三维城市模型的数据内容
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
作为地球表面人口、经济、技术、基础设施和信息最密集的地区,城市是人口与资源和社会经济要素高度密集的地理综合体,也是地球上最为复杂与活跃,人际交流强度最高的组成部分。随着城市的急剧膨胀,城市建设和管理的难题日益尖锐起来。就城市的建设者和决策者来说,城市建设需要解决问题的复杂性和需要处理信息的广义性,都是前所未有的。在城市建设一些重要的应用领域,虽然也关注于社会经济与发展问题,但已更多地关注于能够表征局部环境的美学、功能和感知的一些主题。与此相适应,城市逼真的三维数字表示由于其在城市基础设施管理、无线通讯网络规划、城市开发决策支持、污染分布仿真、土木工程与军事行动支持等众多领域显现出巨大的应用潜力,已经成为普遍关注的热点问题。城市的三维逼真描述——三维城市模型(3D City Models,3DCM)不仅具有传统虚拟现实表现的高度真实感,而且具有3DGIS数据库管理与分析应用等功能并能与其他社会经济信息互联,因而在城市空间信息科学领域受到了越来越多的关注。
     自上世纪90年代于欧洲提出并在城市建设领域得到应用,目前三维城市模型已得到一定程度的发展,许多研究者从不同角度对三维城市模型进行了研究,而很多数据服务商已经能够提供全球范围内不同城市的三维模型。三维城市模型可以认为是3DGIS一种并不成熟但得到一定程度应用的系统原型,当前的研究,集中于三维城市模型的数据获取、数据模型、数据管理、可视化、空间分析模塑等方面,但在数据规范和标准方面,鲜有系统而成熟的研究。作为一种空间数据,规范与标准对三维城市模型的应用和发展具有至关重要的意义。目前这一方面研究的缺乏,已直接阻碍了三维城市模型的发展。在三维城市模型不同类型的规范和标准中,三维城市模型的数据内容及其细节层次的表达是一个非常重要与基础的部分,它一方面决定数据生产者与使用者对数据的定义,另一方面也直接决定了三维城市模型在数据模型、可视化等其他领域的研究。
     本文涉及的研究内容集中在三个方面:(1)基于不同应用分类的三维城市模型数据内容定义,主要包括分类依据的定义、各分类应用的特点、三维城市模型对象的属性特征、各分类具体的数据内容目录与列表。(2)三维城市模型多细节层次的定义,主要包括三维城市模型数据生产中多细节层次的特点、适合三维城市模型表达的数据模型、基于部件识别(Recognition By Components,RBC)理论应用于三维城市模型多细节层次的可行性分析、三维城市模型对象的纹理数据与几何数据的统一、对应三维城市模型不同应用类型的多细节层次定义。(3)三维城市模型的生产工艺与质量控制方案的制定,主要包括与三维城市模型数据生产相关的生产计划制定、不同三维模型数据类型(几何、纹理、属性等)完整的生产工艺流程、三维城市模型生产(包括DEM、数据源、三维几何建模、纹理数据采集、属性数据采集等相关方面)的全面质量控制。
     (1) 基于不同应用分类的三维城市模型数据内容定义
     ■ 提出了三维城市模型应用的分类框架。三维城市模型目前在不同领域的应用繁杂而多样,而三维城市模型的很多实践已经证明,三维城市模型应用的数据内容定义是基于应用导向的,因此缺乏统一的三维城市模型应用分类框架直接影响了数据内容标准的制定。传统上对三维城市模型不同应用的分类和统一,一般依据应用的功能进行,但这种区分是随意和难以统一的。因为不同的群体对具体功能的理解可能存在极大的差异,而同时应用类型也是随着应用的发展在时刻变化的。考虑三维城市模型是一种注重与用户基于可视化进行信
    
     息交流的数据类型,本文提出基于不同应用与人的可视和认知交流进行三维城市模型应用
     划分的观点。在对三维城市模型不同应用特点考察的基础上,将三维城市模型的不同应用
     分为基于还真可视的三维城市模型应用、基于三维空间寻径与导航的三级城市机型应用以
     及针对特定分析模型的三维城市模型应用三个类别.这三种分类的提出,将所有三维城市
     模型种类繁多的应用归纳于统一的应用框架之下,为三维城市模型&据内容的规范化奠定
     了基础.
