区域地质调查填图实习辅助系统的研究与实现
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摘要
区域地质调查是一项基础性、公益性、综合性的地质调查研究工作。传统地质调查和填图的主要工作方式是把野外直接观测到的地质现象、数据等信息,系统地用图表、文字等记录于纸质记录本上。由于大量的野外数据信息都以纸质笔记本记录的形式存在,给数据管理和共享带来了很大困难,在某种程度上制约了数据资源效益的充分发挥,给社会经济发展带来了一定的负面影响。
     1999年以来,随着新一轮国土资源大调查“数字国土”工程的实施,地质调查的信息化建设也越来越受到重视。然而,信息化建设的另一个障碍就是人才短缺问题。目前我国掌握新技术新方法的地质填图人才比较贫乏,工作在一线的地质工作者大都存在着“填图人才断档”和高素质后续人才匮乏,技术骨干知识较老化,3S等高新技术知识学习较少等现象。
     目前,各大科研院校地质类专业学生进行地质填图实习时,大都还是以传统的地质“老三件(罗盘、地质锤和放大镜)”为主要填图工具,在填图教学中基于3S技术的应用研究还较少见。虽然国内已有一些专业的地质填图软件,但这些专业数字填图系统主要是面向地质生产过程,若在教学实习中直接使用现成的地质填图软件,则不利于学生掌握数字化填图技术的基础知识和技能,只能被动地接受软件的操作步骤。
     本论文是以培养国家建设和发展急需的现代化专业地质人才为主导思想,最终目的就是设计开发一套集3S技术的数字填图教学实习系统,可以反映现代新技术和新方法在教学实习中的应用,旨在对在校学生和科研院所的地质工作者进行填图方面基本技能的培养和训练,使其掌握最新的现代化区域地质调查的知识技术和综合技能,为国家培养和储备大量新一代的优秀人才。
     笔者自2003年以来,在安徽巢湖进行了大量的野外填图工作,并开展了数字填图技术的研究和系统设计。系统设计主要是基于地质填图的基本工作流程和规范,以Visual Basic为二次开发语言,超图SuperMap Objects为二次开发平台建立了集3S技术以及从数据采集到成果地质图输出的一体化数字填图实习系统,其界面友好,操作方便简单,功能完备,为在校本科生和研究生的填图实习提供方便。本系统主要是以面向教学为主,但同时兼顾实际生产、基础与技能和综合能力的培养。论文主要取得的研究成果如下:
     1.论文在充分吸收和借鉴国内外相关领域研究成果的基础之上,并结合
Regional Geological Surveying is a fundamental, public and synthetic investigation and study. The main working manner of the traditional geological surveying and mapping is to record systematically the geological phenomena and data, which is noted directly in words and diagrams on the logbooks. The mass field data exist in the form of the paper notebook, which makes the data management and share more difficult, and to some extent, restricts the sufficient exertion of data resources, influences the society economy development, and it is not suitable for the development of the society informatization.Since 1999, geological surveying information construction is paid more and more attention, with the carrying on the new country resources surveying—the project of "digital country". Nevertheless, anther problem of information construction is the brains. At the present, geologic mapping talents are poor in grasping new technologies and methods, there are some phenomena in the geologists working at the front, for example, mapping qualified personnel being poor, the young persons being deficient, technology backbones possessing few 3S new knowledge and so on.At present, although geologic mapping is the important content of geological practice for the students majored in geology of the science institutes and the university, most of them used the traditional "Old Three" (compass, geological hammer, magnifier) as the main instruments, using of the GIS,RS and GPS is void. In our country, there have been some special geologic mapping softwares, but these special digital mapping systems are only used in the geological production procedure. If the ready geologic mapping soft wares are directly used in the practice teaching, it is not good for the students to grasp the basic knowledge of digital mapping technology but to passively receive the software operation steps.The paper's predominant idea is to cultivate modernization special geology persons with ability for country construct and development, the eventual purpose of this paper is to design and develop a set of mapping practical system combining the 3 s digital mapping for practice and teaching, which can reflects the usage of the new technologies and methods in the practice teaching. At the same time, it is used to cultivate and train the basic skills of mapping for the undergraduates and geologists in the science and study institutes, which can make them grasp the lately modern regional surveying knowledge and comprehensive skills and train and reserve a large number of new excellent talents.After 2003, the writer did a lot of field mapping work in the Chaohu of Anhui province, and did the research and the design on digital mapping skills and system. The system is based on the geologic mapping flow and criterion, and uses the Visual Basic as the second developed language;The SuperMap Objects as the second developed platform, building up an integrative digital mapping system combined the 3s and the functions from the data collection to the successful geological map output. And the interface is friendly and easy to operate, and the function is perfect to provide convenience for the undergraduates and postgraduates in the
