Military body armor and personal protective gear will be a $1.07 billion market in 2012.
E-textile technology for personal safety and health applications will provide smart garments.
Injury-reducing products in the sports and recreation market are becoming lighter, thinner, less cumbersome and more customized.
Fabric embedded with flexible circuitry, antennas and power sources will revolutionize 21st century.
An IFAI survey shows increasing profit potential in the safety and technical markets.
Smart textiles and wearable technology poised for rapid growth; power sources, laundering to be resolved.
Bruin Plastics Co. Inc. offers VCM High Visibility and CM FR with Biocide Additives.
Fair taking place May 7-9, 2012 at Hong Kong Convention and Exhibition Center.
Cheryl Gomes tracks quality and reliability from process through life-saving product.
Medical textiles meet the growing need for protection and comfort in health care apparel.
Insect Shield used its new process on cadet uniforms to prevent Lyme disease.
Force FR vinyl-coated polyester is designed for use in military soft-sided shelters.
Dyneema Purity® fiber technology from Royal DSM NV will serve as a support scaffold for a prototype heart valve replacement developed by the University Medical Center.
Expanded product lines and new performance requirements drive growth in industrial applications.
Adaptive allows fabrics to effectively read and respond to the wearer’s body temperature and moisture levels.
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.