Design and Analysis of Solar-powered E-bike Charging Stations to Support the Development of Green Campus

Slamet Suripto, Gilang Ari Widodo Utomo, K. Purwanto, Karisma Trinanda Putra, Muhammad Yusvin Mustar, Mosiur Rahaman
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引用次数: 1

Abstract

Currently, conventional motorcycles that utilize hazardous fossil fuels are expanding rapidly in Indonesia's major cities. Especially in campus environments, the increase in motorcycle usage has the potential to raise emissions of greenhouse gases and toxic microparticles. The green campus concept entails that campus living must implement low-emission energy efficiency, conserve resources, and enhance environmental quality by teaching its residents how to live a healthy lifestyle. However, limiting the number of motorcycles on campus is the main challenge, especially in Indonesia. To overcome this challenge, this study provides a design for the e-bike system that will be implemented at Universitas Muhammadiyah Yogyakarta (UMY). In addition, a solar power plant is integrated into the design to support the adoption of the zero-emission green energy concept on the campus. The design accommodates specifications for a 6 km radius surrounding the school, a two-day lifespan, and 100 electric bicycles. The experiment's findings indicate that the solar-powered e-bike design requires 99 solar panels with a capacity of 150 Wp, 9 SSCs with a capacity of 100 A, and three inverters with a capacity of 2,500 W. It is projected that this device will reduce exhaust emissions by 7.62 tons of CO2 per year once it is entirely operated.
支持绿色校园发展的太阳能电动自行车充电站设计与分析
目前,使用危险化石燃料的传统摩托车在印度尼西亚的主要城市迅速扩张。特别是在校园环境中,摩托车使用量的增加有可能增加温室气体和有毒微粒的排放。绿色校园理念要求校园生活必须实现低排放节能,节约资源,提高环境质量,教育居民如何过上健康的生活方式。然而,限制校园摩托车的数量是主要的挑战,特别是在印度尼西亚。为了克服这一挑战,本研究提供了一种将在日惹穆罕默德大学(UMY)实施的电动自行车系统的设计。此外,设计中还集成了太阳能发电厂,以支持校园采用零排放绿色能源概念。该设计满足了学校周围6公里半径、两天寿命和100辆电动自行车的规格。实验结果表明,太阳能电动自行车的设计需要99块容量为150 Wp的太阳能电池板、9块容量为100 a的ssc和3个容量为2500 W的逆变器。据预测,该装置一旦完全投入使用,每年将减少7.62吨二氧化碳的排放。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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