    mapping practicing. The system is mainly used for teaching, as well as the actual produce, basic and comprehensive skills training. The major research findings of the paper are in following:1. The paper detailedly studied the limitation of the traditional geologic mapping and significance of modern informational construction of geologic mapping, and it is on the basis of sufficiently absorbing and using for reference the research fruits of the related fields at home and abroad, combining the developing situation of the geologic mapping and the educational demands of mapping. It explicated the feasibility of the digital mapping by using new methods and technologies.2. The paper carries out the detailed design of the system database from the point of the geological mapping flow.3. The paper deeply discussed the basic approaches and solutions of digital mapping under the support of 3s technology, and systematically studied the key problems, such as, data collection procedure, database model, database design, data model and outcome output, etc. And it constructed mapping practice aided system based on the GIS> GPS> RS? which contains the functions including data collection, database and map construction, space analysis, map print.4. The mature information interaction inquiry function. The system realized the two-way inquiry of both from the space to attributes and from the attributes to the space and custom inquiry. And we can easily look through and edit the data.5. The system possessed the basic functions of three dimension modeling, visualization, space analysis, which can carry on the operations of three dimension simulation, use the photos and remote sensing pictures to superpose, create three-dimensional orthograph, and can measure distance, azimuth angle and area.6. Integrating many kinds of the data resources perfectly. The system can manage the different types of the data, such as grid data, vector data, and the different kinds of the data, such as the orthograph, remote sensing, and can be superposed as background with vector relief map for enhance of the mapping in efficiency and quality.7. The system achieved the perfect integration and amalgamation of the 3S (GIS, GPS, RS) information system.8. It can be made several kinds of thematic maps with special meaning and different displaying styles based on the space and attribute data. The system provides the seven types of thematic map, which is very easy to do thematic maps, improve analyzing and cognizing ability for geologists.9. Perfect assistant system. Because the main service target of the design and development of the system is the undergraduates and the postgraduates, it is inevitable to meet some field problems in reality and system operating problems in the mapping procedure. So it is very need for apprentice to offer a set of help system.10. The geologic mapping practical base of the Geology Department of Northwest University is chosen to systematically validate as, and the satisfied results are attained. It shows that the digital mapping practical aiding teaching system can play an important role in the undergraduates practice.
引文
1.(美)Shashi Shekhar,Sanjay Chawla著,谢昆青,马修军,杨冬青等译.空间数据库.2004,北京:机械工业出版社.
    2.(美)Fed Coombs Jon Campbell著,邓少鹍,邓云佳译,Visual Basic编程实用大全.2002,北京:中国水利水电出版社.
    3.(美)Paulraj Ponniah著,韩宏伟译.数据库设计与开发教程.2005,北京:清华大学出版社.
    4.(美)Peter Rob,Carlos Coronel著,陈立军等译.数据库系统设计、实现与管理(第5版).2004,北京:电子工业出版社.
    5. Bedford, D.R., Ludington, S., Nutt, C., et at., Geologic Database for Digital Geology of California, Nevada, and Utah—an application of the North American data Model, 2002, U.S. Geological Survey Open-File Report.
    6. Beheshti Reza, Michels Palph. The global GIS: a case study. Automation in Construction. 2001, 10(5): 597—606.
    7. Borges, Karla A V Davis, Clodoveu A, etc. OMT-G: An Object-Oriented Data Model for Geographic Applications. 2001, 5(3):221—260.
    8. Boyan Brodaric. Digital Geological Knowledge: From the Field to the Map to the Internet. Digital Mapping Techniques'00——Workshop Proceedings U.S. Geological Survey Open-File Report 00-325.
    9. Boyan Brodaric. Field Data Capture and Manipulation Using GSC Fieldlog v3.0. Digital Mapping Techniques '97 U.S. geological Survey Open-File Report 97-269. http://pubs.usgs.gov/of/of97-269/brodaric.html
    10. Briner A P, Kronenberg H, Mazurek M, etc. FieldBook and GeoDatabase: Tools for field data acquisition and analysis.Computers & Geosciences,1999, 25(10):1101—1111.
    11. Broome J, Brondaric B, Viljoen D, etc. The NATMAP digital geoscience data-management system.Computers & Geosciences.1993,19(10): 1501—1516.
