0,0 → 1,400 |
/* |
* Copyright (C) 2006 Josef Cejka |
* All rights reserved. |
* |
* Redistribution and use in source and binary forms, with or without |
* modification, are permitted provided that the following conditions |
* are met: |
* |
* - Redistributions of source code must retain the above copyright |
* notice, this list of conditions and the following disclaimer. |
* - Redistributions in binary form must reproduce the above copyright |
* notice, this list of conditions and the following disclaimer in the |
* documentation and/or other materials provided with the distribution. |
* - The name of the author may not be used to endorse or promote products |
* derived from this software without specific prior written permission. |
* |
* THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR |
* IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES |
* OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. |
* IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT, |
* INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT |
* NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, |
* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY |
* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT |
* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF |
* THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. |
*/ |
|
/** @addtogroup kbdmips32 mips32 |
* @brief HelenOS mips32 arch dependent parts of uspace keyboard handler. |
* @ingroup kbd |
* @{ |
*/ |
/** @file |
*/ |
#include <arch/kbd.h> |
#include <ipc/ipc.h> |
#include <sysinfo.h> |
#include <kbd.h> |
#include <keys.h> |
|
#define MSIM_KEY_F1 0x504f1bL |
#define MSIM_KEY_F2 0x514f1bL |
#define MSIM_KEY_F3 0x524f1bL |
#define MSIM_KEY_F4 0x534f1bL |
#define MSIM_KEY_F5 0x35315b1bL |
#define MSIM_KEY_F6 0x37315b1bL |
#define MSIM_KEY_F7 0x38315b1bL |
#define MSIM_KEY_F8 0x39315b1bL |
#define MSIM_KEY_F9 0x30325b1bL |
#define MSIM_KEY_F10 0x31325b1bL |
#define MSIM_KEY_F11 0x33325b1bL |
#define MSIM_KEY_F12 0x34325b1bL |
|
|
#define GXEMUL_KEY_F1 0x504f5b1bL |
#define GXEMUL_KEY_F2 0x514f5b1bL |
#define GXEMUL_KEY_F3 0x524f5b1bL |
#define GXEMUL_KEY_F4 0x534f5b1bL |
#define GXEMUL_KEY_F5 0x35315b1bL |
#define GXEMUL_KEY_F6 0x37315b1bL |
#define GXEMUL_KEY_F7 0x38315b1bL |
#define GXEMUL_KEY_F8 0x39315b1bL |
#define GXEMUL_KEY_F9 0x38325b1bL |
#define GXEMUL_KEY_F10 0x39325b1bL |
#define GXEMUL_KEY_F11 0x33325b1bL |
#define GXEMUL_KEY_F12 0x34325b1bL |
|
|
#define FUNCTION_KEYS 0x100 |
|
|
irq_cmd_t msim_cmds[1] = { |
{ CMD_MEM_READ_1, (void *)0xB0000000, 0, 2 } |
}; |
|
irq_code_t msim_kbd = { |
1, |
msim_cmds |
}; |
|
static int msim,gxemul; |
|
int kbd_arch_init(void) |
{ |
ipc_register_irq(2, &msim_kbd); |
msim=sysinfo_value("machine.msim"); |
gxemul=sysinfo_value("machine.lgxemul"); |
return 0; |
} |
|
|
//* |
//* |
//* Please preserve this code (it can be used to determine scancodes) |
//* |
int to_hex(int v) |
{ |
return "0123456789ABCDEF"[v]; |
} |
//*/ |
|
static int kbd_arch_process_msim(keybuffer_t *keybuffer, int scan_code) |
{ |
|
static unsigned long buf=0; |
static int count=0; |
|
|
//* Please preserve this code (it can be used to determine scancodes) |
//* |
//keybuffer_push(keybuffer, to_hex((scan_code>>4)&0xf)); |
//keybuffer_push(keybuffer, to_hex(scan_code&0xf)); |
//keybuffer_push(keybuffer, ' '); |
//keybuffer_push(keybuffer, ' '); |
//*/ |
//return 1; |
|
|
if(scan_code==0x7e) |
{ |
switch (buf){ |
case MSIM_KEY_F5: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 5 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F6: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 6 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F7: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 7 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F8: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 8 ); |
buf=count=0; |
return 1; |
|
case MSIM_KEY_F9: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 9 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F10: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 10 ); |
buf=count=0; |
return 1; |
|
case MSIM_KEY_F11: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 11 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F12: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 12 ); |
buf=count=0; |
return 1; |
default: |
keybuffer_push(keybuffer, buf & 0xff ); |
keybuffer_push(keybuffer, (buf >> 8) &0xff ); |
keybuffer_push(keybuffer, (buf >> 16) &0xff ); |
keybuffer_push(keybuffer, (buf >> 24) &0xff ); |
keybuffer_push(keybuffer, scan_code ); |
buf=count=0; |
return 1; |
|
} |
} |
|
buf|=((unsigned long) scan_code)<<(8*(count++)); |
|
|
if((buf & 0xff)!= (MSIM_KEY_F1 & 0xff)) { |
|
keybuffer_push(keybuffer,buf ); |
buf=count=0; |
return 1; |
} |
|
if ( count <= 1 ) |
