用户名: 密码: 验证码:
基于空间认知的三维地图设计若干问题的研究
详细信息    本馆镜像全文|  推荐本文 |  |   获取CNKI官网全文
摘要
空间认知是认知科学的重大前沿课题之一,空间认知理论是当前对地图学与GIS发展具有重大理论指导价值的理论,地图空间认知是当代地图学的理论核心。目前,空间认知方面的研究还非常有限(高俊,2008),大多数文献的研究对象仍然是二维地图,三维地图的迅猛发展迫切需要三维环境下空间认知理论的指导,因此,本文选择以三维地图为研究对象,对其空间认知规律进行了研究,在此基础上,探讨了三维地图设计的若干问题,主要研究工作如下:
     (1)回顾并总结了国内外有关空间认知的研究历程。分别对国内外每一段时期内的空间认知研究热点和研究进展进行了归纳与分析,强调了空间认知研究的重要性和必要性。相对国外空间认知的研究情况而言,国内对空间认知的研究起步晚,进展快,紧随国际空间认知研究的步伐,并已经取得了一些理论成果,本文对此进行了统计与分类,指出作为一个前沿性的研究课题,空间认知的相关理论还不够完善,相关体系还不够健全,还有待各学科尤其是地理学和心理学领域的专家和学者对此进行进一步的研究。
     (2)概括并分析了国内外三维地图的研究现状。对国内外三维地图的研究内容进行了统计与分类,并对三维地图的应用现状进行了简要介绍,指出三维地图还存在表达手段单一、地图功能不够完善等问题,有待于地图学者的进一步研究,由此说明了本文选题的意义。
     (3)阐述了地图空间认知的相关理论。简要介绍了认知科学及其研究方向、发展趋势,从认知、空间认知、地理空间认知的角度介绍了空间认知的相关理论,分别对它们的概念、研究内容进行了说明,重点对地图空间认知理论的研究目的、研究内容和地图空间认知的基本过程进行了研究。
     (4)研究了三维地图的若干空间认知规律。从传统地图定义的角度解释了三维地图被称之为地图的原因,并从概念、表达内容、设计制作过程、现有表现形式等四个方面对三维地图进行了全面的综述;以网络调查与实地实验相结合的方式,通过对五个调查、实验结果进行分析,对三维地图使用的若干空间认知规律进行了研究;通过对六个方面的调查与实验,对三维地图图面设置影响空间认知的若干规律进行了研究;通过两个实验,着重研究了基于三维地图生成的心象地图特征;提出了三维地图的空间认知模型。
     (5)建立了三维地图的光影模型。阐述了三维地图中光影模型的研究意义,分析了三维地图中光影模型有关的空间认知因素,提出了8条光照与阴影在三维地图中的空间认知功能,在对光照与阴影视觉变量进行详细研究的基础上,提出了光影模型的建立原则;将三维地图中光源类型分为晨昏散射光、日升日落光、正常斜射光、午间顶光4种,在研究其特征的基础上,对光影的色彩随太阳高度肓变化的规律进行了深入地探讨;利用6个公式构建了三维地图的光影模型。
     (6)研究了三维陡崖符号的自动建模问题。从三维地图符号的分类、特点、与二维地图符号的区别、设计原则等四个方面出发,阐述了三维地图符号设计的班论基础,针对三维地形图中某些地貌符号难以建模的问题,以陡崖符号为例,提出了一种基于不规则三角网自动提取陡崖边缘线的方法,根据不同光照条件下的视觉感受规律,建立了陡崖符号的光照模型,并对其数学表达进行了研究;介绍了陡崖符号的自动建模流程,有助于其它类似地貌符号模型的自动建立。
     (7)初步探讨了三维地图注记的配置规则及实现策略。对三维地图注记及其分类进行了说明,统计了几种常见的三维地图注记表现形式;在研究三维地图中注记认知规律的基础上,重点分析了三维注记的视觉变量和影响因素;对三维地图上注记配置的空间认知环境进行了解析;研究了三维地图注记配置遵循的格式塔原则;全面探讨了构成三维地图的点、线、面、体状要素注记的自动配置规则及实现策略;研究了一种基于约束性Delaunay三角网的三维面状要素注记的自动配置方法,并基于ArcEngine和VB.net开发了相应的三维注记自动配置模块,已成功应用于三维地图的自动绘制系统。
Spatial cognition is one of the major topics at the forefront of cognitive science. Spatial cognition theory has the significant theoretical guidance value for the development of Cartography and GIS in current. Map spatial cognition is the core of the modern cartography theory. At present, spatial cognition research is still very limited (Gao Jun,2008), and the research objects of majority literatures about it are 2D map. There have an urgent need of the guidance of spatial cognition theory under 3D environment with the rapid development of 3D map. As a consequence, this paper selects 3D map as the research object, and the spatial cognition rules of it are investigated in here. Based on this, several issues of 3D map design are discussed. The main research works of this paper are as follows:
     (1) This paper reviews and summarizes the research course of spatial cognition at home and abroad. The author induce and analyze the research focus and the research progress on spatial cognition at home and abroad within each period of time respectively, emphasize the importance and necessity of studying on spatial cognition. Compare with the foreign research situation about spatial cognition, it starts relatively late in our country, but it develops swiftly and follows the steps of the international spatial cognition research closely. Now, it has made some theoretical achievements, which are got together and classified in this paper. As a frontier research topic, the correlation theories of spatial cognition are still not perfect and the related systems are also inadequate, they remain to be further investigated by the experts and scholars of various disciplines especially in the field of geography and psychology.
     (2) This paper summarizes and analyzes the current research of 3D map at home and abroad. The author elaborates and classifies the research contents of 3D map, introduces the current application situation of 3D map briefly. This paper points out that it has some problems in 3D map, such as the expression means is unitary and the map function is not perfect and so on. They remain to be further investigated by the cartographer. There shows that the topics of this paper are meaningful.
     (3) The correlation theories of the map spatial cognition are described in this paper. The author introduces the cognitive science and its research direction and development trend briefly, elaborates the correlation theories of the spatial cognition from the following aspects:cognition, spatial cognition and geographic spatial cognition, and explains their concept and the research contents separately. The research purposes and the research contents of the map spatial cognition theory and the basic processes of the map spatial cognition are mainly studied in this paper.
     (4) Several spatial cognition rules of 3D map are studied in this paper. The author explains why 3D map is considered as a kind of map from the perspective of the definition of the traditional map, introduces 3D map in detail from four aspects:the concept, the expression contents, the designing and producing process, the expression forms in existence. Based on combing network questionnaire survey with experiment on the spot, several spatial cognition rules when the user uses 3D map are investigated by analyzing five investigation and experimental results, several rules which the 3D map layout influence the spatial cognition are investigated by the investigations and experiments of six aspects. The characteristics of mental map which is produced based on 3d map are mainly studied by two experiments and a spatial cognition model is represented in this paper.