    12. Chen Shupeng, Zhong Ershun.Perspectives on GIS Development in China. 1998, 2nd Annual GIS Infrastructure Planning and Management Conference.
    13. Chen Shupeng. Geo-informatics and regional sustainable development. 1995, Beijing: Publishing House Of Survey And Mapping.
    14. Clark K C. Recent trends in geographic information system research. Geo-Processing. 1986, 1(3):1—15.
    15. Core A. The Digital Earth: Understanding Our Planet in the 21st Century. The Australian Surveyor,1998, 43(2):89—91.
    16. Cox Allan B. An overview to geographic information systems. The Journal of Academic Librarianship.1995, 21(4): 237—249.
    17. Dangermond J. Geographic database system. Geo-Processing. 1986, 1(3): 17—29.
    18. David R. Soller and Thomas M. Berg. The National Geologic Map Database—A Progress Report. Digital Mapping Techniques '99—Workshop Proceedings U.S. Geological Survey Open-File Report 99-386. http://pubs.usgs.gov/of/1999/of99-386/soller1.html.
    19. David Viljoen. Topological and Thematic Layering of Geological Map Information: Improving Efficiency of Digital Data Capture and Management. Digital Mapping Techniques'97. U.S.Geological Survey Open-File Report 97-269.
    20. Fedra K. Urban environmental management: monitoring. GIS and modeling. Computers, Environment and Urban Systems. 1999, 23(6): 443—457.
    21. Gahegan Mark, Ehlers Manfred. A framework for the modeling of uncertainty between remote sensing and geographic information systems. ISPRS Journal of Photogrammetry and Remote Sensing. 2000, 55(3): 176—188.
    22. Gary L Raines, Boyan Brodaric, Bruce R Johnson. Progress Report-Digital Geologic Map Data Model. Digital Mapping Techniques'97 , U.S. Geological Survey Open-File Report97-269.
    23. George H Brimhall, Abel Vanegas and Derek Lerch. GeoMapper Program for Paperless Field Mapping With Seamless Map Production in ESRI ArcMap and Geologger for Drill-Hole Data Capture: Applications in Geology , Astronomy , Environmental Remediation , and Raised-Relief Models. Digital Mapping Techniques'02——Workshop Proceedings U.S.Geological Survey Open-File Report 02-370.
    24. George H Brimhall, Abel Vanegas. Removing Science Workflow Barriers to Adoption of Digital Geological Mapping by Using the GeoMapper Universal Program and Visual User Interface.Digital Mapping Techniques'01——Workshop Proceedings U.S. Geological Survey Open-File Report 01-223. http://pubs.usgs.gov/of/2001/of01-223/brirnhall.html
    25. Goodchild M F. Geographic data modeling. Computers and Geosciences. 1992, 18(4):401—408.
    26. Huber Martin, Schneider Daniel. Spatial data standards in view of models of space and the functions operating on them. 1999, 25(1): 25—38.
    27. I Gabet, G. Grandon, L. Renoward. Automatic generation of high resolution urban zone digital elevation models. Photogrammetry and Remote Sensing. 1997, (53).
    28. J.E.Mccormack and J.Hogg. Virtual-Memory Tiling for Spatial Data Handling in GIS, Computer &Geoscience, 1997, 23(4):659~669.
    29. John H. Kramer, Ph.D. Digital Mapping Systems for Field Data Collection. Digital Mapping Techniques '00 — Workshop Proceedings U.S. Geological Survey Open-File Report 00-325.http://pubs.usgs.gov/openfile/of00-325/kramer.html
    30. Johnson, B.R., Brodaric, Boyan, Raines, G.L., Hastings, J.T., and Wahl, Ron, Digital Geologic Map data Model, Version 4.3(a): Unpublished American Association of State Geologists / U.S. Geological Survey draft document, 1999, http://geology.usgs.gov/dm/model/Model43a.pdf
    31. Laxton, J L, Becken, K. The design and implementation of a spatial database for the production of geological maps. 1996, 7(22): 723—733, Computers & Geosciences.
    32. Li Bin . Zhang Li . Distributed Spatial Catalog Service on the CORBA Object Bus. Geolnformatica. 2000, 4(3): 253—269.
    33. Li Manchun. A Prelimanary Study on Hypemedia Information Presentation in GIS. The Proceedings of " Toward the Development of Asia in the 21 st Century ". 1997, Hang Zhou:53—56.
