视觉表象认知加工系统的训练效应研究
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摘要
视觉表象能力被视为空间智能的核心,它的非逻辑性与知觉特性在创造性思维中有着重要作用:视觉表象的功能和性质在很大程度上制约着人类空间智能的水平,同时也制约着智能的发展水平。视觉表象认知加工是一种高级的空间认知加工过程,这种高级的认知加工过程与大脑的特异性功能相关。从行为可塑性和大脑可塑性两个角度阐明视觉认知功能可塑性水平对于提高特殊职业人员选拔的预测准确性以及各种脑功能障碍临床康复训练的针对性和有效性具有重要的意义。在Kosslyn的高水平视觉加工子系统理论的基础上,本研究以行为实验、结构方程建模及ERP技术为手段探讨视觉表象加工子系统的训练效应及其脑机制,并建立起相关认知过程的行为实验模型、结构方程模型和脑电活动模型,为认知神经科学的研究提供有益的补充和参考。
     根据Kosslyn的高水平视觉认知加工子系统理论和人类行为与脑机制的可塑性理论来理解和描述各种典型空间认知加工任务的特性。通过一系列规范的认知实验对视觉表象加工子系统及结合的可塑性水平做出详尽分析,并应用结构方程建模技术建立视觉表象认知加工系统的验证性模型;同时从认知神经科学的角度出发,运用ERP技术探讨个体表象加工的脑电活动模式,并从脑功能可塑性和稳定性水平上探讨不同视觉空间表象任务所表现出的特异性和共同性。
     本研究采用表象旋转、表象扫描、数量和类别空间关系判断作为研究视觉表象加工子系统特性的主要认知任务。在国际研究领域,这四种表象加工过程是研究高水平视觉空间加工的核心要素,而且在已有研究中已经证明,这四种表象加工分属于四种表象加工子系统。围绕这四种视觉表象加工子系统,我们对实验条件进行精确控制,并记录其完成视觉表象作业时的行为反应数据和事件相关电位。
     本研究由四个部分组成:
     (1)视觉表象加工子系统训练效应的行为研究;
     (2)视觉表象加工子系统的整合及其训练效应的行为研究;
     (3)视觉表象加工系统的结构方程建模;
     (4)视觉表象加工子系统训练效应的ERP研究。
     综合实验结果以及相关讨论,本研究得出以下结论:
     1、表象旋转、表象扫描、类别和数量空间关系四种表象加工机制既相互区别又相互联系。它们之间的相互区别证明其加工过程涉及独特的加工子系统,而它们之间的联系则导致在多任务加工中彼此相互影响。这样的结果说明在这四种表象加工过程中,具有相同的基础性加工子系统,也有其各自特殊的加工机制。当加工过程中的资源调用发生冲突时,仍然具有优先加工简单任务的特点。
     2、表象旋转、表象扫描、类别和数量空间关系四种表象加工在短期训练后均表现出了显著的训练效应。这样的结果似乎与以往研究的结果相悖,但是我们的研究主要针对于被试在短时期内四种表象加工任务的变化特点,而以往研究的是建立在假设特殊群体是经过长期的系统训练的,其表现出的是表象加工在长期条件下的训练效应。因此并不能简单的说我们的研究结果与以往研究是完全相反的,只是对两种不同条件下的表象加工训练效应特点的揭示而已。
     3、表象旋转、表象扫描、类别和数量空间关系四种表象加工仍表现出了其特有的稳定性特点。我们的研究虽然揭示的是四种表象加工在短期训练后的变化特点,但是在一定程度上仍然体现出了四种表象加工的稳定性特点:表象旋转和数量空间关系判断这两种加工更容易受训练的影响,表现为不同训练程度之间差异仍然是显著的;而表象扫描和类别空间关系判断这两种加工就相对稳定一些,表现为训练引起的成绩提高可能需要更长的时间。
     4、表象旋转、表象扫描、类别和数量空间关系四种表象能力在整体表象能力中占有不同的比重。表象扫描所占比重最大,其次是表象旋转和数量空间关系,类别空间关系所占比重最轻。
Visual imagery ability was seen as the core of spatial intelligence,its non-logic and its consciousness characteristics had the important function in creative thinking:the function andproperties of the visual imagery was a large extent to restrict the spatial intelligence of mankind, and it also restricted the development level of intelligence.The cognitiveprocess of visual image was a kind of high classprocesses of spatial cognitive,this kind of high class of cognitionprocess correlated with the specificity of cerebral functions.It was significant to improve the forecasting veracity of the special occupationpersonnel estimate and to raise thepertinency and validity of clinical rehabilitative for various brain function obstacle that clarified theplasticity of visual cognition functionplasticity level from two angles of the behaviorplasticity and the brainplasticity. On the foundation that the Kosslyn high level visualprocessing subsystem theories,the research inquiry into the training effect and brain mechanism of the visual imageryprocessing subsystem with the means of the behavior experiment,SEM and ERPs,and build up the behavior experiment model, SEM and the model of brain waves activation,andprovide the beneficial complement and references for the research that cognitive neural science.
