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      청각 기능성 자기공명영상(Auditory Functional Magnetic Resonance Imaging) 연구, 어떻게 시작할 것인가 = Auditory Functional Magnetic Resonance Imaging:How to Begin

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      https://www.riss.kr/link?id=A101609878

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      부가정보

      국문 초록 (Abstract)

      뇌간의 와우핵(CN)으로부터 청각피질(AC)에 이르는 인 체 청각 중추의 반응을 연구하기 위한 기능성 자기공명영 상기법이 확립되어 이제는 다양한 방면의 연구가 가능하다. 특히 뇌간 청각중...

      뇌간의 와우핵(CN)으로부터 청각피질(AC)에 이르는 인
      체 청각 중추의 반응을 연구하기 위한 기능성 자기공명영
      상기법이 확립되어 이제는 다양한 방면의 연구가 가능하다.
      특히 뇌간 청각중추의 성공적인 fMRI연구를 위해서는 효
      율적인 study design의 선택, 자극 음의 측정 및 전달 방
      식의 확립, 자극 음의 선택 등이 중요하며, 영상의학 분야
      및 영상 분석 전문가의 참여와 적극적인 협력이 필수적이
      다. 이러한 fMRI연구 기법을 통해, 말초 청각장애에 의해
      유발되는 중추 청각 경로의 신경 가소성에 대한 연구를 심
      화시킬 수 있으며, 대뇌의 resting state에 대한 연구에
      data-driven analysis를 적용함으로써 이명의 기전과 연관
      된 청각계의 역할을 조명할 수 있고, 나아가 청각계와 다
      른 감각계, 또는 정서, 인지, 및 운동계와의 기능적 연관성
      을 규명할 수 있을 것이다.

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      참고문헌 (Reference) 논문관계도

      1 Langers DR, van Dijk P, "fMRI activaion in relation to sound intensity and loudness" 5 (5): 709-718, 2007

      2 Landau WM, "The local circulation of the living brain; Values in the unanesthetized and anesthetized cat" (80) : 125-129, 1955

      3 Malmierca MS, "The Inferior Colliculus: A Center for Convergence of Ascending and Descending Auditory Information" (3) : 215-229, 2004

      4 Calhoun VD, "Spatial and temporal independent component analysis of functional MRI data containing a pair of task-related waveforms" 13 (13): 44-53, 2001

      5 Harms MP, "Sound repetition rate in the human auditory pathway: Representations in the waveshape and amplitude of fMRI activation" 88 (88): 1433-1450, 2002

      6 Levine RA, "Somatic (craniocervical) tinnitus and the dorsal cochlear nucleus hypothesis" 6 : 351-362, 1999

      7 Schmidt CF, "Silent and continuous fMRI scanning differentially modulate activation in an auditory language comprehension task" 29 (29): 46-56, 2008

      8 Møller AR, "Sensory Systems: Anatomy and Physiology" Academic Press 2003

      9 Kety SS, "Regional neurochemistry and its application to brain function" Columbia University Press 97-120, 1962

      10 Guinan JJ Jr, "Olivocochlear efferents: Anatomy, physiology, function, and the measurement of efferent effects in humans" 27 (27): 589-607, 2006

      1 Langers DR, van Dijk P, "fMRI activaion in relation to sound intensity and loudness" 5 (5): 709-718, 2007

      2 Landau WM, "The local circulation of the living brain; Values in the unanesthetized and anesthetized cat" (80) : 125-129, 1955

      3 Malmierca MS, "The Inferior Colliculus: A Center for Convergence of Ascending and Descending Auditory Information" (3) : 215-229, 2004

      4 Calhoun VD, "Spatial and temporal independent component analysis of functional MRI data containing a pair of task-related waveforms" 13 (13): 44-53, 2001

      5 Harms MP, "Sound repetition rate in the human auditory pathway: Representations in the waveshape and amplitude of fMRI activation" 88 (88): 1433-1450, 2002

      6 Levine RA, "Somatic (craniocervical) tinnitus and the dorsal cochlear nucleus hypothesis" 6 : 351-362, 1999

      7 Schmidt CF, "Silent and continuous fMRI scanning differentially modulate activation in an auditory language comprehension task" 29 (29): 46-56, 2008