     回 提出了三维城市模型对象的用性特征.由于在三维空间的扩展,三维城市用型在表达城市
     空间地物时更加复杂和多样.传统上对一维空间对象单一的包括位置(Posnion)、尺寸(She)
     与形状(Shape)的几何特性描述,己不能完整地描述三维城市模型对象的特性.本文对三
     维城市模型对象从几何和可视两方面的特性,定义了三维城市模型在几何、纹理、多细节
     层次、可识别性、技体性、美观性等六个方面的对象目性特征.
     回 实现了三维城市模型不同应用类别的数据内容目录定义.根据每一应用类别所依@的分类
     依据,对多应用类别的应用环境与应用特点进行了分析.在城市所需要表达的空间与非空
     间对象中,对空间对象依据三维城市模型的六个对家属性特征,建立了每一应用类别的空
     间对象目录列表.
     (2)三维城市模型细节层次的定义
     回 提出了基于RBC理论
As the most densely distributed district of population, economics, technology, infrastructure and information on earth surface, City is the geographic integration of population and social economy .It is also the most complex and active segment which contains frequent communication among people. With the explosion of city, the problem on city construction and management becomes more and more acute day by day. The complexity of problems and width of information processed before strategists and workers is the obviously great Although the issue on social economy and development is concentrated in some important fields in the past, now the focus is often esthetic, function mode, and apperception about local environment To adapt the development, the three dimension digital representation of city becomes hot issue attracting common attention because of its potential application in management of infrastructure, planning of mobile communication networks, strategy support of city development, emulation of pollution sc
    attering, civil engineering and military supporting. The real three dimension description of city -Three Dimension City Models (3DCM) not only has the reality feeling of traditional VR representation, but also has function of 3D CIS database management and analysis application associated with other social economical information, so it's attention is more and more in the field of city special information.
    Since its appearance and application in 90's of last century, nowadays 3DCM has already been developed in a certain degree. Many researchers study 3DCM in different aspect, and many data providers can supply 3D models of different cities allover the world. 3DCM can be looked as a kind of non-mature archetype of 3DGIS.The current research mainly includes data capture, data model. data management. visualization and spatial analysis model etc., but in the fields of data criterions and standards there is few systemic and mature study. As a kind of special data, criterions and standards is vital to the application and development 3DCM.Lack of study in mis field has become obstacle of development of 3DCM.In different kind of criterions and standards, data content and its representation of detailed levels are important and basic. On one hand it controls the definition of data to data producer and user, on the other hand it controls the data model, visualization, and study in corresponding field.
    The content of this paper mainly includes two aspects: (1) data definition based on different 3DCM application classification, which mainly includes definition of classification data, characteristic of classification application, attribute features of 3DCM object, data content catalog and index of different classification.(2) multiple detailed levels definition of 3DCM, which mainly includes characteristics of multiple detailed levels, adaptive data model to 3DCM representation, feasibility analyst of 3DCM multiple detailed levels based on Recognition By Components(RBC) theory, decomposing and composing of object body cell based on RBC theory, unification of texture data and geometry data in 3DCM, definition of multiple detailed levels in different 3DCM application type.
    (1) data definition based on different 3DCM application classification
    ?Provide application framework of 3DCM. At present the applications of 3DCM in different fields are complex and various. Many application practice proves that data content definition of 3DCM application are based on the direction of application, so lack of 3DCM application classification
    
    
    framework requires data content standard. Traditional classification of 3DCM application are usually depends on function of application, but this classification is random and can't be unified, so different colony have great difference in understanding the detained functions, and the application type are changing ceaselessly. Considering that 3DCM is a kind of data type which pays attention to information communication based on visualization. This paper provides the viewpoint that 3DCM application plann
引文
1.陈述彭 1991 信息流与地图学:陈述彭著,地学的探索:第四卷地理信息系统 北京,科学出版社,1992 p191-202.
    2.陈述彭.2001.城市化与城市地理信息系统.北京:科学出版社。
    3.陈述彭.遥感地学分析的时空维.遥感学报,1997,1(3):161~171.
    4.陈俊勇.面向数字中国建设中国的现代测绘基准.测绘通报,2001(3):1~3.
    5.陈邦柱.加速构建“数字中国地理空间基础框架”全面推进测绘事业持续健康发展.测绘通报,2001(5):1~8.
    6.陈军.1999 试论中国NSDI建设的若干问题.遥感学报,3(2):94~97。
    7.陈军.2002.多维动态地理空间框架数据的构建.地球信息科学,Vol1.
    8.陈军.蒋捷.多维动态GIS的空间数据建模、处理与分析.武测学报,2000,25(3):189~195。
    9.常歌,钱曾波,黄野,2001,城区建筑物三维景观模型建立,中国图像图形学报(A辑),6(A) (6):590-593.
