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QC/T 1200-2023: Cable assembly for conducting charging of electric vehicles with a charger
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QC/T 1200-2023: Cable assembly for conducting charging of electric vehicles with a charger

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QC AUTOMOBILE INDUSTRY STANDARD ICS 43.040 CCS T 35 Cable assembly for conducting charging of electric vehicles with a charger Issued on: DECEMBER 20, 2023 Implemented on: JULY 01, 2024 Issued by. Ministry of Industry and Information Technology of PRC Cable assembly for conducting charging of electric vehicles with a charger

1 Scope

This document specifies the technical requirements, test methods, marking, packaging, transportation, storage requirements for the cable assembly for conductive charging of electric vehicles with chargers (hereinafter referred to as "portable DC chargers"). This document is applicable to the cable assembly for conductive charging of electric vehicles with chargers for single-phase AC power supply circuits, which have an input rated voltage not exceeding 250 VAC and an input rated current not exceeding 10 A. This document, based on the relevant industry standards of various types of non-on- board chargers, combines the application conditions such as transportation and use with vehicles, to make more stringent definitions of functions and performance.

2 Normative references

The contents of the following documents constitute essential clauses of this document through normative references in the text. Among them, for dated references, only the version corresponding to that date applies to this document; for undated references, the latest version (including all amendments) applies to this document. GB/T 1002-2021 Single phase plugs and socket-outlets for household and similar purposes - Types, basic parameters and dimensions GB/T 2099.1-2021 Plugs and socket-outlets for household and similar purposes - Part 1.General requirements GB/T 2423.5-2019 Environmental testing - Part 2.Test methods - Test Ea and guidance. Shock GB/T 3956 Conductors of insulated cables GB/T 4207-2022 Method for the determination of the proof and the comparative tracking indices of solid insulating materials GB/T 4208 Degrees of protection provided by enclosure (IP code) GB/T 5023.1 Polyvinyl chloride insulated cables of rated voltages up to and including 450/750 V - Part 1.General requirements GB/T 33594-2017 Charging cables for electric vehicles GB/T 34657.1-2017 Interoperability test specifications of electric vehicle conductive charging - Part 1.Supply equipment GB/T 34658-2017 Conformance test for communication protocols between off- board conductive charger and battery management system for electric vehicle GB 50057-2010 Code for design protection of structures against lightning NB/T 33001-2018 Specification for electric vehicle off-board conductive charger NB/T 33008.1-2018 Inspection and test specifications for electric vehicle charging equipment - Part 1.Off-board charger

