // x= 0, y= 6, mapped pin D2
pins_b |= (0x08u & p[ 3]) << 1; // x=11, y= 1, mapped pin D12 if (0x04u & p[12]) pins_d |= 0x08; // x= 2, y= 6, mapped pin D3
pins_b |= (0x08u & p[ 5]); // x=11, y= 2, mapped pin D11 if (0x08u & p[ 1]) pins_b |= 0x20; // x=11, y= 0, mapped pin D13
pins_b |= (0x08u & p[ 7]) >> 1; // x=11, y= 3, mapped pin D10 if (0x08u & p[ 3]) pins_b |= 0x10; // x=11, y= 1, mapped pin D12
pins_b |= (0x08u & p[ 9]) >> 2; // x=11, y= 4, mapped pin D9 if (0x08u & p[ 7]) pins_b |= 0x04; // x=11, y= 3, mapped pin D10
pins_b |= (0x08u & p[11]) >> 3; // x=11, y= 5, mapped pin D8 if (0x08u & p[ 9]) pins_b |= 0x02; // x=11, y= 4, mapped pin D9
pins_d |= (0x01u & p[12]) << 2; // x= 0, y= 6, mapped pin D2 if (0x08u & p[11]) pins_b |= 0x01; // x=11, y= 5, mapped pin D8
pins_d |= (0x04u & p[12]) << 1; // x= 2, y= 6, mapped pin D3 if (0x10u & p[15]) pins_d |= 0x40; // x=12, y= 7, mapped pin D6
pins_d |= (0x10u & p[12]); // x= 4, y= 6, mapped pin D4 if (0x10u & p[17]) pins_d |= 0x20; // x=12, y= 8, mapped pin D5
pins_d |= (0x10u & p[15]) << 2; // x=12, y= 7, mapped pin D6 pins_b |= (0x08u & p[ 5]); // x=11, y= 2, mapped pin D11
pins_d |= (0x10u & p[17]) << 1; // x=12, y= 8, mapped pin D5 pins_d |= (0x10u & p[12]); // x= 4, y= 6, mapped pin D4
break; break;
case 6: case 6:
pins_b |= (0x04u & p[ 1]) << 3; // x=10, y= 0, mapped pin D13 if (0x01u & p[10]) pins_d |= 0x04; // x= 0, y= 5, mapped pin D2
pins_b |= (0x04u & p[ 3]) << 2; // x=10, y= 1, mapped pin D12 if (0x04u & p[ 1]) pins_b |= 0x20; // x=10, y= 0, mapped pin D13
pins_b |= (0x04u & p[ 5]) << 1; // x=10, y= 2, mapped pin D11 if (0x04u & p[ 3]) pins_b |= 0x10; // x=10, y= 1, mapped pin D12
pins_b |= (0x04u & p[ 7]); // x=10, y= 3, mapped pin D10 if (0x04u & p[ 5]) pins_b |= 0x08; // x=10, y= 2, mapped pin D11
pins_b |= (0x04u & p[ 9]) >> 1; // x=10, y= 4, mapped pin D9 if (0x04u & p[ 9]) pins_b |= 0x02; // x=10, y= 4, mapped pin D9
pins_d |= (0x01u & p[10]) << 2; // x= 0, y= 5, mapped pin D2 if (0x04u & p[10]) pins_d |= 0x08; // x= 2, y= 5, mapped pin D3
pins_d |= (0x04u & p[10]) << 1; // x= 2, y= 5, mapped pin D3 if (0x08u & p[13]) pins_d |= 0x80; // x=11, y= 6, mapped pin D7
pins_d |= (0x08u & p[13]) << 4; // x=11, y= 6, mapped pin D7 if (0x08u & p[15]) pins_d |= 0x40; // x=11, y= 7, mapped pin D6
pins_d |= (0x08u & p[15]) << 3; // x=11, y= 7, mapped pin D6 if (0x08u & p[17]) pins_d |= 0x20; // x=11, y= 8, mapped pin D5
pins_d |= (0x08u & p[17]) << 2; // x=11, y= 8, mapped pin D5 pins_b |= (0x04u & p[ 7]); // x=10, y= 3, mapped pin D10
pins_d |= (0x10u & p[10]); // x= 4, y= 5, mapped pin D4 pins_d |= (0x10u & p[10]); // x= 4, y= 5, mapped pin D4
break; break;
case 7: case 7:
pins_b |= (0x02u & p[ 1]) << 4; // x= 9, y= 0, mapped pin D13 if (0x01u & p[ 8]) pins_d |= 0x04; // x= 0, y= 4, mapped pin D2
pins_b |= (0x02u & p[ 3]) << 3; // x= 9, y= 1, mapped pin D12 if (0x02u & p[ 1]) pins_b |= 0x20; // x= 9, y= 0, mapped pin D13
pins_b |= (0x02u & p[ 5]) << 2; // x= 9, y= 2, mapped pin D11 if (0x02u & p[ 3]) pins_b |= 0x10; // x= 9, y= 1, mapped pin D12
pins_b |= (0x02u & p[ 7]) << 1; // x= 9, y= 3, mapped pin D10 if (0x02u & p[ 5]) pins_b |= 0x08; // x= 9, y= 2, mapped pin D11
pins_b |= (0x04u & p[11]) >> 2; // x=10, y= 5, mapped pin D8 if (0x02u & p[ 7]) pins_b |= 0x04; // x= 9, y= 3, mapped pin D10
pins_d |= (0x01u & p[ 8]) << 2; // x= 0, y= 4, mapped pin D2 if (0x04u & p[ 8]) pins_d |= 0x08; // x= 2, y= 4, mapped pin D3
pins_d |= (0x04u & p[ 8]) << 1; // x= 2, y= 4, mapped pin D3 if (0x04u & p[11]) pins_b |= 0x01; // x=10, y= 5, mapped pin D8
pins_d |= (0x04u & p[13]) << 5; // x=10, y= 6, mapped pin D7 if (0x04u & p[13]) pins_d |= 0x80; // x=10, y= 6, mapped pin D7
pins_d |= (0x04u & p[15]) << 4; // x=10, y= 7, mapped pin D6 if (0x04u & p[15]) pins_d |= 0x40; // x=10, y= 7, mapped pin D6
pins_d |= (0x04u & p[17]) << 3; // x=10, y= 8, mapped pin D5 if (0x04u & p[17]) pins_d |= 0x20; // x=10, y= 8, mapped pin D5
pins_d |= (0x10u & p[ 8]); // x= 4, y= 4, mapped pin D4 pins_d |= (0x10u & p[ 8]); // x= 4, y= 4, mapped pin D4
break; break;
case 8: case 8:
pins_b |= (0x01u & p[ 1]) << 5; // x= 8, y= 0, mapped pin D13 if (0x01u & p[ 1]) pins_b |= 0x20; // x= 8, y= 0, mapped pin D13
pins_b |= (0x01u & p[ 3]) << 4; // x= 8, y= 1, mapped pin D12 if (0x01u & p[ 3]) pins_b |= 0x10; // x= 8, y= 1, mapped pin D12
pins_b |= (0x01u & p[ 5]) << 3; // x= 8, y= 2, mapped pin D11 if (0x01u & p[ 5]) pins_b |= 0x08; // x= 8, y= 2, mapped pin D11
pins_b |= (0x02u & p[ 9]); // x= 9, y= 4, mapped pin D9 if (0x01u & p[ 6]) pins_d |= 0x04; // x= 0, y= 3, mapped pin D2
pins_b |= (0x02u & p[11]) >> 1; // x= 9, y= 5, mapped pin D8 if (0x02u & p[11]) pins_b |= 0x01; // x= 9, y= 5, mapped pin D8
pins_d |= (0x01u & p[ 6]) << 2; // x= 0, y= 3, mapped pin D2 if (0x02u & p[13]) pins_d |= 0x80; // x= 9, y= 6, mapped pin D7
pins_d |= (0x02u & p[13]) << 6; // x= 9, y= 6, mapped pin D7 if (0x02u & p[15]) pins_d |= 0x40; // x= 9, y= 7, mapped pin D6
pins_d |= (0x02u & p[15]) << 5; // x= 9, y= 7, mapped pin D6 if (0x02u & p[17]) pins_d |= 0x20; // x= 9, y= 8, mapped pin D5
pins_d |= (0x02u & p[17]) << 4; // x= 9, y= 8, mapped pin D5 if (0x04u & p[ 6]) pins_d |= 0x08; // x= 2, y= 3, mapped pin D3
pins_d |= (0x04u & p[ 6]) << 1; // x= 2, y= 3, mapped pin D3 pins_b |= (0x02u & p[ 9]); // x= 9, y= 4, mapped pin D9
pins_d |= (0x10u & p[ 6]); // x= 4, y= 3, mapped pin D4 pins_d |= (0x10u & p[ 6]); // x= 4, y= 3, mapped pin D4
break; break;
case 9: case 9:
pins_b |= (0x01u & p[ 7]) << 2; // x= 8, y= 3, mapped pin D10 if (0x01u & p[ 4]) pins_d |= 0x04; // x= 0, y= 2, mapped pin D2
pins_b |= (0x01u & p[ 9]) << 1; // x= 8, y= 4, mapped pin D9 if (0x01u & p[ 7]) pins_b |= 0x04; // x= 8, y= 3, mapped pin D10
pins_b |= (0x01u & p[11]); // x= 8, y= 5, mapped pin D8 if (0x01u & p[ 9]) pins_b |= 0x02; // x= 8, y= 4, mapped pin D9
pins_b |= (0x80u & p[ 0]) >> 2; // x= 7, y= 0, mapped pin D13 if (0x01u & p[13]) pins_d |= 0x80; // x= 8, y= 6, mapped pin D7
pins_b |= (0x80u & p[ 2]) >> 3; // x= 7, y= 1, mapped pin D12 if (0x01u & p[15]) pins_d |= 0x40; // x= 8, y= 7, mapped pin D6
pins_d |= (0x01u & p[ 4]) << 2; // x= 0, y= 2, mapped pin D2 if (0x01u & p[17]) pins_d |= 0x20; // x= 8, y= 8, mapped pin D5
pins_d |= (0x01u & p[13]) << 7; // x= 8, y= 6, mapped pin D7 if (0x04u & p[ 4]) pins_d |= 0x08; // x= 2, y= 2, mapped pin D3
pins_d |= (0x01u & p[15]) << 6; // x= 8, y= 7, mapped pin D6 if (0x80u & p[ 0]) pins_b |= 0x20; // x= 7, y= 0, mapped pin D13
pins_d |= (0x01u & p[17]) << 5; // x= 8, y= 8, mapped pin D5 if (0x80u & p[ 2]) pins_b |= 0x10; // x= 7, y= 1, mapped pin D12
pins_d |= (0x04u & p[ 4]) << 1; // x= 2, y= 2, mapped pin D3 pins_b |= (0x01u & p[11]); // x= 8, y= 5, mapped pin D8
pins_d |= (0x10u & p[ 4]); // x= 4, y= 2, mapped pin D4 pins_d |= (0x10u & p[ 4]); // x= 4, y= 2, mapped pin D4
break; break;
case 10: case 10:
pins_b |= (0x40u & p[ 0]) >> 1; // x= 6, y= 0, mapped pin D13 if (0x01u & p[ 2]) pins_d |= 0x04; // x= 0, y= 1, mapped pin D2
pins_b |= (0x80u & p[ 4]) >> 4; // x= 7, y= 2, mapped pin D11 if (0x04u & p[ 2]) pins_d |= 0x08; // x= 2, y= 1, mapped pin D3
pins_b |= (0x80u & p[ 6]) >> 5; // x= 7, y= 3, mapped pin D10 if (0x40u & p[ 0]) pins_b |= 0x20; // x= 6, y= 0, mapped pin D13
pins_b |= (0x80u & p[ 8]) >> 6; // x= 7, y= 4, mapped pin D9 if (0x80u & p[ 4]) pins_b |= 0x08; // x= 7, y= 2, mapped pin D11
pins_b |= (0x80u & p[10]) >> 7; // x= 7, y= 5, mapped pin D8 if (0x80u & p[ 6]) pins_b |= 0x04; // x= 7, y= 3, mapped pin D10
pins_d |= (0x01u & p[ 2]) << 2; // x= 0, y= 1, mapped pin D2 if (0x80u & p[ 8]) pins_b |= 0x02; // x= 7, y= 4, mapped pin D9
pins_d |= (0x04u & p[ 2]) << 1; // x= 2, y= 1, mapped pin D3 if (0x80u & p[10]) pins_b |= 0x01; // x= 7, y= 5, mapped pin D8
pins_d |= (0x10u & p[ 2]); // x= 4, y= 1, mapped pin D4 if (0x80u & p[14]) pins_d |= 0x40; // x= 7, y= 7, mapped pin D6
pins_d |= (0x80u & p[12]); // x= 7, y= 6, mapped pin D7 if (0x80u & p[16]) pins_d |= 0x20; // x= 7, y= 8, mapped pin D5
pins_d |= (0x80u & p[14]) >> 1; // x= 7, y= 7, mapped pin D6 pins_d |= (0x10u & p[ 2]); // x= 4, y= 1, mapped pin D4
pins_d |= (0x80u & p[16]) >> 2; // x= 7, y= 8, mapped pin D5 pins_d |= (0x80u & p[12]); // x= 7, y= 6, mapped pin D7
break; break;
case 11: case 11:
pins_b |= (0x40u & p[ 2]) >> 2; // x= 6, y= 1, mapped pin D12 if (0x01u & p[ 0]) pins_d |= 0x04; // x= 0, y= 0, mapped pin D2
pins_b |= (0x40u & p[ 4]) >> 3; // x= 6, y= 2, mapped pin D11 if (0x04u & p[ 0]) pins_d |= 0x08; // x= 2, y= 0, mapped pin D3
pins_b |= (0x40u & p[ 6]) >> 4; // x= 6, y= 3, mapped pin D10 if (0x40u & p[ 2]) pins_b |= 0x10; // x= 6, y= 1, mapped pin D12
pins_b |= (0x40u & p[ 8]) >> 5; // x= 6, y= 4, mapped pin D9 if (0x40u & p[ 4]) pins_b |= 0x08; // x= 6, y= 2, mapped pin D11
pins_b |= (0x40u & p[10]) >> 6; // x= 6, y= 5, mapped pin D8 if (0x40u & p[ 6]) pins_b |= 0x04; // x= 6, y= 3, mapped pin D10
pins_d |= (0x01u & p[ 0]) << 2; // x= 0, y= 0, mapped pin D2 if (0x40u & p[ 8]) pins_b |= 0x02; // x= 6, y= 4, mapped pin D9
pins_d |= (0x04u & p[ 0]) << 1; // x= 2, y= 0, mapped pin D3 if (0x40u & p[10]) pins_b |= 0x01; // x= 6, y= 5, mapped pin D8
pins_d |= (0x10u & p[ 0]); // x= 4, y= 0, mapped pin D4 if (0x40u & p[12]) pins_d |= 0x80; // x= 6, y= 6, mapped pin D7
pins_d |= (0x40u & p[12]) << 1; // x= 6, y= 6, mapped pin D7 if (0x40u & p[16]) pins_d |= 0x20; // x= 6, y= 8, mapped pin D5
pins_d |= (0x40u & p[14]); // x= 6, y= 7, mapped pin D6 pins_d |= (0x10u & p[ 0]); // x= 4, y= 0, mapped pin D4
pins_d |= (0x40u & p[16]) >> 1; // x= 6, y= 8, mapped pin D5 pins_d |= (0x40u & p[14]); // x= 6, y= 7, mapped pin D6
break; break;
} }
} }
@ -979,3 +973,27 @@ void borg_hw_init() {
wdt_reset(); wdt_reset();
wdt_enable(WDTO_15MS); // 15ms watchdog wdt_enable(WDTO_15MS); // 15ms watchdog
} }
void timer0_off() {
cli();
#if defined (__AVR_ATmega48__) || \
defined (__AVR_ATmega48P__) || \
defined (__AVR_ATmega88__) || \
defined (__AVR_ATmega88P__) || \
defined (__AVR_ATmega168__) || \
defined (__AVR_ATmega168P__) || \
defined (__AVR_ATmega328__) || \
defined (__AVR_ATmega328P__) || \
defined (__AVR_ATmega1280__) || \
defined (__AVR_ATmega2560__)
TCCR2A = 0x00;
TCCR2B = 0x00;
#elif defined (__AVR_ATmega8__) || \
defined (__AVR_ATmega128__)
TCCR2 = 0x00;
#elif defined (__AVR_ATmega32U4__)
TCCR1A = 0x00;
TCCR1B = 0x00;
#endif
sei();
}

