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</style></head><body><divclass="content"><h1>Electric Vehicle Design with Simscape™</h1><!--introduction--><p>This repository contains model and code to help engineers design battery electric vehicle (BEV), including range estimation and battery sizing workflows.</p><!--/introduction--><h2>Contents</h2><div><ul><li><ahref="#1">Overview</a></li><li><ahref="#3">Design Workflows</a></li><li><ahref="#4">Documentation</a></li><li><ahref="#5">Models</a></li><li><ahref="#7">Acronyms</a></li></ul></div><h2id="1">Overview</h2><p>Battery electric vehicles (BEV) are gaining popularity as the prices of battery cells fall and the consumer demand for a clean mobility solution increases. The key challenges in their adoption lie in addressing the vehicle range anxiety, safety, and the total ownership cost for the consumer. Li-ion based batteries and electric drivetrains with permanent magnet synchronous motors (PMSM) and/or induction motors power modern BEV systems. Modeling and simulation helps you design vehicles that meet the desired range on the road and perform under all environmental conditions. Virtual design of a BEV platform requires a coupled electro-thermal system model for performance evaluation. In this example repository, you <b>learn how to simulate a BEV AWD/FWD model to estimate its on-road range</b>. You also <b>learn how to size your HV battery pack</b> to achieve your desired range with the vehicle.</p><imgvspace="5" hspace="5" src="ElectricVehicleDesignOverview_01.png" alt=""><h2id="3">Design Workflows</h2><div><ul><li><ahref="matlab:open('BEVRangeEstimationMain.mlx')">Range Estimation for Battery Electric Vehicles</a></li><li><ahref="matlab:open('BEVBatterySizingMain.mlx')">Sizing Battery for Electric Vehicles</a></li><li><ahref="matlab:open('BatteryNeuralNetModel.mlx')">Battery Neural Network Model for Temperature Prediction</a></li><li><ahref="matlab:open('PMSMmotorTestBench.mlx')">PMSM Thermal Test Bench for Battery Electric Vehicle (BEV)</a></li></ul></div><h2id="4">Documentation</h2><div><ul><li><ahref="matlab:web('BatteryElectricVehicleModelOverview.html')">Battery Electric Vehicle Model</a></li><li><ahref="matlab:open('PMSMmotorTestBenchDescription.mlx')">PMSM Thermal Model</a></li></ul></div><h2id="5">Models</h2><div><ul><li><ahref="matlab:open_system('BEVsystemModel.slx')">Battery Electric Vehicle</a></li></ul></div><h2id="7">Acronyms</h2><div><ul><li>BEV : Battery Electric Vehicle</li><li>PMSM : Permanent Magnet Synchronous Motor</li><li>AWD : All Wheel Drive</li><li>FWD : Forward Wheel Drive</li></ul></div><pclass="footer">Copyright 2022 - 2023 The MathWorks, Inc.<br><ahref="https://www.mathworks.com/products/matlab/">Published with MATLAB® R2023a</a><br></p></div><!--
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<h1>Electric Vehicle Design with Simscape™</h1>
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<!--introduction-->
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<p>This repository contains model and code to help engineers design battery electric vehicle (BEV), including range estimation and battery sizing workflows.</p>
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<!--/introduction-->
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<h2>Contents</h2>
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<ahref="#1">Overview</a>
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<ahref="#4">Design Workflows</a>
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<ahref="#5">Documentation</a>
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<ahref="#6">Models</a>
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<ahref="#8">Acronyms</a>
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<h2id="1">Overview</h2>
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<p>Battery electric vehicles (BEV) are gaining popularity as the prices of battery cells fall and the consumer demand for a clean mobility solution increases. The key challenges in their adoption lie in addressing the vehicle range anxiety, safety, and the total ownership cost for the consumer. Li-ion based batteries and electric drivetrains with permanent magnet synchronous motors (PMSM) and/or induction motors power modern BEV systems. Modeling and simulation helps you design vehicles that meet the desired range on the road and perform under all environmental conditions. Virtual design of a BEV platform requires a coupled electro-thermal system model for performance evaluation. In this example repository, you <b>learn how to simulate a BEV AWD/FWD model to estimate its on-road range</b>. You also <b>learn how to size your HV battery pack</b> to achieve your desired range with the vehicle.</p>
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