Membranes

Aquaporin-4 Orchestrates Muscle Cell Differentiation and Satellite Cell Preservation: A Novel Target in Age-Related Muscle Decline.

BACKGROUND

Impaired muscle regeneration is a key contributor to age-related muscle decline, yet the molecular mechanisms linking muscle water homeostasis to regenerative failure remain incompletely understood. Aquaporin-4 (AQP4), a major skeletal muscle water channel, may have functions beyond water transport that...

🗓️ 2026-10-27
📰 Publication: Journal Of Cachexia Sarcopenia And Muscle
Read MoreAquaporin-4 Orchestrates Muscle Cell Differentiation and Satellite Cell Preservation: A Novel Target in Age-Related Muscle Decline.

Targeting Progesterone Receptor Membrane Component 1 to Improve Muscle Development and Glucose Homeostasis.

BACKGROUND

Type 2 diabetes mellitus (T2D) arises from the interplay between peripheral insulin resistance and pancreatic β-cell dysfunction, ultimately leading to impaired glucose utilization and chronic hyperglycemia. Despite therapeutic advances, the multifactorial nature of T2D continues to demand the development of...

🗓️ 2025-11-10
📰 Publication: Journal Of Cachexia Sarcopenia And Muscle
Read MoreTargeting Progesterone Receptor Membrane Component 1 to Improve Muscle Development and Glucose Homeostasis.

A fluorescent aptasensor for deoxynivalenol detection based on Nb.BbvCI-assisted targeted-responsive three-way junctions integrated DNA walking machine.

Deoxynivalenol (DON) contamination in cereals is a widespread issue with global implications, necessitating the development of efficient detection methods. Here, a fluorescent aptasensor integrating target-responsive DNA three-way junction (TWJ) and DNA walking machine was developed to detect DON. The DON-specific...

🗓️ 2024-12-06
📰 Publication: Food Chemistry
Read MoreA fluorescent aptasensor for deoxynivalenol detection based on Nb.BbvCI-assisted targeted-responsive three-way junctions integrated DNA walking machine.

Molecular determinants of skeletal muscle force loss in response to 5 days of dry immersion in human.

Astronauts in Earth's orbit experience microgravity, resulting in a decline of skeletal muscle mass and function. On Earth, models simulating microgravity have shown that the extent of the loss in muscle force is greater than the loss in muscle mass....

🗓️ 2024-10-25
📰 Publication: Journal Of Cachexia Sarcopenia And Muscle
Read MoreMolecular determinants of skeletal muscle force loss in response to 5 days of dry immersion in human.

Glycative stress inhibits hypertrophy and impairs cell membrane integrity in overloaded mouse skeletal muscle.

Glycative stress, characterized by the formation and accumulation of advanced glycation end products (AGEs) associated with protein glycation reactions, has been implicated in inducing a decline of muscle function. Although the inverse correlation between glycative stress and muscle mass and...

🗓️ 2024-04-04
📰 Publication: Journal Of Cachexia Sarcopenia And Muscle
Read MoreGlycative stress inhibits hypertrophy and impairs cell membrane integrity in overloaded mouse skeletal muscle.

Subscribe to the SCWD Newsletter

Stay Informed with the Latest Updates and Exclusive Insights!