    34. Philippe Leblanc. OMT and SDL based techniques and tools for design, simulation and test production of distributed systems. International Journal on Software Tools for Technology Transfer. (1)1—2.
    35. Power W L, Lamb P and Horowitz F G. From Databases to Visualization: Data Transfer Standards and Data Structures for 3D Geological Modeling. Australasian Institute of Mining and Metallurgy, 1995, (4):65—70.
    36. Ralph Haugerud. Geologic Maps, Spatial Databases, and Standards. Digital Mapping Techniques '98—Workshop Proceedings U.S. Geological Survey Open-File Report 98-487.http://pubs.usgs.gov/of/1998/of98-487/haug1.html
    37. Rebolj Danijel, Sturm Peter J. A GIS based component-oriented integrated system for estimation, visualization and analysis of road traffic air pollution. Environmental Modeling and Software with Environment Data News. 1999, 14(6): 531—539.
    38. Schetselaar E M. Computerized field-data capture and GIS analysis for generation of cross sections in 3-D perspective views. Computers & Geosciences, 1995, 21 (5):687—710.
    39. Soller, D.R. and Berg, T.M.,The National Geologic Map Database—A Progress Report, in D.R. Soller, ed., Digital Mapping Techniques '99—Workshop Proceedings: U.S. Geological Survey Open File Report 99-386, 1999, http://pubs.usgs.gov/openfile/of99-386/sollerl.html.
    40. Soller, D.R., Proceedings of a workshop on digital mapping techniques: Methods for geologic map data capture, management, and publication: U.S. Geological Survey Open-File Report 97-269, 1997, http://ncgmp.usgs.gov/pubs/of97-269/.
    41. Stephen M. Richard. Geologic Concept Modeling, with Examples for Lithology and Some Other Basic Geoscience Features. Digital Mapping Techniques '99—Workshop Proceedings U.S. Geological Survey Open-File Report 99-386.http://pubs.usgs.gov/openfile/of99-386/richard.html
    42. Struik L C, Atrens A, Haynes A. Hand-held computer as a field notebook and its integration with the Ontario Geological Survey's 'Fieldlog' program. In: Current Research Part A[C]. 1991, 279—284, Geological Survey of Canada.
    43. Tabor, R.W., Haugerud, R.A., Booth, D.B., and Brown, E.H., Preliminary geologic map of the Mount Baker 30-by 60-minute quadrangle, Washington: U.S.Geological Survey Open-File Report 94-403, 1994.
    44. Thomson Curtis N, Hardin Perry. Remote sensing/GIS integration to identify potential low-income housing sites. Cities. 2000, 17(2): 97—109.
    45. U.S. Geological Survey, Draft cartographic and digital standard for geologic map information. USGS Open-File Report 95-525, 1995.
    46. Walsh G J. Digital bedrock geologic map of the Vermont part of the Hartland quadrangle, Windsor County, Vermont. 1998, U.S. geological Survey Open-File Report 98-123.
    47. Wang Fangju. A Distributed Geographic Information System on the Common Object Request Broker Architecture(CORBA).GeoInformatica, 2000, 1(4): 89—115.
    48. Zheng X, Gong P. Liner feature modeling using curve fitting, parametric polynomial techniques.Geographic Information Sciences, 1997, (3): 1—2.
    49.白朝军,陈瑞保.遥感技术在青藏高原空白区地质填图中的应用.河南地质,2001,19(2):153—157.
    50.白尚旺、党伟超.PowerDesigner软件工程技术.2004,北京:电子工业出版社.
    51.北京超图地理信息技术有限公司.SuperMap Objects 程序员参考,2003,北京.
    52.北京超图地理信息技术有限公司.SuperMap Objects基础培训教程,北京.
    53.北京超图地理信息技术有限公司.SuperMap Objects开发教程,2002,北京.
    54.毕硕本,王桥,徐秀华.地理信息系统软件工程的原理与方法.2004,北京:科学出版社.
    55.边馥苓,朱国宾,余洁等.地理信息系统原理和方法.1996,北京:测绘出版社.
    56.陈克强,姜义,李超岭等.计算机辅助编制1:5万地质图工艺流程研究.中国区域地质.1997,(1):66—68.
    57.陈圣波.地球空间信息技术在新一轮国土资源大调查中的应用探讨.国土资源遥感.1999,(2):1—6.
    58.陈述彭,鲁学军,周成虎.地理信息导论.1999,北京:科学出版社.
