TY - JOUR
T1 - Redox homeostasis in muscular dystrophies
AU - Mosca, Nicola
AU - Petrillo, Sara
AU - Bortolani, Sara
AU - Monforte, Mauro
AU - Ricci, Enzo
AU - Piemonte, Fiorella
AU - Tasca, Giorgio
PY - 2021
Y1 - 2021
N2 - In recent years, growing evidence has suggested a prominent role of oxidative stress in the pathophysiology of several early-and adult-onset muscle disorders, although effective antioxidant treatments are still lacking. Oxidative stress causes cell damage by affecting protein function, membrane structure, lipid metabolism, and DNA integrity, thus interfering with skeletal muscle homeostasis and functionality. Some features related to oxidative stress, such as chronic inflammation, defective regeneration, and mitochondrial damage are shared among most muscular dystrophies, and Nrf2 has been shown to be a central player in antagonizing redox imbalance in several of these disorders. However, the exact mechanisms leading to overproduction of reactive oxygen species and deregulation in the cellular antioxidants system seem to be, to a large extent, disease-specific, and the clarification of these mechanisms in vivo in humans is the cornerstone for the development of targeted antioxidant therapies, which will require testing in appropriately designed clinical trials.
AB - In recent years, growing evidence has suggested a prominent role of oxidative stress in the pathophysiology of several early-and adult-onset muscle disorders, although effective antioxidant treatments are still lacking. Oxidative stress causes cell damage by affecting protein function, membrane structure, lipid metabolism, and DNA integrity, thus interfering with skeletal muscle homeostasis and functionality. Some features related to oxidative stress, such as chronic inflammation, defective regeneration, and mitochondrial damage are shared among most muscular dystrophies, and Nrf2 has been shown to be a central player in antagonizing redox imbalance in several of these disorders. However, the exact mechanisms leading to overproduction of reactive oxygen species and deregulation in the cellular antioxidants system seem to be, to a large extent, disease-specific, and the clarification of these mechanisms in vivo in humans is the cornerstone for the development of targeted antioxidant therapies, which will require testing in appropriately designed clinical trials.
KW - Antioxidants
KW - FSHD
KW - Inflammation
KW - Muscular dystrophies
KW - Nrf2
KW - Oxidative stress
KW - Reactive oxygen species (ROS)
KW - Antioxidants
KW - FSHD
KW - Inflammation
KW - Muscular dystrophies
KW - Nrf2
KW - Oxidative stress
KW - Reactive oxygen species (ROS)
UR - http://hdl.handle.net/10807/197012
U2 - 10.3390/cells10061364
DO - 10.3390/cells10061364
M3 - Article
SN - 2073-4409
VL - 10
SP - 1364-N/A
JO - Cells
JF - Cells
ER -