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GB/T 45500-2025   Automotive lidar performance requirements and test methods (English Version)
Standard No.: GB/T 45500-2025 Status:valid remind me the status change

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Standard No.: GB/T 45500-2025
English Name: Automotive lidar performance requirements and test methods
Chinese Name: 车载激光雷达性能要求及试验方法
Professional Classification: GB    National Standard
Source Content Issued by: SAMR; SAC
Issued on: 2025-04-25
Implemented on: 2025-4-25
Status: valid
Target Language: English
File Format: PDF
Word Count: 23000 words
Translation Price(USD): 690.0
Delivery: via email in 1~5 business day
GB/T 45500-2025 Automotive lidar performance requirements and test methods 1 Scope This document specifies the performance requirements and inspection rules for automotive lidar (hereinafter referred to as "lidar"), and describes the corresponding test methods. This document is applicable to the inspection of lidar for external information perception on road vehicles. Other lidars may use it for reference. 2 Normative references The following documents contain requirements which, through reference in this text, constitute provisions of this document. For dated references, only the edition cited applies. For undated references, the latest edition of the referenced document (including any amendments) applies. GB/T 2828.1 Sampling procedures for inspection by attributes - Part 1: Sampling schemes indexed by acceptance quality limit (AQL) for lot-by-lot inspection GB/T 16422.2-2022 Plastics - Methods of exposure to laboratory light sources - Part 2: Xenon-arc lamps GB/T 18655-2025 Vehicles, boats and internal combustion engines - Radio disturbance characteristics - Limits and methods of measurement for the protection of on-board receivers GB/T 18833 Retroreflective sheeting for traffic control GB/T 18838.2 Preparation of steel substrates before application of paints and related products - Specifications for metallic blast-cleaning abrasives - Part 2: Chilled-iron grit GB/T 19951-2019 Road vehicles - Disturbances test methods for electrical/electronic component from electrostatic discharge GB/T 21437.2-2021 Road vehicles - Test method of electrical disturbances from conduction and coupling - Part 2: Electrical transient conduction along supply lines only GB/T 21437.3-2021 Road vehicles - Test method of electrical disturbances from conduction and coupling - Part 3: Electrical transient transmission by capacitive and inductive coupling via lines other than supply lines GB/T 28046.2-2019 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 2: Electrical loads GB/T 28046.3-2011 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 3: Mechanical loads GB/T 28046.4-2011 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 4: Climatic loads GB/T 28046.5-2013 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 5: Chemical loads GB/T 30038 Road vehicles - Degrees of electrical equipment protection (IP-Code) GB 34660-2017 Road vehicles - Requirements and test methods of electromagnetic compatibility ISO 20567-1:2017 Paints and varnishes - Determination of stone-chip resistance of coatings - Part 1: Multi-impact testing) 3 Terms and definitions For the purposes of this document, the following terms and definitions apply. 3.1 lidar device that emits laser beams and receives echoes to obtain information about the surrounding environment 3.2 point cloud collection of points obtained in three-dimensional space through the output of lidar 3.3 valid point points corresponding to real spatial positions where real objects exist in the point cloud formed by lidar 3.4 false positive points corresponding to real spatial positions where no real objects exist in the point cloud formed by lidar 3.5 false positive ratio ratio of false positive to theoretical detection point 3.6 probability of detection (POD) probability of lidar measurement forming an valid point Note: The probability of detection of lidar is calculated by the ratio of the number of false positives to the number of theoretical detection points. 3.7 point frequency number of points in the point cloud output by lidar within a unit of time 3.8 frame point cloud data formed by a single complete scan of lidar within the nominal field of view 3.9 frame frequency number of frames output by lidar within a unit of time 3.10 precision degree of dispersion among multiple measurements of a certain quantity under certain measurement conditions 3.11 accuracy degree to which the average value of measured values deviates from its true value in multiple measurements of a certain quantity under certain measurement conditions 3.12 reflectivity reflection ratio when the material layer is thick enough so that its reflection ratio no longer changes with the increase of thickness Note: In this document, it is used to describe the physical characteristics of the surface of diffuse reflector. [Source: GB/T 2900.65-2023, 845-24-093, modified] 3.13 ranging center coordinate origin of the virtual three-dimensional space constructed by the point cloud formed by lidar 3.14 field of view (FOV) the maximum angle formed by the line connecting the valid points at the farthest edges on both sides to the ranging center in the horizontal/vertical direction in the point cloud formed by lidar Note: The field of view of lidar is divided into horizontal field of view and vertical field of view. 3.15 field of view region region within the field of view divided in a certain way 3.16 range capability range of distance that a lidar can detect an object with a specified direct incident laser under conditions such as specified light intensity and probability of detection Note: The range capability is characterized by the long-range capability and the short-range capability. 