基于单片机的养牛场远程控制系统

设计说明书展示

 

基于单片机的养牛场远程控制系统

在当今的养牛业中,传统的养殖管理方式逐渐难以满足规模化、精细化的需求。多数养牛场仍依赖人工定时定点进行饲料投喂、环境监测等工作,存在着信息获取不及时、调控不精准以及难以远程操作等不足,这不仅耗费人力,还可能影响牛的生长环境与健康状况。

基于此,设计一款基于单片机的养牛场远程控制系统显得尤为重要。该系统通过单片机主控电路,集成远程通信、多种环境参数及投喂量检测等电路,并搭配相应控制程序,实现软硬件协同。上位机负责远程通信协议制定、参数设置与信息监测显示;下位机完成各类实际数据检测并依结果处理。其具备高精度的温度、湿度、饲料投喂量等检测及控制能力,还能在环境异常时让相关设备协同工作,可有效提升养牛场管理的智能化与自动化水平,推动养牛业高效发展。

 

关键词:养牛场;单片机;养殖管理;远程通信

 

Microcontroller-based cattle farm remote control system

ABSTRACT

In today's cattle industry, traditional breeding management methods are gradually difficult to meet the needs of scale and refinement. Most cattle farms still rely on manual feeding and environmental monitoring at regular and fixed points, and there are shortcomings such as untimely information acquisition, inaccurate regulation and control, and difficulty in remote operation, which not only consumes manpower, but may also affect the growth environment and health status of cattle.

Based on this, it is particularly important to design a remote control system for cattle farms based on microcontrollers. The system integrates remote communication, a variety of environmental parameters and feeding detection circuits through the main control circuit of the microcontroller, and is matched with corresponding control programs to achieve software and hardware collaboration. The host computer is responsible for remote communication protocol formulation, parameter setting, and information monitoring and display. The lower computer completes all kinds of actual data detection and processes according to the results. It has high-precision detection and control capabilities such as temperature, humidity, feed feeding, etc., and can also allow related equipment to work together when the environment is abnormal, which can effectively improve the intelligence and automation level of cattle farm management and promote the efficient development of the cattle industry.

 

KEY WORDS: Cattle ranch; Microcontroller; Breeding managementRemote communication

 

目 录

1绪论.............................................. 1

1.1 研究背景与意义........................ 1

1.2 国内外研究现状........................ 1

1.3 研究内容与方法........................ 2

1.4 论文章节安排............................. 3

2系统总体分析............................. 4

2.1 系统总体框图............................. 4

2.2系统主控方案选型...................... 5

2.3显示模块选择............................... 6

2.4温湿度模块选择........................... 7

2.5通信模块选择............................... 7

3系统电路设计............................. 9

3.1 系统总体电路组成.................... 9

3.2 主控电路设计............................. 9

3.3 电源电路设计.......................... 12

3.4 电机电路设计............................ 12

3.5 N-MOS管电路设计.................. 13

3.6 称重模块电路设计................... 14

4系统软件设计........................... 15

4.1 系统软件介绍.......................... 15

4.2 主程序流程图.......................... 15

4.3按键函数流程设计.................... 19

4.4显示函数流程设计.................... 20

4.5处理函数流程图........................ 22

5实物调试.................................... 25

5.1 整体实物构成.......................... 25

5.2 显示功能测试.......................... 26

5.3 相关参数设置测试.................. 27

5.4手机控制测试............................. 28

6软件调试.................................... 30

6.1 软件介绍................................... 30

6.2 串口功能测试.......................... 30

6.3 相关参数设置测试.................. 31

7总结............................................ 33

参考文献.................................................. 34

致谢.......................................................... 35

 

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