View File

@ -17,6 +17,21 @@ comment "Borg16 port setup"
#//das dier sind die individuellen Dateneingänge für die Schieberegister #//das dier sind die individuellen Dateneingänge für die Schieberegister
#define PIN_SHFT1 PD7 #define PIN_SHFT1 PD7
bool "Higher Contrast" HIGH_CONTRAST n
bool "UART Support" UART_SUPPORT n
choice 'Baud Rate' \
"2400 2400 \
4800 4800 \
9600 9600 \
14400 14400 \
19200 19200 \
28800 28800 \
38400 38400 \
57600 57600 \
76800 76800 \
115200 115200" \
'19200' UART_BAUDRATE_SETTING
choice 'Column Port 1 (right)' \ choice 'Column Port 1 (right)' \
"PORTA PORTA \ "PORTA PORTA \

View File

@ -2,8 +2,23 @@ mainmenu_option next_comment
comment "lolshield setup" comment "lolshield setup"
define_int USER_TIMER0_FOR_WAIT 1 define_int USER_TIMER0_FOR_WAIT 1
define_bool LOLSHIELD y
uint "Brightness (0-127)" BRIGHTNESS 127 uint "Brightness (0-127)" BRIGHTNESS 120
uint "Framerate (default 80)" FRAMERATE 80 uint "Framerate (default 80)" FRAMERATE 80
bool "UART Support" UART_SUPPORT n
choice 'Baud Rate' \
"2400 2400 \
4800 4800 \
9600 9600 \
14400 14400 \
19200 19200 \
28800 28800 \
38400 38400 \
57600 57600 \
76800 76800 \
115200 115200" \
'19200' UART_BAUDRATE_SETTING
endmenu endmenu

View File

@ -33,6 +33,8 @@
#define INIT_EEPROM #define INIT_EEPROM
//#define UART_BAUD_RATE 115200L #if defined(UART_SUPPORT) && defined(LOLSHIELD) && defined(__AVR_ATmega32U4__)
# error UART not supported on Arduino Leonardo
#endif
#endif /* CONFIG_H_ */ #endif /* CONFIG_H_ */

View File

@ -1,5 +1,6 @@
#include <setjmp.h> #include <setjmp.h>
#include <stdbool.h>
#include <stdio.h> #include <stdio.h>
#include "config.h" #include "config.h"
@ -7,6 +8,7 @@
#include "animations/snake.h" #include "animations/snake.h"
#include "animations/program.h" #include "animations/program.h"
#include "animations/matrix.h" #include "animations/matrix.h"
#include "animations/dna.h"
#include "animations/gameoflife.h" #include "animations/gameoflife.h"
#include "animations/stonefly.h" #include "animations/stonefly.h"
#include "animations/flyingdots.h" #include "animations/flyingdots.h"
@ -48,7 +50,7 @@
# include "joystick/joystick.h" # include "joystick/joystick.h"
#endif #endif
volatile unsigned char oldMode, oldOldmode, mode; volatile unsigned char oldMode, oldOldmode, reverseMode, mode;
jmp_buf newmode_jmpbuf; jmp_buf newmode_jmpbuf;
@ -65,6 +67,12 @@ void display_loop(){
// mcuf_serial_mode(); // mcuf_serial_mode();
mode = setjmp(newmode_jmpbuf); mode = setjmp(newmode_jmpbuf);
#ifdef JOYSTICK_SUPPORT
// in case we get here via mode jump, we (re)enable joystick queries
waitForFire = 1;
#endif
oldOldmode = oldMode; oldOldmode = oldMode;
#ifdef JOYSTICK_SUPPORT #ifdef JOYSTICK_SUPPORT
@ -76,6 +84,7 @@ void display_loop(){
clear_screen(0); clear_screen(0);
#endif #endif
oldMode = mode; oldMode = mode;
switch(mode++) { switch(mode++) {
#ifdef ANIMATION_SCROLLTEXT #ifdef ANIMATION_SCROLLTEXT
@ -85,7 +94,8 @@ void display_loop(){
#ifdef RANDOM_SUPPORT #ifdef RANDOM_SUPPORT
{ {
char a[28]; char a[28];
sprintf(a,"</# counter == %lu ", (unsigned long) percnt_get()); sprintf(a,"</# counter == %lu ",
(unsigned long)percnt_get(&g_reset_counter, &g_reset_counter_idx));
scrolltext(a); scrolltext(a);
} }
#endif #endif
@ -250,22 +260,28 @@ void display_loop(){
break; break;
#endif #endif
#ifdef ANIMATION_DNA
case 26:
dna();
break;
#endif
#ifdef ANIMATION_TESTS #ifdef ANIMATION_TESTS
case 31: case 31:
test_level(1); test_level(1, false);
break; break;
case 32: case 32:
test_level(2); test_level(2, false);
break; break;
case 33: case 33:
test_level(3); test_level(3, false);
break; break;
case 35: case 35:
test_palette(); test_palette(false);
test_palette2(); test_palette2(false);
break; break;
#endif #endif
@ -292,26 +308,26 @@ void display_loop(){
#endif #endif
#ifdef MENU_SUPPORT #ifdef MENU_SUPPORT
case 42: case 0xFDu:
mode = 1; mode = 1;
break; break;
case 43: case 0xFEu:
menu(); menu();
mode = oldOldmode; mode = oldOldmode;
break; break;
#else #else
case 42: case 0xFDu:
#ifdef JOYSTICK_SUPPORT #ifdef JOYSTICK_SUPPORT
if (JOYISFIRE) if (JOYISFIRE)
mode = 43; mode = 0xFEu;
else else
#endif #endif
mode = 1; mode = 1;
break; break;
case 43: case 0xFEu:
#ifdef JOYSTICK_SUPPORT #ifdef JOYSTICK_SUPPORT
waitForFire = 0; // avoid circular jumps waitForFire = 0; // avoid circular jumps
while (JOYISFIRE); // wait until user released the fire button while (JOYISFIRE); // wait until user released the fire button
@ -354,10 +370,19 @@ void display_loop(){
#endif #endif
#ifdef ANIMATION_OFF #ifdef ANIMATION_OFF
case 0xFF: case 0xFFu:
off(); off();
break; break;
#endif #endif
default:
if (reverseMode) {
if (reverseMode-- == (mode - 1)) {
mode -= 2;
} else {
reverseMode = 0;
}
}
break;
} }
} }
} }

View File

@ -7,7 +7,13 @@ comment "Games"
endmenu endmenu
dep_bool "Space Invaders" GAME_SPACE_INVADERS $JOYSTICK_SUPPORT $RANDOM_SUPPORT dep_bool "Space Invaders" GAME_SPACE_INVADERS $JOYSTICK_SUPPORT $RANDOM_SUPPORT
dep_bool "Snake" GAME_SNAKE $JOYSTICK_SUPPORT $RANDOM_SUPPORT
dep_bool_menu "Snake" GAME_SNAKE y $JOYSTICK_SUPPORT $RANDOM_SUPPORT
bool "POV Controls" SNAKE_POV_CONTROL n
int "Snake Game Round Delay" SNAKE_GAME_DELAY 200
endmenu
dep_bool "Breakout" GAME_BREAKOUT $JOYSTICK_SUPPORT $RANDOM_SUPPORT dep_bool "Breakout" GAME_BREAKOUT $JOYSTICK_SUPPORT $RANDOM_SUPPORT
dep_bool "Kart" GAME_KART $JOYSTICK_SUPPORT $RANDOM_SUPPORT dep_bool "Kart" GAME_KART $JOYSTICK_SUPPORT $RANDOM_SUPPORT
endmenu endmenu

View File

@ -224,7 +224,7 @@ void kart_game(){
wait(WAIT); wait(WAIT);
} }
snprintf(game_over, sizeof(game_over), "</#Game Over, Score: %i", cycle); snprintf(game_over, sizeof(game_over), "</#Game Over, Score: %lu", cycle);
scrolltext(game_over); scrolltext(game_over);
} }

