Building functional human muscle in the laboratory has long been a goal of regenerative medicine, but one stubborn obstacle ...

Researchers from Tokyo Metropolitan University have developed a way to treat age-related muscular atrophy using regenerative medicine. Conventional methods to implant myoblasts, precursors to muscle ...

The contraction process involves interactions between actin and myosin filaments within the sarcomeres to generate force. Recent research has achieved significant advances in functional design, ...

Transplanting myoblasts in a fluid containing ECM helped new cells graft into existing tissue. To confirm engraftment, new cells have been designed to emit a green dye, as seen in the bottom right.

Dissociating tissues into single cells is a core laboratory technique and vital for widely used applications such as next-generation sequencing or flow cytometry. Scientists who employ tissue ...

- Muscle cells, also known as myocytes, are specialized cells designed for contraction and force production. Skeletal Muscle Cells: These cells are long, cylindrical, and have a striated (or striped) ...

Skeletal muscle tissue can self-repair minor injuries, but significant muscle loss leads to non-functional scar tissue. Current treatments mainly involve autologous muscle transfer. Tissue engineering ...

Engineers at Washington University in St. Louis have developed a new class of protein-based fibers modeled on the aligned ...

A new study reveals that vesicles packed with healthy mitochondria can supercharge tissue repair and combat chronic disease, paving the way for next-generation regenerative treatments. Study: ...