这是一个基于单片机制作万年历相关的论文含原理图代码等，希望和大家一起分享

ID:297378 · 发表于 2018-3-27 22:26

论文下载：

基于51单片机的电子万年历毕业论文设计.doc (1.49 MB, 下载次数: 11)

电路原理图如下：

设计主程序：
/*
* 万年历
*/
#include "main.h"
#include "LCD.h"
#include "DS1302.h"
#include "word.h"
#include "lunar_calendar.h"
#include "buzz.h"
TIME time, tmp_time;
ALARM alarm;
bit Alarm_flag=0;
bit Clock_flag=0;
bit flag=0;
sbit DQ=P2^6; //DS18B20 pin
//-----------------18B20-----------------------
unsigned char L_18B20,H_18B20,zhengshu,shangwen,xiawen;
unsigned int fg=0,xiaoshu_a;
//-----------------18B20----------------------
//-------------音乐-----------------------------
uint8 code SONG_TONE[]=
{
212,212,190,212,159,169,212,212,190,212,142,159,212,212,106,126,129,169,190,119,119,126,159,142,159,0
};
uint8 code SONG_LONG[]=
{
9,3,12,12,12,24,9,3,12,12,12,24,9,3,12,12,12,12,12,9,3,12,12,12,24,0
};
//------------------------------------------------------------
void delay(uint16 n)
{
while (n--);
}
//************************************************************************/
// 函数: LCD_Delay()
// 描述: 延时t ms函数
// 参数: t
// 返回: 无
// 备注: 11.0592MHZ t=1延时时间约1ms
// 版本: 2011/01/01 First version
//************************************************************************/
void Delay_nms(unsigned int t)
{
unsigned int i,j;
for(i=0;i<t;i++)
for(j=0;j<113;j++)
;
}
/////////////////////////////////////////////////
//-----------播放音乐----------------------------
void PlayMusic()
{
uint16 i =0,j,k;
while(SONG_LONG[i]!=0||SONG_TONE[i]!=0)
{
for(j=0;j<SONG_LONG[i]*20;j++)
{
BEEP = ~BEEP;
for(k=0;k<SONG_TONE[i]/3;k++);
}
Delay_nms(10);
i++;
}
BEEP =1;//关闭蜂鸣器
}
/////////////////////////////////////////////////
/*------DS18B20------*/
void delay_18B20(unsigned int i)
{
while(i--);
}
/*DS18B20的复位脉冲主机通过拉低单总线至少480us以产生复位脉冲
然后主机释放单总线并进入接收模式此时单总线电平被拉高
DS18B20检测到上升沿后延时15～60us，拉低总线60～240us产生应答脉冲 */
void Init_DS18B20(void)
{
unsigned char x=0;
DQ = 1; //DQ复位
delay_18B20(8); //稍做延时
DQ = 0; //单片机将DQ拉低
delay_18B20(80); //精确延时大于 480us
DQ = 1; //拉高总线
delay_18B20(14);
x=DQ; //稍做延时后如果x=0则初始化成功 x=1则初始化失败
delay_18B20(20);
}
/*写时隙主机在写1时隙向DS18B20写入1，在写0时隙向DS18B20写入0
所有写时隙至少需要60us，且在两次写时隙之间至少需要1us的恢复时间
两种写时隙均以主机拉低总线开始
产生写1时隙：主机拉低总线后，必须在15us内释放总线，由上拉电阻拉回至高电平
产生写0时隙：主机拉低总线后，必须整个时隙保持低电平 */
void WriteOneChar(unsigned char dat)
{
unsigned char i=0;
for (i=8; i>0; i--)
{
DQ = 0;
DQ = dat&0x01;
delay_18B20(5);
DQ = 1;
dat>>=1;
}
}
/*所有读时隙至少60us 且两次独立的读时隙之间至少需要1us的恢复时间
每次读时隙由主机发起，拉低总线至少1us。
若传1，则保持总线高电平；若发送0，则拉低总线
传0时DS18B20在该时隙结束时释放总线，再拉回高电平状态，主机必须在读时隙开始后的15us内释放总线，并保持采样总线状态 */
unsigned char ReadOneChar(void)
{
unsigned char i=0;
unsigned char dat = 0;
for (i=8;i>0;i--)
{
DQ = 0; // 给脉冲信号
dat>>=1;
DQ = 1; // 给脉冲信号
if(DQ)
dat|=0x80;
delay_18B20(4);
}
return(dat);
}
void read_18B20(void)
{
Init_DS18B20();
WriteOneChar(0xCC); // 跳过读序号列号的操作
WriteOneChar(0x44); // 启动温度转换
delay_18B20(100); // this message is wery important
Init_DS18B20();
WriteOneChar(0xCC); //跳过读序号列号的操作
WriteOneChar(0xBE); //读取温度寄存器等（共可读9个寄存器）前两个就是温度
delay_18B20(100);
L_18B20=ReadOneChar(); //读取低八位数据
H_18B20=ReadOneChar(); //读取高八位数据
zhengshu=L_18B20/16+H_18B20*16; //整数部分
xiaoshu_a=(L_18B20&0x0f)*10/16; //小数第一位
}
//------------------DS18B20---------------------
/////////////////////////////////////////////////
/*
* 按键扫描
*/
int8 scan_key(void)
{
int8 val=-1;
if (KeyIn1 == 0)
