BS EN 61347-1:2015
$215.11
Lamp controlgear – General and safety requirements
Published By | Publication Date | Number of Pages |
BSI | 2015 | 128 |
This part of IEC 61347 specifies general and safety requirements for lamp controlgear for use on d.c. supplies up to 250 V and/or a.c. supplies up to 1 000 V at 50 Hz or 60 Hz.
This standard also covers lamp controlgear for lamps which are not yet standardized.
Tests dealt with in this standard are type tests. Requirements for testing individual lamp controlgear during production are not included.
Requirements for semi-luminaires are given in IEC 60598‑1:2014 (see definition 1.2.60).
Particular requirements for controlgears providing safety extra low voltage (from now on SELV) are given in Annex L.
It can be expected that lamp control gear which comply with this standard will not compromise safety between 90 % and 110 % of their rated supply voltage in independent use and when operated in luminaires complying with the safety standard IEC 60598‑1 and the relevant part IEC 60598‑2‑x and with lamps complying with the relevant lamp standards. Performance requirements may require tighter limits.
PDF Catalog
PDF Pages | PDF Title |
---|---|
9 | English CONTENTS |
16 | FOREWORD |
18 | INTRODUCTION |
19 | 1 Scope 2 Normative references |
21 | 3 Terms and definitions |
28 | Tables Table 1 – Required rated impulse withstand voltage of equipment |
29 | 4 General requirements 5 General notes on tests |
30 | 6 Classification |
31 | 7 Marking 7.1 Items to be marked |
32 | Table 2 – Working voltage and Uout steps |
33 | 7.2 Durability and legibility of marking 8 Terminals 9 Earthing 9.1 Provisions for protective earthing (Symbol: IEC 60417-5019 (2006-08)) |
34 | 9.2 Provisions for functional earthing (Symbol: IEC 60417-5018 (2011-07)) 9.3 Lamp controlgear with conductors for protective earthing by tracks on printed circuit boards 9.4 Earthing of built-in lamp controlgear 9.5 Earthing via independent controlgear 9.5.1 Earth connection to other equipment |
35 | 9.5.2 Earthing of the lamp compartments powered via the independent lamp controlgear 10 Protection against accidental contact with live parts |
36 | 11 Moisture resistance and insulation |
37 | 12 Electric strength Table 3 – Electric strength test voltage |
38 | 13 Thermal endurance test for windings of ballasts |
40 | Figures Figure 1 – Relation between winding temperature and endurance test duration |
41 | Table 4 – Theoretical test temperatures for ballasts subjected toan endurance test duration of 30 days |
42 | 14 Fault conditions |
44 | Table 5 – Minimum creepage distance on printed circuit board |
45 | Figure 2 – Test circuit for controlgear |
46 | 15 Construction 15.1 Wood, cotton, silk, paper and similar fibrous material 15.2 Printed circuits 15.3 Plugs and socket-outlets used in SELV or ELV circuits 15.4 Insulation between circuits and accessible parts 15.4.1 General |
47 | 15.4.2 SELV circuits 15.4.3 FELV circuits |
48 | 15.4.4 Other circuits 15.4.5 Insulation between circuits and accessible conductive parts |
49 | Figure 3 – Example of a controlgear insulation related to Table 6 |
50 | 16 Creepage distances and clearances 16.1 General Table 6 – Insulation requirements between active parts and accessible conductive parts |
52 | 16.2 Creepage distances 16.2.1 General Figure 4 – Application of Table 7 and Table 8 |
53 | 16.2.2 Minimum creepage distances for working voltages 16.2.3 Creepage distances for working voltages with frequencies above 30 kHz Table 7 – Minimum creepage distances for working voltage |
54 | 16.2.4 Compliance with the required creepage distances Table 8 – Minimum value of creepage distances for sinusoidal or non-sinusoidal working voltages at different frequency ranges; basic or supplementary insulation |
55 | 16.3 Clearances 16.3.1 General Figure 5 – Application of Table 9, Table 10 and Table 11 |
56 | 16.3.2 Clearances for working voltages Figure 6 – Application of Table 10 and Table 11 Table 9 – Minimum clearances for working voltages |
57 | 16.3.3 Clearances for ignition voltages and working voltages with higher frequencies |
58 | Table 10 – Minimum distances of clearances for sinusoidal or non-sinusoidal voltages; inhomogeneous field conditions; basic or supplementary insulation |
59 | 16.3.4 Compliance with the required clearances Table 11 – Minimum distances of clearances for sinusoidal or non-sinusoidal voltages; inhomogeneous field conditions; reinforced insulation |
60 | 17 Screws, current-carrying parts and connections 18 Resistance to heat, fire and tracking |
61 | 19 Resistance to corrosion 20 No-load output voltage |
