Bone disorders are of significant worry due to their increased prevalence in the median age.
Scaffold-based bone tissue engineering holds great promise for the future of osseous …

Aliphatic polyesters prepared by ring-opening polymerization of lactones are now used
worldwide as bioresorbabale devices in surgery (orthopaedic devices, sutures, stents, tissue …

The research and development of nanofibers has gained much prominence in recent years
due to the heightened awareness of its potential applications in the medical, engineering …

Periodontal disease is categorized by the destruction of periodontal tissues. Over the years,
there have been several clinical techniques and material options that been investigated for …

Poly (ethylene glycol)(PEG) hydrogels were investigated as encapsulation matrices for
osteoblasts to assess their applicability in promoting bone tissue engineering. Non-adhesive …

Background: The advent of osseointegration and advances in biomaterials and techniques
have contributed to increased application of dental implants in the restoration of partial and …

Engineering tissues utilizing biodegradable polymer matrices is a promising approach to the
treatment of a number of diseases. However, processing techniques utilized to fabricate …

Bone defects occur in a wide variety of clinical situations, and their reconstruction to provide
mechanical integrity to the skeleton is a necessary step in the patient's rehabilitation. The …

Bone formation was investigated in vitro by culturing stromal osteoblasts in three‐
dimensional (3‐D), biodegradable poly (DL‐lactic‐co‐glycolic acid) foams. Three polymer …

The two main components of a tissue engineered device are the transplanted cells and the
biomaterial, creating a device for the restoration or modification of tissue or organ function …