     According to the theories of Kosslyn high-level visual cognitionprocessing subsystem and theplasticity of human behaviors and the brain mechanism,comprehend and describe the characteristic that various typical missions of spatial cognitiveprocesses.Do the detailed analysis to theplasticity level of visual imageryprocessing subsystems and their combine thatpasses a series of normative cognition experiments,and structure the confirmatory model of visual imagery cognitiveprocessing system that apply the technique of SEM;at one time,in the cognitive nerve science,use the technique of ERPs to discuss the bring mechanism of visual imageryprocess,and from theplasticity and the stability of the brain functionplasticity to discuss the specificity of different visual spatial imagery missions and their intercommunity.
     This research adopts the imagery rotation,imagery scan,coordinate and category spatial judgment to the cognitive mission that the study the characteristic of the visual imageryprocessing subsystem.At the international research field,these four kinds of imageryprocessing is the core factors that studies the high-level visual spatialprocessing,and it wasproved in frontal studies that the four kinds of imageryprocessing belong to four visual imageryprocessing subsystems.Around the four kinds of visual imageryprocessing subsystem,we strictly control the experiment condition, and record subjects' behavior reaction data and ERPs.
     This research is constituted by fourparts:
     (1) The behavior studies of training effect of visual imageryprocessing subsystems;
     (2) The behavior studies of integration of the visual imageryprocessing subsystems and their training effect;
     (3) The SEM of visual imageryprocessing system;
     (4) The ERPs studies of training effect of visual imageryprocessing subsystems.
     Comprehensive experiment results and relevant discussion,the studies draw some conclusions:
     1.The four kinds of imageryprocessing mechanism that is image rotation,image scan, category and coordinate relations judgment is not only discriminate each other but also contact mutually.Their differentprove that it involves special subsystemprocessing,but their contact then cause affect each other in many missionprocess.Such result elucidation that the four imageryprocessing has the same foundationprocessing subsystem,and also have its specialprocessing mechanism.There have this kind of trait that when theprocessing resources conflict in combined tasks,the simple task has beenprocessed first.
     2.There is observably training effect in the four imageryprocessing,those is image rotation,image scan,category and coordinate relation judgment after short date train.Such result seems different to with the result of former research,but our research mainly is aim at the variety characteristics of four kinds of imageryprocessing tasks after the shortperiod training,but foregone studies are the establishment at the suppose of which special community is through long-term system of training,it express the training effect that is the imageryprocessing under the condition of long-term of training.Therefore,it can't say our research results are quite the contrary with former researches simply,it just to announce the imageryprocessing's training effect under two kinds of different conditions.
