This standard applies to tubular fluorescent lamps and other gas discharge lamps (self-ballasted lamps) that integrate control starting and stable burning components for general lighting in homes and similar places. This standard specifies the safety and interchangeability requirements for such lamps, as well as test methods and conditions for verifying their compliance. GB 16844-1997 Safety requirements for self-ballasted lamps for general lighting GB16844-1997 Standard download decompression password: www.bzxz.net

GB16844—1997
This standard is equivalent to the International Electrotechnical Commission IEC968:1988 "Safety Requirements for Self-ballasted Fluorescent Lamps for General Lighting" and the 1991 No. 1 Amendment. This standard is completely identical to IEC968 in terms of technical content and format. The formulation of this standard can further promote the improvement of the safety performance of self-ballasted fluorescent lamps for general lighting in my country, and provide favorable conditions for my country's self-ballasted fluorescent lamps for general lighting to enter the international market and compete on an international scale. The following standards are referenced in this standard:
IEC61 Lamp caps, lamp holders and gauges for testing their safety and interchangeability IEC61-1 Part 1: Lamp caps
IEC61-3 Part 3: Gauges
IEC238:1982 Screw-type lamp holders
IEC360:1987 Standard test methods for temperature rise of lamp caps IEC695-2-1:1980 Fire tests Part 2: Test methods, hot wire tests and guidelines This standard was proposed by the China Light Industry Association.
This standard is under the jurisdiction of the National Electric Light Source Standardization Center. The drafting units of this standard are: Beijing Electric Light Source Research Institute, Zhejiang Sunshine Group Corporation, Foshan Minghua Electric Appliance Factory, and Hangzhou Electronic Energy Saving Lamp Factory. The drafters of this standard are: Qu Suhui, Liao Yan, Chen Senjie, Yang Mei, Yang Xiaoping, Ye Jinkun, and Tong Xianhai. 74
GB16844--1997
IEC Foreword
1) IEC's formal resolutions or agreements on technical issues are formulated by the relevant technical committees, and all national committees with special interests in this regard are represented. Therefore, these resolutions and agreements express the international consensus on this issue to the greatest extent possible.
2) These resolutions and agreements take the form of recommended standards for international use, but in a sense, these recommended standards are adopted by national committees.
3) In order to promote international unification, IEC hopes that national committees will adopt IEC standards as their national standards as much as possible according to the conditions of each country. Any differences between IEC standards and national standards should be clearly stated in the latter. This standard was formulated by 34A: Lamps Technical Committee, and IEC34 Technical Committee is: Lamps and Related Annexes. The content of this standard is based on the following documents: Draft
34A(CO)366
Voting Report
34A(CO)418
The specific details of the voting for this standard can be found in the reports listed in the table above. Printing format used in this standard:
Requirement part: regular font; Test requirements: italic font; Notes: small regular font The following standards are referenced in this standard:
IEC61 Lamp caps, lamp holders and gauges for testing their safety and interchangeability IEC61-1 Part 1: Lamp caps
IEC61-3 Part 3: Gauges
IEC238:1982 Screw-type lamp holders
IEC360:1987 Standard test method for temperature rise of lamp caps IEC695-2-1:1980 Fire tests Part 2: Test methods, hot wire tests and guidelines 75
National Standard of the People's Republic of China
Safety requirements for self-ballasted lamps for general lighting services- Safety requirements
GB 16844—1997
idt IEC 968:1988
This standard applies to tubular fluorescent lamps and other gas discharge lamps (self-ballasted lamps) for general lighting in homes and similar places, which have integrated components for starting and maintaining stable burning. This standard specifies the safety and interchangeability requirements for this type of lamp, as well as test methods and conditions for verifying whether it is qualified.
Scope of application is as follows:
Rated power below 60W;
-Rated voltage 100V~250V;
-Edison screw lamp cap or bayonet lamp cap. The requirements of this standard only involve type tests. The inspection methods for all products and batch products are under consideration. 2 Definitions
This standard adopts the following definitions:
2.1 Self-ballasted lamps
A lamp that contains a lamp cap, a light source and the necessary devices for starting and maintaining a stable burning point, and is integrated into one, without damaging the lamp, and they are not removable.
