The Problem
One problem, though: Apple dropped 32 bit compatibility a wee while ago on the Mac, and Soarer's configuration tools are 32 bit.
Soarer's original .hex files are still fine. Teensies are still the same and run the same code just great. The only updating necessary is the software running on the Mac.
The Solution
So I rebuilt them in 64 bit. Here they are:
- Soarer's Tools x86_64.zip
- (69.77 KiB) Downloaded 573 times
Edit: Darkcruix kindly recompiled them in ARM64 so they run natively on Apple Silicon Macs as well! Here's the ARM download. I now use this version myself, and it should keep running long after Intel support is dropped! Thanks Darkcruix.
Remember to run xattr -cr * on the executables once you open up the zip. That simply strips the annoying Gatekeeper "unknown download" tag from them and lets them run without nags.
The Intel 64 versions work great on Intel Macs running Catalina and Big Sur *and* they work the same on M1 Macs in Big Sur! I have tested both. Eventually Apple will kill Rosetta, and these tools will break again. But it's probably many years away. PowerPC backwards compatibility lasted a long time back in the Intel transition, and they're following much the same path again.
Why not build them in ARM? Well… uh… building these was hard! Soarer made them open source which is great. (All the good stuff is in his original thread.) But if you open the source code in Xcode on a modern Mac, you're faced with loads of dependency issues I'm not technical enough to resolve. How I did it was go back to Mavericks and build in 64 bit Intel there. Mavericks is way too old to know about ARM Macs. So this is a patch, not an ultimate solution. Works though!
Handy Tools
As for hid_listen and getting Soarer's .hex files onto your Teensy, I find QMK Toolbox does the trick on modern Macs. Version 0.0.21 is fully native on both Intel and Apple Silicon. Remember to open it with Control+click to get around any code signing problems on first run. Oh, Gatekeeper, you dizzy bugger! Amusingly, no such problems with my simple command line tools. Good job, because I've no idea how to sign them. They just work.
Don't forget Soarer's Controller
Oh, one more thing: I also gave Soarer's Controller some love. It uses the same tools as his converter but needs separate versions of scas and scdis. I built those and threw them into the zip. They're called scascontroller and scdiscontroller. (Something about that last name really appeals to me…) The rest of the tools—scwr, scrd, scinfo and scbootloader—build identically and work identically on both Soarer's Converter and Soarer's Controller.
And the Docs
For ease of access, I'm just uploading Soarer's original documentation files here, extracted from his combined zip file. (DT won't accept .html attachments, or .txt!? so I've pasted them in as text right here.) This way I can open them on my phone next time I need them, too!
All of these apply to both Soarer's converter and controller.
config quick ref
Spoiler:
XT/AT/PS2/Terminal to USB Converter with NKRO
Config Quick Reference v0.997+
Comments begin with a '#' and continue to the end of the line.
# This is a comment.
The force command disables the auto-detection of keyboard type.
force {set1|set2|set3|set2ext}
The include command processes another file, exactly as if it was copy-pasted to where the include command is.
include <file_name>
Conditionals stay in effect until the conditional is repeated with different argument(s).
The blocks following a conditional are only applied if...
ifselect {<select_num> | any} # specified select is active.
ifset [set1] [set2] [set3] [set2ext] [any] # using one of the specified sets.
ifkeyboard {<keyboard_id> | any} # keyboard has the specified ID.
Layerblocks define combinations of function keys to access different layers.
(Function keys are defined by remapping one or more keys to pseudo-HID codes FN1 to FN8).
layerblock
<fn_key_combo> <layer_num>
...
endblock
Remapblocks define remappings either for the base layer, or for the specified layer if a layer command is given inside the block.
remapblock
[layer <layer_num>]
<from_hid> <to_hid>
...
endblock
Macroblocks define one or more macros. Macros are triggered by a single HID key with any combination of metas, and can have command blocks that execute on either or both of make and break of the HID key.
macroblock
macro <hid> [[-][{l|r}]shift] [[-][{l|r}]ctrl] [[-][{l|r}]alt] [[-][{l|r}]gui] ...
[
<command> [<value>]
...
]
[onbreak [norestoremeta]
<command> [<value>]
...
]
endmacro
...
endblock
Config Quick Reference v0.997+
Comments begin with a '#' and continue to the end of the line.
# This is a comment.
The force command disables the auto-detection of keyboard type.
force {set1|set2|set3|set2ext}
The include command processes another file, exactly as if it was copy-pasted to where the include command is.
include <file_name>
Conditionals stay in effect until the conditional is repeated with different argument(s).
The blocks following a conditional are only applied if...
ifselect {<select_num> | any} # specified select is active.
ifset [set1] [set2] [set3] [set2ext] [any] # using one of the specified sets.
ifkeyboard {<keyboard_id> | any} # keyboard has the specified ID.
Layerblocks define combinations of function keys to access different layers.
(Function keys are defined by remapping one or more keys to pseudo-HID codes FN1 to FN8).
layerblock
<fn_key_combo> <layer_num>
...
endblock
Remapblocks define remappings either for the base layer, or for the specified layer if a layer command is given inside the block.
remapblock
[layer <layer_num>]
<from_hid> <to_hid>
...
endblock
Macroblocks define one or more macros. Macros are triggered by a single HID key with any combination of metas, and can have command blocks that execute on either or both of make and break of the HID key.
macroblock
macro <hid> [[-][{l|r}]shift] [[-][{l|r}]ctrl] [[-][{l|r}]alt] [[-][{l|r}]gui] ...
[
<command> [<value>]
...
]
[onbreak [norestoremeta]
<command> [<value>]
...
]
endmacro
...
endblock
Spoiler:
XT/AT/PS2/Terminal to USB Converter with NKRO
Config v0.997+
Overview
Initial Translation
Command Reference
force
include
ifselect
ifset
ifkeyboard
remapblock
layerblock
macroblock
Macro Commands
Macro trigger matching
Overview
========
This diagram gives an simplified view of the processing stages inside the converter:
The first stage is a fixed initial translation into HID codes, that cannot be modified by the config. The goal of this stage is to map into a reasonable base set of codes for further remapping, and to try and ensure that each key on the keyboard results in a unique HID code after this stage.
The second stage combines remapping and layer functions, since layers are simply alternate remappings.
The third stage is macro expansion.
The final stage separates out the internal commands such as SELECTn and BOOT etc. and routes them appropriately, and also converts the HIDX codes back into standard HID codes for the keyboard, media, and power code pages.
Initial Translation
For most keys it's fairly obvious which codes are produced after the fixed initial translation. However, for some keys on a 122-key keyboard, and the normally unused extra keys on various keyboards, the codes don't follow an obvious pattern.