     3.The four kinds of imageryprocessing that is image rotation,image scan,category and coordinate spatial relations judgment still express its each special stability characteristics.Our studies although announce the variety characteristics of the four kinds of imageryprocessing's training effects with short date train,to some extent still appeared the stability characteristics that four kinds of imageryprocessing:the two imageryprocessing of image rotation and coordinate spatial relation judgment are subjected to the disciplinal influence more easily,it represents that theperformance of different training levels have remarkable differentia each other;But image scan and category spatial relation judgment is relative stably,it represents that it may need longer time training to causableperformance exaltation.
     4.The four imagery abilities of image rotation,image scan,category and coordinate spatial relation judgment occupy different weight in whole imagery ability.Image scan the specific weight have biggest,next is image rotation and coordinate spatial relation,the specific weight that category spatial relation have is light most.
引文
1.于立身.飞行中空间定向障碍研究现状和未来[J].中华航空医学杂志,1994,5(1):5-9.
    2.游旭群,刘宁,任建军等.飞行错觉水平评定方法的初步研究[J].心理科学,1994,17(3):133-136.
    3.游旭群,于立身.认知特征、场独立性与飞行空间定向关系的研究[J].心理学报,2000,32(2):158-163.
    4.Nigel JT.Are theories of imagery theories of imagination?[J].Cognitive Science,1999,23(2):207-245.
    5.Kosslyn SM.Components of high-level vision:A cognitive neuroscience analysis and accounts of neurological syndromes[J].Cognition,1990,34(2):203-277.
    6.Row R,Kosslyn SM.Detecting high-level and low-levelproperties in visual images and visual percepts[J].Cognition,1997,63(2):209-226.
    7.Kosslyn SM,Ganis G,Thompson WL.Neural foundations of imagery[J].Nature Reviews:Neuroscience,2001,2:635-642
    8.王甦,汪安圣.认知心理学[M].北京大学出版社,2001:23.
    9.赵为华.表象表征的若干问题[J].北京师范大学学报(社科版),1994,1:15-22.
    10.Kosslyn SM.Image and mind[M].Cambridge,M A:Harvard University press,1980.
    11.Kosslyn SM.et al.Individual differences in mental imagery ability:A computational analysis[J].Cognition,1984,18:195-24.
    12.Kosslyn SM.Measuring the visual angle of the mind's eye[J].Cognitive psychology,1978,10:356-389.
    13.M.w.艾森克,M.t.基恩 著,高定国,肖晓元 译.认知心理学[M].华东师范大学出版社,2000:39.
    14.Kassubek J,Knauff M,et al.Cortical activation during visual mental imagery investigated by fMRI[J].Neuroimage,2000,11(5):65-67.
    15.Vanlierde A,De Volder AG,et al.Occipito-paretal cortex activation during visuo-spatial imagery in the early blind humans[J].Neuroimage,2003,19:678-709.
    16.Suchan B,Yaguez L etal.Neural correlates of visuo-spatial imagery[J].Behavioral Brain Research,2002,131:163-168.
    17.Jonides J,Smith EE,Koeppe RA,et al.Spatial working memory in humans as revealed by PET[J].Nature,1993,363:623-625.
    18.Burton LJ,Fogarty GS.The factor structure of visual imagery and spatial abilities[J].Intelligence,2003,31:289-318.
    19.Mast FW.et al.Four types of visual mental imageryprocessing in upright and tilted observers[J].Cognitive Brain Research,2003,17:238-247.
    20.Shepard RN,Metzler J.Mental rotation of three-dimensional objects[J].Science,1971,171:701-703.
    21.Kosslyn SM,Ball TM,Reiser BJ.Visual imagesp reserve metric spatial information:evidence from studies of image scanning[J].Journal of Experimenta lpsychology:Humanperception andperformance,1978,4:47-60.
    22.Baker DP,Chabris CF,Kosslyn SM.Encoding categorical and coordinate spatial relations without input-output correlations:New simulation models[J].Cognitive Science,1999,23(1):33-51.
    23.Niebauer C.Apossible connection between categorical and coordinate spatial relation representation[J].Brain and Cognition,2001,47(3):434-445.