     (5) The models of light and shadow are established in this paper. The author illustrates the research significance of the light model and the shadow model in 3D map, analyzes their spatial cognition factors. Eight spatial cognition functions of the light and shadow in 3D map are presented. On the basis of studying the visual variables of light and shadow in detail, the author puts forward the principles of building the models of light and shadow. The light sources in 3D map are divided into four types:the dawn-dusk scattered light, the sunrise and sunset light, the normal oblique light and the top light at noon. Based on analyzing their characteristics, the change rules of the color of light and shadow along with the solar altitude are discussed deeply. And the models of light and shadow in 3D map are constructed by six formulas.
     (6) In this paper, the automatic modeling of 3D cliff symbol is explored. The author explains the theoretical basis of 3D symbol design from the following aspects: the classification and the characteristics of 3D map symbol, the differences between 3D map symbol and 2D map symbol, and the design rules of 3D map symbol. In view of some relief symbols are difficult to build the modeling in 3D topographic map, this paper takes cliff symbol as the example, proposes a method to exact the edge lines of cliff based on TIN, sets up an illumination model of cliff symbol according to the visual sensation rules under the different illumination conditions and researches the mathematical expression of it, and introduces the automatic modeling flows of cliff symbol. The study will be helpful to build the modeling of other similar relief symbols automatically.
     (7) The principles of the placement of 3D map label and its implementation strategies are discussed preliminarily in this paper. The author explains the 3D map label and its classification, summarizes some common expression forms of 3D map label. Based on studying the cognition rules of 3D map label, the author mainly analyzes the visual variables and the influencing factors of 3D label. The spatial cognition environment of the label placement of 3D map is parsed. The Gestalt principles which the placement of the 3D map label observes are studied. The automatic placement principles and its implementation strategies of the label of the various features are discussed comprehensively. These features constitute the 3D map, such as the point features, the linear features, the area features and the stereoscopic features. An automatic placement method of the label of the 3D area features based on the constraint Delaunay triangulated network is presented. The related module of the automatic placement of 3D label is developed based on ArcEngine and VB.net. It is applied successfully in the automatic drawing system of 3D map.
引文
1. Aisbett J, Gibbon G. A cognitive model based on representations that are spatial functions[C]. Tenerife,Spain:2005.
    2. Anders K. Level of detail generation of 3d building groups by aggregation and typification[C]. Spain:2005.
    3. Angsusser S, Kumke H.3D visualization of the Watzmann-Massif in Bavaria of Gennany[J]. Journal of Geographical Sciences.2001,11:63-68.
    4. Bandrova T. Cartographic Modelling of the Real World[C]. Sofija:University of Architecture.Civil Engineering and Geodesy,1998.
    5. Bandrova T. Designing of Symbol System for 3D City Maps[C].2001.
    6. Bandrova T. Innovative technology for the creation of 3D maps[J]. Data Science Journal. 2005,4:53-58.
    7. Bannai N, Fisher R B, Agathos A. Multiple color texture map fusion for 3D models[J]. Pattern Recognition Letters.2007,28(6):748-758.
    8. Barrera A, Weitzenfeld A. Bio-inspired Model of Robot Spatial Cognition:Topological Place Recognition and Target Learning[C].2007.
    9. Birn Jeremy.数字绘图的光照与渲染技术[M].北京:清华大学出版社,2008.
    10. Blaut J M, Stea D. Studies in geographic learning[J]. Annals of the Association of American Geographers.1971,61(387-393).
    11. Board C. Maps as models[M]. In Models in Geography, Chorley, Haggett P, London:Methuen,1967,671-725.
    12. Brewer C, Maceachren A, Pickle L, et al. Mapping mortality:Evaluating color schemes for choropleth maps[J]. Annals of the Association of American Geographers.1997,87:411-438.
    13. Brewer C, Olson J. An evaluation of color selections to accommodate map users with color-vision impairments [J]. Annals of the Association of American Geographers.1997,87: 103-134.
    14. Buttenfield B P, Mark D M. Expert systems in cartographic design[M]. Geographic Information Systems:The Microcomputer and Modern Cartography, Taylor D R F, Oxford:Pergamon Press,1990,129-150.
    15. Corbett J, Wade K. Player Perspective:Using Computer Game Engines for 3D Cartography[J]. Cartographica:The International Journal for Geographic Information and Geovisualization.2005,40(3):113-120.
    16. Couclelis H, Gale N. Space and Space[J]. Geografiska Annaler.1986,68:1-12.
    17. Cox C. Anchor effects and the estimation of graducated circles and sqares[J]. The American Cartographer.1976,3:65-74.
    18. Dahinden T. Existing rock representation in topographic maps and their suitability for digital generation[C]. Mt.Hood, Oregon, USA:2002.
    19. Dahinden T. Development and Quality Assessment of Analytical Rock Drawings[C]. Moscow, Russia:2007.
    20. Davis E. The MERCATOR representation of spatial knowledge[C].1983.
    21. Davis E. Representing and Acquiring Geographic Knowledge[M]. Research Notes in Artificial Intelligence, Los Altos:Morgan Kaufman Publishers,1986.
    22. Dent B. Visual organization and thematic map communication[J]. Annals of the Association of American Geographers.1972,62:79-93.
    23. Dibiase D, Maceachren A, Krygier J, et al. Animation and the role of map design in scientific visualization[J]. Cartography and Geographic Information Systems.1992,19(201-214).
    24. Dollner J, Buchholz H. Expressive Virtual 3D City Models[C]. Citeseer,2005.
    25. Dollner J, Buchholz H. Non-Photorealism in 3D Geovirtual Environments[C]. Citeseer,2005.
    26. Dollner J, Hinrichs K. Dynamic 3D maps and their texture-based design[C]. IEEE Computer Society,2000.
    27. Downs R M, Stea D. Image and Environment:Cognitive Mapping and Spatial Behavior[M]. Chicago:Aldine Publishing Co,1973.
    28. Downs R M, Stea D. Maps in Minds:Reflections on Cognitive Mapping[M]. New York: Harper and Row,1977.
    29. Evans G W. Environmental cognition[J]. Psychological Bulletin.1980,88:259-287.
    30. Fimland M, Skogan D. A multi-resolution approach for simplification of an integrated network and terrain model [C]. Citeseer,2000.
    31. Fisher M, Cox A, Zhao L. Using sex differences to link spatial cognition and program comprehension[C]. Citeseer,2006.
