Biomechanical influence of cartilage homeostasis in health and disease
Biomechanical influence of cartilage homeostasis in health and disease
There is an urgent demand for long term solutions to improve osteoarthritis treatments in the ageing population. There are drugs that control the pain but none that stop the progression of the disease in a safe and efficient way. Increased intervention efforts, augmented by early diagnosis and integrated biophysical therapies are therefore needed. Unfortunately, progress has been hampered due to the wide variety of experimental models which examine the effect of mechanical stimuli and inflammatory mediators on signal transduction pathways. Our understanding of the early mechanopathophysiology is poor, particularly the way in which mechanical stimuli influences cell function and regulates matrix synthesis. This makes it difficult to identify reliable targets and design new therapies. In addition, the effect of mechanical loading on matrix turnover is dependent on the nature of the mechanical stimulus. Accumulating evidence suggests that moderate mechanical loading helps to maintain cartilage integrity with a low turnover of matrix constituents. In contrast, nonphysiological mechanical signals are associated with increased cartilage damage and degenerative changes. This review will discuss the pathways regulated by compressive loading regimes and inflammatory signals in animal and in vitro 3D models. Identification of the chondroprotective pathways will reveal novel targets for osteoarthritis treatments.
979032-[16pp]
Bader, Dan L.
9884d4f6-2607-4d48-bf0c-62bdcc0d1dbf
Salter, D.M.
94485705-ebda-4ddf-96c9-55fc6c3fe073
Chowdhury, T.T.
3969bc1d-acec-4cad-b523-c8b4885fcb0a
June 2011
Bader, Dan L.
9884d4f6-2607-4d48-bf0c-62bdcc0d1dbf
Salter, D.M.
94485705-ebda-4ddf-96c9-55fc6c3fe073
Chowdhury, T.T.
3969bc1d-acec-4cad-b523-c8b4885fcb0a
Bader, Dan L., Salter, D.M. and Chowdhury, T.T.
(2011)
Biomechanical influence of cartilage homeostasis in health and disease.
Arthritis, 2011, .
(doi:10.1155/2011/979032).
(PMID:22046527)
Abstract
There is an urgent demand for long term solutions to improve osteoarthritis treatments in the ageing population. There are drugs that control the pain but none that stop the progression of the disease in a safe and efficient way. Increased intervention efforts, augmented by early diagnosis and integrated biophysical therapies are therefore needed. Unfortunately, progress has been hampered due to the wide variety of experimental models which examine the effect of mechanical stimuli and inflammatory mediators on signal transduction pathways. Our understanding of the early mechanopathophysiology is poor, particularly the way in which mechanical stimuli influences cell function and regulates matrix synthesis. This makes it difficult to identify reliable targets and design new therapies. In addition, the effect of mechanical loading on matrix turnover is dependent on the nature of the mechanical stimulus. Accumulating evidence suggests that moderate mechanical loading helps to maintain cartilage integrity with a low turnover of matrix constituents. In contrast, nonphysiological mechanical signals are associated with increased cartilage damage and degenerative changes. This review will discuss the pathways regulated by compressive loading regimes and inflammatory signals in animal and in vitro 3D models. Identification of the chondroprotective pathways will reveal novel targets for osteoarthritis treatments.
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["date_types_typename_published" not defined] date: June 2011
["eprint_fieldname_organisations" not defined]:
Faculty of Health Sciences
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Local EPrints ID: 347059
URI: http://eprints.soton.ac.uk/id/eprint/347059
ISSN: 2090-1984
PURE UUID: 5a82b2dc-b4fe-42fd-85c8-a149a1416e83
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Date deposited: 04 Feb 2013 13:48
Last modified: 14 Mar 2024 12:44
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Author:
D.M. Salter
Author:
T.T. Chowdhury
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