BS EN IEC 62485-5:2021
$189.07
Safety requirements for secondary batteries and battery installations – Safe operation of stationary lithium ion batteries
Published By | Publication Date | Number of Pages |
BSI | 2021 | 46 |
IEC 62485-5:2020 applies to the installation of one or more stationary secondary batteries having a maximum aggregate DC voltage of 1 500 V to any DC part of the power network, and describes the principal measures for protections during normal operation or under expected fault conditions against hazards generated from: – electricity, – short-circuits, – electrolyte, – gas emission, – fire, – explosion. This document provides requirements on safety aspects associated with the installation, use, inspection, and maintenance and disposal of lithium ion batteries used in stationary applications.
PDF Catalog
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2 | undefined |
5 | Annex ZA(normative)Normative references to international publications with their corresponding European publications |
9 | English CONTENTS |
12 | FOREWORD |
14 | INTRODUCTION |
15 | 1 Scope 2 Normative references |
17 | 3 Terms and definitions and abbreviated terms 3.1 Terms and definitions |
21 | 3.2 Abbreviated terms 4 Protection against electric shock 4.1 General 4.2 Basic protection |
22 | 4.3 Fault protection 4.3.1 General |
23 | 4.3.2 Protection by automatic disconnection of supply Figures Figure 1 – TN system with separate protective conductor (PE)in the entire system (TN�S network) |
24 | Figure 2 – TN system with functional earthing and protective earthing (FPE, PEN) combined with an external line conductor (TN-C system) |
25 | Figure 3 – TT system |
26 | Figure 4 – IT system Figure 5 – Converters with intermediate DC circuit (IT system) (example) |
27 | 4.3.3 Protection by use of class II equipment or by equivalent insulation 4.3.4 Protection by electrical separation 4.4 Protective measure: extra-low voltage provided by SELV, PELV and FELV 4.4.1 General 4.4.2 Protection by SELV or by PELV 4.4.3 Protection by functional extra-low voltage (FELV) without protective separation |
28 | 5 Disconnection and separation 6 Prevention of short-circuits and protection from other effects of electric current 6.1 General |
29 | 6.2 Short-circuits 6.3 Maintenance instructions 6.3.1 General 6.3.2 Protective measures during maintenance |
30 | 6.4 Leakage currents 7 Provision against hazards 7.1 General 7.2 Charging modes |
31 | 7.3 Overcharging or overdischarging under fault conditions 7.4 Prevention of electrostatic discharges when working with batteries 8 Provision against hazards posed by chemical substances 8.1 General 8.2 Initial actions in case of hazardous chemical release 8.2.1 General |
32 | 8.2.2 Eye or skin contact 8.2.3 Swallowing 8.2.4 Respiratory tract 8.2.5 Burns 8.3 Battery accessories and maintenance tools 9 Accommodation, housing 9.1 General 9.2 Specific requirements for separate battery rooms |
33 | 9.3 Specific requirements for the specially separated areas in rooms accommodating electrical equipment 9.4 Battery enclosures 9.5 Working on or near batteries 9.5.1 Working distances within battery rooms |
34 | 9.5.2 Remarks on special work in battery rooms 9.6 Accommodation of lithium ion batteries in combination with batteries containing aqueous electrolyte (e.g. lead-acid and NiCd batteries) in the same room 10 Charge current requirements 10.1 General 10.2 Superimposed ripple current 10.3 Maximum ripple current |
35 | 11 Identification labels, warning notices and instructions for use, installation and maintenance 11.1 Warning labels and notices in rooms 11.2 Identification labels or marking on cell, module, battery pack or battery system 11.3 Instructions for use, installation and maintenance 12 Transportation, storage and environmental aspects |
36 | 13 Inspection and monitoring 14 EMC for stationary application |
38 | Annex A (informative)Charging methods and modes of operation A.1 Parallel operation mode A.1.1 General A.1.2 Battery “stand-by” operation mode A.1.3 Battery “buffer” operation mode Figure A.1 – Parallel operation mode circuit |
39 | A.1.4 Shallow cycling operation mode A.2 Response mode operation A.3 Charging methods A.3.1 General Figure A.2 – Example of battery charge current interlaced with frequent temporary discharge events due to a load current exceeding the current supply capability Figure A.3 – Response mode operation circuit |
40 | A.3.2 Temperature compensation of the charge voltage and limiting of charge currents A.4 Discharge Figure A.4 – Constant current/constant voltage charge |
41 | Annex B (normative)Electromagnetic compatibility (EMC) B.1 Case 1 – EMC requirements for battery systems depending on each end-device application B.2 Case 2 – EMC requirements for testing battery system as an end-device |
42 | Annex C (informative)Cell behaviour inside and outside of operating region Figure C.1 – An example for operating region of lithium ion cell |
43 | Bibliography |