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Author(s)
Microscopy imaging of mouse growth plates is
extensively used in biology to understand the effect of specific
molecules on various stages of normal bone development and on bone
disease. Until now, such image analysis has been conducted by manual
detection. In fact, when existing automated detection techniques were
applied, morphological variations across the growth plate and
heterogeneity of image background color, including the faint presence of
cells (chondrocytes) located deeper in tissue away from the image’s
plane of focus, and lack of cell-specific features, interfered with
identification of cells. We propose the first method of automated
detection and morphometry applicable to images of cells in the growth
plate of long bone. Through ad hoc sequential application of the Retinex
method, anisotropic diffusion and thresholding, our new cell detection
algorithm (CDA) addresses these challenges on bright-field microscopy
images of mouse growth plates. Five parameters, chosen by the user in
respect of image characteristics, regulate our CDA. Our results
demonstrate effectiveness of the proposed numerical method relative to
manual methods. Our CDA confirms previously established results
regarding chondrocytes’ number, area, orientation, height and shape of
normal growth plates. Our CDA also confirms differences previously found
between the genetic mutated mouse Smad1/5CKO and
its control mouse on fluorescence images. The CDA aims to aid biomedical
research by increasing efficiency and consistency of data collection
regarding arrangement and characteristics of chondrocytes. Our results
suggest that automated extraction of data from microscopy imaging of
growth plates can assist in unlocking information on normal and
pathological development, key to the underlying biological mechanisms of
bone growth.
KEYWORDS
Cite this paper
Ascenzi, M. , Du, X. , Harding, J. , Beylerian, E. ,
de Silva, B. , Gross, B. , Kastein, H. , Wang, W. , Lyons, K. and
Schaeffer, H. (2014) Automated Cell Detection and Morphometry on
Growth Plate Images of Mouse Bone. Applied Mathematics, 5, 2866-2880. doi: 10.4236/am.2014.518273.
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