To find out which code a key is producing after the fixed initial translation, you can use hid_listen to examine the Diagnostic Output.
When you press a key, a set of codes is sent by the converter to hid_listen. For example, pressing the centre key in the 122-key's cursor block results in:
r62 +93 d93 rE2 -93 u93
Note the code prefixed by '+', then look it up in the HID code list. For the example, looking up 93 reveals that the identifier to use for remapping or triggering a macro would be LANG_4.
Command Reference
=================
force
The force command disables the auto-detection of keyboard type. It is only very rarely needed!
force {set1|set2|set3|set2ext}
Example:
force set2
include
The include command processes another file, exactly as if it was copy-pasted to where the include command is.
include <file_name>
Quotation marks are optional unless the file name contains spaces.
Example:
include "colemak.sc"
ifselect
Groups of settings can be toggled by using the ifselect command and defining remaps or macros that output the SELECT_0 to SELECT_7 codes.
ifselect {<select_num> | any}
When any of the SELECT codes are output the entire config is reloaded, and the ifselect commands choose which blocks will be applied.
When the converter powers-up, all selects, except select 0, are inactive.
Multiple selects can be active at a time.
Select 0 is special - it is always active, and when SELECT_0 is output it resets all the other selects.
Blocks following ifselect <select_num>, up to the next ifselect, are applied only if the specified select is active.
Blocks following ifselect any, up to the next ifselect, are applied regardless of which selects are active.
Example:
# toggle between qwerty and colemak by pressing scroll lock
ifselect 1
include colemak.sc
ifselect any
remapblock
SCROLL_LOCK SELECT_1
endblock
ifset
Blocks following the ifset command are only applied if using one of the specified sets.
ifset [set1] [set2] [set3] [set2ext] [any]
Example:
ifset set1 set2
ifkeyboard
Blocks following the ifkeyboard command are only applied if the keyboard has the specified ID.
ifkeyboard {<keyboard_id> | any}
The keyboard ID is given in hexadecimal.
See the Troubleshooting section for details of how to find out the ID of your keyboard.
Example:
ifkeyboard BABA
Layers
======
layerblock
Layerblocks define combinations of function keys to access different layers.
layerblock
<fn_key_combo> <layer_num>
...
endblock
Function keys are defined by remapping keys to codes FN1 to FN8.
Example:
layerblock
FN1 1
FN2 1
FN1 FN2 2
endblock
remapblock
LGUI FN1
RGUI FN2
endblock
remapblock
Remapblocks define remappings either for the base layer, or for the specified layer if a layer command is given inside the block.
remapblock
[layer <layer_num>]
<from_hid> <to_hid>
...
endblock
Example:
# swap capslock and backspace
remapblock
CAPS_LOCK BACKSPACE
BACKSPACE CAPS_LOCK
endblock
Macros
======
macroblock
Macroblocks define one or more macros. Macros are triggered by a single HID key with any combination of metas, and can have command blocks that execute on make and/or break of the HID key.
macroblock
macro <hid> [[-][{l|r}]shift] [[-][{l|r}]ctrl] [[-][{l|r}]alt] [[-][{l|r}]gui] ...
[
<command> [<value>]
...
]
[onbreak [norestoremeta]
<command> [<value>]
...
]
endmacro
...
endblock
Example:
macroblock
macro SCROLL_LOCK LSHIFT LCTRL -ALT
PUSH_META CLEAR_META all # save and clear all metas
PRESS p # press some keys...
PRESS i
PRESS N # case is ignored - this results in lowercase 'n'
SET_META lshift # you have to set modifiers yourself
PRESS g # results in a capital 'G', since shift is set
POP_ALL_META # restore metas that were active before
endmacro
endblock
Macro Commands
==============
Command Description
NOP Does nothing
PRESS <hid> Shorthand for MAKE <hid> then BREAK <hid>
MAKE <hid> Set keystate to 'down'
BREAK <hid> Set keystate to 'up'
ASSIGN_META <metas> Set all metas to the state specified
SET_META <metas> Set specified metas to down state
CLEAR_META <metas> Set specified metas to up state
TOGGLE_META <metas> Set specified metas to inverse of current state
POP_META Restore metas from the time of the last PUSH_META
POP_ALL_META Restore metas from the time of the first PUSH_META
DELAY <delay_in_ms> Delay by the specified number of milliseconds
CLEAR_ALL (internal use e.g. when buffer overrun is received)
BOOT Cause the converter to jump to the bootloader v1.0+
PUSH_META <cmd> <value> Save metas for later. Combines with other commands
Macro trigger matching
Macros are triggered only when the state matches for all of the the specified metas.
If a particular meta is not specified, its state is not matched.
Meta Trigger condition
LSHIFT LSHIFT is pressed
RSHIFT RSHIFT is pressed
SHIFT Either LSHIFT or RSHIFT is pressed
-LSHIFT LSHIFT is not pressed
When looking for a match, macros are checked in the order they appear in the config file.
The first matching macro found (if any) is executed, so you sometimes need to take of what order the macros are in.
macroblock
macro SCROLL_LOCK LSHIFT # this macro will execute even if LCTRL is down, so...
...
endmacro
macro SCROLL_LOCK LSHIFT LCTRL # ... this macro will never execute!
...
endmacro
endblock
The correct order would be:
macroblock
macro SCROLL_LOCK LSHIFT LCTRL
...
endmacro
macro SCROLL_LOCK LSHIFT
...
endmacro
endblock
See the HID code list for HID and META values.
Config v0.997+
Overview
Initial Translation
Command Reference
force
include
ifselect
ifset
ifkeyboard
remapblock
layerblock
macroblock
Macro Commands
Macro trigger matching
Overview
========
This diagram gives an simplified view of the processing stages inside the converter:
The first stage is a fixed initial translation into HID codes, that cannot be modified by the config. The goal of this stage is to map into a reasonable base set of codes for further remapping, and to try and ensure that each key on the keyboard results in a unique HID code after this stage.
The second stage combines remapping and layer functions, since layers are simply alternate remappings.
The third stage is macro expansion.
The final stage separates out the internal commands such as SELECTn and BOOT etc. and routes them appropriately, and also converts the HIDX codes back into standard HID codes for the keyboard, media, and power code pages.
Initial Translation
For most keys it's fairly obvious which codes are produced after the fixed initial translation. However, for some keys on a 122-key keyboard, and the normally unused extra keys on various keyboards, the codes don't follow an obvious pattern.
To find out which code a key is producing after the fixed initial translation, you can use hid_listen to examine the Diagnostic Output.
