• Title/Summary/Keyword: Fuel Cell Electric Vehicle Monitoring

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Cell Voltage Monitoring of PEMFC Power Module for Fuel Cell Electric Vehicle (연료전지 차량용 PEMFC 발전모듈의 셀전압 측정)

  • Park Hyunseok;Jeon Ywunseok;Ku Bonwoong;Choi Seoho
    • 한국신재생에너지학회:학술대회논문집
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    • 2005.06a
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    • pp.388-391
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    • 2005
  • In this paper, Cell voltage monitoring method is studied for fault detection of PEMFC(Proton Exchange Membrane Fuel Cell) for FCEV(fuel cell electric vehicle). To measuring several hundred of cells in fuel cell stack, The demanded feature of hardware and software is studied and several types are analysed. Finally, $3.26\%$ maximum measuring error is acquired and verified experimentally.

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Development of the Integrated Fuel Cell Monitoring System (통합 연료전지모니터링 시스템 개발)

  • KIM, HYUNJUN;YEOM, SANGCHUL;AHN, BYUNGKI;KIM, SAEHOON;KUM, YEONGBEOM
    • Transactions of the Korean hydrogen and new energy society
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    • v.26 no.3
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    • pp.241-246
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    • 2015
  • The interest of New Renewable Energy is increasing globally because of the increment of the uncertainty for the energy's supply and demand, and the increment of the frequency in weather anomaly and its damages. One of the New Renewable Energies, Hydrogen receives attention as the future energy that can deal with global environment regulation. Fuel Cell Electric Vehicle (FCEV) is an environment-friendly vehicle that uses Hydrogen as fuel. The electric power for FCEV is generated by chemical reaction with Oxygen from the air and Hydrogen. Hyundai Motor Company (HMC) has developed a proprietary fuel cell system since 2005. In 2012, HMC is the first car maker that mass-produces the ix35 FCEV to the worldwide such as North America, Europe, etc. In order to develop and improve the FCEV technology, data acquisition and analysis of the driving vehicle information is essential. Therefore, the monitoring system is developed, which is consist of datalogger, Automatic Vehicle Location (AVL) server and main server. Especially, WCDMA technology is integrated into the system which enables the data analysis without any restriction of time and region. The main function of the system is the analysis of the driving pattern and the component durability, and the safety monitoring. As a result, ix35 FCEV has successfully developed by using the developed monitoring system. The system is going to take an advantage of development in the future FCEV technology.

Implementation of a CAN Based Real-Time Simulator for FCHEV (하이브리드 연료전지 자동차의 CAN기반 실시간 시뮬레이터 구현)

  • Shim, Seong-Yong;Lee, Nam-Su;Ahn, Hyun-Sik;Kim, Do-Hyun
    • Proceedings of the KIEE Conference
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    • 2004.11c
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    • pp.410-413
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    • 2004
  • In this paper, a simulator system for Fuel Cell Hybrid Electric Vehicles(FCHEV) is implemented using DSP boards with CAN bus. The subsystems of a FCHEV i.e., the fuel cell system, the battery system, the vehicle dynamics with the transmission mechanism are coded into 3 DSP boards. The power distribution control algorithm and battery SOC control are also coded into a DSP board. The real-time monitoring program is also developed to examine the control performance of power control and SOC control algorithms.

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GUI-based integrated monitoring system for small sized fuel cell ship (소형 연료전지 선박을 위한 GUI 기반의 통합 모니터링 시스템)

  • Lee, Hunseok;Oh, Jin-seok
    • Journal of the Korea Institute of Information and Communication Engineering
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    • v.20 no.12
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    • pp.2235-2242
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    • 2016
  • The electric power system based on fuel cell is applied in various forms to the ship and offshore plants. In particular, a research on the hybrid power system of the fuel cell combined with battery in connection topology has been researched actively. Fuel cell-based hybrid ship has not been carried out research, it is not carried out research in the integrated monitoring system. In this paper, we developed an integrated monitoring system to increase the convenience and stability for the hybrid fuel-cell ship operator. Research into integrated monitoring system based on GUI (Graphic User Interface), in consideration of the stability of the user convenience and ship operations, and developed communication and hardwired signal with the main equipment of the ship, to see in realtime state of the ship. The collected ship operation data is stored and it can be seen after the ship operating.

A Study on Analysis of Operation Data Monitoring Based on Demonstration of Hydrogen Refueling Station (수소 복합스테이션 실증기반 운영데이터 모니터링 분석 연구)

  • KIM, DONG-HWAN;PARK, SONG-HYUN;KU, YEON-JIN;KIM, PIL-JONG;HUH, YUN-SIL
    • Transactions of the Korean hydrogen and new energy society
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    • v.30 no.6
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    • pp.505-512
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    • 2019
  • According to the "hydrogen economy roadmap" announced recently by the government, fuel cell electric vehicle diffusion and hydrogen refueling station construction are actively being carried out to prepare for the hydrogen economy era. The station will be expanded by introducing various charging station models such as hydrogen complex charging station, package, and mobile. Accordingly, the study on the safety demonstration of the charging station and related regulations should be compromised. The purpose of this study is to collect monitoring data during charging according to the distinct four seasons in Korea, and to use it as safety demonstration data by analyzing the charging status, charging rate and charging time during charging.