2.2 Model
Lamps with the same rated photoelectric parameters but different lamp cap models. 2.3 Rated voltage
The voltage or voltage range marked on the lamp.
2.4 Rated power
The power marked on the lamp.
2.5 Rated frequency
The frequency marked on the lamp.
2.6 Lamp cap temperature rise (△t.)
Refers to the temperature rise on the surface of the standard test lamp holder assembled with the lamp. The measurement should be carried out in accordance with the standard test method introduced in IEC360. 2.7 Live parts
Conductive parts that may cause electric shock in normal use. 2.8 Type test
One or a series of tests conducted on type test samples to verify whether the design of a product meets the technical requirements of the relevant standards.
Approved by the State Administration of Technical Supervision on June 3, 199776
Implemented on May 1, 1998
2.9 Type test samples
GB 16844--1997
Samples consisting of one or more sets of identical components provided by the manufacturer or seller for type testing. 3 General requirements and general test requirements
3.1 The design and structure of self-ballasted lamps shall ensure that the lamps function reliably in normal use and will not cause harm to users and the surrounding environment. Generally speaking, all specified items shall be tested when checking eligibility. 3.2 Unless otherwise specified, all test items shall be tested at rated voltage and rated frequency in a test room with a temperature of 25℃±1℃ and no convection.
If the voltage range is marked on the lamp, the average value of the voltage range shall be taken as the rated voltage. 3.3 The various components of self-ballasted lamps are factory-sealed and cannot be repaired. They must not be opened for testing. If it is necessary to inspect the lamp and test its circuit, the manufacturer or seller should be consulted to provide lamps specially designed for simulating abnormal conditions (see Chapter 12). 4 Marking
4.1 The lamp should have the following clear and firm indications: a) Source mark (which may take the form of a trademark, manufacturer or seller's name). b) Rated voltage and voltage range (expressed in "V" or "volt"). c) Rated power (expressed in \W\ or "watt". d) Rated frequency (expressed in "Hz".
4.2 The manufacturer shall add the following markings on the lamp, on the packaging, or in the instructions for use: a) The current of the lamp.
b) If the burning position of the lamp is restricted, indicate this on the mark. c) If the weight of the replacement lamp significantly exceeds the weight of the replaced lamp, it should be noted that the increased weight may reduce the mechanical stability of some lamps.
d) The specific conditions and restrictions that the lamp must comply with when used, such as when used in a dimming circuit. 4.3 Check its compliance in accordance with the following clauses: a) Use the appearance method to check whether the marking required by 4.1 and the clarity of the marking are present. b) Check the durability of the marking in the following way: Use a cloth dampened with water to gently wipe the mark for 15 s, wait for it to dry, and then wipe it with a piece of cloth dipped in hexane for 15s. After the test, the mark should still be clear. c) Use the appearance method to check whether there is the mark required by 4.2. 5 Interchangeability
5.1 In order to ensure interchangeability, the lamp should use a lamp holder that complies with the provisions of IEC61-1. 5.2 Use the gauges specified in Table 1 to check the interchangeability of the finished lamp to check the cap size. The gauges in Table 1 are all quoted from IEC 61-3. Table 1 Gauges and cap sizes for checking interchangeability Lamp
Cap size checked with gauge
A Maximum value and A Minimum value
DiMaximum value
NMinimum value
Radial position of pin
Length of pin inserted into lamp holder
Fixed position of pin in lamp holder
Gauge leaflet number
7006-10
J7006-11
7006-4A
7006-4B
Maximum size of thread
GB16844—1997
Table 1 (end)
Dimensions of lamp caps inspected by gauges
Minimum size of the outer diameter of the lamp cap thread
Contact
Maximum size of the thread
Maximum size of the outer diameter of the lamp cap thread
Gauge loose-leaf number
7006-27B
7006-28A
7006-50
7006-27D
7006-27E
5.3 The mass of a self-ballasted lamp with a B22d lamp cap or an E27 lamp cap shall not exceed 1kg, and the bending moment between the lamp and the lamp holder shall not be greater than 2N·m.
Compliance shall be checked by measurement.
