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2022 XXVIII International Conference on Information, Communication and Automation Technologies (ICAT)最新文献

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State of Charge Estimation on Constrained Embedded Devices 约束嵌入式器件的电荷状态估计
Edina Omerovic, Edin Golubovic, T. Uzunović
The broader use of devices powered by rechargeable batteries, especially constrained embedded devices, makes the efficient Battery Management System (BMS) increasingly more important. The estimation accuracy of the amount of remaining charge in the battery is critical as it affects the device’s operation and reliability. For that reason, the estimation of state-of-charge (SoC) is considered one of the main functionalities of a BMS. However, SoC estimation remains a complex task that depends on a range of internal and external factors. Most traditional SoC estimation methods are either computationally complex, require special laboratory equipment or additional configuration efforts. In addition, most methods require continuous measurement of battery parameters, which, in turn, renders these methods not applicable to the class of constrained embedded devices. This paper aims to extend the Coulomb counting method to the class of duty-cycled energy-constrained devices by designing an algorithm that combines voltage-based evaluation and pre-recorded task power profiles to estimate the SoC. In addition, a setup for identifying the battery parameters and algorithm validation setup were also developed and described in the paper.
可充电电池供电设备的广泛使用,特别是嵌入式设备,使得高效的电池管理系统(BMS)变得越来越重要。电池剩余电量的估计准确性至关重要,因为它影响设备的运行和可靠性。因此,充电状态(SoC)的估计被认为是BMS的主要功能之一。然而,SoC评估仍然是一项复杂的任务,取决于一系列内部和外部因素。大多数传统的SoC估算方法要么计算复杂,要么需要特殊的实验室设备或额外的配置工作。此外,大多数方法需要连续测量电池参数,这反过来又使这些方法不适用于受限的嵌入式设备。本文旨在通过设计一种结合基于电压的评估和预先记录的任务功率曲线的算法来估计SoC,将库仑计数方法扩展到占空比能量受限器件的类别。此外,本文还开发并描述了一套电池参数识别系统和算法验证系统。
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引用次数: 0
Model predictive control of demand response for large scale production lines and networks 大型生产线和网络需求响应的模型预测控制
J. Tousi, M. A. Khatib, N. Bajçinca
Utilizing demand response (DR) in industries reduces the need for expensive utilities like storage or backup plants and renders the electricity market more flexible for industrial sites. This paper proposes an MPC-based approach for such sites to respond online to ancillary service requests and participate in DR by controlling optimally the machine speeds of a production line. The optimization program we define can cope with a large number of machines within a line and run therefore efficiently online at a network level without requiring high-power computational resources. We demonstrate the significance of our approach on a beverage production line consisting of a filling machine, two labelers, one shrink packer, and several conveying belts connecting the production machines.
在工业中利用需求响应(DR)减少了对昂贵的公用设施(如存储或备用工厂)的需求,并使电力市场对工业场所更加灵活。本文提出了一种基于mpc的方法,通过优化控制生产线的机器速度来在线响应辅助服务请求并参与DR。我们定义的优化程序可以在一条线上处理大量机器,因此在网络级别上有效地在线运行,而不需要高功率的计算资源。我们在一条饮料生产线上展示了我们的方法的意义,该生产线由一台灌装机,两台贴标机,一台收缩包装机和几条连接生产机器的输送带组成。
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引用次数: 1
Economic Model Predictive Control of Industrial Demand Response 工业需求响应的经济模型预测控制
Behzad Heydaryan, N. Bajçinca
Large industrial factories can actively participate in the energy market. This does not only provide flexibility for the electrical grids, but also may introduce auxiliary options to their primary business models. However, Demand Response stays usually in contradiction with the production goals. Supplementary revenue contracts with the energy suppliers may help here to balance resulting production losses, thereby revealing a necessity for a trade-off. In this sense, we suggest a concept of demand response utilizing model predictive control for optimal adjustment of the production rate. In particular, in our study we consider the production lines of beverage factories as a use-case.
