利用超声波雾化器研制基于AVR ATmega8的温室湿度控制系统

A. Shweta, C. P. Sumaiyya, S. K. Tilekar
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引用次数: 0

摘要

干湿参数相对湿度(RH)在维持温室环境中起着关键作用,RH必须在60% RH到80% RH的范围内。研究人员提出了各种基于处理器的电子系统以及基于微控制器的嵌入式系统,用于监测和控制温室环境的相对湿度(RH)。我们还发现,精确可靠的嵌入式系统是非常需要的。为此,本文尝试设计和开发一种先进的微控制器——基于高级虚拟精简指令集计算机(AVR)的相对湿度监测与控制系统。AVR的ATmega8是一个芯片上的8位微型计算机。它采用精简指令集计算机(RISC)-哈佛架构,因此它比其他微控制器具有更有前途的特性-低功耗,六种睡眠模式,内置模数转换器(ADC),快速串行通信,可编程看门狗定时器和独立的片上振荡器等。rh相关数据由精确的温度补偿传感器模块SY-HS- 220感测,该模块为电容式,电流消耗小于3 mA。数字读数由智能16x2液晶显示(LCD)模块保证。通过部署冷却风扇和雾化器,将继电器电路布线以保持湿度在规定范围内。该固件是使用Code Vision AVR集成开发环境(IDE)在嵌入式C语言中开发的。这个嵌入式系统被校准和标准化到一个科学单位,相对湿度(RH%)。本文描述了整个系统的开发、实现和研究结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Utilization of ultrasonic fogger for the development of AVR ATmega8 based humidity control system for greenhouse applications
The psychrometric parameter, Relative Humidity (RH), plays a key role in maintaining the greenhouse environment, where RH must be necessarily within the range of 60% RH to 80% RH. The investigators have presented various processorbased electronic systems as well as embedded systems based on microcontrollers for monitoring and controlling the Relative Humidity (RH) of greenhouse environments. It was also found that precise and reliable embedded systems are in great need. Therefore, an attempt is made to design and develop an advanced microcontroller—the Advanced Virtual Reduced Instruction Set Computer (AVR)—based monitoring and controlling system for relative humidity. AVR's ATmega8 is an 8-bit tiny computer on a chip. It has Reduced Instruction Set Computer (RISC)-Harvard architecture, so it has more promising features—low power consumption, six sleep modes, an inbuilt Analog to Digital Converter (ADC), fast serial communication, a programmable watchdog timer with a separate on-chip oscillator, etc.—than those of other microcontrollers. The RH-dependent data is sensed by the precise temperature-compensated sensor module, SY-HS- 220, which is capacitive type and exhibits a current consumption of less than 3 mA. The digital readout is ensured by a smart 16x2 Liquid Crystal Display (LCD) module. The relay circuits are wired to maintain the humidity within the prescribed range by deploying a cooling fan and fogger. The firmware is developed in embedded C using the Code Vision AVR Integrated Development Environment (IDE). This embedded system under investigation is calibrated and standardised to a scientific unit, relative humidity (RH%). The complete development, implementation, and results of the system under investigation are depicted in this paper.
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