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修改串口为新版本

bfysop-v2
mr.zhangsan 1 year ago
parent
4c70a7bbdf
commit
70933c20a1
34 changed files with 1056 additions and 4024 deletions
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  1. 2
      source/app/app_config.c
  2. 66
      source/app/task_nfc.c
  3. 17
      source/app/task_nfc.h
  4. 74
      source/app/task_rfid.c
  5. 17
      source/app/task_rfid.h
  6. 65
      source/app/task_rs485.c
  7. 27
      source/app/task_rs485.h
  8. 11
      source/bsp/bsp_config.h
  9. 589
      source/cpu/STC_stc8a8k.H
  10. 466
      source/cpu/stc_stc15w.H
  11. 746
      source/cpu/stc_stc8G1k.H
  12. 593
      source/cpu/stc_stc8f.h
  13. 2
      source/ctask/task.h
  14. 4
      source/ctask/tick.h
  15. 60
      source/ctask/time.c
  16. 0
      source/ctask/time.h
  17. 138
      source/msp/UART0.C
  18. 8
      source/msp/UART0.h
  19. 176
      source/msp/UART2.c
  20. 9
      source/msp/UART2.h
  21. 139
      source/msp/UART3.c
  22. 63
      source/msp/UART3.h
  23. 128
      source/msp/UART4.C
  24. 8
      source/msp/UART4.h
  25. 240
      source/msp/UARTX.c
  26. 97
      source/msp/UARTX.h
  27. 109
      source/msp/time.c
  28. 213
      source/msp/uart_x.c
  29. 120
      source/msp/uart_x.h
  30. 476
      source/tpc/debug.c
  31. 51
      source/tpc/debug.h
  32. 64
      source/tpc/modbus.c
  33. 114
      source/tpc/modbus.h
  34. 2
      source/tpc/tpc_x.h

2
source/app/app_config.c
View File

@ -87,7 +87,7 @@ void L3_reg_reset(void)
// R.auth_flag = (0<<4) | 0x01;
//从机ID
R.slave_id = 0x01;
R.slave_id = 0x03;
//功耗模式：正常模式
R.power_mode = POWER_NORMAL;

66
source/app/task_nfc.c
View File

@ -17,7 +17,6 @@
#include "../msp/uart2.h"
S_TASK_NFC _s_task_nfc;
TPC_NFC tpc_nfc;
//=============================================
void L3_task_nfc_init(void)
@ -27,8 +26,6 @@ void L3_task_nfc_init(void)
}
#define D_task_NFC_READ 0x50
#define D_task_NFC_SET 0x52
#define D_task_NFC_PRINT 0x53
void L3_task_nfc_handler(S_TASK_NFC *s)
{
@ -36,49 +33,64 @@ void L3_task_nfc_handler(S_TASK_NFC *s)
L2_task_go(D_task_NFC_READ);
TTSS_Task_step(D_task_NFC_READ)
if(ts_uart2_recv_buf.ok == 1)
if(ts_uart[uNum2].r.ok == 1)
{
ts_uart2_recv_buf.ok = 0;
Lc_buf_copy_uc((U8*)&tpc_nfc, ts_uart2_recv_buf.buf, ts_uart2_recv_buf.num);
tpc_nfc.ocr = tpc_nfc.buf[tpc_nfc.num[0] << 8 | tpc_nfc.num[1]];
//只读取0x10的协议
if(tpc_nfc.cmd == 0x10){
L2_task_go_Tdelay(D_task_NFC_SET,0);
//L2_task_go_Tdelay(D_task_NFC_PRINT,0);
}
ts_uart[uNum2].r.ok = 0;
parse_nfc_pkg();
}
//send next
L2_task_go_Tdelay(D_task_NFC_READ, 0);
TTSS_Task_step(D_task_NFC_SET)
U8 num = (U16)tpc_nfc.num[0] << 8 | tpc_nfc.num[1];
TTSS_Task_end();
}
//NFC协议：60 20 00 07 10 02 04 00 99 83 33 4E 36
//起始帧：60
//设备ID：20
//数据长度：00 07
//命令：10
//数据：02 04 00 99 83 33 4E
//校验：36 从起始帧到数据字段 [60 20 00 07 10 02 04 00 99 83 33 4E] 的所有字节的依次异或值
void parse_nfc_pkg()
{
TPC_NFC *p = (TPC_NFC *) ts_uart[uNum2].r.buf;
p->ocr = p->buf[p->num[0] << 8 | p->num[1]];
if(p->head == 0x60 && 1 /*count_ocr() */)
{
U16 num = (U16)p->num[0] << 8 | p->num[1];
//只读取0x10的协议
if(p->cmd == 0x10 && num == 0x07){
//1.判定NFC卡号是否符合规则
//2.保存NFC卡号到寄存器
R.nfc.nfc_no[0] = tpc_nfc.buf[num-2];
R.nfc.nfc_no[0] = tpc_nfc.buf[num-1];
R.nfc.nfc_no[0] = p->buf[num-2];
R.nfc.nfc_no[1] = p->buf[num-1];
//3.设定授权标志
R.auth_flag |= 0x01;
L2_task_go_Tdelay(D_task_NFC_READ,D_Tdelay_100ms);
//4.打印日志
print_nfc_pkg(p);
}
}
}
TTSS_Task_step(D_task_NFC_PRINT)
void print_nfc_pkg(TPC_NFC *p)
{
L0_uart0_sendstr("\r\n--------- Recv NFC --------\r\n");
L0_uart0_sendstr("id : ");
L0_uart0_uchex(tpc_nfc.slaveId);
L0_uart0_uchex(p->slaveId);
L0_uart0_0d0a();
L0_uart0_sendstr("num: ");
L0_uart0_uchex(tpc_nfc.num[0]);
L0_uart0_uchex(tpc_nfc.num[1]);
L0_uart0_uchex(p->num[0]);
L0_uart0_uchex(p->num[1]);
L0_uart0_0d0a();
L0_uart0_sendstr("cmd: ");
L0_uart0_uchex(tpc_nfc.cmd);
L0_uart0_uchex(p->cmd);
L0_uart0_0d0a();
L0_uart0_sendstr("no : ");
L0_uart0_sendArrayHex(tpc_nfc.buf, tpc_nfc.num[0] << 8 | tpc_nfc.num[1]);
L0_uart0_sendArrayHex(p->buf, (U16)p->num[0] << 8 | p->num[1]);
L0_uart0_0d0a();
L0_uart0_sendstr("ocr: ");
L0_uart0_uchex(tpc_nfc.ocr);
L0_uart0_uchex(p->buf[(U16)p->num[0] << 8 | p->num[1]]);
L0_uart0_0d0a();
L2_task_go_Tdelay(D_task_NFC_READ,0);
TTSS_Task_end();
}

17
source/app/task_nfc.h
View File

@ -16,18 +16,27 @@
#include "../ctask/task.h"
#include "../clib/clib.h"
#include "../tpc/debug.h"
typedef struct _s_task_nfc
{
TS_task task;
}S_TASK_NFC;
extern S_TASK_NFC _s_task_nfc;
#define TPC_NFC_DAT_MAX 16
typedef struct _tpc_nfc_
{
U8 head;
U8 slaveId;
U8 num[2];
U8 cmd;
U8 buf[TPC_NFC_DAT_MAX];
U8 ocr;
}TPC_NFC;
extern S_TASK_NFC _s_task_nfc;
extern void L3_task_nfc_init(void);
extern void L3_task_nfc_handler(S_TASK_NFC *s);
extern void parse_nfc_pkg();
extern void print_nfc_pkg(TPC_NFC *p);
#endif // #ifndef _APP_TASK_NFC_H

74
source/app/task_rfid.c
View File

@ -17,7 +17,6 @@
#include "../msp/uart3.h"
S_TASK_RFID _s_task_rfid;
TPC_RFID tpc_rfid;
//4通道，读取次数 3 3 3 3
U8 rfidSetChannelCmd[] = {0xBB,0x00,0x1B,0x00,0x05,0x02,0x03,0x03,0x03,0x03,0x2E,0x7E};
@ -36,8 +35,6 @@ void L3_task_rfid_init(void)
}
#define D_task_RFID_READ 0x50
#define D_task_RFID_PRINT 0x51
#define D_task_RFID_SET 0x52
void L3_task_rfid_handler(S_TASK_RFID *s)
{
@ -63,27 +60,39 @@ void L3_task_rfid_handler(S_TASK_RFID *s)
L2_task_go(D_task_RFID_READ);
TTSS_Task_step(D_task_RFID_READ)
if(ts_uart3_recv_buf.ok == 1)
if(ts_uart[uNum3].r.ok == 1)
{
ts_uart3_recv_buf.ok = 0;
Lc_buf_copy_uc((U8*)&tpc_rfid, ts_uart3_recv_buf.buf, ts_uart3_recv_buf.num);
tpc_rfid.ocr = tpc_rfid.buf[tpc_rfid.num[0] << 8 | tpc_rfid.num[1]];
if(tpc_rfid.type == 0x02 && tpc_rfid.cmd == 0x22){
// L2_task_go_Tdelay(D_task_RFID_PRINT,0);
L2_task_go_Tdelay(D_task_RFID_SET,0);
}
ts_uart[uNum3].r.ok = 0;
parse_rfid_pkg();
}
//read next
L2_task_go_Tdelay(D_task_RFID_READ,0);
TTSS_Task_step(D_task_RFID_SET)
U8 index = 0;
U8 num = (U16)tpc_rfid.num[0] << 8 | tpc_rfid.num[1];
U16 rfidno = (U16)tpc_rfid.buf[num-5] << 8 | tpc_rfid.buf[num-4];
U8 rssi = tpc_rfid.buf[0];
U8 ant = tpc_rfid.buf[num-1];
TTSS_Task_end();
}
L0_uart0_uc('R');
L0_uart0_uchex(tpc_rfid.buf[num-5]);
L0_uart0_uchex(tpc_rfid.buf[num-4]);
//RFID协议：BB 02 22 00 11 D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 EB 98 0C 7E
//帧头：BB
//Type：00命令帧 /01响应帧 /02通知帧
//Command: 07指令桢 /22单次读写 /27多次轮询 /28停止轮询 /0C选择 / B6设置功率
//数据长度：00 11
//数据：D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 [EB 98]
//校验：0C 从Type到数据字段 [02 22 00 11 D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 EB 98] 的所有字节的累加和
//帧尾：7E
void parse_rfid_pkg()
{
TPC_RFID *p = (TPC_RFID *) ts_uart[uNum3].r.buf;
p->ocr = p->buf[p->num[0] << 8 | p->num[1]];
p->tail = p->buf[p->num[0] << 8 | p->num[1] + 1];
if(p->head == 0xBB && p->tail == 0x7E && 1 /*count_ocr() */)
{
//只读取type=0x02, cmd=0x22的协议
if(p->type == 0x02 && p->cmd == 0x22){
U8 index = 0;
U16 num = (U16)p->num[0] << 8 | p->num[1];
U16 rfidno = (U16)p->buf[num-5] << 8 | p->buf[num-4];
U8 rssi = p->buf[0];
U8 ant = p->buf[num-1];
//1.判定RFID卡号是否符合规则
//2.保存RFID卡号到寄存器
@ -95,31 +104,32 @@ void L3_task_rfid_handler(S_TASK_RFID *s)
if(index < LED_BTN_NUM){
R.led_status[index] = BLED0_ON;
}
L2_task_go_Tdelay(D_task_RFID_READ,0);
//5.打印日志
print_rfid_pkg(p);
}
}
}
TTSS_Task_step(D_task_RFID_PRINT)
void print_rfid_pkg(TPC_RFID *p)
{
L0_uart0_sendstr("\r\n--------- Recv RFID --------\r\n");
L0_uart0_sendstr("type : ");
L0_uart0_uchex(tpc_rfid.type);
L0_uart0_uchex(p->type);
L0_uart0_0d0a();
L0_uart0_sendstr("cmd: ");
L0_uart0_uchex(tpc_rfid.cmd);
L0_uart0_uchex(p->cmd);
L0_uart0_0d0a();
L0_uart0_sendstr("num: ");
L0_uart0_uchex(tpc_rfid.num[0]);
L0_uart0_uchex(tpc_rfid.num[1]);
L0_uart0_uchex(p->num[0]);
L0_uart0_uchex(p->num[1]);
L0_uart0_0d0a();
L0_uart0_sendstr("dat : ");
L0_uart0_sendArrayHex(tpc_rfid.buf, tpc_rfid.num[0] << 8 | tpc_rfid.num[1]);
L0_uart0_sendArrayHex(p->buf, p->num[0] << 8 | p->num[1]);
L0_uart0_0d0a();
L0_uart0_sendstr("ocr: ");
L0_uart0_uchex(tpc_rfid.ocr);
L0_uart0_uchex(p->ocr);
L0_uart0_0d0a();
L2_task_go_Tdelay(D_task_RFID_READ,0);
TTSS_Task_end();
}

17
source/app/task_rfid.h
View File

@ -16,18 +16,29 @@
#include "../ctask/task.h"
#include "../clib/clib.h"
#include "../tpc/debug.h"
typedef struct _s_task_rfid
{
TS_task task;
}S_TASK_RFID;
extern S_TASK_RFID _s_task_rfid;
#define TPC_RFID_DAT_MAX 32
typedef struct _tpc_rfid_
{
U8 head;
U8 type;
U8 cmd;
U8 num[2];
U8 buf[TPC_RFID_DAT_MAX];
U8 ocr;
U8 tail;
}TPC_RFID;
extern S_TASK_RFID _s_task_rfid;
extern void L3_task_rfid_init(void);
extern void L3_task_rfid_handler(S_TASK_RFID *s);
extern void parse_rfid_pkg();
extern void print_rfid_pkg(TPC_RFID *p);
#endif // #ifndef _APP_TASK_RFID_H

65
source/app/task_rs485.c
View File

@ -23,8 +23,6 @@ static U8 acklen = 0;
static U8 i = 0;
U16 setLedStatus = 0;
U8 constructor_rs485_ack();
//=============================================
void L3_task_rs485_init(void)
{
@ -43,34 +41,43 @@ void L3_task_rs485_handler(S_TASK_RS485 *s)
L2_task_go(D_task_RS485_READ);
TTSS_Task_step(D_task_RS485_READ)
if(ts_uart4_recv_buf.ok == 1)
if(ts_uart[uNum4].r.ok == 1)
{
//L0_uart0_uc('%');
// LED0 ^= 1;
ts_uart4_recv_buf.ok = 0;
Lc_buf_copy_uc((U8*)&tpc_rs485, ts_uart4_recv_buf.buf, ts_uart4_recv_buf.num);
tpc_rs485.ocr = tpc_rs485.buf[tpc_rs485.num[0] << 8 | tpc_rs485.num[1]];
//L2_task_go_Tdelay(D_task_RS485_PRINT,0);
L2_task_go_Tdelay(D_task_RS485_ACK,0);
ts_uart[uNum4].r.ok = 0;
parse_rs485_pkg();
}
//read next
L2_task_go_Tdelay(D_task_RS485_READ,0);
TTSS_Task_end();
}
TTSS_Task_step(D_task_RS485_ACK)
if(tpc_rs485.slaveId == R.slave_id)
//485协议：AA 00 04 01 10 00 00 15
//FILTER：固定1个字节 AA
//SLAVEID：固定1个字节，代表从机ID
//CMDER: 固定1个字节，代表命令，每个从机自己定义。
//NUM: 固定2个字节，高字节在前，代表后续DATA的长度（不包括ocr），比如0x0010，代表后续 16个字节
//DATA：（Num 个字节）数据域
//OCR：1个字节，代表校验和， = 从SlaveId开始 - DATA结束的所有字节之和。
void parse_rs485_pkg()
{
TPC_RS485 *p = (TPC_RS485 *) ts_uart[uNum4].r.buf;
p->ocr = p->buf[p->num[0] << 8 | p->num[1]];
if(p->head[0] == 0xAA && 1 /*count_ocr() */)
{
//读取
if(tpc_rs485.cmd == 0x10)
if(p->slaveId == R.slave_id && p->cmd == 0x10)
{
//1.buf[0]高4位是否需要授权标志
R.auth_flag &= 0x0F;
R.auth_flag |= tpc_rs485.buf[0] & 0xF0;
R.auth_flag |= p->buf[0] & 0xF0;
//2.buf[0]低四位是否进入低功耗模式
// R.low_power_mode = tpc_rs485.buf[0] & 0x0F;
L3_set_power_mode(tpc_rs485.buf[0] & 0x0F);
// R.low_power_mode = p->buf[0] & 0x0F;
L3_set_power_mode(p->buf[0] & 0x0F);
//3.buf[1-2], rfid映射
//TODO 上位机发过来的rfid编号如何处理
setLedStatus = (U16)tpc_rs485.buf[1] << 8 | tpc_rs485.buf[2];
setLedStatus = (U16)p->buf[1] << 8 | p->buf[2];
if(setLedStatus != 0x00)
{
//0位是功能按键，常亮，不提供设置功能
@ -88,31 +95,31 @@ void L3_task_rs485_handler(S_TASK_RS485 *s)
acklen = constructor_rs485_ack();
//写出
L0_uart4_sendArray((U8*)&tpc_rs485_ack, acklen);
//日志
print_rs485_pkg(p);
}
}
L2_task_go_Tdelay(D_task_RS485_READ,0);
}
TTSS_Task_step(D_task_RS485_PRINT)
void print_rs485_pkg(TPC_RS485 *p)
{
L0_uart0_sendstr("\r\n--------- Recv RS485 --------\r\n");
L0_uart0_sendstr("slaveId : ");
L0_uart0_uchex(tpc_rs485.slaveId);
L0_uart0_uchex(p->slaveId);
L0_uart0_0d0a();
L0_uart0_sendstr("cmd: ");
L0_uart0_uchex(tpc_rs485.cmd);
L0_uart0_uchex(p->cmd);
L0_uart0_0d0a();
L0_uart0_sendstr("num: ");
L0_uart0_uchex(tpc_rs485.num[0]);
L0_uart0_uchex(tpc_rs485.num[1]);
L0_uart0_uchex(p->num[0]);
L0_uart0_uchex(p->num[1]);
L0_uart0_0d0a();
L0_uart0_sendstr("dat : ");
L0_uart0_sendArrayHex(tpc_rs485.buf, tpc_rs485.num[0] << 8 | tpc_rs485.num[1]);
L0_uart0_sendArrayHex(p->buf, p->num[0] << 8 | p->num[1]);
L0_uart0_0d0a();
L0_uart0_sendstr("ocr: ");
L0_uart0_uchex(tpc_rs485.ocr);
L0_uart0_uchex(p->ocr);
L0_uart0_0d0a();
L2_task_go_Tdelay(D_task_RS485_READ,0);
TTSS_Task_end();
}
U8 constructor_rs485_ack()

27
source/app/task_rs485.h
View File

@ -16,17 +16,40 @@
#include "../ctask/task.h"
#include "../clib/clib.h"
#include "../tpc/debug.h"
typedef struct _s_task_rs485
{
TS_task task;
}S_TASK_RS485;
extern S_TASK_RS485 _s_task_rs485;
#define TPC_RS485_DAT_MAX 32
typedef struct _tpc_rs485_
{
U8 head[1];
U8 slaveId;
U8 cmd;
U8 num[2];
U8 buf[TPC_RS485_DAT_MAX];
U8 ocr;
}TPC_RS485;
#define TPC_RS485_ACK_DAT_MAX 32
typedef struct _tpc_rs485_ack_
{
U8 head[1];
U8 slaveId;
U8 cmd;
U8 num[2];
U8 buf[TPC_RS485_ACK_DAT_MAX];
U8 ocr;
}TPC_RS485_ACK;
extern S_TASK_RS485 _s_task_rs485;
extern void L3_task_rs485_init(void);
extern void L3_task_rs485_handler(S_TASK_RS485 *s);
extern void parse_rs485_pkg();
extern void print_rs485_pkg(TPC_RS485 *p);
extern U8 constructor_rs485_ack();
#endif // #ifndef _APP_TASK_RS485_H

11
source/bsp/bsp_config.h
View File

@ -90,13 +90,24 @@
//485配置
#define D_UART4_485_TYPE TYPE_485_SLAVER //UART4启用485
#if(D_UART4_485_TYPE == TYPE_485_SLAVER)
#define D_UART4_485_SLAVER_ID_BROADCAST 0xFF //485从机总是响应0xFF消息
#define D_UART4_485_SLAVER_ID 0x01 //板卡作为485从机 slaverId
#endif
#define D_UART4_485_TX() P01 = 1; P00=1;
#define D_UART4_485_RX() P01 = 0; P00=0;
#define D_UART0_485_TYPE TYPE_485_NONE //UART0不启用485
#define D_UART0_485_TX()
#define D_UART0_485_RX()
#define D_UART2_485_TYPE TYPE_485_NONE //UART2不启用485
#define D_UART2_485_TX()
#define D_UART2_485_RX()
#define D_UART3_485_TYPE TYPE_485_NONE //UART3不启用485
#define D_UART3_485_TX()
#define D_UART3_485_RX()
//MODBUS协议配置
//#define D_MODBUS_ENABLE //MODBS启用开关，如果不使用modbus，可以注释掉本行

