Neuronal disorders are characterized by the loss of functional neurons and disrupted
neuroanatomical connectivity, severely impacting the quality of life of patients. This study …

The internal electric field of the human body plays a crucial role in regulating various
biological processes, such as, cellular interactions, embryonic development and the healing …

Carbon-based nanomaterials have shown great promise in regenerative medicine because
of their unique electrical, mechanical, and biological properties; however, it is still difficult to …

Scaffold development for hosting progenitor and stem cells for tissue and regenerative
engineering applications necessitates engineering of biomaterials to mimic the specific …

Background The development of tissue-engineered scaffolds with electrical properties is the
primary motivation of novel regenerative medicine. Electroconductive scaffolds are designed …

Electrical stimulation is a primary method to repair or restore neurological functions. In this
regard, we describe the underlying strategy, chemical/structural design, and gifted attributes …

Inflammatory reactions, such as encapsulation of implanted electrodes by scar tissues and
gradual degradation of neurons, are the key problems for neural tissue interfacing. These …

It is often assumed that carbon nanotubes (CNTs) stimulate neuronal differentiation by
transferring electrical signals and enhancing neuronal excitability. Given this, CNT–hydrogel …

The radical treatment of neurological impairments remains a major clinical challenge. Stem
cells with high neural differentiation ability delivered by electroconductive hydrogel scaffolds …

A biocompatible porous scaffold obtained via electrospinning a nanocomposite solution of
poly (l-lactic acid) and 4-methoxyphenyl functionalized multi-walled carbon nanotubes is …