    10.迟伟,朱杰.2003 上海北外滩虚拟城市系统介绍——兼谈虚拟现实硬件系统的选择.城市规划 Vol.27 No.8。
    11.崔伟宏.1996.空间数据结构研究。北京:科学出版社.
    12.戴逢,毛其智,钟家晖.2003.虚拟现实与三维视景技术在规划中的应用——二零零二年全国城市规划虚拟现实和三维视景仿真方案竞赛综述.城市规划 Vol.27 No.8.
    13.高志清.2001.3D MAX精品电脑建筑效果图技法精解,中国水利水电出版杜.
    14.龚建华.1997.地学可视化:理论、方法及其应用.中国科学院地理科学与资源研究所博士后出站报告。
    15.龚建华,2001.虚拟地理环在——在线虚拟.中国科学院地理科学与资源研究所博士后出站报告.
    16.国家测绘局.测绘事业发展第十个五年计划纲要.测绘通报。2001(7):1~6。
    17.黄铎,眭海刚,张叶廷.2004.数码城市GIS及其应用实践.地理信息世界三维GIS专题。
    18.蒋景瞳,刘若梅.国外GIS标准化进展和我国的对策。遥感信息,1996(3):19~22.
    19.李德仁,王伟,龚健雅,朱庆.1999.中国图像图形学报Vol.4(A),No.1。
    20.李德仁,龚健雅,朱欣焰,梁宜希.我国地球空间数据框架的设计思想与技术路线.武测学报,1998,23(4):297~303.
    21.宁津生,陈军.晁定波.数字地球与测绘.北京:清华大学出版社,广州:暨南大学出版社(院士科普书系),2001.
    22.李志林,朱庆.2001.数字高程模型.武汉大学出版社.
    23.李清元,林宗坚,李成明.2000.真三维GIS技术研究的现状与发展,测绘科学.
    24.林宗坚.关于构建数字地球基础框架的思考.测绘通报,1999,(4):2~3。
    25.林宗坚.我国4D产品生产与应用的现状及问题.测绘通报,2001,7~9。
    26.钮心毅.2002.地理信息系统在城市设计中的应用.城市规划汇刊 No.4。
    
    
    27.刘春,2000,GIS的属性数据的精度质量及质量控制的抽样原理及方法,同济大学.
    28.宋小冬.2003.计算机景观仿真技术的实用性、可靠性.城市规划 Vol 27 No.8。
    29.孙敏,马蔼乃,陈军.2002.三维城市模型的研究现状评述.遥感学报 Vol.6 No.2.
    30.阎正主编.1999.城市地理信息系统标准化指南.北京:科学出版社.
    31.阎守邕.2001.国家空间信息基础设施的现状与发展.北京:海洋出版社.
    32.王家耀,陈毓芬,2000,理论地图学.北京:解放军出版社。
    33.王丹.2001.我国城市空间数据和GIS应用的现状.工程勘察 No.1。
    34.王冬滨,王铁军.2000.数字产品的质量检查与质量控制,测绘工程.(1):30-35.
    35.王全科.1999 中国科学院博士论文.
    36.徐冠华,孙枢,陈运泰.吴忠良.迎接数字地球的挑战.遥感学报,1999,3(2):85~89.
    37.赵永平,承继成.地理信息数据描述中元数据标准化的研究。中国标准化,1997(3):6~9。
    38.朱庆,李德仁.龚健雅,熊汉江.2001.数码城市GIS的设计与实现,武汉大学学报(信息科学版),26(1):8-11.
    39.朱庆,高玉荣,危拥军,黄铎,2003.GIS中三维模型的设计.武汉大学学报(信息科学版),28(3):283—287.
    40.朱庆,林珲,2004,数码城市地理信息系统,武汉大学出版社(编印中).
    41. Appleton, K., Lovett, A., 2003, GIS-besed visualisation of rural landscapes: defining 'sufficient'realism for environmental decision-making, Landscape and Urban Planning, 65: 117-131
    42. Arthur P. , Passini R.. 1992. Wayfinding: People, Signs, and Architecture, Toronto: McGraw-Hill Ryerson
    43. Batty M., Dodge M., Jiang B., Smith A.. 1998. GIS and Urban Design. CASA Work Paper. http://www.casa.ucl.ac.uk/urbandesifinal.pdf
    44. Batty M., Dodge M., Jiang B., Smith A., 1999: Geographical information systems and urban design. In Stillwell J., Geertman S. & Openshaw S. (eds), Geographical Information and Planning, Springer, Heidelberg, pp. 43-65.
