BS EN IEC 61800-2:2021
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Adjustable speed electrical power drive system – General requirements. Rating specifications for adjustable speed AC power drive systems
Published By | Publication Date | Number of Pages |
BSI | 2021 | 124 |
IEC 61189-5-301:2021 specifies methods for testing the characteristics of soldering paste using fine solder particles (hereinafter referred to as solder paste). This document is applicable to the solder paste using fine solder particle such as type 6, type 7 specified in IEC 61190-1-2 or finer particle sizes. This type of solder paste is used for connecting wiring and components in high-density printed circuit boards which are used in electronic or communication equipment and such, equipping fine wiring (e.g., minimum conductor widths and minimum conductor gaps of 60 µm or less). Test methods for the characteristics of solder paste in this document are considering the effect of surface activation force due to the fine sized solder particles which could affect the test result by existing test methods.
PDF Catalog
PDF Pages | PDF Title |
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2 | undefined |
6 | Annex ZA(normative)Normative references to international publicationswith their corresponding European publications |
11 | English CONTENTS |
15 | FOREWORD |
18 | INTRODUCTION |
20 | 1 Scope |
21 | 2 Normative references |
23 | 3 Terms and definitions Tables Table 1 – List of general terms |
24 | Table 2 – List of input ratings of BDM/CDM/PDS Table 3 – List of output ratings of BDM/CDM/PDS |
25 | Table 4 – List of motor speed and torque ratings |
27 | Figures Figure 1 – BDM/CDM/PDS manufacturer/customer relationship |
29 | Figure 2 – Operating quadrants |
30 | Table 5 – Basic classification of PDS by voltage |
35 | Figure 3 – Example of a power drive system |
41 | 4 Guidance for specification of BDM/CDM/PDS and methodologies for compliance 4.1 General 4.2 Methodology for compliance 4.2.1 Agreement between customer and manufacturer |
42 | 4.2.2 Methodology to state compliance without customer input |
43 | Table 6 – Selection of equipment rating, performance, functionalityby responsible parties with corresponding test specification |
47 | 4.3 Applicable standards 5 Performance and functionality criteria 5.1 General |
48 | 5.2 BDM/CDM/PDS characteristics and topology 5.2.1 General 5.2.2 BDM/CDM/PDS characteristics |
49 | 5.2.3 Basic topology for BDM/CDM/PDSs Figure 4 – Typical BDM/CDM/PDS |
50 | Figure 5 – Common DC link BDM/CDM/PDS |
51 | 5.2.4 Cooling topology Figure 6 – BDM/CDM/PDS with brake Figure 7 – BDM/CDM/PDS with AIC |
52 | 5.2.5 Bypass and redundant configurations |
53 | 5.3 Ratings 5.3.1 General Figure 8 – Bypass configuration for system with indirect converter Figure 9 – Load commutation inverters LCI-synchronous motorin a partly redundant configuration |
54 | 5.3.2 Input ratings Table 7 – Overview of input and output ratings of the BDM/CDM/PDS |
55 | 5.3.3 Output ratings |
56 | Figure 10 – Example of operating region of a PDS |
57 | 5.3.4 Operating quadrants Figure 11 – Overload cycle example Table 8 – Example of reduced maximumcontinuous load as a function of an overload |
58 | 5.3.5 Ratings and functionality of the control equipment 5.3.6 Special ratings related to BDM/CDM/PDS or motor |
65 | Figure 12 – Insulation stressing types |
66 | Figure 13 – Definition of the transient voltage at the terminals of the motor Figure 14 – Admissible pulse voltage (including voltage reflection anddamping) at the motor terminals as a function of the peak rise time ta |
67 | Table 9 – Limiting parts and typical voltage stress capabilityof the motor insulation system |
68 | 5.4 Performance 5.4.1 Operational |
69 | Figure 15 – Deviation band |
70 | Table 10 – Maximum deviation bands (percent) |
72 | Figure 16 – Time response following a step change of reference input –No change in operating variables |
73 | Figure 17 – Time response following a changein an operating variable – No reference change Figure 18 – Time response following a reference change at specified rate |
75 | Figure 19 – Frequency response of the control – Reference value as stimulus |
77 | 5.4.2 Fault supervision |
78 | Table 11 – PDS protection functions |
79 | 5.4.3 Minimum status indication required 5.4.4 I/O devices |