    32. Frank A U. Towards a spatial theory[C]. Virginia:1987.215-227.
    33. Freeman H, Ahn J. AUTONAP-An expert systems for automatic name placement[C]. Zurich: 1984.
    34. Freundschuh S M. Map Perception and Cognition[J]. International Encyclopedia of Human Geography.2009:334-338.
    35. Gallardo Arnold.3D灯光技术实用指南[M]. 北京:电子工业出版社,2002.
    36. Gardner H. THE MIND'S NEW SCIENCE,A History of the Cognitive Revolution[M]. New York:Basic Books,1987.
    37. Gilmartin P. Influence of map context on circle perception[J]. Annals of the Association of American Geographers.1981,71:253-258.
    38. Glander T, Dollner J. Abstract representations for interactive visualization of virtual 3D city models[J]. Computers, Environment and Urban Systems.2009,24(1):115-121.
    39. Gokgoz T, Gulgen F. COMPARISON OF TWO METHODS FOR DERIVING SKELETON LINES OF TERRAIN[Z]. Istanbul:2004.
    40. Gold C, Dakowicz M. Terrain modelling based on contours and slopes[C]. Springer Verlag, 2002.
    41. Gold C, Snoeyink J. A one-step crust and skeleton extraction algorithm[J]. Algorithmica. 2001,30(2):144-163.
    42. Golledge R G. Wayfinding Behavior:Cognitive Mapping and Other Processes[M]. Baltimore,MD:The Johns Hopkins Press,1998.
    43. Golledge R G, Stimson R. Spatial Behavior:A Geographic Perspective[M]. New York:The Guilford Press,1997.
    44. Goodchild M F. Geographical information science[J]. International Journal of Geographical Information Systems.1992,6:31-47.
    45. Goodchild M F, Egenhofer M J, Kemp K K, et al. Introduction to the Varenius project[J]. International Journal of Geographical Information Science.1999,13(8):731-745.
    46. Gould P. On Mental Maps[C].1966.
    47. Grasset-Simon C, Damiand G. Generalized Map Pyramid for Multi-level 3D Image Segmentation[J]. Discrete Geometry for Computer Imagery.2006:530-541.
    48. Guercke R, Brenner C. A Framework for the Generalization of 3D City Models[C]. Leibniz Universitat Hannover, Germany:2009.
    49. Gulgen F, Gokgoz T. AUTOMATIC EXTRACTION OF TERRAIN SKELETON LINES FROM DIGITAL ELEVATION MODELS[Z]. Istanbul:2004.
    50. Gulliver F. Orientation of maps[J]. Journal of Geography.1908,7:55-58.
    51. Guo Q S, Wang X Y. The Technique of Relief Shading with Multi-Direction Lights[C]. Durban, South Africa:2003.
    52. Haeberling C. Symbolization in topographic 3D maps:Conceptual aspects for user-oriented design[C].1999.
    53. Haeberling C.3D Map Presentation-A Systematic Evaluation of Important Graphic Aspects[C].2002.
    54. Haeberling C. Highly focussed selected design aspects and graphic variables for 3d mountain maps[C]. Catalonia:ICA,2004.
    55. Haeberling C. Selected design aspects and graphic variables for 3d mountain maps[C]. Catalonia:ICA,2004.
    56. Haeberling C. Cartographic Design Principles for 3D Maps-A Contribution to Cartographic Theory[C].2005.
    57. Haeberling C, B R H, Hurni L. Proposed Cartographic Design Principles for 3D Maps:A Contribution to an Extended Cartographic Theory[J]. Cartographica:The International Journal for Geographic Information and Geovisualization.2008,43(3):175-188.
    58. Haeberling C, Baer H R. Aspects of 3D Map Integration in Interactive School Atlases[C]. 2006.
    59. Hardisty F, Maceachren A, Gahegan M, et al. Cartographic Animation in Three Dimensions: Experimenting with the Scene Graph[C].2001.
    60. Hirtle S C, Jonides J. Evidence of hierarchies in cognitive maps[J]. Memory and Cognition. 1985,13:208-217.
    61. Holyoak K J, Mah W A. Cognitive reference points in judgments of symbolic magnitude[J]. Cognitive Psychology.1982,14:328-352.
    62. Horton F, Reynolds D. Effects of urban structure on individual behavior[J]. Economic Geography.1971,47:36-48.
    63. Hurni L, Haberling C, Kriz K. Mountain Cartography:State-of-the-Art and Current Issues[J]. Proceedings of the 21th ICA-CMC-Session, Durban, South Africa.2003.
    64. Hurni L, Dahinden T, Hutzler E. Digital Cliff Drawing for Topographic Maps:Traditional Representations by Means of New Technologies [J]. Cartographica:The International Journal for Geographic Information and Geovisualization.2001,38(1):55-65.
    65. Hurni L, Jenny B, Dahinden T, et al. Interactive Analytical Shading and Cliff Drawing: Advances in Digital Relief Presentation for Topographic Mountain Maps[C]. Beijing, China: 2001.
    66. Hurni L, Neumann A, Hutzle E. Digital cliff drawing for Topographic Maps[C]. Canada: 1999.
    67. Inatsuka H, Uchino M, Okuda M. Level of Detail Control for Texture on 3D Maps[C].2005.
    68. Jobst M, Dollner J.3D City Model Visualization with Cartography-Oriented Design[C].
    Vienna:2008.
    69. Johns C. Spatial learning:cognitive mapping in abstract virtual environments[C]. ACM New York, NY, USA,2003.
    70. Johns C, Blake E. Cognitive maps in virtual environments:Facilitation of learning through the use of innate spatial abilities[C]. ACM New York, NY, USA,2001.
    71. Keates J S. Understanding Maps,2nd ed[M]. London:Longman,1996.
    72. Kimerling J. Comparison of equal-value gray scales[J]. The American Cartographer.1985,12: 132-142.
    73. Kitchin R. Increasing the integrity of cognitive mapping research:Appraising conceptual schemata environment-behavior interaction[J]. Progress in Human Geography.1996,20: 56-58.
    74. Kitchin R. Cognitive Maps[J]. International Encyclopedia of the Social & Behavioral Sciences.2004:2120-2124.
    75. Klippel A, Richter K F, Barkowsky T, et al. The cognitive reality of schematic maps[J]. Map-based Mobile Services-Theories, Methods and Implementations.2005:57-74.
    76. Kolany A. Cartographic information-a fundamental concept and term in modern cartography[J]. Cartographic Journal.1969,6:47-49.
    77. Kozlowski L, Bryant K. Sense of direction,spatial orientation, and cognitive maps[J]. Journal of Experimental Psychology.1977,3:590-598.
