High-current charging technology - Quick charging of traction batteries

被引:0
|
作者
Burkhart, W
机构
来源
11TH HEIDELBERG MEETING OF INDUSTRIAL TRUCK OPERATORS | 2001年 / 1590卷
关键词
D O I
暂无
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
In each individual case, the implementation of the BELATRON (R) Quick Charging technology must be preceded by an analysis of the specific parameters. The throughput of battery capacity per shift and also the available standstill times are the most important criteria. It must be carefully examined whether enough time is left during a shift for the drawn battery capacity to be recharged. Unfortunately, there is no "recipe"; it is therefore recommended to first use battery controllers, e.g., IBAT (R) or BiCat (R) for determination of the exact data. The analysis following a representative working period then quickly shows whether the use of the BELATRON (R) Quick Charging System is profitable. Prior to the analysis of the data, the local conditions should be considered. Depending on the battery size, e.g., a sufficient connected load is required. An 80 V / 600 A charging unit requires approximately 60 kVA, corresponding to a line current of approximately 87 A per phase. If 15 units are used, this means that a total connected load of almost 1 MVA is required. Such connected loads are not available at every site! Furthermore, it is important to check whether the spatial conditions allow the installation of BELATRON (R) Quick Charging units. Not only must there be enough space. It must also be ensured that all legal and internal safety regulations are observed. These regulations will not be dealt with in this talk.
引用
收藏
页码:129 / +
页数:11
相关论文
共 50 条
  • [21] Charging on resist-patterned wafers during high-current ion implants
    Lukaszek, W
    Daryanani, S
    Shields, J
    IIT2002: ION IMPLANTATION TECHNOLOGY, PROCEEDINGS, 2003, : 209 - 212
  • [22] TRACTION BATTERY CHARGING
    OLDHAM, O
    ELECTRICAL REVIEW, 1971, 188 (26): : 856 - &
  • [23] TRACTION BATTERY CHARGING
    DINES, P
    ELECTRICAL REVIEW, 1971, 189 (04): : 116 - &
  • [24] Constant Current Charging Technology for Variable Load Wireless Charging System
    Song K.
    Li Z.
    Du Z.
    Zhu C.
    Zhu, Chunbo (zhuchunbo@hit.edu.cn), 2017, China Machine Press (32): : 130 - 136
  • [25] Multi-load constant current charging technology for wireless charging system
    Zhang Zhang
    Zhou Xiaojuan
    Xie Yulei
    Xie Guangjun
    Cheng Xin
    INTERNATIONAL JOURNAL OF ELECTRONICS, 2020, 107 (08) : 1254 - 1271
  • [26] ADDITIVELY PRINTED FLEXIBLE CHARGING CIRCUITS AND EFFECT ON EVOLUTION OF LINE RESISTANCE AND CHARGING CURRENT IN CHARGING THIN FLEXIBLE BATTERIES
    Lall, Pradeep
    Soni, Ved
    Miller, Scott
    PROCEEDINGS OF ASME 2022 INTERNATIONAL TECHNICAL CONFERENCE AND EXHIBITION ON PACKAGING AND INTEGRATION OF ELECTRONIC AND PHOTONIC MICROSYSTEMS, INTERPACK2022, 2022,
  • [27] Numerical simulation on fast charging nickel metal hydride traction batteries
    Yang, XG
    Liaw, BY
    JOURNAL OF THE ELECTROCHEMICAL SOCIETY, 2004, 151 (02) : A265 - A272
  • [28] ANALYSIS TECHNIQUES OF CHARGING DAMAGE STUDIED ON 3 DIFFERENT HIGH-CURRENT ION IMPLANTERS
    FELCH, SB
    LARSON, LA
    CURRENT, MI
    LINDSEY, DW
    NUCLEAR INSTRUMENTS & METHODS IN PHYSICS RESEARCH SECTION B-BEAM INTERACTIONS WITH MATERIALS AND ATOMS, 1989, 37-8 : 563 - 567
  • [29] The Role of Batteries in High Power Charging Infrastructure
    Jahn, Karin
    Klinck, Carl-Friedrich
    PROCEEDINGS OF THE 14TH INTERNATIONAL RENEWABLE ENERGY STORAGE CONFERENCE 2020 (IRES 2020), 2021, 6 : 127 - 134
  • [30] Charging up Batteries
    Adams, Tony
    OPTOMETRY AND VISION SCIENCE, 2014, 91 (11) : 1287 - 1287