81 | 5.5 General safety 5.6 Functional safety 5.7 EMC 5.8 Ecodesign 5.8.1 General |
82 | 5.8.2 Energy efficiency and power losses 5.8.3 Environmental impact 5.9 Environmental condition for service, transport and storage 5.9.1 General 5.9.2 Operation |
83 | Table 12 – Environmental service conditions |
84 | Table 13 – Definitions of pollution degree Table 14 – Environmental vibration limits for fixed installation |
85 | Table 15 – Installation vibration limits Table 16 – Environmental shock limits for fixed installation |
87 | 5.9.3 Storage and transport of equipment 5.9.4 Mechanical conditions Table 17 – Storage and transport limits |
88 | 5.9.5 Specific storage hazards Table 18 – Transportation vibration limits Table 19 – Transportation limits of free fall |
89 | 5.9.6 Environmental service tests (type test) 5.10 Types of load duty profiles Table 20 – Environmental service tests |
90 | 5.11 Generic interface and use of profiles for PDS |
91 | 5.12 Voltage on power interface Figure 20 – Example of relationship of IEC 61800-7 (all parts) to controlsystem software and the BDM/CDM/PDS |
92 | 5.13 Driven equipment interface 5.13.1 Critical speeds 5.13.2 Torsion analysis |
93 | 5.14 Explosive environment 5.15 Earthing requirements Figure 21 – Example of protective earthing and interconnection of main components |
94 | 6 Test 6.1 General 6.2 Items of individual PDS component tests 6.3 Overview of standards and tests for PDS components 6.4 Performance of tests |
95 | 6.5 Standard tests for BDM/CDM/PDS 6.5.1 General 6.5.2 Current source converter zero power factor test 6.6 Test specifications 6.6.1 Visual inspections (type test, sample test and routine test) 6.6.2 Supply system earthing conditions |
96 | 6.6.3 Static performance and rating test |
97 | Figure 22 – Measuring circuit of PDS |
103 | 6.6.4 Electrical safety 6.6.5 Functional safety 6.6.6 EMC |
104 | 6.6.7 Ecodesign 6.6.8 Environmental condition tests |
105 | Table 21 – Shock test |
106 | 6.6.9 Communication profiles 6.6.10 Explosive atmosphere environment 7 Information and marking requirements 7.1 General 7.2 Marking on product |
107 | 7.3 Information to be supplied with the PDS or BDM/CDM 7.4 Information to be supplied or made available 7.5 Safety and warning 7.5.1 Safety and warning labels |
108 | 7.5.2 Additional safety considerations of a PDS |
109 | Annex A (informative)Classification of PDS into low-voltagesystem and high-voltage system A.1 General A.2 Classification of PDS by voltage Figure A.1 – Basic configuration of PDS |
110 | A.3 Examples A.3.1 PDS with a supply transformer A.3.2 PDS with an active infeed converter Figure A.2 – Example of low-voltage PDS with a supply transformer Table A.1 – Basic classification of PDS by voltage |
111 | A.3.3 PDS with an output transformer Figure A.3 – Example of low-voltage PDS with an active infeed converter Figure A.4 – Example of high-voltage PDS with an active infeed converter Figure A.5 – Example of high-voltage PDS with an output transformer |
112 | A.3.4 PDS with a common DC link Figure A.6 – Example of low-voltage PDS with a common DC link |
113 | A.3.5 PDS with a step-up chopper A.3.6 PDS with parallel-connected line-side converters Figure A.7 – Example of high-voltage PDS with a common DC link Figure A.8 – Example of high-voltage PDS with a step-up chopper |
114 | A.3.7 PDS with series-connected line-side converters Figure A.9 – Example of low-voltage PDS with parallel-connected rectifiers Figure A.10 – Example of high-voltage PDSwith parallel-connected line-side converters |
115 | A.3.8 PDS with star-connected inverters Figure A.11 – Example of high-voltage PDS with series-connected rectifiers Figure A.12 – Example of high-voltage PDS with series-connected rectifiers |
116 | A.3.9 PDS with a multilevel inverter Figure A.13 – Example of high-voltage PDS with star-connected inverters |
117 | Figure A.14 – Example of high-voltage PDS with a multilevel inverter Figure A.15 – Example of a power module |
118 | A.3.10 Multiple PDSs with a common supply transformer |
119 | Figure A.16 – Example of multiple low-voltage/high-voltage PDSswith a common supply transformer |
120 | Annex B (informative)Determination of the input current of BDM/CDM/PDS Figure B.1 – Example of distortion effect of the input currentaffected by a three-phase converter with capacitive load |
122 | Bibliography |