return 1; |
|
if( (buf & 0xffff) != (MSIM_KEY_F1 & 0xffff) |
&& (buf & 0xffff) != (MSIM_KEY_F5 & 0xffff) ) { |
|
keybuffer_push(keybuffer, buf & 0xff ); |
keybuffer_push(keybuffer, (buf >> 8) &0xff ); |
buf=count=0; |
return 1; |
} |
|
if ( count <= 2) |
return 1; |
|
switch (buf){ |
case MSIM_KEY_F1: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 1 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F2: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 2 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F3: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 3 ); |
buf=count=0; |
return 1; |
case MSIM_KEY_F4: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 4 ); |
buf=count=0; |
return 1; |
} |
|
|
if( (buf & 0xffffff) != (MSIM_KEY_F5 & 0xffffff) |
&& (buf & 0xffffff) != (MSIM_KEY_F9 & 0xffffff) ) { |
|
keybuffer_push(keybuffer, buf & 0xff ); |
keybuffer_push(keybuffer, (buf >> 8) &0xff ); |
keybuffer_push(keybuffer, (buf >> 16) &0xff ); |
buf=count=0; |
return 1; |
} |
|
if ( count <= 3 ) |
return 1; |
|
|
|
|
switch (buf){ |
case MSIM_KEY_F5: |
case MSIM_KEY_F6: |
case MSIM_KEY_F7: |
case MSIM_KEY_F8: |
case MSIM_KEY_F9: |
case MSIM_KEY_F10: |
case MSIM_KEY_F11: |
case MSIM_KEY_F12: |
return 1; |
default: |
keybuffer_push(keybuffer, buf & 0xff ); |
keybuffer_push(keybuffer, (buf >> 8) &0xff ); |
keybuffer_push(keybuffer, (buf >> 16) &0xff ); |
keybuffer_push(keybuffer, (buf >> 24) &0xff ); |
buf=count=0; |
return 1; |
|
} |
return 1; |
} |
|
|
|
static int kbd_arch_process_gxemul(keybuffer_t *keybuffer, int scan_code) |
{ |
|
static unsigned long buf=0; |
static int count=0; |
|
|
//* Please preserve this code (it can be used to determine scancodes) |
//* |
//keybuffer_push(keybuffer, to_hex((scan_code>>4)&0xf)); |
//keybuffer_push(keybuffer, to_hex(scan_code&0xf)); |
//keybuffer_push(keybuffer, ' '); |
//keybuffer_push(keybuffer, ' '); |
//*/ |
//return 1; |
|
|
if ( scan_code == '\r' ) |
scan_code = '\n' ; |
|
buf|=((unsigned long) scan_code)<<(8*(count++)); |
|
|
if((buf & 0xff)!= (GXEMUL_KEY_F1 & 0xff)) { |
|
keybuffer_push(keybuffer,buf ); |
buf=count=0; |
return 1; |
} |
|
if ( count <= 1 ) |
return 1; |
|
if( (buf & 0xffff) != (GXEMUL_KEY_F1 & 0xffff) ) { |
|
keybuffer_push(keybuffer, buf & 0xff ); |
keybuffer_push(keybuffer, (buf >> 8) &0xff ); |
buf=count=0; |
return 1; |
} |
|
if ( count <= 2) |
return 1; |
|
|
if( (buf & 0xffffff) != (GXEMUL_KEY_F1 & 0xffffff) |
&& (buf & 0xffffff) != (GXEMUL_KEY_F5 & 0xffffff) |
&& (buf & 0xffffff) != (GXEMUL_KEY_F9 & 0xffffff) ) { |
|
keybuffer_push(keybuffer, buf & 0xff ); |
keybuffer_push(keybuffer, (buf >> 8) &0xff ); |
keybuffer_push(keybuffer, (buf >> 16) &0xff ); |
buf=count=0; |
return 1; |
} |
|
if ( count <= 3 ) |
return 1; |
|
|
switch (buf){ |
|
case GXEMUL_KEY_F1: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 1 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F2: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 2 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F3: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 3 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F4: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 4 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F5: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 5 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F6: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 6 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F7: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 7 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F8: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 8 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F9: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 9 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F10: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 10 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F11: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 11 ); |
buf=count=0; |
return 1; |
case GXEMUL_KEY_F12: |
keybuffer_push(keybuffer,FUNCTION_KEYS | 12 ); |
buf=count=0; |
return 1; |
|
default: |
keybuffer_push(keybuffer, buf & 0xff ); |
keybuffer_push(keybuffer, (buf >> 8) &0xff ); |
keybuffer_push(keybuffer, (buf >> 16) &0xff ); |
keybuffer_push(keybuffer, (buf >> 24) &0xff ); |
buf=count=0; |
return 1; |
|
} |
return 1; |
} |
|
int kbd_arch_process(keybuffer_t *keybuffer, ipc_call_t *call) |
{ |
int scan_code = IPC_GET_ARG2(*call); |
static int esc_count=0; |
|
|
if ( scan_code == 0x1b ) { |
esc_count++; |
if ( esc_count == 3 ) { |
__SYSCALL0(SYS_DEBUG_ENABLE_CONSOLE); |
} |
} else { |
esc_count=0; |
} |
|
if(msim) return kbd_arch_process_msim(keybuffer, scan_code); |
if(gxemul) return kbd_arch_process_gxemul(keybuffer, scan_code); |
|
return 0; |
} |
|
/** |
* @} |
*/ |