大型工业工厂可以积极参与能源市场。这不仅为电网提供了灵活性,而且还可能为其主要业务模式引入辅助选项。然而,需求响应通常与生产目标相矛盾。与能源供应商签订的补充收入合同可能有助于平衡由此造成的生产损失,从而揭示了权衡的必要性。在这个意义上,我们提出了一个需求响应的概念,利用模型预测控制来优化调整生产率。特别是,在我们的研究中,我们将饮料工厂的生产线作为一个用例。
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引用次数: 1
Mitigating Power Peaks in Automotive Power Networks by Exploitation of Flexible Loads 利用柔性负载缓解汽车电网的功率峰值
Tobias Schürmann, Nils Kutter, S. Schwab, S. Hohmann
In the recent decades, the complexity of the auto-motive power network (APN) has been steadily increasing. This growing complexity is due to the electrification of former mechanical components and the increasing integration of telecommunication and entertainment devices. Additionally, autonomous driving functionalities lead to safety requirements that have to be met by the power supply infrastructure. Another challenge is the deviation in update cycles of the vehicle platform and the entertainment and telecommunication components. Thus, a modular and flexible power network management which allows for plug-and-play integration of new components is needed. In a previous contribution, we presented an auction-based approach for a modular load management in modern vehicles with multiple voltage levels. In this paper, we extend this basic approach by predictive measures in order to exploit flexible load capabilities by load shifting or load shaping. This leads to mitigated power peaks in the APN. As a result, the strain on the battery storage can be reduced and the forced deactivation of comfort components can be prevented. We demonstrate the working principle in a simulative study and show the effectiveness of the combination between the basic auction-based load management and the predictive extension introduced in this paper.
近几十年来,汽车电网的复杂性一直在稳步增长。这种日益增加的复杂性是由于以前的机械部件的电气化以及电信和娱乐设备的日益一体化。此外,自动驾驶功能带来的安全要求必须由供电基础设施来满足。另一个挑战是车辆平台与娱乐和电信组件更新周期的偏差。因此,需要一种模块化和灵活的电源网络管理,允许新组件的即插即用集成。在之前的一篇文章中,我们提出了一种基于拍卖的方法,用于具有多个电压水平的现代车辆的模块化负载管理。在本文中,我们通过预测措施来扩展这一基本方法,以便通过负载移动或负载整形来开发灵活的负载能力。这导致APN中的功率峰值得到缓解。因此,可以减少电池存储的压力,并可以防止舒适性组件的强制停用。通过仿真研究验证了其工作原理,并验证了基于拍卖的基本负荷管理与本文引入的预测扩展相结合的有效性。
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引用次数: 2
Volt-Var Control for Smart Cities with Integrated Public Transportation System 集成公共交通系统的智慧城市的伏无控制
Nermin Colo, S. Huseinbegović, I. Džafić
The Advanced Distribution Management System (ADMS) has grown to be a highly complicated system that comprises distribution generation, batteries, power electronics, and, in case of an urban area, an electric transportation system. One of the most essential features of ADMS is maintaining node voltages and branch thermal ratings within defined limits while maintaining minimal system losses and maximizing the use of renewable energy. Voltage VAr control (VVC) is extensively used to address these challenges and is becoming increasingly significant in ADMS. A side from the necessity to manage the system status, VVC must be adaptable to accommodate future Smart City (SC) requirements such as electric-vehicle charging and energy recuperation management. The majority of existing systems control the DC electric transportation system separately from the entire AC system. This paper attempts to tackle the problem using a hybrid single model that incorporates both: AC and DC network components.
先进的配电管理系统(ADMS)已经发展成为一个高度复杂的系统,包括配电发电、电池、电力电子设备,在城市地区,还包括电力运输系统。ADMS最基本的特点之一是在规定的范围内保持节点电压和分支额定热,同时保持最小的系统损耗和最大限度地利用可再生能源。电压无功控制(VVC)被广泛用于解决这些挑战,并在ADMS中变得越来越重要。从管理系统状态的必要性来看,VVC必须适应未来智慧城市(SC)的要求,如电动汽车充电和能源回收管理。大多数现有系统将直流电力运输系统与整个交流系统分开控制。本文试图使用混合单一模型来解决这个问题,该模型包含交流和直流网络组件。
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引用次数: 0
ICAT 2022 Cover Page ICAT 2022封面页
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引用次数: 0
期刊
2022 XXVIII International Conference on Information, Communication and Automation Technologies (ICAT)
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