Abstract

This article focuses on the energy-saving of each driving distance for battery electric vehicle (BEV) applications, by developing a more effective energy management strategy (EMS), under different driving cycles. Fuzzy logic control (FLC) is suggested to control the power management unit (PMU) for the battery management system (BMS) for BEV applications. The adaptive neural fuzzy inference system (ANFIS) is a modeling technique that is mainly based on data. Membership functions and FLC rules can be improved by simply training the ANFIS with real driving cycle data gathered from the MATLAB/SIMULINK program. Then, FLC console blocks are rewritten by enhanced membership functions by ANFIS traineeship. Two different driving cycles are chosen to check the improvement in the efficiency of this proposed system. The suggested control system is validated by simulation and comparison with the traditional proportional-integral (PI) control. The optimized FLC shows better energy-saving.

Highlights

  • The main cause of global warming is the pollution produced through exhaust emission from the traditional internal combustion engine (ICE), and cars today are a critical part of our lifetime

  • The energy management strategy achieves a promising performance for energy saving, and the control method achieves good power flow management in battery electric vehicle (BEV)

  • Where α is the angle between a road gradient and the horizontal plane while the rising is the vertical axTihseatnodtaltheneedrgryivoifntgheiswthheeelhsoerxipzeonndteadl wdihsitlaendcreivainsgs, hdEoww, ins ains fFolilgouwrse: 2. The road inclination is often expressed as a percentage of gradient %.=The∙me(ch) anical power, Pw, that must come(t5o) the wheels, from the power train required to drive a car at speed v, is the product of the wheel force and velocitytraocfttiMohneeacfnoawrrcheaisloefn,otlthlhoeewcacsar:rm, mayemanoinvge up or down, these forces may be resistant or contribute to the that it will be either negative or positive

Read more

Summary

Introduction

The main cause of global warming is the pollution produced through exhaust emission from the traditional internal combustion engine (ICE), and cars today are a critical part of our lifetime. A comprehensive review is presented in [4], alongside the overall relationship between measured battery power, measured velocity, accelerated, and road gradient, to obtain specially created BEVs. In [22], the authors using a particle swarm optimization technique to perfectly control the power flow inter the power train and other car assistances for specific BEVs. Try to reduce energy consumption in the vehicle while at the same time keeping passengers comfortable, by offering some suggestions to the driver. The energy management strategy achieves a promising performance for energy saving, and the control method achieves good power flow management in BEVs. This article aims to improve the travel distance of an electric vehicle by identifying the optimal BEV powertrain configuration that reduces battery discharge without reducing the vehicle’s performance during standard driving cycles.

Vehicle Modeling
The Force Model
The Battery Model
Sizing Battery Pack
Battery Pack Capacity
Maximum Battery Pack Storage
Efficient Battery Power
Battery Cell Numbers
Monitoring and Estimating the Battery SOC
Results and Discussion

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call

Disclaimer: All third-party content on this website/platform is and will remain the property of their respective owners and is provided on "as is" basis without any warranties, express or implied. Use of third-party content does not indicate any affiliation, sponsorship with or endorsement by them. Any references to third-party content is to identify the corresponding services and shall be considered fair use under The CopyrightLaw.