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Remote Sensing for Natural Resources    2022, Vol. 34 Issue (1) : 293-298     DOI: 10.6046/zrzyyg.2021101
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FME-based method for attribute consistency checking of vector data of mines obtained from remote sensing monitoring
LYU Pin(), XIONG Liyuan, XU Zhengqiang(), ZHOU Xuecheng
Sichuan Institute of Nuclear Geology, Chengdu 610051, China
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Abstract  

The vector data of mines in China obtained from remote sensing-based monitoring are characterized by wide coverage, high complexity, and high accuracy of area statistics. However, existing software suffers low calculation efficiency and low accuracy. This study proposed a solution based on the feature manipulation engine (FME) platform. This solution consists of the following steps. Firstly, the vector data of mines were divided into zones according to the locations of polygons and mineral rights. Secondly, the positions of the polygons relative to mineral rights were analyzed, obtaining four types of polygons, namely being separated from, containing, being contained in, and covering mineral rights. Finally, relevant area of mines was calculated, including the development area (KFZDMJ), the area covered by mining right (KQNMJ), and the area uncovered by mining right (KQWMJ) according to the types of relative position relationships. The solution was verified using the vector data of mines in a medium-sized province. According to the verification results, the solution proposed in this study can greatly improve calculation efficiency and accuracy and its operation is feasible and straightforward. The results show that the consistency checking of the map attributes can provide effective support for the compilation of remote sensing-based monitoring data of mines and can be widely applied.

Keywords cartography technology      remote sensing-based monitoring of mines      attribute consistency checking      FME     
ZTFLH:  TP319  
Corresponding Authors: XU Zhengqiang     E-mail: 282926660@qq.com;84008181@qq.com
Issue Date: 14 March 2022
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Pin LYU
Liyuan XIONG
Zhengqiang XU
Xuecheng ZHOU
Cite this article:   
Pin LYU,Liyuan XIONG,Zhengqiang XU, et al. FME-based method for attribute consistency checking of vector data of mines obtained from remote sensing monitoring[J]. Remote Sensing for Natural Resources, 2022, 34(1): 293-298.
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https://www.gtzyyg.com/EN/10.6046/zrzyyg.2021101     OR     https://www.gtzyyg.com/EN/Y2022/V34/I1/293
属性名称 字段编码 字段
类型
字段
长度
约束
条件
值域
用户ID KFID C 18 M 综合代码
许可证号 XKZH C 50 M 自由文本
开发占地面积 KFZDMJ F 16.2 M 整数16位,小数2位
矿权内面积 KQNMJ F 16.2 M 整数16位,小数2位
矿权外面积 KQWMJ F 16.2 M 整数16位,小数2位
Tab.1  Definition of some attribute information of KF layer
序号 相对位置
关系类型
图示 说明
1 相离 图斑与相应矿权无空间压盖
2 包含 图斑完全被包含在矿权之内
3 包含于 图斑完全将矿权包含在内
4 压盖 图斑被矿权切为2部分及以上
Tab.2  Types of location relationship between map spots and their corresponding mineral rights
Fig.1  Method of detecting the relative position of spots
序号 关系类型 开发占地面积 矿权外面积 矿权内面积
1 相离 A A 0
2 包含 A 0 A
Tab.3  Characteristics of spot area values of the disjoint and contains relationship types
Fig.2  Spatial overlay analysis operations
Fig.3  Process for calculating the area of spots within and overlaps relationship type
计算方法 图层 图斑数
量(M)
采矿权
数量(N)
跨带
数(K)
运行
时长/s
矿山动态变化成果数据辅助生成软件 KF 27 114 2 999 2 14 458
本文方法 KF 27 114 2 999 2 68
Tab.4  Comparison of calculation time of KF layer area
计算方法 相离 包含 包含于 压盖
辅助生成软件计算结果 KFZDMJ 1 998.49 948.05 7 330.73 11 070.30
KQNMJ 0 948.05 0 1 152.77
KQWMJ 1 998.49 0 7 330.73 9 917.53
本文方法计算结果 KFZDMJ 1 995.84 946.16 7 330.73 11 055.70
KQNMJ 0 946.16 15.29 1 151.25
KQWMJ 1 995.84 0 7 315.44 9 904.45
手动计算结果 KFZDMJ 1 995.84 946.16 7 330.73 11 055.70
KQNMJ 0 946.16 15.29 1 151.25
KQWMJ 1 995.84 0 7 315.44 9 904.45
Tab.5  Comparison of data calculation accuracy(m2)
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