    59.陈志.1:5万区调地质填图新方法介绍.西北地质.1996,17(1):49—55.
    60.戴俊生,姜在兴,宁裕发.安徽巢北综合地质实习指导书.石油大学(华东)勘探系.
    61.狄卫民.地质剖面图和平面图的计算机辅助绘制.黄金科学技术.2002,10(4):36—39.
    62.杜国银.区域地质填图项目评价.资源调查.2002,(5):40—43.
    63.段兴,吴胜德.Visual Basic6.0数据库实用程序设计100例.2002,北京:人民邮电出版社.
    64.方成名,葛梦春,李超岭等.数字填图技术理论基础.新疆地质.2003,21(增刊):7—11.
    65.方世明,张夏林,李伟忠等.计算机辅助地质填图系统中GIS和DBS的集成探讨.物探化探计算技术.2001,23(3):272—276.
    66.弗伦兹韦查,Fronckowiak.Visual Basic 6.0数据库编程大全.1999,北京:电子工业出版社.
    67.傅海涛,杨文敏.自动填图业务系统的改进与维护.陕西气象.1997,(6):44—45.
    68.高德臻.在区调项目中组织教学实习的体会.中国地质教育,1997,(2):42—44.
    69.高桥喜,毛善君,王成等.地质数据库管理系统的设计与实现.煤炭技术.2000,19(4):46—47.
    70.葛梦春,方成民.沉积岩区——如何进行数字化填图.中国国土资源报.2002,8(7).
    71.葛梦春,方成名,于庆文等.数字路线地质调查与数字填图方法.新疆地质.2003,21(增刊):26—32.
    72.龚健雅,夏宗国.地理信息系统的发展趋势与前景.地理信息世界.1996,(3):1.
    73.韩志军,汪新庆,吴冲龙.数据库系统数据字典的设计与实现.微机发展.1999,(2):30—32.
    74.韩志军,汪新庆,吴冲龙.野外数据采集系统数据字典的研制.地球科学—中国地质大学学报.1999,24(5):539—541.
    75.韩志军,吴冲龙,袁艳斌.地质矿业信息系统开发的标准化.中国标准化.1999,(11):7—8.
    76.何珍文,吴冲龙,汪新庆等.空间数据库应用程序的性能优化问题探讨.计算机应用.2001,21(4):65—67.
    77.何珍文,吴冲龙,张夏林等.数据库应用程序中通用动态查询实现方法研究.计算机工程.2002,28(11):92—95.
    78.何宗宜.地图数据处理模型的原理和方法.1993,武汉:中国地质大学出版社.
    79.洪昌松,郑贵洲.地图制图学.1993,武汉:中国地质大学出版社.
    80.黄建业,王卫安.软件组件技术及其在GIS中的应用.地矿测绘.2001,17(3):39—42.
    81.黄明,梁旭.Visual Basic 6.0 信息系统设计与开发实例.2004,北京:机械上业出版社.
    82.黄仁涛,庞小平,马晨燕.专题地图编制.2003,武汉:武汉大学出版社.
    83.姜义,余心起.地质制图过程和方法.中国地质.1994,(2):186—190.
    84.姜义,张崇义,赵洪伟.1:5万区域地质调查数字地质图系统设计方案.中国区域地质.1998,(2):218—224.
    85.姜义,赵宏伟.GIS在区调工作中的应用前景.1997,16(1):69—74.
    86.姜作勤,张明华.野外地质数据采集信息化所涉及的主要技术及其进展.中国地质.2001,28(2):36—42.
    87.姜作勤.澳大利亚第二代填图野外数据采集的新进展.中国区域地质.1997,16(3):335—336.
    88.姜作勤.地质工作信息化若干问题的思考.地质通报.2004,23(9~10):839—845.
    89.姜作勤,李友枝.野外地质数据采集信息化的现状与特点.中国地质.2001,28(6):1—6.
    90.姜作勤.新一代地质填图面临的挑战.地质科技管理.1997,(2):20—21.
    91.姜作勤.野外地质数据采集信息化现状与技术发展.地质调查情报.2000,(6):95—109.
    92.康继武,杨梅忠,房庆华.地质填图实习指南.1995,徐州:中国矿业大学出版社.
    93.康如化.构造—岩性—岩相填图法实践与研究.湖南地质.2001,20(4):250—255.
    94.况顺达,刘敏.区调管理信息系统简介.贵州地质.1999,16(1):84—88.
    95.兰方信,杜小玲,赵杰.贵州区域填图系统.贵州气象.1999,23(1):29—32.