    24.Kosslyn SM.Image and Brain:The Resolution of the Imagery Debate[M].Cambridge,Massachusetts,The MITT press,1994:285-325.
    25.Kosslyn SM.Mental imagery:against the nihilistic hypothesis[J].Trends in Cognitive Sciences,2003,7(3):109-111.
    26.Farah MJ.Current issues in the neuropsychology of image generation[J].Neuro psychologia,1995,33(11):1455-1471.
    27.Tippet LJ.The generation of mental images:a review of neuropsychological research and theory[J].Psychologia Bulltin,1992,112:415-432.
    28.Kosslyn SM,Maljkovic V,Hamilton SE,et al.Two types of image generation:evidence for left and right hemisphereprocesses[J].Neuropsychologia,1995,33(11):1485-1510.
    29.Bowers D,Heilman KM.Differential impact of right and left hemisphere lesions on facial emotion and object imagery[J].Brain,1991,114:2593-2609.
    30.Minato T.Towards selective attention:generating image features by learning a visuo-motor map[J].Robotics and Autonomous Systems,2003,45:211-221.
    31.Reese C,Stiles J.Hemispheric specialization for categorical and coordinate spatial relations during an image generation task:evidence from children and adults[J].Neuropsychologia,2005,43(4):517-529.
    32.Bullens J,Postma A.The development of categorical and coordinate spatial relations[J].Cognitive Development,2008,23:38-47.
    33.Piaget J,Inhelder B.The child's conception of space[G].Routledge &Kaganpaul,1956.
    34.蔡华俭,陈权.心理旋转能力的发展性及其与智力的相关性初步研究[J].心理科学,2000,23(3):363-36.
    35.林仲贤,张增慧,韩布新.儿童、中青年以老年人心理旋转能力比较研究[J].心理科学,2002,25(3):257-259.
    36.Wohlschlager A,Wohlschaager A.Mental and manual rotation[J].Journal of Experimentalpsychology:Humanperception andperformance,1998,24(2):397-412.
    37.周详,曾晖.现代认知心理学关于空间能力和心理旋转的研究[J].心理科学,1995,18(6):363-365.
    38.Dennis D,Kerman,Justin C.Wise and Elizabeth A[J].Harwood,Impossible "mental rotation"problems A mismeasure of women's spatial abilities,2001,4:253-269.
    39.Voyer D,Kristin A,Saunders.Gender differences on the mental rotations test:a factor analysis[J].Actapsychologica,2004,117:79-95.
    40.Fiorio M,Tinazzi M,Aglioti SM.Selective impairment of hand mental rotation inpatients with focal hand dystonia[J].Brain,2006,129:47-54.
    41.Sauner D,Bestmann S,Siebner H R,et cl.No evidence for a substantial involvement ofprimary motor hand area in handedness judgements:a transcranial magnetic stimulation study[J].European Journal of Neuroscience,2006,23:2215-2224.
    42.陶维东,孙弘进,闫京江等.自我和物体为参照系的心理旋转分离:内旋效应[J].心理学报,2008,40(1):14-24.
    43.Iachini T,Giusberti F.Metricproperties of spatial image generated from locomotion:The effect of absolute size on mental scanning[J].European Journal of Cognitivepsychology,2004,16(4):573-596.
    44.Denis M,Cocude M.On the metricproperties of visual images constructed from verbal descriptions:evidence for the robustness of the mental scanning effect[J].European Journal of Cognitivepsychology,1997,9(4):353-379.
    45.Chabanne V,Peruchp,Dennis M,et al.Mental scanning of images constructed from visual experience or verbal descriptions:the impact of survey versus routeperspective[J].Imagination,Cognition andpersonality,2004,23(2):163-171.
    46.Taylor HA,Tversky B.Spatial mental models derived from survey and route descriptions[J].Journal of Memory and Language,1992,31:261-291.