When you press a key, a set of codes is sent by the converter to hid_listen. For example, pressing the centre key in the 122-key's cursor block results in:
r62 +93 d93 rE2 -93 u93
Note the code prefixed by '+', then look it up in the HID code list. For the example, looking up 93 reveals that the identifier to use for remapping or triggering a macro would be LANG_4.
Command Reference
=================
force
The force command disables the auto-detection of keyboard type. It is only very rarely needed!
force {set1|set2|set3|set2ext}
Example:
force set2
include
The include command processes another file, exactly as if it was copy-pasted to where the include command is.
include <file_name>
Quotation marks are optional unless the file name contains spaces.
Example:
include "colemak.sc"
ifselect
Groups of settings can be toggled by using the ifselect command and defining remaps or macros that output the SELECT_0 to SELECT_7 codes.
ifselect {<select_num> | any}
When any of the SELECT codes are output the entire config is reloaded, and the ifselect commands choose which blocks will be applied.
When the converter powers-up, all selects, except select 0, are inactive.
Multiple selects can be active at a time.
Select 0 is special - it is always active, and when SELECT_0 is output it resets all the other selects.
Blocks following ifselect <select_num>, up to the next ifselect, are applied only if the specified select is active.
Blocks following ifselect any, up to the next ifselect, are applied regardless of which selects are active.
Example:
# toggle between qwerty and colemak by pressing scroll lock
ifselect 1
include colemak.sc
ifselect any
remapblock
SCROLL_LOCK SELECT_1
endblock
ifset
Blocks following the ifset command are only applied if using one of the specified sets.
ifset [set1] [set2] [set3] [set2ext] [any]
Example:
ifset set1 set2
ifkeyboard
Blocks following the ifkeyboard command are only applied if the keyboard has the specified ID.
ifkeyboard {<keyboard_id> | any}
The keyboard ID is given in hexadecimal.
See the Troubleshooting section for details of how to find out the ID of your keyboard.
Example:
ifkeyboard BABA
Layers
======
layerblock
Layerblocks define combinations of function keys to access different layers.
layerblock
<fn_key_combo> <layer_num>
...
endblock
Function keys are defined by remapping keys to codes FN1 to FN8.
Example:
layerblock
FN1 1
FN2 1
FN1 FN2 2
endblock
remapblock
LGUI FN1
RGUI FN2
endblock
remapblock
Remapblocks define remappings either for the base layer, or for the specified layer if a layer command is given inside the block.
remapblock
[layer <layer_num>]
<from_hid> <to_hid>
...
endblock
Example:
# swap capslock and backspace
remapblock
CAPS_LOCK BACKSPACE
BACKSPACE CAPS_LOCK
endblock
Macros
======
macroblock
Macroblocks define one or more macros. Macros are triggered by a single HID key with any combination of metas, and can have command blocks that execute on make and/or break of the HID key.
macroblock
macro <hid> [[-][{l|r}]shift] [[-][{l|r}]ctrl] [[-][{l|r}]alt] [[-][{l|r}]gui] ...
[
<command> [<value>]
...
]
[onbreak [norestoremeta]
<command> [<value>]
...
]
endmacro
...
endblock
Example:
macroblock
macro SCROLL_LOCK LSHIFT LCTRL -ALT
PUSH_META CLEAR_META all # save and clear all metas
PRESS p # press some keys...
PRESS i
PRESS N # case is ignored - this results in lowercase 'n'
SET_META lshift # you have to set modifiers yourself
PRESS g # results in a capital 'G', since shift is set
POP_ALL_META # restore metas that were active before
endmacro
endblock
Macro Commands
==============
Command Description
NOP Does nothing
PRESS <hid> Shorthand for MAKE <hid> then BREAK <hid>
MAKE <hid> Set keystate to 'down'
BREAK <hid> Set keystate to 'up'
ASSIGN_META <metas> Set all metas to the state specified
SET_META <metas> Set specified metas to down state
CLEAR_META <metas> Set specified metas to up state
TOGGLE_META <metas> Set specified metas to inverse of current state
POP_META Restore metas from the time of the last PUSH_META
POP_ALL_META Restore metas from the time of the first PUSH_META
DELAY <delay_in_ms> Delay by the specified number of milliseconds
CLEAR_ALL (internal use e.g. when buffer overrun is received)
BOOT Cause the converter to jump to the bootloader v1.0+
PUSH_META <cmd> <value> Save metas for later. Combines with other commands
Macro trigger matching
Macros are triggered only when the state matches for all of the the specified metas.
If a particular meta is not specified, its state is not matched.
Meta Trigger condition
LSHIFT LSHIFT is pressed
RSHIFT RSHIFT is pressed
SHIFT Either LSHIFT or RSHIFT is pressed
-LSHIFT LSHIFT is not pressed
When looking for a match, macros are checked in the order they appear in the config file.
The first matching macro found (if any) is executed, so you sometimes need to take of what order the macros are in.
macroblock
macro SCROLL_LOCK LSHIFT # this macro will execute even if LCTRL is down, so...
...
endmacro
macro SCROLL_LOCK LSHIFT LCTRL # ... this macro will never execute!
...
endmacro
endblock
The correct order would be:
macroblock
macro SCROLL_LOCK LSHIFT LCTRL
...
endmacro
macro SCROLL_LOCK LSHIFT
...
endmacro
endblock
See the HID code list for HID and META values.
Spoiler:
Code: Select all
XT/AT/PS2/Terminal to USB Converter with NKRO
Codes
Modified HID Code Set
Deprecated Code Names
Modifiers
Modified HID Code Set
Mainly HID page 7, with additions to support internal features, media keys, and power keys.
Codes in italics are used internally by the converter, and are not output.
Codes with highlight are output, but may not be supported by all OS (notably Windows).
Media and Power codes are translated to the correct code page before being output.
Name HID Code Description
UNASSIGNED 0x00 No Event
OVERRUN_ERROR 0x01 Overrun Error
POST_FAIL 0x02 POST Fail
ERROR_UNDEFINED 0x03 ErrorUndefined
A 0x04 a A
B 0x05 b B
C 0x06 c C
D 0x07 d D
E 0x08 e E
F 0x09 f F
G 0x0A g G
H 0x0B h H
I 0x0C i I
J 0x0D j J
K 0x0E k K
L 0x0F l L
M 0x10 m M
N 0x11 n N
O 0x12 o O
P 0x13 p P
Q 0x14 q Q
R 0x15 r R
S 0x16 s S
T 0x17 t T
U 0x18 u U
V 0x19 v V
W 0x1A w W
X 0x1B x X
Y 0x1C y Y
Z 0x1D z Z
1 0x1E 1 !
