BS EN 61914:2016
$167.15
Cable cleats for electrical installations
Published By | Publication Date | Number of Pages |
BSI | 2016 | 34 |
This International Standard specifies requirements and tests for cable cleats and intermediate restraints used for securing cable in electrical installations. Cable cleats provide resistance to electromechanical forces where declared. This standard includes cable cleats that rely on a mounting surface specified by the manufacturer for axial and/or lateral retention of cables.
This standard does not apply to:
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cable glands;
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cable ties.
PDF Catalog
PDF Pages | PDF Title |
---|---|
6 | English CONTENTS |
8 | FOREWORD |
10 | 1 Scope 2 Normative references 3 Terms, definitions and abbreviations |
12 | 4 General requirements 5 General notes on tests |
13 | 6 Classification 6.1 According to material 6.1.1 Metallic 6.1.2 Non-metallic 6.1.3 Composite 6.2 According to maximum and minimum temperature Tables Table 1 – Maximum temperature for permanent application Table 2 – Minimum temperature for permanent application |
14 | 6.3 According to resistance to impact 6.3.1 Very light 6.3.2 Light 6.3.3 Medium 6.3.4 Heavy 6.3.5 Very heavy 6.4 According to type of retention or resistance to electromechanical forces or both 6.4.1 General 6.4.2 With lateral retention 6.4.3 With axial retention 6.4.4 Resistant to electromechanical forces, withstanding one short circuit 6.4.5 Resistant to electromechanical forces, withstanding more than one short circuit 6.5 According to environmental influences 6.5.1 Resistant to ultraviolet light for non-metallic and composite components 6.5.2 Resistant to corrosion for metallic and composite components 7 Marking and documentation 7.1 Marking |
15 | 7.2 Durability and legibility 7.3 Documentation 8 Construction 9 Mechanical properties 9.1 Requirements |
16 | 9.2 Impact test |
17 | Figures Figure 1– Typical arrangement for impact test |
18 | 9.3 Lateral load test Table 3 – Impact test values |
19 | 9.4 Axial load test Figure 2 – Typical arrangements for lateral load test |
20 | Figure 3 – Typical arrangement for axial load test |
21 | 9.5 Test for resistance to electromechanical force 9.5.1 General Figure 4 – Typical assemblies for test for resistance to electromechanical force |
22 | Figure 5 – Typical arrangement of three cables in trefoil formation Figure 6 – Typical arrangement of cables in flat formation |
23 | 9.5.2 For cable cleats and intermediate restraints classified in 6.4.4 9.5.3 For cable cleats and intermediate restraints classified in 6.4.5 10 Fire hazards 10.1 Flame propagation |
24 | 10.2 Smoke emission 10.3 Smoke toxicity Figure 7 – Typical arrangement of the needle-flame test |
25 | 11 Environmental influences 11.1 Resistance to ultraviolet light 11.2 Resistance to corrosion 11.2.1 General |
26 | 11.2.2 Salt spray test 12 Electromagnetic compatibility 12.1 Electromagnetic emission 12.2 Inductive heating Table 4 – Resistance to corrosion |
27 | Annex A (informative) Examples of cable cleats |
28 | Annex B (informative) Calculation of forces caused by short-circuit currents B.1 Characteristics Figure B.1 – Short-circuit current of a far-from-generator short circuit with constant a.c. component |
29 | B.2 Specification of the test current B.3 Calculation of the mechanical forces between conductors Figure B.2 – Short-circuit current of a near-to-generator short circuit with decaying a.c. component |
30 | Figure B.3 – Two parallel conductors |
32 | Bibliography |