View File

@ -12,6 +12,7 @@
#include <assert.h> #include <assert.h>
#include <stdint.h> #include <stdint.h>
#include <stdbool.h>
#include "../../config.h" #include "../../config.h"
#include "../../compat/pgmspace.h" #include "../../compat/pgmspace.h"
#include "../../pixel.h" #include "../../pixel.h"
@ -36,11 +37,13 @@ game_descriptor_t snake_game_descriptor __attribute__((section(".game_descriptor
#endif #endif
/** #ifdef DOXYGEN
* If defined, joystick controls are NOT as "seen" by the snake but absolute, /**
* that is, if pressing up, snake goes up, etc. * If defined, joystick controls are bound to the point of view of the
*/ * snake, i.e. only the left an right joystick direction can be used.
#define SNAKE_NEWCONTROL */
#define SNAKE_POV_CONTROL
#endif
#if !defined USNAKE_MAX_LENGTH || defined DOXYGEN #if !defined USNAKE_MAX_LENGTH || defined DOXYGEN
/** The maximum length of the snake. */ /** The maximum length of the snake. */
@ -102,6 +105,8 @@ typedef struct snake_protagonist_s
uint8_t nHeadIndex; /**< Index of the head segment. */ uint8_t nHeadIndex; /**< Index of the head segment. */
uint8_t nTailIndex; /**< Index of the tail segment. */ uint8_t nTailIndex; /**< Index of the tail segment. */
snake_dir_t dir; /**< Direction of the snake. */ snake_dir_t dir; /**< Direction of the snake. */
bool bJoystickLocked; /**< Avoid double joytick queries
between movements. */
} snake_protagonist_t; } snake_protagonist_t;
@ -213,6 +218,7 @@ static void snake_initGameProtagonist(snake_protagonist_t *pprotSnake)
#endif #endif
pprotSnake->nTailIndex = 0; pprotSnake->nTailIndex = 0;
pprotSnake->nHeadIndex = 1; pprotSnake->nHeadIndex = 1;
pprotSnake->bJoystickLocked = false;
} }
#ifdef GAME_SNAKE #ifdef GAME_SNAKE
@ -225,17 +231,10 @@ static void snake_userControl(snake_protagonist_t *pprotSnake,
snake_dir_t *pdirLast) snake_dir_t *pdirLast)
{ {
snake_dir_t dirJoystick = snake_queryJoystick(); snake_dir_t dirJoystick = snake_queryJoystick();
#ifdef SNAKE_NEWCONTROL # ifdef SNAKE_POV_CONTROL
if (dirJoystick != SNAKE_DIR_NONE)
{ if ((dirJoystick ^ *pdirLast) && (dirJoystick != SNAKE_DIR_NONE) &&
// valid transitions can only be uneven (!pprotSnake->bJoystickLocked))
if ((pprotSnake->dir + dirJoystick) & 0x01)
{
pprotSnake->dir = dirJoystick;
}
}
#else
if ((dirJoystick ^ *pdirLast) && (dirJoystick != SNAKE_DIR_NONE))
{ {
// only left or right movements are valid // only left or right movements are valid
if (dirJoystick & 0x01) if (dirJoystick & 0x01)
@ -244,9 +243,25 @@ static void snake_userControl(snake_protagonist_t *pprotSnake,
pprotSnake->dir = (pprotSnake->dir + pprotSnake->dir = (pprotSnake->dir +
(dirJoystick == SNAKE_DIR_LEFT ? 3 : 1)) % 4u; (dirJoystick == SNAKE_DIR_LEFT ? 3 : 1)) % 4u;
} }
// we query the joystick twice as fast as we move the snake, so we
// have to ensure that it does not bite its head with its head...uh
pprotSnake->bJoystickLocked = true;
} }
*pdirLast = dirJoystick; *pdirLast = dirJoystick;
#endif # else
if (dirJoystick != SNAKE_DIR_NONE)
{
// valid transitions can only be uneven
if (((pprotSnake->dir + dirJoystick) & 0x01) &&
!pprotSnake->bJoystickLocked)
{
pprotSnake->dir = dirJoystick;
}
// we query the joystick twice as fast as we move the snake, so we
// have to ensure that it does not bite its head with its head...uh
pprotSnake->bJoystickLocked = true;
}
# endif
} }
#endif #endif
@ -362,9 +377,9 @@ static void snake_initApples(snake_apples_t *pApples)
* Checks for an apple at a given position and removes it if there is one. * Checks for an apple at a given position and removes it if there is one.
* @param pApples The set of apples which are lying on the playing field. * @param pApples The set of apples which are lying on the playing field.
* @param pxHead The position to be tested. * @param pxHead The position to be tested.
* @return 0 if no apples were found, 1 otherwise * @return false if no apples were found, true otherwise
*/ */
static uint8_t snake_checkForApple(snake_apples_t *pApples, pixel pxHead) static bool snake_checkForApple(snake_apples_t *pApples, pixel pxHead)
{ {
for (uint8_t i = pApples->nAppleCount; i--;) for (uint8_t i = pApples->nAppleCount; i--;)
{ {
@ -376,10 +391,10 @@ static uint8_t snake_checkForApple(snake_apples_t *pApples, pixel pxHead)
pApples->aApples[i] = pApples->aApples[i + 1]; pApples->aApples[i] = pApples->aApples[i + 1];
} }
--pApples->nAppleCount; --pApples->nAppleCount;
return 1; return true;
} }
} }
return 0; return false;
} }
@ -419,7 +434,7 @@ void snake_engine(uint8_t bDemoMode)
clear_screen(0); clear_screen(0);
snake_drawBorder(); snake_drawBorder();
for (uint8_t nTick = 0; 1; nTick ^= SNAKE_COLOR_APPLE) for (uint8_t nTick = 0; true; nTick ^= SNAKE_COLOR_APPLE)
{ {
// determine new direction // determine new direction
#if defined ANIMATION_SNAKE && defined GAME_SNAKE #if defined ANIMATION_SNAKE && defined GAME_SNAKE
@ -439,6 +454,8 @@ void snake_engine(uint8_t bDemoMode)
snake_userControl(&protSnake, &dirLast); snake_userControl(&protSnake, &dirLast);
if (nTick) { if (nTick) {
#endif #endif
// release joystick lock
protSnake.bJoystickLocked = false;
// actually move head // actually move head
pixel pxOldHead = protSnake.aSegments[protSnake.nHeadIndex]; pixel pxOldHead = protSnake.aSegments[protSnake.nHeadIndex];

View File

@ -100,7 +100,7 @@ void initInvaders(Invaders * iv, unsigned char lv)
uint16_t mask = 0x0001; uint16_t mask = 0x0001;
for (x = 11; x--;) for (x = 11; x--;)
{ {
iv->map[x][y] = (hansrow & mask) ? 3 : 1; iv->map[x][y] = (hansrow & mask) ? 2 : 1;
mask <<= 1; mask <<= 1;
} }
} }
@ -108,7 +108,7 @@ void initInvaders(Invaders * iv, unsigned char lv)
iv->pos.x = (NUM_COLS - 11) / 2; iv->pos.x = (NUM_COLS - 11) / 2;
iv->pos.y = SPACESHIP_LINE + 1; iv->pos.y = SPACESHIP_LINE + 1;
iv->speed = MIN_SPEED + 2; iv->speed = MIN_SPEED + 40;
iv->direction = 1; iv->direction = 1;
break; break;

View File

@ -109,6 +109,7 @@ uint16_t tetris_highscore_inputName(void)
uint16_t tetris_highscore_retrieveHighScore(tetris_highscore_index_t nIndex) uint16_t tetris_highscore_retrieveHighScore(tetris_highscore_index_t nIndex)
{ {
eeprom_busy_wait();
uint16_t nHighScore = uint16_t nHighScore =
eeprom_read_word(&g_highScoreTable.nHighScore[nIndex]); eeprom_read_word(&g_highScoreTable.nHighScore[nIndex]);

View File

@ -78,6 +78,7 @@ void tetris_highscore_saveHighScore(tetris_highscore_index_t nIndex,
{ {
if (nHighScore > tetris_highscore_retrieveHighScore(nIndex)) if (nHighScore > tetris_highscore_retrieveHighScore(nIndex))
{ {
eeprom_busy_wait();
eeprom_write_word(&g_highScoreTable.nHighScore[nIndex], nHighScore); eeprom_write_word(&g_highScoreTable.nHighScore[nIndex], nHighScore);
} }
} }
@ -91,6 +92,7 @@ void tetris_highscore_saveHighScore(tetris_highscore_index_t nIndex,
inline static inline static
uint16_t tetris_highscore_retrieveHighScoreName(tetris_highscore_index_t nIdx) uint16_t tetris_highscore_retrieveHighScoreName(tetris_highscore_index_t nIdx)
{ {
eeprom_busy_wait();
uint16_t nHighScoreName = uint16_t nHighScoreName =
eeprom_read_word(&g_highScoreTable.nHighScoreName[nIdx]); eeprom_read_word(&g_highScoreTable.nHighScoreName[nIdx]);
@ -107,6 +109,7 @@ inline static
void tetris_highscore_saveHighScoreName(tetris_highscore_index_t nIndex, void tetris_highscore_saveHighScoreName(tetris_highscore_index_t nIndex,
uint16_t nHighscoreName) uint16_t nHighscoreName)
{ {
eeprom_busy_wait();
eeprom_write_word(&g_highScoreTable.nHighScoreName[nIndex], nHighscoreName); eeprom_write_word(&g_highScoreTable.nHighScoreName[nIndex], nHighscoreName);
} }

View File

@ -50,11 +50,11 @@
#define TETRIS_INPUT_REPEAT_DELAY 5 #define TETRIS_INPUT_REPEAT_DELAY 5
/** Number of loop cyles the left button is ignored */ /** Number of loop cyles the left button is ignored */
#define TETRIS_INPUT_CHATTER_TICKS_LEFT 12 #define TETRIS_INPUT_CHATTER_TICKS_LEFT 24
/** Number of loop cyles the right button is ignored */ /** Number of loop cyles the right button is ignored */
#define TETRIS_INPUT_CHATTER_TICKS_RIGHT 12 #define TETRIS_INPUT_CHATTER_TICKS_RIGHT 24
/** Number of loop cyles the down button is ignored */ /** Number of loop cyles the down button is ignored */
#define TETRIS_INPUT_CHATTER_TICKS_DOWN 12 #define TETRIS_INPUT_CHATTER_TICKS_DOWN 24
/** Number of loop cyles the clockwise rotation button is ignored */ /** Number of loop cyles the clockwise rotation button is ignored */
#define TETRIS_INPUT_CHATTER_TICKS_ROT_CW 24 #define TETRIS_INPUT_CHATTER_TICKS_ROT_CW 24
/** Number of loop cyles the counter clockwise rotation button is ignored */ /** Number of loop cyles the counter clockwise rotation button is ignored */

View File

@ -52,7 +52,8 @@
/** color of line counter */ /** color of line counter */
#define TETRIS_VIEW_COLORCOUNTER 2 #define TETRIS_VIEW_COLORCOUNTER 2
#if (NUM_ROWS < 16) && (NUM_COLS > NUM_ROWS) && (!defined GAME_TETRIS_FP) #if (((NUM_ROWS < 16) && (NUM_COLS > NUM_ROWS)) || \
((NUM_ROWS == 16) && (NUM_COLS == 80))) && (!defined GAME_TETRIS_FP)
# define VIEWCOLS NUM_ROWS # define VIEWCOLS NUM_ROWS
# define VIEWROWS NUM_COLS # define VIEWROWS NUM_COLS
# define VIEW_TILT # define VIEW_TILT
@ -77,7 +78,8 @@
#if VIEWROWS >= 16 #if VIEWROWS >= 16
#define TETRIS_VIEW_XOFFSET_COUNTER \ #define TETRIS_VIEW_XOFFSET_COUNTER \
(TETRIS_VIEW_XOFFSET_DUMP + TETRIS_VIEW_WIDTH_DUMP + 1) (TETRIS_VIEW_XOFFSET_DUMP + TETRIS_VIEW_WIDTH_DUMP + 1)
#define TETRIS_VIEW_YOFFSET_COUNT100 ((VIEWCOLS - 14) / 2) #define TETRIS_VIEW_YOFFSET_COUNT100 + \
TETRIS_VIEW_YOFFSET_DUMP + ((TETRIS_VIEW_HEIGHT_DUMP - 14) / 2)
#define TETRIS_VIEW_YOFFSET_COUNT10 (TETRIS_VIEW_YOFFSET_COUNT100 + 2) #define TETRIS_VIEW_YOFFSET_COUNT10 (TETRIS_VIEW_YOFFSET_COUNT100 + 2)
#define TETRIS_VIEW_YOFFSET_COUNT1 (TETRIS_VIEW_YOFFSET_COUNT10 + 4) #define TETRIS_VIEW_YOFFSET_COUNT1 (TETRIS_VIEW_YOFFSET_COUNT10 + 4)

View File

@ -1,6 +1,7 @@
#include <setjmp.h> #include <setjmp.h>
#include <avr/interrupt.h> #include <avr/interrupt.h>
#include <avr/pgmspace.h>
#include <stdio.h> #include <stdio.h>
#include "config.h" #include "config.h"
@ -19,6 +20,10 @@
#include "can/borg_can.h" #include "can/borg_can.h"
#endif #endif
#ifdef UART_SUPPORT
# include "uart/uart.h"
#endif
#ifdef RFM12_SUPPORT #ifdef RFM12_SUPPORT
#include "rfm12/borg_rfm12.h" #include "rfm12/borg_rfm12.h"
#endif #endif
@ -27,8 +32,8 @@ int main (void){
clear_screen(0); clear_screen(0);
#ifdef RANDOM_SUPPORT #ifdef RANDOM_SUPPORT
srandom32(percnt_get()); srandom32(percnt_get(&g_reset_counter, &g_reset_counter_idx));
percnt_inc(); percnt_inc(&g_reset_counter, &g_reset_counter_idx);
#endif #endif
#ifdef RFM12_SUPPORT #ifdef RFM12_SUPPORT
@ -41,12 +46,12 @@ int main (void){
bcan_init(); bcan_init();
#endif #endif
#ifdef JOYSTICK_SUPPORT #ifdef UART_SUPPORT
joy_init(); uart_init(UART_BAUD_SELECT(UART_BAUDRATE_SETTING, F_CPU));
#endif #endif
#ifdef UART_SUPPORT #ifdef JOYSTICK_SUPPORT
uart_init(); joy_init();
#endif #endif
sei(); sei();