2 0x1F 2 @
3 0x20 3 #
4 0x21 4 $
5 0x22 5 %
6 0x23 6 ^
7 0x24 7 &
8 0x25 8 *
9 0x26 9 (
0 0x27 0 )
ENTER 0x28 Return
ESC 0x29 Escape
BACKSPACE 0x2A Backspace
TAB 0x2B Tab
SPACE 0x2C Space
MINUS 0x2D - _
EQUAL 0x2E = +
LEFT_BRACE 0x2F [ {
RIGHT_BRACE 0x30 ] }
BACKSLASH 0x31 \ |
EUROPE_1 0x32 Europe 1 (use BACKSLASH instead)
SEMICOLON 0x33 ; :
QUOTE 0x34 ' "
BACK_QUOTE 0x35 ` ~
COMMA 0x36 , <
PERIOD 0x37 . >
SLASH 0x38 / ?
CAPS_LOCK 0x39 Caps Lock
F1 0x3A F1
F2 0x3B F2
F3 0x3C F3
F4 0x3D F4
F5 0x3E F5
F6 0x3F F6
F7 0x40 F7
F8 0x41 F8
F9 0x42 F9
F10 0x43 F10
F11 0x44 F11
F12 0x45 F12
PRINTSCREEN 0x46 Print Screen
SCROLL_LOCK 0x47 Scroll Lock
PAUSE 0x48 Pause
INSERT 0x49 Insert
HOME 0x4A Home
PAGE_UP 0x4B Page Up
DELETE 0x4C Delete
END 0x4D End
PAGE_DOWN 0x4E Page Down
RIGHT 0x4F Right Arrow
LEFT 0x50 Left Arrow
DOWN 0x51 Down Arrow
UP 0x52 Up Arrow
NUM_LOCK 0x53 Num Lock
PAD_SLASH 0x54 Keypad /
PAD_ASTERIX 0x55 Keypad *
PAD_MINUS 0x56 Keypad -
PAD_PLUS 0x57 Keypad +
PAD_ENTER 0x58 Keypad Enter
PAD_1 0x59 Keypad 1 End
PAD_2 0x5A Keypad 2 Down
PAD_3 0x5B Keypad 3 PageDn
PAD_4 0x5C Keypad 4 Left
PAD_5 0x5D Keypad 5
PAD_6 0x5E Keypad 6 Right
PAD_7 0x5F Keypad 7 Home
PAD_8 0x60 Keypad 8 Up
PAD_9 0x61 Keypad 9 PageUp
PAD_0 0x62 Keypad 0 Insert
PAD_PERIOD 0x63 Keypad . Delete
EUROPE_2 0x64 Europe 2
APP 0x65 App (Windows Menu)
POWER 0x66 Keyboard Power
PAD_EQUALS 0x67 Keypad =
F13 0x68 F13
F14 0x69 F14
F15 0x6A F15
F16 0x6B F16
F17 0x6C F17
F18 0x6D F18
F19 0x6E F19
F20 0x6F F20
F21 0x70 F21
F22 0x71 F22
F23 0x72 F23
F24 0x73 F24
EXECUTE 0x74 Keyboard Execute
HELP 0x75 Keyboard Help
MENU 0x76 Keyboard Menu
SELECT 0x77 Keyboard Select
STOP 0x78 Keyboard Stop
AGAIN 0x79 Keyboard Again
UNDO 0x7A Keyboard Undo
CUT 0x7B Keyboard Cut
COPY 0x7C Keyboard Copy
PASTE 0x7D Keyboard Paste
FIND 0x7E Keyboard Find
MUTE 0x7F Keyboard Mute
VOLUME_UP 0x80 Keyboard Volume Up
VOLUME_DOWN 0x81 Keyboard Volume Dn
LOCKING_CAPS_LOCK 0x82 Keyboard Locking Caps Lock
LOCKING_NUM_LOCK 0x83 Keyboard Locking Num Lock
LOCKING_SCROLL_LOCK 0x84 Keyboard Locking Scroll Lock
PAD_COMMA 0x85 Keypad comma (Brazilian Keypad .)
EQUAL_SIGN 0x86 Keyboard Equal Sign
INTERNATIONAL_1 0x87 Keyboard Int'l 1 (Ro)
INTERNATIONAL_2 0x88 Keyboard Intl'2 (Katakana/Hiragana)
INTERNATIONAL_3 0x89 Keyboard Int'l 2 (Yen)
INTERNATIONAL_4 0x8A Keyboard Int'l 4 (Henkan)
INTERNATIONAL_5 0x8B Keyboard Int'l 5 (Muhenkan)
INTERNATIONAL_6 0x8C Keyboard Int'l 6 (PC9800 Keypad comma)
INTERNATIONAL_7 0x8D Keyboard Int'l 7
INTERNATIONAL_8 0x8E Keyboard Int'l 8
INTERNATIONAL_9 0x8F Keyboard Int'l 9
LANG_1 0x90 Keyboard Lang 1 (Hanguel/English)
LANG_2 0x91 Keyboard Lang 2 (Hanja)
LANG_3 0x92 Keyboard Lang 3 (Katakana)
LANG_4 0x93 Keyboard Lang 4 (Hiragana)
LANG_5 0x94 Keyboard Lang 5 (Zenkaku/Hankaku)
LANG_6 0x95 Keyboard Lang 6
LANG_7 0x96 Keyboard Lang 7
LANG_8 0x97 Keyboard Lang 8
LANG_9 0x98 Keyboard Lang 9
ALTERNATE_ERASE 0x99 Keyboard Alternate Erase
SYSREQ_ATTN 0x9A Keyboard SysReq/Attention
CANCEL 0x9B Keyboard Cancel
CLEAR 0x9C Keyboard Clear (use DELETE instead)
PRIOR 0x9D Keyboard Prior
RETURN 0x9E Keyboard Return
SEPARATOR 0x9F Keyboard Separator
OUT 0xA0 Keyboard Out
OPER 0xA1 Keyboard Oper
CLEAR_AGAIN 0xA2 Keyboard Clear/Again
CRSEL_PROPS 0xA3 Keyboard CrSel/Props
EXSEL 0xA4 Keyboard ExSel
SYSTEM_POWER 0xA8 System Power
SYSTEM_SLEEP 0xA9 System Sleep
SYSTEM_WAKE 0xAA System Wake
AUX1 0xAB Auxiliary key 1
AUX2 0xAC Auxiliary key 2
AUX3 0xAD Auxiliary key 3
AUX4 0xAE Auxiliary key 4
AUX5 0xAF Auxiliary key 5
EXTRA_LALT 0xB1 AT-F extra pad lhs of space
EXTRA_PAD_PLUS 0xB2 Term extra pad bottom of keypad +
EXTRA_RALT 0xB3 AT-F extra pad rhs of space
EXTRA_EUROPE_2 0xB4 AT-F extra pad lhs of enter
EXTRA_BACKSLASH 0xB5 AT-F extra pad top of enter
EXTRA_INSERT 0xB6 AT-F extra pad lhs of Insert
EXTRA_F1 0xB7 122-key Terminal lhs F1
EXTRA_F2 0xB8 122-key Terminal lhs F2
EXTRA_F3 0xB9 122-key Terminal lhs F3
EXTRA_F4 0xBA 122-key Terminal lhs F4
EXTRA_F5 0xBB 122-key Terminal lhs F5
EXTRA_F6 0xBC 122-key Terminal lhs F6
EXTRA_F7 0xBD 122-key Terminal lhs F7
EXTRA_F8 0xBE 122-key Terminal lhs F8
EXTRA_F9 0xBF 122-key Terminal lhs F9