589
source/cpu/STC_stc8a8k.H
View File

@ -1,589 +0,0 @@
#ifndef __STC_stc8a8k_H_
#define __STC_stc8a8k_H_
// STC_stc8a8k.h
#include<intrins.h>
/////////////////////////////////////////////////
//注意: STC15W4K32S4系列的芯片,上电后所有与PWM相关的IO口均为
// 高阻态,需将这些口设置为准双向口或强推挽模式方可正常使用
//相关IO: P0.6/P0.7/P1.6/P1.7/P2.1/P2.2
// P2.3/P2.7/P3.7/P4.2/P4.4/P4.5
/////////////////////////////////////////////////
/////////////////////////////////////////////////
//包含本头文件后,不用另外再包含"REG51.H"
//内核特殊功能寄存器 // 复位值 描述
sfr ACC = 0xE0; //0000,0000 累加器Accumulator
sfr B = 0xF0; //0000,0000 B寄存器
sfr PSW = 0xD0; //0000,0000 程序状态字
sbit CY = PSW^7;
sbit AC = PSW^6;
sbit F0 = PSW^5;
sbit RS1 = PSW^4;
sbit RS0 = PSW^3;
sbit OV = PSW^2;
sbit P = PSW^0;
sfr SP = 0x81; //0000,0111 堆栈指针
sfr DPL = 0x82; //0000,0000 数据指针低字节
sfr DPH = 0x83; //0000,0000 数据指针高字节
//I/O 口特殊功能寄存器
sfr P0 = 0x80; //1111,1111 端口0
sbit P00 = P0^0;
sbit P01 = P0^1;
sbit P02 = P0^2;
sbit P03 = P0^3;
sbit P04 = P0^4;
sbit P05 = P0^5;
sbit P06 = P0^6;
sbit P07 = P0^7;
sfr P1 = 0x90; //1111,1111 端口1
sbit P10 = P1^0;
sbit P11 = P1^1;
sbit P12 = P1^2;
sbit P13 = P1^3;
sbit P14 = P1^4;
sbit P15 = P1^5;
sbit P16 = P1^6;
sbit P17 = P1^7;
sfr P2 = 0xA0; //1111,1111 端口2
sbit P20 = P2^0;
sbit P21 = P2^1;
sbit P22 = P2^2;
sbit P23 = P2^3;
sbit P24 = P2^4;
sbit P25 = P2^5;
sbit P26 = P2^6;
sbit P27 = P2^7;
sfr P3 = 0xB0; //1111,1111 端口3
sbit P30 = P3^0;
sbit P31 = P3^1;
sbit P32 = P3^2;
sbit P33 = P3^3;
sbit P34 = P3^4;
sbit P35 = P3^5;
sbit P36 = P3^6;
sbit P37 = P3^7;
sfr P4 = 0xC0; //1111,1111 端口4
sbit P40 = P4^0;
sbit P41 = P4^1;
sbit P42 = P4^2;
sbit P43 = P4^3;
sbit P44 = P4^4;
sbit P45 = P4^5;
sbit P46 = P4^6;
sbit P47 = P4^7;
sfr P5 = 0xC8; //xxxx,1111 端口5
sbit P50 = P5^0;
sbit P51 = P5^1;
sbit P52 = P5^2;
sbit P53 = P5^3;
sbit P54 = P5^4;
sbit P55 = P5^5;
sbit P56 = P5^6;
sbit P57 = P5^7;
sfr P6 = 0xE8; //0000,0000 端口6
sbit P60 = P6^0;
sbit P61 = P6^1;
sbit P62 = P6^2;
sbit P63 = P6^3;
sbit P64 = P6^4;
sbit P65 = P6^5;
sbit P66 = P6^6;
sbit P67 = P6^7;
sfr P7 = 0xF8; //0000,0000 端口7
sbit P70 = P7^0;
sbit P71 = P7^1;
sbit P72 = P7^2;
sbit P73 = P7^3;
sbit P74 = P7^4;
sbit P75 = P7^5;
sbit P76 = P7^6;
sbit P77 = P7^7;
///00 准双向口 灌电流20mA 拉电流270-150uS
///01 推挽输出 20mA 加限流
///10 高阻
///11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
sfr P0M0 = 0x94; //0000,0000 端口0模式寄存器0
sfr P0M1 = 0x93; //0000,0000 端口0模式寄存器1
sfr P1M0 = 0x92; //0000,0000 端口1模式寄存器0
sfr P1M1 = 0x91; //0000,0000 端口1模式寄存器1
sfr P2M0 = 0x96; //0000,0000 端口2模式寄存器0
sfr P2M1 = 0x95; //0000,0000 端口2模式寄存器1
sfr P3M0 = 0xB2; //0000,0000 端口3模式寄存器0
sfr P3M1 = 0xB1; //0000,0000 端口3模式寄存器1
sfr P4M0 = 0xB4; //0000,0000 端口4模式寄存器0
sfr P4M1 = 0xB3; //0000,0000 端口4模式寄存器1
sfr P5M0 = 0xCA; //0000,0000 端口5模式寄存器0
sfr P5M1 = 0xC9; //0000,0000 端口5模式寄存器1
sfr P6M0 = 0xCC; //0000,0000 端口6模式寄存器0
sfr P6M1 = 0xCB; //0000,0000 端口6模式寄存器1
sfr P7M0 = 0xE2; //0000,0000 端口7模式寄存器0
sfr P7M1 = 0xE1; //0000,0000 端口7模式寄存器1
//系统管理特殊功能寄存器
sfr PCON = 0x87; //0001,0000 电源控制寄存器
sfr AUXR = 0x8E; //0000,0000 辅助寄存器
#define TOx12 BITN7
#define T1x12 BITN6
#define UART_M0x6 BITN5 //串口1模式0速度 =0 12倍 = 1 两倍
#define T2R BITN4 //定时器2 运行 =1
#define T2_C BITN3 //定时器/计数器选择
#define T2x12 BITN2
#define EXTRAM BITN1
#define S1ST2 BITN0 //串口1选择定时器1 =0 选择定时器2 =1
sfr AUXR1 = 0xA2; //0000,0000 辅助寄存器1
sfr P_SW1 = 0xA2; //0000,0000 外设端口切换寄存器1
sfr CLK_DIV = 0x97; //0000,0000 时钟分频控制寄存器
sfr BUS_SPEED = 0xA1; //xx10,x011 总线速度控制寄存器
sfr P1ASF = 0x9D; //0000,0000 端口1模拟功能配置寄存器
//-----------------------------------------------------------------
sfr P_SW2 = 0xBA; //0xxx,x000 外设端口切换寄存器
#define EAXFR BITN7
#define I2C_S1 BITN5
#define I2C_S2 BITN4
#define CMPO_S BITN3
#define S4_S BITN2
#define S3_S BITN1
#define S2_S BITN0
//-----------------------------------------------------------------
//中断特殊功能寄存器
sfr IE = 0xA8; //0000,0000 中断控制寄存器
sbit EA = IE^7;
sbit ELVD = IE^6;
sbit EADC = IE^5;
sbit ES = IE^4;
sbit ET1 = IE^3;
sbit EX1 = IE^2;
sbit ET0 = IE^1;
sbit EX0 = IE^0;
sfr IP = 0xB8; //0000,0000 中断优先级寄存器
sbit PPCA = IP^7;
sbit PLVD = IP^6;
sbit PADC = IP^5;
sbit PS = IP^4;
sbit PT1 = IP^3;
sbit PX1 = IP^2;
sbit PT0 = IP^1;
sbit PX0 = IP^0;
sfr IE2 = 0xAF; //0000,0000 中断控制寄存器2
/// 不可位寻址
#define ET4 BITN6
#define ET3 BITN5
#define ES4 BITN4
#define ES3 BITN3
#define ET2 BITN2
#define ESPI BITN1
#define ES2 BITN0
sfr IP2 = 0xB5; //xxxx,xx00 中断优先级寄存器2
sfr INT_CLKO = 0x8F; //0000,0000 外部中断与时钟输出控制寄存器
//定时器特殊功能寄存器
sfr TCON = 0x88; //0000,0000 T0/T1控制寄存器
sbit TF1 = TCON^7;
sbit TR1 = TCON^6;
sbit TF0 = TCON^5;
sbit TR0 = TCON^4;
sbit IE1 = TCON^3;
sbit IT1 = TCON^2;
sbit IE0 = TCON^1;
sbit IT0 = TCON^0;
sfr TMOD = 0x89; //0000,0000 T0/T1模式寄存器
sfr TL0 = 0x8A; //0000,0000 T0低字节
sfr TL1 = 0x8B; //0000,0000 T1低字节
sfr TH0 = 0x8C; //0000,0000 T0高字节
sfr TH1 = 0x8D; //0000,0000 T1高字节
sfr T4T3M = 0xD1; //0000,0000 T3/T4模式寄存器
sfr T3T4M = 0xD1; //0000,0000 T3/T4模式寄存器
sfr T4H = 0xD2; //0000,0000 T4高字节
sfr T4L = 0xD3; //0000,0000 T4低字节
sfr T3H = 0xD4; //0000,0000 T3高字节
sfr T3L = 0xD5; //0000,0000 T3低字节
sfr T2H = 0xD6; //0000,0000 T2高字节
sfr T2L = 0xD7; //0000,0000 T2低字节
sfr WKTCL = 0xAA; //0000,0000 掉电唤醒定时器低字节
sfr WKTCH = 0xAB; //0000,0000 掉电唤醒定时器高字节
sfr WDT_CONTR = 0xC1; //0000,0000 看门狗控制寄存器
//串行口特殊功能寄存器
sfr SCON = 0x98; //0000,0000 串口1控制寄存器
sbit SM0 = SCON^7;
sbit SM1 = SCON^6;
sbit SM2 = SCON^5;
sbit REN = SCON^4;
sbit TB8 = SCON^3;
sbit RB8 = SCON^2;
sbit TI = SCON^1;
sbit RI = SCON^0;
//sfr SBUF = 0x99; //xxxx,xxxx 串口1数据寄存器
//sfr S2CON = 0x9A; //0000,0000 串口2控制寄存器
//sfr S2BUF = 0x9B; //xxxx,xxxx 串口2数据寄存器
//sfr SADDR = 0xA9; //0000,0000 从机地址寄存器
//sfr SADEN = 0xB9; //0000,0000 从机地址屏蔽寄存器
sfr SBUF = 0x99; //Serial Data Buffer
sfr SBUF0 = 0x99; //Serial Data Buffer xxxx,xxxx
sfr SADEN = 0xB9; //Slave Address Mask 0000,0000
sfr SADDR = 0xA9; //Slave Address 0000,0000
//-----------------------------------
// 7 6 5 4 3 2 1 0 Reset Value
sfr S2CON = 0x9A; //S2 Control S2SM0 S2SM1 S2SM2 S2REN S2TB8 S2RB8 S2TI S2RI 00000000B
#define S2SM0 BITN7
#define S2ST4 BITN6
#define S2SM2 BITN5
#define S2REN BITN4
#define S2TB8 BITN3
#define S2RB8 BITN2
#define S2TI BITN1
#define S2RI BITN0
sfr S2BUF = 0x9B; //S2 Serial Buffer xxxx,xxxx
//sfr BRT = 0x9C; //S2 Baud-Rate Timer 0000,0000
//---------------------------------------------------------------
sfr S3CON = 0xAC; //0000,0000 串口3控制寄存器
#define S3SM0 BITN7
#define S3ST4 BITN6
#define S3SM2 BITN5
#define S3REN BITN4
#define S3TB8 BITN3
#define S3RB8 BITN2
#define S3TI BITN1
#define S3RI BITN0
sfr S3BUF = 0xAD; //xxxx,xxxx 串口3数据寄存器
//---------------------------------------------------------------
sfr S4CON = 0x84; //0000,0000 串口4控制寄存器
#define S4SM0 BITN7
#define S4ST4 BITN6
#define S4SM2 BITN5
#define S4REN BITN4
#define S4TB8 BITN3
#define S4RB8 BITN2
#define S4TI BITN1
#define S4RI BITN0
sfr S4BUF = 0x85; //xxxx,xxxx 串口4数据寄存器
//ADC 特殊功能寄存器
sfr ADC_CONTR = 0xBC; //0000,0000 A/D转换控制寄存器
sfr ADC_RES = 0xBD; //0000,0000 A/D转换结果高8位
sfr ADC_RESL = 0xBE; //0000,0000 A/D转换结果低2位
//SPI 特殊功能寄存器
sfr SPSTAT = 0xCD; //00xx,xxxx SPI状态寄存器
sfr SPCTL = 0xCE; //0000,0100 SPI控制寄存器
sfr SPDAT = 0xCF; //0000,0000 SPI数据寄存器
//IAP/ISP 特殊功能寄存器
sfr IAP_DATA = 0xC2; //0000,0000 EEPROM数据寄存器
sfr IAP_ADDRH = 0xC3; //0000,0000 EEPROM地址高字节
sfr IAP_ADDRL = 0xC4; //0000,0000 EEPROM地址第字节
sfr IAP_CMD = 0xC5; //xxxx,xx00 EEPROM命令寄存器
sfr IAP_TRIG = 0xC6; //0000,0000 EEPRPM命令触发寄存器
sfr IAP_CONTR = 0xC7; //0000,x000 EEPROM控制寄存器
//PCA/PWM 特殊功能寄存器
sfr CCON = 0xD8; //00xx,xx00 PCA控制寄存器
sbit CF = CCON^7;
sbit CR = CCON^6;
sbit CCF2 = CCON^2;
sbit CCF1 = CCON^1;
sbit CCF0 = CCON^0;
sfr CMOD = 0xD9; //0xxx,x000 PCA 工作模式寄存器
sfr CL = 0xE9; //0000,0000 PCA计数器低字节
sfr CH = 0xF9; //0000,0000 PCA计数器高字节
sfr CCAPM0 = 0xDA; //0000,0000 PCA模块0的PWM寄存器
sfr CCAPM1 = 0xDB; //0000,0000 PCA模块1的PWM寄存器
sfr CCAPM2 = 0xDC; //0000,0000 PCA模块2的PWM 寄存器
sfr CCAP0L = 0xEA; //0000,0000 PCA模块0的捕捉/比较寄存器低字节
sfr CCAP1L = 0xEB; //0000,0000 PCA模块1的捕捉/比较寄存器低字节
sfr CCAP2L = 0xEC; //0000,0000 PCA模块2的捕捉/比较寄存器低字节
sfr PCA_PWM0 = 0xF2; //xxxx,xx00 PCA模块0的PWM寄存器
sfr PCA_PWM1 = 0xF3; //xxxx,xx00 PCA模块1的PWM寄存器
sfr PCA_PWM2 = 0xF4; //xxxx,xx00 PCA模块1的PWM寄存器
sfr CCAP0H = 0xFA; //0000,0000 PCA模块0的捕捉/比较寄存器高字节
sfr CCAP1H = 0xFB; //0000,0000 PCA模块1的捕捉/比较寄存器高字节
sfr CCAP2H = 0xFC; //0000,0000 PCA模块2的捕捉/比较寄存器高字节
//比较器特殊功能寄存器
sfr CMPCR1 = 0xE6; //0000,0000 比较器控制寄存器1
sfr CMPCR2 = 0xE7; //0000,0000 比较器控制寄存器2
//sfr P_SW2 = 0xba;
sfr PWMCFG = 0xf1;
sfr PWMIF = 0xf6;
sfr PWMFDCR = 0xf7;
sfr PWMCR = 0xfe;
#define PWMC (*(unsigned int volatile xdata *)0xfff0)
#define PWMCKS (*(unsigned char volatile xdata *)0xfff2)
#define TADCP (*(unsigned int volatile xdata *)0xfff3)
#define PWM0T1 (*(unsigned int volatile xdata *)0xff00)
#define PWM0T2 (*(unsigned int volatile xdata *)0xff02)
#define PWM0CR (*(unsigned char volatile xdata *)0xff04)
#define PWM0HLD (*(unsigned char volatile xdata *)0xff05)
#define PWM1T1 (*(unsigned int volatile xdata *)0xff10)
#define PWM1T2 (*(unsigned int volatile xdata *)0xff12)
#define PWM1CR (*(unsigned char volatile xdata *)0xff14)
#define PWM1HLD (*(unsigned char volatile xdata *)0xff15)
#define PWM2T1 (*(unsigned int volatile xdata *)0xff20)
#define PWM2T2 (*(unsigned int volatile xdata *)0xff22)
#define PWM2CR (*(unsigned char volatile xdata *)0xff24)
#define PWM2HLD (*(unsigned char volatile xdata *)0xff25)
#define PWM3T1 (*(unsigned int volatile xdata *)0xff30)
#define PWM3T2 (*(unsigned int volatile xdata *)0xff32)
#define PWM3CR (*(unsigned char volatile xdata *)0xff34)
#define PWM3HLD (*(unsigned char volatile xdata *)0xff35)
#define PWM4T1 (*(unsigned int volatile xdata *)0xff40)
#define PWM4T2 (*(unsigned int volatile xdata *)0xff42)
#define PWM4CR (*(unsigned char volatile xdata *)0xff44)
#define PWM4HLD (*(unsigned char volatile xdata *)0xff45)
#define PWM5T1 (*(unsigned int volatile xdata *)0xff50)
#define PWM5T2 (*(unsigned int volatile xdata *)0xff52)
#define PWM5CR (*(unsigned char volatile xdata *)0xff54)
#define PWM5HLD (*(unsigned char volatile xdata *)0xff55)
#define PWM6T1 (*(unsigned int volatile xdata *)0xff60)
#define PWM6T2 (*(unsigned int volatile xdata *)0xff62)
#define PWM6CR (*(unsigned char volatile xdata *)0xff64)
#define PWM6HLD (*(unsigned char volatile xdata *)0xff65)
#define PWM7T1 (*(unsigned int volatile xdata *)0xff70)
#define PWM7T2 (*(unsigned int volatile xdata *)0xff72)
#define PWM7CR (*(unsigned char volatile xdata *)0xff74)
#define PWM7HLD (*(unsigned char volatile xdata *)0xff75)
#define CKSEL (*(unsigned char volatile xdata *)0xfE00)//108@ST8.PDF
#define MCLKODIV BIT4
#define MCLKO_S BITN3
#define MCLKSEL BIT0
#define CLKDIV (*(unsigned char volatile xdata *)0xfE01)//108@ST8.PDF
#define IRC24MCR (*(unsigned char volatile xdata *)0xfE02)//108@ST8.PDF
#define XOSCCR (*(unsigned char volatile xdata *)0xfE03)//108@ST8.PDF
#define IRC32KCR (*(unsigned char volatile xdata *)0xfE04)//108@ST8.PDF
/////////////////////////////////////////////////
/* P3 */
sbit RD = 0xB7;
sbit WR = 0xB6;
sbit T1 = 0xB5;
sbit T0 = 0xB4;
sbit INT1 = 0xB3;
sbit INT0 = 0xB2;
sbit TXD = 0xB1;
sbit RXD = 0xB0;
#if 0
/// >>>>> add by cc
//sbit P34=P3^4; //定义SDA数据线
//sbit P35=P3^5; //定义SCL时钟线
#define mBIT_1(X,N) X|= (1<<N)
#define mBIT_0(X,N) X&=~(1<<N)
#define mBIT_G(X,N) (X&(1<<N))
/// add by cc 20181118
#define D_IO_normal_P0(n); mBIT_0(P0M1,n);mBIT_0(P0M0,n);
#define D_IO_normal_P1(n); mBIT_0(P1M1,n);mBIT_0(P1M0,n);
#define D_IO_normal_P2(n); mBIT_0(P2M1,n);mBIT_0(P2M0,n);
#define D_IO_normal_P3(n); mBIT_0(P3M1,n);mBIT_0(P3M0,n);
#define D_IO_HighOut_P0(n); mBIT_0(P0M1,n);mBIT_1(P0M0,n);
#define D_IO_HighOut_P1(n); mBIT_0(P1M1,n);mBIT_1(P1M0,n);
#define D_IO_HighOut_P2(n); mBIT_0(P2M1,n);mBIT_1(P2M0,n);
#define D_IO_HighOut_P3(n); mBIT_0(P3M1,n);mBIT_1(P3M0,n);
//高阻状态
#define D_IO_HighR_P0(n); mBIT_1(P0M1,n);mBIT_0(P0M0,n);
#define D_IO_HighR_P1(n); mBIT_1(P1M1,n);mBIT_0(P1M0,n);
#define D_IO_HighR_P2(n); mBIT_1(P2M1,n);mBIT_0(P2M0,n);
#define D_IO_HighR_P3(n); mBIT_1(P3M1,n);mBIT_0(P3M0,n);
#define D_IO_OpenDrain_P0(n); mBIT_1(P0M1,n);mBIT_1(P0M0,n);
#define D_IO_OpenDrain_P1(n); mBIT_1(P1M1,n);mBIT_1(P1M0,n);
#define D_IO_OpenDrain_P2(n); mBIT_1(P2M1,n);mBIT_1(P2M0,n);
#define D_IO_OpenDrain_P3(n); mBIT_1(P3M1,n);mBIT_1(P3M0,n);
//高阻状态
#define P0_conf_in(n) mBIT_1(P0M1,n);mBIT_0(P0M0,n);
#define P1_conf_in(n) mBIT_1(P1M1,n);mBIT_0(P1M0,n);
#define P2_conf_in(n) mBIT_1(P2M1,n);mBIT_0(P2M0,n);
#define P2_conf_port(n) mBIT_0(P2M1,n);mBIT_0(P2M0,n);
#define P3_conf_in(n) mBIT_1(P3M1,n);mBIT_0(P3M0,n);
#define P3_conf_port(n) mBIT_0(P3M1,n);mBIT_0(P3M0,n);
#define P4_conf_in(n) mBIT_1(P4M1,n);mBIT_0(P4M0,n);
#define P5_conf_in(n) mBIT_1(P5M1,n);mBIT_0(P5M0,n);
#define NOP() _nop_()
//added by cc
#define D_stdIO_P0_ALL() P0M1=0;P0M0=0;
#define D_HighI_P0_ALL() P0M1=0;P0M0=0XFF;
#define D_HighR_P0_ALL() P0M1=0XFF;P0M0=0;
#define D_OpenD_P0_ALL() P0M1=0XFF;P0M0=0XFF;
#define D_stdIO_P1_ALL() P1M1=0;P1M0=0;
#define D_HighI_P1_ALL() P1M1=0;P1M0=0XFF;
#define D_HighR_P1_ALL() P1M1=0XFF;P1M0=0;
#define D_OpenD_P1_ALL() P1M1=0XFF;P1M0=0XFF;
//// n: BITN0---BITN7
#define D_stdIO_P0(BITN) BITN_0(P0M1,BITN);BITN_0(P0M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P0(BITN) BITN_0(P0M1,BITN);BITN_1(P0M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P0(BITN) BITN_1(P0M1,BITN);BITN_0(P0M0,BITN); /////////10 高阻
#define D_OpenD_P0(BITN) BITN_1(P0M1,BITN);BITN_1(P0M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P1(BITN) BITN_0(P1M1,BITN);BITN_0(P1M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P1(BITN) BITN_0(P1M1,BITN);BITN_1(P1M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P1(BITN) BITN_1(P1M1,BITN);BITN_0(P1M0,BITN); /////////10 高阻
#define D_OpenD_P1(BITN) BITN_1(P1M1,BITN);BITN_1(P1M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P2(BITN) BITN_0(P2M1,BITN);BITN_0(P2M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P2(BITN) BITN_0(P2M1,BITN);BITN_1(P2M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P2(BITN) BITN_1(P2M1,BITN);BITN_0(P2M0,BITN); /////////10 高阻
#define D_OpenD_P2(BITN) BITN_1(P2M1,BITN);BITN_1(P2M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P3(BITN) BITN_0(P3M1,BITN);BITN_0(P3M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P3(BITN) BITN_0(P3M1,BITN);BITN_1(P3M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P3(BITN) BITN_1(P3M1,BITN);BITN_0(P3M0,BITN); /////////10 高阻
#define D_OpenD_P3(BITN) BITN_1(P3M1,BITN);BITN_1(P3M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P4(BITN) BITN_0(P4M1,BITN);BITN_0(P4M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P4(BITN) BITN_0(P4M1,BITN);BITN_1(P4M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P4(BITN) BITN_1(P4M1,BITN);BITN_0(P4M0,BITN); /////////10 高阻
#define D_OpenD_P4(BITN) BITN_1(P4M1,BITN);BITN_1(P4M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P5(BITN) BITN_0(P5M1,BITN);BITN_0(P5M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P5(BITN) BITN_0(P5M1,BITN);BITN_1(P5M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P5(BITN) BITN_1(P5M1,BITN);BITN_0(P5M0,BITN); /////////10 高阻
#define D_OpenD_P5(BITN) BITN_1(P5M1,BITN);BITN_1(P5M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P6(BITN) BITN_0(P6M1,BITN);BITN_0(P6M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P6(BITN) BITN_0(P6M1,BITN);BITN_1(P6M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P6(BITN) BITN_1(P6M1,BITN);BITN_0(P6M0,BITN); /////////10 高阻
#define D_OpenD_P6(BITN) BITN_1(P6M1,BITN);BITN_1(P6M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P7(BITN) BITN_0(P7M1,BITN);BITN_0(P7M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P7(BITN) BITN_0(P7M1,BITN);BITN_1(P7M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P7(BITN) BITN_1(P7M1,BITN);BITN_0(P7M0,BITN); /////////10 高阻
#define D_OpenD_P7(BITN) BITN_1(P7M1,BITN);BITN_1(P7M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#endif
/***
#define P0_conf_in(n) BITN_1(P0M1,n);BITN_0(P0M0,n);
#define P1_conf_in(n) BITN_1(P1M1,n);BITN_0(P1M0,n);
#define P2_conf_in(n) BITN_1(P2M1,n);BITN_0(P2M0,n);
#define P2_conf_port(n) BITN_0(P2M1,n);BITN_0(P2M0,n);
#define P3_conf_in(n) BITN_1(P3M1,n);BITN_0(P3M0,n);
#define P3_conf_port(n) BITN_0(P3M1,n);BITN_0(P3M0,n);
#define P4_conf_in(n) BITN_1(P4M1,n);BITN_0(P4M0,n);
#define P5_conf_in(n) BITN_1(P5M1,n);BITN_0(P5M0,n);
***/
#define L0_INT4_OPEN() BITN_1(INT_CLKO, INT_EX4)
#define L0_INT4_CLOSE() BITN_0(INT_CLKO, INT_EX4)
#define L0_INT4_AT() BITN_G(INT_CLKO, INT_EX4)
#define L0_INT4_CLEAR() BITN_0(AUXINTIF, INT4IF)
#define L0_INT3_CLEAR() BITN_0(AUXINTIF, INT3IF)
#define L0_INT2_CLEAR() BITN_0(AUXINTIF, INT2IF)
//////
#define L0_INT3_OPEN() BITN_1(INT_CLKO, INT_EX3);
#define L0_INT3_CLOSE() BITN_0(INT_CLKO, INT_EX3);
#define L0_INT2_OPEN() BITN_1(INT_CLKO, INT_EX2);
#define L0_INT2_CLOSE() BITN_0(INT_CLKO, INT_EX2);
#define L0_INT1_OPEN() EX1 = 1;
#define L0_INT1_CLOSE() EX1 = 0;
#define L0_INT0_OPEN() EX0 = 1;
#define L0_INT0_CLOSE() EX0 = 0;
#define D_ISR_int0 0 ///int0 下降沿触发 = 0 上下沿均可触发
#define D_ISR_timer0 1
#define D_ISR_int1 2 ///int1 下降沿触发 = 0 上下沿均可触发
#define D_ISR_timer1 3
#define D_ISR_int2 10 /////只有下降沿
#define D_ISR_int3 11 /////只有下降沿
#define D_SERVE_UART 4
#define D_ISR_int4 16 /////只有下降沿
#if 0
#define L0_TIMER1_start() TR1 = 1;
#define L0_TIMER1_end() TR1 = 0;
#define L0_TIMER1_isr_OPEN() ET1 = 1;
#define L0_TIMER1_isr_CLOSE() ET1 = 0;
#else
#define L0_TIMER1_start() ET1 = 1;
#define L0_TIMER1_end() ET1 = 0;
#define L0_TIMER1_isr_OPEN() TR1 = 1;
#define L0_TIMER1_isr_CLOSE() TR1 = 0;
#endif
/// fixme 颠倒定义会让c51锁死#define _nop_() NOP()
///#define L0_INT3_OPEN() BITN_1(INT_CLKO,INT_EX3); //使能INT3中断
///#define L0_INT3_CLOSE() BITN_0(INT_CLKO,INT_EX3);
#endif //STC_stc8a8k