    45. Batty M., Chapman D., Evans S., Halday M., Küppers S., Shiode N., Smith A., Torrens P.M.. 2001: Visualizing the city: communicating urban design to planners and decision-makers. In: Brail R. & Klosterman R. (eds), Planning Support Systems. ESRI Press and Center Urban Policy Research, Rutgers University Press, New Brunswick, NJ(in print).
    46. Batty M., Smith A., 2002b, Virtuality and cities: Definitions, geographies, designs, In: Peter Fisher and David Unwin (Eds.), Virtual Reality in Geography, 270-291, Taylor & Francis, London.
    47. Beck M.. 2003. Real-Time Visualization of big 3D City Models. International Archives of the Photogrammetry, Remote Sensing and Spatial Information Science. Vol. ⅩⅩⅩⅣ-5/W10
    48. Berry J.K., Buckley D.J., Ulbricht C.. 1998. Visualizing Realistic Landscapes. cover article
    
    for the August 1998 issue of GIS World magazine
    49. Biederman I.. 1987. Recognition by components: a theory of human image understanding.Psychological Review, (94):115-147
    50. Billen R., Zlatanova S.. 2000. 3D Spatial Relationships Model: A Useful Concept for 3D Cadastre?
    51. Billinghurst M., Weghorst, S.. 1995. The use of sketch maps to measure cognitive maps of virtual environments, in Proceedings of IEEE 1995 Virtual Reality Annual International Symposium, IEEE Computer Sodety: Los Alamitos, CA, 40-47.
    52. Binford, T.O. 1981. Inferring Surface from Images. Artifical Intelligence, 17, 205-244
    53. Booth K., Fisher B., Page S., Ware C., Widen S.. 2000. Wayfinding in a Virtual Environment. www.cs.ubc.ca/labs/imager/tr/pdf/booth.200Oa.pdf
    54. Bourdakis, V. 1998a, Utilising Urban Virtual Environments in EuroplA98 Proceedings, europlA productions, Paris.
    55. Bourdakis, V. 1998b. On Developing Standards for the Creation of VR City Models. Modeling & City Planning-15 3D City Modeling
    56. Bourdakis, V. 1996 'From CAAD to VR; Building a VRML model of London's West End' In The Third UK Virtual Reality Special Interest Group Conference; Full Paper Proceedings. De Monffort University, Leicester
    57. Bourdakis, V., Day, A. 1997. AVRML model of Bath in R.Coyne, M.Ramscar, J.Lee & K.Zreik (eds) Design and the Net, europlA Productions, pp.13-22.
    58. Brenner C.. 1999. Interactive Modelling Tools for 3D Building Reconstruction. Photogrammetric Week 99. Wichmann Verlag, Heidelberg
    59. Brenner C., Haala N.. 2001. Automated Reconstruction of 3D City Models, In 3D Synthetic Environment Reconstruction (Edited by: Abdelguerfi M.), Kluwer Academic Publishers, Norwell, pp.75-101.
    60. Burner G. E.. 2002. Introduction to Human Factors. Human Cognition(3): Spatial Cognition and Navigation.
    61. Buttenfield B P, Macanness WA. 1991. Visualisation. In: Maguire D J, Goodchild M F, Rhind D W, ed. Geographical information Systems: Principles and Applications, Longman Scientific and Technical. 427-443
    62. Christou C., Bulthoff H. H.. 2000. Spatial Vision, Vol. 13, No. 2, 3, pp. 265-275
    63. Clark J. H.. 1976. Hierarchical Geometric Models for Visible Surface Algorithms. Communications of the ACM, 19: 547-554, October
    64. Cockbum A., McKenzie B.. Evaluating the Effectiveness of Spatial Memory in 2D and 3D Physical and Virtual Environments. CHI 2002, April 20-25, 2002, Minneapolis, Minnesota, USA.
    65. Colle H.A., Reid G. B.. 1998. The Room Effect: Metric Spatial Knowledge of Local and Separated Regions, Presence: Teleoperators and Virtual Environments, 7 (2): 116-129,
    
    April.
    66. Constantinescu Z.. 2001. Levels of Detail: An Overview. URL: http://www.idi.ntnu.no/~zoran.
    67. Couclelis, H.. 1992. People Manipulate Objects (but Cultivate Fields): Beyond the Raster-Vector Debate in GIS. In: Proceedings, International Conference, GIS-From Space to Territory:. Theories and Methods of Spatio-Temporal Reasoning in Geographic Space, Springer-Verlag, Pisa, Italy, September 21-23, pp. 65-77.