EXTRA_F10 0xC0 122-key Terminal lhs F10
EXTRA_SY 0xC2 Sys Req (AT 84-key)
FN1 0xD0 Function layer key 1
FN2 0xD1 Function layer key 2
FN3 0xD2 Function layer key 3
FN4 0xD3 Function layer key 4
FN5 0xD4 Function layer key 5
FN6 0xD5 Function layer key 6
FN7 0xD6 Function layer key 7
FN8 0xD7 Function layer key 8
SELECT_0 0xD8 Select reset
SELECT_1 0xD9 Select 1 toggle
SELECT_2 0xDA Select 2 toggle
SELECT_3 0xDB Select 3 toggle
SELECT_4 0xDC Select 4 toggle
SELECT_5 0xDD Select 5 toggle
SELECT_6 0xDE Select 6 toggle
SELECT_7 0xDF Select 7 toggle
LCTRL 0xE0 Left Control
LSHIFT 0xE1 Left Shift
LALT 0xE2 Left Alt
LGUI 0xE3 Left GUI (Left Windows)
RCTRL 0xE4 Right Control
RSHIFT 0xE5 Right Shift
RALT 0xE6 Right Alt
RGUI 0xE7 Right GUI (Right Windows)
MEDIA_NEXT_TRACK 0xE8 Scan Next Track
MEDIA_PREV_TRACK 0xE9 Scan Previous Track
MEDIA_STOP 0xEA Stop
MEDIA_PLAY_PAUSE 0xEB Play/ Pause
MEDIA_MUTE 0xEC Mute
MEDIA_BASS_BOOST 0xED Bass Boost
MEDIA_LOUDNESS 0xEE Loudness
MEDIA_VOLUME_UP 0xEF Volume Up
MEDIA_VOLUME_DOWN 0xF0 Volume Down
MEDIA_BASS_UP 0xF1 Bass Up
MEDIA_BASS_DOWN 0xF2 Bass Down
MEDIA_TREBLE_UP 0xF3 Treble Up
MEDIA_TREBLE_DOWN 0xF4 Treble Down
MEDIA_MEDIA_SELECT 0xF5 Media Select
MEDIA_MAIL 0xF6 Mail
MEDIA_CALCULATOR 0xF7 Calculator
MEDIA_MY_COMPUTER 0xF8 My Computer
MEDIA_WWW_SEARCH 0xF9 WWW Search
MEDIA_WWW_HOME 0xFA WWW Home
MEDIA_WWW_BACK 0xFB WWW Back
MEDIA_WWW_FORWARD 0xFC WWW Forward
MEDIA_WWW_STOP 0xFD WWW Stop
MEDIA_WWW_REFRESH 0xFE WWW Refresh
MEDIA_WWW_FAVORITES 0xFF WWW Favorites
Deprecated Code Names v1.0+
The following code names are deprecated, and should no longer be used.
They are included for compatibility with older config files written for v0.997.
Replacements for these names have been added beginning 'EXTRA_'.
(As in, the change is just in the names of these codes).
Name HID Code Description
FAKE_01 0xB0 extra
FAKE_02 0xB1 AT-F extra pad lhs of space
FAKE_03 0xB2 Term extra pad bottom of keypad +
FAKE_04 0xB3 AT-F extra pad rhs of space
FAKE_05 0xB4 AT-F extra pad lhs of enter
FAKE_06 0xB5 AT-F extra pad top of enter
FAKE_07 0xB6 AT-F extra pad lhs of Insert
FAKE_08 0xB7 Term F1
FAKE_09 0xB8 Term F2
FAKE_10 0xB9 Term F3
FAKE_11 0xBA Term F4
FAKE_12 0xBB Term F5
FAKE_13 0xBC Term F6
FAKE_14 0xBD Term F7
FAKE_15 0xBE Term F8
FAKE_16 0xBF Term F9
FAKE_17 0xC0 Term F10
FAKE_18 0xC1 extra
FAKE_19 0xC2 Sys Req (AT 84-key)
Modifiers
For most uses, either a single key or a combination can be specified.
Depending on context, a combination might mean 'any' or 'all' of the specified modifiers.
Name Description
LCTRL Left Control
LSHIFT Left Shift
LALT Left Alt
LGUI Left GUI (Left Windows)
RCTRL Right Control
RSHIFT Right Shift
RALT Right Alt
RGUI Right GUI (Right Windows)
CTRL Either/Both Control (shorthand for LCTRL RCTRL)
SHIFT Either/Both Shift (shorthand for LSHIFT RSHIFT)
ALT Either/Both Alt (shorthand for LALT RALT)
GUI Either/Both GUI (shorthand for LGUI RGUI)
ALL Any/All (shorthand for CTRL SHIFT ALT GUI)Spoiler:
Code: Select all
XT/AT/PS2/Terminal to USB Converter with NKRO
Command Line Tools v0.997+
Introduction
Tools
scas
scdis
scwr
scrd
scboot
scinfo
scaswr
Building
Windows
Linux
Mac OS-X
Introduction
============
The main tools are scas and scwr.
Typically, you edit your config file(s), assemble them with scas, then load them onto the converter with scwr.
As long as it says 'device: complete' at the end, scwr has succeeded.
C:\sctools> scas foo.sc foo.scb
No errors. Wrote: foo.scb
C:\sctools> scwr foo.scb
Looking for Soarer's Converter: found
...
device: complete
On Windows, you may find scaswr more convenient. It simply combines the two steps.
Tools
=====
Tool Description
scas Assembles one or more config text files to a config binary file
scdis Dissassembles a config binary file to a config text file
scwr Writes a config binary file to the converter
scrd Reads a config binary file from the converter
scboot Causes the converter to jump to the bootloader v1.0+
scinfo Displays converter's version and memory information v1.0+
scaswr Combination of scas and scwr (Windows only) v1.1+
scas
Assembles one or more config text files to a config binary file.
