New perspective of environmental impact research: predicting bus exhaust emissions using the ETSformer based on collaborative perception

Qingchao Liu , Laiyu Zhang , Chen Lv , Hongbo Gao , Yingfeng Cai , Long Chen
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Abstract

Accurate prediction of urban traffic exhaust emissions plays a crucial role in controlling motor vehicle exhaust pollution. Urban public transport vehicles often operate in stop-and-go traffic conditions, emitting significant exhaust pollution. Existing approaches primarily focus on assessing vehicle emissions in the past or present, which may not adequately address long-term planning needs. To enhance the accuracy of bus exhaust emissions prediction, we introduce a novel time series transformer architecture named ETSformer for forecasting future vehicle emissions. This framework integrates exponential smoothing principles to refine the transformer-based time series prediction model, utilizing historical pollutant emissions data to forecast future exhaust emissions. The experiment collects emissions data and driving status information from public transport vehicles in Zhenjiang City, Jiangsu Province, considering factors such as vehicle runtime, route, and operational state to standardize response variables and enhance model precision and consistency. Experimental results demonstrate a determination coefficient (R2) of 70.7% and a mean square error (MSE) of 41.1% for exhaust gas prediction, signifying improved accuracy and efficiency compared to other models. Applying the exhaust gas prediction model to bus operations enables advanced forecasting of future exhaust emissions, addressing current challenges and potentially reducing Carbon Dioxide (CO2) emissions by over 3% during bus operations.

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环境影响研究的新视角:利用基于协作感知的 ETSformer 预测公交车尾气排放
准确预测城市交通尾气排放对控制机动车尾气污染起着至关重要的作用。城市公共交通车辆经常在走走停停的交通状况下运行,排放大量废气污染。现有方法主要侧重于评估过去或现在的汽车尾气排放,可能无法充分满足长期规划需求。为了提高公交车尾气排放预测的准确性,我们引入了一种名为 ETSformer 的新型时间序列变换器架构,用于预测未来的汽车尾气排放。该框架整合了指数平滑原理,完善了基于变压器的时间序列预测模型,利用历史污染物排放数据预测未来的尾气排放。实验收集了江苏省镇江市公共交通车辆的尾气排放数据和行驶状态信息,考虑了车辆运行时间、行驶路线和运行状态等因素,以标准化响应变量,提高模型的精度和一致性。实验结果表明,尾气预测的判定系数(R2)为 70.7%,均方误差(MSE)为 41.1%,与其他模型相比,精度和效率均有所提高。将废气预测模型应用于公交车运营,可以对未来的废气排放进行高级预测,解决当前的挑战,并有可能在公交车运营期间减少 3% 以上的二氧化碳 (CO2) 排放。
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