Given their highly porous nature and excellent water retention, hydrogel‐based biomaterials
can mimic critical properties of the native cellular environment. However, their potential to …

Cultured meat, as a cellular agriculture product, utilizes tissue engineering techniques and
consequently faces not only cell culture challenges but also scale-up limitations. To ensure …

Recent advancements in bioprinting techniques have enabled convenient fabrication of
micro-tissues in organ-on-a-chip platforms. In a sense, the success of bioprinted micro …

One of the obstacles to the potential clinical utility of bioengineered skeletal muscle is its
limited force generation capacity. Since engineered muscle, unlike most native muscle …

Tissue-engineered skeletal muscle can serve as a physiological model of natural muscle
and a potential therapeutic vehicle for rapid repair of severe muscle loss and injury. Here …

Graphene-based nanomaterials have received much attention in biomedical applications for
drug/gene delivery, cancer therapy, imaging, and tissue engineering. Despite the capacity of …

The engineering of functional skeletal muscle tissue substitutes holds promise for the
treatment of various muscular diseases and injuries. However, no tissue fabrication …

Myotubes assemble with bundles of myofibers to form the structural units in skeletal muscle.
Therefore, myotube formation plays an important role in restoring muscular functions, and …

The success of skeletal muscle reconstruction depends on finding the most effective,
clinically suitable strategy to engineer myogenic cells and biocompatible scaffolds. Satellite …

As the only striated muscle tissues in the body, skeletal and cardiac muscle share numerous
structural and functional characteristics, while exhibiting vastly different size and …