Usage:
scas <text_config> [<text_config> ...] <binary_config>
Output, if everything is fine:
No errors. Wrote: foo.scb
Output, if there's an error:
error at line 4: invalid argument
Output, if there's an error in an included file in an included file:
error at line 4: error at line 5: error at line 5: invalid argument
To find the error, start with the last line number given, which will be an include command.
Then look in that file for the next to last line number given, and so on.
The first line number given is where the actual error is.
Only the first error found is reported.
Alternatively, check that included files assemble successfully on their own, before including into another config.
scdis
Dissassembles a config binary file to a config text file.
Usage:
scdis <binary_config> [<text_config>]
There is no output unless an error occurs.
This tool might be useful to validate that your config assembles as you expected (it was very useful while I was writing scas).
scwr
Writes a config binary file to the converter.
Usage:
scwr <binary_config>
Output:
scwr: looking for Soarer's Converter: found
scwr: reading file: 139 bytes: ok
scwr: sending info request: ok
device: ok
protocol version check: converter=1.00, scwr=1.00: ok
settings version check: converter=1.01, file=1.01: ok
settings length check: max=1018, file=137 bytes: ok
scwr: sending write request for 137 bytes: ok
device: ok
device: ready
scwr: sending 60 bytes: ok
device: ok
device: ready
scwr: sending 60 bytes: ok
device: ok
device: ready
scwr: sending 17 bytes: ok
device: ok
device: complete
scrd
Reads a config binary file from the converter.
Usage:
scrd <binary_config>
Output:
scrd: looking for Soarer's Converter: found
scrd: sending read request: ok
device: has 137 bytes: ok
scrd: ready
device: sent 64 bytes: ok
scrd: ok
scrd: ready
device: sent 64 bytes: ok
scrd: ok
scrd: ready
device: sent 9 bytes: ok
scrd: ok
scrd: complete
scrd: writing file: 139 bytes: ok
scboot v1.0+
Causes the converter to jump to the bootloader.
Usage:
scboot
After running this command, the converter should be ready to have new firmware loaded into it. Note that, at this point, the converter will not be working as a keyboard any more! To cancel the bootloader mode, simply disconnect the converter from the computer and reconnect it.
Output:
scboot: looking for Soarer's Converter: found
scboot: sending boot request: ok
device: ok
scinfo v1.0+
Displays converter's version and memory information.
Usage:
scinfo
Output:
Code Version: v1.00
Max Settings Version: v1.01
Current Settings Version: v1.01
SRAM Size: 2560 bytes
SRAM Free: 1817 bytes
EEPROM Size: 1024 bytes
EEPROM Free: 883 bytes
scaswr.bat (Windows only) v1.1+
A combination of scas and scwr, designed so you can simply drag'n'drop a config file onto it (or a shortcut to it). It will assemble the text config and then write the resulting binary config to the converter, in a single step.
Of course, it can also be used from the command line...
Usage:
scaswr <text_config>
Building
========
Source code is provided, along with makefiles etc., to natively build on Windows, Linux and OS-X.
Additionally, a mingw32 cross-compile can be used to build the Windows tools on Linux.
To rebuild the tools, change directory to the sub-directory of build that's right for your OS, and type make.
Windows
The tools are built for Windows using MS Visual Studio 2003. Porting to later versions should be trivial.
scwr, scrd, scboot and scinfo rely on a small library of RAWHID routines from PJRC.
For Windows, this library was compiled to a DLL using the Microsoft DDK.
Linux v1.0+
The tools are built for Linux using gcc etc.
Mac OS-X v1.0+
The tools are built for Mac OS-X on Snow Leopard using Xcode 3.2.6 and the version 10.6 SDK.
Spoiler:
Hardware
Parts List
Wiring Info
Connectors
Pull-up resistors
LEDs
Auxiliary Key Inputs
Connection Summary for Teensy
Parts List
Essential items:
Teensy, or similar AVR breakout board
Connector to suit your keyboard
Some wire
Optional items, as desired:
3x LEDs
3x Resistors for LEDs (value depends on the LEDs)
2x 1k Resistors (for pull-ups)
Box (optional, but recommended!)
You could, of course, mount the Teensy inside your keyboard and not even need a connector or a box!
See the firmware section for details of supported AVR processors and breakout boards.
Wiring Info
Connector Breakout board
GND GND
Vcc/+5V VCC
Data PD0
Clock PD1
Keyboard Reset v1.1+ PB7
See PJRC for Teensy pinouts, or the documentation that came with your chosen breakout board.
'Keyboard Reset' is only required for certain PC/XT-like keyboards, such as the Leading Edge DC-2014.
Connectors
I wired mine to a PS/2 socket, and then use adapters to connect the others.
kbdbabel has masses of connector info. So much, that it can be hard to find the one you want!
So I've included the most common connectors used with this converter here.
Note that all the connectors are shown looking into the socket.
PC/XT keyboards use a 5 pin, 180 degree, DIN connector. It is the same as the AT connector shown later, except that pin 3 is defined as a reset signal...
(from the IBM PC Technical Reference Manual, with correction!)
Terminal keyboards usually have a 5 pin, 270 degree, DIN connector...
...or sometimes this 8P5C connector...
PC, XT and AT keyboards use the same 5 pin, 180 degree, DIN connector and pinout, while PS/2 keyboards use a 6 pin mini-DIN connector...
RT keyboards have this connector...
Pull-up resistors
In nearly all cases, these resistors are not needed.
But, if the keyboard has a very long cable (3m+), I recommend adding two pull-up resistors of 1Kohm - one between Clock and +5V, the other between Data and +5V. These can really help to clean up a dirty signal (see here).
LEDs
Optionally, lock LEDs can be wired up. Useful if your keyboard doesn't have them!
The outputs are active high (each pin puts out +5V when it wants to light the LED).
A resistor is needed inline with each LED. (The value needed depends on the type of LED, 1Kohm is a good starting point for modern high-brightness types).
Here's an example circuit for hooking up an LED, taken from ladyada.net:
They also have a more in-depth tutorial.
The pins used differ between CPUs.