    78. Kuipers B. The cognitive map:could it have been any other way?[M]. Spatial Orientation:Theory,Research,and Application, Pick H L, Jr, Acredolo L P, NewYork:Plenum Press,1983,345-359.
    79. Little J J, Shi P. Structural lines, TINs, and DEMs[J]. Algorithmica.2001,30(2):243-263.
    80. Lloyd R. Learning spatial prototypes [J]. Annals of the Association of American Geographers. 1994,84:418-440.
    81. Lloyd R. Spatial cognition:Geographic environments[M]. Dordrecht:Kluwer Academic Publishers,1997.
    82. Lloyd R, Carbone G.Comparing human and neural network learning of climate categories [J]. Professional Geographer.1995,47:237-250.
    83. Lloyd R, Steinke T. Visual and statistical comparison of choropleth maps [J]. Annals of the Association of American Geographers.1977,67:429-436.
    84. Lloyd R, Yehl S. Orderly maps and map communication[J]. The American Cartographer. 1979,6:149-156.
    85. Lowenthal D. Geography,experience,and imagination:Toward a geographical epistemology[J]. Annals of the Association of American Geographer.1961,51:241-261.
    86. Lynch K. The Image of the City[M]. Cambridge:MA:MIT Press,1960.
    87. Maceachren A M. How Maps Work,Representation Visualization and Design[M]. London: s.n.,1995.
    88. Mallot H A, Basten K. Embodied spatial cognition:Biological and artificial systems[J]. Image and Vision Computing.2009,27(11):1658-1670.
    89. Mark D M. Cognitive and Linguistic Aspects of Geographic Space:Report on a Workshop[R]. Santa Barbara,California:National Center for Geographic Information and Analysis,1988.
    90. Mark D M. Languages of Spatial Relations:Researchable Questions and NCGIA Research Agenda[R]. Santa Barbara,California:National Center for Geographic Information and Analysis,1989.
    91. Mark D M. Cognitive perspectives on spatial and spatio-temporal reasoning[M]. Geographic Information Research Bridging the Atlantic, Craglia M, Couclelis H, London:Taylor and Francis,1997.
    92. Mark D M, Freksa C, Hirtle S C, et al. Cognitive models of geographical space[J]. International Journal of Geographical Information Science.1999,13(8):747-774.
    93. Mark D M, Svorou S, Zubin D. Spatial terms and spatial concepts:Geographic,cognitive,and linguistic perspectives[C]. Virginia:1987.101-112.
    94. Masavi M, Natarajan P, Binello S, et al. Knowledge based extraction of ridge lines from digital terrain elevation data[C].1999.
    95. Mennis J. Representation-Mapping[J]. International Encyclopedia of Human Geography. 2009:357-363.
    96. Mersey J. Colour and thematic map design:The role of colour scheme and map complexity in choropleth map communication [J]. Cartographica.1990,27:1-157.
    97. Mondschein A, Blumenberg E, Taylor B D. Cognitive Mapping, Travel Behavior, and Access to Opportunity [J]. Transportation Research Record:Journal of the Transportation Research Board.2006,1985(-1):266-272.
    98. Montello D R. Cognitive map-design research in the twentieth century:Theoretical and empirical approaches [J]. Cartography and Geographic Information Science.2002,29(3): 283-304.
    99. Montello D R. Cognitive Geography[J]. International Encyclopedia of Human Geography. 2009:160-166.
    100. Moore G, Golledge R. Environmental Knowing:Theories,Research,and Methods[M]. Stroudsburg,PA:Dowden,Hutchinson,and Ross,Inc,1976.
    101. Morganti F, Carassa A, Geminiani G Planning optimal paths:A simple assessment of survey spatial knowledge in virtual environments[J]. Computers in Human Behavior.2007,23(4): 1982-1996.
    102. Muehrcke P. Visual pattern comparison in map reading[J]. Proceedings of the Association of American Geographers.1973,5:190-194.
    103. Munro P, Hirtle S C. An interactive activation model for priming of geographical information[C]. Hillsdale:Erlbaum,1989.
    104. Neisser U. Cognitive psychology[M]. New York:Appleton-Century-Crofts,1967.
    105. Nelson E. Colour detection on bivariate choropleth maps:The visual search process[J]. Cartographica.1995,32:33-43.
    106. O'Keefe J, Nadel L. The Hippocampus as a Cognitive Map[M]. Oxford:Clarendon Press, 1978.
    107. Oxman R. Think-maps:teaching design thinking in design education[J]. Design Studies. 2004,25(1):63-91.
    108. Parush A, Berman D. Navigation and orientation in 3D user interfaces:the impact of navigation aids and landmarks[J]. International Journal of Human-Computer Studies.2004, 61(3):375-395.
    109. Patel K K. Externalizing Virtually Perceived Spatial Cognitive Maps[Z]. Montreal,Canada: 2008.
    110. Patterson T. DEM Manipulation and 3-D Terrain Visualization:Techniques Used by the U.S.
    National Park Service[J]. Cartographica:The International Journal for Geographic Information and Geovisualization.2001,38(1):89-101.
    111. Patton D, Cammack R. An examination of the effects of task type and map complexity on sequenced and static choropleth maps[M]. In Cartographic Design:Theoretical and Practical Perspectives, Wood C, Keller P, London:John Wiley and Sons,1996,237-252.
    112. Peterson M. Interactive and Animated Cartography[M]. Englewood Cliffs,NJ:Prentice Hall,Inc,1995.
    113. Petrovic D. Three-Dimensional Mountain Map[C].2001.
    114. Petrovic D, Mas era P. ANALYSIS OF USER'S RESPONSE ON 3D CARTOGRAPHIC PRESENTATION'S[C].2005.
    115. Piaget J, Inhelder B. The Child's Conception of Space[M]. London:Routledge and Kegan Paul,1956.
    116. Pouderoux J, Gonzato J, Guitton P, et al. A software for reconstructing 3D-terrains from scanned maps [C]. Los Angeles, California:ACM,2004.
    117. Pronobis A, Sjoo K, Aydemir A, et al. A Framework for Robust Cognitive Spatial Mapping[C]. Munich, Germany:IEEE Computer Society,445 Hoes Lane-P.O.Box 1331, Piscataway, NJ 08855-1331, United States,2009.
    118. Quaiser-Pohl C, Lehmann W, Eid M. The relationship between spatial abilities and representations of large-scale space in children-a structural equation modeling analysis [J]. Personality and Individual Differences.2004,36(1):95-107.
