Abstract: Implantable medical devices having galvanic particulates are disclosed. The particulate may be coated onto at least part of a surface of the medical device. In addition, the galvanic particulates may be contained in the material used to manufacture the antimicrobial medical devices, or may be embedded into the surface of the medical devices. The present invention also provides novel coating methods and processing methods. The present invention further provides a combination of galvanic particulates with an aqueous gel, a method of making this combination, and a method of treatment using this combination. The devices and compositions may have advantageous characteristics and effects including anti-microbial, anti-inflammatory, tissue regeneration promoting, and pain reduction or elimination.

Abstract: We have disclosed affinity peptides toward infliximab. More specifically we have disclosed an affinity biomatrix where the affinity peptide is covalently attached to a biocompatible, biodegradable polymer. The affinity biomatrix is useful in preparing controlled release devices for infliximab.

Abstract: We have disclosed affinity peptides toward BMP-2. More specifically we have disclosed an affinity biomatrix where the affinity peptide is covalently attached to a biocompatible, biodegradable polymer. The affinity biomatrix is useful in preparing controlled release devices for BMP-2.

Abstract: We have disclosed affinity peptides toward infliximab. More specifically we have disclosed an affinity biomatrix where the affinity peptide is covalently attached to a biocompatible, biodegradable polymer. The affinity biomatrix is useful in preparing controlled release devices for infliximab.

Abstract: Implantable medical devices having galvanic particulates are disclosed. The particulate may be coated onto at least part of a surface of the medical device. In addition, the galvanic particulates may be contained in the material used to manufacture the antimicrobial medical devices, or may be embedded into the surface of the medical devices. The present invention also provides novel coating methods and processing methods. The present invention further provides a combination of galvanic particulates with an aqueous gel, a method of making this combination, and a method of treatment using this combination. The devices and compositions may have advantageous characteristics and effects including anti-microbial, anti-inflammatory, tissue regeneration promoting, and pain reduction or elimination.

Abstract: Implantable medical devices having galvanic particulates are disclosed. The particulates may be coated onto at least part of a surface of the medical device. In addition, the galvanic particulates may be contained in the material used to manufacture the antimicrobial medical devices, or may be embedded into the surface of the medical devices. The present invention also provides novel coating methods and processing methods. The present invention further provides a combination of galvanic particulates with an aqueous gel, a method of making this combination, and a method of treatment using this combination. The devices and compositions may have advantageous characteristics and effects including anti-microbial, anti-inflammatory, tissue regeneration promoting, and pain reduction or elimination.

Abstract: We have disclosed affinity peptides toward BMP-2. More specifically we have disclosed an affinity biomatrix where the affinity peptide is covalently attached to a biocompatible, biodegradable polymer. The affinity biomatrix is useful in preparing controlled release devices for BMP-2.

Abstract: Methods for prophylactically or therapeutically treating severe pneumonia involve administration of tissue factor pathway inhibitor (TFPI) or a TFPI analog to patients suffering from or at risk of developing this condition. The methods involve the use of continuous intravenous infusion of TFPI or a TFPI analog, preferably at low doses to avoid adverse side effects.

Abstract: A method for prophylactically or therapeutically treating sepsis or septic shock is described, wherein an inhibitor to tissue factor is administered to septic patients. Additionally, a method for treating inflammation is described wherein the inhibitor is administered to patients. This inhibitor is termed lipoprotein associated coagulation inhibitor, or commonly LACI. It is 38 kD and has 276 amino acids. LACI has now been shown to be useful for the treatment of sepsis, septic shock and inflammation.

Abstract: Methods of treatment and prevention of diseases associated with release of neutrophil elastase and IL-8 by administration of TFPI and analogs of TFPI are disclosed. Methods of determining efficacy of treatment with TFPI, patient's responsiveness to treatment with TFPI, and the ultimate determination of patient prognosis are also disclosed.

Abstract: Methods for prophylactically or therapeutically treating severe pneumonia involve administration of tissue factor pathway inhibitor (TFPI) or a TFPI analog to patients suffering from or at risk of developing this condition. The methods involve the use of continuous intravenous infusion of TFPI or a TFPI analog, preferably at low doses to avoid adverse side effects.

Abstract: Methods of treatment and prevention of diseases associated with release of neutrophil elastase and IL-8 by administration of TFPI and analogs of TFPI are disclosed. Methods of determining efficacy of treatment with TFPI, patient's responsiveness to treatment with TFPI, and the ultimate determination of patient prognosis are also disclosed.

Abstract: A method for prophylactically or therapeutically treating sepsis or septic shock is described, wherein an inhibitor to tissue factor is administered to septic patients. Additionally, a method for treating inflammation is described wherein the inhibitor is administered to pateints. This inhibitor is termed lipoprotein associated coagulation inhibitor, or commonly LACI. It is 38 kD and has 276 amino acids. LACI has now been shown to be useful for the treatment of sepsis, septic shock and inflammation.

Abstract: A method for the production of Tissue Factor Pathway Inhibitor (TFPI) and Tissue Factor Pathway Inhibitor 2 (TFPI-2), and muteins thereof is disclosed wherein the protein is retained within a yeast cell during growth of the yeast cell and recovered from an insoluble fraction prepared from yeast cells containing the protein.

Abstract: Chimeric proteins possessing Kunitz-type domain 1 of TFPI-2 and Kunitz-type domain 2 of TFPI are disclosed, as are muteins of TFPI and TFPI-2. Nucleic acid sequences, expression vectors and transformed host cells encoding and capable of producing the disclosed chimeric proteins and muteins are also disclosed. Finally, methods for prevention and treatment of septic shock using the chimeric proteins and muteins are disclosed.

Abstract: Chimeric proteins possessing Kunitz-type domain 1 of TFPI-2 and Kunitz-type domain 2 of TFPI are disclosed, as are muteins of TFPI and TFPI-2. Nucleic acid sequences, expression vectors and transformed host cells encoding and capable of producing the disclosed chimeric proteins and muteins are also disclosed. Finally, methods for prevention and treatment of septic shock using the chimeric proteins and muteins are disclosed.

Abstract: Methods of treatment and prevention of diseases associated with release of neutrophil elastase and IL-8 by administration of TFPI, and analogs of TFPI are disclosed. Methods of determining efficacy of treatment with TFPI, patient's responsiveness to treatment with TFPI and the ultimate determination of patient prognosis are also disclosed.

Abstract: A method for prophylactically or therapeutically treating sepsis or septic shock is described, wherein an inhibitor to tissue factor is administered to septic patients. Additionally, a method for treating inflammation is described wherein the inhibitor is administered to pateints. This inhibitor is termed lipoprotein associated coagulation inhibitor, or commonly LACI. It is 38 kD and has 276 amino acids. LACI has now been shown to be useful for the treatment of sepsis, septic shock and inflammation.

Abstract: Methods for prophylactically or therapeutically treating severe pneumonia involve administration of tissue factor pathway inhibitor (TFPI) or a TFPI analog to patients suffering from or at risk of developing this condition. The methods involve the use of continuous intravenous infusion of TFPI or a TFPI analog, preferably at low doses to avoid adverse side effects.

Abstract: Methods for prophylactically or therapeutically treating sepsis or septic shock involve administration of tissue factor pathway inhibitor (TFPI) or a TFPI analog to patients suffering from sepsis or other inflammatory conditions. The methods involve the use of continuous intravenous infusion of TFPI or a TFPI analog at low doses to avoid adverse side effects.