View File

@ -9,103 +9,105 @@
#include "../compat/interrupt.h" /* cli() & sei() */ #include "../compat/interrupt.h" /* cli() & sei() */
#include "../compat/eeprom.h" #include "../compat/eeprom.h"
#include "../config.h" #include "../config.h"
#include "persistentCounter.h"
#ifdef ERROR_HANDLING #ifdef ERROR_HANDLING
#include "error-handling.h" # include "error-handling.h"
#define PERSISTENT_COUNTER_OVERFLOW (void*)0, 2,4,1 # define PERSISTENT_COUNTER_OVERFLOW (void*)0, 2,4,1
#define PERSISTENT_COUNTER_WRITER_ERROR (void*)0, 2,4,2 # define PERSISTENT_COUNTER_WRITER_ERROR (void*)0, 2,4,2
#endif #endif
#define RING_SIZE 168 uint8_t g_reset_counter_idx = 0xff;
percnt_t EEMEM g_reset_counter;
uint8_t ring_idx = 0xff;
uint16_t EEMEM B08_23;
uint8_t EEMEM B0_7[RING_SIZE];
#ifdef INIT_EEPROM #ifdef INIT_EEPROM
void init_buffer(void){ void init_buffer(percnt_t *percnt, uint8_t *ring_index) {
uint8_t i; uint8_t i;
eeprom_busy_wait(); eeprom_busy_wait();
eeprom_write_word(&B08_23, 0x0000); eeprom_write_word(&(percnt->B08_23), 0x0000);
for(i=0; i<RING_SIZE; ++i){ for (i = 0; i < RING_SIZE; ++i) {
eeprom_busy_wait(); eeprom_busy_wait();
eeprom_write_byte(&(B0_7[i]), 0x00); eeprom_write_byte(&(percnt->B0_7[i]), 0x00);
} }
} }
#endif #endif
void percnt_init(void){ void percnt_init(percnt_t *percnt, uint8_t *ring_index) {
uint8_t i; uint8_t i;
uint8_t maxidx=0; uint8_t maxidx = 0;
uint8_t t,max=eeprom_read_byte(&(B0_7[0])); uint8_t t, max = eeprom_read_byte(&(percnt->B0_7[0]));
#ifdef INIT_EEPROM #ifdef INIT_EEPROM
if (eeprom_read_word(&B08_23)==0xFFFF){ /* test if the 2 MSB == 0xFFFF*/ /* test if the 2 MSB == 0xFFFF */
if (eeprom_read_word((uint16_t*)&(B0_7[0]))==0xFFFF) /* test the first to bytes of ringbuffer*/ if (eeprom_read_word(&(percnt->B08_23)) == 0xFFFF) {
init_buffer(); /* test the first two bytes of ringbuffer */
} if (eeprom_read_word((uint16_t*) &(percnt->B0_7[0])) == 0xFFFF)
#endif init_buffer(percnt, ring_index);
for(i=0; i<RING_SIZE; ++i){ /* this might be speed up, but such optimisation could lead to timing attacks */ }
#endif
/* might be faster, but such optimizations are prone to timing attacks */
for (i = 0; i < RING_SIZE; ++i) {
eeprom_busy_wait(); eeprom_busy_wait();
t=eeprom_read_byte(&(B0_7[i])); t = eeprom_read_byte(&(percnt->B0_7[i]));
if(t==max+1){ if (t == max + 1) {
max=t; max = t;
maxidx=i; maxidx = i;
} }
} }
ring_idx = (maxidx==RING_SIZE)?0:maxidx; *ring_index = (maxidx == RING_SIZE) ? 0 : maxidx;
} }
uint32_t percnt_get(void){ uint32_t percnt_get(percnt_t *percnt, uint8_t *ring_index) {
uint32_t ret=0; uint32_t ret = 0;
if(ring_idx==0xff) if (*ring_index == 0xff)
percnt_init(); percnt_init(percnt, ring_index);
cli(); cli();
eeprom_busy_wait(); eeprom_busy_wait();
ret=eeprom_read_word(&B08_23)<<8; ret = eeprom_read_word(&(percnt->B08_23)) << 8;
eeprom_busy_wait(); eeprom_busy_wait();
ret |= eeprom_read_byte(&(B0_7[ring_idx])); ret |= eeprom_read_byte(&(percnt->B0_7[*ring_index]));
sei(); sei();
return ret; return ret;
} }
void percnt_inc(void){ void percnt_inc(percnt_t *percnt, uint8_t *ring_index) {
/* we must make this resistant agaist power off while this is running ... */ /* we must make this resistant agaist power off while this is running ... */
uint32_t u; uint32_t u;
if(ring_idx==0xff)
percnt_init();
u = percnt_get(); if (*ring_index == 0xff)
percnt_init(percnt, ring_index);
u = percnt_get(percnt, ring_index);
cli(); cli();
/* it's important to write msb first! */ /* it's important to write msb first! */
if((u&0x000000ff) == 0xff){ if ((u & 0x000000ff) == 0xff) {
if((u&0x0000ffff) == 0xffff){ if ((u & 0x0000ffff) == 0xffff) {
if((u&0x00ffffff) == 0xffffff){ if ((u & 0x00ffffff) == 0xffffff) {
/* we can turn the lights off now. it's time to die */ /* we can turn the lights off now. it's time to die */
#ifdef ERROR_HANDLING #ifdef ERROR_HANDLING
error(PERSISTENT_COUNTER_OVERFLOW); error(PERSISTENT_COUNTER_OVERFLOW);
#endif #endif
} }
eeprom_busy_wait(); eeprom_busy_wait();
eeprom_write_byte(&(((uint8_t*)&B08_23)[1]),((u+1)>>16)&0xff); eeprom_write_byte(&(((uint8_t*) &(percnt->B08_23))[1]),
((u + 1) >> 16) & 0xff);
} }
eeprom_busy_wait(); eeprom_busy_wait();
eeprom_write_byte(&(((uint8_t*)&B08_23)[0]),((u+1)>>8)&0xff); eeprom_write_byte(&(((uint8_t*) &(percnt->B08_23))[0]),
((u + 1) >> 8) & 0xff);
} }
/* set least significant byte (in ringbuffer) */ /* set least significant byte (in ringbuffer) */
ring_idx = (ring_idx+1)%RING_SIZE; *ring_index = (*ring_index + 1) % RING_SIZE;
eeprom_busy_wait(); eeprom_busy_wait();
eeprom_write_byte(&(B0_7[ring_idx]),(u+1)&0xff); eeprom_write_byte(&(percnt->B0_7[*ring_index]), (u + 1) & 0xff);
eeprom_busy_wait(); eeprom_busy_wait();
if(u+1 != percnt_get()){ if (u + 1 != percnt_get(percnt, ring_index)) {
#ifdef ERROR_HANDLING #ifdef ERROR_HANDLING
error(PERSISTENT_COUNTER_WRITER_ERROR); error(PERSISTENT_COUNTER_WRITER_ERROR);
#endif #endif
} }
sei(); sei();
} }

View File

@ -9,15 +9,22 @@
#ifndef PERSISTENTCOUNTER_H_ #ifndef PERSISTENTCOUNTER_H_
#define PERSISTENTCOUNTER_H_ #define PERSISTENTCOUNTER_H_
#include <stdint.h> #include <stdint.h>
#include "../compat/eeprom.h"
#define PERSISTENT_COUNTER_BITS 24 #define PERSISTENT_COUNTER_BITS 24
#define RING_SIZE 168
void percnt_init(void); typedef struct percnt_s {
uint32_t percnt_get(void); uint16_t B08_23;
void percnt_inc(void); uint8_t B0_7[RING_SIZE];
} percnt_t;
extern uint8_t g_reset_counter_idx;
extern percnt_t g_reset_counter EEMEM;
void percnt_init(percnt_t *percnt, uint8_t *ring_index);
uint32_t percnt_get(percnt_t *percnt, uint8_t *ring_index);
void percnt_inc(percnt_t *percnt, uint8_t *ring_index);
#endif /*PERSISTENTCOUNTER_H_*/ #endif /*PERSISTENTCOUNTER_H_*/

View File

@ -69,14 +69,9 @@ static void clear_text_pixmap(){
memset(text_pixmap, 0, NUM_ROWS * LINEBYTES); memset(text_pixmap, 0, NUM_ROWS * LINEBYTES);
} }
void update_pixmap(){ static void update_pixmap(){
unsigned char x, y, z; for(unsigned char p = NUMPLANE; p--;){
for(x=NUMPLANE;x--;){ memcpy(&pixmap[p][0][0], text_pixmap, NUM_ROWS * LINEBYTES);
for(y=NUM_ROWS;y--;){
for(z=LINEBYTES;z--;){
pixmap[x][y][z] = (*text_pixmap)[y][z];
}
}
} }
} }

View File

@ -62,7 +62,7 @@ int win;
void wait(unsigned int ms) { void wait(unsigned int ms) {
if (waitForFire) { if (waitForFire) {
if (fakeport & 0x01) { if (fakeport & 0x01) {
longjmp(newmode_jmpbuf, 43); longjmp(newmode_jmpbuf, 0xFEu);
} }
} }

View File

@ -455,7 +455,7 @@ void wait(int ms)
{ {
if (fakeport & 0x01) if (fakeport & 0x01)
{ {
longjmp(newmode_jmpbuf, 43); longjmp(newmode_jmpbuf, 0xFEu);
} }
} }

16
src/uart/Makefile Normal file
View File

@ -0,0 +1,16 @@
MAKETOPDIR = ../..
TARGET = libuart.a
SRC_SIM :=
include $(MAKETOPDIR)/defaults.mk
ifeq ($(UART_SUPPORT),y)
SRC = uart.c
SRC += uart_commands.c
endif
include $(MAKETOPDIR)/rules.mk
include $(MAKETOPDIR)/depend.mk