ATMEGA32U4 (Teensy 2.0) and ATMEGA16U4:
LED CPU Pin
CapsLock PF5
NumLock PF6
ScrollLock PF7
AT90USB1286 (Teensy++ 2.0) and AT90USB646:
LED CPU Pin
CapsLock PD3
NumLock PD4
ScrollLock PD5
Auxiliary Key Inputs v1.1+
Five inputs are provided for auxiliary keys, buttons, or footswitches, which generate codes that can be remapped in your config:
Auxiliary Key Code CPU Pin
1 AUX1 PB0
2 AUX2 PB1
3 AUX3 PB2
4 AUX4 PB3
5 AUX5 PB4
Inputs cause key presses when grounded, so you can simply connect the switch between the pin and ground:
Inputs have the internal pull-up enabled, so an external resistor won't be required in most cases. But it might be necessary to use one, for example with footswitches where the wires are long. Here's how you would wire one up:
Connection Summary for Teensy
The GND and Vcc pins at the end of the Teensy can be used instead of the marked GND and Vcc, if you prefer. Or you might choose to wire the connector to one GND and the LEDs using the other.
Of course, not all connections are required! The minimum and still fairly typical setup would be to connect just Ground, +5V, Data and Clock to the connector (or keyboard).
Parts List
Wiring Info
Connectors
Pull-up resistors
LEDs
Auxiliary Key Inputs
Connection Summary for Teensy
Parts List
Essential items:
Teensy, or similar AVR breakout board
Connector to suit your keyboard
Some wire
Optional items, as desired:
3x LEDs
3x Resistors for LEDs (value depends on the LEDs)
2x 1k Resistors (for pull-ups)
Box (optional, but recommended!)
You could, of course, mount the Teensy inside your keyboard and not even need a connector or a box!
See the firmware section for details of supported AVR processors and breakout boards.
Wiring Info
Connector Breakout board
GND GND
Vcc/+5V VCC
Data PD0
Clock PD1
Keyboard Reset v1.1+ PB7
See PJRC for Teensy pinouts, or the documentation that came with your chosen breakout board.
'Keyboard Reset' is only required for certain PC/XT-like keyboards, such as the Leading Edge DC-2014.
Connectors
I wired mine to a PS/2 socket, and then use adapters to connect the others.
kbdbabel has masses of connector info. So much, that it can be hard to find the one you want!
So I've included the most common connectors used with this converter here.
Note that all the connectors are shown looking into the socket.
PC/XT keyboards use a 5 pin, 180 degree, DIN connector. It is the same as the AT connector shown later, except that pin 3 is defined as a reset signal...
(from the IBM PC Technical Reference Manual, with correction!)
Terminal keyboards usually have a 5 pin, 270 degree, DIN connector...
...or sometimes this 8P5C connector...
PC, XT and AT keyboards use the same 5 pin, 180 degree, DIN connector and pinout, while PS/2 keyboards use a 6 pin mini-DIN connector...
RT keyboards have this connector...
Pull-up resistors
In nearly all cases, these resistors are not needed.
But, if the keyboard has a very long cable (3m+), I recommend adding two pull-up resistors of 1Kohm - one between Clock and +5V, the other between Data and +5V. These can really help to clean up a dirty signal (see here).
LEDs
Optionally, lock LEDs can be wired up. Useful if your keyboard doesn't have them!
The outputs are active high (each pin puts out +5V when it wants to light the LED).
A resistor is needed inline with each LED. (The value needed depends on the type of LED, 1Kohm is a good starting point for modern high-brightness types).
Here's an example circuit for hooking up an LED, taken from ladyada.net:
They also have a more in-depth tutorial.
The pins used differ between CPUs.
ATMEGA32U4 (Teensy 2.0) and ATMEGA16U4:
LED CPU Pin
CapsLock PF5
NumLock PF6
ScrollLock PF7
AT90USB1286 (Teensy++ 2.0) and AT90USB646:
LED CPU Pin
CapsLock PD3
NumLock PD4
ScrollLock PD5
Auxiliary Key Inputs v1.1+
Five inputs are provided for auxiliary keys, buttons, or footswitches, which generate codes that can be remapped in your config:
Auxiliary Key Code CPU Pin
1 AUX1 PB0
2 AUX2 PB1
3 AUX3 PB2
4 AUX4 PB3
5 AUX5 PB4
Inputs cause key presses when grounded, so you can simply connect the switch between the pin and ground:
Inputs have the internal pull-up enabled, so an external resistor won't be required in most cases. But it might be necessary to use one, for example with footswitches where the wires are long. Here's how you would wire one up:
Connection Summary for Teensy
The GND and Vcc pins at the end of the Teensy can be used instead of the marked GND and Vcc, if you prefer. Or you might choose to wire the connector to one GND and the LEDs using the other.
Of course, not all connections are required! The minimum and still fairly typical setup would be to connect just Ground, +5V, Data and Clock to the connector (or keyboard).
Spoiler:
XT/AT/PS2/Terminal to USB Converter with NKRO
Firmware
CPUs
Loading
CPUs
The firmware has been compiled for the following CPUs, listed roughly in order of preference:
CPU Known breakout board(s)
ATmega32U4 Teensy 2.0, Adafruit Atmega32u4 Breakout Board
AT90USB1286 Teensy++ 2.0
AT90USB646 Teensy++ (no longer available)
ATmega16U4 ???
Make sure you pick the right .hex file for your dev board!
ATmega32U4 breakout boards are usually the best choice, on a price basis.
AT90USB1286 boards work equally as well, and have more memory (which can be essential if you want to set up a very large number of layers and/or macros), but cost more.
Note: the ATmega16U4 build is very close to 16KB in size, and probably does not leave room for a USB bootloader on the chip.
So, ATmega16U4 based breakout boards are not recommended for novices!
Loading
The Teensy family have the PJRC bootloader installed and are programmed using PJRC's Teensy Loader, available for all common OS.
Other breakout boards usually have the Atmel DFU bootloader installed and can be programmed using FLIP.
FLIP is available for Windows and Linux. For Mac OS-X, see this guide on how use DFU-programmer.
Arduino Leonardo can be programmed using avrdude, or the Arduino IDE.
Firmware
CPUs
Loading
CPUs
The firmware has been compiled for the following CPUs, listed roughly in order of preference:
CPU Known breakout board(s)
ATmega32U4 Teensy 2.0, Adafruit Atmega32u4 Breakout Board
AT90USB1286 Teensy++ 2.0
AT90USB646 Teensy++ (no longer available)
ATmega16U4 ???
Make sure you pick the right .hex file for your dev board!
ATmega32U4 breakout boards are usually the best choice, on a price basis.
AT90USB1286 boards work equally as well, and have more memory (which can be essential if you want to set up a very large number of layers and/or macros), but cost more.
Note: the ATmega16U4 build is very close to 16KB in size, and probably does not leave room for a USB bootloader on the chip.
So, ATmega16U4 based breakout boards are not recommended for novices!