    96.李超岭,杨东来,于庆文等.数字地质调查与填图技术方法研究.中国地质.2002,29(2):213—217.
    97.李超岭,杨东来,于庆文等.数字区域地质调查基本理论与技术方法研究.计算机工程与应用.2001:37(20):43—47.
    98.李超岭,于庆文,杨东来等.PRB数字地质填图技术研究.地球科学.2003,28(4):377—383.
    99.李超岭,于庆文,张克信等.数字区域地质调查基本理论与技术方法.2003,北京:地质出版社.
    100.李超岭,张克信,墙芳躅等.数字区域地质调查系统技术研究.地球科学进展.2002,17(5):763—768.
    101.李超岭,张克信,于庆文等.数字填图中不同阶段数据模型的继承技术.地球科学—中国地质大学学报.2004,29(6):745—752.
    102.李超岭.PRB数字填图基本理论与技术方法研究(博士论文).中国地质大学.2002.
    103.李超岭.我国数字填图技术研究现状与发展趋势.新疆地质.2003,21(增刊):1—6.
    104.李德仁,龚建雅,边馥苓.GIS的基本功能.测绘通报.1993,(3):28—35.
    105.李德仁.论RS、GIS与GPS集成的定义、理论与关键技术.遥感学报。1997,1(1):64—68.
    106.李鸿吉.Visual Basic 6.0 数理统计实用算法.2003,北京:科学出版社.
    107.李满春,任建武,陈刚等.GIS设计与实现.2005,北京:科学出版社.
    108.李树楷.初论3S技术一体化信息技术.环境遥感.1995,10(1):76—80.
    109.李天文,马智民.GPS与GIS结合进行1:5万地质填图的研究.西安工程学院学报.1998,20(3):1.
    110.李天文.GIS和DGPS一体化方法在地质填图中的应用.西安矿业学院学报.1999,19(1):18—21.
    111.李伟忠,汪新庆,刘刚.“V”字型法约束下基于GIS的地层界线计算机辅助连接.中国区域地质.2001,20(3):300—303.
    112.李向阳,吴冲龙,汪新庆.分布式地矿点源信息系统的构件化体系结构设计.国土资源科技管理.2001,18(6):41—45.
    113.李知桂.计算机辅助设计的现状及发展对策.矿业研究与开发.1995,15(增刊):127—131.
    114.刘丹,郑坤等.组件技术在GIS系统中的研究与应用.中国地质大学学报.2002,(5):263—266.
    115.登忠.试论遥感技术在红层1:50000区调填图中的作用.成都理工学院学报.1999,26(2):119—123.
    116.刘刚,汪新庆,赵温霞等.《计算机辅助区域地质填图实习系统》的研制与基地班野外实践教学改革.中国地质教育.2001(3):32—35.
    117.刘刚,吴冲龙,汪新庆.计算机辅助区域地质调查野外工作系统研究进展.地球科学进展,2003,18(1):77—84.
    118.刘刚,袁艳斌,吴冲龙.参数化设计方法在地矿图件计算机辅助编绘中的应用.地质科技情报.1999,18(1):91—96.
    119.刘刚,赵温霞,吴冲龙等.《区域地质测量计算机辅助技术》课程建设和教学模式研究.中国地质教育.2004(3):35—38.
    120.刘光.地理信息系统·组件开发篇.2003,北京:中国电力出版社.
    121.刘光.地理信息系统二次开发教程·语言篇.2003,北京:清华大学出版社.
    122.刘光.地理信息系统二次开发教程·组件篇.2003,北京:清华大学出版社.
    123.刘光运,韩丽斌.电子地图技术与应用.1996,北京:测绘出版社.
    124.刘贺群.计算机辅助设计(CAD)技术发展综述,石油规划与工程.1994,5(2):60.
    125.刘基余,李征航,王跃虎等.全球定位系统原理及其应用.测绘出版社.1993,20—45.
    126.刘树臣,肖庆辉.地质填图中值得注意的几个动向.国土资源科技进展.2000,(2):5—11.
    127.刘韬.Visual Basic 6.0数据库系统开发实例导航.2002,北京:人民邮电出版社.
    128.刘湘南,黄方,王平等.GIS空间分析原理与方法.2005,北京:科学出版社.
    129.鲁孟胜,周绍红.计算机辅助编制第四系剖面图的程序设计.中国煤田地质,2001,13(2):94—95.
    130.闾国年,张书亮,龚敏霞等.地理信息系统集成原理与方法.2003,北京:科学出版社.