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source/cpu/stc_stc15w.H
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@ -1,466 +0,0 @@
#ifndef __STC15F2K60S2_H_
#define __STC15F2K60S2_H_
// stc_stc15w.h
#include<intrins.h>
/////////////////////////////////////////////////
//注意: STC15W4K32S4系列的芯片,上电后所有与PWM相关的IO口均为
// 高阻态,需将这些口设置为准双向口或强推挽模式方可正常使用
//相关IO: P0.6/P0.7/P1.6/P1.7/P2.1/P2.2
// P2.3/P2.7/P3.7/P4.2/P4.4/P4.5
/////////////////////////////////////////////////
/////////////////////////////////////////////////
//包含本头文件后,不用另外再包含"REG51.H"
//内核特殊功能寄存器 // 复位值 描述
sfr ACC = 0xE0; //0000,0000 累加器Accumulator
sfr B = 0xF0; //0000,0000 B寄存器
sfr PSW = 0xD0; //0000,0000 程序状态字
sbit CY = PSW^7;
sbit AC = PSW^6;
sbit F0 = PSW^5;
sbit RS1 = PSW^4;
sbit RS0 = PSW^3;
sbit OV = PSW^2;
sbit P = PSW^0;
sfr SP = 0x81; //0000,0111 堆栈指针
sfr DPL = 0x82; //0000,0000 数据指针低字节
sfr DPH = 0x83; //0000,0000 数据指针高字节
//I/O 口特殊功能寄存器
sfr P0 = 0x80; //1111,1111 端口0
sbit P00 = P0^0;
sbit P01 = P0^1;
sbit P02 = P0^2;
sbit P03 = P0^3;
sbit P04 = P0^4;
sbit P05 = P0^5;
sbit P06 = P0^6;
sbit P07 = P0^7;
sfr P1 = 0x90; //1111,1111 端口1
sbit P10 = P1^0;
sbit P11 = P1^1;
sbit P12 = P1^2;
sbit P13 = P1^3;
sbit P14 = P1^4;
sbit P15 = P1^5;
sbit P16 = P1^6;
sbit P17 = P1^7;
sfr P2 = 0xA0; //1111,1111 端口2
sbit P20 = P2^0;
sbit P21 = P2^1;
sbit P22 = P2^2;
sbit P23 = P2^3;
sbit P24 = P2^4;
sbit P25 = P2^5;
sbit P26 = P2^6;
sbit P27 = P2^7;
sfr P3 = 0xB0; //1111,1111 端口3
sbit P30 = P3^0;
sbit P31 = P3^1;
sbit P32 = P3^2;
sbit P33 = P3^3;
sbit P34 = P3^4;
sbit P35 = P3^5;
sbit P36 = P3^6;
sbit P37 = P3^7;
sfr P4 = 0xC0; //1111,1111 端口4
sbit P40 = P4^0;
sbit P41 = P4^1;
sbit P42 = P4^2;
sbit P43 = P4^3;
sbit P44 = P4^4;
sbit P45 = P4^5;
sbit P46 = P4^6;
sbit P47 = P4^7;
sfr P5 = 0xC8; //xxxx,1111 端口5
sbit P50 = P5^0;
sbit P51 = P5^1;
sbit P52 = P5^2;
sbit P53 = P5^3;
sbit P54 = P5^4;
sbit P55 = P5^5;
sbit P56 = P5^6;
sbit P57 = P5^7;
sfr P6 = 0xE8; //0000,0000 端口6
sbit P60 = P6^0;
sbit P61 = P6^1;
sbit P62 = P6^2;
sbit P63 = P6^3;
sbit P64 = P6^4;
sbit P65 = P6^5;
sbit P66 = P6^6;
sbit P67 = P6^7;
sfr P7 = 0xF8; //0000,0000 端口7
sbit P70 = P7^0;
sbit P71 = P7^1;
sbit P72 = P7^2;
sbit P73 = P7^3;
sbit P74 = P7^4;
sbit P75 = P7^5;
sbit P76 = P7^6;
sbit P77 = P7^7;
sfr P0M0 = 0x94; //0000,0000 端口0模式寄存器0
sfr P0M1 = 0x93; //0000,0000 端口0模式寄存器1
sfr P1M0 = 0x92; //0000,0000 端口1模式寄存器0
sfr P1M1 = 0x91; //0000,0000 端口1模式寄存器1
sfr P2M0 = 0x96; //0000,0000 端口2模式寄存器0
sfr P2M1 = 0x95; //0000,0000 端口2模式寄存器1
sfr P3M0 = 0xB2; //0000,0000 端口3模式寄存器0
sfr P3M1 = 0xB1; //0000,0000 端口3模式寄存器1
sfr P4M0 = 0xB4; //0000,0000 端口4模式寄存器0
sfr P4M1 = 0xB3; //0000,0000 端口4模式寄存器1
sfr P5M0 = 0xCA; //0000,0000 端口5模式寄存器0
sfr P5M1 = 0xC9; //0000,0000 端口5模式寄存器1
sfr P6M0 = 0xCC; //0000,0000 端口6模式寄存器0
sfr P6M1 = 0xCB; //0000,0000 端口6模式寄存器1
sfr P7M0 = 0xE2; //0000,0000 端口7模式寄存器0
sfr P7M1 = 0xE1; //0000,0000 端口7模式寄存器1
//系统管理特殊功能寄存器
sfr PCON = 0x87; //0001,0000 电源控制寄存器
sfr AUXR = 0x8E; //0000,0000 辅助寄存器
#define TOx12 BITN7
#define T1x12 BITN6
#define UART_M0x6 BITN5 //串口1模式0速度 =0 12倍 = 1 两倍
#define T2R BITN4 //定时器2 运行 =1
#define T2_C BITN3 //定时器/计数器选择
#define T2x12 BITN2
#define EXTRAM BITN1
#define S1ST2 BITN0 //串口1选择定时器1 =0 选择定时器2 =1
sfr AUXR1 = 0xA2; //0000,0000 辅助寄存器1
sfr P_SW1 = 0xA2; //0000,0000 外设端口切换寄存器1
sfr CLK_DIV = 0x97; //0000,0000 时钟分频控制寄存器
sfr BUS_SPEED = 0xA1; //xx10,x011 总线速度控制寄存器
sfr P1ASF = 0x9D; //0000,0000 端口1模拟功能配置寄存器
sfr P_SW2 = 0xBA; //0xxx,x000 外设端口切换寄存器
//中断特殊功能寄存器
sfr IE = 0xA8; //0000,0000 中断控制寄存器
sbit EA = IE^7;
sbit ELVD = IE^6;
sbit EADC = IE^5;
sbit ES = IE^4;
sbit ET1 = IE^3;
sbit EX1 = IE^2;
sbit ET0 = IE^1;
sbit EX0 = IE^0;
sfr IP = 0xB8; //0000,0000 中断优先级寄存器
sbit PPCA = IP^7;
sbit PLVD = IP^6;
sbit PADC = IP^5;
sbit PS = IP^4;
sbit PT1 = IP^3;
sbit PX1 = IP^2;
sbit PT0 = IP^1;
sbit PX0 = IP^0;
sfr IE2 = 0xAF; //0000,0000 中断控制寄存器2
/// 不可位寻址
#define ET4 BITN6
#define ET3 BITN5
#define ES4 BITN4
#define ES3 BITN3
#define ET2 BITN2
#define ESPI BITN1
#define ES2 BITN0
sfr IP2 = 0xB5; //xxxx,xx00 中断优先级寄存器2
sfr INT_CLKO = 0x8F; //0000,0000 外部中断与时钟输出控制寄存器
//定时器特殊功能寄存器
sfr TCON = 0x88; //0000,0000 T0/T1控制寄存器
sbit TF1 = TCON^7;
sbit TR1 = TCON^6;
sbit TF0 = TCON^5;
sbit TR0 = TCON^4;
sbit IE1 = TCON^3;
sbit IT1 = TCON^2;
sbit IE0 = TCON^1;
sbit IT0 = TCON^0;
sfr TMOD = 0x89; //0000,0000 T0/T1模式寄存器
sfr TL0 = 0x8A; //0000,0000 T0低字节
sfr TL1 = 0x8B; //0000,0000 T1低字节
sfr TH0 = 0x8C; //0000,0000 T0高字节
sfr TH1 = 0x8D; //0000,0000 T1高字节
sfr T4T3M = 0xD1; //0000,0000 T3/T4模式寄存器
sfr T3T4M = 0xD1; //0000,0000 T3/T4模式寄存器
sfr T4H = 0xD2; //0000,0000 T4高字节
sfr T4L = 0xD3; //0000,0000 T4低字节
sfr T3H = 0xD4; //0000,0000 T3高字节
sfr T3L = 0xD5; //0000,0000 T3低字节
sfr T2H = 0xD6; //0000,0000 T2高字节
sfr T2L = 0xD7; //0000,0000 T2低字节
sfr WKTCL = 0xAA; //0000,0000 掉电唤醒定时器低字节
sfr WKTCH = 0xAB; //0000,0000 掉电唤醒定时器高字节
sfr WDT_CONTR = 0xC1; //0000,0000 看门狗控制寄存器
//串行口特殊功能寄存器
sfr SCON = 0x98; //0000,0000 串口1控制寄存器
sbit SM0 = SCON^7;
sbit SM1 = SCON^6;
sbit SM2 = SCON^5;
sbit REN = SCON^4;
sbit TB8 = SCON^3;
sbit RB8 = SCON^2;
sbit TI = SCON^1;
sbit RI = SCON^0;
//sfr SBUF = 0x99; //xxxx,xxxx 串口1数据寄存器
//sfr S2CON = 0x9A; //0000,0000 串口2控制寄存器
//sfr S2BUF = 0x9B; //xxxx,xxxx 串口2数据寄存器
//sfr SADDR = 0xA9; //0000,0000 从机地址寄存器
//sfr SADEN = 0xB9; //0000,0000 从机地址屏蔽寄存器
sfr SBUF = 0x99; //Serial Data Buffer
sfr SBUF0 = 0x99; //Serial Data Buffer xxxx,xxxx
sfr SADEN = 0xB9; //Slave Address Mask 0000,0000
sfr SADDR = 0xA9; //Slave Address 0000,0000
//-----------------------------------
// 7 6 5 4 3 2 1 0 Reset Value
sfr S2CON = 0x9A; //S2 Control S2SM0 S2SM1 S2SM2 S2REN S2TB8 S2RB8 S2TI S2RI 00000000B
#define S2SM0 BITN7
#define S2ST4 BITN6
#define S2SM2 BITN5
#define S2REN BITN4
#define S2TB8 BITN3
#define S2RB8 BITN2
#define S2TI BITN1
#define S2RI BITN0
sfr S2BUF = 0x9B; //S2 Serial Buffer xxxx,xxxx
//sfr BRT = 0x9C; //S2 Baud-Rate Timer 0000,0000
//---------------------------------------------------------------
sfr S3CON = 0xAC; //0000,0000 串口3控制寄存器
#define S3SM0 BITN7
#define S3ST4 BITN6
#define S3SM2 BITN5
#define S3REN BITN4
#define S3TB8 BITN3
#define S3RB8 BITN2
#define S3TI BITN1
#define S3RI BITN0
sfr S3BUF = 0xAD; //xxxx,xxxx 串口3数据寄存器
//---------------------------------------------------------------
sfr S4CON = 0x84; //0000,0000 串口4控制寄存器
#define S4SM0 BITN7
#define S4ST4 BITN6
#define S4SM2 BITN5
#define S4REN BITN4
#define S4TB8 BITN3
#define S4RB8 BITN2
#define S4TI BITN1
#define S4RI BITN0
sfr S4BUF = 0x85; //xxxx,xxxx 串口4数据寄存器
//ADC 特殊功能寄存器
sfr ADC_CONTR = 0xBC; //0000,0000 A/D转换控制寄存器
sfr ADC_RES = 0xBD; //0000,0000 A/D转换结果高8位
sfr ADC_RESL = 0xBE; //0000,0000 A/D转换结果低2位
//SPI 特殊功能寄存器
sfr SPSTAT = 0xCD; //00xx,xxxx SPI状态寄存器
sfr SPCTL = 0xCE; //0000,0100 SPI控制寄存器
sfr SPDAT = 0xCF; //0000,0000 SPI数据寄存器
//IAP/ISP 特殊功能寄存器
sfr IAP_DATA = 0xC2; //0000,0000 EEPROM数据寄存器
sfr IAP_ADDRH = 0xC3; //0000,0000 EEPROM地址高字节
sfr IAP_ADDRL = 0xC4; //0000,0000 EEPROM地址第字节
sfr IAP_CMD = 0xC5; //xxxx,xx00 EEPROM命令寄存器
sfr IAP_TRIG = 0xC6; //0000,0000 EEPRPM命令触发寄存器
sfr IAP_CONTR = 0xC7; //0000,x000 EEPROM控制寄存器
//PCA/PWM 特殊功能寄存器
sfr CCON = 0xD8; //00xx,xx00 PCA控制寄存器
sbit CF = CCON^7;
sbit CR = CCON^6;
sbit CCF2 = CCON^2;
sbit CCF1 = CCON^1;
sbit CCF0 = CCON^0;
sfr CMOD = 0xD9; //0xxx,x000 PCA 工作模式寄存器
sfr CL = 0xE9; //0000,0000 PCA计数器低字节
sfr CH = 0xF9; //0000,0000 PCA计数器高字节
sfr CCAPM0 = 0xDA; //0000,0000 PCA模块0的PWM寄存器
sfr CCAPM1 = 0xDB; //0000,0000 PCA模块1的PWM寄存器
sfr CCAPM2 = 0xDC; //0000,0000 PCA模块2的PWM 寄存器
sfr CCAP0L = 0xEA; //0000,0000 PCA模块0的捕捉/比较寄存器低字节
sfr CCAP1L = 0xEB; //0000,0000 PCA模块1的捕捉/比较寄存器低字节
sfr CCAP2L = 0xEC; //0000,0000 PCA模块2的捕捉/比较寄存器低字节
sfr PCA_PWM0 = 0xF2; //xxxx,xx00 PCA模块0的PWM寄存器
sfr PCA_PWM1 = 0xF3; //xxxx,xx00 PCA模块1的PWM寄存器
sfr PCA_PWM2 = 0xF4; //xxxx,xx00 PCA模块1的PWM寄存器
sfr CCAP0H = 0xFA; //0000,0000 PCA模块0的捕捉/比较寄存器高字节
sfr CCAP1H = 0xFB; //0000,0000 PCA模块1的捕捉/比较寄存器高字节
sfr CCAP2H = 0xFC; //0000,0000 PCA模块2的捕捉/比较寄存器高字节
//比较器特殊功能寄存器
sfr CMPCR1 = 0xE6; //0000,0000 比较器控制寄存器1
sfr CMPCR2 = 0xE7; //0000,0000 比较器控制寄存器2
//增强型PWM波形发生器特殊功能寄存器
sfr PWMCFG = 0xf1; //x000,0000 PWM配置寄存器
sfr PWMCR = 0xf5; //0000,0000 PWM控制寄存器
sfr PWMIF = 0xf6; //x000,0000 PWM中断标志寄存器
sfr PWMFDCR = 0xf7; //xx00,0000 PWM外部异常检测控制寄存器
//如下特殊功能寄存器位于扩展RAM区域
//访问这些寄存器,需先将P_SW2的BIT7设置为1,才可正常读写
#define PWMC (*(unsigned int volatile xdata *)0xfff0)
#define PWMCH (*(unsigned char volatile xdata *)0xfff0)
#define PWMCL (*(unsigned char volatile xdata *)0xfff1)
#define PWMCKS (*(unsigned char volatile xdata *)0xfff2)
#define PWM2T1 (*(unsigned int volatile xdata *)0xff00)
#define PWM2T1H (*(unsigned char volatile xdata *)0xff00)
#define PWM2T1L (*(unsigned char volatile xdata *)0xff01)
#define PWM2T2 (*(unsigned int volatile xdata *)0xff02)
#define PWM2T2H (*(unsigned char volatile xdata *)0xff02)
#define PWM2T2L (*(unsigned char volatile xdata *)0xff03)
#define PWM2CR (*(unsigned char volatile xdata *)0xff04)
#define PWM3T1 (*(unsigned int volatile xdata *)0xff10)
#define PWM3T1H (*(unsigned char volatile xdata *)0xff10)
#define PWM3T1L (*(unsigned char volatile xdata *)0xff11)
#define PWM3T2 (*(unsigned int volatile xdata *)0xff12)
#define PWM3T2H (*(unsigned char volatile xdata *)0xff12)
#define PWM3T2L (*(unsigned char volatile xdata *)0xff13)
#define PWM3CR (*(unsigned char volatile xdata *)0xff14)
#define PWM4T1 (*(unsigned int volatile xdata *)0xff20)
#define PWM4T1H (*(unsigned char volatile xdata *)0xff20)
#define PWM4T1L (*(unsigned char volatile xdata *)0xff21)
#define PWM4T2 (*(unsigned int volatile xdata *)0xff22)
#define PWM4T2H (*(unsigned char volatile xdata *)0xff22)
#define PWM4T2L (*(unsigned char volatile xdata *)0xff23)
#define PWM4CR (*(unsigned char volatile xdata *)0xff24)
#define PWM5T1 (*(unsigned int volatile xdata *)0xff30)
#define PWM5T1H (*(unsigned char volatile xdata *)0xff30)
#define PWM5T1L (*(unsigned char volatile xdata *)0xff31)
#define PWM5T2 (*(unsigned int volatile xdata *)0xff32)
#define PWM5T2H (*(unsigned char volatile xdata *)0xff32)
#define PWM5T2L (*(unsigned char volatile xdata *)0xff33)
#define PWM5CR (*(unsigned char volatile xdata *)0xff34)
#define PWM6T1 (*(unsigned int volatile xdata *)0xff40)
#define PWM6T1H (*(unsigned char volatile xdata *)0xff40)
#define PWM6T1L (*(unsigned char volatile xdata *)0xff41)
#define PWM6T2 (*(unsigned int volatile xdata *)0xff42)
#define PWM6T2H (*(unsigned char volatile xdata *)0xff42)
#define PWM6T2L (*(unsigned char volatile xdata *)0xff43)
#define PWM6CR (*(unsigned char volatile xdata *)0xff44)
#define PWM7T1 (*(unsigned int volatile xdata *)0xff50)
#define PWM7T1H (*(unsigned char volatile xdata *)0xff50)
#define PWM7T1L (*(unsigned char volatile xdata *)0xff51)
#define PWM7T2 (*(unsigned int volatile xdata *)0xff52)
#define PWM7T2H (*(unsigned char volatile xdata *)0xff52)
#define PWM7T2L (*(unsigned char volatile xdata *)0xff53)
#define PWM7CR (*(unsigned char volatile xdata *)0xff54)
/////////////////////////////////////////////////
/* P3 */
sbit RD = 0xB7;
sbit WR = 0xB6;
sbit T1 = 0xB5;
sbit T0 = 0xB4;
sbit INT1 = 0xB3;
sbit INT0 = 0xB2;
sbit TXD = 0xB1;
sbit RXD = 0xB0;
/// >>>>> add by cc
//sbit P34=P3^4; //定义SDA数据线
//sbit P35=P3^5; //定义SCL时钟线
#define mBIT_1(X,N) X|= (1<<N)
#define mBIT_0(X,N) X&=~(1<<N)
#define mBIT_G(X,N) (X&(1<<N))
//高阻状态
#define P0_conf_in(n) mBIT_1(P0M1,n);mBIT_0(P0M0,n);
#define P1_conf_in(n) mBIT_1(P1M1,n);mBIT_0(P1M0,n);
#define P2_conf_in(n) mBIT_1(P2M1,n);mBIT_0(P2M0,n);
#define P2_conf_port(n) mBIT_0(P2M1,n);mBIT_0(P2M0,n);
#define P3_conf_in(n) mBIT_1(P3M1,n);mBIT_0(P3M0,n);
#define P3_conf_port(n) mBIT_0(P3M1,n);mBIT_0(P3M0,n);
#define P4_conf_in(n) mBIT_1(P4M1,n);mBIT_0(P4M0,n);
#define P5_conf_in(n) mBIT_1(P5M1,n);mBIT_0(P5M0,n);
#define NOP() _nop_()
#define D_stdIO_P0_ALL() P0M1=0;P0M0=0;
#define D_HighI_P0_ALL() P0M1=0;P0M0=0XFF;
#define D_HighR_P0_ALL() P0M1=0XFF;P0M0=0;
#define D_OpenD_P0_ALL() P0M1=0XFF;P0M0=0XFF;
#define D_stdIO_P1_ALL() P1M1=0;P1M0=0;
#define D_HighI_P1_ALL() P1M1=0;P1M0=0XFF;
#define D_HighR_P1_ALL() P1M1=0XFF;P1M0=0;
#define D_OpenD_P1_ALL() P1M1=0XFF;P1M0=0XFF;
//// n: BITN0---BITN7
#define D_stdIO_P0(BITN) BITN_0(P0M1,BITN);BITN_0(P0M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P0(BITN) BITN_0(P0M1,BITN);BITN_1(P0M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P0(BITN) BITN_1(P0M1,BITN);BITN_0(P0M0,BITN); /////////10 高阻
#define D_OpenD_P0(BITN) BITN_1(P0M1,BITN);BITN_1(P0M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P1(BITN) BITN_0(P1M1,BITN);BITN_0(P1M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P1(BITN) BITN_0(P1M1,BITN);BITN_1(P1M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P1(BITN) BITN_1(P1M1,BITN);BITN_0(P1M0,BITN); /////////10 高阻
#define D_OpenD_P1(BITN) BITN_1(P1M1,BITN);BITN_1(P1M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P2(BITN) BITN_0(P2M1,BITN);BITN_0(P2M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P2(BITN) BITN_0(P2M1,BITN);BITN_1(P2M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P2(BITN) BITN_1(P2M1,BITN);BITN_0(P2M0,BITN); /////////10 高阻
#define D_OpenD_P2(BITN) BITN_1(P2M1,BITN);BITN_1(P2M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P3(BITN) BITN_0(P3M1,BITN);BITN_0(P3M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P3(BITN) BITN_0(P3M1,BITN);BITN_1(P3M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P3(BITN) BITN_1(P3M1,BITN);BITN_0(P3M0,BITN); /////////10 高阻
#define D_OpenD_P3(BITN) BITN_1(P3M1,BITN);BITN_1(P3M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P4(BITN) BITN_0(P4M1,BITN);BITN_0(P4M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P4(BITN) BITN_0(P4M1,BITN);BITN_1(P4M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P4(BITN) BITN_1(P4M1,BITN);BITN_0(P4M0,BITN); /////////10 高阻
#define D_OpenD_P4(BITN) BITN_1(P4M1,BITN);BITN_1(P4M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P5(BITN) BITN_0(P5M1,BITN);BITN_0(P5M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P5(BITN) BITN_0(P5M1,BITN);BITN_1(P5M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P5(BITN) BITN_1(P5M1,BITN);BITN_0(P5M0,BITN); /////////10 高阻
#define D_OpenD_P5(BITN) BITN_1(P5M1,BITN);BITN_1(P5M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P6(BITN) BITN_0(P6M1,BITN);BITN_0(P6M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P6(BITN) BITN_0(P6M1,BITN);BITN_1(P6M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P6(BITN) BITN_1(P6M1,BITN);BITN_0(P6M0,BITN); /////////10 高阻
#define D_OpenD_P6(BITN) BITN_1(P6M1,BITN);BITN_1(P6M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P7(BITN) BITN_0(P7M1,BITN);BITN_0(P7M0,BITN); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P7(BITN) BITN_0(P7M1,BITN);BITN_1(P7M0,BITN); //////01 推挽输出 20mA 加限流
#define D_HighR_P7(BITN) BITN_1(P7M1,BITN);BITN_0(P7M0,BITN); /////////10 高阻
#define D_OpenD_P7(BITN) BITN_1(P7M1,BITN);BITN_1(P7M0,BITN); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#endif