1
src/uart/config.in Normal file
View File

@ -0,0 +1 @@
# nothing for now

View File

@ -1,188 +1,688 @@
/* USART-Init beim ATmegaXX */ /*************************************************************************
Title: Interrupt UART library with receive/transmit circular buffers
Author: Peter Fleury <pfleury@gmx.ch> http://jump.to/fleury
File: $Id: uart.c,v 1.12 2014/01/08 21:58:12 peter Exp $
Software: AVR-GCC 4.1, AVR Libc 1.4.6 or higher
Hardware: any AVR with built-in UART,
License: GNU General Public License
DESCRIPTION:
An interrupt is generated when the UART has finished transmitting or
receiving a byte. The interrupt handling routines use circular buffers
for buffering received and transmitted data.
The UART_RX_BUFFER_SIZE and UART_TX_BUFFER_SIZE variables define
the buffer size in bytes. Note that these variables must be a
power of 2.
USAGE:
Refere to the header file uart.h for a description of the routines.
See also example test_uart.c.
NOTES:
Based on Atmel Application Note AVR306
LICENSE:
Copyright (C) 2006 Peter Fleury
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 2 of the License, or
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.
*************************************************************************/
#include <avr/io.h> #include <avr/io.h>
#include <avr/interrupt.h> #include <avr/interrupt.h>
#include <stdlib.h> #include <avr/pgmspace.h>
#include "config.h"
#include "uart.h" #include "uart.h"
#ifdef ATMEGA128
#define UCSRB UCSR0B /*
#define UCSRC UCSR0C * constants and macros
#define UDR UDR0 */
#define UBRRH UBRR0H
#define UBRRL UBRR0L /* size of RX/TX buffers */
#define URSEL UMSEL #define UART_RX_BUFFER_MASK ( UART_RX_BUFFER_SIZE - 1)
#define UART_TX_BUFFER_MASK ( UART_TX_BUFFER_SIZE - 1)
#if ( UART_RX_BUFFER_SIZE & UART_RX_BUFFER_MASK )
#error RX buffer size is not a power of 2
#endif
#if ( UART_TX_BUFFER_SIZE & UART_TX_BUFFER_MASK )
#error TX buffer size is not a power of 2
#endif
#if defined(__AVR_AT90S2313__) \
|| defined(__AVR_AT90S4414__) || defined(__AVR_AT90S4434__) \
|| defined(__AVR_AT90S8515__) || defined(__AVR_AT90S8535__) \
|| defined(__AVR_ATmega103__)
/* old AVR classic or ATmega103 with one UART */
#define AT90_UART
#define UART0_RECEIVE_INTERRUPT UART_RX_vect
#define UART0_TRANSMIT_INTERRUPT UART_UDRE_vect
#define UART0_STATUS USR
#define UART0_CONTROL UCR
#define UART0_DATA UDR
#define UART0_UDRIE UDRIE
#elif defined(__AVR_AT90S2333__) || defined(__AVR_AT90S4433__)
/* old AVR classic with one UART */
#define AT90_UART
#define UART0_RECEIVE_INTERRUPT UART_RX_vect
#define UART0_TRANSMIT_INTERRUPT UART_UDRE_vect
#define UART0_STATUS UCSRA
#define UART0_CONTROL UCSRB
#define UART0_DATA UDR
#define UART0_UDRIE UDRIE
#elif defined(__AVR_ATmega8__) || defined(__AVR_ATmega16__) || defined(__AVR_ATmega32__) \
|| defined(__AVR_ATmega323__)
/* ATmega with one USART */
#define ATMEGA_USART
#define UART0_RECEIVE_INTERRUPT USART_RXC_vect
#define UART0_TRANSMIT_INTERRUPT USART_UDRE_vect
#define UART0_STATUS UCSRA
#define UART0_CONTROL UCSRB
#define UART0_DATA UDR
#define UART0_UDRIE UDRIE
#elif defined (__AVR_ATmega8515__) || defined(__AVR_ATmega8535__)
#define ATMEGA_USART
#define UART0_RECEIVE_INTERRUPT USART_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART_UDRE_vect
#define UART0_STATUS UCSRA
#define UART0_CONTROL UCSRB
#define UART0_DATA UDR
#define UART0_UDRIE UDRIE
#elif defined(__AVR_ATmega163__)
/* ATmega163 with one UART */
#define ATMEGA_UART
#define UART0_RECEIVE_INTERRUPT UART_RX_vect
#define UART0_TRANSMIT_INTERRUPT UART_UDRE_vect
#define UART0_STATUS UCSRA
#define UART0_CONTROL UCSRB
#define UART0_DATA UDR
#define UART0_UDRIE UDRIE
#elif defined(__AVR_ATmega162__)
/* ATmega with two USART */
#define ATMEGA_USART0
#define ATMEGA_USART1
#define UART0_RECEIVE_INTERRUPT USART0_RXC_vect
#define UART1_RECEIVE_INTERRUPT USART1_RXC_vect
#define UART0_TRANSMIT_INTERRUPT USART0_UDRE_vect
#define UART1_TRANSMIT_INTERRUPT USART1_UDRE_vect
#define UART0_STATUS UCSR0A
#define UART0_CONTROL UCSR0B
#define UART0_DATA UDR0
#define UART0_UDRIE UDRIE0
#define UART1_STATUS UCSR1A
#define UART1_CONTROL UCSR1B
#define UART1_DATA UDR1
#define UART1_UDRIE UDRIE1
#elif defined(__AVR_ATmega64__) || defined(__AVR_ATmega128__)
/* ATmega with two USART */
#define ATMEGA_USART0
#define ATMEGA_USART1
#define UART0_RECEIVE_INTERRUPT USART0_RX_vect
#define UART1_RECEIVE_INTERRUPT USART1_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART0_UDRE_vect
#define UART1_TRANSMIT_INTERRUPT USART1_UDRE_vect
#define UART0_STATUS UCSR0A
#define UART0_CONTROL UCSR0B
#define UART0_DATA UDR0
#define UART0_UDRIE UDRIE0
#define UART1_STATUS UCSR1A
#define UART1_CONTROL UCSR1B
#define UART1_DATA UDR1
#define UART1_UDRIE UDRIE1
#elif defined(__AVR_ATmega161__)
/* ATmega with UART */
#error "AVR ATmega161 currently not supported by this libaray !"
#elif defined(__AVR_ATmega169__)
/* ATmega with one USART */
#define ATMEGA_USART
#define UART0_RECEIVE_INTERRUPT USART0_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART0_UDRE_vect
#define UART0_STATUS UCSRA
#define UART0_CONTROL UCSRB
#define UART0_DATA UDR
#define UART0_UDRIE UDRIE
#elif defined(__AVR_ATmega48__) || defined(__AVR_ATmega88__) || defined(__AVR_ATmega168__) || defined(__AVR_ATmega48P__) || defined(__AVR_ATmega88P__) || defined(__AVR_ATmega168P__) || defined(__AVR_ATmega328P__) \
|| defined(__AVR_ATmega3250__) || defined(__AVR_ATmega3290__) ||defined(__AVR_ATmega6450__) || defined(__AVR_ATmega6490__)
/* ATmega with one USART */
#define ATMEGA_USART0
#define UART0_RECEIVE_INTERRUPT USART_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART_UDRE_vect
#define UART0_STATUS UCSR0A
#define UART0_CONTROL UCSR0B
#define UART0_DATA UDR0
#define UART0_UDRIE UDRIE0
#elif defined(__AVR_ATtiny2313__)
#define ATMEGA_USART
#define UART0_RECEIVE_INTERRUPT USART_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART_UDRE_vect
#define UART0_STATUS UCSRA
#define UART0_CONTROL UCSRB
#define UART0_DATA UDR
#define UART0_UDRIE UDRIE
#elif defined(__AVR_ATmega329__) || \
defined(__AVR_ATmega649__) || \
defined(__AVR_ATmega325__) || \
defined(__AVR_ATmega645__)
/* ATmega with one USART */
#define ATMEGA_USART0
#define UART0_RECEIVE_INTERRUPT USART0_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART0_UDRE_vect
#define UART0_STATUS UCSR0A
#define UART0_CONTROL UCSR0B
#define UART0_DATA UDR0
#define UART0_UDRIE UDRIE0
#elif defined(__AVR_ATmega2560__) || defined(__AVR_ATmega2561__) || defined(__AVR_ATmega1280__) || defined(__AVR_ATmega1281__) || defined(__AVR_ATmega640__)
/* ATmega with two USART */
#define ATMEGA_USART0
#define ATMEGA_USART1
#define UART0_RECEIVE_INTERRUPT USART0_RX_vect
#define UART1_RECEIVE_INTERRUPT USART1_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART0_UDRE_vect
#define UART1_TRANSMIT_INTERRUPT USART1_UDRE_vect
#define UART0_STATUS UCSR0A
#define UART0_CONTROL UCSR0B
#define UART0_DATA UDR0
#define UART0_UDRIE UDRIE0
#define UART1_STATUS UCSR1A
#define UART1_CONTROL UCSR1B
#define UART1_DATA UDR1
#define UART1_UDRIE UDRIE1
#elif defined(__AVR_ATmega644__)
/* ATmega with one USART */
#define ATMEGA_USART0
#define UART0_RECEIVE_INTERRUPT USART0_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART0_UDRE_vect
#define UART0_STATUS UCSR0A
#define UART0_CONTROL UCSR0B
#define UART0_DATA UDR0
#define UART0_UDRIE UDRIE0
#elif defined(__AVR_ATmega164P__) || defined(__AVR_ATmega324P__) || defined(__AVR_ATmega644P__)
/* ATmega with two USART */
#define ATMEGA_USART0
#define ATMEGA_USART1
#define UART0_RECEIVE_INTERRUPT USART0_RX_vect
#define UART1_RECEIVE_INTERRUPT USART1_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART0_UDRE_vect
#define UART1_TRANSMIT_INTERRUPT USART1_UDRE_vect
#define UART0_STATUS UCSR0A
#define UART0_CONTROL UCSR0B
#define UART0_DATA UDR0
#define UART0_UDRIE UDRIE0
#define UART1_STATUS UCSR1A
#define UART1_CONTROL UCSR1B
#define UART1_DATA UDR1
#define UART1_UDRIE UDRIE1
#elif defined(__AVR_AT90USB646__) || defined(__AVR_AT90USB1286__) || defined(__AVR_AT90USB647__) || defined(__AVR_AT90USB1287__)
/* AT90USBxx with one USART */
#define AT90USB_USART
#define UART0_RECEIVE_INTERRUPT USART1_RX_vect
#define UART0_TRANSMIT_INTERRUPT USART1_UDRE_vect
#define UART0_STATUS UCSR1A
#define UART0_CONTROL UCSR1B
#define UART0_DATA UDR1
#define UART0_UDRIE UDRIE1
#elif defined __AVR
#error "no UART definition for MCU available"
#endif #endif
#define UART_BAUD_CALC(UART_BAUD_RATE,F_OSC) ((F_OSC)/((UART_BAUD_RATE)*16L)) /*
* module global variables
*/
static volatile unsigned char UART_TxBuf[UART_TX_BUFFER_SIZE];
static volatile unsigned char UART_RxBuf[UART_RX_BUFFER_SIZE];
static volatile unsigned char UART_TxHead;
static volatile unsigned char UART_TxTail;
static volatile unsigned char UART_RxHead;
static volatile unsigned char UART_RxTail;
static volatile unsigned char UART_LastRxError;
#if defined( ATMEGA_USART1 ) && defined (USE_UART1)
#ifdef UART_INTERRUPT static volatile unsigned char UART1_TxBuf[UART_TX_BUFFER_SIZE];
volatile static char rxbuf[UART_RXBUFSIZE]; static volatile unsigned char UART1_RxBuf[UART_RX_BUFFER_SIZE];
volatile static char txbuf[UART_TXBUFSIZE]; static volatile unsigned char UART1_TxHead;
volatile static char *volatile rxhead, *volatile rxtail; static volatile unsigned char UART1_TxTail;
volatile static char *volatile txhead, *volatile txtail; static volatile unsigned char UART1_RxHead;
static volatile unsigned char UART1_RxTail;
static volatile unsigned char UART1_LastRxError;
ISR(USART_UDRE_vect) {
#ifdef UART_LEDS
PORTC ^= 0x01;
#endif #endif
if ( txhead == txtail ) {
UCSRB &= ~(1 << UDRIE); /* disable data register empty IRQ */
} else {
UDR = *txtail; /* schreibt das Zeichen x auf die Schnittstelle */
if (++txtail == (txbuf + UART_TXBUFSIZE)) txtail = txbuf;
}
}
ISR(USART_RXC_vect) {
int diff;
#ifdef UART_LEDS
PORTC ^= 0x02; ISR (UART0_RECEIVE_INTERRUPT)
/*************************************************************************
Function: UART Receive Complete interrupt
Purpose: called when the UART has received a character
**************************************************************************/
{
unsigned char tmphead;
unsigned char data;
unsigned char usr;
unsigned char lastRxError;
/* read UART status register and UART data register */
usr = UART0_STATUS;
data = UART0_DATA;
/* */
#if defined( AT90_UART )
lastRxError = (usr & (_BV(FE)|_BV(DOR)) );
#elif defined( ATMEGA_USART )
lastRxError = (usr & (_BV(FE)|_BV(DOR)) );
#elif defined( ATMEGA_USART0 )
lastRxError = (usr & (_BV(FE0)|_BV(DOR0)) );
#elif defined ( ATMEGA_UART )
lastRxError = (usr & (_BV(FE)|_BV(DOR)) );
#elif defined( AT90USB_USART )
lastRxError = (usr & (_BV(FE1)|_BV(DOR1)) );
#endif #endif
/* buffer full? */ /* calculate buffer index */
diff = rxhead - rxtail; tmphead = ( UART_RxHead + 1) & UART_RX_BUFFER_MASK;
if ( diff < 0 ) diff += UART_RXBUFSIZE;
if (diff < UART_RXBUFSIZE -1) { if ( tmphead == UART_RxTail ) {
// buffer NOT full /* error: receive buffer overflow */
*rxhead = UDR; lastRxError = UART_BUFFER_OVERFLOW >> 8;
if (++rxhead == (rxbuf + UART_RXBUFSIZE)) rxhead = rxbuf; }else{
} else { /* store new index */
UDR; //reads the buffer to clear the interrupt condition UART_RxHead = tmphead;
} /* store received data in buffer */
UART_RxBuf[tmphead] = data;
}
UART_LastRxError |= lastRxError;
} }
#endif // UART_INTERRUPT
ISR (UART0_TRANSMIT_INTERRUPT)
void uart_init() { /*************************************************************************
PORTD |= 0x01; //Pullup an RXD an Function: UART Data Register Empty interrupt
Purpose: called when the UART is ready to transmit the next byte
