Poly-med, Inc.

Shawn Peniston

Shalaby Wahba Shalaby

Douglas D Greene

Michael Scott Taylor

Scott Taylor

Kimberly A Carpenter

Michael Aaron Vaughn

Georgios T Hilas

Sheila Nagatomi

Scott M Taylor

Absorbable composite medical devices such as surgical meshes and braided sutures, which display two or more absorption/biodegradation and breaking strength retention profiles and exhibit unique properties in different clinical settings, are made using combinations of at least two types of yarns having distinctly different physicochemical and biological properties and incorporate in the subject construct special designs to provide a range of unique properties as clinically useful implants.

Absorbable/biodegradable composite yarn constructs and applications thereof

A polymeric mesh is disclosed. The polymeric mesh comprises an absorbable polymeric fiber and a non-absorbable polymeric fiber knitted together to form an interdependent, co-knit mesh structure. Also disclosed are methods for making the polymeric mesh and methods for using the polymeric mesh.

Polymeric mesh products, method of making and use thereof

A family of selectively absorbable/biodegradable, fibrous composite constructs includes different combinations of biostable and absorbable/biodegradable yarns assembled as initially interdependent, load-bearing components, transitioning to exhibit independent functional properties during in vivo end-use. The family of constructs consists of two groups, one group is made of fiber-reinforced composites of high compliance, absorbable matrices of segmented polyaxial copolyesters reinforced with multifilament yarn constructs, which are combinations of ultrahigh molecular weight polyethylene fibers and at least one absorbable/biodegradable fiber selected from silk fibers and multifilament yarns made from linear segmented, l-lactide copolyesters and poly (3-hydroxyalkanoates, are useful in orthopedic, maxillofacial, urological, vascular, hernial repair and tissue engineering applications. The second group is made of coated and uncoated, warp-knitted mesh constructs for use in hernial, vascular, and urological tissue repair and tissue engineering.

Selectively absorbable/biodegradable fibrous composite constructs and applications thereof

Selectively absorbable/biodegradable, fibrous composite constructs and applications thereof

Absorbable / biodegradable composite yarn constructs and applications thereof

Absorbable/biodegradable composite yarns contain at least two types of fibrous components having distinctly different absorption and strength retention profiles and are useful in constructing surgical implants, such as sutures and meshes with integrated physicochemical and biological properties, wherein these properties are modulated through varying the individual yarn content and controlling the geometry of these constructs.

Absorbable/biodegradable composite yarns and property-modulated surgical implants therefrom

Absorbable, multiphasic, crystalline, solid blend compositions having at least two first order thermal transitions, are formed of a segmented l-lactide copolymer as the principal or major component and at least one additional crystalline thermoplastic absorbable polyester having glycolide-based sequences, a fraction of which participated in ester-ester interchange reactions with lactide-based sequences to produce crystalline materials with modulated properties for use in producing orthopedic and tissue-repair devices.

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Self-setting, absorbable bioactive polycyanoacrylate-based composites include at least one inorganic phosphate salt or a combination of at least one inorganic phosphate salt and calcium silicate in a cyanoacrylate matrix. The composites can be reinforced with single- or multicomponent absorbable, warp-knitted mesh, thus producing a broad range of absorbable, bioactive biomaterials suitable for use not only as preferred absorbable alternatives to the commercial non-absorbable polymethyl methacrylate bone cements, but also for repairing or replacing cranial and maxillofacial bone defects and other complex defects through guided bone regeneration.

Growing community of inventors

Easley, SC, United States of America

Shawn Peniston