BMS’ advanced capabilities in tapering very fine fabrics to aortic geometries includes straight and bifurcated tubes supporting endovascular stent systems for abdominal aortic aneurysms, percutaneous coronary intervention stent procedures, and peripheral vascular grafts throughout the body.
Ask our engineers now to learn more about our textile engineering expertise in vascular grafts.
© 2010 biomedical structures | 60 Commerce Drive Warwick, RI 02886 | phone: 401.223.0990 | fax: 401.223.0943 | Privacy Policy | Modified Polymer Components | 
Follow us on Twitter
BMS is introducing unique uses for knitted and woven fabrics, as well as felt scaffolds, for cardiovascular applications. To aid not only in support and repair, but the re-growth of natural cells within the body for recovery from conditions affecting the heart and circulation, high-density, non-stretch biomaterials have become increasingly important to device design.
From sutures to slings, BMS' experience in developing high-quality bio-textiles for applications in general surgery is varied and deep. Whether designing high-strength and low creep sutures to aid in ease-of-use for surgeons, or surgical meshes for organ containment within the abdomen, an intimate knowledge of advanced textile engineering combined with anatomic applicability offers a proven track record of success in device development.
BMS' orthopedic expertise is based in extensive successful applications across a variety of procedures, repair and replacement devices, and re-growth systems that require strong but supple materials not only in the defect, but in the surrounding soft tissue areas where organ architecture and function are affected. Textiles from woven tapes to knitted meshes continue to help build next-generation orthopedic devices.
As obesity threatens to create more health problems than ever among an increasingly heavy population, bariatric devices and procedural instrumentation will demand a higher standard of development innovation to satisfy performance requirements and mimic natural body materials. BMS' fiber expertise extends to tissue knowledge and anatomic applicability for containment devices and other tools for weight-loss surgery and maintenance.
BMS' scaffolding technology is designed for the high surface area and multi-layer requirements of tissue engineering and regenerative medicine. Cellular ingrowth within these scaffolds is enabled by a high void volume and open architecture, both of which support cellular proliferation. The base polymer will then degrade and is replaced by natural tissue. These applications demand an advanced engineering approach to ensure fabric integrity and profile. Now an increasingly wide variety of applications from wound healing to stem cell development rely on medical textile production.
Cosmetic surgery demands high-quality repair and replacement capabilities for stressful procedures and reconstructive efforts, and BMS takes advantage of the lifelike properties of fiber to meet these demands. From high surface area to measured density, BMS’ engineering techniques can satisfy a host of procedural requirements, from minimally invasive procedures to fabric tissue support.
BMS' heritage of designing high-quality sutures extends to the veterinary market, where surgical tools require specific strengths and reliability. The specialized treatment for animals requiring surgery and subsequent implants means an experienced manufacturer is necessary to innovate upon solutions in order to deliver for the specifics of veterinary devices.
BMS is discovering new and innovative applicability for biomedical structures every day. Applications like dental implants and procedural components benefit from the variety of precise geometries and lifelike texture of the textiles that help build them. Versatility in shape, size and durability profiles help device OEMs in all sectors design fillers, implants, and other tools for every device challenge.