UCSRA = 0; **************************************************************************/
UCSRB |= (1<<TXEN); //UART TX einschalten
UCSRC |= (1<<URSEL)|(3<<UCSZ0); //Asynchron 8N1
UCSRB |= ( 1 << RXEN ); //Uart RX einschalten
// UBRRH=(uint8_t)(UART_BAUD_CALC(UART_BAUD_RATE,F_CPU)>>8);
// UBRRL=(uint8_t)(UART_BAUD_CALC(UART_BAUD_RATE,F_CPU));
UBRRL = 8;
#ifdef UART_INTERRUPT
// init buffers
rxhead = rxtail = rxbuf;
txhead = txtail = txbuf;
// activate rx IRQ
UCSRB |= (1 << RXCIE);
#endif // UART_INTERRUPT
}
#ifdef UART_INTERRUPT
void uart_putc(char c) {
volatile int diff;
/* buffer full? */
do {
diff = txhead - txtail;
if ( diff < 0 ) diff += UART_TXBUFSIZE;
} while ( diff >= UART_TXBUFSIZE -1 );
cli();
*txhead = c;
if (++txhead == (txbuf + UART_TXBUFSIZE)) txhead = txbuf;
UCSRB |= (1 << UDRIE); /* enable data register empty IRQ */
sei();
}
#else // WITHOUT INTERRUPT
void uart_putc(char c) {
while (!(UCSRA & (1<<UDRE))); /* warten bis Senden moeglich */
UDR = c; /* schreibt das Zeichen x auf die Schnittstelle */
}
#endif // UART_INTERRUPT
void uart_putstr(char *str) {
while(*str) {
uart_putc(*str++);
}
}
void uart_putstr_P(PGM_P str) {
char tmp;
while((tmp = pgm_read_byte(str))) {
uart_putc(tmp);
str++;
}
}
void uart_hexdump(char *buf, int len)
{ {
unsigned char x=0; unsigned char tmptail;
char sbuf[3];
while(len--){
itoa(*buf++, sbuf, 16); if ( UART_TxHead != UART_TxTail) {
if (sbuf[1] == 0) uart_putc(' '); /* calculate and store new buffer index */
uart_putstr(sbuf); tmptail = (UART_TxTail + 1) & UART_TX_BUFFER_MASK;
uart_putc(' '); UART_TxTail = tmptail;
if(++x == 16) { /* get one byte from buffer and write it to UART */
uart_putstr_P(PSTR("\r\n")); UART0_DATA = UART_TxBuf[tmptail]; /* start transmission */
x = 0; }else{
} /* tx buffer empty, disable UDRE interrupt */
} UART0_CONTROL &= ~_BV(UART0_UDRIE);
}
} }
#ifdef UART_INTERRUPT /*************************************************************************
char uart_getc() Function: uart_init()
Purpose: initialize UART and set baudrate
Input: baudrate using macro UART_BAUD_SELECT()
Returns: none
**************************************************************************/
void uart_init(unsigned int baudrate)
{ {
char val; UART_TxHead = 0;
UART_TxTail = 0;
UART_RxHead = 0;
UART_RxTail = 0;
while(rxhead==rxtail) ; #if defined( AT90_UART )
/* set baud rate */
UBRR = (unsigned char)baudrate;
val = *rxtail; /* enable UART receiver and transmmitter and receive complete interrupt */
if (++rxtail == (rxbuf + UART_RXBUFSIZE)) rxtail = rxbuf; UART0_CONTROL = _BV(RXCIE)|_BV(RXEN)|_BV(TXEN);
return val; #elif defined (ATMEGA_USART)
} /* Set baud rate */
#else // WITHOUT INTERRUPT if ( baudrate & 0x8000 )
char uart_getc() {
UART0_STATUS = (1<<U2X); //Enable 2x speed
baudrate &= ~0x8000;
}
UBRRH = (unsigned char)(baudrate>>8);
UBRRL = (unsigned char) baudrate;
/* Enable USART receiver and transmitter and receive complete interrupt */
UART0_CONTROL = _BV(RXCIE)|(1<<RXEN)|(1<<TXEN);
/* Set frame format: asynchronous, 8data, no parity, 1stop bit */
#ifdef URSEL
UCSRC = (1<<URSEL)|(3<<UCSZ0);
#else
UCSRC = (3<<UCSZ0);
#endif
#elif defined (ATMEGA_USART0 )
/* Set baud rate */
if ( baudrate & 0x8000 )
{
UART0_STATUS = (1<<U2X0); //Enable 2x speed
baudrate &= ~0x8000;
}
UBRR0H = (unsigned char)(baudrate>>8);
UBRR0L = (unsigned char) baudrate;
/* Enable USART receiver and transmitter and receive complete interrupt */
UART0_CONTROL = _BV(RXCIE0)|(1<<RXEN0)|(1<<TXEN0);
/* Set frame format: asynchronous, 8data, no parity, 1stop bit */
#ifdef URSEL0
UCSR0C = (1<<URSEL0)|(3<<UCSZ00);
#else
UCSR0C = (3<<UCSZ00);
#endif
#elif defined ( ATMEGA_UART )
/* set baud rate */
if ( baudrate & 0x8000 )
{
UART0_STATUS = (1<<U2X); //Enable 2x speed
baudrate &= ~0x8000;
}
UBRRHI = (unsigned char)(baudrate>>8);
UBRR = (unsigned char) baudrate;
/* Enable UART receiver and transmitter and receive complete interrupt */
UART0_CONTROL = _BV(RXCIE)|(1<<RXEN)|(1<<TXEN);
#elif defined ( AT90USB_USART )
/* set baud rate */
if ( baudrate & 0x8000 )
{
UART0_STATUS = (1<<U2X1 ); //Enable 2x speed
baudrate &= ~0x8000;
}
UBRR1H = (unsigned char)(baudrate>>8);
UBRR1L = (unsigned char) baudrate;
/* Enable UART receiver and transmitter and receive complete interrupt */
UART0_CONTROL = _BV(RXCIE1)|(1<<RXEN1)|(1<<TXEN1);
/* Set frame format: asynchronous, 8data, no parity, 1stop bit */
UCSR1C = (1<<UCSZ11)|(1<<UCSZ10);
#endif
}/* uart_init */
/*************************************************************************
Function: uart_getc()
Purpose: return byte from ringbuffer
Returns: lower byte: received byte from ringbuffer
higher byte: last receive error
**************************************************************************/
unsigned int uart_getc(void)
{ {
while (!(UCSRA & (1<<RXC))); // warten bis Zeichen verfuegbar unsigned char tmptail;
return UDR; // Zeichen aus UDR zurueckgeben unsigned char data;
}
#endif // UART_INTERRUPT
// returns 1 on success
#ifdef UART_INTERRUPT if ( UART_RxHead == UART_RxTail ) {
char uart_getc_nb(char *c) return UART_NO_DATA; /* no data available */
}
/* calculate /store buffer index */
tmptail = (UART_RxTail + 1) & UART_RX_BUFFER_MASK;
UART_RxTail = tmptail;
/* get data from receive buffer */
data = UART_RxBuf[tmptail];
data = (UART_LastRxError << 8) + data;
UART_LastRxError = 0;
return data;
}/* uart_getc */
/*************************************************************************
Function: uart_putc()
Purpose: write byte to ringbuffer for transmitting via UART
Input: byte to be transmitted
Returns: none
**************************************************************************/
void uart_putc(unsigned char data)
{ {
if (rxhead==rxtail) return 0; unsigned char tmphead;
*c = *rxtail;
if (++rxtail == (rxbuf + UART_RXBUFSIZE)) rxtail = rxbuf;
return 1; tmphead = (UART_TxHead + 1) & UART_TX_BUFFER_MASK;
}
#else // WITHOUT INTERRUPT while ( tmphead == UART_TxTail ){
char uart_getc_nb(char *c) ;/* wait for free space in buffer */
}
UART_TxBuf[tmphead] = data;
UART_TxHead = tmphead;
/* enable UDRE interrupt */
UART0_CONTROL |= _BV(UART0_UDRIE);
}/* uart_putc */
/*************************************************************************
Function: uart_puts()
Purpose: transmit string to UART
Input: string to be transmitted
Returns: none
**************************************************************************/
void uart_puts(const char *s )
{ {
if (UCSRA & (1<<RXC)) { // Zeichen verfuegbar while (*s)
*c = UDR; uart_putc(*s++);
return 1;
}
return 0; }/* uart_puts */
/*************************************************************************
Function: uart_puts_p()
Purpose: transmit string from program memory to UART
Input: program memory string to be transmitted
Returns: none
**************************************************************************/
void uart_puts_p(const char *progmem_s )
{
register char c;
while ( (c = pgm_read_byte(progmem_s++)) )
uart_putc(c);
}/* uart_puts_p */
/*
* these functions are only for ATmegas with two USART
*/
#if defined( ATMEGA_USART1 ) && defined (USE_UART1)
ISR(UART1_RECEIVE_INTERRUPT)
/*************************************************************************
Function: UART1 Receive Complete interrupt
Purpose: called when the UART1 has received a character
**************************************************************************/
{
unsigned char tmphead;
unsigned char data;
unsigned char usr;
unsigned char lastRxError;
/* read UART status register and UART data register */
usr = UART1_STATUS;
data = UART1_DATA;
/* */
lastRxError = (usr & (_BV(FE1)|_BV(DOR1)) );
/* calculate buffer index */
tmphead = ( UART1_RxHead + 1) & UART_RX_BUFFER_MASK;
if ( tmphead == UART1_RxTail ) {
/* error: receive buffer overflow */
lastRxError = UART_BUFFER_OVERFLOW >> 8;
}else{
/* store new index */
UART1_RxHead = tmphead;
/* store received data in buffer */
UART1_RxBuf[tmphead] = data;
}
UART1_LastRxError |= lastRxError;
} }
#endif // UART_INTERRUPT
ISR(UART1_TRANSMIT_INTERRUPT)
/*************************************************************************
Function: UART1 Data Register Empty interrupt
Purpose: called when the UART1 is ready to transmit the next byte
**************************************************************************/
{
unsigned char tmptail;
if ( UART1_TxHead != UART1_TxTail) {
/* calculate and store new buffer index */
tmptail = (UART1_TxTail + 1) & UART_TX_BUFFER_MASK;
UART1_TxTail = tmptail;
/* get one byte from buffer and write it to UART */
UART1_DATA = UART1_TxBuf[tmptail]; /* start transmission */
}else{
/* tx buffer empty, disable UDRE interrupt */
UART1_CONTROL &= ~_BV(UART1_UDRIE);
}
}
/*************************************************************************
Function: uart1_init()
Purpose: initialize UART1 and set baudrate
Input: baudrate using macro UART_BAUD_SELECT()
Returns: none
**************************************************************************/
void uart1_init(unsigned int baudrate)
{
UART1_TxHead = 0;
UART1_TxTail = 0;
UART1_RxHead = 0;
UART1_RxTail = 0;
/* Set baud rate */
if ( baudrate & 0x8000 )
{
UART1_STATUS = (1<<U2X1); //Enable 2x speed
baudrate &= ~0x8000;
}
UBRR1H = (unsigned char)(baudrate>>8);
UBRR1L = (unsigned char) baudrate;
/* Enable USART receiver and transmitter and receive complete interrupt */
UART1_CONTROL = _BV(RXCIE1)|(1<<RXEN1)|(1<<TXEN1);
/* Set frame format: asynchronous, 8data, no parity, 1stop bit */
#ifdef URSEL1
UCSR1C = (1<<URSEL1)|(3<<UCSZ10);
#else
UCSR1C = (3<<UCSZ10);
#endif
}/* uart_init */
/*************************************************************************
Function: uart1_getc()
Purpose: return byte from ringbuffer
Returns: lower byte: received byte from ringbuffer
higher byte: last receive error
**************************************************************************/
unsigned int uart1_getc(void)
{
unsigned char tmptail;
unsigned char data;
if ( UART1_RxHead == UART1_RxTail ) {
return UART_NO_DATA; /* no data available */
}
/* calculate /store buffer index */
tmptail = (UART1_RxTail + 1) & UART_RX_BUFFER_MASK;
UART1_RxTail = tmptail;
/* get data from receive buffer */
data = UART1_RxBuf[tmptail];
data = (UART1_LastRxError << 8) + data;
UART1_LastRxError = 0;
return data;
}/* uart1_getc */
/*************************************************************************
Function: uart1_putc()
Purpose: write byte to ringbuffer for transmitting via UART
Input: byte to be transmitted
Returns: none
**************************************************************************/
void uart1_putc(unsigned char data)
{
unsigned char tmphead;
tmphead = (UART1_TxHead + 1) & UART_TX_BUFFER_MASK;
while ( tmphead == UART1_TxTail ){
;/* wait for free space in buffer */
}
UART1_TxBuf[tmphead] = data;
UART1_TxHead = tmphead;
/* enable UDRE interrupt */
UART1_CONTROL |= _BV(UART1_UDRIE);
}/* uart1_putc */
/*************************************************************************
Function: uart1_puts()
Purpose: transmit string to UART1
Input: string to be transmitted
Returns: none
**************************************************************************/
void uart1_puts(const char *s )
{
while (*s)
uart1_putc(*s++);
}/* uart1_puts */
/*************************************************************************
Function: uart1_puts_p()
Purpose: transmit string from program memory to UART1
Input: program memory string to be transmitted
Returns: none
**************************************************************************/
void uart1_puts_p(const char *progmem_s )
{
register char c;
while ( (c = pgm_read_byte(progmem_s++)) )
uart1_putc(c);
}/* uart1_puts_p */
#endif