    119. Reddy M, Iverson L, Leclerc Y, et al. GeoVRML:Open Web-based 3D Cartography[C]. 2001.
    120. Robinson A H. The Look of Maps[M]. Madison,WI:The University of Wisconsin Press, 1952.
    121. Robinson A H, Petchenik B. The Nature of Maps[M]. Madison,WI:The University of Wisconsin Press,1976.
    122. Robinson V B, Blaze M, Thongs D. Natural language concepts in geographic data processing systems[C]. London,UK:1985.
    123. Robinson V B, Blaze M, Thongs D. Man-machine interaction for acquisition of spaital relations as natural language concepts [J]. Geographic Information Systems in Government. 1986,1(2):433-454.
    124. Robinson V B, Blaze M, Thongs D. Representation and acquisition of a natural language relation for spatial information retrieval[C]. Seattle,Washington:1986.472-487.
    125. Rushton G Analysis of spatial behavior by revealed space preference[J]. Annals of the Association of American Geographers.1969,59:391-400.
    126. Scherer M. The cognition of geographic space and cognitive mapping in disabled persons[J]. Cognitive Processing.2006,7(Supplement 1).
    127. Schmidt J, Wong C K, Yeap W K. Spatial Information Extraction for Cognitive Mapping with a Mobile Robot[C]. Melbourne, Australia:Springer Verlag, Tiergartenstrasse 17, Heidelberg, D-69121, Germany,2007.
    128. Schultheis H, Barkowsky T, Kuipers B, et al. Control Mechanisms for Spatial Knowledge Processing in Cognitive/Intelligent Systems[C]. Stanford, CA, United states:American Association for Artificial Intelligence,445 Burgess Drive, Menlo Park, CA 94025-3496, United States,2007.
    129. Sharlin E, Watson B, Sutphen S, et al. A tangible user interface for assessing cognitive mapping ability[J]. International Journal of Human-Computer Studies.2009,67(3):269-278.
    130. Sheppard D, Adams J M. A survey of drivers' opinions on maps for route finding[J]. The Cartographic Journal.1971,8:105-114.
    131. Shin B S, Jung H S. Fast Reconstruction of 3D Terrain Model from Contour Lines on 2D Maps[C]. Springer-Verlag New York Inc,2004.
    132. Slocum T, Egbert S. Knowledge acquisition from choropleth maps [J]. Cartography and Geographic Information Systems.1993,20:83-95.
    133. Smith T R, Peuquet D, Menon S, et al. KBGIS-II:a knowledge-based geographical information system[J]. International Journal of Geographic Information Systems.1987,1: 149-172.
    134. Stevens A, Coupe P. Distortions in judged spatial relations[J]. Cognitive Psychology.1978, 10:422-437.
    135. Sung-Soo K, Jong-Hyun P. Space-efficient terrain rendering using constrained Delaunay triangulation[C].2002.
    136. Talmy L. How language structures space[M]. Spatial Orientation:Theory,Research and Application, Pick H L, Acredolo L P, New York:Plenum,1983,225-282.
    137.Thiemann F. Generalization of 3D building data[J]. INTERNATIONAL ARCHIVES OF PHOTOGRAMMETRY REMOTE SENSING AND SPATIAL INFORMATION SCIENCES. 2002,34(4):286-290.
    138. Thomas R, Donikian S. A spatial cognitive map and a human-like memory model dedicated to pedestrian navigation in virtual urban environments[J]. Lecture Notes in Computer Science. 2007,4387:421.
    139. Thorndyke P W, Hayes-Roth B. Differences in spatial knowledge acquired from maps and navigation[J]. Cognitive Psychology.1982,14:560-589.
    140. Tolman E C. Cognitive maps in rats and men[M]. Psychological Review,1948:55,189-208.
    141.Trowbridge C C. On fundamental methods of orientation and imaginary maps[J]. Science. 1913,38:888-897.
    142. Tversky B. Distortions in memory for maps[J]. Cognitive Psychology.1981,13:407-433.
    143. Tversky B, Kitchin R, Freundschuh S. Cognitive Mapping:Past, Present and Future[J].2000.
    144. Ueno S, Inatsuka H, Uchino M, et al. TEXTURE CLASSIFICATION AND RESOLUTION CONTROL FOR 3D URBAN MAP[J].2008.
    145. Ulusoy I, Halici U, Leblebicioglu K.3D Cognitive Map Construction by Active Stereo Vision in a Virtual World[J]. Lecture notes in computer science.2004:400-409.
    146. Uttal D H. ARTICLE WITH PEER COMMENTARIES AND RESPONSE Seeing the big picture:map use and the development of spatial cognition[J]. Developmental Science.2000, 3(3):247-286.
    147. Vasudevan S, Gdchter S, Nguyen V, et al. Cognitive maps for mobile robots—an object based approach[J]. Robotics and Autonomous Systems.2007,55(5):359-371.
    148. Wender K F. Connecting analog and verbal representations for spatial relations[C]. Atlanta: Georgia,1989.
    149. Wolpert J. The decision process in a spatial context[J]. Annals of the Association of American Geographers.1964,54:537-558.
    150. Wyeth G, Milford M. Spatial cognition for robots:Robot navigation from biological
    inspiration[J]. IEEE Robotics and Automation Magazine.2009,16(3):24-32.
    151. Yang N, Guo Q, Shen D. Automatic modeling of cliff symbol in 3D topographic map[C]. 2009.
    152. Yeap W K. Towards a computational theory of cognitive maps[J]. Artificial Intelligence. 1988,34:297-360.
    153. Yeap W K. From spatial perception to cognitive mapping-how is the flow of information controlled[C]. Stanford, CA, United states:American Association for Artificial Intelligence, 445 Burgess Drive, Menlo Park, CA 94025-3496, United States,2007.
    154. Zaksek K, Podobnikar T. AN EFFECTIVE DEM GENERALIZATION WITH BASIC GIS OPERATIONS[C].2005.
    155.艾廷华.适宜空间认知结果表达的地图形式[J].遥感学报.2008(02).
    156.安敏,张春玲.中国古代地图的数学基础与地理空间维度认知[J].测绘科学技术学报.2007,24(增刊).
    157.安敏,张国生,陶大欣.地图空间关系认知元素分析[J].测绘科学技术学报.2006(06).
    158.白凯,孙天宇,郑鹏.基于认知地图的旅游者决策影响因素分析——以西安入境旅游者为例[J].资源科学.2008(02).
    159.曹纯贫.数字地貌晕渲中若干参数的设置[J].测绘通报.2003(5):17-19,37页.
    160.陈福明,王群.一种面向空间认知的RT模型[J].微电子学与计算机.2008(10).
    161.陈晶.儿童空间认知的发展及其对教育的启示[J].辽宁教育行政学院学报.2008(09).
