煤矿区“一张图”建设的若干关键技术研究
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摘要
近年来,国土资源部门一直积极推进全国一张图工程,以实现土地资源与矿产资源等全覆盖全流程的动态监测与监管,达到一张图管地管矿管权实践表明,这对保证煤矿区土地利用和煤炭资源开发相协调资源开发与环境保护相协调尤为重要,但同时又存在诸多问题
论文围绕煤矿区一张图建设中的数据获取核心数据库和综合监管决策平台开发及应用,以皖北钱营孜矿神东矿区和徐州夹河矿为例,综合运用多学科理论与方法,探讨了若干关键技术问题论文首先总结了煤矿区土地资源和矿产资源管理综合监管存在的问题,剖析了煤矿区一张图综合监管的内涵和框架;借助于多源多时相多尺度遥感数据研究了煤矿区土地利用一张图数据融合处理与评价技术,分析了利用多源遥感影像融合后数据更新矿区1:2000大比例尺地形图的可行性,探讨了基于遥感的煤炭开发扰动下的土地利用/覆盖的空间格局分类与动态变化信息获取技术;通过对不同传感器的SAR数据(ALOS ENVISAT合成孔径雷达数据)进行干涉处理,探讨了D-InSAR二轨法获取地表沉降信息获取的技术流程,利用时序SAR建立了矿区沉降的非线性模型,揭示地表沉降变形的时空演变规律利用GIS物联网等信息手段,研究了煤矿区物联网井下信息感知关键技术,探讨了无线实时定位技术(Wi-Fi RTLS)自定义UDP通信协议数据包传输和处理方式,分析了感知矿山GIS监控系统(MIOTGIS)工作原理,构建了基于感知层网络层数据层和应用层的MIOTGIS四层结构模式,设计了感知矿山网络部署和数据库E-R模型,基于.NET平台开发了井下人员和设施的实时定位功能和历史轨迹再现功能,实现了矿产资源采掘跟踪越层越界非法开采监控等矿山地下资源全过程全方位远程精细化管理
通过融合煤矿区地上地表地下多源信息,整合集成了矿区土地权属土地规划土地利用状况土地复垦等地籍信息与矿产资源的矿业权矿产资源规划矿产储量矿产开发状况等矿籍信息,分析了实体要素分类编码和市县两级数据中心建设方式,实现了煤矿区土地和矿产资源一张图的统一数据组织,建立了矿地一张图核心数据库,实现了数据整合分层存储集中管理分布式应用同时,以计算机网络及硬件设施为基础,采用B/S与C/S相结合的双构架模式,建设了以GIS系统为平台,以Web技术为依托的集地政矿政决策分析于一体的煤矿区一张图综合监管决策平台,为矿区土地和矿产监管宏观决策,促进矿区资源与环境保护提供了技术与手段支持
In recent years, Departments of land and resources have been promoting the project of ?One Map‘of the whole country actively to realize the whole cover and flow dynamic monitoring of the land and mineral resources and to achieve managing the land and mine with one map. It has been proved that this is vital to the harmony of land utilization and coal resource exploitation and harmonizing resource exploitation with environment conservation. However, there are also many problems.
Based on multidisciplinary theories and research methods, this paper discusses several key technological questions on the information obtainment and the development and application of the core database and synthesize monitoring and decision-making platform, taking Qianyingzi Coal Mine, Shendong Coal Mine and Jiahe Coal Mine of Xuzhou for examples. This paper first summarizes the coal and mineral resources, land resources management problems in an integrated monitoring, analysis of the content and framework of the coal mining area "one-map" consolidated supervision; With multi-source, multi-temporal, multi-scale remote sensing data of the coal mining land use "one-map" data fusion processing and evaluation techniques, analysis feasibility of the use of remote sensing image fusion of multi-source data update 1:2000 mine large-scale topographic map, discussing the mineral development disturbance of land use / cover classification and spatial pattern dynamics monitoring technology; on this basis ,have interference processing through the SAR data achieve by different sensors (ALOS, ENVISAT synthetic aperture radar data), discussed the technical processes of D-InSAR with two-pass methods for surface subsidence monitoring, the use of timing SAR to established a mining settlement nonlinear model, revealing the temporal and spatial deformation of the surface subsidence evolution. The use of GIS, and other means of information of things, on the basis of analysis internet of things and the status quo of mining of things, studied the key technologies of underground mineral resources in coal mining areas perception of things, discussed the real-time location of a wireless technology (Wi-Fi RTLS), Custom UDP communication protocol data packet transmission and processing methods, in-depth analysis the operating principle of perception of mining GIS monitoring system (MIOTGIS),to build MIOTGIS four structural model which based on the perception layer, network layer, data layer and application layer, the design of network-aware mining ER model and database deployment. NET-based platform for the development of underground facilities and real-time positioning and historical trajectory of representation functions, to achieve the extraction of mineral resources to track the more layer of cross-border surveillance of illegal exploitation of underground resources in the whole mining process, comprehensive long-range precision of transparent management.
By combining coal mining area on the ground, surface, underground multi-source information, integrated mining land ownership, land planning, land utilization, land reclamation and other "cadastral" information and mining mineral resources, mineral resources planning, mineral reserves, state of mineral development and other "mineral origin" information, analysis of the physical elements of classification coding and the construction in two data centers of cities and counties, enabling a coal mining area of land and mineral resources, "one-map" of the unified data organization, the establishment of the mine to "one-map "core database to achieve data integration, storage tiering, centralized management, distributed applications. At the same time, based on computer networks and hardware, combination dual architecture model of B / S and C / S, the construction of the GIS system as a platform to rely on a set of Web technology for land, mineral policy, decision analysis in one coal mining area, "one-map" comprehensive regulatory decision-making platform, to achieve the mining and mineral resources, land resources monitoring and management of macroeconomic policy-making.