    68. Cox, S., Daisy, P., Lake, R., Portele, C., Whiteside, A., 2003. OpenGIS Geography Markup Language(GML3), Implementation Specification Version 3.00, OGC Doc. No. 02-023r4.
    69. Danahy J..1997. A Set of Visualisation data needs in Urban Environmental Planning and Design for Photogrammetric Data. in: Proceedings of Ascona Workshop'97: Automatic Extraction of Man-Made Objects from Aerial and Space Images, Monte Vedta, Switzerland, pp 357-365
    70. Danahy J.. 1997. Visualization Data Nees in Urban Environmental Planning and Design. courses.washington.edu/udp508/info/downloads/danahy.pdf
    71. Daniel T.C., Michael M. Mo, 2001, Representational Validity of Landscape Visualizations: The Effects of Graphical Realism on Perceived Scenic Beauty of Forest Vistas, Journal of Environmental Psychology, 21: 61-72
    72. Daniel, T.C., Vining, J., 1983, Methodological issues in the assessment of landscape quality. Behavior and the Natural Environment(Altman, I., Wohlwill, J.F., editors), 39-84
    73. Darken R. P.. 1995. Wayfinding in Large-Scale Virtual Worlds. in: Conterenca Companion of ACM CHI'95 pp. 45-46.
    74. Darken R. P., Banker, W.P.. 1998. Navigating in natural er(?) A virtual environment training transfer study, in Proceedings of IEEE 1996 V(?)tual Rea(?)ty Annual International Symposium, IEEE Computer Society: Los Alamitos, CA, 12-19.
    75. Darken R. R., Goerger S. R.. 1999. The Transfer of Strategies from Virtual to Real Environments: An Explanation for Performance Differences? Proceedings of Virtual Worlds and Simulations, pp. 159-164.
    76. Darken R. P., Sibert J. L.. 1993. A toolset for navigation in virtual environments, in Proceedings of UIST'93 (Atlanta GA, Nov. 1993), ACM Press, 158-165.
    77. Darken R.P., Sibert J. L.. 1996. Wayfinding Strategies and Behaviors (?) Large Virtual Worlds. in: in the Proceedings of ACM CHI 96, pp. 142-149.
    78. Darken R.P., Allard T., Achille L. B., 1999, Spatial Orientat ion and Way finding I n Large-Scale Virtual Spaces Presence, Vol. 8, No. 6, December, ⅲ-ⅵ
    79. Delaney B., 2000: Visualization in urban planning: they didn't build LA in a day, IEEE Computer Graphics and Applications, May/June 2000, pp.10-16.
    80. Dickinson S.J., Bergevin R., Biederman I., Eklundh J.-O., Munck-Fairwood R., Jain A.K., Pentland A.. i993. In Proceedings International Joint Conference on Artifcial
    
    Intelligence(IJCAI) Chambery, France. August
    81. Dickinson R.E., 1959: The scope and status of urban geography: an assessment, in Mayer, H.M and Kohn, C.F. eds., Readings in Urban Geography, The University of Chicago Press, Chicago, pp.10-26.
    82. Elvins T.T., Nadeau D.R., Kirsh D., 1995, Worldlets-3D Thumbnails for Wayfinding in Virtual Environments
    83. Ervin, S.M., 2001, Digital landscape modeling and visualization a research agenda, Landscape and Urban Planning, 54: 49-62
    84. FGDC. Developmen to fanational Geo-spatial Data Framework (Report of Federal Geographic Data Committee, U.S.A), 1995.
    85. Forstner W., 1999, 3D-City models: Automatic and semiautomatic acquisition methods, In: Fritsch D. and Spiller R. (Eds.), Photogrammetric Week'99, pp:291-303, Stuttgart, Germany.
    86. Fritsch D., 1999, Virtual citys and landscape models: what has photogrammetry to offer, In: Fritsch D. and Spiller R. (Eds.), Photogrammetric Week'99, pp. 3-14, Stuttgart, Germany.