    162.陈述彭.地理信息系统的应用基础研究[J].地球信息.1997(04).
    163.陈毓芬.心象地图及其在地图设计中的作用[J].解放军测绘学院学报.1995(04).
    164.陈毓芬.地图空间认知理论的研究[D].郑州:中国人民解放军信息工程大学,2000.
    165.陈毓芬.电子地图的空间认知研究[J].地理科学进展.2001,20(增刊).
    166.陈毓芬,叶向平.地图-空间认知的重要工具[J].军事测绘.1996(1).
    167.程杰铭,陈夏洁,顾凯.色彩学[M].北京:科学出版社,2006.
    168.大内節子,山田悟史,大内宏友.教育环境与儿童空间认知的城镇空间组成研究(英文)[J].华南理工大学学报(自然科学版).2007.
    169.范怀超,罗明云.行星地球概论[M].成都:电子科技大学出版社,2006.
    170.丰江帆,刘洪涛,滕学伟.基于空间认知的环境信息系统研究[J].资源开发与市场.2008(08).
    171.高俊.地图的空间认知与认知地图学[C].地图出版社,1991.
    172.高俊.地图设计专家系统的空间认知基础[C].1993.
    173.高俊.作战空间认知的新手段—“虚拟现实”与测绘保障[J].军事测绘.1994(4).
    174.高俊.数字化时代地图学的诠释[J].地图.2003(3):5.
    175.高俊.地图学四面体——数字化时代地图学的诠释[J].测绘学报.2004,33(1):6-11.
    176.高俊.换一个视角看地图[J].测绘通报.2009(01).
    177.高俊,龚建华,鲁学军,等.地理信息科学的空间认知研究(专栏引言)[J].遥感学报.2008(02).
    178.高俊,万刚.空间认知的新窗口——地理虚拟空间十年回顾[J].测绘文摘.2003(01).
    179.高玉荣,朱庆,应申,等.GIS中三维模型的视觉变量[J].测绘科学.2005(03).
    180.葛磊,武芳,钱海忠.基于空间认知的三维地理信息系统研究[J].测绘科学.2007(02).
    181.葛文,熊自明,郭建忠.虚拟地形环境中的空间认知问题初探[J].测绘与空间地理信息.2008,31(4):110-113.
    182.龚迪琛,卢延诗.基于ObjectArx开发等高线地形图三维立体化的研究[J].中国测试技
    术.2003(05).
    183.郭礼珍,李霖,何宗宜.分区统计地图上符号的视觉搜寻和认知工效研究[J].武汉大学学报(信息科学版).2002(06).
    184.郭娜,丁姣,白文莉.空间认知的现实应用和构成设想[J].科技创新导报.2009(1):203.
    185.郭庆胜.现代地图学理论的回顾与分析[J].地图.1998(02).
    186.郭庆胜,黄远林,郑春燕,等.空间推理与渐进式地图综合[M].武汉:武汉大学出版社,2007.
    187.郭庆胜,任晓燕.智能化地理信息处理[M].武汉:武汉大学出版社,2003.
    188.郭庆胜,王晓延.地貌晕渲中光源使用方法与用色规则的研究[J].武汉大学学报(信息科学版).2004(01).
    189.国家测绘局,国家测绘局测绘标准化研究所,中国标准出版社.测绘标准汇编—地图制图及印刷卷[M].北京:中国标准出版社,2003.
    190.何宗宜,刘祥,魏秀琴.基于DEM的彩色地貌晕渲的制作[J].测绘科学.2006(06).
    191.胡鹏,黄杏元,华一新.地理信息系统教程[M].武汉:武汉大学出版社,2002.
    192.胡卫明,吴兵,刘崴.大幅面地图的三维地形重建[J].自动化学报.2002(01).
    193.江斌.空间和空间认知:略谈空间信息理论的形成[J].地图.1998(03).
    194.江文萍,奚大平.3维地图模型的若干研究[J].测绘通报.2007(1):36-39.
    195.姜虹.认知科学的兴起及其发展路径[J].学术交流.2009(09).
    196.蒋秉川,夏青,岳利群,等.基于三维地图视觉变量理论的三维符号设计[J].测绘科学.2009,34(6):159-161.
    197.蒋志杰,张捷,韩国圣,等.旅游者认知地图研究综述[J].旅游学刊.2009(01).
    198.考夫卡库尔特.格式塔心理学原理[M].杭州:浙江教育出版社,1998.
    199.况代智,李兵.基于GIS的城市小区三维仿真模型的设计[J].北京测绘.2008(01).
    200.劳伦斯,胡茨拉,等.交互式解析地形晕渲及悬崖标注[J].林业调查规划.2002,27(3):71-76.
    201.李吉英,董立峰.基于IMAGIS的滨州学院三维电子地图设计与实现[J].商场现代化.2009(13).
    202.李景文,刘军锋,周文婷,等.基于地理认知的空间数据模型描述方法[J].工程勘察.2009(01).
    203.李俊,王立小,王亮.定向运动员空间认知特征分析[J].体育世界(学术版).2007(09).
    204.李蕾蕾.旅游目的地形象的空间认知过程与规律[J].地理科学.2000(06).
    205.李纳璺,陈金龙,阮方舟.三维校园电子地图[J].电脑编程技巧与维护.2009(13).
    206.李清泉,杨必胜,史文中,等.三维空间数据的实时获取、建模与可视化[M].武汉:武汉大学出版社,2003.
    207.李少梅,孙群,阚映红.计算机地貌晕渲的方法和实践[J].测绘学院学报.2002(01).
    208.李文馥,樊文梅,王贞琳,等.4—9岁儿童空间图形认知发展研究[J].心理发展与教育.1997(04).
    209.李文馥,刘范.5—13岁儿童空间认知发展的研究——判别相等面积的再探[J].心理学报.1983(01).
    210.梁宁建.当代认知心理学[M].上海:上海教育出版社,2003.
    211.廖克.地学信息图谱的探讨与展望[J].地球信息科学.2002(01).
    212.廖克.现代地图学的最新进展与新世纪的展望[J].测绘科学.2004,29(1):5-9.
    213.林玉莲.认知地图研究及其应用[J].新建筑.1991(3):34-38.
    214.林玉莲.校园认知地图比较研究[J].新建筑.1992(1):39-44.
    215.林玉莲.东湖风景区认知地图研究[J].新建筑.1995(01).
    216.凌云,陈毓芬,王英杰.基于用户认知特征的地图可视化系统自适应用户界面研究[J].测绘学报.2005(03).
    217.刘芳,王光霞,钱海忠,等.虚拟地理环境对空间认知方式的影响[J].测绘科学.2009(04).
