Clinical and pathogenetic interrelation between molecular regulation of apoptosis and cell differentiation in osteoarthritis

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Abstract

Aim. To determine clinical and pathogenetic relationship between the levels of apoptosis and growth and differentiation regulation (growth inhibitor 1 induced by oxidative stress, growth/differentiation factor 5) in osteoarthritis.

Methods. In a rheumatology office of Vladivostok polyclinic №3 65 patients with knee osteoarthritis Kellgren grade 1-4 aged 66.5±8.0 years were examined. 25 healthy volunteers matched by sex and age without clinical and radiologic manifestations of osteoarthritis were included into control group. To measure concentration of the studied molecules in study patients’ blood, ELISA method was used.

Results. Patients with osteoarthritis compared to control group had statistically significantly increased levels of Fas, growth/differentiation factor 5 and ratio of growth/differentiation factor 5/growth inhibitor 1 induced by oxidative stress. Fas levels were significantly lower in late stages 2-4 of osteoarthritis compared to stages 1 and 2. Growth/differentiation factor 5 level was lower in patients with stage 3-4 of osteoarthritis compared to stages 1 and 2. As radiologic signs of osteoarthritis progressed, decrease of the ratio of growth/differentiation factor 5/growth inhibitor 1 induced by oxidative stress, was registered which was significantly lower in stages 2 and 3 compared to stage 1.

Conclusion. Extrinsic pathway of apoptosis plays a big role in forming pain syndrome in osteoarthritis, and its maintenance is provided by other mechanisms which include influence of oxidative stress via inhibition of cell cycle mediated by growth inhibitor 1 induced by oxidative stress, reduced involvement of growth/differentiation factor 5 in differentiation processes and regulation of protein synthesis of extracellular cartilaginous tissue matrix.

About the authors

M A Kabalyk

Pacific State Medical University

Author for correspondence.
Email: Maxi_maxim@mail.ru
Vladivostok, Russia

N G Plekhova

Pacific State Medical University

Email: Maxi_maxim@mail.ru
Vladivostok, Russia

A V Lagureva

Pacific State Medical University

Email: Maxi_maxim@mail.ru
Vladivostok, Russia

A B Sunyaykin

Pacific State Medical University

Email: Maxi_maxim@mail.ru
Vladivostok, Russia

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© 2018 Kabalyk M.A., Plekhova N.G., Lagureva A.V., Sunyaykin A.B.

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