    47.Roder B,Rosier F.Visual input does not facilitate the scanning of spatial images [J].Journal of Mental Imagery,1998,22(34):165-182.
    48.Kosslyn SM,Ganis G,Thompson WL.Mental Imagery and the Human Brain [C].ICP,2004.
    49.游旭群,邱香,牛勇.视觉表象扫描中的视角大小效应[J].心理学报,2007,39(2):201-208.
    50.杨新国,任国防,张庆林等.心理扫描中的距离效应再探[J].心理科学,2008,31(3):617-619.
    51.Borst G,Kosslyn SM,Denis M.Different cognitiveprocesses in two image-scanning paradigms[J].Memory & Cognition,2006,34(3):475-490.
    52.Kosslyn SM.Seeing and imagining in the cerebral hemispheres:a computational approach[J].Psychological Review,1987,94(2):148-175.
    53.Hellige JB,Michimata C.Categorization versus distance:Hemispheric differences forprocessing spatial information[J].Memory & Cognition,1989,17(6):770-776.
    54.游旭群,杨治良.视觉空间关系识别中的认知加工特性[J].心理学报,2002,34(4):344-350.
    55.梁三才,游旭群,霍涌泉.注意瞬脱对视觉空间关系判断的影响[J].心理科学,2006,29(4):963-966.
    56.Trojano L,Grossi D,Linden DE,et al.Matching two imagined clocks:The functional anatomy of spatial analysis in the absence of visual stimulation[J].Cerebral Cortex,2000,10(5):473-481.
    57.Trojano L,Grossi D,Linden DE,et al.Coordinate and categorical judgments in spatial imagery:An fMRI study[J].Neuropsychologia,2002,40(10):1666-1674.
    58.Trojano L,Conson M,Maffei R,et al.Categorical and coordinate spatial processing in the imagery domain investigated by rTMS[J].Neuropsychologia,2006,44(9):1569-1574.
    59.Banich MT,Federmeier KD.Categorical and metric spatialprocesses distinguished by task demands andpractice[J].Journal of Cognitive Neuro-science,1999,11(2):153-166.
    60.Michimata C.Hemisphericprocessing of categorical and coordinate spatial relations in vision and visual imagery[J].Brain and Cognition,1997,33(3):370-387.
    61.Bruyer R,Scailquin JC,Coibionp.Dissociation between categorical and coordinate spatial computations:modulation by cerebral hemispheres,taskproperties,mode of response,and age[J].Brain and Cognition,1997,33(3):245-277.
    62.Sergent J.Judgments of relativeposition and distance on representations of spatial relations[J].Journal of Experimentalpsychology:Humanperception andperformance,1991,17(3):762-780.
    63.Parrot M,Doyon B,Demonet JF,et al.Hemisphericpreponderance in categorical and coordinate visualprocesses[J].Neuropsychologia,1999,37(11):1215-1225.
    64.Laeng B,Peters M.Cerebral lateralization for theprocessing of spatial coordinates and categories in left-and right-handers[J].Neuropsychologia,1995,33(4):421-439.
    65.Wilkinson D,Donnelly N.The role of stimulus factors in making categorical and coordinate spatial judgements[J].Brain and Cognition,1999,39(3):171-185.
    66.Okubo M,Michimata C.Hemisphericprocessing of categorical and coordinate spatial relations in the absence of low spatial frequencies[J].Journal of Cognitive Neuroscience,2002,14(2):291-297.
    67.Okubo M,Michimata C.The Role of High Spatial Frequency in Hemispheric processing of Categorical and Coordinate Spatial relations[J].Journal of Cognitive Neuroscience,2004,16(9):1576-1582.
    68.Desimone R,Albright T,& Hunt E.Age differences in the speed of mental rotation[J].Develpomentalpsychology,1984,18:95-107.
    69. Mishkin M, Ungerleider LG, & Macko KA. Object vision and spatial vision: Two corticalpathways [J]. Trends in Neuroscince, 1983, 6: 414-417.
    
