BS HD 60364-8-1:2015:2018 Edition
$198.66
Low-voltage electrical installations – Energy efficiency
Published By | Publication Date | Number of Pages |
BSI | 2018 | 58 |
This part of IEC 60364 provides additional requirements, measures and recommendations for the design, erection and verification of all types of low-voltage electrical installation including local production and storage of energy for optimizing the overall efficient use of electricity.
It introduces requirements and recommendations for the design of an electrical installation within the framework of an energy efficiency management approach in order to get the best permanent functionally equivalent service for the lowest electrical energy consumption and the most acceptable energy availability and economic balance.
These requirements and recommendations apply, within the scope of the IEC 60364 series, for new installations and modification of existing installations.
This standard is applicable to the electrical installation of a building or system and does not apply to products. The energy efficiency of these products and their operational requirements are covered by the relevant product standards.
This standard does not specifically address building automation systems.
PDF Catalog
PDF Pages | PDF Title |
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2 | undefined |
7 | English CONTENTS |
10 | FOREWORD |
12 | INTRODUCTION |
13 | 1 Scope 2 Normative references |
14 | 3 Terms and definitions 3.1 General |
15 | 3.2 Electrical energy management |
16 | 3.3 Energy measurement |
17 | 3.4 Sectors of activities 4 General 4.1 Fundamental principles 4.1.1 Safety of the electrical installation 4.1.2 Availability of electrical energy and user decision |
18 | 4.1.3 Design requirements and recommendations 5 Sectors of activities 6 Design requirements and recommendations 6.1 General 6.2 Determination of load profile 6.3 Determination of the transformer and switchboard location with the barycentre method |
19 | 6.4 HV/LV substation 6.4.1 General 6.4.2 Optimum number of HV/LV substations 6.4.3 Working point of the transformer 6.4.4 Efficiency of the transformer |
20 | 6.5 Efficiency of local production 6.6 Efficiency of local storage 6.7 Losses in the wiring 6.7.1 Voltage drop 6.7.2 Cross-sectional areas of conductors 6.7.3 Power factor correction 6.7.4 Reduction of the effects of harmonic currents |
21 | 7 Determination of the zones, usages and meshes 7.1 Determining the zones 7.2 Determining the usages within the identified zones 7.3 Determining the meshes 7.3.1 General |
22 | 7.3.2 Criteria for considering meshes |
23 | 7.3.3 Meshes 7.4 Impacts on distribution system design |
24 | 8 Energy efficiency and load management system 8.1 General Figures Figure 1 – Energy efficiency and load management system |
25 | 8.2 Requirements from the user 8.2.1 General 8.2.2 Requirements on the loads 8.2.3 Requirements on the supplies 8.3 Inputs from loads, sensors and forecasts 8.3.1 Measurement |
26 | Figure 2 – Power distribution scheme Tables Table 1 – Overview of the needs |
27 | 8.3.2 Loads |
28 | 8.3.3 Energy sensors 8.3.4 Forecasts 8.3.5 Data logging 8.3.6 Communication 8.4 Inputs from the supplies: energy availability and pricing, smart metering 8.5 Information for the user: monitoring the electrical installation |
29 | 8.6 Management of loads through the meshes 8.6.1 General 8.6.2 Energy management system 8.7 Multi-supply source management: grid, local electricity production and storage |
30 | 9 Maintenance and enhancement of the performance of the installation 9.1 Methodology Figure 3 – Iterative process for electrical energy efficiency management |
31 | 9.2 Installation life cycle methodology 9.3 Energy efficiency life cycle 9.3.1 General 9.3.2 Performance programme Table 2 – Process for electrical energy efficiency management and responsibilities |
32 | 9.3.3 Verification 9.3.4 Maintenance 10 Parameters for implementation of efficiency measures 10.1 General 10.2 Efficiency measures 10.2.1 Current-using/carrying equipment |
33 | 10.2.2 Distribution system |
34 | 10.2.3 Installation of monitoring systems |
36 | 11 Actions |
37 | 12 Assessment process for electrical installations 12.1 New installations, modifications and extensions of existing installations 12.2 Adaptation of existing installations |
38 | Annex A (informative) Determination of transformer and switchboard location using the barycentre method A.1 Barycentre method |
40 | Figure A.1 – Example 1: Floor plan of production plant with the planned loads and calculated barycentre |
41 | A.2 Total load barycentre A.2.1 General Figure A.2 – Barycentre – Example 2: Calculated |
42 | A.2.2 Subdistribution board locations A.2.3 Iterative process Figure A.3 – Example of location of the barycentre in an industrial building |
43 | Annex B (informative) Example of a method to assess the energy efficiency of an electrical installation B.1 Energy efficiency parameters Table B.1 – Determination of load profile in kWh |
44 | Table B.2 – Location of the main substation |
45 | Table B.3 – Required optimization analysis for motors Table B.4 – Required optimization analysis for lighting |
46 | Table B.5 – Required optimization analysis for HVAC Table B.6 – Required optimization analysis for transformers |
47 | Table B.7 – Required optimization analysis for wiring system Table B.8 – Required optimization analysis for power factor correction |
48 | Table B.9 – Requirement for power factor (PF) measurement Table B.10 – Requirement for electrical energy (kWh) and power (kW) measurement |
49 | Table B.11 – Requirement for voltage (V) measurement a |
50 | Table B.12 – Requirement for harmonic and interharmonic measurement a |
51 | B.2 Energy efficiency performance levels Table B.13 – Requirement for renewable energy |
52 | Table B.14 – Minimum requirement for distribution of annual consumption Table B.15 – Minimum requirement for reducing the reactive power |
53 | B.3 Installation profiles Table B.16 – Minimum requirement for transformer efficiency |
54 | B.4 Electrical installation efficiency classes Table B.17 – Energy efficiency measures profile Table B.18 – Energy efficiency performance profile for an industrial installation |
55 | B.5 Example of installation profile (IP) and electrical installation efficiency class (EIEC) Table B.19 – Electrical installation efficiency classes Table B.20 – Example of energy efficiency profile – Efficiency measures |
56 | Table B.21 – Example of energy efficiency profile –Energy efficiency performance levels |
57 | Bibliography |