GB 14045-1993 General requirements and safety requirements for ballasts for discharge lamps (except tubular fluorescent lamps) GB14045-1993 Standard download and decompression password: www.bzxz.net

National Standard of the People's Republic of China
General requirements and safety requirements for ballasts for discharge lamps (excluding tubular fluorescent lamps)
Ballasts for discharge lamps (excluding tubular fluorescent lamps) general and safety requirementsGB14045—93| |tt||This standard is equivalent to the international standard IEC922 "Ballasts for Discharge Lamps (Except Tubular Fluorescent Lamps): General Requirements and Safety Requirements". 1 Subject content and scope of application
This standard specifies the general requirements, safety requirements, test methods, inspection rules and markings for ballasts for discharge lamps such as high-pressure mercury lamps, low-pressure sodium lamps, high-pressure sodium lamps and metal halide lamps. , packaging, transportation, storage, etc. This standard applies to inductive ballasts powered by AC power below 1000V, 50Hz or 60Hz. The rated power, size and characteristics of the discharge lamp used in conjunction with it should comply with the provisions of the relevant lamp standards. 2 Reference standards
GB7000 General safety requirements and tests for lamps GB7001 Protection level classification of lamp shells
GB4728.2 Symbol elements, limited symbols and other commonly used symbols GB191 Packaging, storage and transportation indication marks
GB2829 Periodic inspection and counting sampling procedures and sampling tables (suitable for inspection of production process stability) GB6109.1 Enameled round winding wire
ZBK74011 General requirements and safety requirements for AC electronic ballasts for tubular fluorescent lamps 3 terms, Symbol
3.1 Ballast ballast
A device connected between the power supply and one or more discharge lamps. Its main function is to limit the lamp current to the required value by relying on inductance, capacitance, or a combination of inductance and capacitance. Ballasts may also include components that vary the supply voltage, provide auxiliary starting voltage, prevent cold starts, reduce stroboscopic effects, correct power factor, and suppress radio frequency interference.
a. Independent ballast symbol: independent ballast can be installed outside the lamp without the need for an additional casing. It may also be a built-in ballast with an enclosure that provides the required protection as marked.
b. Built-inballast is a ballast specially designed to be installed in a lamp, box or casing. The control room within the light pole base is considered a housing. c. The integral ballast becomes an irreplaceable part of the lamp and cannot be tested separately from the lamp. The State Bureau of Technical Supervision approved it on 1993-01-04 and implemented it on 1993-07-01
3.2 Reference ballast referenceballastGB14045—9.3
A ballast specially designed for testing ballasts and selecting reference lamps. Its main feature is a stable voltage-to-current ratio at rated frequency, which is relatively unaffected by changes in current, temperature and surrounding magnetic fields. 3.3 Reference lamp referencelamp
The lamp selected for testing the ballast. When the lamp is matched with the reference ballast and works under specified conditions, its electrical characteristics are close to the nominal values ??stipulated in the relevant lamp standards.
3.4 ??The correction current of the reference ballast, calibrationcurrentofareferenceballast, is used to correct and adjust the current value based on the reference ballast current. 3.5 Supply voltage supplyvoltage
The voltage supplying the entire circuit of lamps and ballasts. 3.6 Supply current supplycurrent
The current supplying the entire circuit of lamps and ballasts. 3.7 Working voltage workingvoltage
The highest effective value voltage that may be generated between the two ends of any insulator when the ballast is operating at the rated voltage under open circuit conditions or during lamp operation, the transient value in the power grid Negligible. 3.8 Circuit power factor (symbol: a) circuitpowerfactor The power factor of the combination of the ballast and its supporting lamps. 3.9 High power factor ballast highpowerfactorballast A ballast with a line power factor of not less than 0.85 (lead or lag). Note: The value of 0.85 has taken into account the influence of the distortion of the current waveform on the power factor. 3.10 The rated maximum operating temperature of the capacitor case (symbol: t) ratedmaximumoperatingtemperatureofacapapacitorcase
The temperature that the hottest part on the outer surface of the capacitor must not exceed under normal operating conditions. 3.11 The rated maximum operating temperature of the ballast winding (symbol: t.) ratedmaximumoperatingtemperatureofaballastwinding
The maximum temperature of the winding determined by the manufacturer. At this temperature, the service life of the ballast is at least 10 years of continuous operation. 3.12 The rated temperature rise of the ballast winding (symbol: At) ratedtemperatureriseofaballastwinding is the temperature rise value of the winding under the conditions specified in this standard determined by the manufacturer. 3.13 Test time of durability test (symbol: D) testdurationofendurancetest is the duration of the durability test selected to determine the temperature conditions. 3.14 Decay rate of ballast winding insulator (symbol: S) degradationofinsulationofaballastwinding is a constant that determines the decay rate of ballast insulator. 3.15 highvoltageimpulse A deliberately applied non-periodic instantaneous voltage that rises rapidly to a peak value and then drops more slowly to zero. The pulse is generally represented by the sum of two exponents.