View File

@ -1,35 +1,223 @@
#ifndef UART_H #ifndef UART_H
#define UART_H #define UART_H
/************************************************************************
Title: Interrupt UART library with receive/transmit circular buffers
Author: Peter Fleury <pfleury@gmx.ch> http://jump.to/fleury
File: $Id: uart.h,v 1.12 2012/11/19 19:52:27 peter Exp $
Software: AVR-GCC 4.1, AVR Libc 1.4
Hardware: any AVR with built-in UART, tested on AT90S8515 & ATmega8 at 4 Mhz
License: GNU General Public License
Usage: see Doxygen manual
LICENSE:
Copyright (C) 2006 Peter Fleury
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 2 of the License, or
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.
************************************************************************/
/** /**
* UART Library * @defgroup pfleury_uart UART Library
* @code #include <uart.h> @endcode
* *
* #define F_CPU 16000000 // Oszillator-Frequenz in Hz * @brief Interrupt UART library using the built-in UART with transmit and
* #define UART_INTERRUPT 1 * receive circular buffers.
* #define UART_BAUD_RATE 19200
* #define UART_RXBUFSIZE 16
* #define UART_TXBUFSIZE 16
* #define UART_LINE_BUFFER_SIZE 40
* #define UART_LEDS // LED1 and LED2 toggle on tx and rx interrupt
* *
* This library can be used to transmit and receive data through the built in
* UART.
*
* An interrupt is generated when the UART has finished transmitting or
* receiving a byte. The interrupt handling routines use circular buffers
* for buffering received and transmitted data.
*
* The UART_RX_BUFFER_SIZE and UART_TX_BUFFER_SIZE constants define the size of
* the circular buffers in bytes. Note that these constants must be a power of
* 2. You may need to adapt this constants to your target and your application
* by adding CDEFS += -DUART_RX_BUFFER_SIZE=nn -DUART_RX_BUFFER_SIZE=nn to your
* Makefile.
*
* @note Based on Atmel Application Note AVR306
* @author Peter Fleury pfleury@gmx.ch http://jump.to/fleury
*/ */
#include <inttypes.h> /**@{*/
#include <avr/pgmspace.h>
void uart_init(); #include "../config.h"
void uart_putc(char c);
void uart_putstr(char * str);
void uart_putstr_P(PGM_P str);
void uart_hexdump(char *buf, int len);
char uart_getc();
char uart_getc_nb(char *c); // returns 1 on success
//get one Cariage return terminated line
//echo charakters back on Uart
//returns buffer with zero terminated line on success, 0 pointer otherwise
char * uart_getline_nb();
#if (__GNUC__ * 100 + __GNUC_MINOR__) < 304
#error "This library requires AVR-GCC 3.4 or later, update to newer AVR-GCC compiler !"
#endif #endif
/*
* constants and macros
*/
/** @brief UART Baudrate Expression
* @param xtalcpu system clock in Mhz, e.g. 4000000UL for 4Mhz
* @param baudrate baudrate in bps, e.g. 1200, 2400, 9600
*/
#define UART_BAUD_SELECT(baudRate,xtalCpu) \
(((xtalCpu) + 8UL * (baudRate)) / (16UL * (baudRate)) -1UL)
/** @brief UART Baudrate Expression for ATmega double speed mode
* @param xtalcpu system clock in Mhz, e.g. 4000000UL for 4Mhz
* @param baudrate baudrate in bps, e.g. 1200, 2400, 9600
*/
#define UART_BAUD_SELECT_DOUBLE_SPEED(baudRate,xtalCpu) \
(((((xtalCpu) + 4UL * (baudRate)) / (8UL * (baudRate)) -1UL)) | 0x8000)
/** Size of the circular receive buffer, must be power of 2 */
#ifndef UART_RX_BUFFER_SIZE
#define UART_RX_BUFFER_SIZE 32
#endif
/** Size of the circular transmit buffer, must be power of 2 */
#ifndef UART_TX_BUFFER_SIZE
#define UART_TX_BUFFER_SIZE 32
#endif
/* test if the size of the circular buffers fits into SRAM */
#if ( (UART_RX_BUFFER_SIZE+UART_TX_BUFFER_SIZE) >= (RAMEND-0x60 ) ) && defined __AVR
#error "size of UART_RX_BUFFER_SIZE + UART_TX_BUFFER_SIZE larger than size of SRAM"
#endif
/*
** high byte error return code of uart_getc()
*/
#define UART_FRAME_ERROR 0x1000 /* Framing Error by UART */
#define UART_OVERRUN_ERROR 0x0800 /* Overrun condition by UART */
#define UART_PARITY_ERROR 0x0400 /* Parity Error by UART */
#define UART_BUFFER_OVERFLOW 0x0200 /* receive ringbuffer overflow */
#define UART_NO_DATA 0x0100 /* no receive data available */
/*
** function prototypes
*/
/**
@brief Initialize UART and set baudrate
@param baudrate Specify baudrate using macro UART_BAUD_SELECT()
@return none
*/
extern void uart_init(unsigned int baudrate);
/**
* @brief Get received byte from ringbuffer
*
* Returns in the lower byte the received character and in the
* higher byte the last receive error.
* UART_NO_DATA is returned when no data is available.
*
* @param void
* @return lower byte: received byte from ringbuffer
* @return higher byte: last receive status
* - \b 0 successfully received data from UART
* - \b UART_NO_DATA
* <br>no receive data available
* - \b UART_BUFFER_OVERFLOW
* <br>Receive ringbuffer overflow.
* We are not reading the receive buffer fast enough,
* one or more received character have been dropped
* - \b UART_OVERRUN_ERROR
* <br>Overrun condition by UART.
* A character already present in the UART UDR register was not read
* by the interrupt handler before the next character arrived,
* one or more received characters have been dropped.
* - \b UART_FRAME_ERROR
* <br>Framing Error by UART
*/
extern unsigned int uart_getc(void);
/**
* @brief Put byte to ringbuffer for transmitting via UART
* @param data byte to be transmitted
* @return none
*/
extern void uart_putc(unsigned char data);
/**
* @brief Put string to ringbuffer for transmitting via UART
*
* The string is buffered by the uart library in a circular buffer
* and one character at a time is transmitted to the UART using interrupts.
* Blocks if it can not write the whole string into the circular buffer.
*
* @param s string to be transmitted
* @return none
*/
extern void uart_puts(const char *s );
/**
* @brief Put string from program memory to ringbuffer for transmitting via
* UART.
*
* The string is buffered by the uart library in a circular buffer
* and one character at a time is transmitted to the UART using interrupts.
* Blocks if it can not write the whole string into the circular buffer.
*
* @param s program memory string to be transmitted
* @return none
* @see uart_puts_P
*/
extern void uart_puts_p(const char *s );
/**
* @brief Macro to automatically put a string constant into program memory
*/
#define uart_puts_P(__s) uart_puts_p(PSTR(__s))
#if defined USE_UART1 || defined DOXYGEN
/** @brief Initialize USART1 (only available on selected ATmegas)
* @see uart_init
*/
extern void uart1_init(unsigned int baudrate);
/** @brief Get received byte of USART1 from ringbuffer (only available on
* selected ATmega)
* @see uart_getc
*/
extern unsigned int uart1_getc(void);
/** @brief Put byte to ringbuffer for transmitting via USART1 (only available
* on selected ATmega)
* @see uart_putc
*/
extern void uart1_putc(unsigned char data);
/** @brief Put string to ringbuffer for transmitting via USART1 (only available
* on selected ATmega)
* @see uart_puts
*/
extern void uart1_puts(const char *s );
/** @brief Put string from program memory to ringbuffer for transmitting via
* USART1 (only available on selected ATmega)
* @see uart_puts_p
*/
extern void uart1_puts_p(const char *s );
/** @brief Macro to automatically put a string constant into program memory */
#define uart1_puts_P(__s) uart1_puts_p(PSTR(__s))
/**@}*/
#endif // defined USE_UART1 || defined DOXYGEN
#endif // UART_H