3 Terms and definitions

The following terms and definitions, which are defined in GB/T 19596-2017, GB/T 18487.1, GB/T 20234.1-2023, NB/T 33001-2018, as well as the following terms and definitions, apply to this document. 3.1 Portable DC charger A dedicated device that can be carried by a person or transported with an electric vehicle, connected to an AC power source through a standard plug, cable and socket, converts its electrical energy into DC power, connects to the vehicle through a vehicle plug by conduction, charges the on-board energy storage device. 3.2 Function box The control function, power conversion unit, safety function are integrated in a suitable housing, which constitutes a part of the portable DC charger. 3.3 Standard plug/socket-outlet Plug and socket that comply with GB/T 1002 and GB/T 2099.1. 3.4 Connection set for power A device that can connect a cable to a power source or electric vehicle power supply secondary operation or a special unlocking device to open the locking state between the connection devices. 6.1.3 The charging cable assembly in the portable DC charger shall comply with the relevant requirements of Chapter 6 of GB/T 33594-2017. 6.1.4 For charging cable assemblies in portable DC chargers, for devices with cables longer than 7.5 m, relevant management and storage measures shall be taken to ensure that the length of the cable that can be freely moved when not in use does not exceed 7.5 m. 6.2 Communication protocol The communication protocol of the portable DC charger shall comply with the relevant provisions of GB/T 27930 and the relevant requirements of GB/T 34658. 6.3 Electrical insulation performance 6.3.1 Insulation resistance The insulation resistance of the portable DC charger shall comply with the relevant requirements of 7.6.1 of NB/T 33001-2018. 6.3.2 Dielectric strength The dielectric strength of the portable DC charger shall comply with the relevant requirements of 7.6.2 of NB/T 33001-2018. 6.3.3 Impact withstand voltage The impact withstand voltage of the portable DC charger shall comply with the relevant requirements of 7.6.3 of NB/T 33001-2018. 6.4 Safety requirements 6.4.1 Grounding requirements a) The housing of the portable DC charger shall be made of non-metallic materials. When metal materials (including metal screws or nuts) are used, electrical isolation between the metal material and the internal live parts shall be ensured; b) The grounding requirements shall meet the relevant requirements of 7.5.4 c) in NB/T 33001-2018.The working ground and protective ground shall be connected to the ground conductor separately. c) When the grounding continuity of the power supply circuit is detected to be disconnected, the portable DC charger shall stop charging within 100 ms or not allow charging to start. 6.4.2 Electrical isolation requirements Electrical isolation protection measures shall be taken between the power input and DC output of the portable DC charger; the electrical isolation requirements of double insulation or reinforced insulation shall be met. 6.4.3 Disconnection requirements The portable DC charger shall have at least a power disconnection device at the DC output position. 6.4.4 Residual current protection The residual current protection of portable DC chargers shall at least meet the relevant requirements of GB/T 18487.1. 6.4.5 Output overload protection The portable DC charger shall have an output overload protection function. When the actual output current is greater than or equal to 9 A and lasts for 5 s, the output shall be cut off within 5 s; when the output current is greater than or equal to 10 A, the portable DC charger shall cut off the output within 100 ms and cannot automatically resume charging, meeting functional status D. 6.4.6 Output short circuit protection The portable DC charger shall have an output short circuit protection function. When an output short circuit occurs in the output circuit, the short circuit current value shall refer to the relevant requirements of GB/T 18487.1.The equipment shall cut off the output within 100 ms without causing open flames or burning. 6.4.7 Overtemperature protection The portable DC charger shall have an overtemperature protection function. When the temperature exceeds its set value, the portable DC charger shall enter the over- temperature protection state; the functional state level shall not be lower than level D. When the temperature returns to normal, it shall be able to charge normally. The specific temperature value and response time shall be subject to the manufacturer's agreed requirements. 6.4.8 Lightning protection The portable DC charger shall be equipped with a surge protector or applied to a power supply circuit equipped with a surge protector. The installation and type selection of the equipment shall be based on the installation site and meet the requirements of 6.4 in GB 50057-2010.When lightning protection measures must be taken for equipment application, a surge protection device shall be installed between the conductor and the Perform the test in accordance with 7.7.3.During and after the test, the product shall be able to work normally, the appearance shall be intact, the functional status shall reach level A. 6.5.4 High temperature storage Perform the test in accordance with 7.7.4.After the test, return to normal temperature, the appearance shall be intact, the functional status shall reach level C. 6.5.5 High temperature operation Perform the test in accordance with 7.7.5.During and after the test, the product shall be able to work normally, the appearance shall be intact, the functional status shall reach level A. 6.5.6 Temperature cycle Perform the test in accordance with 7.7.6.After the test, return to normal temperature, the appearance shall be intact, the functional status shall reach level A. 6.5.7 Temperature shock Perform the test in accordance with 7.7.7.After the test, return to normal temperature, the appearance shall be intact, the functional status shall reach level C. 6.5.8 Damp heat cycle Perform the test in accordance with 7.7.8.After the test, return to normal temperature, the appearance shall be intact, the functional status shall reach level A. 6.5.9 Salt spray Perform the test in accordance with 7.7.9.After the test, the appearance shall be free of corrosion, the functional status shall reach level C. 6.5.10 High altitude Perform the test in accordance with 7.7.10.After the test, the appearance shall be intact; the functional status shall reach level A and meet the requirements of 5.1. 