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source/cpu/stc_stc8G1k.H
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@ -1,746 +0,0 @@
#ifndef __STC8G_H_
#define __STC8G_H_
// STC_stc8a8k.h
#include<intrins.h>
/////////////////////////////////////////////////
//注意: STC15W4K32S4系列的芯片,上电后所有与PWM相关的IO口均为
// 高阻态,需将这些口设置为准双向口或强推挽模式方可正常使用
//相关IO: P0.6/P0.7/P1.6/P1.7/P2.1/P2.2
// P2.3/P2.7/P3.7/P4.2/P4.4/P4.5
/////////////////////////////////////////////////
/////////////////////////////////////////////////
//包含本头文件后,不用另外再包含"REG51.H"
/////////////////////////////////////////////////
//包含本头文件后,不用另外再包含"REG51.H"
sfr P0 = 0x80;
sbit P00 = P0^0;
sbit P01 = P0^1;
sbit P02 = P0^2;
sbit P03 = P0^3;
sbit P04 = P0^4;
sbit P05 = P0^5;
sbit P06 = P0^6;
sbit P07 = P0^7;
sfr SP = 0x81;
sfr DPL = 0x82;
sfr DPH = 0x83;
sfr S4CON = 0x84;
sfr S4BUF = 0x85;
sfr PCON = 0x87;
sfr TCON = 0x88;
sbit TF1 = TCON^7;
sbit TR1 = TCON^6;
sbit TF0 = TCON^5;
sbit TR0 = TCON^4;
sbit IE1 = TCON^3;
sbit IT1 = TCON^2;
sbit IE0 = TCON^1;
sbit IT0 = TCON^0;
sfr TMOD = 0x89;
sfr TL0 = 0x8A;
sfr TL1 = 0x8B;
sfr TH0 = 0x8C;
sfr TH1 = 0x8D;
sfr AUXR = 0x8E;
sfr INTCLKO = 0x8F;
sfr P1 = 0x90;
sbit P10 = P1^0;
sbit P11 = P1^1;
sbit P12 = P1^2;
sbit P13 = P1^3;
sbit P14 = P1^4;
sbit P15 = P1^5;
sbit P16 = P1^6;
sbit P17 = P1^7;
sfr P1M1 = 0x91;
sfr P1M0 = 0x92;
sfr P0M1 = 0x93;
sfr P0M0 = 0x94;
sfr P2M1 = 0x95;
sfr P2M0 = 0x96;
sfr SCON = 0x98;
sbit SM0 = SCON^7;
sbit SM1 = SCON^6;
sbit SM2 = SCON^5;
sbit REN = SCON^4;
sbit TB8 = SCON^3;
sbit RB8 = SCON^2;
sbit TI = SCON^1;
sbit RI = SCON^0;
sfr SBUF = 0x99;
sfr S2CON = 0x9A;
sfr S2BUF = 0x9B;
sfr IRCBAND = 0x9D;
sfr LIRTRIM = 0x9E;
sfr IRTRIM = 0x9F;
sfr P2 = 0xA0;
sbit P20 = P2^0;
sbit P21 = P2^1;
sbit P22 = P2^2;
sbit P23 = P2^3;
sbit P24 = P2^4;
sbit P25 = P2^5;
sbit P26 = P2^6;
sbit P27 = P2^7;
sfr P_SW1 = 0xA2;
sfr IE = 0xA8;
sbit EA = IE^7;
sbit ELVD = IE^6;
sbit EADC = IE^5;
sbit ES = IE^4;
sbit ET1 = IE^3;
sbit EX1 = IE^2;
sbit ET0 = IE^1;
sbit EX0 = IE^0;
sfr SADDR = 0xA9;
sfr WKTCL = 0xAA;
sfr WKTCH = 0xAB;
sfr S3CON = 0xAC;
sfr S3BUF = 0xAD;
sfr TA = 0xAE;
sfr IE2 = 0xAF;
sfr P3 = 0xB0;
sbit P30 = P3^0;
sbit P31 = P3^1;
sbit P32 = P3^2;
sbit P33 = P3^3;
sbit P34 = P3^4;
sbit P35 = P3^5;
sbit P36 = P3^6;
sbit P37 = P3^7;
sfr P3M1 = 0xB1;
sfr P3M0 = 0xB2;
sfr P4M1 = 0xB3;
sfr P4M0 = 0xB4;
sfr IP2 = 0xB5;
sfr IP2H = 0xB6;
sfr IPH = 0xB7;
sfr IP = 0xB8;
sbit PPCA = IP^7;
sbit PLVD = IP^6;
sbit PADC = IP^5;
sbit PS = IP^4;
sbit PT1 = IP^3;
sbit PX1 = IP^2;
sbit PT0 = IP^1;
sbit PX0 = IP^0;
sfr SADEN = 0xB9;
sfr P_SW2 = 0xBA;
sfr ADC_CONTR = 0xBC;
sfr ADC_RES = 0xBD;
sfr ADC_RESL = 0xBE;
sfr P4 = 0xC0;
sbit P40 = P4^0;
sbit P41 = P4^1;
sbit P42 = P4^2;
sbit P43 = P4^3;
sbit P44 = P4^4;
sbit P45 = P4^5;
sbit P46 = P4^6;
sbit P47 = P4^7;
sfr WDT_CONTR = 0xC1;
sfr IAP_DATA = 0xC2;
sfr IAP_ADDRH = 0xC3;
sfr IAP_ADDRL = 0xC4;
sfr IAP_CMD = 0xC5;
sfr IAP_TRIG = 0xC6;
sfr IAP_CONTR = 0xC7;
sfr P5 = 0xC8;
sbit P50 = P5^0;
sbit P51 = P5^1;
sbit P52 = P5^2;
sbit P53 = P5^3;
sbit P54 = P5^4;
sbit P55 = P5^5;
sbit P56 = P5^6;
sbit P57 = P5^7;
sfr P5M1 = 0xC9;
sfr P5M0 = 0xCA;
sfr SPSTAT = 0xCD;
sfr SPCTL = 0xCE;
sfr SPDAT = 0xCF;
sfr PSW = 0xD0;
sbit CY = PSW^7;
sbit AC = PSW^6;
sbit F0 = PSW^5;
sbit RS1 = PSW^4;
sbit RS0 = PSW^3;
sbit OV = PSW^2;
sbit P = PSW^0;
sfr T4T3M = 0xD1;
sfr T4H = 0xD2;
sfr T4L = 0xD3;
sfr T3H = 0xD4;
sfr T3L = 0xD5;
sfr T2H = 0xD6;
sfr T2L = 0xD7;
sfr CCON = 0xD8;
sbit CF = CCON^7;
sbit CR = CCON^6;
sbit CCF2 = CCON^2;
sbit CCF1 = CCON^1;
sbit CCF0 = CCON^0;
sfr CMOD = 0xD9;
sfr CCAPM0 = 0xDA;
sfr CCAPM1 = 0xDB;
sfr CCAPM2 = 0xDC;
sfr ADCCFG = 0xDE;
sfr IP3 = 0xDF;
sfr ACC = 0xE0;
sfr DPS = 0xE3;
sfr DPL1 = 0xE4;
sfr DPH1 = 0xE5;
sfr CMPCR1 = 0xE6;
sfr CMPCR2 = 0xE7;
sfr CL = 0xE9;
sfr CCAP0L = 0xEA;
sfr CCAP1L = 0xEB;
sfr CCAP2L = 0xEC;
sfr IP3H = 0xEE;
sfr AUXINTIF = 0xEF;
sfr B = 0xF0;
sfr PWMSET = 0xF1;
sfr PCA_PWM0 = 0xF2;
sfr PCA_PWM1 = 0xF3;
sfr PCA_PWM2 = 0xF4;
sfr IAP_TPS = 0xF5;
sfr PWMCFG01 = 0xF6;
sfr PWMCFG23 = 0xF7;
sfr CH = 0xF9;
sfr CCAP0H = 0xFA;
sfr CCAP1H = 0xFB;
sfr CCAP2H = 0xFC;
sfr PWMCFG45 = 0xFE;
sfr RSTCFG = 0xFF;
//如下特殊功能寄存器位于扩展RAM区域
//访问这些寄存器,需先将P_SW2的BIT7设置为1,才可正常读写
#define CKSEL (*(unsigned char volatile xdata *)0xFE00)
#define CLKDIV (*(unsigned char volatile xdata *)0xFE01)
#define HIRCCR (*(unsigned char volatile xdata *)0xFE02)
#define XOSCCR (*(unsigned char volatile xdata *)0xFE03)
#define IRC32KCR (*(unsigned char volatile xdata *)0xFE04)
#define MCLKOCR (*(unsigned char volatile xdata *)0xFE05)
#define IRCDB (*(unsigned char volatile xdata *)0xFE06)
#define P0PU (*(unsigned char volatile xdata *)0xFE10)
#define P1PU (*(unsigned char volatile xdata *)0xFE11)
#define P2PU (*(unsigned char volatile xdata *)0xFE12)
#define P3PU (*(unsigned char volatile xdata *)0xFE13)
#define P4PU (*(unsigned char volatile xdata *)0xFE14)
#define P5PU (*(unsigned char volatile xdata *)0xFE15)
#define P0NCS (*(unsigned char volatile xdata *)0xFE18)
#define P1NCS (*(unsigned char volatile xdata *)0xFE19)
#define P2NCS (*(unsigned char volatile xdata *)0xFE1A)
#define P3NCS (*(unsigned char volatile xdata *)0xFE1B)
#define P4NCS (*(unsigned char volatile xdata *)0xFE1C)
#define P5NCS (*(unsigned char volatile xdata *)0xFE1D)
#define P0SR (*(unsigned char volatile xdata *)0xFE20)
#define P1SR (*(unsigned char volatile xdata *)0xFE21)
#define P2SR (*(unsigned char volatile xdata *)0xFE22)
#define P3SR (*(unsigned char volatile xdata *)0xFE23)
#define P4SR (*(unsigned char volatile xdata *)0xFE24)
#define P5SR (*(unsigned char volatile xdata *)0xFE25)
#define P0DR (*(unsigned char volatile xdata *)0xFE28)
#define P1DR (*(unsigned char volatile xdata *)0xFE29)
#define P2DR (*(unsigned char volatile xdata *)0xFE2A)
#define P3DR (*(unsigned char volatile xdata *)0xFE2B)
#define P4DR (*(unsigned char volatile xdata *)0xFE2C)
#define P5DR (*(unsigned char volatile xdata *)0xFE2D)
#define P0IE (*(unsigned char volatile xdata *)0xFE30)
#define P1IE (*(unsigned char volatile xdata *)0xFE31)
#define P3IE (*(unsigned char volatile xdata *)0xFE33)
#define I2CCFG (*(unsigned char volatile xdata *)0xFE80)
#define I2CMSCR (*(unsigned char volatile xdata *)0xFE81)
#define I2CMSST (*(unsigned char volatile xdata *)0xFE82)
#define I2CSLCR (*(unsigned char volatile xdata *)0xFE83)
#define I2CSLST (*(unsigned char volatile xdata *)0xFE84)
#define I2CSLADR (*(unsigned char volatile xdata *)0xFE85)
#define I2CTXD (*(unsigned char volatile xdata *)0xFE86)
#define I2CRXD (*(unsigned char volatile xdata *)0xFE87)
#define I2CMSAUX (*(unsigned char volatile xdata *)0xFE88)
#define TM2PS (*(unsigned char volatile xdata *)0xFEA2)
#define TM3PS (*(unsigned char volatile xdata *)0xFEA3)
#define TM4PS (*(unsigned char volatile xdata *)0xFEA4)
#define ADCTIM (*(unsigned char volatile xdata *)0xFEA8)
#define PWM0CH (*(unsigned char volatile xdata *)0xFF00)
#define PWM0CL (*(unsigned char volatile xdata *)0xFF01)
#define PWM0CKS (*(unsigned char volatile xdata *)0xFF02)
#define PWM0TADCH (*(unsigned char volatile xdata *)0xFF03)
#define PWM0TADCL (*(unsigned char volatile xdata *)0xFF04)
#define PWM0IF (*(unsigned char volatile xdata *)0xFF05)
#define PWM0FDCR (*(unsigned char volatile xdata *)0xFF06)
#define PWM00T1H (*(unsigned char volatile xdata *)0xFF10)
#define PWM00T1L (*(unsigned char volatile xdata *)0xFF11)
#define PWM00T2H (*(unsigned char volatile xdata *)0xFF12)
#define PWM00T2L (*(unsigned char volatile xdata *)0xFF13)
#define PWM00CR (*(unsigned char volatile xdata *)0xFF14)
#define PWM00HLD (*(unsigned char volatile xdata *)0xFF15)
#define PWM01T1H (*(unsigned char volatile xdata *)0xFF18)
#define PWM01T1L (*(unsigned char volatile xdata *)0xFF19)
#define PWM01T2H (*(unsigned char volatile xdata *)0xFF1A)
#define PWM01T2L (*(unsigned char volatile xdata *)0xFF1B)
#define PWM01CR (*(unsigned char volatile xdata *)0xFF1C)
#define PWM01HLD (*(unsigned char volatile xdata *)0xFF1D)
#define PWM02T1H (*(unsigned char volatile xdata *)0xFF20)
#define PWM02T1L (*(unsigned char volatile xdata *)0xFF21)
#define PWM02T2H (*(unsigned char volatile xdata *)0xFF22)
#define PWM02T2L (*(unsigned char volatile xdata *)0xFF23)
#define PWM02CR (*(unsigned char volatile xdata *)0xFF24)
#define PWM02HLD (*(unsigned char volatile xdata *)0xFF25)
#define PWM03T1H (*(unsigned char volatile xdata *)0xFF28)
#define PWM03T1L (*(unsigned char volatile xdata *)0xFF29)
#define PWM03T2H (*(unsigned char volatile xdata *)0xFF2A)
#define PWM03T2L (*(unsigned char volatile xdata *)0xFF2B)
#define PWM03CR (*(unsigned char volatile xdata *)0xFF2C)
#define PWM03HLD (*(unsigned char volatile xdata *)0xFF2D)
#define PWM04T1H (*(unsigned char volatile xdata *)0xFF30)
#define PWM04T1L (*(unsigned char volatile xdata *)0xFF31)
#define PWM04T2H (*(unsigned char volatile xdata *)0xFF32)
#define PWM04T2L (*(unsigned char volatile xdata *)0xFF33)
#define PWM04CR (*(unsigned char volatile xdata *)0xFF34)
#define PWM04HLD (*(unsigned char volatile xdata *)0xFF35)
#define PWM05T1H (*(unsigned char volatile xdata *)0xFF38)
#define PWM05T1L (*(unsigned char volatile xdata *)0xFF39)
#define PWM05T2H (*(unsigned char volatile xdata *)0xFF3A)
#define PWM05T2L (*(unsigned char volatile xdata *)0xFF3B)
#define PWM05CR (*(unsigned char volatile xdata *)0xFF3C)
#define PWM05HLD (*(unsigned char volatile xdata *)0xFF3D)
#define PWM06T1H (*(unsigned char volatile xdata *)0xFF40)
#define PWM06T1L (*(unsigned char volatile xdata *)0xFF41)
#define PWM06T2H (*(unsigned char volatile xdata *)0xFF42)
#define PWM06T2L (*(unsigned char volatile xdata *)0xFF43)
#define PWM06CR (*(unsigned char volatile xdata *)0xFF44)
#define PWM06HLD (*(unsigned char volatile xdata *)0xFF45)
#define PWM07T1H (*(unsigned char volatile xdata *)0xFF48)
#define PWM07T1L (*(unsigned char volatile xdata *)0xFF49)
#define PWM07T2H (*(unsigned char volatile xdata *)0xFF4A)
#define PWM07T2L (*(unsigned char volatile xdata *)0xFF4B)
#define PWM07CR (*(unsigned char volatile xdata *)0xFF4C)
#define PWM07HLD (*(unsigned char volatile xdata *)0xFF4D)
#define PWM1CH (*(unsigned char volatile xdata *)0xFF50)
#define PWM1CL (*(unsigned char volatile xdata *)0xFF51)
#define PWM1CKS (*(unsigned char volatile xdata *)0xFF52)
#define PWM1IF (*(unsigned char volatile xdata *)0xFF55)
#define PWM1FDCR (*(unsigned char volatile xdata *)0xFF56)
#define PWM10T1H (*(unsigned char volatile xdata *)0xFF60)
#define PWM10T1L (*(unsigned char volatile xdata *)0xFF61)
#define PWM10T2H (*(unsigned char volatile xdata *)0xFF62)
#define PWM10T2L (*(unsigned char volatile xdata *)0xFF63)
#define PWM10CR (*(unsigned char volatile xdata *)0xFF64)
#define PWM10HLD (*(unsigned char volatile xdata *)0xFF65)
#define PWM11T1H (*(unsigned char volatile xdata *)0xFF68)
#define PWM11T1L (*(unsigned char volatile xdata *)0xFF69)
#define PWM11T2H (*(unsigned char volatile xdata *)0xFF6A)
#define PWM11T2L (*(unsigned char volatile xdata *)0xFF6B)
#define PWM11CR (*(unsigned char volatile xdata *)0xFF6C)
#define PWM11HLD (*(unsigned char volatile xdata *)0xFF6D)
#define PWM12T1H (*(unsigned char volatile xdata *)0xFF70)
#define PWM12T1L (*(unsigned char volatile xdata *)0xFF71)
#define PWM12T2H (*(unsigned char volatile xdata *)0xFF72)
#define PWM12T2L (*(unsigned char volatile xdata *)0xFF73)
#define PWM12CR (*(unsigned char volatile xdata *)0xFF74)
#define PWM12HLD (*(unsigned char volatile xdata *)0xFF75)
#define PWM13T1H (*(unsigned char volatile xdata *)0xFF78)
#define PWM13T1L (*(unsigned char volatile xdata *)0xFF79)
#define PWM13T2H (*(unsigned char volatile xdata *)0xFF7A)
#define PWM13T2L (*(unsigned char volatile xdata *)0xFF7B)
#define PWM13CR (*(unsigned char volatile xdata *)0xFF7C)
#define PWM13HLD (*(unsigned char volatile xdata *)0xFF7D)
#define PWM14T1H (*(unsigned char volatile xdata *)0xFF80)
#define PWM14T1L (*(unsigned char volatile xdata *)0xFF81)
#define PWM14T2H (*(unsigned char volatile xdata *)0xFF82)
#define PWM14T2L (*(unsigned char volatile xdata *)0xFF83)
#define PWM14CR (*(unsigned char volatile xdata *)0xFF84)
#define PWM14HLD (*(unsigned char volatile xdata *)0xFF85)
#define PWM15T1H (*(unsigned char volatile xdata *)0xFF88)
#define PWM15T1L (*(unsigned char volatile xdata *)0xFF89)
#define PWM15T2H (*(unsigned char volatile xdata *)0xFF8A)
#define PWM15T2L (*(unsigned char volatile xdata *)0xFF8B)
#define PWM15CR (*(unsigned char volatile xdata *)0xFF8C)
#define PWM15HLD (*(unsigned char volatile xdata *)0xFF8D)
#define PWM16T1H (*(unsigned char volatile xdata *)0xFF90)
#define PWM16T1L (*(unsigned char volatile xdata *)0xFF91)
#define PWM16T2H (*(unsigned char volatile xdata *)0xFF92)
#define PWM16T2L (*(unsigned char volatile xdata *)0xFF93)
#define PWM16CR (*(unsigned char volatile xdata *)0xFF94)
#define PWM16HLD (*(unsigned char volatile xdata *)0xFF95)
#define PWM17T1H (*(unsigned char volatile xdata *)0xFF98)
#define PWM17T1L (*(unsigned char volatile xdata *)0xFF99)
#define PWM17T2H (*(unsigned char volatile xdata *)0xFF9A)
#define PWM17T2L (*(unsigned char volatile xdata *)0xFF9B)
#define PWM17CR (*(unsigned char volatile xdata *)0xFF9C)
#define PWM17HLD (*(unsigned char volatile xdata *)0xFF9D)
#define PWM2CH (*(unsigned char volatile xdata *)0xFFA0)
#define PWM2CL (*(unsigned char volatile xdata *)0xFFA1)
#define PWM2CKS (*(unsigned char volatile xdata *)0xFFA2)
#define PWM2TADCH (*(unsigned char volatile xdata *)0xFFA3)
#define PWM2TADCL (*(unsigned char volatile xdata *)0xFFA4)
#define PWM2IF (*(unsigned char volatile xdata *)0xFFA5)
#define PWM2FDCR (*(unsigned char volatile xdata *)0xFFA6)
#define PWM20T1H (*(unsigned char volatile xdata *)0xFFB0)
#define PWM20T1L (*(unsigned char volatile xdata *)0xFFB1)
#define PWM20T2H (*(unsigned char volatile xdata *)0xFFB2)
#define PWM20T2L (*(unsigned char volatile xdata *)0xFFB3)
#define PWM20CR (*(unsigned char volatile xdata *)0xFFB4)
#define PWM20HLD (*(unsigned char volatile xdata *)0xFFB5)
#define PWM21T1H (*(unsigned char volatile xdata *)0xFFB8)
#define PWM21T1L (*(unsigned char volatile xdata *)0xFFB9)
#define PWM21T2H (*(unsigned char volatile xdata *)0xFFBA)
#define PWM21T2L (*(unsigned char volatile xdata *)0xFFBB)
#define PWM21CR (*(unsigned char volatile xdata *)0xFFBC)
#define PWM21HLD (*(unsigned char volatile xdata *)0xFFBD)
#define PWM22T1H (*(unsigned char volatile xdata *)0xFFC0)
#define PWM22T1L (*(unsigned char volatile xdata *)0xFFC1)
#define PWM22T2H (*(unsigned char volatile xdata *)0xFFC2)
#define PWM22T2L (*(unsigned char volatile xdata *)0xFFC3)
#define PWM22CR (*(unsigned char volatile xdata *)0xFFC4)
#define PWM22HLD (*(unsigned char volatile xdata *)0xFFC5)
#define PWM23T1H (*(unsigned char volatile xdata *)0xFFC8)
#define PWM23T1L (*(unsigned char volatile xdata *)0xFFC9)
#define PWM23T2H (*(unsigned char volatile xdata *)0xFFCA)
#define PWM23T2L (*(unsigned char volatile xdata *)0xFFCB)
#define PWM23CR (*(unsigned char volatile xdata *)0xFFCC)
#define PWM23HLD (*(unsigned char volatile xdata *)0xFFCD)
#define PWM24T1H (*(unsigned char volatile xdata *)0xFFD0)
#define PWM24T1L (*(unsigned char volatile xdata *)0xFFD1)
#define PWM24T2H (*(unsigned char volatile xdata *)0xFFD2)
#define PWM24T2L (*(unsigned char volatile xdata *)0xFFD3)
#define PWM24CR (*(unsigned char volatile xdata *)0xFFD4)
#define PWM24HLD (*(unsigned char volatile xdata *)0xFFD5)
#define PWM25T1H (*(unsigned char volatile xdata *)0xFFD8)
#define PWM25T1L (*(unsigned char volatile xdata *)0xFFD9)
#define PWM25T2H (*(unsigned char volatile xdata *)0xFFDA)
#define PWM25T2L (*(unsigned char volatile xdata *)0xFFDB)
#define PWM25CR (*(unsigned char volatile xdata *)0xFFDC)
#define PWM25HLD (*(unsigned char volatile xdata *)0xFFDD)
#define PWM26T1H (*(unsigned char volatile xdata *)0xFFE0)
#define PWM26T1L (*(unsigned char volatile xdata *)0xFFE1)
#define PWM26T2H (*(unsigned char volatile xdata *)0xFFE2)
#define PWM26T2L (*(unsigned char volatile xdata *)0xFFE3)
#define PWM26CR (*(unsigned char volatile xdata *)0xFFE4)
#define PWM26HLD (*(unsigned char volatile xdata *)0xFFE5)
#define PWM27T1H (*(unsigned char volatile xdata *)0xFFE8)
#define PWM27T1L (*(unsigned char volatile xdata *)0xFFE9)
#define PWM27T2H (*(unsigned char volatile xdata *)0xFFEA)
#define PWM27T2L (*(unsigned char volatile xdata *)0xFFEB)
#define PWM27CR (*(unsigned char volatile xdata *)0xFFEC)
#define PWM27HLD (*(unsigned char volatile xdata *)0xFFED)
#define PWM3CH (*(unsigned char volatile xdata *)0xFC00)
#define PWM3CL (*(unsigned char volatile xdata *)0xFC01)
#define PWM3CKS (*(unsigned char volatile xdata *)0xFC02)
#define PWM3IF (*(unsigned char volatile xdata *)0xFC05)
#define PWM3FDCR (*(unsigned char volatile xdata *)0xFC06)
#define PWM30T1H (*(unsigned char volatile xdata *)0xFC10)
#define PWM30T1L (*(unsigned char volatile xdata *)0xFC11)
#define PWM30T2H (*(unsigned char volatile xdata *)0xFC12)
#define PWM30T2L (*(unsigned char volatile xdata *)0xFC13)
#define PWM30CR (*(unsigned char volatile xdata *)0xFC14)
#define PWM30HLD (*(unsigned char volatile xdata *)0xFC15)
#define PWM31T1H (*(unsigned char volatile xdata *)0xFC18)
#define PWM31T1L (*(unsigned char volatile xdata *)0xFC19)
#define PWM31T2H (*(unsigned char volatile xdata *)0xFC1A)
#define PWM31T2L (*(unsigned char volatile xdata *)0xFC1B)
#define PWM31CR (*(unsigned char volatile xdata *)0xFC1C)
#define PWM31HLD (*(unsigned char volatile xdata *)0xFC1D)
#define PWM32T1H (*(unsigned char volatile xdata *)0xFC20)
#define PWM32T1L (*(unsigned char volatile xdata *)0xFC21)
#define PWM32T2H (*(unsigned char volatile xdata *)0xFC22)
#define PWM32T2L (*(unsigned char volatile xdata *)0xFC23)
#define PWM32CR (*(unsigned char volatile xdata *)0xFC24)
#define PWM32HLD (*(unsigned char volatile xdata *)0xFC25)
#define PWM33T1H (*(unsigned char volatile xdata *)0xFC28)
#define PWM33T1L (*(unsigned char volatile xdata *)0xFC29)
#define PWM33T2H (*(unsigned char volatile xdata *)0xFC2A)
#define PWM33T2L (*(unsigned char volatile xdata *)0xFC2B)
#define PWM33CR (*(unsigned char volatile xdata *)0xFC2C)
#define PWM33HLD (*(unsigned char volatile xdata *)0xFC2D)
#define PWM34T1H (*(unsigned char volatile xdata *)0xFC30)
#define PWM34T1L (*(unsigned char volatile xdata *)0xFC31)
#define PWM34T2H (*(unsigned char volatile xdata *)0xFC32)
#define PWM34T2L (*(unsigned char volatile xdata *)0xFC33)
#define PWM34CR (*(unsigned char volatile xdata *)0xFC34)
#define PWM34HLD (*(unsigned char volatile xdata *)0xFC35)
#define PWM35T1H (*(unsigned char volatile xdata *)0xFC38)
#define PWM35T1L (*(unsigned char volatile xdata *)0xFC39)
#define PWM35T2H (*(unsigned char volatile xdata *)0xFC3A)
#define PWM35T2L (*(unsigned char volatile xdata *)0xFC3B)
#define PWM35CR (*(unsigned char volatile xdata *)0xFC3C)
#define PWM35HLD (*(unsigned char volatile xdata *)0xFC3D)
#define PWM36T1H (*(unsigned char volatile xdata *)0xFC40)
#define PWM36T1L (*(unsigned char volatile xdata *)0xFC41)
#define PWM36T2H (*(unsigned char volatile xdata *)0xFC42)
#define PWM36T2L (*(unsigned char volatile xdata *)0xFC43)
#define PWM36CR (*(unsigned char volatile xdata *)0xFC44)
#define PWM36HLD (*(unsigned char volatile xdata *)0xFC45)
#define PWM37T1H (*(unsigned char volatile xdata *)0xFC48)
#define PWM37T1L (*(unsigned char volatile xdata *)0xFC49)
#define PWM37T2H (*(unsigned char volatile xdata *)0xFC4A)
#define PWM37T2L (*(unsigned char volatile xdata *)0xFC4B)
#define PWM37CR (*(unsigned char volatile xdata *)0xFC4C)
#define PWM37HLD (*(unsigned char volatile xdata *)0xFC4D)
#define PWM4CH (*(unsigned char volatile xdata *)0xFC50)
#define PWM4CL (*(unsigned char volatile xdata *)0xFC51)
#define PWM4CKS (*(unsigned char volatile xdata *)0xFC52)
#define PWM4TADCH (*(unsigned char volatile xdata *)0xFC53)
#define PWM4TADCL (*(unsigned char volatile xdata *)0xFC54)
#define PWM4IF (*(unsigned char volatile xdata *)0xFC55)
#define PWM4FDCR (*(unsigned char volatile xdata *)0xFC56)
#define PWM40T1H (*(unsigned char volatile xdata *)0xFC60)
#define PWM40T1L (*(unsigned char volatile xdata *)0xFC61)
#define PWM40T2H (*(unsigned char volatile xdata *)0xFC62)
#define PWM40T2L (*(unsigned char volatile xdata *)0xFC63)
#define PWM40CR (*(unsigned char volatile xdata *)0xFC64)
#define PWM40HLD (*(unsigned char volatile xdata *)0xFC65)
#define PWM41T1H (*(unsigned char volatile xdata *)0xFC68)
#define PWM41T1L (*(unsigned char volatile xdata *)0xFC69)
#define PWM41T2H (*(unsigned char volatile xdata *)0xFC6A)
#define PWM41T2L (*(unsigned char volatile xdata *)0xFC6B)
#define PWM41CR (*(unsigned char volatile xdata *)0xFC6C)
#define PWM41HLD (*(unsigned char volatile xdata *)0xFC6D)
#define PWM42T1H (*(unsigned char volatile xdata *)0xFC70)
#define PWM42T1L (*(unsigned char volatile xdata *)0xFC71)
#define PWM42T2H (*(unsigned char volatile xdata *)0xFC72)
#define PWM42T2L (*(unsigned char volatile xdata *)0xFC73)
#define PWM42CR (*(unsigned char volatile xdata *)0xFC74)
#define PWM42HLD (*(unsigned char volatile xdata *)0xFC75)
#define PWM43T1H (*(unsigned char volatile xdata *)0xFC78)
#define PWM43T1L (*(unsigned char volatile xdata *)0xFC79)
#define PWM43T2H (*(unsigned char volatile xdata *)0xFC7A)
#define PWM43T2L (*(unsigned char volatile xdata *)0xFC7B)
#define PWM43CR (*(unsigned char volatile xdata *)0xFC7C)
#define PWM43HLD (*(unsigned char volatile xdata *)0xFC7D)
#define PWM44T1H (*(unsigned char volatile xdata *)0xFC80)
#define PWM44T1L (*(unsigned char volatile xdata *)0xFC81)
#define PWM44T2H (*(unsigned char volatile xdata *)0xFC82)
#define PWM44T2L (*(unsigned char volatile xdata *)0xFC83)
#define PWM44CR (*(unsigned char volatile xdata *)0xFC84)
#define PWM44HLD (*(unsigned char volatile xdata *)0xFC85)
#define PWM45T1H (*(unsigned char volatile xdata *)0xFC88)
#define PWM45T1L (*(unsigned char volatile xdata *)0xFC89)
#define PWM45T2H (*(unsigned char volatile xdata *)0xFC8A)
#define PWM45T2L (*(unsigned char volatile xdata *)0xFC8B)
#define PWM45CR (*(unsigned char volatile xdata *)0xFC8C)
#define PWM45HLD (*(unsigned char volatile xdata *)0xFC8D)
#define PWM46T1H (*(unsigned char volatile xdata *)0xFC90)
#define PWM46T1L (*(unsigned char volatile xdata *)0xFC91)
#define PWM46T2H (*(unsigned char volatile xdata *)0xFC92)
#define PWM46T2L (*(unsigned char volatile xdata *)0xFC93)
#define PWM46CR (*(unsigned char volatile xdata *)0xFC94)
#define PWM46HLD (*(unsigned char volatile xdata *)0xFC95)
#define PWM47T1H (*(unsigned char volatile xdata *)0xFC98)
#define PWM47T1L (*(unsigned char volatile xdata *)0xFC99)
#define PWM47T2H (*(unsigned char volatile xdata *)0xFC9A)
#define PWM47T2L (*(unsigned char volatile xdata *)0xFC9B)
#define PWM47CR (*(unsigned char volatile xdata *)0xFC9C)
#define PWM47HLD (*(unsigned char volatile xdata *)0xFC9D)
#define PWM5CH (*(unsigned char volatile xdata *)0xFCA0)
#define PWM5CL (*(unsigned char volatile xdata *)0xFCA1)
#define PWM5CKS (*(unsigned char volatile xdata *)0xFCA2)
#define PWM5IF (*(unsigned char volatile xdata *)0xFCA5)
#define PWM5FDCR (*(unsigned char volatile xdata *)0xFCA6)
#define PWM50T1H (*(unsigned char volatile xdata *)0xFCB0)
#define PWM50T1L (*(unsigned char volatile xdata *)0xFCB1)
#define PWM50T2H (*(unsigned char volatile xdata *)0xFCB2)
#define PWM50T2L (*(unsigned char volatile xdata *)0xFCB3)
#define PWM50CR (*(unsigned char volatile xdata *)0xFCB4)
#define PWM50HLD (*(unsigned char volatile xdata *)0xFCB5)
#define PWM51T1H (*(unsigned char volatile xdata *)0xFCB8)
#define PWM51T1L (*(unsigned char volatile xdata *)0xFCB9)
#define PWM51T2H (*(unsigned char volatile xdata *)0xFCBA)
#define PWM51T2L (*(unsigned char volatile xdata *)0xFCBB)
#define PWM51CR (*(unsigned char volatile xdata *)0xFCBC)
#define PWM51HLD (*(unsigned char volatile xdata *)0xFCBD)
#define PWM52T1H (*(unsigned char volatile xdata *)0xFCC0)
#define PWM52T1L (*(unsigned char volatile xdata *)0xFCC1)
#define PWM52T2H (*(unsigned char volatile xdata *)0xFCC2)
#define PWM52T2L (*(unsigned char volatile xdata *)0xFCC3)
#define PWM52CR (*(unsigned char volatile xdata *)0xFCC4)
#define PWM52HLD (*(unsigned char volatile xdata *)0xFCC5)
#define PWM53T1H (*(unsigned char volatile xdata *)0xFCC8)
#define PWM53T1L (*(unsigned char volatile xdata *)0xFCC9)
#define PWM53T2H (*(unsigned char volatile xdata *)0xFCCA)
#define PWM53T2L (*(unsigned char volatile xdata *)0xFCCB)
#define PWM53CR (*(unsigned char volatile xdata *)0xFCCC)
#define PWM53HLD (*(unsigned char volatile xdata *)0xFCCD)
#define PWM54T1H (*(unsigned char volatile xdata *)0xFCD0)
#define PWM54T1L (*(unsigned char volatile xdata *)0xFCD1)
#define PWM54T2H (*(unsigned char volatile xdata *)0xFCD2)
#define PWM54T2L (*(unsigned char volatile xdata *)0xFCD3)
#define PWM54CR (*(unsigned char volatile xdata *)0xFCD4)
#define PWM54HLD (*(unsigned char volatile xdata *)0xFCD5)
#define PWM55T1H (*(unsigned char volatile xdata *)0xFCD8)
#define PWM55T1L (*(unsigned char volatile xdata *)0xFCD9)
#define PWM55T2H (*(unsigned char volatile xdata *)0xFCDA)
#define PWM55T2L (*(unsigned char volatile xdata *)0xFCDB)
#define PWM55CR (*(unsigned char volatile xdata *)0xFCDC)
#define PWM55HLD (*(unsigned char volatile xdata *)0xFCDD)
#define PWM56T1H (*(unsigned char volatile xdata *)0xFCE0)
#define PWM56T1L (*(unsigned char volatile xdata *)0xFCE1)
#define PWM56T2H (*(unsigned char volatile xdata *)0xFCE2)
#define PWM56T2L (*(unsigned char volatile xdata *)0xFCE3)
#define PWM56CR (*(unsigned char volatile xdata *)0xFCE4)
#define PWM56HLD (*(unsigned char volatile xdata *)0xFCE5)
#define PWM57T1H (*(unsigned char volatile xdata *)0xFCE8)
#define PWM57T1L (*(unsigned char volatile xdata *)0xFCE9)
#define PWM57T2H (*(unsigned char volatile xdata *)0xFCEA)
#define PWM57T2L (*(unsigned char volatile xdata *)0xFCEB)
#define PWM57CR (*(unsigned char volatile xdata *)0xFCEC)
#define PWM57HLD (*(unsigned char volatile xdata *)0xFCED)
/////////////////////////////////////////////////
/// >>>>> add by cc
#include "../clib/bit.h"
#define D_stdIO_P0_ALL() P0M1=0;P0M0=0;
#define D_HighI_P0_ALL() P0M1=0;P0M0=0XFF;
#define D_HighR_P0_ALL() P0M1=0XFF;P0M0=0;
#define D_OpenD_P0_ALL() P0M1=0XFF;P0M0=0XFF;
#define D_stdIO_P1_ALL() P1M1=0;P1M0=0;
#define D_HighI_P1_ALL() P1M1=0;P1M0=0XFF;
#define D_HighR_P1_ALL() P1M1=0XFF;P1M0=0;
#define D_OpenD_P1_ALL() P1M1=0XFF;P1M0=0XFF;
#define D_stdIO_P0(n) BITN_0(P0M1,n);BITN_0(P0M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P0(n) BITN_0(P0M1,n);BITN_1(P0M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P0(n) BITN_1(P0M1,n);BITN_0(P0M0,n); /////////10 高阻
#define D_OpenD_P0(n) BITN_1(P0M1,n);BITN_1(P0M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P1(n) BITN_0(P1M1,n);BITN_0(P1M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P1(n) BITN_0(P1M1,n);BITN_1(P1M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P1(n) BITN_1(P1M1,n);BITN_0(P1M0,n); /////////10 高阻
#define D_OpenD_P1(n) BITN_1(P1M1,n);BITN_1(P1M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P2(n) BITN_0(P2M1,n);BITN_0(P2M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P2(n) BITN_0(P2M1,n);BITN_1(P2M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P2(n) BITN_1(P2M1,n);BITN_0(P2M0,n); /////////10 高阻
#define D_OpenD_P2(n) BITN_1(P2M1,n);BITN_1(P2M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P3(n) BITN_0(P3M1,n);BITN_0(P3M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P3(n) BITN_0(P3M1,n);BITN_1(P3M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P3(n) BITN_1(P3M1,n);BITN_0(P3M0,n); /////////10 高阻
#define D_OpenD_P3(n) BITN_1(P3M1,n);BITN_1(P3M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P4(n) BITN_0(P4M1,n);BITN_0(P4M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P4(n) BITN_0(P4M1,n);BITN_1(P4M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P4(n) BITN_1(P4M1,n);BITN_0(P4M0,n); /////////10 高阻
#define D_OpenD_P4(n) BITN_1(P4M1,n);BITN_1(P4M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P5(n) BITN_0(P5M1,n);BITN_0(P5M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P5(n) BITN_0(P5M1,n);BITN_1(P5M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P5(n) BITN_1(P5M1,n);BITN_0(P5M0,n); /////////10 高阻
#define D_OpenD_P5(n) BITN_1(P5M1,n);BITN_1(P5M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P6(n) BITN_0(P6M1,n);BITN_0(P6M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P6(n) BITN_0(P6M1,n);BITN_1(P6M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P6(n) BITN_1(P6M1,n);BITN_0(P6M0,n); /////////10 高阻
#define D_OpenD_P6(n) BITN_1(P6M1,n);BITN_1(P6M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
#define D_stdIO_P7(n) BITN_0(P7M1,n);BITN_0(P7M0,n); //////00 准双向口 灌电流20mA 拉电流270-150uS
#define D_HighI_P7(n) BITN_0(P7M1,n);BITN_1(P7M0,n); //////01 推挽输出 20mA 加限流
#define D_HighR_P7(n) BITN_1(P7M1,n);BITN_0(P7M0,n); /////////10 高阻
#define D_OpenD_P7(n) BITN_1(P7M1,n);BITN_1(P7M0,n); /////11 开漏 open-Drain 内部上拉电阻断开 开漏模式既可以度外部状态也可以对外输出高低电平
/***
#define P0_conf_in(n) BITN_1(P0M1,n);BITN_0(P0M0,n);
#define P1_conf_in(n) BITN_1(P1M1,n);BITN_0(P1M0,n);
#define P2_conf_in(n) BITN_1(P2M1,n);BITN_0(P2M0,n);
#define P2_conf_port(n) BITN_0(P2M1,n);BITN_0(P2M0,n);
#define P3_conf_in(n) BITN_1(P3M1,n);BITN_0(P3M0,n);
#define P3_conf_port(n) BITN_0(P3M1,n);BITN_0(P3M0,n);
#define P4_conf_in(n) BITN_1(P4M1,n);BITN_0(P4M0,n);
#define P5_conf_in(n) BITN_1(P5M1,n);BITN_0(P5M0,n);
***/
#define NOP() _nop_()
#define L0_INT4_OPEN() BITN_1(INT_CLKO, INT_EX4)
#define L0_INT4_CLOSE() BITN_0(INT_CLKO, INT_EX4)
#define L0_INT4_AT() BITN_G(INT_CLKO, INT_EX4)
#define L0_INT4_CLEAR() BITN_0(AUXINTIF, INT4IF)
#define L0_INT3_CLEAR() BITN_0(AUXINTIF, INT3IF)
#define L0_INT2_CLEAR() BITN_0(AUXINTIF, INT2IF)
//////
#define L0_INT3_OPEN() BITN_1(INT_CLKO, INT_EX3);
#define L0_INT3_CLOSE() BITN_0(INT_CLKO, INT_EX3);
#define L0_INT2_OPEN() BITN_1(INT_CLKO, INT_EX2);
#define L0_INT2_CLOSE() BITN_0(INT_CLKO, INT_EX2);
#define L0_INT1_OPEN() EX1 = 1;
#define L0_INT1_CLOSE() EX1 = 0;
#define L0_INT0_OPEN() EX0 = 1;
#define L0_INT0_CLOSE() EX0 = 0;
#define D_ISR_int0 0 ///int0 下降沿触发 = 0 上下沿均可触发
#define D_ISR_timer0 1
#define D_ISR_int1 2 ///int1 下降沿触发 = 0 上下沿均可触发
#define D_ISR_timer1 3
#define D_ISR_int2 10 /////只有下降沿
#define D_ISR_int3 11 /////只有下降沿
#define D_SERVE_UART 4
#define D_ISR_int4 16 /////只有下降沿
#if 0
#define L0_TIMER1_start() TR1 = 1;
#define L0_TIMER1_end() TR1 = 0;
#define L0_TIMER1_isr_OPEN() ET1 = 1;
#define L0_TIMER1_isr_CLOSE() ET1 = 0;
#else
#define L0_TIMER1_start() ET1 = 1;
#define L0_TIMER1_end() ET1 = 0;
#define L0_TIMER1_isr_OPEN() TR1 = 1;
#define L0_TIMER1_isr_CLOSE() TR1 = 0;
#endif
/// fixme 颠倒定义会让c51锁死#define _nop_() NOP()
///#define L0_INT3_OPEN() BITN_1(INT_CLKO,INT_EX3); //使能INT3中断
///#define L0_INT3_CLOSE() BITN_0(INT_CLKO,INT_EX3);
#endif //STC_stc8a8k