503
src/uart/uart_commands.c Normal file
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@ -0,0 +1,503 @@
#include <stdint.h>
#include <stdio.h>
#include <string.h>
#include <ctype.h>
#include <stdbool.h>
#include <setjmp.h>
#include <limits.h>
#include <avr/interrupt.h>
#include <avr/pgmspace.h>
#include <avr/eeprom.h>
#include "../config.h"
#include "../borg_hw/borg_hw.h"
#ifdef JOYSTICK_SUPPORT
#include "../joystick/joystick.h"
extern unsigned char waitForFire;
#endif
#include "../scrolltext/scrolltext.h"
#include "../animations/program.h"
#include "uart.h"
#include "uart_commands.h"
#ifndef USE_UART1
# define UART_PUTS(STR) uart_puts(STR)
# define UART_PUTS_P(STR) uart_puts_p(STR)
# define UART_GETC uart_getc
# define UART_PUTC uart_putc
#else
# define UART_PUTS(STR) uart1_puts(STR)
# define UART_PUTS_P(STR) uart1_puts_p(STR)
# define UART_GETC uart1_getc
# define UART_PUTC uart1_putc
#endif
#define UART_BUFFER_SIZE (SCROLLTEXT_BUFFER_SIZE + 8)
char g_rx_buffer[UART_BUFFER_SIZE];
uint8_t g_rx_index;
extern jmp_buf newmode_jmpbuf;
extern volatile unsigned char mode;
extern volatile unsigned char reverseMode;
#define CR "\r\n"
#if (!(defined(eeprom_update_block) && \
((E2PAGESIZE == 2) || (E2PAGESIZE == 4) || (E2PAGESIZE == 8)))) || \
!(defined(ANIMATION_TESTS))
char const UART_STR_NOTIMPL[] PROGMEM = "Not implemented."CR;
#endif
char const UART_STR_CLEARLINE[] PROGMEM = "\r\033[J";
char const UART_STR_BACKSPACE[] PROGMEM = "\b \b";
char const UART_STR_PROMPT[] PROGMEM = "> ";
char const UART_STR_MODE[] PROGMEM = "%d"CR;
char const UART_STR_MODE_ERR[] PROGMEM = "Range is between 0 and 255."CR;
char const UART_STR_GAMEMO_ERR[] PROGMEM = "No mode change during games."CR;
char const UART_STR_GAMETX_ERR[] PROGMEM = "No text messages during games."CR;
char const UART_STR_UART_ERR[] PROGMEM = "Transmission error."CR;
char const UART_STR_UNKNOWN[] PROGMEM = "Unknown command or syntax error."CR;
char const UART_STR_TOOLONG[] PROGMEM = CR"Command is too long."CR;
char const UART_STR_HELP[] PROGMEM = "Allowed commands: erase help mode "
"msg next prev reset scroll test"CR;
char const UART_CMD_ERASE[] PROGMEM = "erase";
char const UART_CMD_HELP[] PROGMEM = "help";
char const UART_CMD_MODE[] PROGMEM = "mode";
char const UART_CMD_MSG[] PROGMEM = "msg ";
char const UART_CMD_NEXT[] PROGMEM = "next";
char const UART_CMD_PREV[] PROGMEM = "prev";
char const UART_CMD_RESET[] PROGMEM = "reset";
char const UART_CMD_SCROLL[] PROGMEM = "scroll ";
char const UART_CMD_TEST[] PROGMEM = "test";
#ifdef ANIMATION_TESTS
char const UART_STR_TEST_EXIT[] PROGMEM = "Press ENTER to exit test."CR;
char const UART_STR_TEST_ERR[] PROGMEM = "Range is between 0 and %d."CR;
char const UART_STR_GAMETS_ERR[] PROGMEM = "No display tests during games."CR;
char const UART_STR_TEST_UP[] PROGMEM = "UP ";
char const UART_STR_TEST_DOWN[] PROGMEM = "DOWN ";
char const UART_STR_TEST_LEFT[] PROGMEM = "LEFT ";
char const UART_STR_TEST_RIGHT[] PROGMEM = "RIGHT ";
char const UART_STR_TEST_FIRE[] PROGMEM = "FIRE";
enum uartcmd_joytest_e {
UARTCMD_JOY_UP = 0x01,
UARTCMD_JOY_DOWN = 0x02,
UARTCMD_JOY_LEFT = 0x04,
UARTCMD_JOY_RIGHT = 0x08,
UARTCMD_JOY_FIRE = 0x10
};
# ifdef NDEBUG
typedef uint8_t uartcmd_joytest_t;
# else
typedef enum uartcmd_joytest_e uartcmd_joytest_t;
# endif
#endif
bool g_uartcmd_permit_processing = 1;
/**
* Checks if command processing is allowed.
*/
static bool uartcmd_processing_allowed(void) {
bool result;
cli();
result = g_uartcmd_permit_processing;
sei();
return result;
}
/**
* Clears the command string buffer.
*/
static void uartcmd_clear_buffer(void) {
char *p = &g_rx_buffer[0];
for (uint8_t i = UART_BUFFER_SIZE; i--;) {
*p++ = 0;
}
g_rx_index = 0;
}
/**
* Erases the complete EEPROM to reset counters and high score tables.
*/
static void uartcmd_erase_eeprom(void) {
#if defined(eeprom_update_block) && \
((E2PAGESIZE == 2) || (E2PAGESIZE == 4) || (E2PAGESIZE == 8))
uint8_t const eeclear[] =
# if E2PAGESIZE == 8
{0xFF, 0xFF, 0xFF, 0xFF, 0xFF, 0xFF, 0xFF, 0xFF, 0xFF};
# elif E2PAGESIZE == 4
{0xFF, 0xFF, 0xFF, 0xFF};
# elif E2PAGESIZE == 2
{0xFF, 0xFF};
# endif
for (void *ee = 0; ee < (void *)E2END; ee += E2PAGESIZE) {
eeprom_busy_wait();
eeprom_update_block(eeclear, ee, E2PAGESIZE);
}
#else
UART_PUTS_P(UART_STR_NOTIMPL);
#endif
}
/**
* Displays a simple message without the need to prefix a scrolltext command.
*/
static void uartcmd_simple_message(void) {
if (uartcmd_processing_allowed()) {
uartcmd_forbid();
#ifdef JOYSTICK_SUPPORT
if (waitForFire) {
waitForFire = 0;
#endif
g_rx_buffer[1] = '<';
g_rx_buffer[2] = '/';
g_rx_buffer[3] = '#';
// text must not be longer than the scroll text buffer
g_rx_buffer[1 + SCROLLTEXT_BUFFER_SIZE - 1] = 0;
scrolltext(&g_rx_buffer[1]);
#ifdef JOYSTICK_SUPPORT
waitForFire = 1;
} else {
UART_PUTS_P(UART_STR_GAMETX_ERR);
}
#endif
uartcmd_permit();
}
}
/**
* Displays a message which may use the complete range of scrolltext commands.
*/
static void uartcmd_scroll_message(void) {
if (uartcmd_processing_allowed()) {
uartcmd_forbid();
#ifdef JOYSTICK_SUPPORT
if (waitForFire) {
waitForFire = 0;
#endif
// text must not be longer than the scroll text buffer
g_rx_buffer[7 + SCROLLTEXT_BUFFER_SIZE - 1] = 0;
scrolltext(&g_rx_buffer[7]);
#ifdef JOYSTICK_SUPPORT
waitForFire = 1;
} else {
UART_PUTS_P(UART_STR_GAMETX_ERR);
}
#endif
uartcmd_permit();
}
}
/**
* As long there's no game active, jump to the next animation.
*/
static void uartcmd_next_anim(void) {
#ifdef JOYSTICK_SUPPORT
if (waitForFire) {
#endif
UART_PUTS_P(UART_STR_PROMPT);
uartcmd_clear_buffer();
longjmp(newmode_jmpbuf, mode);
#ifdef JOYSTICK_SUPPORT
} else {
UART_PUTS_P(UART_STR_GAMEMO_ERR);
}
#endif
}
/**
* As long there's no game active, jump to the previous animation.
*/
static void uartcmd_prev_anim(void) {
#ifdef JOYSTICK_SUPPORT
if (waitForFire) {
#endif
reverseMode = mode - 2;
UART_PUTS_P(UART_STR_PROMPT);
uartcmd_clear_buffer();
longjmp(newmode_jmpbuf, mode - 2);
#ifdef JOYSTICK_SUPPORT
} else {
UART_PUTS_P(UART_STR_GAMEMO_ERR);
}
#endif
}
/**
* Extracts a positive number from an ASCII string (up to INT_MAX).
* @param buffer String to be examined. Preceding whitespaces are skipped.
* ASCII control characters and [Space] act as delimiters.
* @return The extracted number or -1 if a conversion error occurred.
*/
int uartcmd_extract_num_arg(char *buffer) {
int res = -1;
uint8_t i = 0;
while (buffer[i] <= ' ' && buffer[i] != 0) ++i; // skip whitespaces
for (; buffer[i] > 0x20; ++i) {
if (res < 0) {
res = 0;
}
int const d = buffer[i] - '0';
if (isdigit(buffer[i]) && (res <= (INT_MAX / 10)) &&
((res * 10) <= (INT_MAX - d))) {
res = res * 10 + d;
} else {
res = -1;
break;
}
}
return res;
}
/**
* Outputs current mode number via UART.
*/
static void uartcmd_print_mode(void) {
char mode_output[6] = "";
snprintf_P(mode_output, 6, UART_STR_MODE, mode - 1);
uart_puts(mode_output);
}
/**
* Retrieves desired mode number from command line and switches to that mode.
*/
static void uartcmd_mode(void) {
if (g_rx_buffer[4] != 0) {
int new_mode = uartcmd_extract_num_arg(&g_rx_buffer[4]);
if (new_mode <= UINT8_MAX) {
#ifdef JOYSTICK_SUPPORT
if (waitForFire) {
#endif
UART_PUTS_P(UART_STR_PROMPT);
uartcmd_clear_buffer();
longjmp(newmode_jmpbuf, new_mode);
#ifdef JOYSTICK_SUPPORT
} else {
UART_PUTS_P(UART_STR_GAMEMO_ERR);
}
#endif
} else {
UART_PUTS_P(UART_STR_MODE_ERR);
}
} else {
uartcmd_print_mode();
}
}
#if defined(ANIMATION_TESTS) && defined(JOYSTICK_SUPPORT)
/**
* Prints current joystick status via UART.
*/
static void uartcmd_joy_test(uint8_t *last) {
uint8_t joy_value = 0;
if (JOYISUP) {
joy_value |= UARTCMD_JOY_UP;
}
if (JOYISDOWN) {
joy_value |= UARTCMD_JOY_DOWN;
}
if (JOYISLEFT) {
joy_value |= UARTCMD_JOY_LEFT;
}
if (JOYISRIGHT) {
joy_value |= UARTCMD_JOY_RIGHT;
}
if (JOYISFIRE) {
joy_value |= UARTCMD_JOY_FIRE;
}
if (joy_value != *last) {
UART_PUTS_P(UART_STR_CLEARLINE);
if (joy_value & UARTCMD_JOY_UP) {
UART_PUTS_P(UART_STR_TEST_UP);
}
if (joy_value & UARTCMD_JOY_DOWN) {
UART_PUTS_P(UART_STR_TEST_DOWN);
}
if (joy_value & UARTCMD_JOY_LEFT) {
UART_PUTS_P(UART_STR_TEST_LEFT);
}
if (joy_value & UARTCMD_JOY_RIGHT) {
UART_PUTS_P(UART_STR_TEST_RIGHT);
}
if (joy_value & UARTCMD_JOY_FIRE) {
UART_PUTS_P(UART_STR_TEST_FIRE);
}
*last = joy_value;
}
}
#endif
/**
* Draws test patterns for display inspection.
*/
static void uartcmd_test(void) {
#ifdef ANIMATION_TESTS
# ifdef JOYSTICK_SUPPORT
if (waitForFire) {
waitForFire = 0;
# endif
uartcmd_forbid();
int pattern_no = uartcmd_extract_num_arg(&g_rx_buffer[4]);
if (pattern_no >= 0 && pattern_no <= NUMPLANE + 2) {
UART_PUTS_P(UART_STR_TEST_EXIT);
if (pattern_no <= NUMPLANE) {
test_level(pattern_no, true);
} else if (pattern_no == (NUMPLANE + 1)) {
test_palette(true);
} else if (pattern_no == (NUMPLANE + 2)) {
test_palette2(true);
}
# ifdef JOYSTICK_SUPPORT
uint8_t last_joy_value = 0;
# endif
while (UART_GETC() >= 0x20){ // wait for any control character
# ifdef JOYSTICK_SUPPORT
uartcmd_joy_test(&last_joy_value);
wait(20);
# endif
}
} else {
char msg[36] = "";
snprintf_P(msg, sizeof(msg), UART_STR_TEST_ERR, NUMPLANE + 2);
UART_PUTS(msg);
}
uartcmd_permit();
# ifdef JOYSTICK_SUPPORT
waitForFire = 1;
} else {
UART_PUTS_P(UART_STR_GAMETS_ERR);
}
# endif
#else
UART_PUTS_P(UART_STR_NOTIMPL);
#endif
}
/**
* Perform a MCU reset by triggering the watchdog.
*/
static void uartcmd_reset_borg(void) {
timer0_off();
}
/**
* Appends new characters the buffer until a line break is entered.
* @return true if a line break was entered, false otherwise.
*/
static bool uartcmd_read_until_enter(void) {
static char last_line_break = '\n';
while (g_rx_index < (UART_BUFFER_SIZE - 1)) {
int uart_result = uart_getc();
if (uart_result < 0x100u) {
switch ((char)uart_result) {
case '\n': // line feed
case '\r': // carriage return
if ((g_rx_index > 0) || (uart_result == last_line_break)) {
UART_PUTS(CR);
g_rx_buffer[g_rx_index++] = 0;
last_line_break = uart_result;
return true;
}
break;
case '\b': // BS
case '\177': // DEL
if (g_rx_index != 0) {
g_rx_buffer[--g_rx_index] = 0;
UART_PUTS_P(UART_STR_BACKSPACE);
}
break;
case '\f': // Form Feed (Ctrl-L), reprints the line buffer
UART_PUTS_P(UART_STR_CLEARLINE); // clear current line
UART_PUTS_P(UART_STR_PROMPT); // output prompt
g_rx_buffer[g_rx_index] = 0; // terminate input buffer
UART_PUTS(g_rx_buffer); // finally reprint it
break;
case 21: // NAK (Ctrl-U), clears the line buffer
UART_PUTS_P(UART_STR_CLEARLINE); // clear current line
UART_PUTS_P(UART_STR_PROMPT); // output prompt
uartcmd_clear_buffer(); // clear buffer
break;
case 27: // ignore Esc
break;
default:
// We don't accept control characters which are not handled
// above. We also limit the input to 7 bit ASCII.
if ((uart_result < 0x20) || (uart_result > 0x7f)) {
UART_PUTC('\a'); // complain via ASCII bell
} else {
g_rx_buffer[g_rx_index++] = uart_result; // accept input
UART_PUTC(uart_result); // echo input back to terminal
}
break;
}
} else if ((uart_result & 0xFF00u) != UART_NO_DATA) {
uartcmd_clear_buffer();
UART_PUTS_P(UART_STR_UART_ERR);
UART_PUTS_P(UART_STR_PROMPT);
break;
} else {
break;
}
}
if (g_rx_index >= (UART_BUFFER_SIZE - 1)) {
uartcmd_clear_buffer();
UART_PUTS_P(UART_STR_TOOLONG);
UART_PUTS_P(UART_STR_PROMPT);
}
return false;
}
/**
* Checks for entered commands and dispatches them to the appropriate handler.
*/
void uartcmd_process(void) {
if (uartcmd_processing_allowed() && uartcmd_read_until_enter()) {
if (!strncmp_P(g_rx_buffer, UART_CMD_ERASE, UART_BUFFER_SIZE)) {
uartcmd_erase_eeprom();
} else if (!strncmp_P(g_rx_buffer, UART_CMD_HELP, UART_BUFFER_SIZE)) {
UART_PUTS_P(UART_STR_HELP);
} else if (!strncmp_P(g_rx_buffer, UART_CMD_MODE, 4)) {
uartcmd_mode();
} else if (!strncmp_P(g_rx_buffer, UART_CMD_MSG, 4)) {
uartcmd_simple_message();
} else if (!strncmp_P(g_rx_buffer, UART_CMD_NEXT, UART_BUFFER_SIZE)) {
uartcmd_next_anim();
} else if (!strncmp_P(g_rx_buffer, UART_CMD_PREV, UART_BUFFER_SIZE)) {
uartcmd_prev_anim();
} else if (!strncmp_P(g_rx_buffer, UART_CMD_RESET, UART_BUFFER_SIZE)) {
uartcmd_reset_borg();
} else if (!strncmp_P(g_rx_buffer, UART_CMD_SCROLL, 7)) {
uartcmd_scroll_message();
} else if (!strncmp_P(g_rx_buffer, UART_CMD_TEST, 4)) {
uartcmd_test();
} else if (g_rx_buffer[0] != 0) {
UART_PUTS_P(UART_STR_UNKNOWN);
}
UART_PUTS_P(UART_STR_PROMPT);
uartcmd_clear_buffer();
}
}

38
src/uart/uart_commands.h Normal file
View File

@ -0,0 +1,38 @@
/*
* uart_commands.h
*
* Created on: 16.08.2014
* Author: chris
*/
#ifndef UART_COMMANDS_H_
#define UART_COMMANDS_H_
#include <stdbool.h>
#include <avr/interrupt.h>
extern bool g_uartcmd_permit_processing;
/**
* Enables UART command processing.
*/
inline static void uartcmd_permit(void) {
cli();
g_uartcmd_permit_processing = true;
sei();
}
/**
* Disables UART command processing.
*/
inline static void uartcmd_forbid(void) {
cli();
g_uartcmd_permit_processing = false;
sei();
}
void uartcmd_process(void);
#endif /* UART_COMMANDS_H_ */

View File

@ -19,6 +19,9 @@ extern jmp_buf newmode_jmpbuf;
# include "can/borg_can.h" # include "can/borg_can.h"
#endif #endif
#ifdef UART_SUPPORT
# include "uart/uart_commands.h"
#endif
void wait(int ms){ void wait(int ms){
/* Always use Timer1 except for the Arduino/LoL Shield platform. */ /* Always use Timer1 except for the Arduino/LoL Shield platform. */
@ -41,6 +44,10 @@ void wait(int ms){
bcan_process_messages(); bcan_process_messages();
#endif #endif
#ifdef UART_SUPPORT
uartcmd_process();
#endif
#ifdef RFM12_SUPPORT #ifdef RFM12_SUPPORT
borg_rfm12_tick(); borg_rfm12_tick();
#endif #endif
@ -50,7 +57,7 @@ void wait(int ms){
//PORTJOYGND &= ~(1<<BITJOY0); //PORTJOYGND &= ~(1<<BITJOY0);
//PORTJOYGND &= ~(1<<BITJOY1); //PORTJOYGND &= ~(1<<BITJOY1);
if (JOYISFIRE) { if (JOYISFIRE) {
longjmp(newmode_jmpbuf, 43); longjmp(newmode_jmpbuf, 0xFEu);
} }
} }
#endif #endif