Energy efficient route prediction for solar powered vehicles

Julie Gallagher, Siobhán Clarke
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引用次数: 1

Abstract

Solar powered vehicles are currently being developed towards entirely self-sustaining vehicles that harness their energy directly from the sun. For such vehicles, it is important to optimise their solar exposure while driving, thereby reducing their energy consumption through fossil fuels. Research has emerged to estimate optimised routes for solar vehicles, and this paper builds on this work to expand on the parameters used to calculate the route, thereby improving the energy-harnessing quality of the route together with its overall utility for the driver. The ArcGIS tool and the open weather API are used to predict the solar potential of a vehicle by taking into account shade based on surrounding topography, vehicle type, weather, distance and time of day. The model was implemented as a user mobile application ‘Drive Solar’ that calculates the optimal route for the user based on their preferences for time and energy efficiency. The effectiveness of the prediction model was tested using a solar irradiance sensor in Dublin city. The results show that the model predicts the route with the most energy absorbed with a 51.65% accuracy and chooses the route with the most energy consumed with a 86.65% accuracy. We conclude that Drive Solar can aid in the transition to widespread use of self-sustaining solar vehicles.

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太阳能汽车节能路线预测
太阳能汽车目前正在朝着完全自我维持的汽车发展,这种汽车直接利用来自太阳的能量。对于此类车辆,重要的是在驾驶时优化其太阳能暴露,从而减少化石燃料的能源消耗。已经出现了估计太阳能汽车优化路线的研究,本文在这项工作的基础上扩展了用于计算路线的参数,从而提高了路线的能量利用质量及其对驾驶员的整体效用。ArcGIS工具和开放天气API用于根据周围地形、车辆类型、天气、距离和一天中的时间,考虑阴影,预测车辆的太阳能潜力。该模型被实现为用户移动应用程序“Drive Solar”,该应用程序根据用户对时间和能源效率的偏好为用户计算最佳路线。预测模型的有效性在都柏林市使用太阳辐照度传感器进行了测试。结果表明,该模型以51.65%的准确率预测了能量消耗最多的路线,并以86.65%的准确度选择了能量消耗最大的路线。我们得出的结论是,Drive Solar可以帮助向广泛使用自我维持的太阳能汽车过渡。
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