62 | Annexes Annex A (normative) Test to establish whether a conductive part is a live part which may cause an electric shock A.1 General test requirements A.2 Limits for measured voltages A.3 Limits for touch current |
63 | Annex B (normative) Particular requirements for thermally protected lamp controlgear B.1 Introductory remark B.2 General B.3 Terms and definitions |
64 | B.4 General requirements for thermally protected lamp controlgear B.5 General notes on tests B.6 Classification B.6.1 General B.6.2 According to the class of protection B.6.3 According to the type of protection |
65 | B.7 Marking B.8 Thermal endurance of windings B.9 Lamp controlgear heating B.9.1 Preselection test |
66 | B.9.2 “Class P” thermally protected lamp controlgear |
67 | B.9.3 Temperature declared thermally protected lamp controlgear as specified in IEC 61347-2-8, with a rated maximum case temperature of 130 C or lower Table B.1 – Thermal protection operation |
68 | B.9.4 Temperature declared thermally protected lamp controlgear as specified in IEC 61347-2-8 with a rated maximum case temperature exceeding 130 C Table B.2 – Thermal protection operation |
69 | B.9.5 Temperature declared thermally protected lamp controlgear as specified in IEC 61347-2-9 Figure B.1 – Test circuit for thermally protected lamp controlgear |
71 | Annex C (normative) Particular requirements for electronic lamp controlgear with means of protection against overheating C.1 General C.2 Terms and definitions C.3 General requirements for electronic lamp controlgear with means of protection against overheating |
72 | C.4 General notes on tests C.5 Classification C.6 Marking C.7 Limitation of heating C.7.1 Pre-selection test C.7.2 Functioning of the protection means |
74 | Annex D (normative) Requirements for carrying out the heating tests of thermally protected lamp controlgear D.1 Test enclosure D.2 Heating of enclosure D.3 Lamp controlgear operating conditions D.4 Lamp controlgear position in the enclosure |
75 | D.5 Temperature measurements Figure D.1 – Example of heating enclosure for thermally protected ballasts |
76 | Annex E (normative) Use of constant S other than 4 500 in tw tests E.1 General E.2 Procedure A E.3 Procedure B |
78 | Figure E.1 – Assessment of claimed value of S |
79 | Annex F (normative) Draught-proof enclosure |
80 | Annex G (normative) Explanation of the derivation of the values of pulse voltages G.1 Pulse voltage rise time T G.2 Long-duration pulse voltages G.3 Short-duration pulse voltages G.4 Measurement of short-duration pulse energy |
83 | Figure G.1 – Circuit for measuring short-duration pulse energy Table G.1 – Component values for measurement of pulse energy |
85 | Figure G.2 – Suitable circuit for producing and applying long-duration pulses |
86 | Annex H (normative) Tests H.1 Ambient temperature and test room H.2 Supply voltage and frequency H.2.1 Test voltage and frequency H.2.2 Stability of supply and frequency H.2.3 Supply voltage waveform for reference ballast only |
87 | H.3 Electrical characteristics of lamps H.4 Magnetic effects H.5 Mounting and connection of reference lamps H.6 Reference lamp stability H.7 Instrument characteristics H.7.1 Potential circuits H.7.2 Current circuits |
88 | H.7.3 RMS measurements H.8 Invertor power sources H.9 Reference ballast H.10 Reference lamps H.11 Test conditions H.11.1 Resistance measurement delays H.11.2 Electrical resistance of contacts and leads H.12 Lamp controlgear heating H.12.1 Built-in lamp controlgear |
89 | H.12.2 Independent lamp controlgear H.12.3 Integral lamp controlgear |
90 | H.12.4 Test conditions Figure H.1 – Test arrangement for heating test |
91 | Annex I (normative) Additional requirements for built-in magnetic ballasts with double or reinforced insulation I.1 General I.2 Terms and definitions I.3 General requirements |
92 | I.4 General notes on tests I.5 Classification I.6 Marking I.7 Protection against accidental contact with live parts I.8 Terminals I.9 Provision for earthing I.10 Moisture resistance and insulation I.11 High-voltage impulse test |
93 | I.12 Thermal endurance test for windings of ballasts I.13 Ballast heating I.14 Screws, current-carrying parts and connections I.15 Creepage distances and clearances I.16 Resistance to heat and fire I.17 Resistance to corrosion |
94 | Annex J (normative) Schedule of more onerous requirements |
95 | Annex K (informative) Conformity testing during manufacture K.1 General K.2 Testing |
96 | Table K.1 – Minimum values for electrical tests |
97 | K.3 Additional dielectric strength tests for controlgear with protection against pollution by the use of coating or potting material |
98 | Annex L (normative) Particular additional requirements for controlgears providing SELV L.1 General L.2 Terms and definitions |
99 | L.3 Classification L.4 Marking |
