Abstract: The present invention relates to an iron-based alloy that is able to provide a coating on a substrate, the coating having simultaneously high hardness and wear resistance. The iron-based alloy consists of 3.0-7.0% by weight Cr; 1.3-3.0% by weight C; 0.2-2.0% by weight B; 2.0-10.0% by weight V; optionally 1.5% by weight or less Si; optionally 1.0% by weight or less Mn, optionally 2.0% by weight or less Mo; optionally 1.5% by weight or less Ni; the balance being Fe and unavoidable impurities. The present invention further relates to an article comprising a substrate and coating formed thereon, the coating being formed from the alloy, and to a method for forming a coated article. The method preferably employs HVOF, laser cladding or plasma cladding.

Abstract: An iron-based alloy that is able to provide a coating on a substrate, the coating having simultaneously high hardness, corrosion resistance and bonding strength to the substrate. The iron-based alloy has 16.00-20.00% by weight Cr; 0.20-2.00% by weight B; 0.20-4.00% by weight Ni; 0.10-0.35% by weight C; 0.10-4.00% by weight Mo; optionally 1.50% by weight or less Si; optionally 1.00% by weight or less Mn, optionally 3.90% by weight or less Nb; optionally 3.90% by weight or less V; optionally 3.90% by weight or less W; and optionally 3.90% by weight or less Ti; the balance being Fe and unavoidable impurities; with the proviso that the total amount of Mo, Nb, V, W and Ti is in the range of 0.1-4.0% by weight of the alloy.

Abstract: The present invention relates to an iron-based alloy that is able to provide a coating on a substrate, the coating having simultaneously high hardness and wear resistance. The iron-based alloy consists of 3.0-7.0% by weight Cr; 1.3-3.0% by weight C; 0.2-2.0% by weight B; 2.0-10.0% by weight V; optionally 1.5% by weight or less Si; optionally 1.0% by weight or less Mn, optionally 2.0% by weight or less Mo; optionally 1.5% by weight or less Ni; the balance being Fe and unavoidable impurities. The present invention further relates to an article comprising a substrate and coating formed thereon, the coating being formed from the alloy, and to a method for forming a coated article. The method preferably employs HVOF, laser cladding or plasma cladding.

Abstract: An iron-based alloy that is able to provide a coating on a substrate, the coating having simultaneously high hardness, corrosion resistance and bonding strength to the substrate. The iron-based alloy has 16.00-20.00% by weight Cr; 0.20-2.00% by weight B; 0.20-4.00% by weight Ni; 0.10-0.35% by weight C; 0.10-4.00% by weight Mo; optionally 1.50% by weight or less Si; optionally 1.00% by weight or less Mn, optionally 3.90% by weight or less Nb; optionally 3.90% by weight or less V; optionally 3.90% by weight or less W; and optionally 3.90% by weight or less Ti; the balance being Fe and unavoidable impurities; with the proviso that the total amount of Mo, Nb, V, W and Ti is in the range of 0.1-4.0% by weight of the alloy.

Abstract: A sol-gel bioactive glass precursor, method for making sol-gel glasses, resultant sol-gel bioactive glasses, and methods of use thereof, which include introducing Na2O into the glass network during the sol-gel process through the use of Na-ethoxide, NaCl, or sodium silicate rather than sodium nitrate. Medical and industrial uses of such glasses.

Abstract: A sol-gel bioactive glass precursor, method for making sol-gel glasses, resultant sol-gel bioactive glasses, and methods of use thereof, which include introducing Na2O into the glass network during the sol-gel process through the use of Na-ethoxide, NaCI, or sodium silicate rather than sodium nitrate. Medical and industrial uses of such glasses.

Abstract: A sol-gel bioactive glass precursor, method for making sol-gel glasses, resultant sol-gel bioactive glasses, and methods of use thereof which include introducing Na2O into the glass network during the sol-gel process through the use of Na-ethoxide, NaCl, or sodium silicate rather than sodium nitrate. Medical and industrial uses of such glasses.

Abstract: Compositions including hyaluronic acid or derivative thereof, a borate containing crosslinking agent, a di or polyvalent metal ion, and, optionally, one or more of N-hydroxysuccinimide, and/or a cationic monomer, oligomer, or polymer selected from the group consisting of hydroxylysine, poly(N-methylethylamine), ?-poly-lysine, or polyamine, or a combination thereof are described. Also, methods for making a bioresorbable tissue repair composition and methods of correcting, sealing, connecting or repairing tissue by contacting the tissue with the bioresorbable tissue repair composition are described.

Abstract: A composition including calcium salt and silica, wherein the silica is in the form of a silicate that is adsorbed onto the surface of the calcium salt, wherein the silica is not incorporated into the structure of the calcium salt, and wherein the composition is bioactive.

Abstract: The invention relates to bioactive glass compositions that include bioactive glass with surface immobilized peptides and methods and uses thereof.

Abstract: Bone repair composition including a bone repair material suspended in a mixture of non-random poly(oxyalkylene) block copolymer and water exhibiting reverse phase behavior when the temperature increases from room temperature to body temperature. There are many materials used today for the repair and regeneration of bone defects. Bone is a composite of collagen, cells, calcium hydroxyapatite crystals, and small quantities of other proteins of organic molecules that has unique properties of high strength, rigidity, and ability to adapt to varying loads.

Abstract: Compositions including crosslinked collagen and bioactive glass having an average pore size of at least 100 microns and methods of preparation thereof.

Abstract: An irrigation resistant bone repair composition including a biocompatible or bioactive bone repair material and a mixture of non-random poly(oxyalkylene) block copolymers is described. Also, methods for treating a bone having a bone gap or a bone defect with the composition including a biocompatible or bioactive bone repair material and a mixture of non-random poly(oxyalkylene) block copolymers are also provided. Also, kits including the irrigation resistant bone repair composition including a biocompatible or bioactive bone repair material and a mixture of non-random poly(oxyalkylene) block copolymers are described.

Abstract: A sol-gel bioactive glass precursor, method for making sol-gel glasses, resultant sol-gel bioactive glasses, and methods of use thereof, which include introducing Na2O into the glass network during the sol-gel process through the use of Na-ethoxide, NaCl, or sodium silicate rather than sodium nitrate. Medical and industrial uses of such glasses.

Abstract: A sol-gel bioactive glass precursor, method for making sol-gel glasses, resultant sol-gel bioactive glasses, and methods of use thereof which include introducing Na2O into the glass network during the sol-gel process through the use of Na-ethoxide, NaCl, or sodium silicate rather than sodium nitrate. Medical and industrial uses of such glasses.

Abstract: A sol-gel bioactive glass precursor, method for making sol-gel glasses, resultant sol-gel bioactive glasses, and methods of use thereof which include at least 5 weight percent CaO, at least 10 weight percent P2O5, at least 10 weight percent Na2O, and at least 25 weight percent B2O3, wherein the bioactive glass is substantially silica-free. Medical and industrial uses of such glasses.

Abstract: The present invention relates to combination products including bioactive glass and collagen as well as kits comprising the same.

Abstract: Compositions including crosslinked collagen and bioactive glass having an average pore size of at least 100 microns and methods of preparation thereof.

Abstract: A composition including calcium salt and silica, wherein the silica is in the form of a silicate that is adsorbed onto the surface of the calcium salt, wherein the silica is not incorporated into the structure of the calcium salt, and wherein the composition is bioactive.