    218.刘芳,姚东泳,侯璇,等.在线地图的空间认知研究[J].测绘科学.2009,34(5):42-44.
    219.刘剑,吴念阳,刘慧敏.儿童空间认知中参考框架的实验研究[J].现代中小学教育.2008(7):53-56.
    220.刘丽虹,张积家,王惠萍.习惯的空间术语对空间认知的影响[J].心理学报.2005(04):469--475.
    221.刘儒德,程铁刚,牟书.电子地图导航中用户空间定向认知过程机制的研究[J].心理与行为研究.2007(03).
    222.刘岳.现代地图学发展的主要特征和今后方向[J].中国测绘.2002(1):39-42.
    223.刘岳.我国电子地图研制的实践及其发展方向[J].地球信息科学.2005,7(2):17-22.
    224.刘召芹,谢彩香,林宗坚,等.空间认知对等导航电子地图的简化探讨[J].地理与地理信息科学.2006(04).
    225.流明.空间认知知多少?[J].百科知识.2006(08).
    226.鲁学军.地理学认知理论与地理专家决策模型研究[D].北京:北京大学,1996.
    227.鲁学军.空间认知模式研究[J].地理信息世界.2004,2(6):9-13.
    228.鲁学军,承继成.地理认知理论内涵分析[J].地理学报.1998(02).
    229.鲁学军,秦承志,张洪岩,等.空间认知模式及其应用[J].遥感学报.2005(03).
    230.鲁学军,周成虎,龚建华.论地理空间形象思维——空间意象的发展[J].地理学报.1999(05).
    231.栾晓岩,孙群.基于认知的专题地图符号研究与实现[J].测绘科学.2007(06).
    232.栾晓岩,孙群,魏代永.专题地图制作中的认知表达[J].测绘通报.2007(04).
    233.马进,胡文东,王家同,等.疲劳对战士三维空间认知能力的影响[J].中国临床康复.2004,8(31):6864-6865.
    234.马荣华,黄杏元.GIS认知与数据组织研究初步[J].武汉大学学报(信息科学版).2005(06).
    235.马耀峰,李君轶.旅游者地理空间认知模式研究[J].遥感学报.2008(02).
    236.苗蕾,李霖.空间认知与现代技术的结合——地理空间数据的可视化[J].测绘工程.2004(02).
    237.倪旭东,张钢.作为思想挖掘工具的认知地图及其应用[J].科研管理.2008(04).
    238.宁津生,李德仁,祝国瑞,等.中国测绘学科2001年进展综述[J].测绘科学.2002,27(4):7-12.
    239.宁永香,刘召芹,谢彩香.基于空间认知理论的移动导航电子地图设计[J].测绘工程.2007(02).
    240.齐清文.现代地图学的前沿问题[J].地球信息科学.2000(01).
    241.齐振海,蔡坚.中西古代空间认知观的对比研究[J].重庆大学学报(社会科学版).2007(06).
    242.秦建新,张青年,王全科,等.地图可视化研究[J].地理研究.2000(01).
    243.秦宇,张晶,张洁,等.基于空间认知的北京定位导航系统的设计与实现[J].首都师范大学学报(自然科学版).2008(02).
    244.秦宇,张晶,张洁,等.空间认知在北京定位导航系统中的应用研究[J].地理空间信息.2008(06).
    245.申思,薛露露,刘瑜.基于手绘草图的北京居民认知地图变形及因素分析[J].地理学报.2008(06).
    246.施祖辉.地貌晕渲法[M].北京:测绘出版社,1983.
    247.石培基,颉斌斌,邴广路.基于地理空间认知规律的旅游形象设计——以黄河沿岸甘肃段为例[J].地域研究与开发.2008(06).
    248.石玉华,康贵祥,白建荣.基于ERDAS的三维地形景观图制作——以甘肃省敦煌市鸣沙山地形为例[J].遥感技术与应用.2004(05).
    249.宋磊,韩端锋,杨卓懿.基于等高线地图的3维地形构建与可视化研究[J].测绘与空间地理信息.2009(03).
    250.孙家广.计算机图形学[M].北京:清华大学出版社,1995.
    251.孙璐,马颖,刘电芝.儿童视空间表象能力发展研究综述[J].重庆文理学院学报:社会科学版.2006,5(5):95-99.
    252.汤众.复杂空间认知研究中的虚拟现实技术应用[J].实验室研究与探索.2007(09).
    253.唐师容,何瑜.学龄儿童空间认知能力研究概述[J].科教文汇.2009(3):56,69页.
    254.唐中实,王淑伟,尹平,等.基于GML3.0与Direct3D的三维地形可视化研究与实现[J].测绘科学.2006(01).
    255.田学红,方格.国外有关儿童对地图表征的认知发展研究[J].心理学动态.2000(02).
    256.田学岭.心理学导论[M].北京:中国科学技术出版社,2001.
    257.田中,戴洪萍.4-7岁儿童空间认知和推理能力的测试研究[J].数学教育学报.2007,16(4):3541.
    258.万刚,高俊,刘颖真.基于阅读实验方法的认知地图形成研究[J].遥感学报.2008(02).
    259.万刚,高俊,游雄.虚拟地形环境仿真中的若干空间认知问题[J].测绘科学.2005(02).
    260.万江波,邹逸江.空间数据仓库元数据的认知过程[J].测绘科学.2008(01).
    261.王海滨,冷晟.军用地图3维可视化技术的研究与实现[J].测绘与空间地理信息.2006(02).
    262.王慧谟.移动地图及其空间认知特征分析[J].测绘科学与工程.2006,26(4):25-28.
    263.王慧谟,张瑜.移动地图应用模式及其空间认知功能研究[J].测绘科学.2007(06).
    264.王家耀.地图学的回顾与展望[C].1999.
    265.王家耀.现代地图科学与地理信息工程科学技术的成就和任务[J].测绘学院学报.2004,21(4):235-240.
    266.王家耀.我国地图制图学与地理信息工程学科发展研究[J].测绘通报.2007(5):1-6.
    267.王家耀,陈毓芬.理论地图学[M].北京:解放军出版社,2000:35-66.
    268.王家耀,陈毓芬.关于地图学现代科学体系的思考[N].中国测绘报.
    269.王家耀,陈毓芬.人类空间认知的主要手段——地图[N].中国测绘报.
    270.王茂军,柴彦威,高宜程.认知地图空间分析的地理学研究进展[J].人文地理.2007,22(5):10-18.
    271.王明常,邢立新,潘军,等.地质公园三维电子地图的设计与实现[J].物探化探计算技术.2006(02).
    272.王锐君,王秀梅.地图空间认知论在地图设计中的应用[J].甘肃科技.2009,25(14):25-27.