Loading
The Teensy family have the PJRC bootloader installed and are programmed using PJRC's Teensy Loader, available for all common OS.
Other breakout boards usually have the Atmel DFU bootloader installed and can be programmed using FLIP.
FLIP is available for Windows and Linux. For Mac OS-X, see this guide on how use DFU-programmer.
Arduino Leonardo can be programmed using avrdude, or the Arduino IDE.
Spoiler:
Code: Select all
Controller Config v1.20+
Overview
Command Reference
led
matrix
scanrate
debounce
debounce_method
blocking
strobe_mode
sense_delay
sense_polarity
muxstrobe_port
muxstrobe_enable
muxstrobe_gate
sense
muxstrobe
strobe
unstrobed
Overview
This brief page describes the new commands added to support Controller functionality.
All of the remapping, layer, select and macro commands of the Converter config are also supported.
A matrix is a grid of switches arranged in rows and columns.
To make clear which is driven by the controller and which is read, I mainly use the terms strobe and sense instead.
Depending on the matrix (and the orientation of the diodes, if it has them) you might strobe the rows and sense the columns, or you might strobe the columns and sense the rows.
Command Reference
led
Lock LEDs can be connected to any pin, and the polarity of each pin can be individually configured.
led <lock> [-]<pin>
Example:
led caps PD3 # for when the other end of the LED/resistor combination is 0V
led num -PD4 # for when the other end of the LED/resistor combination is +5V
led scroll -PD5
matrix
Syntax:
matrix
[scanrate <milliseconds>]
[debounce <scans>]
[debounce_method <method_num>]
[blocking <flag>]
[strobe_mode <mode>]
[sense_delay <microseconds>]
[sense_polarity <polarity>]
[muxstrobe_port <port_pin_range>]
[muxstrobe_enable [-]<pin>]
[muxstrobe_gate [-]<pin>]
[sense <pin> ...]
[muxstrobe <number> <hid> ...]
...
[strobe <pin> <hid> ...]
...
[unstrobed [-]<pin> <hid>]
...
end
All options have default values, so often hardly any need to be used.
The sense, muxstrobe, strobe and unstrobed options, when used, must be given in that order!
Full example for my mini keyboard, which has 8 rows and 8 columns, and diodes fitted to each switch:
matrix
blocking 0
sense PB0 PB1 PB2 PB3 PD0 PD1 PD2 PD3
strobe PF0 ESC 2 4 5 7 9 MINUS LCTRL
strobe PF1 1 3 UNASSIGNED 6 8 0 BACKSPACE LGUI
strobe PF4 TAB W R T U O LEFT_BRACE LALT
strobe PF5 Q E BACKSPACE Y I P RIGHT_BRACE UNASSIGNED
strobe PF6 CAPS_LOCK S F G J L ENTER RALT
strobe PF7 A D SPACE H K SEMICOLON UNASSIGNED MENU
strobe PB6 LSHIFT Z C V N COMMA FN2 RCTRL
strobe PB7 FN1 X UNASSIGNED B M PERIOD RSHIFT UNASSIGNED
end
scanrate
Scan rate is set in milliseconds, in other words it's actually the interval between scans.
The default is 1ms, giving a scan rate of 1000Hz.
Valid values are from 1 to 8, allowing scan rates between 1000Hz and 125Hz.
There's little reason to change this unless scanning is unreliable, or you need to extend the debounce time.
debounce
Debounce time is set as a number of scans. Multiply by the scan interval to get a debounce time in milliseconds.
The default is 5, which, along with the default scan rate, would give a debounce time of 5ms.
Valid values are from 1 to 7.
To get a higher debounce time than 7ms, the scan interval should be increased.
debounce_method
Two debounce methods are supported, both of which debounce each key individually.
Method 0 is a standard debounce, to handle both noisy switch contacts and electro-magnetic interference (EMI).
Method 1 is a turbo debounce, which adds no lag to your inputs unlike the standard debounce. It does not handle EMI.
blocking
Specify whether to activate the ghost key blocking function, which is required when the matrix does not have diodes (or equivalent such as capacitive sensing).
Valid values are 0 (off) and 1 (on).
The default is on.
strobe_mode
Various strobe modes can be selected, although it will be quite unusual to need anything other than the default, which is 0.
WARNING: exercise caution when using modes 1 or 5, since errors in the connections or lack of diodes can easily damage the Teensy!
Mode Active Inactive
0 low pullup
1 low high
2 low float
3 float high
4 pullup low
5 high low
6 float low
7 high float
sense_delay
A delay of at least 1 microsecond (µs) is inserted between setting a strobe and reading the senses, to allow the signals across the matrix to settle.
Valid values are from 1 to 64 µs.
The default is 1 µs.
sense_polarity
This setting should normally match the strobe mode, with 0 being used for strobe_modes 0 to 3, and 1 being used for strobe_modes 4 to 7.
Valid values are 0 (active low) or 1 (active high).
The default is 0.
muxstrobe_port
For multiplexed strobes, muxstrobe_port defines the port and range of pins used to select the strobe.
Currently this is restricted to a contiguous set of pins on a single port.
Example:
muxstrobe_port PF7:4
muxstrobe_enable
External decoding logic may require an enable signal. This option assign a pin to that function.
The pin will be made active before scanning muxstrobes and inactive after - i.e. it remains active for the entire scan of all muxstrobes.
If the pin name is preceded with '-', the signal will be active low.
Example:
muxstrobe_enable -PD4
muxstrobe_gate
External decoding logic may require a gate signal. This option assign a pin to that function.
The pin will be made active and then inactive for each muxstrobe.
If the pin name is preceded with '-', the signal will be active low.
Example:
muxstrobe_gate -PD3
sense
Specifies a list of pins to read every time the matrix is strobed by either strobe or muxstrobe.
Example:
sense PB3 PB7 PD0 PD1 PD2 PD3 PC6 PC7
strobe
Specifies a pin to strobe, and the HID codes corresponding to each sense pin.
If fewer HID codes are given than there are sense lines, the remainder are assumed to be UNASSIGNED.
Example:
strobe PF0 ESC 2 4 5 7 9 MINUS LCTRL
muxstrobe
As strobe, except that instead of a pin to strobe, this specifies a code to send to the external decoding logic.
Example:
muxstrobe 7 ESC 2 4 5 7 9 MINUS LCTRL
unstrobed
Specifies a single pin to read and the corresponding HID code.
This is intended for a single switch which can be wired with the other side of the switch permanently connected to either ground or +5V. If the other side of the switch is at +5V, a pull-down resistor must be added between the pin and ground.
Example:
unstrobed -PF1 LSHIFT
. I still enjoy them, so ...