论文围绕煤矿区一张图建设中的数据获取核心数据库和综合监管决策平台开发及应用,以皖北钱营孜矿神东矿区和徐州夹河矿为例,综合运用多学科理论与方法,探讨了若干关键技术问题论文首先总结了煤矿区土地资源和矿产资源管理综合监管存在的问题,剖析了煤矿区一张图综合监管的内涵和框架;借助于多源多时相多尺度遥感数据研究了煤矿区土地利用一张图数据融合处理与评价技术,分析了利用多源遥感影像融合后数据更新矿区1:2000大比例尺地形图的可行性,探讨了基于遥感的煤炭开发扰动下的土地利用/覆盖的空间格局分类与动态变化信息获取技术;通过对不同传感器的SAR数据(ALOS ENVISAT合成孔径雷达数据)进行干涉处理,探讨了D-InSAR二轨法获取地表沉降信息获取的技术流程,利用时序SAR建立了矿区沉降的非线性模型,揭示地表沉降变形的时空演变规律利用GIS物联网等信息手段,研究了煤矿区物联网井下信息感知关键技术,探讨了无线实时定位技术(Wi-Fi RTLS)自定义UDP通信协议数据包传输和处理方式,分析了感知矿山GIS监控系统(MIOTGIS)工作原理,构建了基于感知层网络层数据层和应用层的MIOTGIS四层结构模式,设计了感知矿山网络部署和数据库E-R模型,基于.NET平台开发了井下人员和设施的实时定位功能和历史轨迹再现功能,实现了矿产资源采掘跟踪越层越界非法开采监控等矿山地下资源全过程全方位远程精细化管理
通过融合煤矿区地上地表地下多源信息,整合集成了矿区土地权属土地规划土地利用状况土地复垦等地籍信息与矿产资源的矿业权矿产资源规划矿产储量矿产开发状况等矿籍信息,分析了实体要素分类编码和市县两级数据中心建设方式,实现了煤矿区土地和矿产资源一张图的统一数据组织,建立了矿地一张图核心数据库,实现了数据整合分层存储集中管理分布式应用同时,以计算机网络及硬件设施为基础,采用B/S与C/S相结合的双构架模式,建设了以GIS系统为平台,以Web技术为依托的集地政矿政决策分析于一体的煤矿区一张图综合监管决策平台,为矿区土地和矿产监管宏观决策,促进矿区资源与环境保护提供了技术与手段支持
In recent years, Departments of land and resources have been promoting the project of ?One Map‘of the whole country actively to realize the whole cover and flow dynamic monitoring of the land and mineral resources and to achieve managing the land and mine with one map. It has been proved that this is vital to the harmony of land utilization and coal resource exploitation and harmonizing resource exploitation with environment conservation. However, there are also many problems.
Based on multidisciplinary theories and research methods, this paper discusses several key technological questions on the information obtainment and the development and application of the core database and synthesize monitoring and decision-making platform, taking Qianyingzi Coal Mine, Shendong Coal Mine and Jiahe Coal Mine of Xuzhou for examples. This paper first summarizes the coal and mineral resources, land resources management problems in an integrated monitoring, analysis of the content and framework of the coal mining area "one-map" consolidated supervision; With multi-source, multi-temporal, multi-scale remote sensing data of the coal mining land use "one-map" data fusion processing and evaluation techniques, analysis feasibility of the use of remote sensing image fusion of multi-source data update 1:2000 mine large-scale topographic map, discussing the mineral development disturbance of land use / cover classification and spatial pattern dynamics monitoring technology; on this basis ,have interference processing through the SAR data achieve by different sensors (ALOS, ENVISAT synthetic aperture radar data), discussed the technical processes of D-InSAR with two-pass methods for surface subsidence monitoring, the use of timing SAR to established a mining settlement nonlinear model, revealing the temporal and spatial deformation of the surface subsidence evolution. The use of GIS, and other means of information of things, on the basis of analysis internet of things and the status quo of mining of things, studied the key technologies of underground mineral resources in coal mining areas perception of things, discussed the real-time location of a wireless technology (Wi-Fi RTLS), Custom UDP communication protocol data packet transmission and processing methods, in-depth analysis the operating principle of perception of mining GIS monitoring system (MIOTGIS),to build MIOTGIS four structural model which based on the perception layer, network layer, data layer and application layer, the design of network-aware mining ER model and database deployment. NET-based platform for the development of underground facilities and real-time positioning and historical trajectory of representation functions, to achieve the extraction of mineral resources to track the more layer of cross-border surveillance of illegal exploitation of underground resources in the whole mining process, comprehensive long-range precision of transparent management.
By combining coal mining area on the ground, surface, underground multi-source information, integrated mining land ownership, land planning, land utilization, land reclamation and other "cadastral" information and mining mineral resources, mineral resources planning, mineral reserves, state of mineral development and other "mineral origin" information, analysis of the physical elements of classification coding and the construction in two data centers of cities and counties, enabling a coal mining area of land and mineral resources, "one-map" of the unified data organization, the establishment of the mine to "one-map "core database to achieve data integration, storage tiering, centralized management, distributed applications. At the same time, based on computer networks and hardware, combination dual architecture model of B / S and C / S, the construction of the GIS system as a platform to rely on a set of Web technology for land, mineral policy, decision analysis in one coal mining area, "one-map" comprehensive regulatory decision-making platform, to achieve the mining and mineral resources, land resources monitoring and management of macroeconomic policy-making.
引文
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