    70. Wijers A, Otten L, Feenstra S, et cl. Brainpotentials during selective attention, memory search, and mental rotation [J]. Psychophysiology, 1989, 26(4): 452-467.
    
    71. Heil M, et al. Responsepreparation begins befor mental rotation is finished: Evidence from event-related brainpotentials [J]. Actapsychologica, 1998, 99: 217-232.
    
    72. Bajric J, Rosier F, Heil M, Hennighausen E. On separatingprocesses of event categorization, taskpreparation, and mental rotationproper in a handedness recognition task [J]. Psychophysiology, 1999, 36(4): 399-408.
    
    73. Heit M, Rolke B. Towards a chronopsychophysiology of mental rotation [J]. Psychophysiology, 2002, 39(4): 414-422.
    
    74. Harris IM, Miniussi C. Parietal lobe contribution to mental rotation demonstrated with rTMS [J]. Journal of Cognitive Neuroscience, 2003, 15: 315-323;
    
    75. Tomasion B, Toraldo A, Rumiati RI. Dissociation between the mental rotation of visual images and motor images in unilateral brain-damagedpatients [J]. Brain and Cognition, 2003, 51: 368-371.
    
    76. Cohen MS, et al. Changes in cortical activity during mental rotation: a mapping study using functional MRI [J]. Brain, 1996,119: 89 -10.
    
    77. Hugdahl K, Thomsen T, Ersland L. Sex differences in visuo-spatialprocessing: An fMRI study of mental rotation [J]. Neuropsychologia, 2006, 44(9): 1575- 1583.
    
    78. Roberts JE, Bell MA. Sex differences on a mental rotation task: variations in electroencephalogram hemispheric activation between children and college students [J]. Developmental Neuropsychology, 2000, 17(2): 199-223.
    
    79. Roberts JE, Bell MA. The effects of age and sex on mental rotationperformance, verbalperformance, and brain electrical activity [J]. Developmental psycho-biology, 2002,40(4): 391-407.
    
    80. Roberts JE, Bell MA. Two- and three-dimensional mental rotation tasks lead to differentparietal laterality for men and women [J]. International Journal of psychophysiology, 2003, 50(3): 235-246.
    81. Jordan K, Wustenberg T, Heinze HJ, et al. Women and men exhibit different cortical activationpatterns during mental rotation tasks [J]. Neuropsychologia, 2002,40(13): 2397-240.
    
    82. Butler T, Imperato-McGinley J, Pan H, et al. Sex differences in mental rotation: top-down versus bottom-upprocessing [J]. Neuroimage, 2006, 32(1): 445-456.
    
    83. Kosslyn SM, Thompson W. When is early visual cortex activated during visual mental Imagery? [J]. Psychological Bulletin, 2003, 129(5): 723-746.
    
    84. Kosslyn SM. Two Type of Image Generation: Evidence frompET [J]. Cognitive, Affective & Behavioral Neuroscience, 2005, 5(1): 41-53.
    
    85. Parrot M, Doyon B, Cardebat D. Hemispheric specialization for coordinate versus categorical spatialprocessing: An ERP study [J]. Neuroimage, 1998, 7(4):332.
    
    86. van der Lubbe, Rob HJ, Scholvinck ML, et al. Divergence of categorical and coordinate spatialprocessing assessed with ERPs [J]. Neuropsychologia, 2006, 44(9): 1547-1559.
    
    87. Carey DP, Dijkerman HC, Murphy KJ, et al. Pointing toplaces and spaces in apatient with visual form agnosia [J]. Neuropsychologia, 2006, 44(9): 1584- 1594.
    
    88. Kosslyn SM, Thompson WL, Gitelman DR, et al. Neural systems that encode categorical versus coordinate spatial relations: PET investigations [J]. Psycho-biology, 1998,26(4): 333-347.
    
    89. Sergent J. Processing of spatial relations within and between the disconnected cerebral hemispheres [J]. Brain, 1999,114(2): 1025-1043.
    
    90. Laeng B. Lateralization of categorical and coordinate spatial functions: a study of unilateral strokepatients [J]. Journal of Cognitive Neuroscience, 1994, 6(3):189-203.
    
    91. Laeng B. Constructional apraxia after left or right unilateral stroke [J]. Neuropsychologia, 2006,44(9): 1595-1606.
    
    92. Kessels RP, Jaap Kappelle L, de Haan EH, et al. Lateralization of spatial- memoryprocesses in humans: evidence on spatial span, maze learning, and memory for object locations [J]. Neuropsychologia, 2002,40(8): 1465-1473.
    