3.16 trigger ignitor
generates voltage pulses to start the discharge lamp, but does not provide a starting device for electrode preheating. 3.17 Assessment test assessmenttest
A series of complete tests conducted on several samples to check whether a product meets the requirements of relevant standards. 3.18 Symbol symbol
Protective grounding (ground wire) symbol:
4 Product categories
Ballasts are divided into:
independent ballast according to the installation method;| |tt||a.
Built-in ballast;
b.
Integral ballast.
c.
5 Technical Requirements
5.1 General Requirements
GB14045-93wwW.bzxz.Net
Ballasts should be designed and constructed so that they can Without causing harm to users or the surrounding environment, the capacitors and other components in the ballast should comply with relevant standards. 5.2 Safety requirements
5.2.1 Protection against accidental contact with live parts Ballasts that do not rely on the lamp housing to prevent electric shock should be able to fully prevent accidental contact with live parts when installed according to normal use conditions.
Varnishes and enamels are protective or insulating measures that do not meet this requirement. Parts used to prevent accidental electric shock should have sufficient mechanical strength and must not be loose during normal use. They cannot be removed without tools. tear down.
Ballasts equipped with internal capacitors with a total capacitance exceeding 0.5μF should have a discharge device. When the ballast is disconnected from the power supply at rated voltage for 1 minute, its terminal voltage should not exceed 50V. 5.2.2 Terminals
Threaded terminals shall comply with the requirements of Chapter 13 of GB7000. Threadless terminal blocks shall comply with the requirements of Chapter 14 of GB7000. 5.2.3 Grounding device
5.2.3.1 All grounding terminals shall comply with the requirements of Article 5.2.2. Electrical connections should be sufficiently locked to prevent accidental loosening and should not be loosened by hand. For threadless terminals, they should not be loosened at will. The ballast is allowed to be grounded by means of a device that secures the ballast. However, if the ballast is equipped with a ground terminal, this terminal may only be used for grounding the ballast.
5.2.3.2 All parts of the grounding terminal shall be designed to minimize the hazards of electrolytic corrosion due to contact with the grounding conductor or any other metal parts.
The screws or other parts of the ground terminal should be made of brass, other metals with corrosion resistance no less than brass, or materials with anti-corrosion coating and at least one of the contact surfaces should be exposed metal. production. 5.2.4 Moisture-proof and insulation performance
The ballast should have good moisture-proof performance and insulation performance. 5.2.4.1 The ballast shall not be damaged after being subjected to the humidity test. 5.2.4.2 There should be sufficient insulation between the following components, and the insulation resistance measured after the test specified in Article 6.5 shall not be less than 2M2.
a. Between live parts of different polarity that are separated or can be separated; b. Between live parts and external parts including fixing screws. 5.2.5 Dielectric strength
The ballast should be able to withstand the 1-minute withstand voltage test after the insulation resistance measurement in 5.2.4.2. The test voltage is specified in Table 1. Working voltage U
U≤42
42
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