6 Prevention of electric shock
Self-ballasted lamps shall be so designed that, when screwed into a lampholder complying with IEC 238 without any auxiliary housing in the shape of a lamp, no metal parts inside or on the lamp cap can be touched. Compliance is checked by the test finger specified in Figure 1, applying a force of 10 N if necessary. Lamps with Edison screw caps shall be designed to comply with the requirements for protection against accidental contact for lamps for general lighting (GLS). Compliance may be checked with the aid of the gauges specified in 7006-51A of the latest version of IEC 61-3 for testing E27 caps. Test requirements for self-ballasted lamps with E26 caps are under consideration. Test requirements for self-ballasted lamps with B22 caps are the same as for incandescent lamps with the same cap. No metal parts external to the cap, other than current-carrying metal parts on the cap, shall be live or liable to become live. For the test, any removable conductive material shall be placed in the most unfavourable position without the use of tools. Compliance is checked by the insulation resistance and dielectric strength tests (see clause 7). 7 Insulation resistance and dielectric strength after humidity treatment Adequate insulation resistance and dielectric strength shall be present between the current-carrying metal parts of the lamp and the parts of the lamp that may be touched. 7.1 Insulation resistance
The lamp shall be placed in a humidity chamber with a relative humidity of 91% to 95% for 48 hours. The air temperature in the chamber shall be controlled at any value between 20℃ and 30℃, with a temperature difference within 1℃.
The insulation resistance shall be measured in a humidity chamber. A DC voltage of approximately 500V shall be applied to the lamp. After 1 minute, the insulation resistance test shall be started. The insulation resistance between the current-carrying metal parts of the lamp cap and the accessible lamp parts (a layer of metal foil shall be wrapped on the insulating parts of the lamp that may be touched during the test) shall not be less than 4 MQ. The insulation resistance between the housing and the contacts of the B22 lamp cap is under study. 7.2 Dielectric strength
The dielectric strength test shall be carried out immediately after the insulation resistance test. During the test, the following AC voltage test shall be applied to the above-mentioned specified positions for 1 min.
ES lamp holder: Between the housing of the screw-type lamp holder and other accessible parts of the lamp (a layer of metal foil is wrapped on the accessible insulating parts):
HV type (220V~250V): 4000V (effective value) BV type (100V~120V): 2U+1 000V
U-rated voltage
During the test, the housing of the lamp holder and the eye piece shall be short-circuited. At the beginning, the applied voltage shall not exceed half of the specified voltage value, and then the voltage shall be gradually increased to the above-mentioned specified value. 78
GB16844-1997
The test shall be carried out in a humid chamber, and arcing and breakdown are not allowed during the test. The distance between the metal foil and the current-carrying parts is under study. B22 Lamp holder: between the shell and the electrical contacts (under study). 8 Mechanical strength
Torque resistance
When conducting the following torque test, the lamp holder should be firmly bonded to the lamp body or the part of the lamp used to screw in or out: B22d ***-
E26 and E27
The test adopts the test lamp holder shown in Figures 2 and 3. The torque should not be applied suddenly, but should be gradually increased from zero to the specified value. 3N*m
For lamp holders that are not fixed by bonding, relative movement between the lamp holder and the lamp body is allowed, but it shall not exceed 10°. After the mechanical strength test, the sample lamp shall meet the accessibility requirements (see Chapter 6). 9 Lamp holder temperature rise
Measure the lamp holder temperature rise t of the finished lamp in accordance with IEC360. When the lamp is started, stabilized and after stabilization, its temperature rise shall not exceed the following specified values:
Under study
The above temperature rise values ​​are the same as those of 60W (maximum power) incandescent lamps and are used to prevent incandescent lamps from overheating. The heat resistance of incandescent lamps is tested with a hot test source (HTS) bulb. All tests shall be carried out at rated voltage. If only a voltage range is marked on the lamp, the average value of the voltage range shall be used for testing, but the upper and lower limits of the voltage range shall not differ from its average voltage value by more than 2.5%. For lamps with a wide voltage range, the highest value in the range shall be used for testing.
10 Heat resistance
Self-ballasted lamps shall have sufficient heat resistance. The external anti-electric shock insulating parts of the lamp and the insulating parts that fix the live parts shall have sufficient heat resistance.
