Tomographic brain imaging with nucleolar detail and automatic cell counting

被引:0
|
作者
Simone E. Hieber
Christos Bikis
Anna Khimchenko
Gabriel Schweighauser
Jürgen Hench
Natalia Chicherova
Georg Schulz
Bert Müller
机构
[1] Biomaterials Science Center,Department of Biomedical Engineering
[2] University of Basel,Department of Neuropathology
[3] Institute of Pathology,Department of Biomedical Engineering
[4] University Hospital of Basel,undefined
[5] Medical Image Analysis Center,undefined
[6] University of Basel,undefined
来源
关键词
D O I
暂无
中图分类号
学科分类号
摘要
Brain tissue evaluation is essential for gaining in-depth insight into its diseases and disorders. Imaging the human brain in three dimensions has always been a challenge on the cell level. In vivo methods lack spatial resolution, and optical microscopy has a limited penetration depth. Herein, we show that hard X-ray phase tomography can visualise a volume of up to 43 mm3 of human post mortem or biopsy brain samples, by demonstrating the method on the cerebellum. We automatically identified 5,000 Purkinje cells with an error of less than 5% at their layer and determined the local surface density to 165 cells per mm2 on average. Moreover, we highlight that three-dimensional data allows for the segmentation of sub-cellular structures, including dendritic tree and Purkinje cell nucleoli, without dedicated staining. The method suggests that automatic cell feature quantification of human tissues is feasible in phase tomograms obtained with isotropic resolution in a label-free manner.
引用
收藏
相关论文
共 50 条
  • [41] S-values calculated from a tomographic head/brain model for brain imaging
    Chao, TC
    Xu, XG
    [J]. PHYSICS IN MEDICINE AND BIOLOGY, 2004, 49 (21): : 4971 - 4984
  • [42] Time-correlated single-photon counting range profiling and reflectance tomographic imaging
    Sjoeqvist, Lars
    Henriksson, Markus
    Jonsson, Per
    Steinvall, Ove
    [J]. ADVANCED OPTICAL TECHNOLOGIES, 2014, 3 (02) : 187 - 197
  • [43] Instrumentation for Simultaneous Magnetic Resonance and Optical Tomographic Imaging of the Rodent Brain
    Masciotti, James M.
    Lee, Jonghwan
    Stewart, Mark
    Hielscher, Andreas H.
    [J]. MULTIMODAL BIOMEDICAL IMAGING IV, 2009, 7171
  • [44] Three-dimensional optical tomographic imaging of vascular reactivity in the brain
    Hielscher, AH
    Bluestone, AY
    Abdoulaev, GS
    Lasker, J
    Barbour, RL
    Schmitz, CH
    [J]. PHOTON MIGRATION, OPTICAL COHERENCE TOMOGRAPHY, AND MICROSCOPY, 2001, 4431 : 207 - 218
  • [45] SEQUENTIAL COMPUTED TOMOGRAPHIC IMAGING OF A TRANSPLANTABLE RABBIT BRAIN-TUMOR
    KUMAR, AJ
    HASSENBUSCH, S
    ROSENBAUM, AE
    BECK, TJ
    HADFIELD, R
    AHN, HS
    ANDERSON, J
    [J]. NEURORADIOLOGY, 1986, 28 (01) : 81 - 86
  • [46] Optical tomographic brain imaging with diffusion and transport theory based algorithms
    Hielscher, AH
    Abdoulaev, GS
    Bluestone, AY
    Lasker, J
    Klose, A
    [J]. OPTICAL TOMOGRAPHY AND SPECTROSCOPY OF TISSUE V, 2003, 4955 : 12 - 21
  • [47] DOES COMPUTED TOMOGRAPHIC BRAIN IMAGING HAVE A PLACE IN THE DIAGNOSIS OF DEMENTIA
    ENGEL, PA
    GELBER, J
    [J]. ARCHIVES OF INTERNAL MEDICINE, 1992, 152 (07) : 1437 - 1440
  • [48] EMISSION TOMOGRAPHIC IMAGING OF THE BRAIN - TRIALS OF A NEW RADIOPHARMACEUTICAL FOR THE INVESTIGATION OF DEMENTIA
    SHIELDS, RA
    BURJAN, AWI
    PRESCOTT, MC
    TESTA, HJ
    SNOWDEN, J
    NORTHERN, B
    NEARY, D
    [J]. PHYSICS IN MEDICINE AND BIOLOGY, 1987, 32 (02): : 284 - 284
  • [49] TOMOGRAPHIC BRAIN IMAGING USING TC-99M-HMPAO
    ANDERSEN, A
    HOLM, S
    PAULSON, OB
    LASSEN, NA
    KRISTENSEN, K
    [J]. UPSALA JOURNAL OF MEDICAL SCIENCES, 1986, : 21 - 21
  • [50] ULTRASONIC TOMOGRAPHIC IMAGING OF BRAIN WITH AN ELECTRONIC SECTOR SCANNING SYSTEM - ELECTROSCAN
    SOMER, JC
    OOSTERBA.WA
    FREUND, HJ
    [J]. IEEE TRANSACTIONS ON SONICS AND ULTRASONICS, 1974, SU21 (01): : 73 - 73