FB2026_03 , released September 17, 2026
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Citation
Wu, C., Schulte, J., Sepp, K.J., Littleton, J.T., Hong, P. (2010). Automatic robust neurite detection and morphological analysis of neuronal cell cultures in high-content screening.  Neuroinformatics 8(2): 83--100.
FlyBase ID
FBrf0210886
Publication Type
Research paper
Abstract
Cell-based high content screening (HCS) is becoming an important and increasingly favored approach in therapeutic drug discovery and functional genomics. In HCS, changes in cellular morphology and biomarker distributions provide an information-rich profile of cellular responses to experimental treatments such as small molecules or gene knockdown probes. One obstacle that currently exists with such cell-based assays is the availability of image processing algorithms that are capable of reliably and automatically analyzing large HCS image sets. HCS images of primary neuronal cell cultures are particularly challenging to analyze due to complex cellular morphology. Here we present a robust method for quantifying and statistically analyzing the morphology of neuronal cells in HCS images. The major advantages of our method over existing software lie in its capability to correct non-uniform illumination using the contrast-limited adaptive histogram equalization method; segment neuromeres using Gabor-wavelet texture analysis; and detect faint neurites by a novel phase-based neurite extraction algorithm that is invariant to changes in illumination and contrast and can accurately localize neurites. Our method was successfully applied to analyze a large HCS image set generated in a morphology screen for polyglutamine-mediated neuronal toxicity using primary neuronal cell cultures derived from embryos of a Drosophila Huntington's Disease (HD) model.
PubMed ID
PubMed Central ID
PMC3022421 (PMC) (EuropePMC)
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Secondary IDs
    Language of Publication
    English
    Additional Languages of Abstract
    Parent Publication
    Publication Type
    Journal
    Abbreviation
    Neuroinformatics
    Title
    Neuroinformatics
    ISBN/ISSN
    1539-2791 1559-0089
    Data From Reference
    Genes (2)
    Human Disease Models (1)