Abstract Recent improvements in Selective Laser Sintering (SLS) technology have prompted
researchers to examine the fabrication method as a solution for patient-specific orthopedic …

In selective laser sintering (SLS), process parameters are essential to fabricate outstanding
mechanical properties products. In this research, process parameters of porous Polyamide …

Purpose Scaffolds are essentially required to have open porous structure for facilitating
bone to grow. They are generally placed on those bone defective/fractured sites which are …

Development of synthetic bone graft via bone tissue engineering involves seeding of
patient's stem cells onto a porous scaffold in presence of growth factors. Porosity, strength …

This paper investigates the applicability of selective laser sintering (SLS) for the manufacture
of scaffold geometries for bone tissue engineering applications. Porous scaffold geometries …

In the recent past, Bone tissue engineering (BTE) has become a potentially effective solution
for repairing bone defects. In the meantime, various fields, such as material science, additive …

Additive manufacturing is revolutionizing the field of medical sciences through its key
application in the development of bone scaffolds. During scaffold fabrication, achieving a …

Selective laser sintering (SLS) applications are rapidly growing in various sectors such as
automobile, aeronautics, biomedical and custom consumer products. The properties of SLS …

Purpose–Hydroxyapatite‐polymer composite materials are being researched for the
development of low‐load bearing implants because of their bioactive and osteoconductive …

Abstract Selective Laser Sintering (SLS) is an additive manufacturing technique that enables
final products to be processed without additional machining. SLS permits the fabrication of …