{
val = 1;
while (KeyIn1 == 0);
}
else if (KeyIn2 == 0)
{
val = 2;
while (KeyIn2 == 0);
}
else if (KeyIn3 == 0)
{
val = 3;
while (KeyIn3 == 0);
}
//if (val > 0)
//buzzer_sound();
return val;
}
/*
* 主界面框架
*/
void main_frame(void)
{
play32(80, 2, 10);
play32(32, 2, 10);
play8(16, 0, S_xie);
play8(40, 0, S_xie);
// play8(96, 0, RH);
// play8(120, 0, S_percent);
play8(120, 6, S_du);
}
/*
* 主界面
*/
void main_show(bit refresh)
{
uint8 lunar[2];
if (refresh)
read_time((uint8 *)&time);
// 时间
if (refresh || (time.sec != tmp_time.sec)) // 秒更新
{
tmp_time.sec = time.sec;
// 温湿度
play8_num(104, 6,zhengshu); //温度显示
play32_num(96, 2, time.sec);
}
if (refresh)
main_frame();
if (refresh || (time.min != tmp_time.min)) // 分更新
{
if (!refresh)
flag = 0;
tmp_time.min = time.min;
play32_num(48, 2, time.min);
}
if (refresh || (time.hour != tmp_time.hour)) // 时更新
{
if ((!refresh)&&(Clock_flag))
alarm_sound();
tmp_time.hour = time.hour;
play32_num(0, 2, time.hour);
}
if (refresh || (time.day != tmp_time.day)) // 日更新
{
tmp_time.day = time.day;
play8_num(48, 0, time.day);
// 农历
turn_lunar_calendar(&time, lunar);
play_lunar_calendar(0, 6, lunar[0], lunar[1]);
}
if (refresh || (time.week != tmp_time.week)) // 周更新
{
tmp_time.week = time.week;
play_week(68, 0, time.week);
}
if (refresh || (time.mon != tmp_time.mon)) // 月更新
{
tmp_time.mon = time.mon;
play8_num(24, 0, time.mon);
// 农历
turn_lunar_calendar(&time, lunar);
play_lunar_calendar(0, 6, lunar[0], lunar[1]);
}
if (refresh || (time.year != tmp_time.year)) // 年更新
{
tmp_time.year = time.year;
play8_num(0, 0, time.year);
// 农历
turn_lunar_calendar(&time, lunar);
play_lunar_calendar(0, 6, lunar[0], lunar[1]);
}
}
/*
* 主机界面设置
*/
void main_set(void)
{
int8 key_val, state=1;
play32_num(96, 2|0x80, time.sec);
while (1)
{
key_val = scan_key();
if (key_val == 1) // 设置
{
if (state >= 7)
state = 0;
else
state++;
set_time((uint8 *)&time);
main_show(1);
switch (state)
{
case 0: set_time((uint8 *)&time); break;
case 1: play32_num(96, 2|0x80, time.sec); break;
case 2: play32_num(48, 2|0x80, time.min); break;
case 3: play32_num(0, 2|0x80, time.hour); break;
case 4: play_week(68, 0|0x80, time.week); break;
case 5: play8_num(48, 0|0x80, time.day); break;
case 6: play8_num(24, 0|0x80, time.mon); break;
case 7: play8_num(0, 0|0x80, time.year); break;
default: break;
}
}
else if (key_val > 1)
{
if (state == 1)
{
if (key_val == 3)
time.sec++;
else
time.sec--;
if (time.sec >= 60)
time.sec = 0;
else if (time.sec < 0)
time.sec = 59;
play32_num(96, 2|0x80, time.sec);
}
else if (state == 2)
{
if (key_val == 3)
time.min++;
else
time.min--;
if (time.min >= 60)
time.min = 0;
else if (time.min < 0)
time.min = 59;
play32_num(48, 2|0x80, time.min);
}
else if (state == 3)
{
if (key_val == 3)
time.hour++;
else
time.hour--;
if (time.hour >= 24)
time.hour = 0;
else if (time.hour < 0)
time.hour = 23;
play32_num(0, 2|0x80, time.hour);
}
else if (state == 4)
{
if (key_val == 3)
time.week++;
else
time.week--;
if (time.week >= 8)
time.week = 1;
else if (time.week < 1)
time.week = 7;
play_week(68, 0|0x80, time.week);
}
else if (state == 5)
{
if (key_val == 3)
time.day++;
else
time.day--;
if (time.day >= 32)
time.day = 1;
else if (time.day < 1)
time.day = 31;
play8_num(48, 0|0x80, time.day);
}
else if (state == 6)
{
