TY - JOUR
T1 - New Hyaluronic Acid from Plant Origin to Improve Joint Protection—An In Vitro Study
AU - Galla, R.
AU - Ruga, S.
AU - APRILE, SILVIO
AU - Ferrari, S.
AU - Brovero, A.
AU - Grosa, G.
AU - MOLINARI, Claudio Giuseppe
AU - UBERTI, FRANCESCA
PY - 2022
Y1 - 2022
N2 - Background: In recent decades, hyaluronic acid (HA) has attracted great attention as a new treatment option for osteoarthritis. Classical therapies are not able to stop the cartilage degeneration process nor do they favor tissue repair. Nowadays, it is accepted that high molecular weight HA can reduce inflammation by promoting tissue regeneration; therefore, the aim of this study was to verify the efficacy of a new high molecular weight HA of plant origin (called GreenIuronic (R)) in maintaining joint homeostasis and preventing the harmful processes of osteoarthritis. Methods: The bioavailability of GreenIuronic (R) was investigated in a 3D intestinal barrier model that mimics human oral intake while excluding damage to the intestinal barrier. Furthermore, the chemical significance and biological properties of GreenIuronic (R) were investigated in conditions that simulate osteoarthritis. Results: Our data demonstrated that GreenIuronic (R) crosses the intestinal barrier without side effects as it has a chemical-biological profile, which could be responsible for many specific chondrocyte functions. Furthermore, in the osteoarthritis model, GreenIuronic (R) can modulate the molecular mechanism responsible for preventing and restoring the degradation of cartilage. Conclusion: According to our results, this new form of HA appears to be well absorbed and distributed to chondrocytes, preserving their biological activities. Therefore, the oral administration of GreenIuronic (R) in humans can be considered a valid strategy to obtain beneficial therapeutic effects during osteoarthritis.
AB - Background: In recent decades, hyaluronic acid (HA) has attracted great attention as a new treatment option for osteoarthritis. Classical therapies are not able to stop the cartilage degeneration process nor do they favor tissue repair. Nowadays, it is accepted that high molecular weight HA can reduce inflammation by promoting tissue regeneration; therefore, the aim of this study was to verify the efficacy of a new high molecular weight HA of plant origin (called GreenIuronic (R)) in maintaining joint homeostasis and preventing the harmful processes of osteoarthritis. Methods: The bioavailability of GreenIuronic (R) was investigated in a 3D intestinal barrier model that mimics human oral intake while excluding damage to the intestinal barrier. Furthermore, the chemical significance and biological properties of GreenIuronic (R) were investigated in conditions that simulate osteoarthritis. Results: Our data demonstrated that GreenIuronic (R) crosses the intestinal barrier without side effects as it has a chemical-biological profile, which could be responsible for many specific chondrocyte functions. Furthermore, in the osteoarthritis model, GreenIuronic (R) can modulate the molecular mechanism responsible for preventing and restoring the degradation of cartilage. Conclusion: According to our results, this new form of HA appears to be well absorbed and distributed to chondrocytes, preserving their biological activities. Therefore, the oral administration of GreenIuronic (R) in humans can be considered a valid strategy to obtain beneficial therapeutic effects during osteoarthritis.
KW - cartilage inflammation
KW - chondrocytes
KW - high molecular weight hyaluronic acid
KW - intestinal absorption
KW - osteoarthritis
KW - tissue degradation
KW - cartilage inflammation
KW - chondrocytes
KW - high molecular weight hyaluronic acid
KW - intestinal absorption
KW - osteoarthritis
KW - tissue degradation
UR - https://iris.uniupo.it/handle/11579/179174
U2 - 10.3390/ijms23158114
DO - 10.3390/ijms23158114
M3 - Article
SN - 1422-0067
VL - 23
JO - International Journal of Molecular Sciences
JF - International Journal of Molecular Sciences
IS - 15
ER -