Compliance shall be checked using the ball pressure test device shown in Figure 4. The test should be carried out in a heating box, and the temperature in the box should be 25℃±5℃ higher than the normal working temperature of the relevant parts in Chapter 9. For insulating parts that fix live parts, it should be at least 125℃, and for other parts it should be 80℃". The surface of the test part should be placed horizontally, and a steel ball with a diameter of 5mm is pressed on the surface of the test part with a force of 20N. Before the test, the test load and support device are placed in the heating box and heated for a sufficient time to ensure that they reach a stable test temperature.
Before applying the test load, the test part should be placed in the heating box and heated for 10 minutes. During the test, if the test surface is bent, the part pressed by the steel ball should be supported. For this reason, if it is not possible to test on a complete sample, an appropriate part can be removed from it for testing. The sample thickness should be at least 2.5mm. If the sample cannot reach such a thickness, two or more samples can be placed together. After 1h, remove the steel ball from the test part, soak the test part in cold water for 10min, and measure the indentation on the test part after it cools to near room temperature. Its diameter shall not exceed 2mm. * Under study.
GB168441997
If the curved surface makes the indentation elliptical, its short axis should be measured and the length is the indentation diameter. If in doubt, measure the indentation depth and calculate the diameter using the formula = 2VP(5-P), where P is the indentation depth. Ceramic parts are not tested for this test. 11 Fire and flame retardancy
Insulating parts that fix live parts and insulating parts that protect against external electric shock should be able to withstand the glow filament test specified in IEC695-2-1: a sample is a finished lamp. In order to conduct the test, irrelevant parts can be removed from the lamp, but it must be ensured that the test conditions are basically consistent with the conditions in practical use.
- Install the sample on the bracket and apply a force of 1N to press it against the top of the glow filament. The distance between the filament and the upper part of the specimen should preferably be 15mm or more, and it should be in the center of the test surface. The depth of the glow filament penetrating the specimen should be limited to 7mm by mechanical methods. If the test cannot be carried out according to the above requirements because the specimen is too small, a piece of the same material can be taken as the test sample. The sample is 30mm square and its thickness is the minimum thickness of the finished sample. - The temperature of the top of the glow filament is 650℃. After 30s, the sample is removed from the top of the glow filament. Before starting the test, the temperature and heating current of the glow filament should be constant for 1 min. However, it should be ensured that the thermal radiation does not affect the sample during this period. The temperature of the top of the glow filament is measured by an armored high-sensitivity thermocouple wire. The structure and calibration of the thermocouple should comply with the requirements of IEC695-2-1.
After a sample is removed from the glow filament, any burning flame on the sample shall be extinguished within 30 seconds, and any burning falling material shall not ignite a thin paper placed horizontally below the sample at a distance of 200mm±25mm. This test is not performed on ceramic parts. 12 Abnormal conditions
Self-ballasted lamps may have abnormal conditions in specific uses, but operation under abnormal conditions should not reduce their safety performance. The following abnormal condition tests are carried out in sequence, as well as other abnormal conditions associated with them. One sample is used for each abnormal condition test. a) In the switch start circuit, the starter is short-circuited. b) Short circuit between capacitors.
c) The lamp does not start due to damage to one cathode.
d) Although the cathode circuit is intact, the lamp does not start (deactivated lamp). e) The lamp operates, but one cathode is deactivated or damaged (rectifier effect). f) Other contacts in the circuit are disconnected or bridged, and the circuit diagram shows that this abnormal condition may reduce the safety performance of the lamp. The inspection of the lamp and its circuit diagram shall generally give the abnormal conditions to be carried out. When carrying out the abnormal condition test, it shall be carried out in the most convenient order.
The manufacturer or seller shall submit the special lamp for the abnormal condition test and provide, as far as possible, the method of carrying out the abnormal condition test by operating the switch outside the lamp. Parts or devices that cannot be short-circuited shall not be connected across. Similarly, parts or devices that cannot be opened shall not be disconnected. The manufacturer or seller shall provide proof that the parts of the lamp have performance that does not reduce its safety, such as stating that they comply with the relevant standards. For abnormal conditions a), b) or f), compliance is checked by the following method: the lamp under test is ignited at room temperature and the voltage applied is 90% and 110% of the rated voltage. If it is a voltage range, it is 90% and 110% of the average value of the voltage range. Until a steady state is reached, the abnormal condition test is then carried out.