The development of Stack voltage monitor controller for FCEV (연료전지차량용 스택 전압 측정 제어기 모듈 개발)

  • Jung, Jaewook;Park, Hyunseok;Jeon, Ywunseok
    • 한국신재생에너지학회:학술대회논문집
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    • 2010.11a
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    • pp.79.2-79.2
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    • 2010
  • FCEV(Fuel Cell Electric Vehicle)는 연료전지스택의 각 셀에서 반응하는 화학에너지를 전기에너지로 변환하여 차량을 구동하는 시스템이다. 이러한 연료전지 셀이 정상적인 발전이 되지 않을 경우 비정상적인 전압이 발전되고 이것을 방치한다면 연료전지 스택의 영구적인 고장을 야기할 수 있다. 이를 방지하기 위해 SVM(Stack Voltage monitor) 제어기는 각 셀의 전압을 측정하고 그 정보를 상위 제어기인 FCU(Fuel cell Control Unit)에 전달한다. 이에 FCU는 연료전지스택의 고장을 운전자에게 알리고 연료전지스택의 발전을 멈추게 한다. 기존에 SVM 제어기는 각 셀마다 분압저항을 통하여 측정하며 이 전압의 차를 이용하여 셀 전압을 계산하는 방식이었다. 이는 상위 셀로 갈수록 오차가 커지는 문제가 있고 다수의 CPU 및 DC/DC 컨버터가 적용이 필요하여 복잡한 구성과 가격이 높은 문제가 있었다. 이러한 문제점을 해결하기 위하여 cell monitoring IC를 적용하였고 좀 더 정밀한 측정과 간단한 인터페이스를 구성할 수 있었다. 본 연구에서는 기존 SVM 제어기보다 안정되고 정밀한 SVM 제어기의 개발에 대해 기술하였다.

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Current Status of Standardization for Quality Control of Hydrogen Fuel in Hydrogen Refueling Stations for Fuel Cell Electric Vehicles (수소충전소 내 연료전지용 수소연료 품질 관리 및 표준화 동향)

  • KIM, DONGKYUM;LIM, JEONG SIK;LEE, JEONGSOON
    • Transactions of the Korean hydrogen and new energy society
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    • v.33 no.4
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    • pp.284-292
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    • 2022
  • Hydrogen is promising a candidate for energy supporting the carbon neutrality policy for greenhouse gas reduction, which is being promoted in several countries, including Korea. Although challenging efforts-such as lowering the costs of green hydrogen production and fuel cells-remain, hydrogen fuel cell electric vehicles (FCEVs) are expected to play a significant role in the energy transition from fossil fuels to renewable energy. In line with this objective, the hydrogen FCEV working group in the International Organization for Standardization (ISO) compiled and revised international standards related to hydrogen refueling stations as of 2019. A well-established hydrogen quality management system based on the standard documents will increase the reliability of hydrogen charging stations and accelerate the use of FCEVs. In this study, among the published ISO standards and other references, the main requirements for managing charging stations and developing related techniques were summarized and explained. To respond preemptively to the growing FCEV market, a continuous hydrogen quality monitoring method suitable for use at hydrogen charging stations was proposed.

Analysis of Operation Data Monitoring for LPG-Hydrogen Multi-Fueling Station (LPG-수소복합충전소 운영데이터 모니터링 분석)

  • Park, Songhyun;Kim, Donghwan;Ku, Yeonjin;Kim, Piljong;Huh, Yunsil
    • Journal of Energy Engineering
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    • v.28 no.4
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    • pp.1-7
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    • 2019
  • In response to the recent increase in demand for hydrogen stations, the Ministry of Trade and Industry has enacted and promulgated special notifications to enable the installation of hydrogen stations in the form of the combined complex in existing automotive fuel supply facilities such as LPG, CNG, and gas stations. Hydrogen multi energy filling stations haven't been operated yet in Korea till the establishment of special standards, so it is necessary create special standards by considering all Korean environmental characteristics such as four seasons and daily crossings. In this study, we collected and analyzed the charging data of Ulsan LPG-Hydrogen Multi Fueling Station installed for the first time in Korea. The data are hourly temperature and pressure data from compressors, storage vessels and dispensers. We used the data collected for a year, including the highest temperature and the lowest temperature in Ulsan to compare seasonal characteristics. As a result, it was found that the change of the outside temperature affects the initial temperature of the vehicle's container of the hydrogen car, which finally affects the charging time and the charging speed of the vehicle. There was no effect on vehicle containers because the limit temperature suggested by the Korean Hydrogen Station Standard(KGS FP217) and the US Filling Protocol(SAE J2601) was not exceeded.