    87. Fuch, C. 1996. OEEPE Study on 3D City Models, Report of the Institute for Photogrammetry, University of Bonn, October, 45p
    88. Gahegan M. 2000. Visualisation as a Tools for GeoComputaiton. In: Openshaw S, Abrahart R J, eds. GeoComputation.. Taylor & Francis
    89. Gardner, H. 1993, Multiple intelligences: The theory in practice. New York: Basic Books.
    90. Golledge R. G.. 1991. Cognition of Physical and Built Environments." In T. Garling and G W. Evans (eds.), Environment, Cognition and Action: An Integrated Approach, New York: Oxford UP
    91. Gore, Al, The Digital Earth-Understanding Our Planet in the 21 Century, The Australian Surveyor, 1998, 43(2): 89~91.
    92. Gruen A., Wang X.H., 1998, CC Modeler: A topology generator for 3-D city models, ISPRS J. of Photogrammetry and Remote Sensing, 53: 286-295
    93. Hall, R. 1990. Algorithms for Realistic Image Synthesis, Computer Graphics Techniques: Theory and Practice(D.F. Rogers and R.A. Eamshaw, Editors), 189-231
    94. Heipke C., Sester M., Willdch F.. 2001. From 2D to 3D- Establishment and Maintenance of National Core GeoSpatial Databases. Workshop Report from OEEPE
    95. Howard, J.H., Kerst, S.M. 1981. Memoryand perception of cartographic information for familiar and unfamiliar environments. Human Factors, 23(4), 495-504.
    96. ISHIMURA T., YOSHIDA T., KARASUYAMA Y.. 2000. BUILDING WALL SURFACE PATTERNS DATABASE FOR 3D URBAN MAP: A CATEGORIZATION METHOD.www.mickey.ai.kyutech.ac.jp/.../isshi/UM3-2000/release/BuildingWallSurfacePattemsDatabaseFor3DUrbanMap.pdf
    
    
    97. ISO/TC211 19123, 2000, Geographic information-Imagery and gridded data components. Status: Review summary
    98. Jepson W., Friedman S.. 2003. A Real-Time Visualization System for Large Scale Urban Environment. URL: http://www.ust.ucla.edu/~bill/UST.html
    99. Karjalainen, E., Tyrvainen, L., 2002, Visualization in forest landscape preference research: A Finnish perspective, Landscape and Urban Planning, 59: 13-28
    100. Kelty, L., Beckett, P., Zalcman, L. 1999. Desktop Simulation in Advancing Simulation Technology and Training, Proceedings of SimTecT99, The Simulation Technology and Training Conference, Simulation Industry Association of Australia.
    101. Kofler M. 1998. R-tree for Visualizing and Organizing Large 3D GIS Database. Phd Thesis
    102. Kolbe T. H., Grger G., 2003, TOWARDS UNIFIED 3D CITY MODELS, http://www.iuw.uni-vechta.de/personal/geoinf/Jochen/papers/28.pdf.
    103. Kray C., Lakkkso K., Elting C., Coors V.. 2003. Presenting Route Instructions on Mobile Devices. Proceedings of the 8th international conference on Intelligent user interfaces. Miami, Florida, USA ISBN:1-58113-586-6
    104. Lakeoff G, 1987. Women, Fire, and Dangerous Things: What Categories Reveal About the Mind. Chicago: University of Chicago Press
    105. Lange, E. 2001, The limits of realism perceptions of virtual landscapes, Landscape and Urban Planning, 54: 163-182
    106. Lebed, F., Gruber M.. 1996. Modelling a French Village in theAIps, in Proceedings of the 12th Spring Conference, Budmerice, Slovak Republic
    107. Ltoumeau F.. 2002. Different Approaches for the Creation and Exploitation of 3D Urban Models
    108. Li, Zhilin, Openshaw, S. 1993. Anatural principle for objective generalisation of digital map data. Cartography and Geographic Information System, 20(1): 19-29.
    109. Lowry I.S., 1965: A short course in model design, Journal of the American Institute of Planners 31: 158-166. Okunuki K., 2001: Urban analysis with GIS, GeoJournal (in print).
    110. Luebke D., Hallen B.. 2001. Perceptually Driven Simplification for Interactive Rendering. Proceedings of the 12th Eurographics Workshop on Rendering Techniques p:223-234
    111. MacEachren A M, Ganter J H. 1990. A Pattern Identification Approach to Cartographic Visualisation. Cartographica, 27(2): 64-81
    112. Mntyl M., 1988, An Introduction to Solid Modeling, Rockville, Maryland: Computer Science Press.
    113. Mark, D.M. 1997. Cognitive perspectives on spatial and spatio-temporal reasoning. In Craglia, M., and Couclelis, H., Geographic Information Research Bridging the Atlantic, London: Taylor and Francis, pp. 308-319.
