Piezoelectricity in native bones has been well recognized as the key factor in bone
regeneration. Thus, bio-piezoelectric materials have gained substantial attention in repairing …

Piezoelectric devices integrated into physiological systems can be used effectively for
biomedical applications such as sensing biological forces, self-powering biomedical …

Bone tissue engineering uses various methods and materials to find suitable scaffolds that
regenerate lost bone due to disease or injury. Poly (ε-caprolactone)(PCL) can be used in 3D …

The use of biodegradable polymers in tissue engineering has been widely researched due
to their ability to degrade and release their components in a controlled manner, allowing for …

The utilization of micronano composite scaffolds has been extensively demonstrated to
confer the superior advantages in bone repair compared to single nano-or micron-sized …

Biocompatible ceramics are extremely important in bioengineering, and very useful in many
biomedical or orthopedic applications because of their positive interactions with human …

Purpose Biopiezoelectric materials have good biocompatibility and excellent piezoelectric
properties, and they can generate local currents in vivo to restore the physiological electrical …

Biocompatible and electrically conductive porous scaffolds with a desirable hydrophilicity
and degradation rate and suitable mechanical performance are highly favorable for tissue …

The field of tissue engineering involves various methodologies employed to improve or
replace biological tissues with extracellular matrices (ECMs). Significant progress has been …

Poly (ε-caprolactone)(PCL)/hydroxyapatite (HAP) composites represent a novel material
with desired properties for various applications. In this work, PCL/HAP composites at low …