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source/cpu/stc_stc8f.h
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#ifndef __STC8F_H_
#define __STC8F_H_
/////////////////////////////////////////////////
//包含本头文件后,不用另外再包含"REG51.H"
//内核特殊功能寄存器
sfr ACC = 0xe0;
sfr B = 0xf0;
sfr PSW = 0xd0;
sbit CY = PSW^7;
sbit AC = PSW^6;
sbit F0 = PSW^5;
sbit RS1 = PSW^4;
sbit RS0 = PSW^3;
sbit OV = PSW^2;
sbit F1 = PSW^1;
sbit P = PSW^0;
sfr SP = 0x81;
sfr DPL = 0x82;
sfr DPH = 0x83;
sfr TA = 0xae;
sfr DPS = 0xe3;
sfr DPL1 = 0xe4;
sfr DPH1 = 0xe5;
//I/O 口特殊功能寄存器
sfr P0 = 0x80;
sfr P1 = 0x90;
sfr P2 = 0xa0;
sfr P3 = 0xb0;
sfr P4 = 0xc0;
sfr P5 = 0xc8;
sfr P6 = 0xe8;
sfr P7 = 0xf8;
sfr P0M0 = 0x94;
sfr P0M1 = 0x93;
sfr P1M0 = 0x92;
sfr P1M1 = 0x91;
sfr P2M0 = 0x96;
sfr P2M1 = 0x95;
sfr P3M0 = 0xb2;
sfr P3M1 = 0xb1;
sfr P4M0 = 0xb4;
sfr P4M1 = 0xb3;
sfr P5M0 = 0xca;
sfr P5M1 = 0xc9;
sfr P6M0 = 0xcc;
sfr P6M1 = 0xcb;
sfr P7M0 = 0xe2;
sfr P7M1 = 0xe1;
sbit P00 = P0^0;
sbit P01 = P0^1;
sbit P02 = P0^2;
sbit P03 = P0^3;
sbit P04 = P0^4;
sbit P05 = P0^5;
sbit P06 = P0^6;
sbit P07 = P0^7;
sbit P10 = P1^0;
sbit P11 = P1^1;
sbit P12 = P1^2;
sbit P13 = P1^3;
sbit P14 = P1^4;
sbit P15 = P1^5;
sbit P16 = P1^6;
sbit P17 = P1^7;
sbit P20 = P2^0;
sbit P21 = P2^1;
sbit P22 = P2^2;
sbit P23 = P2^3;
sbit P24 = P2^4;
sbit P25 = P2^5;
sbit P26 = P2^6;
sbit P27 = P2^7;
sbit P30 = P3^0;
sbit P31 = P3^1;
sbit P32 = P3^2;
sbit P33 = P3^3;
sbit P34 = P3^4;
sbit P35 = P3^5;
sbit P36 = P3^6;
sbit P37 = P3^7;
sbit P40 = P4^0;
sbit P41 = P4^1;
sbit P42 = P4^2;
sbit P43 = P4^3;
sbit P44 = P4^4;
sbit P45 = P4^5;
sbit P46 = P4^6;
sbit P47 = P4^7;
sbit P50 = P5^0;
sbit P51 = P5^1;
sbit P52 = P5^2;
sbit P53 = P5^3;
sbit P54 = P5^4;
sbit P55 = P5^5;
sbit P56 = P5^6;
sbit P57 = P5^7;
sbit P60 = P6^0;
sbit P61 = P6^1;
sbit P62 = P6^2;
sbit P63 = P6^3;
sbit P64 = P6^4;
sbit P65 = P6^5;
sbit P66 = P6^6;
sbit P67 = P6^7;
sbit P70 = P7^0;
sbit P71 = P7^1;
sbit P72 = P7^2;
sbit P73 = P7^3;
sbit P74 = P7^4;
sbit P75 = P7^5;
sbit P76 = P7^6;
sbit P77 = P7^7;
//如下特殊功能寄存器位于扩展RAM区域
//访问这些寄存器,需先将P_SW2的BIT7设置为1,才可正常读写
#define P0PU (*(unsigned char volatile xdata *)0xfe10)
#define P1PU (*(unsigned char volatile xdata *)0xfe11)
#define P2PU (*(unsigned char volatile xdata *)0xfe12)
#define P3PU (*(unsigned char volatile xdata *)0xfe13)
#define P4PU (*(unsigned char volatile xdata *)0xfe14)
#define P5PU (*(unsigned char volatile xdata *)0xfe15)
#define P6PU (*(unsigned char volatile xdata *)0xfe16)
#define P7PU (*(unsigned char volatile xdata *)0xfe17)
#define P0NCS (*(unsigned char volatile xdata *)0xfe18)
#define P1NCS (*(unsigned char volatile xdata *)0xfe19)
#define P2NCS (*(unsigned char volatile xdata *)0xfe1a)
#define P3NCS (*(unsigned char volatile xdata *)0xfe1b)
#define P4NCS (*(unsigned char volatile xdata *)0xfe1c)
#define P5NCS (*(unsigned char volatile xdata *)0xfe1d)
#define P6NCS (*(unsigned char volatile xdata *)0xfe1e)
#define P7NCS (*(unsigned char volatile xdata *)0xfe1f)
//系统管理特殊功能寄存器
sfr PCON = 0x87;
#define SMOD 0x80
#define SMOD0 0x40
#define LVDF 0x20
#define POF 0x10
#define GF1 0x08
#define GF0 0x04
#define PD 0x02
#define IDL 0x01
sfr AUXR = 0x8e;
#define T0x12 0x80
#define T1x12 0x40
#define UART_M0x6 0x20
#define T2R 0x10
#define T2_CT 0x08
#define T2x12 0x04
#define EXTRAM 0x02
#define S1ST2 0x01
sfr AUXR2 = 0x97;
#define TXLNRX 0x10
sfr BUS_SPEED = 0xa1;
sfr P_SW1 = 0xa2;
sfr P_SW2 = 0xba;
#define EAXFR 0x80
sfr VOCTRL = 0xbb;
sfr RSTCFG = 0xff;
//如下特殊功能寄存器位于扩展RAM区域
//访问这些寄存器,需先将P_SW2的BIT7设置为1,才可正常读写
#define CKSEL (*(unsigned char volatile xdata *)0xfe00)
#define CLKDIV (*(unsigned char volatile xdata *)0xfe01)
#define IRC24MCR (*(unsigned char volatile xdata *)0xfe02)
#define XOSCCR (*(unsigned char volatile xdata *)0xfe03)
#define IRC32KCR (*(unsigned char volatile xdata *)0xfe04)
//中断特殊功能寄存器
sfr IE = 0xa8;
sbit EA = IE^7;
sbit ELVD = IE^6;
sbit EADC = IE^5;
sbit ES = IE^4;
sbit ET1 = IE^3;
sbit EX1 = IE^2;
sbit ET0 = IE^1;
sbit EX0 = IE^0;
sfr IE2 = 0xaf;
#define ET4 0x40
#define ET3 0x20
#define ES4 0x10
#define ES3 0x08
#define ET2 0x04
#define ESPI 0x02
#define ES2 0x01
sfr IP = 0xb8;
sbit PPCA = IP^7;
sbit PLVD = IP^6;
sbit PADC = IP^5;
sbit PS = IP^4;
sbit PT1 = IP^3;
sbit PX1 = IP^2;
sbit PT0 = IP^1;
sbit PX0 = IP^0;
sfr IP2 = 0xb5;
#define PI2C 0x40
#define PCMP 0x20
#define PX4 0x10
#define PPWMFD 0x08
#define PPWM 0x04
#define PSPI 0x02
#define PS2 0x01
sfr IPH = 0xb7;
#define PPCAH 0x80
#define PLVDH 0x40
#define PADCH 0x20
#define PSH 0x10
#define PT1H 0x08
#define PX1H 0x04
#define PT0H 0x02
#define PX0H 0x01
sfr IP2H = 0xb6;
#define PI2CH 0x40
#define PCMPH 0x20
#define PX4H 0x10
#define PPWMFDH 0x08
#define PPWMH 0x04
#define PSPIH 0x02
#define PS2H 0x01
sfr INTCLKO = 0x8f;
#define EX4 0x40
#define EX3 0x20
#define EX2 0x10
#define T2CLKO 0x04
#define T1CLKO 0x02
#define T0CLKO 0x01
sfr AUXINTIF = 0xef;
#define INT4IF 0x40
#define INT3IF 0x20
#define INT2IF 0x10
#define T4IF 0x04
#define T3IF 0x02
#define T2IF 0x01
//定时器特殊功能寄存器
sfr TCON = 0x88;
sbit TF1 = TCON^7;
sbit TR1 = TCON^6;
sbit TF0 = TCON^5;
sbit TR0 = TCON^4;
sbit IE1 = TCON^3;
sbit IT1 = TCON^2;
sbit IE0 = TCON^1;
sbit IT0 = TCON^0;
sfr TMOD = 0x89;
#define T1_GATE 0x80
#define T1_CT 0x40
#define T1_M1 0x20
#define T1_M0 0x10
#define T0_GATE 0x08
#define T0_CT 0x04
#define T0_M1 0x02
#define T0_M0 0x01
sfr TL0 = 0x8a;
sfr TL1 = 0x8b;
sfr TH0 = 0x8c;
sfr TH1 = 0x8d;
sfr T4T3M = 0xd1;
#define T4R 0x80
#define T4_CT 0x40
#define T4x12 0x20
#define T4CLKO 0x10
#define T3R 0x08
#define T3_CT 0x04
#define T3x12 0x02
#define T3CLKO 0x01
sfr T4H = 0xd2;
sfr T4L = 0xd3;
sfr T3H = 0xd4;
sfr T3L = 0xd5;
sfr T2H = 0xd6;
sfr T2L = 0xd7;
sfr TH4 = 0xd2;
sfr TL4 = 0xd3;
sfr TH3 = 0xd4;
sfr TL3 = 0xd5;
sfr TH2 = 0xd6;
sfr TL2 = 0xd7;
sfr WKTCL = 0xaa;
sfr WKTCH = 0xab;
#define WKTEN 0x80
sfr WDT_CONTR = 0xc1;
#define WDT_FLAG 0x80
#define EN_WDT 0x20
#define CLR_WDT 0x10
#define IDL_WDT 0x08
//串行口特殊功能寄存器
sfr SCON = 0x98;
sbit SM0 = SCON^7;
sbit SM1 = SCON^6;
sbit SM2 = SCON^5;
sbit REN = SCON^4;
sbit TB8 = SCON^3;
sbit RB8 = SCON^2;
sbit TI = SCON^1;
sbit RI = SCON^0;
sfr SBUF = 0x99;
sfr S2CON = 0x9a;
#define S2SM0 0x80
#define S2ST4 0x40
#define S2SM2 0x20
#define S2REN 0x10
#define S2TB8 0x08
#define S2RB8 0x04
#define S2TI 0x02
#define S2RI 0x01
sfr S2BUF = 0x9b;
sfr S3CON = 0xac;
#define S3SM0 0x80
#define S3ST4 0x40
#define S3SM2 0x20
#define S3REN 0x10
#define S3TB8 0x08
#define S3RB8 0x04
#define S3TI 0x02
#define S3RI 0x01
sfr S3BUF = 0xad;
sfr S4CON = 0x84;
#define S4SM0 0x80
#define S4ST4 0x40
#define S4SM2 0x20
#define S4REN 0x10
#define S4TB8 0x08
#define S4RB8 0x04
#define S4TI 0x02
#define S4RI 0x01
sfr S4BUF = 0x85;
sfr SADDR = 0xa9;
sfr SADEN = 0xb9;
//ADC 特殊功能寄存器
sfr ADC_CONTR = 0xbc;
#define ADC_POWER 0x80
#define ADC_START 0x40
#define ADC_FLAG 0x20
sfr ADC_RES = 0xbd;
sfr ADC_RESL = 0xbe;
sfr ADCCFG = 0xde;
#define ADC_RESFMT 0x20
//SPI 特殊功能寄存器
sfr SPSTAT = 0xcd;
#define SPIF 0x80
#define WCOL 0x40
sfr SPCTL = 0xce;
#define SSIG 0x80
#define SPEN 0x40
#define DORD 0x20
#define MSTR 0x10
#define CPOL 0x08
#define CPHA 0x04
sfr SPDAT = 0xcf;
//IAP/ISP 特殊功能寄存器
sfr IAP_DATA = 0xc2;
sfr IAP_ADDRH = 0xc3;
sfr IAP_ADDRL = 0xc4;
sfr IAP_CMD = 0xc5;
#define IAP_IDL 0x00
#define IAP_READ 0x01
#define IAP_WRITE 0x02
#define IAP_ERASE 0x03
sfr IAP_TRIG = 0xc6;
sfr IAP_CONTR = 0xc7;
#define IAPEN 0x80
#define SWBS 0x40
#define SWRST 0x20
#define CMD_FAIL 0x10
sfr ISP_DATA = 0xc2;
sfr ISP_ADDRH = 0xc3;
sfr ISP_ADDRL = 0xc4;
sfr ISP_CMD = 0xc5;
sfr ISP_TRIG = 0xc6;
sfr ISP_CONTR = 0xc7;
//比较器特殊功能寄存器
sfr CMPCR1 = 0xe6;
#define CMPEN 0x80
#define CMPIF 0x40
#define PIE 0x20
#define NIE 0x10
#define PIS 0x08
#define NIS 0x04
#define CMPOE 0x02
#define CMPRES 0x01
sfr CMPCR2 = 0xe7;
#define INVCMPO 0x80
#define DISFLT 0x40
//PCA/PWM 特殊功能寄存器
sfr CCON = 0xd8;
sbit CF = CCON^7;
sbit CR = CCON^6;
sbit CCF3 = CCON^3;
sbit CCF2 = CCON^2;
sbit CCF1 = CCON^1;
sbit CCF0 = CCON^0;
sfr CMOD = 0xd9;
#define CIDL 0x80
#define ECF 0x01
sfr CL = 0xe9;
sfr CH = 0xf9;
sfr CCAPM0 = 0xda;
#define ECOM0 0x40
#define CCAPP0 0x20
#define CCAPN0 0x10
#define MAT0 0x08
#define TOG0 0x04
#define PWM0 0x02
#define ECCF0 0x01
sfr CCAPM1 = 0xdb;
#define ECOM1 0x40
#define CCAPP1 0x20
#define CCAPN1 0x10
#define MAT1 0x08
#define TOG1 0x04
#define PWM1 0x02
#define ECCF1 0x01
sfr CCAPM2 = 0xdc;
#define ECOM2 0x40
#define CCAPP2 0x20
#define CCAPN2 0x10
#define MAT2 0x08
#define TOG2 0x04
#define PWM2 0x02
#define ECCF2 0x01
sfr CCAPM3 = 0xdd;
#define ECOM3 0x40
#define CCAPP3 0x20
#define CCAPN3 0x10
#define MAT3 0x08
#define TOG3 0x04
#define PWM3 0x02
#define ECCF3 0x01
sfr CCAP0L = 0xea;
sfr CCAP1L = 0xeb;
sfr CCAP2L = 0xec;
sfr CCAP3L = 0xed;
sfr CCAP0H = 0xfa;
sfr CCAP1H = 0xfb;
sfr CCAP2H = 0xfc;
sfr CCAP3H = 0xfd;
sfr PCA_PWM0 = 0xf2;
sfr PCA_PWM1 = 0xf3;
sfr PCA_PWM2 = 0xf4;
sfr PCA_PWM3 = 0xf5;
//增强型PWM波形发生器特殊功能寄存器
sfr PWMCFG = 0xf1;
#define CBIF 0x80
#define ETADC 0x40
sfr PWMIF = 0xf6;
#define C7IF 0x80
#define C6IF 0x40
#define C5IF 0x20
#define C4IF 0x10
#define C3IF 0x08
#define C2IF 0x04
#define C1IF 0x02
#define C0IF 0x01
sfr PWMFDCR = 0xf7;
#define INVCMP 0x80
#define INVIO 0x40
#define ENFD 0x20
#define FLTFLIO 0x10
#define EFDI 0x08
#define FDCMP 0x04
#define FDIO 0x02
#define FDIF 0x01
sfr PWMCR = 0xfe;
#define ENPWM 0x80
#define ECBI 0x40
//如下特殊功能寄存器位于扩展RAM区域
//访问这些寄存器,需先将P_SW2的BIT7设置为1,才可正常读写
#define PWMC (*(unsigned int volatile xdata *)0xfff0)
#define PWMCH (*(unsigned char volatile xdata *)0xfff0)
#define PWMCL (*(unsigned char volatile xdata *)0xfff1)
#define PWMCKS (*(unsigned char volatile xdata *)0xfff2)
#define TADCP (*(unsigned char volatile xdata *)0xfff3)
#define TADCPH (*(unsigned char volatile xdata *)0xfff3)
#define TADCPL (*(unsigned char volatile xdata *)0xfff4)
#define PWM0T1 (*(unsigned int volatile xdata *)0xff00)
#define PWM0T1H (*(unsigned char volatile xdata *)0xff00)
#define PWM0T1L (*(unsigned char volatile xdata *)0xff01)
#define PWM0T2 (*(unsigned int volatile xdata *)0xff02)
#define PWM0T2H (*(unsigned char volatile xdata *)0xff02)
#define PWM0T2L (*(unsigned char volatile xdata *)0xff03)
#define PWM0CR (*(unsigned char volatile xdata *)0xff04)
#define PWM0HLD (*(unsigned char volatile xdata *)0xff05)
#define PWM1T1 (*(unsigned int volatile xdata *)0xff10)
#define PWM1T1H (*(unsigned char volatile xdata *)0xff10)
#define PWM1T1L (*(unsigned char volatile xdata *)0xff11)
#define PWM1T2 (*(unsigned int volatile xdata *)0xff12)
#define PWM1T2H (*(unsigned char volatile xdata *)0xff12)
#define PWM1T2L (*(unsigned char volatile xdata *)0xff13)
#define PWM1CR (*(unsigned char volatile xdata *)0xff14)
#define PWM1HLD (*(unsigned char volatile xdata *)0xff15)
#define PWM2T1 (*(unsigned int volatile xdata *)0xff20)
#define PWM2T1H (*(unsigned char volatile xdata *)0xff20)
#define PWM2T1L (*(unsigned char volatile xdata *)0xff21)
#define PWM2T2 (*(unsigned int volatile xdata *)0xff22)
#define PWM2T2H (*(unsigned char volatile xdata *)0xff22)
#define PWM2T2L (*(unsigned char volatile xdata *)0xff23)
#define PWM2CR (*(unsigned char volatile xdata *)0xff24)
#define PWM2HLD (*(unsigned char volatile xdata *)0xff25)
#define PWM3T1 (*(unsigned int volatile xdata *)0xff30)
#define PWM3T1H (*(unsigned char volatile xdata *)0xff30)
#define PWM3T1L (*(unsigned char volatile xdata *)0xff31)
#define PWM3T2 (*(unsigned int volatile xdata *)0xff32)
#define PWM3T2H (*(unsigned char volatile xdata *)0xff32)
#define PWM3T2L (*(unsigned char volatile xdata *)0xff33)
#define PWM3CR (*(unsigned char volatile xdata *)0xff34)
#define PWM3HLD (*(unsigned char volatile xdata *)0xff35)
#define PWM4T1 (*(unsigned int volatile xdata *)0xff40)
#define PWM4T1H (*(unsigned char volatile xdata *)0xff40)
#define PWM4T1L (*(unsigned char volatile xdata *)0xff41)
#define PWM4T2 (*(unsigned int volatile xdata *)0xff42)
#define PWM4T2H (*(unsigned char volatile xdata *)0xff42)
#define PWM4T2L (*(unsigned char volatile xdata *)0xff43)
#define PWM4CR (*(unsigned char volatile xdata *)0xff44)
#define PWM4HLD (*(unsigned char volatile xdata *)0xff45)
#define PWM5T1 (*(unsigned int volatile xdata *)0xff50)
#define PWM5T1H (*(unsigned char volatile xdata *)0xff50)
#define PWM5T1L (*(unsigned char volatile xdata *)0xff51)
#define PWM5T2 (*(unsigned int volatile xdata *)0xff52)
#define PWM5T2H (*(unsigned char volatile xdata *)0xff52)
#define PWM5T2L (*(unsigned char volatile xdata *)0xff53)
#define PWM5CR (*(unsigned char volatile xdata *)0xff54)
#define PWM5HLD (*(unsigned char volatile xdata *)0xff55)
#define PWM6T1 (*(unsigned int volatile xdata *)0xff60)
#define PWM6T1H (*(unsigned char volatile xdata *)0xff60)
#define PWM6T1L (*(unsigned char volatile xdata *)0xff61)
#define PWM6T2 (*(unsigned int volatile xdata *)0xff62)
#define PWM6T2H (*(unsigned char volatile xdata *)0xff62)
#define PWM6T2L (*(unsigned char volatile xdata *)0xff63)
#define PWM6CR (*(unsigned char volatile xdata *)0xff64)
#define PWM6HLD (*(unsigned char volatile xdata *)0xff65)
#define PWM7T1 (*(unsigned int volatile xdata *)0xff70)
#define PWM7T1H (*(unsigned char volatile xdata *)0xff70)
#define PWM7T1L (*(unsigned char volatile xdata *)0xff71)
#define PWM7T2 (*(unsigned int volatile xdata *)0xff72)
#define PWM7T2H (*(unsigned char volatile xdata *)0xff72)
#define PWM7T2L (*(unsigned char volatile xdata *)0xff73)
#define PWM7CR (*(unsigned char volatile xdata *)0xff74)
#define PWM7HLD (*(unsigned char volatile xdata *)0xff75)
//I2C特殊功能寄存器
//如下特殊功能寄存器位于扩展RAM区域
//访问这些寄存器,需先将P_SW2的BIT7设置为1,才可正常读写
#define I2CCFG (*(unsigned char volatile xdata *)0xfe80)
#define ENI2C 0x80
#define MSSL 0x40
#define I2CMSCR (*(unsigned char volatile xdata *)0xfe81)
#define EMSI 0x80
#define I2CMSST (*(unsigned char volatile xdata *)0xfe82)
#define MSBUSY 0x80
#define MSIF 0x40
#define MSACKI 0x02
#define MSACKO 0x01
#define I2CSLCR (*(unsigned char volatile xdata *)0xfe83)
#define ESTAI 0x40
#define ERXI 0x20
#define ETXI 0x10
#define ESTOI 0x08
#define SLRST 0x01
#define I2CSLST (*(unsigned char volatile xdata *)0xfe84)
#define SLBUSY 0x80
#define STAIF 0x40
#define RXIF 0x20
#define TXIF 0x10
#define STOIF 0x08
#define TXING 0x04
#define SLACKI 0x02
#define SLACKO 0x01
#define I2CSLADR (*(unsigned char volatile xdata *)0xfe85)
#define I2CTXD (*(unsigned char volatile xdata *)0xfe86)
#define I2CRXD (*(unsigned char volatile xdata *)0xfe87)
/////////////////////////////////////////////////
#endif

2
source/ctask/task.h
View File

@ -20,7 +20,7 @@
#ifndef _TASK_H_
#define _TASK_H_
#include "../clib/type.h"
#include "../msp/time.h"
#include "../ctask/time.h"
#include "task.h"
#include "tick.h"

4
source/ctask/tick.h
View File

@ -11,7 +11,7 @@
#ifndef __tick_H
#define __tick_H
#include "../clib/Type.h"
#include "../msp/time.h"
#include "../ctask/time.h"
struct _s_nos_tick_
{
@ -44,6 +44,7 @@ extern struct _s_nos_tick_ s_nos_tick;
#define D_Tdelay_Sec(n) (((n)*1000-1) /JIFFIES + 1)
#define D_Tdelay_5ms ((5-1) / JIFFIES + 1)
#define D_Tdelay_10ms ((10-1) / JIFFIES + 1)
#define D_Tdelay_60ms ((60-1) / JIFFIES + 1)
#define D_Tdelay_100ms ((100-1) / JIFFIES + 1)
#define D_Tdelay_200ms ((200-1) / JIFFIES+ 1)
#define D_Tdelay_300ms ((300-1) / JIFFIES + 1)
@ -61,6 +62,7 @@ extern struct _s_nos_tick_ s_nos_tick;
#define D_Tdelay_1h (60 * 60 * HZ)
#define D_Tdelay_1day (24 * 60 * 60 * HZ)
#define D_COUNT_JIFFIES(N) ((N - 1) / JIFFIES + 1)
//必须配对
#define L0_nos_tick10ms_start(start_n) start_n = s_nos_tick.t_50ms