    114. Marr, D. 1982. A Computational Approach to Vision. Vision. H. Freeman and Co.
    115. McCormick B H, Defanti TA, Brown M D. 1987. Visualisation in scientific computing. ACM
    
    SIGGRAPH Computer Graphics, special issue, 21(6)
    116. McDonald, T.P., Pellegrino, J.W. 1993. Psychological perspectives on spatial cognition
    117. Moons T., Frere D., Vandekerckhove D., et al, 1998, Automatic modelling and 3d reconstruction of urban house roofs from high resolution aerial imagery, In: Proc. Computer Vision-ECCV'98, Vol. 1, LNCS 1406, pp. 410-426.
    118. Nebiker S.. 1998. GRIDS-AN ARCHITECTURE FOR MANAGING VERY LARGE ORTHOIMAGE MOSAICS IN A DATABASE FRAMEWORKIAPRS, Vol. 32, Part 4 "GIS-Between Visions and Applications", Stuttgart
    119. Nebiker S.. 2002. SUPPORT FOR VISUALISATION AND ANIMATION IN A SCALABLE 3D GIS ENVIRONMENT-MOTIVATION, CONCEPTS AND IMPLEMENTATION. International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences, Vol. ⅩⅩⅩⅣ-5/W10
    120. Nyerges T.L., Mark D.M., Laurini R., Egenhofer M.J.. 1995. Cognitive Aspects of Human-Computer Interaction for Geographic Information Systems. Dordrecht: Kluwer Academic.
    121. Open GIS Consortium. 2001. The OpenGIS~(TM) Abstract Specification Topic 1: Feature Geometry (ISO 19107 Spatial Schema). Version 5
    122. Paré M. 1998. The Visual System: Visual Perception. Psychology, 5th edition by Gleitman et al., Chapter 6
    123. Pfund, M., 2001, Topologic data structure for a 3D GIS, Proceedings of ISPRS, Vol.34, Part 2W2: 233-237, Bangkok, Thailand.
    124. Rakkolainen, I., Timmerheid, J., Vainio, T.. 2000. A 3D City Info for Mobile Users. Proceedings of the 3rd International Workshop in Intelligent Interactive Assistance and Mobile Multimedia Computing (IMC' 2000). November 9-10. Rockstock German, 115-212
    125. Raper J.. 1999. Spatial Representation: the scientist's perspective. In, Paul A. Longley, Michael F. Goodchild, David J. Maguire and David W. Rhind (eds.), Geographical Information Systems: Principles, Techniques, Management and Application. New York: Wiley, pp. 71-80
    126. Raper, J., 2000, Multidimensional Geographic Information Science, Taylor & Francis.
    127. Reddy M.. 1998. Specification and Evaluation of Level of Detail Selection Criteria. Virtual Reality: Research, Development and Application, 3(2):132-143.
    128. Robertson, G.G., Card, S.K. and MacKinlay, J.D. 1993. Nonimmersive Virtual Reality. Computer, 26(2), 81-83.
    129. Robinson A.H., The look of Maps, Madison: University of Wisconsin Press, 1952
    130. Ruddle, R.P., Payne, S.J., Jones, D.M.. 1997. Navigating buildingsin "desk-top" virtual environments: Experimental investigations using extended navigational experience. Journal of Experimental Psychology: Applied, 3, 2, 143-159.
    131. Rushmeiera H., Rogowitza B. E., Piatkob C.. 2000. Perceptual Issues in Substituting
    
    Texture for Geometry: U. RL:www.research.ibm.com/people/h/holly/papers/spie3959.pdf
    132. Schilling A., Zipf A.. 2003. Generation of VRML City Models for Focus Based Tour Animations. www.eml-development.de/english/homes/zipf/Zipf-Schilling-Web3D-2003-final.pdf
    133. Schmid W. A.. 2001. The Emerging Role of Visual Resource Assessment and Visualisation in Landscape Planning in Switzerland. Landscape and Urban Planning 54 213-221
    134. Schmid W. A.. 2002. Spatial Planning with Respect to Aesthetics in Mind. FIG ⅩⅩⅡ International Congress Washington, D.C. USA, April 19-26
    135. Schuurman N.. 2001. Reconciling Social Constructivism and Realism in GIS. Www.acme-journal.org/vol1/schurmann.pdf
    136. Shiode N.. 2001.3D urban models: recent developments in the digital modelling of urban environments in three-dimensions. GeoJournal 52 (3), 263-269.)
    137. Smallman H.S., John M. St., Cowen M. B. Human factors of 3-D perspective displays for command and control 2001
    138. Smallman, H.S., Schiller, E., and Cowen, M.B. (2000b) Track location enhancements for perspective view displays. SPAWAR System Center San Diego, CA. Tech. Rep. 1847.