3.17 angular resolution angle formed by the line connecting adjacent detection points to the ranging center in the horizontal/vertical direction in the point cloud formed by lidar Note: The angular resolution of lidar is divided into horizontal angular resolution and vertical angular resolution. 3.18 angle gap the maximum angle at which the target cannot be detected between adjacent valid points within the field of view of lidar Note: The angle gap of lidar is divided into horizontal angle gap and vertical angle gap. 3.19 reflective property reflectance mapping value of target surface output by measuring the amplitude or flux of reflected echo of lidar 3.20 ghost continuous false positives, in time and space, where corresponding position has no real target in the point cloud formed by lidar 3.21 interstitial point false positive between the edges of corresponding two objects in the point cloud formed by lidar 4 Symbols For the purposes of this document, the following symbols apply. dNmax: The maximum nominal range capability, in meters (m) dNmin: The minimum nominal range capability, in meters (m) Tmax: The maximum operating temperature, in degrees Celsius (℃) Tmin: The minimum operating temperature, in degrees Celsius (℃) UA: Test voltage of operating mode 3, in volts (V) UB: Test voltage of operating mode 2, in volts (V) UN: Nominal voltage, in volts (V) USmax: The maximum supply voltage, in volts (V) USmin: The minimum supply voltage, in volts (V)
Contents Foreword 1 Scope 2 Normative references 3 Terms and definitions 4 Symbols 5 Performance requirements 5.1 Detection performance requirements 5.2 Environmental adaptability requirements 6 Test methods 6.1 Test conditions 6.2 Detection performance test 6.3 Environmental adaptability test 7 Inspection rules 7.1 Sampling and grouping of type test 7.2 Judgment Annex A (Normative) Requirements for diffuse reflectors Annex B (Normative) Method for division of field of view region Annex C (Informative) External dimensions of angle reflectors Annex D (Informative) Requirements for layout of optical darkroom D.1 Dimensions of optical darkroom D.2 Surface materials of optical darkroom Annex E (Informative) Calculation model of durability test E.1 Typical temperature model at mounting position of product on automobile E.2 Arrhenius calculation model for high temperature durability test E.3 Coffin-Manson calculation model for temperature alternating durability test E.4 Lawson calculation model for high temperature and high humidity durability test Bibliography
Referred in GB/T 45500-2025:
*GB/T 2828.1-2012 Sampling procedures for inspection by attributea-Part1:Sampling schemes indexed by acceptance quality limit(AQL) for lot-by-lot inspection
*GB/T 16422.2-2022 Plastics—Methods of exposure to laboratory light sources—Part 2: Xenon-arc lamps
*GB/T 18655-2025 Vehicles|| boats and internal combustion engines―Radio disturbance characteristics―Limits and methods of measurement for the protection of on-board receivers
*GB/T 18833-2012 Retroreflective sheeting for traffic control
*GB/T 18838.2-2017 Preparation of steel substrates before application of paints and related products―Specifications for metallic blast-cleaning abrasives―Part 2:Chilled-iron grit
*GB/T 19951-2019 Road vehicles—Disturbances test methods for electrical/electronic component from electrostatic discharge
*GB/T 21437.2-2021 Road vehicles—Test method of electrical disturbances from conduction and coupling—Part 2: Electrical transient conduction along supply lines only
*GB/T 21437.3-2021 Road vehicles—Test method of electrical disturbances from conduction and coupling—Part 3: Electrical transient transmission by capacitive and inductive coupling via lines other than supply lines
*GB/T 28046.2-2019 Road vehicles—Environmental conditions and testing for electrical and electronic equipment—Part 2: Electrical loads
*GB/T 28046.3-2011 Road vehicles—Environmental conditions and testing for electrical and electronic equipment—Part 3:Mechanical loads
*GB/T 28046.4-2011 Road vehicles—Environmental conditions and testing for electrical and electronic equipment—Part 4:Climatic loads
*GB/T 28046.5-2013 Road vehicles―Environmental conditions and testing for electrical and electronic equipment―Part 5:Chemical loads
*GB/T 30038-2013 Road Vehicles - Degrees of Protection (IP-Code) - Protection of Electrical Equipment Against Foreign Objects, Water and Access
*GB 34660-2017 Road vehicles —Requirements and test methods of electromagnetic compatibility
Code of China
Standard
GB/T 45500-2025  Automotive lidar performance requirements and test methods (English Version)
Standard No.GB/T 45500-2025
Statusvalid
LanguageEnglish
File FormatPDF
Word Count23000 words
Price(USD)690.0
Implemented on2025-4-25
Deliveryvia email in 1~5 business day
Detail of GB/T 45500-2025
Standard No.
