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airborne lidar point cloud data introduction quality evaluation indicators airborne lidar point cloud data lidar point cloud data point cloud data lidar point cloud density calculation method formula analysis martindale method part special variable frequency speed eriobotrya japonica
GB/T 36100-2018 in English

GB/T 36100-2018 in English

VALID

Indices and computation method of quality assessment for airborne LiDAR point cloud data

  • Issued on:2018-03-15
  • Implemented on:2018-07-01
  • File Format:PDF
  • Delivery:Via email within 1~3 business days
Price(USD): $150.00
$146.00
Standard No: GB/T 36100-2018
Document status: VALID
Title in English: Indices and computation method of quality assessment for airborne LiDAR point cloud data
Title in Chinese: 机载激光雷达点云数据质量评价指标及计算方法
Language: English
File Format: Electronic (PDF)
Delivery: Via email within 1~3 business days
Issued on: 2018-03-15
Implemented on: 2018-07-01
ICS Classification: 07.040-Astronomy. Geodesy. Geography
Chinese Classification: A77-Photogrammetry and Remote Sensing
Professional Classification: GB-National Standard
Related Keywords: airborne lidar point cloud data introduction quality evaluation indicators
airborne lidar point cloud data
lidar point cloud data
point cloud data
lidar point cloud density calculation method formula analysis
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gb/t 36100-2018

《GB/T 36100-2018机载激光雷达点云数据质量评价指标及计算方法》由TC327(全国遥感技术标准化技术委员会)归口,主管部门为中国科学院。


Introduction

Quality Evaluation Indicators for Airborne LiDAR Point Cloud Data

1. Background of Standard Formulation

With the rapid development of LiDAR technology, airborne LiDAR (LiDAR) has been widely used in surveying and mapping, geographic information, disaster monitoring and other fields. In order to ensure the quality of LiDAR point cloud data, the GB/T 36100-2018 standard came into being, aiming to provide unified data quality evaluation indicators and calculation methods.

2. Comparison of standard frameworks

Dimensions Standard requirements Comparison with other international standards
Point cloud density The average number of laser points per unit area Aligned with international standards and using the same calculation formula
Elevation accuracy Maximum elevation error, mean error and other indicators Introduced the elevation error evaluation method for flight strip splicing
Plane accuracy Maximum plane position error and other indicators Added the calculation of relative plane position mean error

3. Interpretation of core technologies

5.1 LiDAR point cloud density calculation method

Formula analysis:

$$ \rho=\frac{n-\sum_{i=0}^{m}n_i}{A-\sum_{i=0}^{m}A_i} $$

Wherein, $\rho$ represents the point cloud density, in units of points/square meter; $n$ is the total number of laser points in the survey area, $n_i$ is the number of laser points in the $i$th water area, $m$ is the total number of water areas, $A$ is the area of the entire survey area, and $A_i$ is the coverage area of the $i$th water area.

5.2 Elevation accuracy evaluation indicators

Case analysis: This standard was used in a surveying and mapping project to calculate the error in elevation, and field checkpoint data was used for evaluation. By interpolating the difference between the elevation value and the measured elevation value, $Z_{\mathrm{RMSE}}=0.25m$ was calculated, which met the accuracy requirements.

4. Implementation suggestions

Data collection: Ensure the calibration and stability of the lidar equipment, especially under complex terrain conditions.

Quality control: During data processing, strictly perform error analysis according to the calculation formula in the standard, and regularly check the quality indicators of point cloud data.

Application optimization: Adjust the weight of the evaluation indicators according to the specific application scenario, such as adding the assessment of flight strip splicing errors in areas with drastic elevation changes.

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