100 | L.5 Protection against electric shock L.6 Heating Table L.1 – Symbols for marking if marking is used |
101 | L.7 Short-circuit and overload protection Table L.2 – Values of temperatures in normal use |
102 | L.8 Insulation resistance and electric strength L.8.1 General L.8.2 Insulation resistance L.8.3 Electric strength Table L.3 – Values of insulation resistances |
103 | L.9 Construction L.10 Components Table L.4 – Table of dielectric strength test voltages for controlgears intended for use in impulse withstand Category II |
104 | L.11 Creepage distances, clearances and distances through insulation Table L.5 – Distances through insulation (DTI) for the impulse withstand category II / material group IIIa (175 CTI < 400) |
105 | Annex M (informative) Dielectric strength test voltages for controlgear intended for the use in impulse withstand Category III Table M.1 – Table of dielectric strength test voltages for controlgears intended for use in impulse withstand Category III |
106 | Annex N (normative) Requirements for insulation materials used for double or reinforced insulation N.1 General N.2 Reference document N.3 Terms and definitions N.4 General requirements N.4.1 Material requirements N.4.2 Solid insulation N.4.3 Thin sheet insulation N.4.3.1 Thickness and composition of thin sheet insulation |
107 | N.4.3.2 Mandrel test (electric strength test during mechanical stress) |
108 | Table N.1 – Electric strength test voltage required during the mandrel test |
109 | Figure N.1 –Test arrangement for checking mechanical withstanding of insulating materials in thin sheet layers |
110 | Annex O (normative) Additional requirements for built-in electronic controlgear with double or reinforced insulation O.1 General O.2 Terms and definitions O.3 General requirements O.4 General notes on tests |
111 | O.5 Classification O.6 Marking O.7 Protection against accidental contact with live parts O.8 Terminals O.9 Provision for earthing O.10 Moisture resistance and insulation O.11 Electric strength O.12 Thermal endurance of windings O.13 Fault conditions |
112 | O.14 Construction O.15 Creepage distances and clearances O.16 Screws, current-carrying parts and connections O.17 Resistance to heat and fire O.18 Resistance to corrosion |
113 | Annex P (normative) Creepage distances and clearances and distance through isolation (DTI) for lamp controlgear which are protected against pollution by the use of coating or potting P.1 General P.2 Creepage distances P.2.1 General P.2.2 Minimum creepage distances for working voltages and rated voltage with frequencies up to 30 kHz P.2.3 Creepage distances for working voltages with frequencies above 30 kHz Table P.1 – Minimum creepage distances for working voltages and rated voltages with frequencies up to 30 kHz |
114 | P.2.4 Compliance with the required creepage distances P.2.4.1 General Table P.2 – Minimum value of creepage distances for sinusoidal or non-sinusoidal working voltages at different frequency ranges; basic or supplementary insulation |
115 | P.2.4.2 Preconditioning of the lamp control gear P.2.4.3 Electrical tests after conditioning P.3 Distance through isolation P.3.1 General |
116 | P.3.2 Compliance tests P.3.3 Preconditioning of the lamp controlgear P.3.4 Electrical tests after conditioning |
117 | Table P.3 – Impulse withstand test voltage for products of impulse withstand category II |
118 | Annex Q (informative) Example for Up calculation Figure Q.1 – Example for the calculation of Up |
119 | Annex R (informative) Concept of creepage distances and clearances R.1 Basic concept considerations R.1.1 Creepage distances R.1.2 Clearances |
120 | R.2 Why setting up tables? |
121 | Annex S (informative) Examples of controlgear insulation coordination Figure S.1 – Example of schematic drawings, showing the different controlgear insulation coordination |
122 | Annex T (informative) Creepage distances and clearances for controlgear with a higher degree of availability (impulse withstand category III) T.1 General T.2 Clearances for working voltages of lamp controlgear not protected against pollution by coating or potting materials Table T.1 – Minimum clearances for working voltages – Impulse withstand category III |
123 | T.3 Clearances for working voltages of lamp controlgear protected against pollution by coating or potting T.4 Distances through insulation – Particular additional requirements for controlgear providing SELV Table T.2 – Impulse withstand test voltages of impulse withstand category III for lamp controlgear protected against pollution by coating or potting material |
124 | Table T.3 – Distances through insulation (DTI) for the impulse withstand category III/material group IIIa (175 CTI < 400) |
125 | Bibliography |