GB/T 45500-2025
English Name
Automotive lidar performance requirements and test methods
Chinese Name
车载激光雷达性能要求及试验方法
Chinese Classification
Professional Classification
GB
ICS Classification
Issued by
SAMR; SAC
Issued on
2025-04-25
Implemented on
2025-4-25
Status
valid
Superseded by
Superseded on
Abolished on
Superseding
Language
English
File Format
PDF
Word Count
23000 words
Price(USD)
690.0
Keywords
GB/T 45500-2025, GB 45500-2025, GBT 45500-2025, GB/T45500-2025, GB/T 45500, GB/T45500, GB45500-2025, GB 45500, GB45500, GBT45500-2025, GBT 45500, GBT45500
Introduction of GB/T 45500-2025
GB/T 45500-2025 Automotive lidar performance requirements and test methods 1 Scope This document specifies the performance requirements and inspection rules for automotive lidar (hereinafter referred to as "lidar"), and describes the corresponding test methods. This document is applicable to the inspection of lidar for external information perception on road vehicles. Other lidars may use it for reference. 2 Normative references The following documents contain requirements which, through reference in this text, constitute provisions of this document. For dated references, only the edition cited applies. For undated references, the latest edition of the referenced document (including any amendments) applies. GB/T 2828.1 Sampling procedures for inspection by attributes - Part 1: Sampling schemes indexed by acceptance quality limit (AQL) for lot-by-lot inspection GB/T 16422.2-2022 Plastics - Methods of exposure to laboratory light sources - Part 2: Xenon-arc lamps GB/T 18655-2025 Vehicles, boats and internal combustion engines - Radio disturbance characteristics - Limits and methods of measurement for the protection of on-board receivers GB/T 18833 Retroreflective sheeting for traffic control GB/T 18838.2 Preparation of steel substrates before application of paints and related products - Specifications for metallic blast-cleaning abrasives - Part 2: Chilled-iron grit GB/T 19951-2019 Road vehicles - Disturbances test methods for electrical/electronic component from electrostatic discharge GB/T 21437.2-2021 Road vehicles - Test method of electrical disturbances from conduction and coupling - Part 2: Electrical transient conduction along supply lines only GB/T 21437.3-2021 Road vehicles - Test method of electrical disturbances from conduction and coupling - Part 3: Electrical transient transmission by capacitive and inductive coupling via lines other than supply lines GB/T 28046.2-2019 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 2: Electrical loads GB/T 28046.3-2011 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 3: Mechanical loads GB/T 28046.4-2011 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 4: Climatic loads GB/T 28046.5-2013 Road vehicles - Environmental conditions and testing for electrical and electronic equipment - Part 5: Chemical loads GB/T 30038 Road vehicles - Degrees of electrical equipment protection (IP-Code) GB 34660-2017 Road vehicles - Requirements and test methods of electromagnetic compatibility ISO 20567-1:2017 Paints and varnishes - Determination of stone-chip resistance of coatings - Part 1: Multi-impact testing) 3 Terms and definitions For the purposes of this document, the following terms and definitions apply. 3.1 lidar device that emits laser beams and receives echoes to obtain information about the surrounding environment 3.2 point cloud collection of points obtained in three-dimensional space through the output of lidar 3.3 valid point points corresponding to real spatial positions where real objects exist in the point cloud formed by lidar 3.4 false positive points corresponding to real spatial positions where no real objects exist in the point cloud formed by lidar 3.5 false positive ratio ratio of false positive to theoretical detection point 3.6 probability of detection (POD) probability of lidar measurement forming an valid point Note: The probability of detection of lidar is calculated by the ratio of the number of false positives to the number of theoretical detection points. 