Deep Hair Phenomics: Implications in Endocrinology, Development, and Aging

Hair quality is an important indicator of health in humans and other animals. Current approaches to assess hair quality are generally nonquantitative or are low throughput owing to technical limitations of splitting hairs. We developed a deep learning-based computer vision approach for the high-throughput quantification of individual hair fibers at a high resolution. Our innovative computer vision tool can distinguish and extract overlapping fibers for quantification of multivariate features, including length, width, and color, to generate single-hair phenomes of diverse conditions across the lifespan of mice. Using our tool, we explored the effects of hormone signaling, genetic modifications, and aging on hair follicle output. Our analyses revealed hair phenotypes resultant of endocrinological, developmental, and aging-related alterations in the fur coats of mice. These results demonstrate the efficacy of our deep hair phenomics tool for characterizing factors that modulate the hair follicle and developing, to our knowledge, previously unreported diagnostic methods for detecting disease through the hair fiber. Finally, we have generated a searchable, interactive web tool for the exploration of our hair fiber data at skinregeneration.org.

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Publication Details

Journal
Journal of Investigative Dermatology
Published
2024-09-03
DOI
https://doi.org/10.1016/j.jid.2024.08.014
Citations
5
Primary Topic
Hair Growth and Disorders
Type
article
Field-Weighted Citation Impact
2.68

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article

Deep Hair Phenomics: Implications in Endocrinology, Development, and Aging

Kristen M. Delevich, Isabelle Busch, Iwona M. Driskell, Sean Thompson et al.
5 citations
Journal of Investigative Dermatology
Hair Growth and Disorders
2.68
article

Deep Hair Phenomics: Implications in Endocrinology, Development, and Aging

Kristen M. Delevich, Isabelle Busch, Iwona M. Driskell, Sean Thompson, Liam E. Broughton‐Neiswanger, Ryan R. Driskell, Jasson Makkar, Quan M Phan, Qīng Wáng, Yiqing Du, Mason Matich, Jorge Flores, Tommy T. Duong
article en
5 citations

Abstract

Hair quality is an important indicator of health in humans and other animals. Current approaches to assess hair quality are generally nonquantitative or are low throughput owing to technical limitations of splitting hairs. We developed a deep learning-based computer vision approach for the high-throughput quantification of individual hair fibers at a high resolution. Our innovative computer vision tool can distinguish and extract overlapping fibers for quantification of multivariate features, including length, width, and color, to generate single-hair phenomes of diverse conditions across the lifespan of mice. Using our tool, we explored the effects of hormone signaling, genetic modifications, and aging on hair follicle output. Our analyses revealed hair phenotypes resultant of endocrinological, developmental, and aging-related alterations in the fur coats of mice. These results demonstrate the efficacy of our deep hair phenomics tool for characterizing factors that modulate the hair follicle and developing, to our knowledge, previously unreported diagnostic methods for detecting disease through the hair fiber. Finally, we have generated a searchable, interactive web tool for the exploration of our hair fiber data at skinregeneration.org.

Journal of Investigative DermatologyVol. 145(4)
Washington State University (US)
Washington State University, National Institutes of Health
Zero hunger
Openalex Percentile: Top 10%
Hair Growth and Disorders
2.68
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