Abstract: The direct, concentrated local delivery of antibodies, and pooled human immunoglobulins in particular, to tissue surfaces (e.g., wounds, burns, etc.), and biomaterial implant surfaces significantly decreases the rate of infection at those sites and enhances healing. The immunoglobulins serve to opsonize circulating infectants for phagocytosis and killing, prior to microbial adhesion and biofilm formation, and neutralize bacterial toxins. The treatment methodology results in reduced inflammation, reduced complement and tissue damage, and reduced rejection of biomaterials and transplants.

Abstract: A non-specific host defense cell augmentation technique for enhanced microorganism killing utilizes any phagocytosable particle to prime macrophages for enhanced oxidative response and bacterial killing. The phagocytosable particles should be administered at the time of exposure to contagion, or one day prior to or up to 6-12 hours after exposure. Administration can be performed by any suitable means which will bring the particles quickly into contact with the blood stream where they will encounter phagocytes and cause priming of the patient's macrophages. The augmentation technique provides for non-specific cellular immunity from a wide range of contagion.

Abstract: The direct, concentrated local delivery of antibodies, and pooled human immunoglobulins in particular, to tissue surfaces (e.g., wounds, burns, etc.), and biomaterial implant surfaces significantly decreases the rate of infection at those sites and enhances healing. The immunoglobulins serve to opsonize circulating infectants for phagocytosis and killing, prior to microbial adhesion and biofilm formation, and neutralize bacterial toxins. The treatment methodology results in reduced inflammation, reduced complement and tissue damage, and reduced rejection of biomaterials and transplants.

Abstract: A non-specific host immune cell augmentation composition for enhanced microorganism killing utilizes any phagocytosable, biocompatible particle to prime macrophages for enhanced oxidative response and bacterial killing. Patients can have the benefits of primed macrophages in one to four days, and experiments have demonstrated over a 100-fold increase in oxidative potential within this time period. The oxidative response and killing potential is non-immunospecific, meaning not one organism, not a vaccine, and broadly applicable simultaneously to bacteria and viruses as well as tumor cells. The effects have been demonstrated to have a seven day duration to have a seven day duration indicating non-tissue toxic residual effects and potential for repeated use at monthly intervals.

Abstract: A non-specific host defense cell augmentation technique for enhanced microorganism killing utilizes any phagocytosable particle to prime macrophages for enhanced oxidative response and bacterial killing. The phagocytosable particles should be administered at the time of exposure to contagion, or one day prior to or up to 6-12 hours after exposure. Administration can be performed by any suitable means which will bring the particles quickly into contact with the blood stream where they will encounter phagocytes and cause priming of the patient's macrophages. The augmentation technique provides for non-specific cellular immunity from a wide range of contagion.

Abstract: Compositions containing a high concentration of the full repertoire of immunoglobulins, including IgA, IgM and IgG, are used to combat infections from microorganisms and viruses at a wound, surgical, or burn site, or normal tissue at times of risk of infection. The compositions can contain elevated antibody titers for several specific pathogens including S. aureus, CNS, Enterococci, S. epidermidis, P. aeruginosa, E. coli, and Enterobacter spp., etc. The compositions are applied directly to a wound or burn site as an ointment, creme, fluid, spray, or the like, prior to viral or bacterial attachment or biofilm formation such that adhesion of the pathogens is inhibited and the pathogens closest to the wound or burn site will be pre-opsonized for phagocytic killing prior to toxin release.

Abstract: Compositions containing a high concentration of the full repertoire of immunoglobulins, including IgA, IgM and IgG, are used to combat infections from microorganisms and viruses at a wound, surgical, or burn site, or normal tissue times of risk of infection. The compositions can contain elevated antibody titers for several specific pathogens including S. aureus, Coagulase Negative Staphylococci Enterococci, S. epidermidis, P. aeruginosa, E. coli, and Enterobacter spp., etc. The compositions are applied directly to a wound or burn site as an ointment, creme, fluid, spray, or the like, prior to viral or bacterial attachment or biofilm formation such that adhesion of the pathogens is inhibited and the pathogens closest to the wound or burn site will be pre-opsonized for phagocytic killing prior to toxin release.

Abstract: A non-specific host defense cell augmentation technique for enhanced microorganism killing utilizes any phagocytosable, biocompatible particle to prime macrophages for enhanced oxidative response and bacterial killing. Patients can have the benefits of primed macrophages in one to four days, and experiments have demonstrated over a 100-fold increase in oxidative potential within this time period. The oxidative response and killing potential is non-immunospecific, meaning not one organism, not a vaccine, and broadly applicable simultaneously to bacteria and viruses as well as tumor cells. The effects have been demonstrated to have a seven day duration indicating non-tissue toxic residual effects and potential for repeated use at monthly intervals.

Abstract: The prosthesis includes two components having biocompatible metal balls at one end thereof. The radial component is secured by an affixation to the distal radius. The metacarpel component is implanted by a pair of affixation stems into the second and third metacarpel bones of the hand. The balls are rotatably captured between a pair of cutout plastic spheroidal blocks clamped together by a biocompatible metal shell, which is spacially compatible within the wrist area.

Abstract: Means for affixing the scapular component of a shoulder prosthesis to the bony structure of the shoulder includes a T-shaped stem extending from a flange on the device. The stem has a substantially narrow or thin web having one side longer than the other, which disposes the base at an acute angle relative to the flange, such as approximately 15.degree.. The elongated base and the web are inserted through the bony structure with the flange in contact with outer regions. The base and web are cemented within the bone to securely anchor the prosthesis to the bone between them and the flange.

Abstract: Biocompatible metal balls are secured by affixation stems to the humerus and the scapular region of the shoulder. The balls are rotatably captured between a pair of cutout plastic hemispheres, which are secured to each other to form a spheroid by a metal shell. The prosthesis accordingly provides a wide range of articulation with substantially high stability.

Abstract: Biocompatible metal balls are secured by affixation stems to the humerus and the scapular region of the shoulder. The balls are rotatably captured between a pair of cutout plastic hemispheres, which are secured to each other to form a spheroid by a U-shaped collar. The prosthesis accordingly provides a wide range of articulation with substantially high stability.