3.7 point frequency number of points in the point cloud output by lidar within a unit of time 3.8 frame point cloud data formed by a single complete scan of lidar within the nominal field of view 3.9 frame frequency number of frames output by lidar within a unit of time 3.10 precision degree of dispersion among multiple measurements of a certain quantity under certain measurement conditions 3.11 accuracy degree to which the average value of measured values deviates from its true value in multiple measurements of a certain quantity under certain measurement conditions 3.12 reflectivity reflection ratio when the material layer is thick enough so that its reflection ratio no longer changes with the increase of thickness Note: In this document, it is used to describe the physical characteristics of the surface of diffuse reflector. [Source: GB/T 2900.65-2023, 845-24-093, modified] 3.13 ranging center coordinate origin of the virtual three-dimensional space constructed by the point cloud formed by lidar 3.14 field of view (FOV) the maximum angle formed by the line connecting the valid points at the farthest edges on both sides to the ranging center in the horizontal/vertical direction in the point cloud formed by lidar Note: The field of view of lidar is divided into horizontal field of view and vertical field of view. 3.15 field of view region region within the field of view divided in a certain way 3.16 range capability range of distance that a lidar can detect an object with a specified direct incident laser under conditions such as specified light intensity and probability of detection Note: The range capability is characterized by the long-range capability and the short-range capability. 3.17 angular resolution angle formed by the line connecting adjacent detection points to the ranging center in the horizontal/vertical direction in the point cloud formed by lidar Note: The angular resolution of lidar is divided into horizontal angular resolution and vertical angular resolution. 3.18 angle gap the maximum angle at which the target cannot be detected between adjacent valid points within the field of view of lidar Note: The angle gap of lidar is divided into horizontal angle gap and vertical angle gap. 3.19 reflective property reflectance mapping value of target surface output by measuring the amplitude or flux of reflected echo of lidar 3.20 ghost continuous false positives, in time and space, where corresponding position has no real target in the point cloud formed by lidar 3.21 interstitial point false positive between the edges of corresponding two objects in the point cloud formed by lidar 4 Symbols For the purposes of this document, the following symbols apply. dNmax: The maximum nominal range capability, in meters (m) dNmin: The minimum nominal range capability, in meters (m) Tmax: The maximum operating temperature, in degrees Celsius (℃) Tmin: The minimum operating temperature, in degrees Celsius (℃) UA: Test voltage of operating mode 3, in volts (V) UB: Test voltage of operating mode 2, in volts (V) UN: Nominal voltage, in volts (V) USmax: The maximum supply voltage, in volts (V) USmin: The minimum supply voltage, in volts (V)
Contents of GB/T 45500-2025
Contents Foreword 1 Scope 2 Normative references 3 Terms and definitions 4 Symbols 5 Performance requirements 5.1 Detection performance requirements 5.2 Environmental adaptability requirements 6 Test methods 6.1 Test conditions 6.2 Detection performance test 6.3 Environmental adaptability test 7 Inspection rules 7.1 Sampling and grouping of type test 7.2 Judgment Annex A (Normative) Requirements for diffuse reflectors Annex B (Normative) Method for division of field of view region Annex C (Informative) External dimensions of angle reflectors Annex D (Informative) Requirements for layout of optical darkroom D.1 Dimensions of optical darkroom D.2 Surface materials of optical darkroom Annex E (Informative) Calculation model of durability test E.1 Typical temperature model at mounting position of product on automobile E.2 Arrhenius calculation model for high temperature durability test E.3 Coffin-Manson calculation model for temperature alternating durability test E.4 Lawson calculation model for high temperature and high humidity durability test Bibliography
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Keywords:
GB/T 45500-2025, GB 45500-2025, GBT 45500-2025, GB/T45500-2025, GB/T 45500, GB/T45500, GB45500-2025, GB 45500, GB45500, GBT45500-2025, GBT 45500, GBT45500