博客
关于我
【源码】基于Simulink的混合动力汽车模型
阅读量:236 次
发布时间:2019-02-28

本文共 3159 字,大约阅读时间需要 10 分钟。

在这里插入图片描述

Hybrid-Electric Vehicle Model in Simulink

Copyright 2011-2020 The MathWorks™, Inc.

要开始此演示,请打开HEV_SeriesParallel.prj。这将为您带来最简单的整车配置。请阅读幻灯片以查看所有可用的配置。

To start this demonstration, open project HEV_SeriesParallel.prj This will bring you to the simplest configuration of the full vehicle. Look at the slides to see all of the available configurations.

There are a number of things to be aware of with this demonstration.

Configurations

Stateflow

Power Quality

Details

Configurations

1.1 For the Mean Value and Detailed electrical variants, re-do the selection of the Electrical subsystem if you change the battery subsystem.

When you change Electrical variants, the solver will change. This is done automatically via a script that is called in the Initialization mask of the Electrical and Battery blocks (Configure_HEV_Simulation.m). However, if you change the Battery variant, the solver doesn’t change until you re-select the Electrical variant.

You probably will not simulate this interactively anyway, as Mean Value variants take 30 minutes - 3 hours to run, and Detailed variants take 12 hours – 36 hours to run.

1.2 The “Cells” variant of the battery is only available for the System-Level electrical variant.

Stateflow

The Stateflow model produces three outputs that route to the Motor, Generator, and Engine control systems. However, by default, those signal connections do not affect the output of those control systems. This is because the Mean Value variant cannot run to completion for Drive Cycle 2 when the Stateflow diagram is connected. All other variants run to completion.

If you want to connect the Stateflow to the rest of the model, each subsystem has a manual switch in it that allows you to select a signal that uses the Stateflow output to enable/disable the output of the PI controller.

However, if you do this, be aware the results will not match the Mean Level and Detailed variants (done in the Report Generation demo). This represents a case where we have made a design change and have automatically documented the effect it has on the overall results.

Power Quality

3.1 The power quality demonstration uses Signal Processing Toolbox. Though it is possible to measure power quality using Simscape Power Systems alone, there are two reasons why we did not use this.

The FFT analysis in the PowerGUI only checks at a single point in time We wanted to see a representation as time varies to identify the component contributing to poor power quality

The Total Harmonic Distortion block in Simscape Power Systems is only for AC networks. For an HEV, the DC network is the most interesting. Spectrogram works for both AC and DC networks.

3.2 DC Voltage for HEV_PQ_Test_B

The plot for HEV_PQ_Test_B shows very clearly that the generator is contributing to poor power quality. However, the voltage on the DC bus for this test shows other larger problems – the battery can’t supply enough voltage for this situation. This situation was the best example we could find of the spectrogram pointing directly to a component on the network, so we chose to include it.

Follow the script DC_Power_Quality_Analysis.m to see the test case

更多精彩文章请关注公众号:在这里插入图片描述

转载地址:http://fcop.baihongyu.com/

你可能感兴趣的文章
Nacos和Zookeeper对比
查看>>
Nacos在双击startup.cmd启动时提示:Unable to start embedded Tomcat
查看>>
Nacos基础版 从入门到精通
查看>>
Nacos如何实现Raft算法与Raft协议原理详解
查看>>
Nacos安装教程(非常详细)从零基础入门到精通,看完这一篇就够了
查看>>
Nacos实战攻略:从入门到精通,全面掌握服务治理与配置管理!(上)
查看>>
Nacos实战攻略:从入门到精通,全面掌握服务治理与配置管理!(下)
查看>>
Nacos心跳机制实现快速上下线
查看>>
nacos报错com.alibaba.nacos.shaded.io.grpc.StatusRuntimeException: UNAVAILABLE: io exception
查看>>
nacos服务提供和发现及客户端负载均衡配置
查看>>
Nacos服务注册与发现demo
查看>>
Nacos服务注册与发现的2种实现方法!
查看>>
nacos服务注册和发现原理简单实现案例
查看>>
Nacos服务注册总流程(源码分析)
查看>>
nacos服务注册流程
查看>>
Nacos服务部署安装
查看>>
nacos本地可以,上服务器报错
查看>>
Nacos注册Dubbo(2.7.x)以及namespace配置
查看>>
Nacos注册中心有几种调用方式?
查看>>
nacos注册失败,Feign调用失败,feign无法注入成我们的bean对象
查看>>