    93. Baciu M, Koenig O, Vernier MP, et al. Categorical and coordinate spatial relations: fMRI evidence for hemispheric specialization [J]. Neuroreport, 1999, 10(6):1373-1383.
    94.Damasio H,Grabowsk TJ,Tranel D,et al.Neural correlates of naming actions and of naming spatial relations[J].Neurolmage,2001,13(6):1053-1064.
    95.Tranel D,Kemmerer D.Neuroanatomical correlates of locativeprepositions[J].Cognitive Neuropsychology,2004,21(7):719-749.
    96.丁俊.认知表象的神经机制[J].心理科学,1996,19(5):314-315.
    97.潘昱,沃建中,林崇德.13-18岁青少年能力的表象发展和脑电α波的关系[J].心理发展与教育,2001,(4):6-11.
    98.Munnich E,Landau B,Doshe BA.Spatial language and spatial representation:A cross-linguistic comparison[J].Cognition,2001,81(3):171-207.
    99.Levinson SC.Space in language and cognition[M].Cambridge.UK:Cambridge Universitypress,2003:152-154.
    100.De Lisi R,Wolford JL.Improving children's mental rotation accuracy with computer gameplaying[J].New York:The Journal of Geneticpsychology,2002,163(3):272.
    101.宋丽波,张厚粲,蔡文.应用表象训练技术提高弱智儿童表象清晰度和表象记忆实验研究[J].中国特殊教育,2003,37(1):77-83.
    102.Lamber S,et al.Blindness and brainplasticity:contribution of mental imagery?An fMRI study[J].Cognitive Brain Research,2004,20:1-11.
    103.Buonomano DV,Merzenich MM.Corticalplasticity:From synapses to maps [J].Annual Review of Neuroscience,1998,21(1):149-186.
    104.Recanzone GH.Cerebral corticalplasticity:Perception and skill acquisition [M].In:Gazzaniga MS et al.The New Cognitive Neuroscience,Cambridge:MIT press,2000:237-247.
    105.游旭群,杨治良.表象运动推断加工子系统特性的研究[J].心理科学,1998,21(3):216-219.
    106.游旭群,杨治良.表象旋转加工子系统特性的初步研究[J].心理学报,1999,31(4):377-382.
    107.游旭群,杨治良.视觉表象扫描加工可塑性水平的研究[J].心理科学,2002,25(1):18-21.
    108.Jeffrey ZM,Michelonp,et al.Functional reorganization of spatial transformations after aparietal lesion[J].Neurology,2004,2:287-292.
    109.Lisi RD,Wolford JL.Imp roving children's mental rotation accuracy with computer gameplaying[J].The Journal of Geneticpsychology,2002,163(3):272-282.
    110.Gazzaniga MS主编,沈政等译.认知神经科学[M].上海教育出版社,1998:643-736.
    111.Farah M J,Peronnet F.Event-relatedpotentials in the study of mental imagery [J].Journal ofpsychophysiology,1998,3:99-109.
    112.Milivojevic B,Johnson BW,Harem JP,et al.Non-identical neural mechanisms for two types mental transformation:Event-relatedpotentials during mental rotation and mentalpaper folding[J].Neuropsychologia,2003,41:1345-1356.
    113.Kosslyn SM,Digirolamo GJ,Thompson WL,et al.Mental rotation of objects versus hands-neural mechanisms revealed bypositron emission tomography[J].Psychophysiology,1998,35:151-161.
    114.Kanwisher N,Moseovitch M.The cognitive neuroscience of faceprocessing:An Introduction[J].Cognitive Neuropsychology,2000,17:1-11.
    115.Thompson WL,Kosslyn SM et al.Mental imagery of high-and low-resolution gratings activate Area 17[J].Neurolmage,2001,14:454-464.
    116.Muthukumaraswamy SD,et al.A high density ERP comparison of mental rotation and mental size transformation[J].Brain and Cognition,2003,52:271-280.
    117.Cooper LA.Mental rotation of random tow-dimensional shapes[J].Cognitive psychology,1987,7:20-43.
    118.Fink RA &pink.Spontaneous imagery scanning in mental extrapolation[J].Journal of Experimentalpsychology:Learning,Memory and Cognition,1982,8:142-147.
    119.Kosslyn SM.A cognitive neuroscience of visual cognition:Further development [M].In R.Logic & M.Denis(Eds),Mental images in human cognition,Amsterdam;North-Holland,1990:351-381.
    120.Kosslyn SM,Chabris CF,Marsolek CM,& Koenig O.Categorical versus coordinate spatial representation:Computational analyses and computer simulations[J].Journal of Experimentalpsychology:Humanperception and performance,1992,18:562-577.
    121.温忠麟,侯杰泰,马什赫伯特.结构方程模型检验:拟合指数与卡方准则[J].心理学报,2004,36(2):186-194.

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