    139. Smallman, H.S., Schiller, E., and Cowen. M.B. (2000b) Track location enhancements for perspective view displays. SPAWAR System Center San Diego, CA. Tech. Rep. 1847.
    140. Smallman, H.S., Oonk, H.Mo, St. John, M., and Cowen, M.B. 2001. Searching for Tracks Imaged as Symbols or Realistic Icons: A Comparison Between Two Dimensional and Three Dimensional Displays. SPAWAR System Center San Diego, CA. Tech. Rep. 1854.
    141. Smallman, H., St. John, M, Oonk, H. and Cowen, M.Track Recognition Using Two-Dimensional Symbols or Three-Dimensional Realistic Icons. SPAWAR Systems Center Technical Report Number 1815. 2000. www.nosc.mil/sti/publications/pubs/tr/1818.
    142. Smith S. L.. 2002.MULTI-DIMENSIONAL MODELLING FOR THE NATIONAL MAPPING AGENCY. http//www.casa.ucl.ac.uk/working_papers/paper49.pdf
    143. Steck S.D., Mallot Ho A.. 2000. The Role of Global and Local Landmarks in Virtual Environment Navigation, Presence, Vol. 9, No. 1, pp 69-83
    144. Takase Y., Sho N., Sone A., Shimiya K.. 2003. AUTOMATIC GENERATION OF 3D CITY MODELS AND RELATED APPLICATIONS. International Archives of the Photogrammetry, Remote Sensing and Spatial Information Sciences, Vol. ⅩⅩⅩⅣ-5/W10
    145. Tao V. . 2004. Data collection and 3D object reconstruction, Large-scale 3D data integration (Problems and challenges), Bentley International User Conference.
    146. Taylor, H. A., Tversky B.. 1992. Spatial mental models derived from survey and route descriptions. Journal of Memory and Language, 31, 261-292
    147. Teicholz, N. 2000. Shaping Cities: Pixels to Bricks, The New York Times, Technology Circuits, Thursday, December 16, 1999.
    148. Tempfli, K. 1998. Urban 3D Topologic Data and Texture by Digital Photogrammetry. in:
    
    Proceeding of ISPRS. March-April, Tempa, Florida, USA
    149. Tom H., 1994. The Geographic Information System(GIS) Standards Infrastructure. Standards View, p133-142
    150. Tversley, B. (2000). Remembering Spaces. In E. Tulving & F. I. M. Craik (Eds.), The Oxford Handbook of Memory. New York: Oxford University Press
    151. Weinl(?)us F., Devarajan V.. 1997. Texture mapping 3D models of real-world scenes. ACM Compufing Surveys 29(4), pp. 325-365
    152. Varshosaz M.. 2003. True Realistic 3D Models of Buildings in Urban Areas. International Archives of the Photogrammetry, Remote Sensing and Spatial Information Science. Vol. ⅩⅩⅩⅣ-5/W10
    153. Vinson N.G, 1999, Design Guidelines for Landmarks to Support Navigation in Virtual Environments, Proceedings of CHI'99, Pittsburgh, PA.
    154. Waller, D., Hunt, E., Knapp, D.. 1998. The transfer of spatial knowledge in virtual environmerat training. Presence: Teleoperator & Virtual Environments, 7(2), 129-143.
    155. Wolfgang D., Bob M.. 2000. A Working Session on 3-D City Modeling. Modeling & City Planning. P1417-422
    156. Zhou Qiming, Zhang Wenjiang, 2003, A Preliminary Review on 3-dimensional City Model
    157. Zhu Qing, Huang Duo, Yao Xuefeng, Zhang Yeting. 2003. An Oracle-Based Data Management Method for Large Database in CyberCity GIS. Geo-Spatial Information Science Vol6 Issue 4
    158. Zlatano(?) S., Holweg D.. 2003.3D GEO-INFORMATION IN EMERGENCY RESPONCE: A FRAMEWORK
    159. Zoller J., Maltret J.-L., Poutrain K.. 1995. Generation of models: from urban simulation to virtual reality.
    160. Zube, E.H., Sell, J.L., Taylor, J.G, 1982, Landscape perception: Research application and theory, Landscape Urban Planning, 9: p1-33

© 2004-2018 中国地质图书馆版权所有 京ICP备05064691号 京公网安备11010802017129号

地址:北京市海淀区学院路29号 邮编:100083

电话:办公室:(+86 10)66554848;文献借阅、咨询服务、科技查新:66554700