      8 Møller AR, "Sensory Systems: Anatomy and Physiology" Academic Press 2003

      9 Kety SS, "Regional neurochemistry and its application to brain function" Columbia University Press 97-120, 1962

      10 Guinan JJ Jr, "Olivocochlear efferents: Anatomy, physiology, function, and the measurement of efferent effects in humans" 27 (27): 589-607, 2006

      11 Stephan KE, "Nonlinear dynamic causal models for fMRI" 42 (42): 649-662, 2008

      12 Formisano E, "Mirror-symmetric tonotopic maps in human primary auditory cortex" 40 (40): 859-869, 2003

      13 Melcher JR, "Lateralized tinnitus studied with functional magnetic resonance imaging: Abnormal inferior colliculus activation" 83 (83): 1058-1072, 2000

      14 Langers DR, van Dijk P, "Lateralization, connectivity and plasticity in the human central auditory system" 28 (28): 490-499, 2005

      15 Van de Moortele PF, "Latencies in fMRI time-series: Effect of slice acquisition order and perception" 10 (10): 230-236, 1997

      16 Marrelec G, "Large-scale neural model validation of partial correlation analysis for effective connectivity investigation in functional MRI" (14) : 2008

      17 Ravicz ME, "Isolating the auditory system from acoustic noise during functional magnetic resonance imaging: Examination of noise conduction through the ear canal, head, and body" 109 (109): 216-231, 2001

      18 Horwitz B, "Investigating the neural basis for functional and effective connectivity. Application to fMRI" 360 (360): 1093-1108, 2005

      19 Edmister WB, "Improved auditory cortex imaging using clustered volume acquisitions" 7 (7): 89-97, 1999

      20 Guimaraes AR, "Imaging subcortical auditory activity in humans" 6 (6): 33-41, 1998

      21 Baguley DM, "Hyperacusis" 96 (96): 582-585, 2003

      22 Niessing J, "Hemodynamic signals correlate tightly with synchronized gammaoscillations" 309 (309): 948-951, 2005

      23 Talavage TM, "Frequency-dependent responses exhibited by multiple regions in human auditory cortex" 150 (150): 225-244, 2000

      24 Belin P, "Event-related fMRI of the auditory cortex" 10 (10): 417-429, 1999

      25 Gu JW, "Elevated Sound-Evoked fMRI Activation in the Auditory Midbrain of People with Tinnitusand Hyperacusis" Association for Research in Otolaryngolog 1053-, 2008

      26 Sigalovsky IS, "Effects of sound level on fMRI activation in human brainstem, thalamic and cortical centers" 215 (215): 67-76, 2006

      27 Hawley ML, "Effects of sound bandwidth on fMRI activation in human auditory brainstem nuclei" 204 (204): 101-110, 2005

      28 Nam EC, "Development of sound measurement systems for auditory functional magnetic resonance imaging" 26 (26): 715-720, 2008

      29 Willott JF, "Comparison of the auditory sensitivity of neurons in the cochlear nucleus and inferior colliculus of young and aging C57BL/6J and CBA/J mice" 53 (53): 78-94, 1991

      30 Poncelet BP, "Brain parenchyma motion: Measurement with cine echo-planar MR imaging" 185 (185): 645-651, 1992

      31 Greenfield S, "Brain Story.1st" BBC Worldwide 2000

      32 Chambers J, "Active control of the volume acquisition noise in functional magnetic resonance imaging: Method and Psycho-acoustical evaluation" 110 (110): 3041-3054, 2001

      33 Kovacs S, "Activation of cortical and subcortical auditory structures at 3 T by means of a functional magnetic resonance imaging paradigm suitable for clinical use" 41 (41): 87-96, 2006

      34 Ravicz ME, "Acoustic noise during functional magnetic resonance imaging" 108 (108): 1683-1693, 2000

      35 Amaro E Jr, "Acoustic noise and functional magnetic resonance imaging: Current strategies and future prospects" 16 (16): 497-510, 2002

      36 Calhoun VD, "A method for making group inferences from functional MRI data using independent component analysis" 14 (14): 140-151, 2001

      37 Nam EC, "A fMRI Study on Auitory Target Processing" 117-, 2008

      38 Langers D, "A New Window on Tinnitus: Exploring Functional Connectivity in the Classical and Non-classical Auditory Pathways" 66-, 2007

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