Abstract

This work is concerned with the use of the engine start module (ESM) ULTRA 31/900/24V ultracapacitor in specific hybrid systems consisting of a photovoltaic (PV) module, battery, and internal combustion engine (ICE). The test bench research on the ESM cooperating with the photovoltaic module to prevent its self-discharge has been tested, analyzed, and discussed. Moreover, the power distribution between electrochemical batteries and the ultracapacitor is shown. The potential application of the ultracapacitor connected with batteries for the start-up of an ICE engine is also presented. Furthermore, we analyze the possible application of the ultracapacitor plus battery system in heavy transport vehicles and buses. The main advantages and disadvantages of the system consisting of an ultracapacitor and a battery is presented along with the problem of self-discharge and the conditions of ultracapacitor and battery cooperation. This work also features the assumptions made for the conducted tests, selected accordingly for nominal current values of typical starter motors available on the market.

Highlights

  • Much attention is presently being given to low-emission and zero-emission technologies based on distributed energy generation devices [1], in particular, renewable energy sources [2,3,4] and hybrid cogeneration systems [3]

  • engine start module (ESM) module charged from the battery on with low-value that was ultracapacitor charged5)

  • Buck-boost-type converter built into the ESM module

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Summary

Introduction

Much attention is presently being given to low-emission and zero-emission technologies based on distributed energy generation devices [1], in particular, renewable energy sources [2,3,4] and hybrid cogeneration systems [3]. In the case of batteries, during operation in difficult conditions, i.e., low ambient temperature, their operational parameters significantly decrease [6] because the internal resistance of the battery increases (in particular, the resistance of the electrolyte) and the electromotive force and voltage at the connection points decrease. 2018, 11, problem is 2551 the implementation of a hybrid energy storage method based on the parallel connection [14,15,16,17,18,19,20,21,22,23,24,25,26,27,28,29,30,31,32,33,34,35,36,37,38,39] of a battery and an ultracapacitor.

Application of engine
Diagram of: of:
General
Hybrid Energy Storage Based on Battery and Ultracapacitor
Test Stand—Hybrid Energy Storage
12 V that andwas and electronic load that
Results of Test Stand Research
Conclusions
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