For abnormal conditions c), d) or e), the operation method is the same as above, but the abnormal condition is introduced at the beginning of the test. The lamp is then tested for 8 h, during which it shall not catch fire or develop flammable gases and live parts shall not become accessible.
Use a high frequency spark generator to verify whether the gases released from the parts are flammable. Verify that accessible parts can become live in accordance with the test required in clause 6. Verify the insulation resistance with a direct voltage of approximately 1 000 V (see 7.1).
Part 3
Length in mm,
No specific dimensional tolerances are specified: GB 16844—1997
Stop
Angle: -io, Length: Not more than 25 mm: -0.0s mm More than 25 mm: ±0.2 mm
Test reference material: e.g. heat treated steel. Detail X
Insulating material
Part 2
Rear view
The two joints of the test finger can be bent by 90°+, but can only be bent in the same direction. 80
All chamfers
Part 1
Cylinder
Length dimensions in mm
In order to limit the bending angle to 90°, the use of pins and grooves to control is only one of the methods. Therefore, the dimensions and tolerances of these parts are not specified in the drawings. In actual design, the bending angle must be guaranteed to be 90°, with a tolerance of: 0～+10°. Figure 1 Standard test finger
Section xx
The thread should comply with the lampholder thread specified in IEC61. The length is in mm.
The attached figure only shows the basic dimensions of the lampholder.
GB16844—1997
Figure 2 Lampholder 82 for torque test of lamp with screw-on cap
Minimum value
Minimum value
Length is in mm.
The attached figure shows only the basic dimensions of the lampholder.
Section X—X
GB 16844-1997
These grooves are located at
/center line of symmetry
B22d-3 lampholder
Lampholder for torque test of lamp with plug-in cap Smr
Figure 4 Ball pressure test device
Minimum value
Minimum value
Minimum value
Approximate value2 mm
Test finger material: for example, heat-treated steel. Detail X
Insulating material
Part 2
Rear view
The two joints of the test finger can be bent by 90°+, but can only be bent in the same direction. 80
All chamfers
Part 1
Cylinder
Length dimensions in mm
In order to limit the bending angle to 90°, the use of pins and grooves to control is only one of the methods. Therefore, the dimensions and tolerances of these parts are not specified in the drawings. In actual design, the bending angle must be guaranteed to be 90°, with a tolerance of: 0～+10°. Figure 1 Standard test finger
Section xx
The thread should comply with the lampholder thread specified in IEC61. The length is in mm.
The attached figure only shows the basic dimensions of the lampholder.
GB16844—1997
Figure 2 Lampholder 82 for torque test of lamp with screw-on cap
Minimum value
Minimum value
Length is in mm.
The attached figure shows only the basic dimensions of the lampholder.
Section X—X
GB 16844-1997
These grooves are located at
/center line of symmetry
B22d-3 lampholder
Lampholder for torque test of lamp with plug-in cap Smr
Figure 4 Ball pressure test device
Minimum value
Minimum value
Minimum value
Approximate value2 mmbzxz.net
Test finger material: for example, heat-treated steel. Detail X
Insulating material
Part 2
Rear view
The two joints of the test finger can be bent by 90°+, but can only be bent in the same direction. 80
All chamfers
Part 1
Cylinder
Length dimensions in mm
In order to limit the bending angle to 90°, the use of pins and grooves to control is only one of the methods. Therefore, the dimensions and tolerances of these parts are not specified in the drawings. In actual design, the bending angle must be guaranteed to be 90°, with a tolerance of: 0～+10°. Figure 1 Standard test finger
Section xx
The thread should comply with the lampholder thread specified in IEC61. The length is in mm.
The attached figure only shows the basic dimensions of the lampholder.
GB16844—1997
Figure 2 Lampholder 82 for torque test of lamp with screw-on cap
Minimum value
Minimum value
Length is in mm.
The attached figure shows only the basic dimensions of the lampholder.
Section X—X
GB 16844-1997
These grooves are located at
/center line of symmetry
B22d-3 lampholder
Lampholder for torque test of lamp with plug-in cap Smr
Figure 4 Ball pressure test device
Minimum value
Minimum value
Minimum value
Approximate value
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