    131.罗杰森.COM技术内幕.1998,北京:清华大学出版社.
    132.马维峰,薛重生.基于GIS技术构建地学数字填图系统.地理信息世界,2005,3(B08):69—72.
    133.毛锋.地理信息系统建库技术及其应用.1999,北京:科学出版社.
    134.毛善君.煤矿地理信息系统数据模型的研究.测绘学报.1998,27(4):331—337.
    135.毛小平,吴冲龙,袁艳斌.地质构造的物理平衡剖面法.地球科学——中国地质大学学报.1998,23(2):167—170.
    136.门桂珍,萨贤春,雷宝林.地质图件的数据存贮与处理.物探化探计算技术.1994,16(3):234—238.
    137.倪金生,李琦,曹学军.遥感与地理信息系统基本理论和实践.2004,北京:电子工业出版社。
    138.潘爱民.COM原理及应用.1999,北京:清华大学出版社.
    139.潘宝玉,王贵祥.3S技术集成及其在地质领域中的应用.山东地质.1998,14(4):50—55.
    140.濮国梁,杨武年,徐凌等.数字区调新技术新方法—RS__OrthoMapper系统研制开发.计 算机工程与应用.2003,22:53—54.
    141.其和日格.“八五”区域地质调查成果及1996年区调工作总结.中国区域地质,1997,16(2):115—122.
    142.钱建平,李少游.地质填图实习考核方法的改革及其效果.中山大学学报论丛,2001,21(1):207—208.
    143.区域地质调查野外工作方法(准备工作一般工作方法地层),第一分册.1979,地质出版社.
    144.区域地质调查实习指导书,南京大学地球科学系。
    145.任家琪,张雪亭.青海区调工作发展意向.青海地质.1997,(2):50—55.
    146.萨贤春,门桂珍.地质图形处理系统设计.煤田地质与勘探.1996,25(2):21—24.
    147.施伯乐,丁宝康.数据库技术.2004,北京:科学出版社.
    148.石宏仁.澳大利亚新一代地质填图工作模式.中国地质.1998,(1):34—35.
    149.宋关福,钟耳顺.组件式地理信息系统研究与开发.中国图像图形学报.1998,3(4):313—317.
    150.孙家广.计算机辅助设计技术基础(第二版).2002,北京:清华大学出版社.
    151.孙守迁,黄琦,潘云鹤.计算机辅助概念设计研究进展.计算机辅助设计与图形学学报.2003,15(6):643—650.
    152.孙以义.计算机地图制图.2000,北京:科学出版社.
    153.汤国安,赵牡丹.地理信息系统.2000,北京:科学出版社.
    154.田立富,杜汝霖,周聘渭等.在区调实践教学中实现教产研三结合.中国地质教育.1997(1):21—23.
    155.汪新庆,刘刚,韩志军等.地质矿产点源数据库系统的模型库及其分类体系.地球科学—中国地质大学学报.1998,23(2):199—204.
    156.汪新庆,刘刚,袁艳斌等.地质矿产术语分类代码在地矿点源信息系统中的应用.地球科学—中国地质大学学报.1999,24(5):529—532.
    157.王家耀.空间信息系统原理.2001,北京:科学出版社.
    158.王来生,鞠时光,郭铁雄等.大比例尺地形图机助绘图算法及程序.1993,北京:测绘出版社.
    159.王勇毅.GIS与地质图制作.地质与勘探.2000,36(1):44—47.
    160.魏家庸,卢重明,徐怀艾等.沉积岩区1:5万区域地质填图方法.1992,武汉:中国地质大学出版社.
    161.邬伦.地理信息系统原理、方法和应用.2001,北京:科学出版社.
    162.毋河海,龚建雅.地理信息系统(GIS)空间数据结构与处理技术.1997,北京:测绘出版社.
    163.吴冲龙,刘刚.中国“数字国土”工程的方法论研究.地球科学——中国地质大学学报.2002,27(5):605—609.
    164.吴冲龙,汪新庆,刘刚等.地质矿产点源信息系统设计原理及应用.1996,武汉:中国地质大学出版社.
    165.吴冲龙.计算机技术与地矿工作信息化.地学前缘.1998,5(1—2):343—355.
    166.吴信才.地理信息系统原理与方法.2002,北京:电子工业出版社.
    167.肖乐斌,钟耳顺,刘纪远等.GIS概念数据模型的研究.武汉大学学报(信息科学版).2001,26(5):387~392,418.
