Fibers, yarns and fabrics containing Celliant® may help users recycle their energy.
IAA projects show the range of applications in the safety and protective fabrics market.
Suppliers of performance fabrics respond to wide-ranging inventory demands and customer needs.
Gore® Pyrad™ Flame Retardant is a new laminate technology that offers an optimal combination of thermal/flashover burn protection, environmental protection and comfort.
Bekaert Textiles has launched MediTiss® high-tech textile products designed for the healthcare and hospital market.
The Hohenstein Institute offers a new kind of fiber for white, antimicrobial and comfortable clothing suitable for health and food-preparation work.
A heartwarming movie about devising a prosthetic tail suitable for a dolphin has helped launch a new material, WintersGel™, that allows human amputees to wear their prostheses longer.
Fly-Bag is second line of defense for terrorist bomb plots or accidental explosions on aircraft.
Hohenstein assesses effect of protective clothing systems on surgeons’ performance.
The aerospace and aeronautics markets can offer long-term rewards for risk-taking fabricators.
The Spanish Ministry of Science and Innovation co-sponsors the INSEPLATEX project.
Self-cleaning cotton fabric claimed to kill bacteria and break down toxic chemicals.
iBag™ urine management bag, a part of the FDA-cleared iBag Systems.
Lenzing FR® and TENCEL® won two recent world championship titles.
TIEHH at Texas Tech University has made history for the TAPPI nonwovens division.
Of the 6 million bone fractures that occur each year, 10 percent exhibit insufficient healing due to improper fixation, metabolic disturbances or impaired blood supply. Such fractures are more likely to occur in the elderly population due to degenerative diseases including osteoporosis. With more than 20% of the population over the age of 65 by 2025, there is an urgent need for improved bone healing therapies.
Current treatment strategies such as bone grafts, metals, and bioceramics suffer from limitations related to availability, potential for disease transfer, compliance issues and fabrication challenges.
As an alternative to existing approaches, composite scaffolds fabricated from biodegradable polymers and bioceramic compounds aim to maximize the benefits while addressing the limitations of each component. These materials enable one to tailor the stiffness, porosity and degradation for specific patients or bone defect sites. Such composites have been generated using a variety of synthetic polymers and ceramics, but the contribution of the ceramic toward bone repair is more challenging to understand.