60
source/ctask/time.c
View File

@ -0,0 +1,60 @@
#include "time.h"
#include "../msp/uartx.h"
#define D_TIMER_COUNT(t,clk,timeInUs) (U16)(65536 - 1.0 * (clk) / 1000 * (1.0 * timeInUs / 1000) / t)
//#define D_TIMER_COUNT(t,clk,timeInUs) (U16)(65536 - (clk) / 1000 * timeInUs / 1000 / t)
/*************初始化定时器0由 stc-isp v6.86L定时器计算器生成******************/
void L0_timer0_Init(void)
{
U16 val = D_TIMER_COUNT(12,D_sys_MainFre,D_sys_Jiffies * 1000);
AUXR &= 0x7F; //定时器时钟12T模式
TMOD &= 0xF0; //设置定时器模式
//TL0 = 0x00; //设置定时初值
//TH0 = 0x4C; //设置定时初值
TL0 = val; //设置定时初值
TH0 = val >> 8; //设置定时初值
TF0 = 0; //清除TF0标志
TR0 = 1; //定时器0开始计时
ET0 = 1; //add by cc
}
/******************************END*********************************/
//10---87 10s
/********************** Timer0中断函数************************/
/// 和 L0_timer0_Init 关联,需要配置 bsp_config.h中的 D_sys_MainFre
/// 默认10ms 作为TTSS系统的定时引擎
void timer0_isrHandle (void) D_SERVE_TIMER0
{
U8 i = 0;
NOP(); NOP(); NOP();
TF0 = 0;
#if 0
/// 65535*65535 /3600/24/365=139nian/s=1.39nian/10ms
///相当于1.39年后t_10ms 溢出，对于电池供电的系统而言 完全可以满足
// 4,294,836,225 = 65535*65535 ;3600*24*60*60 = 31,536,000秒/年
s_nos_tick.t_10ms ++;//D_led_D1_REV(); 20160522 验证
#else
//系统时钟
L1_tick_tick(); ///系统中的1sflag 和以10ms为颗粒的延时使用 为tdelay服务
//串口回调
for(i=0; i< SERIAL_MAX_NUM; i++)
{
if(ts_uart[i].tp_handler != NULL)
{
ts_uart[i].tp_handler(ts_uart[i].uartx);
}
}
#endif
/// BITN_1(DR_who_wakeup, DRB_who_wakeup_timer0);
NOP(); NOP(); NOP();
}

0
source/msp/time.h → source/ctask/time.h
View File

138
source/msp/UART0.C
View File

@ -1,74 +1,11 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2015, 传控科技
/// All rights reserved.
///
/// @file main.c
/// @brief main app
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// 修订说明：最初版本
/// Modified by:
/// Modified date:
/// Version:
/// Descriptions:
// 20160413 CC-ACC-VH02
// 连接至 J22 RXD0 TXD0
//P5_DIR &= ~BITN1; //p5.1输出TXD
//P5_DIR |= BITN0; //p5.0输入RXD
//P5_SEL0 &= ~(BITN0 +BITN1); //设置P5.0 P5.1为UART0 RXD TXD
//P5_SEL1 |= BITN0 +BITN1;
/*****************************************************************************
update by cc @201700110
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
clib/clib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/Uprotocol2app
协议到应用
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/urec2protocol: 接收到的数据放入到指向特定协议的缓存中，和协议的格式有关 一般分为 标头式或者标尾式
公用的串口通讯定义
struct _s_uart_rec_ 的公共协议包(关键的结构体)的声明------struct _s_uart_rec_
void L1_uart_2buf(struct _s_uart_rec_ *p)串行数据保存到指向特定协议的缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
L0_UART0_Init
UART0_IRQHandler
L0_Usend_uc------UserDef
-----------------------------------------------------------------------------------------
********************************************************************************/
#include "uart0.h"
#include "../tpc/debug.h"
int g_uart0_send_num = 0;
//发送缓冲区
static volatile Ts_uart_send_buf ts_uart_send_buf;
//接收缓冲区最多存放16个字符，这个值尽量小，但要大于实际处理协议的缓冲区大小
U8 uart0_recv_buf[16];
Ts_uart_recv_buf ts_uart0_recv_buf;
void L0_uart0_init(void)
{
U16 val = D_BRT_COUNT(12,D_sys_MainFre,D_uart0_BRT);
SCON = 0x50; //8位数据,可变波特率
U16 val = D_BRT_COUNT(12, D_sys_MainFre, D_uart0_BRT);
SCON = 0x50; // 8位数据,可变波特率
AUXR &= 0xBF; //定时器时钟12T模式
AUXR &= 0xFE; //串口1选择定时器1为波特率发生器
TMOD &= 0x0F; //设置定时器模式
@ -81,35 +18,31 @@ void L0_uart0_init(void)
void L0_uart0_buf_init(void)
{
//定义发送缓冲区
ts_uart[uNum0].p = &ts_uart_send_buf;
ts_uart[uNum0].p->max = ts_uart[uNum0].p->now = 0;
ts_uart[uNum0].p->ok = D_ready;
ts_uart[uNum0].s.buf = ts_send_buf.s1;
ts_uart[uNum0].s.bufmax = D_send1_max;
ts_uart[uNum0].s.max = ts_uart[uNum0].s.now = 0;
ts_uart[uNum0].s.ok = D_ready;
//定义接收缓冲区
ts_uart[uNum0].t = &ts_uart0_recv_buf;
ts_uart[uNum0].t->buf = uart0_recv_buf;
ts_uart[uNum0].t->head = 0;
ts_uart[uNum0].t->ok = 0;
ts_uart[uNum0].r.buf = ts_recv_buf.r1;
ts_uart[uNum0].r.bufmax = D_recv1_max;
ts_uart[uNum0].r.head = 0;
ts_uart[uNum0].r.ok = 0;
ts_uart[uNum0].r.idle = 1;
ts_uart[uNum0].r.overtime_t = 0;
//定义接收处理协议
// ts_uart[uNum0].tp_handler = L1_s2b_debug; //使用函数指针导致错误
ts_uart[uNum0].tp_handler = NULL; //使用函数指针导致错误
ts_uart[uNum0].tp_handler = L0_uartN_overtime_callback;
ts_uart[uNum0].uartx = uNum0;
//串口定时器及中断初始化
//串口初始化
L0_uart0_init();
D_uart0_ES_INT(1);
#if (D_UART0_485_TYPE != TYPE_485_NONE)
D_UART0_485_RX() //默认处于接收状态
#endif
}
//打开串口中断
D_uart0_ES_INT(1);
void L0_uart0_sendArray(U8 * buf, U16 len)
{
#if (D_UART0_485_TYPE != TYPE_485_NONE)
D_UART0_485_TX() //切换到输出状态
#endif
L0_uartN_sendArray(uNum0,buf,len);
//默认处于接收状态
D_UART0_485_RX()
}
/*************************************************
@ -117,37 +50,28 @@ UART 中断
*************************************************/
void INTERRUPT_UART(void) D_SERVE_UART
{
//NOP(); NOP(); NOP();
if(L0_uart0_IntRI()) //如果是U0接收中断
// NOP(); NOP(); NOP();
if (L0_uart0_IntRI()) //如果是U0接收中断
{
L0_uart0_IntRIClear(); //清除接收中断标志
// ts_uart[uNum0].t->reg = L0_uartN_get(uNum0);
ts_uart[uNum0].t->reg = SBUF;
if(ts_uart[uNum0].tp_handler != NULL){
ts_uart[uNum0].tp_handler(ts_uart[uNum0].t);
}
ts_uart[uNum0].r.reg = SBUF; //获取当前数据
L0_uartN_s2b(uNum0); //接收数据至缓冲区
}
if(L0_uart0_IntTI()) //如果是U0发送中断
if (L0_uart0_IntTI()) //如果是U0发送中断
{
L0_uart0_IntTIClear(); //清除发送中断标志
if(ts_uart[uNum0].p->max != ts_uart[uNum0].p->now)
if (ts_uart[uNum0].s.max > ts_uart[uNum0].s.now)
{
// L0_uartN_set(uNum0,ts_uart[uNum0].p->p[ts_uart[uNum0].p->now]);
SBUF = ts_uart[uNum0].p->p[ts_uart[uNum0].p->now];
ts_uart[uNum0].p->now ++;
SBUF = ts_uart[uNum0].s.p[ts_uart[uNum0].s.now];
ts_uart[uNum0].s.now++;
}
else
{
ts_uart[uNum0].p->ok = D_ready;
ts_uart[uNum0].p->max = 0;
ts_uart[uNum0].p->now = 0;//可以发送下一个数据
#if (D_UART0_485_TYPE != TYPE_485_NONE)
ts_uart[uNum0].s.ok = D_ready;
ts_uart[uNum0].s.max = 0;
ts_uart[uNum0].s.now = 0; //可以发送下一个数据
D_UART0_485_RX() //切换到接收状态
#endif
}
}
//NOP(); NOP(); NOP();
// NOP(); NOP(); NOP();
}

8
source/msp/UART0.h
View File

@ -53,8 +53,7 @@ msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
#ifndef _uart0_H
#define _uart0_H
#include "../bsp/bsp_config.h"
#include "../tpc/modbus.h"
#include "uart_x.h"
#include "uartx.h"
//#include "../tpc/tpc_x.h"
@ -69,7 +68,6 @@ msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
//<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
void L0_uart0_buf_init(void);
void L0_uart0_sendArray(U8 * buf, U16 len);
#define L0_uart0_uc(X) L0_uartN_uc(uNum0,X)
#define L0_uart0_us(X) L0_uartN_us(uNum0,X)
@ -79,10 +77,8 @@ void L0_uart0_sendArray(U8 * buf, U16 len);
#define L0_uart0_ushex(X) L0_uartN_ushex(uNum0,X)
#define L0_uart0_ulhex(X) L0_uartN_ulhex(uNum0,X)
#define L0_uart0_sendstr(buf) L0_uartN_sendstr(uNum0,buf)
#define L0_uart0_sendArray(buf, n) L0_uartN_sendArray(uNum0,buf,n)
#define L0_uart0_sendArrayHex(buf, n) L0_uartN_sendArrayHex(uNum0,buf,n)
extern Ts_uart_recv_buf ts_uart0_recv_buf;
extern int g_uart0_send_num;
#endif //#ifndef _uart0_H

176
source/msp/UART2.c
View File

@ -1,105 +1,45 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2015, 传控科技
/// All rights reserved.
///
/// @file main.c
/// @brief main app
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// 修订说明：最初版本
/// Modified by:
/// Modified date:
/// Version:
/// Descriptions:
// 20160413 CC-ACC-VH02
// 连接至 J22 RXD0 TXD0
//P5_DIR &= ~BITN1; //p5.1输出TXD
//P5_DIR |= BITN0; //p5.0输入RXD
//P5_SEL0 &= ~(BITN0 +BITN1); //设置P5.0 P5.1为UART0 RXD TXD
//P5_SEL1 |= BITN0 +BITN1;
/*****************************************************************************
update by cc @201700110
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
clib/clib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/Uprotocol2app
协议到应用
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/urec2protocol: 接收到的数据放入到指向特定协议的缓存中，和协议的格式有关 一般分为 标头式或者标尾式
公用的串口通讯定义
struct _s_uart_rec_ 的公共协议包(关键的结构体)的声明------struct _s_uart_rec_
void L1_uart_2buf(struct _s_uart_rec_ *p)串行数据保存到指向特定协议的缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
L0_UART0_Init
UART0_IRQHandler
L0_Usend_uc------UserDef
-----------------------------------------------------------------------------------------
********************************************************************************/
#include "uart2.h"
#include "../tpc/debug.h"
//发送缓冲区
static volatile Ts_uart_send_buf ts_uart_send_buf;
//接收缓冲区最多存放16个字符，这个值尽量小，但要大于实际处理协议的缓冲区大小
#define RECV_BUF_SIZE 16
static U8 uart2_recv_buf[RECV_BUF_SIZE];
Ts_uart_recv_buf ts_uart2_recv_buf;
int g_uart2_recv_num = 0;
void L0_uart2_init(void)
{
#if(MainFre_11M == D_sys_MainFre) //115200bps@11.0592MHz
S2CON = 0x50; //8位数据,可变波特率
AUXR |= 0x04; //定时器2时钟为Fosc,即1T
T2L = 0xE8; //设定定时初值
T2H = 0xFF; //设定定时初值
AUXR |= 0x10; //启动定时器2
#elif (MainFre_22M == D_sys_MainFre) //9600bps@22.1184MHz
S2CON = 0x50; //8位数据,可变波特率
AUXR &= 0xFB; //定时器时钟12T模式
T2L = 0xD0; //设置定时初始值
T2H = 0xFF; //设置定时初始值
#if (MainFre_11M == D_sys_MainFre) // 115200bps@11.0592MHz
S2CON = 0x50;
AUXR |= 0x04;
T2L = 0xE8;
T2H = 0xFF;
AUXR |= 0x10;
#elif (MainFre_22M == D_sys_MainFre) // 9600bps@22.1184MHz
S2CON = 0x50; // 8位数据,可变波特率
AUXR |= 0x04; //定时器时钟1T模式
T2L = 0xC0; //设置定时初始值
T2H = 0xFD; //设置定时初始值
AUXR |= 0x10; //定时器2开始计时
#endif
}
void L0_uart2_buf_init(void)
{
//初始化协议发送缓冲区
ts_uart[uNum2].p = &ts_uart_send_buf;
ts_uart[uNum2].p->now = 0;
ts_uart[uNum2].p->ok = D_ready;
//初始化协议接收缓冲区
ts_uart[uNum2].t = &ts_uart2_recv_buf;
ts_uart[uNum2].t->buf = uart2_recv_buf;
ts_uart[uNum2].t->head = 0;
ts_uart[uNum2].t->ok = 0;
//串口协议解析专用字段
ts_uart[uNum2].t->head_0 = 0x60;
ts_uart[uNum2].t->maxnum = RECV_BUF_SIZE;
ts_uart[uNum2].tp_handler = L1_s2b_nfc;
//定义发送缓冲区
ts_uart[uNum2].s.buf = ts_send_buf.s2;
ts_uart[uNum2].s.bufmax = D_send2_max;
ts_uart[uNum2].s.max = ts_uart[uNum2].s.now = 0;
ts_uart[uNum2].s.ok = D_ready;
//定义接收缓冲区
ts_uart[uNum2].r.buf = ts_recv_buf.r2;
ts_uart[uNum2].r.bufmax = D_recv2_max;
ts_uart[uNum2].r.head = 0;
ts_uart[uNum2].r.ok = 0;
ts_uart[uNum2].r.idle = 1;
ts_uart[uNum2].r.overtime_t = 0;
//定义接收处理协议
ts_uart[uNum2].tp_handler = L0_uartN_overtime_callback;
ts_uart[uNum2].uartx = uNum2;
//串口初始化
L0_uart2_init();
@ -107,64 +47,38 @@ void L0_uart2_buf_init(void)
//打开串口中断
D_uart2_ES_INT(1);
#if (D_UART2_485_TYPE != TYPE_485_NONE)
D_UART2_485_RX() //默认处于接收状态
#endif
}
void L0_uart2_sendArray(U8 * buf, U16 len)
{
#if (D_UART2_485_TYPE != TYPE_485_NONE)
D_UART2_485_TX() //切换到输出状态
#endif
L0_uartN_sendArray(uNum2,buf,len);
//默认处于接收状态
D_UART2_485_RX()
}
/*************************************************
UART 中断
*************************************************/
#define D_SERVE_uart2 interrupt 8
void INTERRUPT_uart2(void) D_SERVE_uart2// using 2
void INTERRUPT_uart2(void) D_SERVE_uart2 // using 2
{
NOP(); NOP(); NOP();
if(L0_uart2_IntRI()) //如果是U2接收中断
NOP();NOP();NOP();
if (L0_uart2_IntRI()) //如果是U2接收中断
{
L0_uart2_IntRIClear(); //清除接收中断标志
// ts_uart[uNum2].t->reg = L0_uartN_get(uNum2);
ts_uart[uNum2].t->reg = S2BUF;
if(ts_uart[uNum2].tp_handler != NULL){
ts_uart[uNum2].tp_handler(ts_uart[uNum2].t);
}
ts_uart[uNum2].r.reg = S2BUF; //获取当前数据
L0_uartN_s2b(uNum2); //接收数据至缓冲区
}
if(L0_uart2_IntTI()) //如果是U0发送中断
if (L0_uart2_IntTI()) //如果是U0发送中断
{
L0_uart2_IntTIClear(); //清除发送中断标志
if(ts_uart[uNum2].p->max != ts_uart[uNum2].p->now)
if (ts_uart[uNum2].s.max != ts_uart[uNum2].s.now)
{
// L0_uartN_set(uNum2,ts_uart[uNum2].p->p[ts_uart[uNum2].p->now]);
S2BUF = ts_uart[uNum2].p->p[ts_uart[uNum2].p->now];
ts_uart[uNum2].p->now ++;
S2BUF = ts_uart[uNum2].s.p[ts_uart[uNum2].s.now];
ts_uart[uNum2].s.now++;
}
else
{
ts_uart[uNum2].p->ok = D_ready;
ts_uart[uNum2].p->max = 0;
ts_uart[uNum2].p->now = 0;//可以发送下一个数据
#if (D_UART2_485_TYPE != TYPE_485_NONE)
ts_uart[uNum2].s.ok = D_ready;
ts_uart[uNum2].s.max = 0;
ts_uart[uNum2].s.now = 0; //可以发送下一个数据
D_UART2_485_RX() //切换到接收状态
#endif
}
}
NOP(); NOP(); NOP();
NOP();NOP();NOP();
}

9
source/msp/UART2.h
View File

@ -54,7 +54,7 @@ msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
#define _uart2_H
#include "../bsp/bsp_config.h"
#include "uart_x.h"
#include "uartx.h"
#define uNum2 1
@ -67,7 +67,6 @@ msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
//<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
void L0_uart2_buf_init(void);
void L0_uart2_sendArray(U8 * buf, U16 len);
#define L0_uart2_uc(X) L0_uartN_uc(uNum2,X)
#define L0_uart2_us(X) L0_uartN_us(uNum2,X)
@ -77,10 +76,8 @@ void L0_uart2_sendArray(U8 * buf, U16 len);
#define L0_uart2_ushex(X) L0_uartN_ushex(uNum2,X)
#define L0_uart2_ulhex(X) L0_uartN_ulhex(uNum2,X)
#define L0_uart2_sendstr(buf) L0_uartN_sendstr(uNum2,buf)
#define L1_uart2_uchexArray(buf) L1_uartN_uchexArray(uNum2,buf)
extern Ts_uart_recv_buf ts_uart2_recv_buf;
extern int g_uart2_recv_num;
#define L0_uart2_sendArray(buf, n) L0_uartN_sendArray(uNum2,buf,n)
#define L0_uart2_sendArrayHex(buf, n) L0_uartN_sendArrayHex(uNum2,buf,n)
#endif //#ifndef _uart2_H

139
source/msp/UART3.c
View File

@ -1,73 +1,9 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2015, 传控科技
/// All rights reserved.
///
/// @file main.c
/// @brief main app
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// 修订说明：最初版本
/// Modified by:
/// Modified date:
/// Version:
/// Descriptions:
// 20160413 CC-ACC-VH02
// 连接至 J22 RXD0 TXD0
//P5_DIR &= ~BITN1; //p5.1输出TXD
//P5_DIR |= BITN0; //p5.0输入RXD
//P5_SEL0 &= ~(BITN0 +BITN1); //设置P5.0 P5.1为UART0 RXD TXD
//P5_SEL1 |= BITN0 +BITN1;
/*****************************************************************************
update by cc @201700110
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
clib/clib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/Uprotocol2app
协议到应用
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/urec2protocol: 接收到的数据放入到指向特定协议的缓存中，和协议的格式有关 一般分为 标头式或者标尾式
公用的串口通讯定义
struct _s_uart_rec_ 的公共协议包(关键的结构体)的声明------struct _s_uart_rec_
void L1_uart_2buf(struct _s_uart_rec_ *p)串行数据保存到指向特定协议的缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
L0_UART0_Init
UART0_IRQHandler
L0_Usend_uc------UserDef
-----------------------------------------------------------------------------------------
********************************************************************************/
#include "uart3.h"
#include "../tpc/debug.h"
//发送缓冲区
static volatile Ts_uart_send_buf ts_uart_send_buf;
//接收缓冲区最多存放16个字符，这个值尽量小，但要大于实际处理协议的缓冲区大小
#define RECV_BUF_SIZE 32
static U8 uart3_recv_buf[RECV_BUF_SIZE];
Ts_uart_recv_buf ts_uart3_recv_buf;
int g_uart3_recv_num = 0;
void L0_uart3_init(void)
{
#if(MainFre_11M == D_sys_MainFre) //115200bps@11.0592MHz
#if (MainFre_11M == D_sys_MainFre) //115200bps@11.0592MHz
S3CON = 0x10; //8位数据,可变波特率
S3CON |= 0x40; //串口3选择定时器3为波特率发生器
T4T3M |= 0x02; //定时器3时钟为Fosc,即1T
@ -75,14 +11,6 @@ void L0_uart3_init(void)
T3H = 0xFF; //设定定时初值
T4T3M |= 0x08; //启动定时器3
// #elif (MainFre_22M == D_sys_MainFre) //9600bps@22.1184MHz
// S3CON = 0x10; //8位数据,可变波特率
// S3CON |= 0x40; //串口3选择定时器3为波特率发生器
// T4T3M &= 0xFD; //定时器时钟12T模式
// T3L = 0xD0; //设置定时初始值
// T3H = 0xFF; //设置定时初始值
// T4T3M |= 0x08; //定时器3开始计时
#elif (MainFre_22M == D_sys_MainFre) //115200bps@22.1184MHz
S3CON = 0x10; //8位数据,可变波特率
S3CON |= 0x40; //串口3选择定时器3为波特率发生器
@ -97,22 +25,23 @@ void L0_uart3_init(void)
void L0_uart3_buf_init(void)
{
//初始化协议发送缓冲区
ts_uart[uNum3].p = &ts_uart_send_buf;
ts_uart[uNum3].p->now = 0;
ts_uart[uNum3].p->ok = D_ready;
//初始化协议接收缓冲区
ts_uart[uNum3].t = &ts_uart3_recv_buf;
ts_uart[uNum3].t->buf = uart3_recv_buf;
ts_uart[uNum3].t->head = 0;
ts_uart[uNum3].t->ok = 0;
//定义发送缓冲区
ts_uart[uNum3].s.buf = ts_send_buf.s3;
ts_uart[uNum3].s.bufmax = D_send3_max;
ts_uart[uNum3].s.max = ts_uart[uNum3].s.now = 0;
ts_uart[uNum3].s.ok = D_ready;
//定义接收缓冲区
ts_uart[uNum3].r.buf = ts_recv_buf.r3;
ts_uart[uNum3].r.bufmax = D_recv3_max;
ts_uart[uNum3].r.head = 0;
ts_uart[uNum3].r.ok = 0;
ts_uart[uNum3].r.idle = 1;
ts_uart[uNum3].r.overtime_t = 0;
//串口协议解析专用字段
ts_uart[uNum3].t->head_0 = 0xBB;
ts_uart[uNum3].t->tail_0 = 0x7E;
ts_uart[uNum3].t->maxnum = RECV_BUF_SIZE;
ts_uart[uNum3].tp_handler = L1_s2b_rfid;
ts_uart[uNum3].tp_handler = L0_uartN_overtime_callback;
ts_uart[uNum3].uartx = uNum3;
//串口初始化
L0_uart3_init();
@ -120,17 +49,8 @@ void L0_uart3_buf_init(void)
//打开串口中断
D_uart3_ES_INT(1);
#if (D_UART3_485_TYPE != TYPE_485_NONE)
D_UART3_485_RX() //默认处于接收状态
#endif
}
void L0_uart3_sendArray(U8 * buf, U16 len)
{
#if (D_UART3_485_TYPE != TYPE_485_NONE)
D_UART3_485_TX() //切换到输出状态
#endif
L0_uartN_sendArray(uNum3,buf,len);
//默认处于接收状态
D_UART3_485_RX()
}
/*************************************************
@ -143,30 +63,23 @@ void INTERRUPT_UART3(void) D_SERVE_UART3// using 3
if(L0_uart3_IntRI()) //如果是U3接收中断
{
L0_uart3_IntRIClear(); //清除接收中断标志
// ts_uart[uNum3].t->reg = L0_uartN_get(uNum3);
ts_uart[uNum3].t->reg = S3BUF;
g_uart3_recv_num++;
if(ts_uart[uNum3].tp_handler != NULL){
ts_uart[uNum3].tp_handler(ts_uart[uNum3].t);
}
ts_uart[uNum3].r.reg = S3BUF; //获取当前数据
L0_uartN_s2b(uNum3); //接收数据至缓冲区
}
if(L0_uart3_IntTI()) //如果是U0发送中断
{
L0_uart3_IntTIClear(); //清除发送中断标志
if(ts_uart[uNum3].p->max != ts_uart[uNum3].p->now)
if(ts_uart[uNum3].s.max != ts_uart[uNum3].s.now)
{
// L0_uartN_set(uNum3,ts_uart[uNum3].p->p[ts_uart[uNum3].p->now]);
S3BUF = ts_uart[uNum3].p->p[ts_uart[uNum3].p->now];
ts_uart[uNum3].p->now ++;
S3BUF = ts_uart[uNum3].s.p[ts_uart[uNum3].s.now];
ts_uart[uNum3].s.now ++;
}
else
{
ts_uart[uNum3].p->ok = D_ready;
ts_uart[uNum3].p->max = 0;
ts_uart[uNum3].p->now = 0;//可以发送下一个数据
#if (D_UART3_485_TYPE != TYPE_485_NONE)
ts_uart[uNum3].s.ok = D_ready;
ts_uart[uNum3].s.max = 0;
ts_uart[uNum3].s.now = 0;//可以发送下一个数据
D_UART3_485_RX() //切换到接收状态
#endif
}
}
NOP(); NOP(); NOP();

63
source/msp/UART3.h
View File

@ -1,60 +1,8 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2015, 传控科技
/// All rights reserved.
///
/// @file main.c
/// @brief main app
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// 修订说明：最初版本
/// Modified by:
/// Modified date:
/// Version:
/// Descriptions:
//////////////////////////////////////////////////////////////////////////
/*****************************************************************************
update by cc @201700110
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
clib/clib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/Uprotocol2app
协议到应用
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/urec2protocol: 接收到的数据放入到指向特定协议的缓存中，和协议的格式有关 一般分为 标头式或者标尾式
公用的串口通讯定义
struct _s_uart_rec_ 的公共协议包(关键的结构体)的声明------struct _s_uart_rec_
void L1_uart_2buf(struct _s_uart_rec_ *p)串行数据保存到指向特定协议的缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
L0_uart3_Init
uart3_IRQHandler
L0_Usend_uc------UserDef
-----------------------------------------------------------------------------------------
********************************************************************************/
#ifndef _uart3_H
#define _uart3_H
#include "../bsp/bsp_config.h"
#include "uart_x.h"
#include "uartx.h"
#define uNum3 2
@ -73,7 +21,8 @@ msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
//<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
void L0_uart3_buf_init(void);
void L0_uart3_sendArray(U8 * buf, U16 len);
void FOUR_G_ATEST(void);
#define L0_uart3_uc(X) L0_uartN_uc(uNum3,X)
#define L0_uart3_us(X) L0_uartN_us(uNum3,X)
@ -83,10 +32,8 @@ void L0_uart3_sendArray(U8 * buf, U16 len);
#define L0_uart3_ushex(X) L0_uartN_ushex(uNum3,X)
#define L0_uart3_ulhex(X) L0_uartN_ulhex(uNum3,X)
#define L0_uart3_sendstr(buf) L0_uartN_sendstr(uNum3,buf)
#define L1_uart3_uchexArray(buf) L1_uartN_uchexArray(uNum3,buf)
extern Ts_uart_recv_buf ts_uart3_recv_buf;
extern int g_uart3_recv_num;
#define L0_uart3_sendArray(buf, n) L0_uartN_sendArray(uNum3,buf,n)
#define L0_uart3_sendArrayHex(buf, n) L0_uartN_sendArrayHex(uNum3,buf,n)
#endif //#ifndef _uart3_H

