智慧型鋰離子電池無線監測管理系統設計與實作之研究

本研究之主要目的為完成『智慧型鋰離子電池無線監測管理系統設計與實作』，本系統包含回授電路、微處理機、脈衝增強電路、升降壓轉換電路、無線監測系統與Boston Sonata 4400鋰離子電池。主要使用定電流轉定電壓模式進行充電，使電池能快速而又在不傷電池壽命的情況下充電調整，在放電模式改變不同脈衝控制，使LED燈能改變不同的亮度。本系統使用ATmega328作為微處理機，依靠回授電路的資訊自動調變脈衝，達到自動化控制升降壓電路充放電速率的功能，最後可經由無線監測系統進行電池的遠端監測。

關鍵字

鋰離子電池；定電流轉定電壓；電池管理系統；遠端監測；無線傳輸

並列摘要

The main purpose of this study, the Design and Realization of a Wireless Lithium-ion Battery Monitoring Management System, is accomplished. This system is composed of feedback circuits, a microcontroller, pulse-width modulated (PWM) boost circuits, a boost and buck converter, a wireless monitoring system and a Boston Sonata 4400. The battery can be quickly and without injury the battery life by using the constant current to constant voltage charging method. The LED light can use different luminance values by changing the PWM signal to control in discharge mode. The system uses a microcontroller by ATmega328. By the feedback circuits, the microcontroller can automatically regulate the PWM signal to change the charging and discharging rates of the boost and buck converter. Finally, the battery can be managed via a wireless monitoring system for remote monitoring.

並列關鍵字

Lithium-ion battery ； constant current to constant voltage ； battery management system ； monitoring distal ； wireless transmission

參考文獻

[9]. 李桐進， “台灣鋰離子二次電池發展之策略研究”，國立台灣大學管理學院碩士在職專班高階公共管理組碩士論文，(2009)。

[1]. T.S. Perry, “Capturing climate change”, IEEE Spectrum, Vol. 39, No. 1, pp. 58-65, (2002).

[2]. G. Woodward, “A tale of two cities: hydroelectricity at Chester and York”, Engineering Science and Education Journal, Vol. 6, No. 2, pp. 54-60, (1997).

[3]. A. Decker, “Solar energy harvesting for autonomous field devices”, IET Wireless Sensor Systems, Vol. 4, No. 1, pp. 1-8, (2014).

[4]. D. Djairam, P.H.F. Morshuis and J.J. Smit, “A novel method of wind energy generation-the electrostatic wind energy converter”, IEEE Electrical Insulation Magazine, Vol. 30, No. 4, pp. 8-20, (2014).

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智慧型鋰離子電池無線監測管理系統設計與實作之研究

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