    273.王雯,王国强.虚拟现实技术在空间认知心理学研究中的发展与应用现状[J].新西部(下半月).2008(08).
    274.王小东,雷斌,孙婷婷.基于ArcGIS的三维道路交通地图符号库的设计[J].华北水利水电学院学报.2009(04).
    275.王晓明,刘瑜,张晶.地理空间认知综述[J].地理与地理信息科学.2005(06).
    276.王晓延,郭庆胜.基于DEM的地貌晕渲表达方法探讨[J].测绘通报.2003(8):48-50,54页.
    277.王琰,李志民.认知地图在城市总体环境研究中的应用——以西安市为例[J].华中建筑.2009(05).
    278.危拥军.三维地图符号理论与方法的研究[D].中国人民解放军信息工程大学,2000.
    279.危拥军,陈广学.三维地图符号的应用前景[J].解放军测绘研究所学报.2000,20(3):44-48.
    280.危拥军,吉国杰,侯溯源.3维符号的设计与建模[J].测绘通报.2005(09).
    281.危拥军,王家耀,陈广学,等.3维地图符号的数据结构研究[J].测绘学院学报.2004,21(3):231-234.
    282.邬伦,王晓明,高勇,等.基于地理认知的GIS数据元模型研究[J].遥感学报.2005(05).
    283.吴樊,俞连笙.基于DEM的地貌晕渲图的制作[J].测绘信息与工程.2003(01).
    284.吴金华,祝国瑞.空间数据仓库的认知过程[J].地球科学与环境学报.2004(04).
    285.吴增红,陈毓芬.地图学新产品与人类空间认知能力变革[J].北京测绘.2008(4).
    286.席嘉,黄余明.地图可视化现代地图学的热点[J].中国测绘.2004(05).
    287.夏红霞,刘春燕,邹承明,等.基于Direct3D的虚拟三维场景漫游系统实现[J].科技信息(科学教研).2007(19).
    288.夏铸久,叶庭芬.台北地区都市意象之研究[J].建筑与城乡研究学报.1981(1):49-102.
    289.谢文君,倪绍祥,王长森,等.儿童的地图认知能力研究[J].测绘通报.2001(12).
    290.徐青.地形三维可视化技术[M].北京:测绘出版社,2003.
    291.徐希景.实用摄影学[M].北京:中国摄影出版社,2005.
    292.徐占华,陈晓玲,李毓湘.基于ArcGIS与ERDAS IMAGINE的三维地形可视化[J].测绘信息与工程.2005(01).
    293.徐智勇,艾廷华,危拥军,等.三维地图符号视觉参量研究[J].武汉大学学报(信息科学版).2006(06).
    294.许敏,刘宁,丛凤波.三维符号构成及建模方法研究[J].海洋测绘.2006(02).
    295.薛露露,申思,刘瑜,等.认知地图两种外部化方法的比较——以北京市为例[J].北京大学学报(自然科学版).2008(03).
    296.杨孟萍,石德澄.空间认知能力的测验研究[J].心理发展与教育.1990(04).
    297.杨敏.基于认知地图的中国国际游客旅游空间认知研究[J].云南地理环境研究.2009(03).
    298.杨乃,郭庆胜,杨族桥.3维面状要素注记的自动配置研究[J].测绘科学技术学报.2009,26(6):449-453.
    299.杨乃,朱晓东,杨斌,等.基于ArcEngine的三维地形图自动绘制系统的实现[J].地理空间信息.2009(04).
    300.袁建锋,崔铁军,姚慧敏.基于空间认知的虚拟地形环境构建研究[J].测绘与空间地理信息.2008(04).
    301.袁勘省,张荣群,王英杰,等.现代地图与地图学概念认知及学科体系探讨[J].地球信息科学.2007,9(4):100-108.
    302.翟有龙,鲁廷辉.地理认知中的思维媒介[J].西华师范大学学报(哲学社会科学版).2008(01).
    303.张本昀,于甦新,陈常优.地理研究者的地图空间认知过程[J].地域研究与开发.2006(06).
    304.张本昀,朱俊阁,王家耀.基于地图的地理空间认知过程研究[J].河南大学学报(自然科学版).2007(05).
    305.张传信,朱体高,刘勇.三维道路交通地图符号库的研究[J].地理空间信息.2009(03).
    306.张海堂,罗睿,郭建星.移动服务中的空间信息传输与认知模型研究[J].测绘信息与工程.2006(01).
    307.张积家,刘丽虹.习惯空间术语对空间认知的影响再探[J].心理科学.2007,30(2):359-361,386页.
    308.张积家,谢书书,和秀梅.语言和文化对空间认知的影响——汉族和纳西族大学生空间词相似性分类的比较研究[J].心理学报.2008,40(7):774-787.
    309.张明鑫,魏海平,王峰,等.空间认知理论在地理信息系统中的应用研究[J].地域研究与开发.2007(01).
    310.张伟,张婷.情绪状态对数字和空间认知任务的影响[J].北京教育学院学报:自然科学版.2008(2):10-13.
    311.张文君,王卫红.基于Imagis的三维景观模型的建立[J].四川测绘.2003(02).
    312.张亚生.怎样运用自然光[M].上海:上海人民美术出版社,1981.
    313.赵军喜,陈毓芬.认知地图及其在地图制图中应用[J].地图.1998(02).
    314.赵南元.认知科学揭秘[M].北京:清华大学出版社,2002.
    315.中国测绘学会地图学与gis专业委员会.地图学与地理信息系统的现状与趋势[J].测绘通报.1997(6):26-31.
    316.中国科学院地理科学与资源研究所,刘岳.现代地图学发展的主要特征[N].中国测绘报,(39-42).
    317.中国科学院心理研究所战略发展研究小组.认知科学的现状与发展趋势[J].中国科学院院刊.2001,16(3):168-171.
    318.钟家杰.心象地图在制图传输中的作用[J].解放军测绘学院学报.1989(01).
    319.钟业勋,朱重光,魏文展.地图空间认知的数学原理[J].测绘科学.2005(05).
    320.周江霞,张景斌,周珍.认知方式与空间认知能力的关系研究评述[J].数学教育学报.2007,16(3):68-71.
    321.朱杰,夏青.基于虚拟地理环境的空间认知分析[J].测绘科学.2008,33(增刊).
    322.朱庆,高玉荣,危拥军,等.GIS中三维模型的设计[J].武汉大学学报(信息科学版).2003(03).
    323.祝国瑞.地图学[M].武汉:武汉大学出版社,2004.
    324.邹逸江.空间数据仓库的概念框架和认知过程[J].计算机应用研究.2007(05).

© 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