128
source/msp/UART4.C
View File

@ -1,69 +1,7 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2015, 传控科技
/// All rights reserved.
///
/// @file main.c
/// @brief main app
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// 修订说明：最初版本
/// Modified by:
/// Modified date:
/// Version:
/// Descriptions:
// 20160413 CC-ACC-VH02
// 连接至 J22 RXD0 TXD0
//P5_DIR &= ~BITN1; //p5.1输出TXD
//P5_DIR |= BITN0; //p5.0输入RXD
//P5_SEL0 &= ~(BITN0 +BITN1); //设置P5.0 P5.1为uart4 RXD TXD
//P5_SEL1 |= BITN0 +BITN1;
/*****************************************************************************
update by cc @201700110
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
clib/clib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/Uprotocol2app
协议到应用
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/urec2protocol: 接收到的数据放入到指向特定协议的缓存中，和协议的格式有关 一般分为 标头式或者标尾式
公用的串口通讯定义
struct _s_uart_rec_ 的公共协议包(关键的结构体)的声明------struct _s_uart_rec_
void L1_uart_2buf(struct _s_uart_rec_ *p)串行数据保存到指向特定协议的缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
L0_uart4_Init
uart4_IRQHandler
L0_Usend_uc------UserDef
-----------------------------------------------------------------------------------------
********************************************************************************/
#include "uart4.h"
#include "../tpc/debug.h"
//发送缓冲区
static volatile Ts_uart_send_buf ts_uart_send_buf;
//接收缓冲区最多存放16个字符，这个值尽量小，但要大于实际处理协议的缓冲区大小
#define RECV_BUF_SIZE 32
static U8 uart4_recv_buf[RECV_BUF_SIZE];
Ts_uart_recv_buf ts_uart4_recv_buf;
//#define FOSC 11059200L //系统频率
//#define BAUD4 115200 //串口波特率
void L0_uart4_init(void)//115200bps@11.0592MHz
@ -97,38 +35,32 @@ void L0_uart4_init(void)//115200bps@11.0592MHz
void L0_uart4_buf_init(void)
{
//初始化协议发送缓冲区
ts_uart[uNum4].p = &ts_uart_send_buf;
ts_uart[uNum4].p->now = 0;
ts_uart[uNum4].p->ok = D_ready;
//初始化协议接收缓冲区
ts_uart[uNum4].t = &ts_uart4_recv_buf;
ts_uart[uNum4].t->buf = uart4_recv_buf;
ts_uart[uNum4].t->head = 0;
ts_uart[uNum4].t->ok = 0;
//定义发送缓冲区
ts_uart[uNum4].s.buf = ts_send_buf.s4;
ts_uart[uNum4].s.bufmax = D_send4_max;
ts_uart[uNum4].s.max = ts_uart[uNum4].s.now = 0;
ts_uart[uNum4].s.ok = D_ready;
//定义接收缓冲区
ts_uart[uNum4].r.buf = ts_recv_buf.r4;
ts_uart[uNum4].r.bufmax = D_recv4_max;
ts_uart[uNum4].r.head = 0;
ts_uart[uNum4].r.ok = 0;
ts_uart[uNum4].r.idle = 1;
ts_uart[uNum4].r.overtime_t = 0;
//串口协议解析专用字段
ts_uart[uNum4].t->head_0 = 0xAA;
ts_uart[uNum4].t->head_1 = 0x55;
ts_uart[uNum4].t->maxnum = RECV_BUF_SIZE;
ts_uart[uNum4].tp_handler = L1_s2b_rs485;
ts_uart[uNum4].tp_handler = L0_uartN_overtime_callback;
ts_uart[uNum4].uartx = uNum4;
//串口初始化
L0_uart4_init();
D_uart4_ES_INT(1); //打开串口中断
#if (D_UART4_485_TYPE != TYPE_485_NONE)
D_UART4_485_RX() //默认处于接收状态
#endif
}
//打开串口中断
D_uart4_ES_INT(1);
void L0_uart4_sendArray(U8 * buf, U16 len)
{
#if (D_UART4_485_TYPE != TYPE_485_NONE)
D_UART4_485_TX() //切换到输出状态
#endif
L0_uartN_sendArray(uNum4,buf,len);
//默认处于接收状态
D_UART4_485_RX()
}
/*************************************************
@ -143,29 +75,23 @@ void INTERRUPT_uart4(void) D_SERVE_uart4// using 2
if(L0_uart4_IntRI()) //如果是U0接收中断
{
L0_uart4_IntRIClear(); //清除接收中断标志
// ts_uart[uNum4].t->reg = L0_uartN_get(uNum4);
ts_uart[uNum4].t->reg = S4BUF;
if(ts_uart[uNum4].tp_handler != NULL){
ts_uart[uNum4].tp_handler(ts_uart[uNum4].t);
}
ts_uart[uNum4].r.reg = S4BUF; //获取当前数据
L0_uartN_s2b(uNum4); //接收数据至缓冲区
}
if(L0_uart4_IntTI()) //如果是U0发送中断
{
L0_uart4_IntTIClear(); //清除发送中断标志
if(ts_uart[uNum4].p->max != ts_uart[uNum4].p->now)
if(ts_uart[uNum4].s.max != ts_uart[uNum4].s.now)
{
// L0_uartN_set(uNum4,ts_uart[uNum4].p->p[ts_uart[uNum4].p->now]);
S4BUF = ts_uart[uNum4].p->p[ts_uart[uNum4].p->now];
ts_uart[uNum4].p->now ++;
S4BUF = ts_uart[uNum4].s.p[ts_uart[uNum4].s.now];
ts_uart[uNum4].s.now ++;
}
else
{
ts_uart[uNum4].p->ok = D_ready;
ts_uart[uNum4].p->max = 0;
ts_uart[uNum4].p->now = 0;//可以发送下一个数据
#if (D_UART4_485_TYPE != TYPE_485_NONE)
ts_uart[uNum4].s.ok = D_ready;
ts_uart[uNum4].s.max = 0;
ts_uart[uNum4].s.now = 0;//可以发送下一个数据
D_UART4_485_RX() //切换到接收状态
#endif
}
}
//NOP(); NOP(); NOP();

8
source/msp/UART4.h
View File

@ -54,7 +54,7 @@ msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
#define _uart4_H
#include "../bsp/bsp_config.h"
#include "uart_x.h"
#include "uartx.h"
#define uNum4 3
@ -68,7 +68,6 @@ msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
//<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
void L0_uart4_buf_init(void);
void L0_uart4_sendArray(U8 * buf, U16 len);
#define L0_uart4_uc(X) L0_uartN_uc(uNum4,X)
#define L0_uart4_us(X) L0_uartN_us(uNum4,X)
@ -78,9 +77,8 @@ void L0_uart4_sendArray(U8 * buf, U16 len);
#define L0_uart4_ushex(X) L0_uartN_ushex(uNum4,X)
#define L0_uart4_ulhex(X) L0_uartN_ulhex(uNum4,X)
#define L0_uart4_sendstr(buf) L0_uartN_sendstr(uNum4,buf)
#define L1_uart4_uchexArray(buf) L1_uartN_uchexArray(uNum4,buf)
extern Ts_uart_recv_buf ts_uart4_recv_buf;
#define L0_uart4_sendArray(buf, n) L0_uartN_sendArray(uNum4,buf,n)
#define L0_uart4_sendArrayHex(buf, n) L0_uartN_sendArrayHex(uNum4,buf,n)
#endif //#ifndef _uart4_H

240
source/msp/UARTX.c
View File

@ -0,0 +1,240 @@
#include "uartx.h"
TS_uart_reg ts_uart[SERIAL_MAX_NUM] = {0};
TS_send_buf ts_send_buf;
TS_recv_buf ts_recv_buf;
void L0_uartN_set(U8 uartx, U8 x) /*reentrant*/
{
switch (uartx)
{
case 0:
SBUF = (x);
break;
case 1:
S2BUF = (x);
break;
case 2:
S3BUF = (x);
break;
case 3:
S4BUF = (x);
break;
default:
break;
}
}
U8 L0_uartN_get(U8 uartx)
{
U8 x = 0;
switch (uartx)
{
case 0:
x = SBUF;
break;
case 1:
x = S2BUF;
break;
case 2:
x = S3BUF;
break;
case 3:
x = S4BUF;
break;
default:
break;
}
return x;
}
void L0_uartN_485(U8 uartx)
{
switch(uartx)
{
case 0: D_UART0_485_TX(); break;
case 1: D_UART2_485_TX(); break;
case 2: D_UART3_485_TX(); break;
case 3: D_UART4_485_TX(); break;
default: break;
}
}
void L0_waitFree_uartN(U8 uartx)
{
ts_uart[uartx].s.over = 0;
while (ts_uart[uartx].s.ok != D_ready)
{
#if 1 //发送数据特别快时，某些情况下会导致数据发送出错
ts_uart[uartx].s.over++;
if (ts_uart[uartx].s.over > 20000)
{
ts_uart[uartx].s.max = 0;
ts_uart[uartx].s.now = 0;
ts_uart[uartx].s.ok = D_ready;
break;
}
#endif
}
}
void L0_uartN_sendArray(U8 uartx, void *buf, U16 len)
{
U16 i;
if (len == 0)
{
return;
}
L0_waitFree_uartN(uartx);
L0_uartN_485(uartx);
ts_uart[uartx].s.ok = D_clear;
ts_uart[uartx].s.over = 0;
ts_uart[uartx].s.max = len;
ts_uart[uartx].s.now = 1;
if (len <= ts_uart[uartx].s.bufmax)
{
//将参数buf拷贝至内部buf
for (i = 0; i < len; i++)
{
ts_uart[uartx].s.buf[i] = ((U8 *)buf)[i];
}
ts_uart[uartx].s.p = ts_uart[uartx].s.buf;
}
else
{
//不使用内部buf,如果再发送完毕之前,参数buf被回收,发送会出错
ts_uart[uartx].s.p = (U8 *)buf;
}
L0_uartN_set(uartx, ts_uart[uartx].s.p[0]);
}
void L0_uartN_uc(U8 uartx, U8 ww)
{
L0_uartN_sendArray(uartx, &ww, 1);
}
void L0_uartN_us(U8 uartx, vU16 ww)
{
U_U16 uStemp;
uStemp.word = ww;
ts_uart[uartx].s.buf3[0] = uStemp.BYTE2.h;
ts_uart[uartx].s.buf3[1] = uStemp.BYTE2.l;
L0_uartN_sendArray(uartx, ts_uart[uartx].s.buf3, 2);
}
void L0_uartN_ul(U8 uartx, vU32 ww)
{
U_U32 uStemp;
L0_waitFree_uartN(uartx);
uStemp.dWord = ww;
ts_uart[uartx].s.buf3[0] = uStemp.BYTE4.byte0;
ts_uart[uartx].s.buf3[1] = uStemp.BYTE4.byte1;
ts_uart[uartx].s.buf3[2] = uStemp.BYTE4.byte2;
ts_uart[uartx].s.buf3[3] = uStemp.BYTE4.byte3;
L0_uartN_sendArray(uartx, ts_uart[uartx].s.buf3, 4);
}
void L0_uartN_0d0a(U8 uartx)
{
L0_waitFree_uartN(uartx);
ts_uart[uartx].s.buf3[0] = 0x0d;
ts_uart[uartx].s.buf3[1] = 0x0a;
L0_uartN_sendArray(uartx, ts_uart[uartx].s.buf3, 2);
}
void L0_uartN_uchex(U8 uartx, U8 ww)
{
L0_waitFree_uartN(uartx);
ts_uart[uartx].s.buf3[0] = cguHex2Char[D_uc_high(ww)][1];
ts_uart[uartx].s.buf3[1] = cguHex2Char[D_uc_low(ww)][1];
L0_uartN_sendArray(uartx, ts_uart[uartx].s.buf3, 2);
}
void L0_uartN_ushex(U8 uartx, vU16 ww)
{
U_F16 k;
L0_waitFree_uartN(uartx);
k.us = ww;
ts_uart[uartx].s.buf3[0] = cguHex2Char[D_uc_high(k.BYTE2.H)][1];
ts_uart[uartx].s.buf3[1] = cguHex2Char[D_uc_low(k.BYTE2.H)][1];
ts_uart[uartx].s.buf3[2] = cguHex2Char[D_uc_high(k.BYTE2.L)][1];
ts_uart[uartx].s.buf3[3] = cguHex2Char[D_uc_low(k.BYTE2.L)][1];
L0_uartN_sendArray(uartx, ts_uart[uartx].s.buf3, 4);
}
void L0_uartN_ulhex(U8 uartx, U32 ww)
{
U_U32 k;
L0_waitFree_uartN(uartx);
k.dWord = ww;
ts_uart[uartx].s.buf3[0] = cguHex2Char[D_uc_high(k.BYTE4.byte0)][1];
ts_uart[uartx].s.buf3[1] = cguHex2Char[D_uc_low(k.BYTE4.byte0)][1];
ts_uart[uartx].s.buf3[2] = cguHex2Char[D_uc_high(k.BYTE4.byte1)][1];
ts_uart[uartx].s.buf3[3] = cguHex2Char[D_uc_low(k.BYTE4.byte1)][1];
ts_uart[uartx].s.buf3[4] = cguHex2Char[D_uc_high(k.BYTE4.byte2)][1];
ts_uart[uartx].s.buf3[5] = cguHex2Char[D_uc_low(k.BYTE4.byte2)][1];
ts_uart[uartx].s.buf3[6] = cguHex2Char[D_uc_high(k.BYTE4.byte3)][1];
ts_uart[uartx].s.buf3[7] = cguHex2Char[D_uc_low(k.BYTE4.byte3)][1];
L0_uartN_sendArray(uartx, ts_uart[uartx].s.buf3, 8);
}
void L0_uartN_sendstr(U8 uartx, U8 *str)
{
L0_uartN_sendArray(uartx, str, Lc_strlen(str));
}
void L0_uartN_sendArrayHex(U8 uartx, vU8 *buf, U16 n)
{
U16 i;
for (i = 0; i < n; i++)
{
L0_uartN_uchex(uartx, buf[i]);
L0_uartN_uc(uartx, ' ');
}
}
void L0_uartN_s2b(U8 uartx)
{
if(ts_uart[uartx].r.head == 0)
{
ts_uart[uartx].r.head = 1;
ts_uart[uartx].r.ok = 0;
ts_uart[uartx].r.num = 0;
}
else
{
if(ts_uart[uartx].r.num >= ts_uart[uartx].r.bufmax)
{
ts_uart[uartx].r.num = 0;
}
}
ts_uart[uartx].r.buf[ ts_uart[uartx].r.num ] = ts_uart[uartx].r.reg;
ts_uart[uartx].r.num++;
ts_uart[uartx].r.idle = 0;
ts_uart[uartx].r.overtime_t = 0;
}
void L0_uartN_overtime_callback(U8 uartx)
{
if(0 == ts_uart[uartx].r.idle)
{
if(ts_uart[uartx].r.overtime_t >= 2)
{
//设置总线空闲
ts_uart[uartx].r.idle = 1;
ts_uart[uartx].r.head = 0;
ts_uart[uartx].r.overtime_t = 0;
//数据不为空
if(ts_uart[uartx].r.num > 0)
{
/// 接收到的数据结束： 总线空闲+buf非空
// ts_uart[uartx].r.num = 0;
ts_uart[uartx].r.ok = 1;
}
}
ts_uart[uartx].r.overtime_t ++;
}
}

97
source/msp/UARTX.h
View File

@ -0,0 +1,97 @@
#ifndef _uartN_H
#define _uartN_H
#include "../clib/clib.h"
#include "../tpc/tpc_x.h"
#include "../bsp/bsp_config.h"
#define SERIAL_MAX_NUM 4
#define D_UART_send_buf2_max 8 //此处改动会影响L0_uartN_ulhex函数
#define D_uartN_free() (0 == ts_uart_send_buf[uartx].max)
#define D_uartN_busy() (0 != ts_uart_send_buf[uartx].max)
#define D_BRT_COUNT(t,clk,uartBRT) (U16)(65536- (clk / (4 * uartBRT * t)))
/////可以依据实际使用独立定制
#define D_send1_max 64
#define D_send2_max 64
#define D_send3_max 64
#define D_send4_max 64
/////可以依据实际使用独立定制
#define D_recv1_max 64
#define D_recv2_max 64
#define D_recv3_max 64
#define D_recv4_max 64
typedef struct
{
U8 r1[D_recv1_max];
U8 r2[D_recv2_max];
U8 r3[D_recv3_max];
U8 r4[D_recv4_max];
}TS_recv_buf;
typedef struct
{
U8 s1[D_send1_max];
U8 s2[D_send2_max];
U8 s3[D_send3_max];
U8 s4[D_send4_max];
}TS_send_buf;
typedef struct _TS_uart_reg
{
struct
{
vU8 num; //接收到的数目注意数据长度的范围
vU8 *p;
vU16 now; /// 当前buf所在的位置 0------(max-1)
vU16 max; /// 当前buf中数据长度,也就是需要发送的长度
vU32 over; /// 结束等待标志，over累加到某个值时，结束等待
vU8 ok; /// 发送完成标志
vU8 *buf;
vU8 buf3[D_UART_send_buf2_max];
U16 bufmax; ///buf的最大长度
}s;
struct
{
vU8 reg;
vU8 ok; //接收协议ok标志，串口初始化设置为0
vU8 idle; //空闲标志
vU8 overtime_t; //超时溢出的计数器
vU8 head; //接收标志头标志，串口初始化设置0
vU8 num; //协议实际长度
vU8 *buf; ////协议缓冲，由每个串口根据需要的缓冲区大小自己定义
U16 bufmax; ///buf的最大长度
}r;
void (*tp_handler)(U8 uartx);
U8 uartx;
}TS_uart_reg;
extern TS_uart_reg ts_uart[SERIAL_MAX_NUM];
extern TS_send_buf ts_send_buf;
extern TS_recv_buf ts_recv_buf;
extern void L0_uartN_init(U8 uartx);
extern void L0_uartN_set(U8 uartx,U8 x);
extern U8 L0_uartN_get(U8 uartx);
extern void L0_uartN_sendArray(U8 uartx,void *buf,U16 len);
extern void L0_uartN_uc(U8 uartx,U8 ww);
extern void L0_uartN_us(U8 uartx,vU16 ww);
extern void L0_uartN_ul(U8 uartx,vU32 ww);
extern void L0_uartN_0d0a(U8 uartx);
extern void L0_uartN_uchex(U8 uartx, U8 ww);
extern void L0_uartN_ushex(U8 uartx, U16 ww);
extern void L0_uartN_ulhex(U8 uartx, U32 ww);
extern void L0_uartN_sendstr(U8 uartx,U8 *buf);
extern void L0_uartN_sendArrayHex(U8 uartx,vU8 *buf,U16 n);
extern void L0_uartN_s2b(U8 uartx);
extern void L0_uartN_overtime_callback(U8 uartx);
#endif //#ifndef _uartN_H

109
source/msp/time.c
View File

@ -1,109 +0,0 @@
#include "time.h"
#define D_TIMER_COUNT(t,clk,timeInUs) (U16)(65536 - 1.0 * (clk) / 1000 * (1.0 * timeInUs / 1000) / t)
//#define D_TIMER_COUNT(t,clk,timeInUs) (U16)(65536 - (clk) / 1000 * timeInUs / 1000 / t)
/*************初始化定时器0由 stc-isp v6.86L定时器计算器生成******************/
void L0_timer0_Init(void)
{
U16 val = D_TIMER_COUNT(12,D_sys_MainFre,D_sys_Jiffies * 1000);
AUXR &= 0x7F; //定时器时钟12T模式
TMOD &= 0xF0; //设置定时器模式
//TL0 = 0x00; //设置定时初值
//TH0 = 0x4C; //设置定时初值
TL0 = val; //设置定时初值
TH0 = val >> 8; //设置定时初值
TF0 = 0; //清除TF0标志
TR0 = 1; //定时器0开始计时
ET0 = 1; //add by cc
}
//10---87 10s
/********************** Timer0中断函数************************/
/// 和 L0_timer0_Init 关联,需要配置 bsp_config.h中的 D_sys_MainFre
/// 默认10ms 作为TTSS系统的定时引擎
void timer0_isrHandle (void) D_SERVE_TIMER0
{//
NOP(); NOP(); NOP();
TF0 = 0;
#if 0
/// 65535*65535 /3600/24/365=139nian/s=1.39nian/10ms
///相当于1.39年后t_10ms 溢出，对于电池供电的系统而言 完全可以满足
// 4,294,836,225 = 65535*65535 ;3600*24*60*60 = 31,536,000秒/年
s_nos_tick.t_10ms ++;//D_led_D1_REV(); 20160522 验证
#else
L1_tick_tick(); ///系统中的1sflag 和以10ms为颗粒的延时使用 为tdelay服务
#endif
/// BITN_1(DR_who_wakeup, DRB_who_wakeup_timer0);
NOP(); NOP(); NOP();
}
// void L0_timer1_Init() //600微秒@11.0592MHz
// {
// #if 0
// AUXR |= 0x40; //定时器时钟1T模式
// TMOD &= 0x0F; //设置定时器模式
// TL1 = 0x14; //设置定时初值
// TH1 = 0xE6; //设置定时初值
// TF1 = 0; //清除TF1标志
// TR1 = 1; //定时器1开始计时
// ET1 = 1; //add by cc
// #else
// U16 val = D_TIMER_COUNT(1,D_sys_MainFre,600);
// AUXR |= 0x40; //定时器时钟1T模式
// TMOD &= 0x0F; //设置定时器模式
// //TL1 = 0xCD; //设置定时初始值
// //TH1 = 0xD4; //设置定时初始值
// TL1 = val; //设置定时初值
// TH1 = val >>8; //设置定时初值
// TF1 = 0; //清除TF1标志
// TR1 = 1; //定时器1开始计时
// ET1 = 1; //add by cc
// #endif
// }
// void L0_timer1_restart() //600微秒@11.0592MHz
// {
// U16 val = D_TIMER_COUNT(1,D_sys_MainFre,600);
// TR1 = 0; //先关闭，否则会重复中断，起不到resetart效果
// #if 1
// AUXR |= 0x40; //定时器时钟1T模式
// TMOD &= 0x0F; //设置定时器模式
// //TL1 = 0x14; //设置定时初值
// //TH1 = 0xE6; //设置定时初值
// TL1 = val; //设置定时初值
// TH1 = val >>8; //设置定时初值
// TF1 = 0; //清除TF1标志
// TR1 = 1; //定时器1开始计时
// ET1 = 1; //add by cc
// #else
// AUXR |= 0x40; //定时器时钟1T模式
// TMOD &= 0x0F; //设置定时器模式
// TL1 = 0xCD; //设置定时初始值
// TH1 = 0xD4; //设置定时初始值
// TF1 = 0; //清除TF1标志
// TR1 = 1; //定时器1开始计时
// ET1 = 1; //add by cc
// #endif
// }
// void L0_timer1_stop(void)
// {
// TR1 = 0;
// TF1 = 0;
// }
/******************************END*********************************/

213
source/msp/uart_x.c
View File

@ -1,213 +0,0 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2015, 传控科技
/// All rights reserved.
///
/// @file main.c
/// @brief main app
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// 修订说明：最初版本
/// Modified by:
/// Modified date:
/// Version:
/// Descriptions:
// 20160413 CC-ACC-VH02
// 连接至 J22 RXD0 TXD0
//P5_DIR &= ~BITN1; //p5.1输出TXD
//P5_DIR |= BITN0; //p5.0输入RXD
//P5_SEL0 &= ~(BITN0 +BITN1); //设置P5.0 P5.1为UART0 RXD TXD
//P5_SEL1 |= BITN0 +BITN1;
/*****************************************************************************
update by cc @201700110
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
clib/clib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/Uprotocol2app
协议到应用
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/urec2protocol: 接收到的数据放入到指向特定协议的缓存中，和协议的格式有关 一般分为 标头式或者标尾式
公用的串口通讯定义
struct _s_uart_rec_ 的公共协议包(关键的结构体)的声明------struct _s_uart_rec_
void L1_uart_2buf(struct _s_uart_rec_ *p)串行数据保存到指向特定协议的缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
L0_UART0_Init
UART0_IRQHandler
L0_Usend_uc------UserDef
-----------------------------------------------------------------------------------------
********************************************************************************/
#include "uart_x.h"
TS_uart_reg ts_uart[SERIAL_MAX_NUM] = {0};
void L0_uartN_set(U8 uartx,U8 x) /*reentrant*/
{
switch(uartx)
{
case 0:SBUF = (x);break;
case 1:S2BUF = (x);break;
case 2:S3BUF = (x);break;
case 3:S4BUF = (x);break;
default:break;
}
}
U8 L0_uartN_get(U8 uartx)
{
U8 x = 0;
switch(uartx)
{
case 0:x = SBUF; break;
case 1:x = S2BUF;break;
case 2:x = S3BUF;break;
case 3:x = S4BUF;break;
default:break;
}
return x;
}
void L0_waitFree_uartN(U8 uartx)
{
ts_uart[uartx].p->over = 0;
while(ts_uart[uartx].p->ok != D_ready)
{
#if 1 //发送数据特别快时，某些情况下会导致数据发送出错
if(ts_uart[uartx].p->over ++ > 600000)
{
break;
}
#endif
}
}
void L0_uartN_sendArray(U8 uartx,void *buf,U16 len)
{
L0_waitFree_uartN(uartx);
if(len == 0){
return;
}
ts_uart[uartx].p->ok = D_clear;
ts_uart[uartx].p->over = 0;
ts_uart[uartx].p->max = len;
ts_uart[uartx].p->now = 1;
if(len <= D_UART_send_buf_max)
{
//将参数buf拷贝至内部buf
for(ts_uart[uartx].p->num = 0;ts_uart[uartx].p->num < len;ts_uart[uartx].p->num ++)
{
ts_uart[uartx].p->buf[ts_uart[uartx].p->num] = ((U8*)buf)[ts_uart[uartx].p->num];
}
ts_uart[uartx].p->p = ts_uart[uartx].p->buf;
}
else
{
//不使用内部buf,如果再发送完毕之前,参数buf被回收,发送会出错
ts_uart[uartx].p->p = (U8 *)buf;
}
L0_uartN_set(uartx,ts_uart[uartx].p->p[0]);
}
void L0_uartN_uc(U8 uartx,U8 ww)
{
L0_uartN_sendArray(uartx,&ww,1);
}
void L0_uartN_us(U8 uartx,vU16 ww)
{
U_U16 uStemp;
uStemp.word = ww;
ts_uart[uartx].p->buf3[0] = uStemp.BYTE2.h;
ts_uart[uartx].p->buf3[1] = uStemp.BYTE2.l;
L0_uartN_sendArray(uartx,ts_uart[uartx].p->buf3,2);
}
void L0_uartN_ul(U8 uartx,vU32 ww)
{
U_U32 uStemp;
L0_waitFree_uartN(uartx);
uStemp.dWord = ww;
ts_uart[uartx].p->buf3[0] = uStemp.BYTE4.byte0;
ts_uart[uartx].p->buf3[1] = uStemp.BYTE4.byte1;
ts_uart[uartx].p->buf3[2] = uStemp.BYTE4.byte2;
ts_uart[uartx].p->buf3[3] = uStemp.BYTE4.byte3;
L0_uartN_sendArray(uartx,ts_uart[uartx].p->buf3,4);
}
void L0_uartN_0d0a(U8 uartx)
{
L0_waitFree_uartN(uartx);
ts_uart[uartx].p->buf3[0] = 0x0d;
ts_uart[uartx].p->buf3[1] = 0x0a;
L0_uartN_sendArray(uartx,ts_uart[uartx].p->buf3,2);
}
void L0_uartN_uchex(U8 uartx,U8 ww)
{
L0_waitFree_uartN(uartx);
ts_uart[uartx].p->buf3[0] = cguHex2Char[D_uc_high(ww)][1];
ts_uart[uartx].p->buf3[1] = cguHex2Char[D_uc_low (ww)][1];
L0_uartN_sendArray(uartx,ts_uart[uartx].p->buf3,2);
}
void L0_uartN_ushex(U8 uartx,vU16 ww)
{
U_F16 k;
L0_waitFree_uartN(uartx);
k.us = ww;
ts_uart[uartx].p->buf3[0] = cguHex2Char[D_uc_high(k.BYTE2.H)][1];
ts_uart[uartx].p->buf3[1] = cguHex2Char[D_uc_low (k.BYTE2.H)][1];
ts_uart[uartx].p->buf3[2] = cguHex2Char[D_uc_high(k.BYTE2.L)][1];
ts_uart[uartx].p->buf3[3] = cguHex2Char[D_uc_low (k.BYTE2.L)][1];
L0_uartN_sendArray(uartx,ts_uart[uartx].p->buf3,4);
}
void L0_uartN_ulhex(U8 uartx,U32 ww)
{
U_U32 k;
L0_waitFree_uartN(uartx);
k.dWord = ww;
ts_uart[uartx].p->buf3[0] = cguHex2Char[D_uc_high(k.BYTE4.byte0)][1];
ts_uart[uartx].p->buf3[1] = cguHex2Char[D_uc_low (k.BYTE4.byte0)][1];
ts_uart[uartx].p->buf3[2] = cguHex2Char[D_uc_high(k.BYTE4.byte1)][1];
ts_uart[uartx].p->buf3[3] = cguHex2Char[D_uc_low (k.BYTE4.byte1)][1];
ts_uart[uartx].p->buf3[4] = cguHex2Char[D_uc_high(k.BYTE4.byte2)][1];
ts_uart[uartx].p->buf3[5] = cguHex2Char[D_uc_low (k.BYTE4.byte2)][1];
ts_uart[uartx].p->buf3[6] = cguHex2Char[D_uc_high(k.BYTE4.byte3)][1];
ts_uart[uartx].p->buf3[7] = cguHex2Char[D_uc_low (k.BYTE4.byte3)][1];
L0_uartN_sendArray(uartx,ts_uart[uartx].p->buf3,8);
}
void L0_uartN_sendstr(U8 uartx,U8 *str)
{
L0_uartN_sendArray(uartx,str,Lc_strlen(str));
}
void L0_uartN_sendArrayHex(U8 uartx,vU8 *buf,U16 n)
{
U16 i;
for(i=0;i<n;i++)
{
L0_uartN_uchex(uartx,buf[i]);
L0_uartN_uc(uartx,' ');
}
}

