Unravelling the Distinct Phenotype and Mechanosensitive Properties of Different Tendon Cell Populations

Tendinopathy arises from maladaptive cellular responses, though the drivers remain unclear. Here we isolate and characterise an overlooked tendon cell population residing within interfascicular matrix (IFM), demonstrating its importance as a highly mechanosensitive cell in tendon. We describe the first successful isolation and long-term culture of enriched populations of primary IFM and fascicular matrix (FM) cells, enabling direct comparison of their phenotypes and mechanosensitivity. IFM cells exhibited a potent response to stiff substrates, displaying cytoskeletal remodelling, rapid drifting of tenogenic and ECM gene expression, and proliferative decline, while FM cells remained largely unaltered. Crucially, transferring IFM cells to compliant, IFM-like substrates recovered their proliferative capacity, morphology, and partially restored their gene expression. This work defines IFM cells as a highly mechanosensitive tendon cell population. Importantly, it also enables the establishment of a defined culture framework that supports the maintenance of key IFM phenotypic characteristics in vitro and provides a new perspective on tendon cell heterogeneity by identifying distinct compartment-specific responses to the mechanical microenvironment.

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Publication Details

Journal
Advanced Science
Published
2026-09-13
DOI
https://doi.org/10.1002/advs.77391
Citations
1
Primary Topic
Tendon Structure and Treatment
Type
article
Field-Weighted Citation Impact
7.50

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article

Unravelling the Distinct Phenotype and Mechanosensitive Properties of Different Tendon Cell Populations

Martin M. Knight, Hazel R. C. Screen, Connor Charles Gains, Catrin Bevan et al.
1 citations
Advanced Science
Tendon Structure and Treatment
7.50
article

Unravelling the Distinct Phenotype and Mechanosensitive Properties of Different Tendon Cell Populations

Martin M. Knight, Hazel R. C. Screen, Connor Charles Gains, Catrin Bevan, Mah Roona Fazal, Simon Eric Grossemy, Yakshi Aggarwal, Nidal S Khatib, Tim Hopkins, Danae E Zamboulis, A. Giannopoulos
article en
1 citations

Abstract

Tendinopathy arises from maladaptive cellular responses, though the drivers remain unclear. Here we isolate and characterise an overlooked tendon cell population residing within interfascicular matrix (IFM), demonstrating its importance as a highly mechanosensitive cell in tendon. We describe the first successful isolation and long-term culture of enriched populations of primary IFM and fascicular matrix (FM) cells, enabling direct comparison of their phenotypes and mechanosensitivity. IFM cells exhibited a potent response to stiff substrates, displaying cytoskeletal remodelling, rapid drifting of tenogenic and ECM gene expression, and proliferative decline, while FM cells remained largely unaltered. Crucially, transferring IFM cells to compliant, IFM-like substrates recovered their proliferative capacity, morphology, and partially restored their gene expression. This work defines IFM cells as a highly mechanosensitive tendon cell population. Importantly, it also enables the establishment of a defined culture framework that supports the maintenance of key IFM phenotypic characteristics in vitro and provides a new perspective on tendon cell heterogeneity by identifying distinct compartment-specific responses to the mechanical microenvironment.

Advanced Science
Queen Mary University of London (GB)
University of Birmingham, Medical Research Council
Openalex Percentile: Top 8%
Tendon Structure and Treatment
7.50
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Unravelling the Distinct Phenotype and Mechanosensitive Properties of Different Tendon Cell Populations — Martin M. Knight, Hazel R. C. Screen, et al. · Advanced Science (2026) | TGRS Research Map | TGRS