Polymeric hydrogels are fascinating platforms as 3D scaffolds for tissue repair and delivery
systems of therapeutic molecules and cells. Among others, methacrylated gelatin (GelMA) …

Hydrogel is a three‐dimensional cross‐linked hydrophilic network that can imbibe a large
amount of water inside its structure (up to 99% of its dry weight). Due to their unique …

Hydrogels as artificial biomaterial scaffolds offer a much favoured 3D microenvironment for
tissue engineering and regenerative medicine (TERM). Towards biomimicry of the native …

Extremity skeletal muscle injuries result in substantial disability. Current treatments fail to
recoup muscle function, but properly designed and implemented tissue engineering and …

Poor cellular spreading, proliferation, and infiltration, due to the dense biomaterial networks,
have limited the success of most thick hydrogel-based scaffolds for tissue regeneration …

The field of tissue engineering has numerous potential for modified therapeutic results and
has been inspired by enhancements in bioengineering at the recent decades. The …

Although the use of bioactive ions and proteins are crucial for bone defect repair, delivering
them in a stable and controlled manner remains challenging. To achieve controlled delivery …

Nanotechnology has emerged as the eminent focus of today's research to overcome
challenges related to conventional drug delivery systems. A wide spectrum of novel delivery …

Hydrogels are emerging as a potential material for tissue engineering. However, weak
mechanical strength is limiting its application in many diversified fields that includes tissue …

Hydrogels, with a three-dimensional (3D) hydrophilic polymeric structure, popularly known
as “aqua gels”, are cross-linked together via covalent interactions, hydrogen bonding, ionic …