使用无线触发广播同步电池的阻抗谱

Valentin Roscher, Matthias Schneider, P. Durdaut, N. Sassano, Sergej Pereguda, Eike Mense, K. Riemschneider
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引用次数: 20

摘要

在电动汽车中,有许多单元的电池被用来提供动力系统所需的高电压。电池由电池管理系统(BMS)控制,该系统需要来自每个单独电池的测量数据。到目前为止,使用的是带有专门测量控制器的电池模块有线解决方案。其中一些通过数据总线结构进行通信。我们的小组提出在近射频场区域使用无线通信作为替代解决方案。该解决方案的基础已经发表[1]。在本文中,我们将介绍无线传感器方法的更高级功能。已经开发了一个功能模块,用于汽车运行过程中电池组中每个单独电池的阻抗谱。电化学阻抗谱是一种超越普通和简单模型的有效方法。这项技术需要对单个电池的共同电流和电压进行精确和同步的测量。在硬件和软件上实现了通信和控制协议,包括触发广播操作模式。该方案能够满足分布式测量在几μs范围内的时间精度要求。因此,开发了专有协议解决方案。传感器系统中的附加模块允许传感器模块的其他功能,如细胞平衡和节能唤醒功能。这些传感器模块被设计为集成在单个电池单元内的定制硬件。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Synchronisation using wireless trigger-broadcast for impedance spectroscopy of battery cells
In electric vehicles, batteries with many cells are used to supply the high voltages needed for the power train. The battery is controlled by a battery management system (BMS) which needs measurement data from each individual cell. Up to now, wired solutions with specialized measurement controllers for battery modules are in use. Some of these communicate over data bus structures. Our group proposes as an alternative solution the use of wireless communication in the near RF field area. The basics of this solutions have already been published [1]. In this article we present more advanced functionality for the wireless sensors approach. A functional module has been developed for impedance spectroscopy of each individual cell in the battery stack during automotive operation. Electrochemical impedance spectroscopy is a powerful method to determine the battery state beyond common and simple models. This technique needs precise and synchronized measurements of the common current and the voltages of the individual cells. A communication and control protocol has been implemented in hard- and software, including a trigger-broadcast operating mode. This solution has to fulfill the time precision requirements of the distributed measurements in the range of a few μs. Therefore, proprietary protocol solutions have been developed. Additional modules in the sensor system allow other functions such as cell balancing and an energy saving wake-up function for the sensor modules. These sensor modules are designed as tailored hardware for integration inside the individual battery cells.
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