if (key_val == 3)
time.mon++;
else
time.mon--;
if (time.mon >= 13)
time.mon = 1;
else if (time.mon < 1)
time.mon = 12;
play8_num(24, 0|0x80, time.mon);
}
else if (state == 7)
{
if (key_val == 3)
time.year++;
else
time.year--;
if (time.year >= 100)
time.year = 0;
else if (time.year < 0)
time.year = 99;
play8_num(0, 0|0x80, time.year);
}
else
{
break;
}
}
if (state == 0)
break;
}
}
/*
* 闹钟界面显示
*/
void alarm_show(void)
{
int8 key_val, state=1;
uint32 t=0;
play16(0, 0, nao);
play16(16, 0, zhong);
play16(32, 0, maohao);
if (Alarm_flag)
play16(48, 0, kai);
else
play16(48, 0, guan);
play32_num(32, 2, alarm.hour);
play32(64, 2, 10);
play32_num(80, 2, alarm.min);
play16(0, 6, zheng);
play16(16, 6, dian);
play16(32, 6, bao);
play16(48, 6, shi);
play16(64, 6, maohao);
if (Clock_flag)
play16(80, 6, kai);
else
play16(80, 6, guan);
for (t=0; t<30000; t++)
{
key_val = scan_key();
if (key_val > 1)
break;
else if (key_val == 1)
{
if (Alarm_flag)
play16(48, 0|0x80, kai);
else
play16(48, 0|0x80, guan);
while (1)
{
key_val = scan_key();
if (key_val == 1) // 完成设置
{
if (state >= 4)
state = 0;
else
state++;
if (Alarm_flag)
play16(48, 0, kai);
else
play16(48, 0, guan);
play32_num(32, 2, alarm.hour);
play32_num(80, 2, alarm.min);
if (Clock_flag)
play16(80, 6, kai);
else
play16(80, 6, guan);
switch (state)
{
case 1:
if (Alarm_flag)
play16(48, 0|0x80, kai);
else
play16(48, 0|0x80, guan);
break;
case 2:
play32_num(80, 2|0x80, alarm.min);
break;
case 3:
play32_num(32, 2|0x80, alarm.hour);
break;
case 4:
if (Clock_flag)
play16(80, 6|0x80, kai);
else
play16(80, 6|0x80, guan);
break;
default: break;
}
}
else if (key_val > 1)
{
if (state == 1)
{
Alarm_flag = ~Alarm_flag;
if (Alarm_flag)
play16(48, 0|0x80, kai);
else
play16(48, 0|0x80, guan);
}
else if (state == 2)
{
if (key_val == 3)
alarm.min++;
else
alarm.min--;
if (alarm.min >= 60)
alarm.min = 0;
else if (alarm.min < 0)
alarm.min = 59;
play32_num(80, 2|0x80, alarm.min);
}
else if (state == 3)
{
if (key_val == 3)
alarm.hour++;
else
alarm.hour--;
if (alarm.hour >= 24)
alarm.hour = 0;
else if (alarm.hour < 0)
alarm.hour = 23;
play32_num(32, 2|0x80, alarm.hour);
}
else if (state == 4)
{
Clock_flag = ~Clock_flag;
if (Clock_flag)
play16(80, 6|0x80, kai);
else
play16(80, 6|0x80, guan);
}
else
{
break;
}
}
if (state == 0)
break;
}
if (state == 0)
break;
}
}
}
main()
{
uint8 key_val;
read_18B20(); //读温度
Delay_nms(1000);//延时1S,等待18B20工作正常
LCD_init(); //初始化液晶
clear12864(); //清屏幕
main_frame(); //显示主界面框架
main_show(1); //刷新1次
read_18B20(); //读温度
play8_num(104, 6,zhengshu); //显示温度
while(1)
{
key_val = scan_key();
if (key_val == 1) //K1？
{
main_set();
}
else if (key_val == 2) //K2？
{
clear12864(); //清屏幕
alarm_show();
clear12864(); //清屏幕
main_show(1);
}
else if (key_val == 3) //K3？
{
clear12864(); //清屏幕
alarm_show();
clear12864(); //清屏幕
main_show(1);
}
else
{
read_time((uint8 *)&time);
main_show(0);
if((time.sec%2)==0){read_18B20();} //每隔2S采集一次
}
// 闹钟
if (Alarm_flag)
{
if ((flag == 0) && (alarm.hour == time.hour) && (alarm.min == time.min))
{
flag = 1;
clear12864(); //清屏幕
alarm_show(); //闹钟
PlayMusic(); //播放音乐
PlayMusic(); //播放音乐
clear12864(); //清屏幕
main_show(1); //
}
}
}
}

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这是一个基于单片机制作万年历相关的论文 含原理图 代码等，希望和大家一起分享

这是一个基于单片机制作万年历相关的论文含原理图代码等，希望和大家一起分享