6.6 Temperature rise requirements 6.6.1 Surface temperature rise The surface temperature of the portable DC charger shall comply with the relevant provisions of GB/T 18487.1. 6.6.2 Internal temperature rise The internal temperature rise of the portable DC charger shall comply with the relevant provisions of 7.4 in NB/T 33001-2018. 6.6.3 Temperature rise of power supply connection device The standard plug, power plug, power socket in the power supply connection device shall be tested with reference to the test method in GB/T 20234.1; it shall meet the following requirements. a) The maximum allowable temperature of the gripping part of the plug and socket shall not exceed 60 °C; b) The temperature rise of the pin, contact, terminal position shall not exceed 50 K. 6.6.4 Temperature rise of charging connection device It shall comply with the relevant provisions of 6.3.13 in GB/T 20234.1-2023. 6.7 Output requirements 6.7.1 Charging efficiency The portable DC charger should adopt the weighted efficiency calculation method; the number of efficiency value points shall be no less than 10.The efficiency value points are determined through negotiation, between the equipment manufacturer and the automobile manufacturer, according to the output voltage range. Weighted efficiency preferred value. ≥ 92%. The weighted efficiency reference algorithm is as follows; the weighting coefficient and value point are determined by the manufacturer. Where. An. A is the weighting coefficient, and A1 + A2 +... + An = 1; En. E is the actual efficiency value; En represents the efficiency measured value of the n-th efficiency value point. Note. The efficiency test shall not calculate the loss of the input/output cable. 6.7.2 Output response requirements In the charging state, the portable DC charger shall be able to quickly respond to the current reduction request of the battery management system; the response time shall not be less than the requirements of Table 4. Perform the test in accordance with 7.11.2.After the test, the IP level of the sample shall not be reduced; the functional status shall reach level C. 6.10.3 Mechanical shock Perform the test in accordance with 7.11.3.After the test, the IP level of the sample shall not be reduced; the functional status shall reach level C. 6.10.4 Cable connection The tension and torque values of the cables at both ends of the functional box, as well as the maximum allowable displacement of the cables after the test, shall comply with the requirements of Table 14 in GB/T 11918.1-2014. Note. For vehicle plugs, cables required by the manufacturer and compatible with the rated working value shall be provided; the cables shall be tested as cable assemblies. 6.10.5 Cable bending Perform the test in accordance with 7.11.4.After the test, the cable shall not be broken, pulled off or loose; the functional status level of the sample shall meet level A. 6.11 Durability Perform the test in accordance with 7.12.The sample shall not be damaged during and after the test; the functional status shall reach level A. 6.12 Aging resistance Perform the test in accordance with 7.13.After the test, the IP level of the sample shall not be reduced and meet the requirements of 5.1; the temperature rise shall meet the requirements of 6.3.13 in GB/T 20234.1-2023. 6.13 Xenon lamp aging Perform the test in accordance with 7.14.After the test, discoloration, loss of gloss, cracking shall meet level 1; the remaining inspection items shall meet level 2.Among them. - Level 1.Discoloration ≥ level 3; loss of gloss, powdering ≤ level 1; cracking ≤ level 2 (S1) a. - Level 2.Discoloration ≥ level 3 ~ 4; loss of gloss ≤ level 1; powdering level 0; cracking ≤ level 1 (S1) a; bubbles and rust level 10; peeling, mildew, spots level 0 (S0); gold level 0; pinholes and adhesion ≤ level 1; no obvious change in orange peel. 6.14 Vehicle rollover The function box shall be tested in accordance with 7.15.After the test, the following degree of severe cracking, breaking or deformation shall not occur. - Except for the exposed terminals, the live parts and internal circuits can be touched by the standard test wire; - The integrity of the housing is damaged, so that the internal parts of the function box cannot be fully protected by mechanical or environmental protection; - The action, function or installation of the function box is damaged. 6.15 Abnormal heat resistance and flame resistance test of insulating materials Carry out the glow-wire test in accordance with 7.16.After the test, at least one of the following conditions shall be met. - No visible flame and no continuous glow; - The flame and glow on the sample shall automatically extinguish within 30 seconds after the glow-wire is removed within 15 seconds. 6.16 Tracking resistance Carry out the tracking resistance test in accordance with 7.17.No flashover or breakdown shall occur after the test. 6.17 Electromagnetic compatibility Equipment manufacturers shall specify the installation and use location of the power supply equipment in accordance with category B (residential area, directly connected to the residential low-voltage power grid) equipment. If no description is given, the most stringent emission and immunity test shall be implemented, that is, the lowest emission limit and the highest immunity test level shall be adopted. The test configuration of portable DC chargers shall comply with the provisions of Chapter 4 of GB/T 18487.2-2017. 6.17.1 Test load conditions for portable DC chargers The test load conditions for portable DC chargers shall comply with the provisions of Chapter 5 of GB/T 18487.2-2017. 6.17.2 Operating conditions during the test The operating conditions during the charger test shall comply with the provisions of Chapter 6 of GB/T 18487.2-2017. 