120
source/msp/uart_x.h
View File

@ -1,120 +0,0 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2015, 传控科技
/// All rights reserved.
///
/// @file main.c
/// @brief main app
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// 修订说明：最初版本
/// Modified by:
/// Modified date:
/// Version:
/// Descriptions:
//////////////////////////////////////////////////////////////////////////
/*****************************************************************************
update by cc @201700110
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
clib/clib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/Uprotocol2app
协议到应用
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/urec2protocol: 接收到的数据放入到指向特定协议的缓存中，和协议的格式有关 一般分为 标头式或者标尾式
公用的串口通讯定义
struct _s_uart_rec_ 的公共协议包(关键的结构体)的声明------struct _s_uart_rec_
void L1_uart_2buf(struct _s_uart_rec_ *p)串行数据保存到指向特定协议的缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关 缓存发送也放在里面
L0_UART0_Init
UART0_IRQHandler
L0_Usend_uc------UserDef
-----------------------------------------------------------------------------------------
********************************************************************************/
#ifndef _uartN_H
#define _uartN_H
#include "../clib/clib.h"
#include "../tpc/tpc_x.h"
#include "../bsp/bsp_config.h"
#define D_uartN_free() (0 == ts_uart_send_buf[uartx].max)
#define D_uartN_busy() (0 != ts_uart_send_buf[uartx].max)
#define D_BRT_COUNT(t,clk,uartBRT) (U16)(65536- (clk / (4 * uartBRT * t)))
typedef struct _ts_uart_send_buf_
{
vU8 num; //接收到的数目注意数据长度的范围
vU8 *p;
vU16 now; /// 当前buf所在的位置 0------(max-1)
vU16 max; /// 当前buf的最大值,也就是需要发送的长度
vU32 over; /// 结束等待标志，over累加到某个值时，结束等待
vU8 ok; /// 发送完成标志
vU8 buf[D_UART_send_buf_max + 1];
vU8 buf3[D_UART_send_buf2_max];
}Ts_uart_send_buf;
typedef struct _ts_uart_recv_buf_
{//8byte
vU8 reg;
vU8 ok; //接收协议ok标志，串口初始化设置为0
vU8 head; //接收标志头标志，串口初始化设置0
vU8 maxnum; //接收到的数目的最大值，串口初始化设置
vU8 cashe[2];
vU8 head_0;
vU8 head_1;
vU8 tail_0;
vU8 index; //当前下标
vU8 num; //协议实际长度
vU8 *buf; ////协议缓冲，由每个串口根据需要的缓冲区大小自己定义
vU8 *sp;
vU8 *sp2; //备份值，如果协议需要备份，单独提供备份缓冲区
vU8 ocr;
vU8 crc[2];
}Ts_uart_recv_buf;
typedef struct _TS_uart_reg
{
Ts_uart_send_buf *p;
Ts_uart_recv_buf *t;
void (*tp_handler)(Ts_uart_recv_buf *);
}TS_uart_reg;
extern TS_uart_reg ts_uart[SERIAL_MAX_NUM];
extern void L0_uartN_init(U8 uartx);
extern void L0_uartN_set(U8 uartx,U8 x);
extern U8 L0_uartN_get(U8 uartx);
extern void L0_uartN_sendArray(U8 uartx,void *buf,U16 len);
extern void L0_uartN_uc(U8 uartx,U8 ww);
extern void L0_uartN_us(U8 uartx,vU16 ww);
extern void L0_uartN_ul(U8 uartx,vU32 ww);
extern void L0_uartN_0d0a(U8 uartx);
extern void L0_uartN_uchex(U8 uartx, U8 ww);
extern void L0_uartN_ushex(U8 uartx, U16 ww);
extern void L0_uartN_ulhex(U8 uartx, U32 ww);
extern void L0_uartN_sendstr(U8 uartx,U8 *buf);
extern void L0_uartN_sendArrayHex(U8 uartx,vU8 *buf,U16 n);
#endif //#ifndef _uartN_H

476
source/tpc/debug.c
View File

@ -1,268 +1,204 @@
/*****************************************************************************
update by cc @201501101001
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.
// /*****************************************************************************
// update by cc @201501101001
// 针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
// 个需要平衡的事情.
uartcom/uartlib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/uartcom0
和uart相关的通讯协议 com + n
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
// uartcom/uartlib.c:
// 公用的函数 和硬件无关
// 放置串行模式(串口等其他通讯总线类的输出)输出的函数,
// 一些覆盖模式输出的(lcd等固屏输出的)的也可使用
// void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
// -----------------------------------------------------------------------------------------
// uartcom/uartcom0
// 和uart相关的通讯协议 com + n
// 为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/uprotocol: 主要是为 uartcom + n服务的 驱动层到应用层缓存的过度
公用的串口通讯定义
struct _s_protocol_ 的公共协议包(关键的结构体)的声明------struct _s_protocol_
void L1_uart_2buf(struct _s_protocol_ *p)串行数据保存到缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关
L0_UART0_Init
UART0_IRQHandler
L0_Usend_uc----------s_at0
-----------------------------------------------------------------------------------------
********************************************************************************/
// typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
// L3_UARTcom0_exp_protocol 解析应用协议
// -----------------------------------------------------------------------------------------
// uartcom/uprotocol: 主要是为 uartcom + n服务的 驱动层到应用层缓存的过度
// 公用的串口通讯定义
// struct _s_protocol_ 的公共协议包(关键的结构体)的声明------struct _s_protocol_
// void L1_uart_2buf(struct _s_protocol_ *p)串行数据保存到缓冲中
// --------------------------------------------------------------------------------------------
// msp/uartx.c 底层代码 和cpu相关
// L0_UART0_Init
// UART0_IRQHandler
// L0_Usend_uc----------s_at0
// -----------------------------------------------------------------------------------------
// ********************************************************************************/
#include "debug.h"
#include "../clib/clib.h"
//NUM: 0 1 2 3 4
// Fx R1 R2 R3 ocr
// F+从机 R1 R2 R3 校验
//相关功能移动到tpc_fx.c
/// 实践中发现 如果收到多个以0d0a结束的短协议时,如果
/// 协议之间间隔时间太短,ok处理不及时 会出现丢失协议的
/// 的情况,所以 对于短暂的多个协议 应该有一定容量的缓冲
/// 保留 ,同时 处理完协议后,应该清除接收缓冲,否则缓冲
/// 会在自身满了后自动清除
//_s_HRTU_P_rf_
/// _s_HRTU_Pfx_
/// fx 11 22 33 oc -- oc = 11+ 22+33
//buf 0 1 2 3 [4]
//fd 01 02 03 06 fd为头 010203为数据 06为数据校验和(01+02+03)
// //NUM: 0 1 2 3 4
// // Fx R1 R2 R3 ocr
// // F+从机 R1 R2 R3 校验
// //相关功能移动到tpc_fx.c
// /// 实践中发现 如果收到多个以0d0a结束的短协议时,如果
// /// 协议之间间隔时间太短,ok处理不及时 会出现丢失协议的
// /// 的情况,所以 对于短暂的多个协议 应该有一定容量的缓冲
// /// 保留 ,同时 处理完协议后,应该清除接收缓冲,否则缓冲
// /// 会在自身满了后自动清除
// //_s_HRTU_P_rf_
// /// _s_HRTU_Pfx_
// /// fx 11 22 33 oc -- oc = 11+ 22+33
// //buf 0 1 2 3 [4]
// //fd 01 02 03 06 fd为头 010203为数据 06为数据校验和(01+02+03)
//对于连续的多条协议，如果前一条处理不及时，可能会被后一条覆盖
// //对于连续的多条协议，如果前一条处理不及时，可能会被后一条覆盖
void L1_s2b_debug (Ts_uart_recv_buf *p) //reentrant
{
p->ok = 1;
return;
}
//NFC协议：60 20 00 07 10 02 04 00 99 83 33 4E 36
//起始帧：60
//设备ID：20
//数据长度：00 07
//命令：10
//数据：02 04 00 99 83 33 4E
//校验：36 从起始帧到数据字段 [60 20 00 07 10 02 04 00 99 83 33 4E] 的所有字节的依次异或值
void L1_s2b_nfc (Ts_uart_recv_buf *p) //reentrant
{
if (0 == p->head)
{
if (p->head_0 == (p->reg & 0xFF))
{
p->head = 1;
p->buf[0] = p->reg;
p->index = 0;
p->num = p->maxnum;
p->ocr = p->reg;
}
}
else
{
p->buf[++p->index] = p->reg;
if(p->index == 3)
{
//5个字节协议头 + 1校验 + 数据（长度由2、3字节计算）
p->num = 5 + 1 + ((p->buf[2] << 8) | (p->buf[3]));
if(p->num > p->maxnum){
//error
p->head = 0;
p->ok = 0;
return;
}
}
if(p->index < p->num - 1)
{
//计算OCR
p->ocr ^= p->reg;
}
else
{
if(p->ocr == p->buf[p->num-1])
{
if (p->ok != 1)
{
//命令结束，必须有个地方清0，否则无法再次接受报文
p->ok = 1;
}
}
p->head = 0;
}
}
}
//RFID协议：BB 02 22 00 11 D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 EB 98 0C 7E
//帧头：BB
//Type：00命令帧 /01响应帧 /02通知帧
//Command: 07指令桢 /22单次读写 /27多次轮询 /28停止轮询 /0C选择 / B6设置功率
//数据长度：00 11
//数据：D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 [EB 98]
//校验：0C 从Type到数据字段 [02 22 00 11 D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 EB 98] 的所有字节的累加和
//帧尾：7E
void L1_s2b_rfid (Ts_uart_recv_buf *p) //reentrant
{
LED0 ^= 1;
if (0 == p->head)
{
if (p->head_0 == (p->reg & 0xFF))
{
p->head = 1;
p->buf[0] = p->reg;
p->index = 0;
p->num = p->maxnum;
//header字节不算累加和
p->ocr = 0;
}
}
else
{
p->buf[++p->index] = p->reg;
if(p->index == 4)
{
//5个字节协议头 + 1校验 + 1尾字节 + 数据（长度由2、3字节计算）
p->num = 5 + 1 + 1 + ((p->buf[3] << 8) | (p->buf[4]));
if(p->num > p->maxnum){
//error
p->head = 0;
p->ok = 0;
return;
}
}
if(p->index < p->num - 2)
{
//计算OCR
p->ocr += p->reg;
}
else if(p->index == p->num - 1)
{
if((p->buf[p->num - 1] == p->tail_0) && (p->ocr == p->buf[p->num-2]))
{
if (p->ok != 1)
{
//命令结束，必须有个地方清0，否则无法再次接受报文
p->ok = 1;
}
}
p->head = 0;
}
}
}
//485协议：AA 55 00 04 01 10 00 00 15
//FILTER：固定2个字节 AA55
//SLAVEID：固定1个字节，代表从机ID
//CMDER: 固定1个字节，代表命令，每个从机自己定义。
//NUM: 固定2个字节，高字节在前，代表后续DATA的长度（不包括ocr），比如0x0010，代表后续 16个字节
//DATA：（Num 个字节）数据域
//OCR：1个字节，代表校验和， = 从SlaveId开始 - DATA结束的所有字节之和。
void L1_s2b_rs485 (Ts_uart_recv_buf *p) //reentrant
{
// p->ok = 1;
// return;
if (0 == p->head)
{
if (p->head_0 == (p->reg & 0xFF))
{
p->head = 1;
p->buf[0] = p->reg;
p->index = 0;
p->num = p->maxnum;
//header字节不算累加和
p->ocr = 0;
}
}
else
{
p->buf[++p->index] = p->reg;
if(p->index == 4)
{
//1个字节协议头 + 1SlaveId + 1Cmder + 2字节数据长度 + 数据 + 1ocr
p->num = 5 + 1 + ((p->buf[3] << 8) | (p->buf[4]));
if(p->num > p->maxnum){
//error
p->head = 0;
p->ok = 0;
p->index = 0;
return;
}
}
if(p->index < p->num - 1)
{
//计算OCR
p->ocr += p->reg;
}
else if(p->index == p->num - 1)
{
if(p->ocr == p->buf[p->num-1])
{
if (p->ok != 1)
{
//命令结束，必须有个地方清0，否则无法再次接受报文
// LED0 ^= 1;
p->ok = 1;
}
}
p->head = 0;
}
}
}
// void L1_s2b_debug (Ts_uart_recv_buf *p) //reentrant
// {
// p->ok = 1;
// return;
// }
// //NFC协议：60 20 00 07 10 02 04 00 99 83 33 4E 36
// //起始帧：60
// //设备ID：20
// //数据长度：00 07
// //命令：10
// //数据：02 04 00 99 83 33 4E
// //校验：36 从起始帧到数据字段 [60 20 00 07 10 02 04 00 99 83 33 4E] 的所有字节的依次异或值
// void L1_s2b_nfc (Ts_uart_recv_buf *p) //reentrant
// {
// if (0 == p->head)
// {
// if (p->head_0 == (p->reg & 0xFF))
// {
// p->head = 1;
// p->buf[0] = p->reg;
// p->index = 0;
// p->num = p->maxnum;
// p->ocr = p->reg;
// }
// }
// else
// {
// p->buf[++p->index] = p->reg;
// if(p->index == 3)
// {
// //5个字节协议头 + 1校验 + 数据（长度由2、3字节计算）
// p->num = 5 + 1 + ((p->buf[2] << 8) | (p->buf[3]));
// if(p->num > p->maxnum){
// //error
// p->head = 0;
// p->ok = 0;
// return;
// }
// }
// if(p->index < p->num - 1)
// {
// //计算OCR
// p->ocr ^= p->reg;
// }
// else
// {
// if(p->ocr == p->buf[p->num-1])
// {
// if (p->ok != 1)
// {
// //命令结束，必须有个地方清0，否则无法再次接受报文
// p->ok = 1;
// }
// }
// p->head = 0;
// }
// }
// }
// void L1_s2b_rs485 (Ts_uart_recv_buf *p) //reentrant
// //RFID协议：BB 02 22 00 11 D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 EB 98 0C 7E
// //帧头：BB
// //Type：00命令帧 /01响应帧 /02通知帧
// //Command: 07指令桢 /22单次读写 /27多次轮询 /28停止轮询 /0C选择 / B6设置功率
// //数据长度：00 11
// //数据：D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 [EB 98]
// //校验：0C 从Type到数据字段 [02 22 00 11 D5 30 00 E2 00 10 71 00 00 52 9B 09 40 B4 02 EB 98] 的所有字节的累加和
// //帧尾：7E
// void L1_s2b_rfid (Ts_uart_recv_buf *p) //reentrant
// {
// // LED0 ^= 1;
// // p->ok = 1;
// // return;
// LED0 ^= 1;
// if (0 == p->head)
// {
// p->buf[p->index++] = p->reg;
// if(p->index == 2){
// if (p->head_0 == p->buf[0] && p->head_1 == p->buf[1])
// if (p->head_0 == (p->reg & 0xFF))
// {
// p->head = 1;
// p->index = 1;
// p->buf[0] = p->reg;
// p->index = 0;
// p->num = p->maxnum;
// //header字节不算累加和
// p->ocr = 0;
// }
// }
// else
// {
// p->buf[++p->index] = p->reg;
// if(p->index == 4)
// {
// //5个字节协议头 + 1校验 + 1尾字节 + 数据（长度由2、3字节计算）
// p->num = 5 + 1 + 1 + ((p->buf[3] << 8) | (p->buf[4]));
// if(p->num > p->maxnum){
// //error
// p->head = 0;
// p->ok = 0;
// p->index = 0;
// //往前移动一位
// p->buf[p->index++] = p->buf[1];
// return;
// }
// }
// if(p->index < p->num - 2)
// {
// //计算OCR
// p->ocr += p->reg;
// }
// else if(p->index == p->num - 1)
// {
// if((p->buf[p->num - 1] == p->tail_0) && (p->ocr == p->buf[p->num-2]))
// {
// if (p->ok != 1)
// {
// //命令结束，必须有个地方清0，否则无法再次接受报文
// p->ok = 1;
// }
// }
// p->head = 0;
// }
// }
// }
// //485协议：AA 55 00 04 01 10 00 00 15
// //FILTER：固定2个字节 AA55
// //SLAVEID：固定1个字节，代表从机ID
// //CMDER: 固定1个字节，代表命令，每个从机自己定义。
// //NUM: 固定2个字节，高字节在前，代表后续DATA的长度（不包括ocr），比如0x0010，代表后续 16个字节
// //DATA：（Num 个字节）数据域
// //OCR：1个字节，代表校验和， = 从SlaveId开始 - DATA结束的所有字节之和。
// void L1_s2b_rs485 (Ts_uart_recv_buf *p) //reentrant
// {
// // p->ok = 1;
// // return;
// if (0 == p->head)
// {
// if (p->head_0 == (p->reg & 0xFF))
// {
// p->head = 1;
// p->buf[0] = p->reg;
// p->index = 0;
// p->num = p->maxnum;
// //header字节不算累加和
// p->ocr = 0;
// }
// }
// else
// {
// p->buf[++p->index] = p->reg;
// if(p->index == 5)
// if(p->index == 4)
// {
// //2个字节协议头 + 1SlaveId + 1Cmder + 2字节数据长度 + 数据 + 1ocr
// p->num = 6 + 1 + ((p->buf[4] << 8) | (p->buf[5]));
// //1个字节协议头 + 1SlaveId + 1Cmder + 2字节数据长度 + 数据 + 1ocr
// p->num = 5 + 1 + ((p->buf[3] << 8) | (p->buf[4]));
// if(p->num > p->maxnum){
// //error
// p->head = 0;
@ -283,19 +219,83 @@ void L1_s2b_rs485 (Ts_uart_recv_buf *p) //reentrant
// if (p->ok != 1)
// {
// //命令结束，必须有个地方清0，否则无法再次接受报文
// // LED0 ^= 1;
// p->ok = 1;
// }
// }
// p->head = 0;
// p->index = 0;
// }
// }
// }
// // void L1_s2b_rs485 (Ts_uart_recv_buf *p) //reentrant
// // {
// // // LED0 ^= 1;
// // // p->ok = 1;
// // // return;
// // if (0 == p->head)
// // {
// // p->buf[p->index++] = p->reg;
// // if(p->index == 2){
// // if (p->head_0 == p->buf[0] && p->head_1 == p->buf[1])
// // {
// // p->head = 1;
// // p->index = 1;
// // p->num = p->maxnum;
// // p->ocr = 0;
// // }
// // else
// // {
// // p->head = 0;
// // p->ok = 0;
// // p->index = 0;
// // //往前移动一位
// // p->buf[p->index++] = p->buf[1];
// // }
// // }
// // }
// // else
// // {
// // p->buf[++p->index] = p->reg;
// // if(p->index == 5)
// // {
// // //2个字节协议头 + 1SlaveId + 1Cmder + 2字节数据长度 + 数据 + 1ocr
// // p->num = 6 + 1 + ((p->buf[4] << 8) | (p->buf[5]));
// // if(p->num > p->maxnum){
// // //error
// // p->head = 0;
// // p->ok = 0;
// // p->index = 0;
// // return;
// // }
// // }
// // if(p->index < p->num - 1)
// // {
// // //计算OCR
// // p->ocr += p->reg;
// // }
// // else if(p->index == p->num - 1)
// // {
// // if(p->ocr == p->buf[p->num-1])
// // {
// // if (p->ok != 1)
// // {
// // //命令结束，必须有个地方清0，否则无法再次接受报文
// // p->ok = 1;
// // }
// // }
// // p->head = 0;
// // p->index = 0;
// // }
// // }
// // }
/******************************************************************************
** End Of File
******************************************************************************/
// /******************************************************************************
// ** End Of File
// ******************************************************************************/

51
source/tpc/debug.h
View File

@ -38,40 +38,6 @@ typedef struct
vU8 ocr;
}TS_P_debug;
#define TPC_NFC_DAT_MAX 16
typedef struct _tpc_nfc_
{
U8 head;
U8 slaveId;
U8 num[2];
U8 cmd;
U8 buf[TPC_NFC_DAT_MAX];
U8 ocr;
}TPC_NFC;
#define TPC_RFID_DAT_MAX 32
typedef struct _tpc_rfid_
{
U8 head;
U8 type;
U8 cmd;
U8 num[2];
U8 buf[TPC_RFID_DAT_MAX];
U8 ocr;
U8 tail;
}TPC_RFID;
#define TPC_RS485_DAT_MAX 32
typedef struct _tpc_rs485_
{
U8 head[1];
U8 slaveId;
U8 cmd;
U8 num[2];
U8 buf[TPC_RS485_DAT_MAX];
U8 ocr;
}TPC_RS485;
// #define TPC_RS485_DAT_MAX 32
// typedef struct _tpc_rs485_
// {
@ -83,27 +49,10 @@ typedef struct _tpc_rs485_
// U8 ocr;
// }TPC_RS485;
#define TPC_RS485_ACK_DAT_MAX 32
typedef struct _tpc_rs485_ack_
{
U8 head[1];
U8 slaveId;
U8 cmd;
U8 num[2];
U8 buf[TPC_RS485_ACK_DAT_MAX];
U8 ocr;
}TPC_RS485_ACK;
#define D_HETU_FX_buf_max 5 //定长协议 长度为5
#define D_HETU_FX_fi 0x60
extern void L1_s2b_debug(Ts_uart_recv_buf *p);
extern void L1_s2b_nfc (Ts_uart_recv_buf *p);
extern void L1_s2b_rfid (Ts_uart_recv_buf *p);
extern void L1_s2b_rs485 (Ts_uart_recv_buf *p);
extern void L1_s2b_PH1 (Ts_uart_recv_buf *p);// reentrant;
#endif /* end __TPC_DEBUG_H_ */
/*****************************************************************************
** End Of File

64
source/tpc/modbus.c
View File

@ -1,64 +0,0 @@
/*****************************************************************************
update by cc @201501101001
针对多串口 和 单一串口 有区别 每个串口是独立的还是分开的有讲究 程序是复杂的还是软件应用简单是
个需要平衡的事情.d
uartcom/uartlib.c:
公用的函数 和硬件无关
放置串行模式(串口等其他通讯总线类的输出)输出的函数,
一些覆盖模式输出的(lcd等固屏输出的)的也可使用
void Lc_print(void (*L0pf_send_uc)(char ww), char *dat,...)
-----------------------------------------------------------------------------------------
uartcom/uartcom0
和uart相关的通讯协议 com + n
为了适应不同的通讯协议需要不同的uart口来对应 和应用相关
typedef struct _ts_lcm_pro_; 应用协议包的定义? LCM的协议------------
L3_UARTcom0_exp_protocol 解析应用协议
-----------------------------------------------------------------------------------------
uartcom/uprotocol: 主要是为 uartcom + n服务的 驱动层到应用层缓存的过度
公用的串口通讯定义
struct _s_protocol_ 的公共协议包(关键的结构体)的声明------struct _s_protocol_
void L1_uart_2buf(struct _s_protocol_ *p)串行数据保存到缓冲中
--------------------------------------------------------------------------------------------
msp/uartx.c 底层代码 和cpu相关
L0_UART0_Init
UART0_IRQHandler
L0_Usend_uc----------s_at0
-----------------------------------------------------------------------------------------
********************************************************************************/
#include "modbus.h"
#include "../bsp/bsp_config.h"
#include "../ctask/tick.h"
#include "../clib/clib.h"
//MODBUS协议解析函数
//超出D_tp_handle_x_len，不继续保存数据
void L1_s2b_PH4(Ts_uart_recv_buf *p)
{
p->ok = 1;
return;
//p->modbusstmp = D_sys_now;
if(p->head == 0)
{
p->head = 1;
p->maxnum = D_TPC_HANDLER_X_LEN;
p->sp = p->buf;
p->num = 0;
p->sp[p->num++] = p->reg;
}
else
{
if(p->num < p->maxnum)
{
p->sp[p->num++] = p->reg;
}
}
}
/******************************************************************************
** End Of File
******************************************************************************/

114
source/tpc/modbus.h
View File

@ -1,114 +0,0 @@
//////////////////////////////////////////////////////////////////////////
/// COPYRIGHT NOTICE
/// Copyright (c) 2018, 传控科技
/// All rights reserved.
///
/// @file tpc_fsk.c
/// @brief transaction protocol control of fsk
///
///（本文件实现的功能的详述）
///
/// @version 1.1 CCsens technology
/// @author CC
/// @date 20150102
///
///
/// @version 1.2 CCsens technology
/// @author CC
/// @date 20180308
/// @info 整理
//
//////////////////////////////////////////////////////////////////////////
#ifndef __TPC_MODBUS_H_
#define __TPC_MODBUS_H_
#include "tpc_x.h"
//<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<<
/**
* 用户协议
*/
enum MODBUS_OPER
{
MODBUS_OPER_READ = 0x03,
MODBUS_OPER_READCONFIG = 0x04,
MODBUS_OPER_WRITE = 0x06,
MODBUS_OPER_WRITE_M = 0x10,
MODBUS_OPER_ERR = 0x8F,
};
//协议类型: MODBUS RTU模式
//#define D_s_PH4_modbus_max (128)
//#define D_s_PH4_modbus_max (64)
#define D_s_modbus_min 4 //modbus协议的最小长度
typedef struct ts_ph4_modbus
{
U8 slaver; //从机地址
U8 oper; //功能码
U8 buf[D_TPC_HANDLER_X_LEN + 8];
U8 crc[2];
}TS_PH4_modbus;
typedef struct s_modbus_03_ack
{
U8 bytes;
U8 buf[D_TPC_HANDLER_X_LEN-1];
}Modbus03Ack;
typedef struct s_modbus_06_ack
{
U16 reg;
U16 val;
}Modbus06Ack;
typedef struct s_modbus_10_ack
{
U16 reg;
U16 num;
}Modbus10Ack;
typedef struct
{
U16 slaver;
U16 oper;
U16 reg;
U16 regnum;
U16 bytes;
U8 *buf;
U16 mask;
}MD_SLAVER_INFO;
#if 0
typedef struct
{
U8 reg;
U8 slaver; //对于主设备，slaver代表当前轮询的包的id，主设备每次轮询时，总是应该将slaver设置为轮询到的从设备id；对于从设备，slaver总是等于slaverId
U8 max; //接收到的数目的最大值
vU8 head; //接收标志头标志
vU8 ok; //接收协议ok标志
vU8 num;
vU8 *sp;
U8 buf[D_s_PH4_modbus_max + 8];
vU8 crc[2];
vU32 modbusstmp;
}TS_Handle_PH4;
#endif
extern U8 L3_pack_modbus(TS_PH4_modbus *pmodbus, MD_SLAVER_INFO *slaver_info);
//extern U8 L3_pack_modbusack(TS_PH4_modbus *pmodbus ,U8 slaver, U8 oper, U8 bufsize);
extern U16 L3_modbus_slaver_ack(TS_PH4_modbus *pmodbus,TS_PH4_modbus *pModbusAck);
extern void L3_modbus_master_handler(TS_PH4_modbus *pmodbus,MD_SLAVER_INFO *p_slaver_info);
extern void L1_s2b_PH4(Ts_uart_recv_buf *p);
extern void L1_modbus_split(Ts_uart_recv_buf *p);
#endif /* end __TPC_UART_H_ */
/*****************************************************************************
** End Of File
******************************************************************************/

2
source/tpc/tpc_x.h
View File

@ -3,6 +3,6 @@
#include "../bsp/bsp_config.h"
#include "../clib/type.h"
#include "../msp/uart_x.h"
#include "../msp/UARTX.h"
#endif

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