    168.谢刚生,邹时林.数字化成图原理与实践.2000,西安:西安地图出版社.
    169.徐爱萍,徐武平.组件技术与ComGIS.计算机应用.2001,(2):32—34,39.
    170.徐冠华,孙枢,陈运泰等.迎接数字地球的挑战.遥感学报.1999,3(2):85—89.
    171.杨武年,廖崇高,濮国梁.数字区调新技术新方法—遥感图像地质解译三维可视化及影像动态分析.地质通报.2003,22(1):60—64.
    172.杨武年,廖崇高,濮国梁等.3S技术在数字区域地质调查中的应用.物探化探计算技术.2002,24(增刊):101.
    173.殷国富,陈永华.计算机辅助设计技术与应用.2000,北京:科学出版社.
    174.殷跃平,康宏达,张颖等.地质工程计算机辅助设计支持系统及其应用.工程地质学报.1995,3(4):39—47.
    175.于庆文,李超岭,张克信等.数字地质填图研究现状与发展趋势.地球科学.2003,28(4):370—376.
    176.余丰华,吴冲龙,刘刚.基于移动GIS的野外地质数据采集系统的设计.计算机应用.2004,24:82—84.
    177.俞连笙,王涛.地图整饰.1995,北京:测绘出版社.
    178.袁艳斌,韩志军,刘刚等.基于GIS的1:5万区调野外空间数据快速采集技术.地球科学进展,2000,15(3):348—352.
    179.袁艳斌,韩志军,刘刚等.实施新一轮国土资源大调查的技术及系统开发路线探讨.中国区域地质.1999,18(4):337—350.
    180.袁艳斌,刘刚,韩志军等.“数字国土”在“数字地球”中的地位及其模型探讨.地质科技情报.1999,18(3):90—94.
    181.袁艳斌,吴冲龙,李伟忠.面向野外地质填图的空间实体对象表达.地球科学.2001,26(2):192—196.
    182.张复新.安徽巢湖北部1/5万区域地质调查实践与工作方法.2003,西北大学地质学系.
    183.张桂林,冯佐海,文鸿雁等.基于3S技术数字化地质填图新方法.2005,北京:国防工业出版社.
    184.张洪涛,庄育勋,其和日格等.区调提速的紧迫性和可行性.中国地质.2002,29(1):1—6.
    185.张洪涛.服务国家目标 体现科技创新——论新一轮国土资源大调查的历史意义.中国地质.2001,28(1):4—8.
    186.张夏林,汪新庆,刘刚等.复杂野外地质属性数据的快速采集方法探讨.地质科技情报.2001,20(3):101—104.
    187.张夏林,汪新庆,吴冲龙.计算机辅助地质填图属性数据采集子系统的动态数据模型.地球科学—中国地质大学学报.2001,26(2):201—204.
    188.赵鹏大,孟宪国.地质学的定量化问题.地球科学——中国地质大学学报.1992,17(增刊):51—56.
    189.赵双明.COM部件开发技术.测绘信息与工程.2000,(1):35—39.
    190.赵文吉,张松梅,晋佩东.GIS技术在区域填图中实施方法与数字地图.长春科学大学学报.2000,30(3):286—288.
    191.赵文吉,张松梅,晋佩东.GIS技术在区域地质调查中的应用.贵金属地质.2000,9(3):170—173.
    192.郑贵洲,王琪.地质图机助制图相关的几个问题.地质科技情报.1997,16(2):92—96.
    193.郑贵洲,周顺平.计算机辅助区域地质填图.地矿测绘.2002,18(1):18—20.
    194.郑贵洲.地理信息系统(GIS)在地质学中的应用.地球科学.1998,(4).
    195.周顺平,万波.对几种数据库访问技术的探讨.计算机与现代化.2001,(5):51—54.
    196.周维屏,陈克强,简人初等.1:50000区调地质填图新方法.1993,武汉:中国地质大学出版社.
    197.周志广,王根厚,顾德林.本科生野外地质教学应引入数字地质填图技术.中国地质教育.2004(2):49—51.
    198.朱光,季晓燕,戎只.地理信息系统基本原理及应用.1997,北京:测绘出版社.
    199.朱云海,张智勇,李超岭.PRB数字地质填图前期数据准备及PRB过程字典库建立.地球科学——中国地质大学学报.2003,28(4):385—388.
    200.邹和平.野外地质填图教学实习课程考核的一些做法.中山大学学报论丛,2001,21(1):205—206.

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