6.17.3 Immunity requirements about 29; the initial boiling point is about 65 °C; the dry point is about 69 °C; the concentration is about 0.68 g/cm3. 7.3 DC charging interoperability test Test according to the requirements of 6.3 of GB/T 34657.1-2017. 7.4 Communication protocol consistency test Test according to the requirements of GB/T 34658-2017. 7.5 Electrical insulation test 7.5.1 Insulation resistance Test voltage. 1000 VDC. Test location. 1) DC+/DC- to ground on the output side; 2) L/N to ground on the input side. Test time. 1 min. 7.5.2 Dielectric strength Test voltage. 2000 VAC or 2800 VDC, 50 Hz; during the test, the leakage current shall not be greater than 10 mA. Test location. 1) DC+/DC- to ground on the output side; 2) L/N to ground on the input side. Test time. 1 min. 7.5.3 Impulse withstand voltage Apply 3 short-term impulse voltages of positive and 3 short-term impulse voltages of negative lightning waves, each has a time interval of no less than 5 s, impulse voltage of 2.5 kV-AC or 2 kV-DC, pulse waveform of 1.2/50 μs, power supply impedance of 500 Ω; other circuits and exposed conductive parts are grounded during the test. Test location. Between non-electrically connected live circuits, and between each independent live circuit and the ground (metal housing). 7.6 Safety requirements test 7.6.1 Grounding measures Perform the test in accordance with the provisions of Chapter 10 of GB/T 11918.1-2014. Perform the short-term high current withstand test in the following steps. voltage state. Input rated voltage. Set output voltage to upper limit value. Adjust load current at 20% of rated output current to the maximum output current. Measure the input power factor of the portable DC charger. Adjust the portable DC charger to operate under constant current state. Input rated voltage. Set output voltage to upper limit value. Adjust load current at 20% of rated output current to the maximum output current. Change output voltage setting value within upper and lower limits. Measure the input power factor of the portable DC charger again. 7.10 Standby power Under rated input voltage, the portable DC charger is not connected to the test system and is not operated by anyone. Only the basic functions such as background communication and status indicator light are retained, to test the standby power of the portable DC charger. 7.11 Mechanical performance test 7.11.1 Drop test Pre-treat the portable DC charger at low temperature and high temperature, respectively. Place it in a low temperature of -30 °C and a high temperature of 55 °C incubator for 16 hours. Take out the sample and place it at a height of 1 m. Let it drop freely to the concrete floor without external force. Number of tests. Six sides drop, 3 drops on each side (under each temperature environment); after the test, the sample housing shall meet the relevant requirements of IPXXB, meanwhile it shall ensure that the live conductor is not exposed and the insulation strength does not decrease. 7.11.2 Vibration test The portable DC charger shall be subjected to random vibration test in accordance with the random vibration test method in GB/T 2423.5-2019 and shall be able to withstand random vibration test in three directions. X, Y, Z. The test duration for each axis is 30 min; the acceleration spectrum density is 1.0 (m2/s3); the frequency division slope is -3 dB/Oct; the displacement amplitude is 3 mm; the frequency range is 10 Hz ~ 200 Hz. After the test, check that the internal components of the portable DC charger are not loose or falling off; the portable DC charger is powered on, all functions and technical indicators are normal. 7.11.3 Mechanical shock test The test shall be carried out in accordance with the relevant requirements of 4.2.2 in GB/T 28046.3-2011. Working mode. DUT working mode, 3.2 (see GB/T 28046.1). Pulse waveform. Half sine wave. Acceleration. 100 m/s2. Duration. 6 ms. Test location. Control box. Test direction. ±X, ±Y, ±Z, 6 directions in total. Number of shocks. 10 shocks in each direction. The acceleration direction of the shock test shall be tested in 6 directions. The test sample can be added with outer packaging. The functional status after the test shall meet the functional level C. Note. In actual testing, it should conduct the test according to the acceleration spectrum provided by the car manufacturer; when the car manufacturer does not provide the acceleration spectrum, it shall be conducted at least 100 m/s2. 7.11.4 Cable bending test According to the method specified in 24.4 of GB/T 11918.1-2014, the connection points of the cable are tested respectively. The force applied by the weight is 20 N; the sample working mode is 1.Rotate 90° forward and backward along the X and Y axes of the plane where the cable is located (45° on both sides of the plumb line); the number of bending is 10000; the rate is 60 times per minute. 7.12 Durability test Put the portable DC charger in a -30 °C environment chamber. Let it stand for no less than 12 hours. In a -30 °C environment, test the portable DC charger for at least 10 continuous charging cycles, with each charging lasting 5 minutes. At -15 °C, the number of continuous charging cycles is at least 300, with each charging lasting 2 minutes. At 60 °C, the number of continuous charging cycles is at least 300, with each charging lasting 2 minutes. Before each start, ensure that the portable DC charger is at the initial ambient temperature; start the next charge immediately after each charging stops. During and after the test, the functions and output performance indicators of the portable DC charger remain unchanged. 7.13 Aging resistance Simulate the temperature and humidity changes, rain, dust, salt spray, fatigue wear and other conditions that may be encountered in actual use, to conduct the following aging resistance test. 1) High temperature and high humidity placement Open the protective cover and other protective devices attached to the charging interface of the portable DC charger; place it in a constant temperature and humidity ......
Source: Above contents are excerpted from the full-copy PDF -- translated/reviewed by: www.ChineseStandard.net / Wayne Zheng et al.