31 results about "Resistant infection" patented technology

A system and method for treating persister cells with an electrochemical process, alone or in combination with antibiotics. Weak electric currents are used to effectively eliminate persister cells and the efficacy can be further improved through synergistic effects with antibiotics. The method may be adapted for novel therapies of chronic infections and strategies to control persistent biofouling. The system has a broad spectrum applications in treating chronic and drug resistant infections, such as those caused by Pseudomonas aeruginosa, Mycobacterium tuberculosis and methicillin resistant Staphylococcus aureus, and may also be used for decontamination of medical devices.

A system and method for treating bacterial cells with an electrochemical process, alone or in combination with antibiotics. Weak electric currents are used to effectively eliminate bacterial cells. The method may be adapted for novel therapies of chronic infections and strategies to control persistent biofouling. The system has broad spectrum applications in treating chronic and drug resistant infections, such as those caused by Pseudomonas aeruginosa, Mycobacterium tuberculosis and methicillin resistant Staphylococcus aureus, and may also be used for decontamination of medical devices.

The present invention relates to compositions and methods for treating Staphylococcus aureus (S. aureus) infections. In particular, the present invention provides vaccines comprising a Panton- Valentine Leukocidin (PVL) antigen, antibodies which bind a PVL antigen and compositions containing the same, methods of making such compositions and methods for treating S. aureus infections, including those that are community acquired methicillin-resistant infections. The present invention also provides PVL antibodies, including PVL antibodies specific for a single PVL subunit, and PVL antigens, including conjugated and mutated PVL antigens.

The present disclosure provides for methods and compositions for the treatment and prevention of antibiotic-resistant infections or pathogen colonization in critically ill patients in the intensive care unit (ICU) or in other populations at high risk for such infections.

The invention relates to a chicken toxic Eimeria acervulina immunoregulation type DNA vaccine, which belongs to the technical field of biological veterinary medicines. The molecular biology technology is used for connecting toxic Eimeria sporozoite surface antigen NA4 genes and chIL-2 genes in series to construct a fusion expressing carrier pVAX-LDH-IL-2. The vaccine comprises the inserted toxic Eimeria sporozoite surface antigen NA4 genes and the chIL-2 genes. The vaccine comprises a plurality of T cell immune response elements, and has the advantages of high safety, long keeping time in bodies, simple preparation, good heat stability, convenient storage and transportation, time saving and labor saving when in use and the like, thus preventing and curing chicken coccidiosis effectively. Tests prove that the immunoregulation type DNA vaccine pVAX-NA4-IL-2 has good immune protection effect in coccidian resistant infections.

Formulations have been developed to treat or reduce the spread of respiratory infections, especially chronic or drug resistant infections, particularly tuberculosis (TB), severe acute respiratory syndrome (SARS), meningococcal meningitis, Respiratory syncytial virus (RSV), influenza, and small pox. Formulations include a drug or vaccine in the form of a microparticle, nanoparticle, or aggregate of nanoparticles, and, optionally, a carrier, which can be delivered by inhalation. Giving the drugs via an inhaler sidesteps the problems associated with oral or injectable drugs by bypassing the stomach and liver, and delivering the medication directly into the lungs. In one embodiment, the particle containing the agent is a large porous aerosol particle (LPPs). In another embodiment, the particles are nanoparticles, which can be administered as porous nanoparticle aggregates with micron diameters that disperse into nanoparticles following administration. Optionally, the nanoparticles are coated, such as with a surfactant or protein coating. The formulation may be administered as a powder or administered as a solution or via an enteral or non-pulmonary parenteral route of administration. The formulation is preferably administered as a pulmonary formulation. In the preferred embodiment for treatment of TB, the vaccine is a BCG vaccine that is stable at room temperature, or is an antibiotic effective against TB, such as capreomycin or PA-824, loaded at a very high percentage into the microparticles or nanoparticles. In one embodiment, a patient is treated with formulations delivering both antibiotic and vaccine.

The present invention provides a pharmaceutical composition comprising a probiotic and a prebiotic for preventing acquisition of and / or alleviating symptoms associated with an infection caused by an Extended-spectrum beta-lactamases (ESBL) producing organism and other drug resistant pathogens. More particularly, the pharmaceutical composition comprises at least one Lactillobacillus specie(s) as aprobiotic and at least one oligosaccharide as a prebiotic. The present invention further provides a method of preventing acquisition of and / or treating an infection caused by Extended-spectrum beta-lactamases (ESBL) producing bacteria and other drug resistant pathogens, comprising administering an effective amount of a pharmaceutical composition comprising a probiotic and a prebiotic to a subjectin need thereof.

The present document describes methods and uses of biophotonic compositions which comprise at least one oxidant and at least one chromophore capable of activating the oxidant, in association with a pharmacologically acceptable carrier for use in the treatment of skin and soft tissue wounds that have either or both non-resistant and resistant infections.

The present invention relates to the composition and method of preparing an immunogen designated as I-spga consisting of a complex antigen prepared from 18 to 26 species of pathogenic microorganisms isolated from patients, inactivated with binary ethyleneamine (BEI) and formalin, diluted in a SPGA immunopotentiator mixed with QS-21 adjuvant. By inoculating the hens with the I-spga immunogen, hyperimmune eggs (Immunospga) are obtained which contain immunologically active proteins specific to the 18-26 antigens used for immunization. The immune response of the hens is specific to the used antigens by amplification of the antigenic signal by the SPGA immunopotentiator and due to a special immunization program that allows the immune system to act complex and intense: The I-spga complex antigen contains 18-26 microorganisms isolated from patients, bacterial bodies, components from bodies obtained by ultrasonography, cilia, exotoxins, endotoxins, spores, viruses, fungi or yeasts. This pathogenic material is inactivated with BEI and formalin. The I-spga antigen is of three types. The standard I-spga antigen is composed of 18 to 24 antibiotic-resistant bacterial species isolated from patients in Romania. The specific I-spga complex antigen is composed of the I-spga complex antigen containing a mixture of 7-9 strains from a single species of bacteria, fungi or yeasts isolated from patients in Romania mixed with SPGA and QS-21, used for inoculation of hens previously immunized with standard I-spga antigen. The personalized I-spga antigen is composed of patient-derived pathological material containing cellular debris and pathogenic germs inactivated with BEI and formalin and mixed with SPGA and QS-21 and is used to immunize hens previously immunized with the standard I-spga antigen. This now patented technology encompasses a new generation of biological products in which the immune response of the hens to different groups of parenterally inoculated antigens at different time intervals is overlapping. Chicken response is uniform and additional administration of immunogens and SPGA as an immunopotentiator amplifies the antigenic signal and immune response. The I-spga immunogen as well as the immune response contain two markers, G and A, which identify the I-spga antigen used for immunization against the antigens used to produce the Imunoinstant group bio-preparations or similar products. The I-spga immunogen is used to immunize the hens for obtaining immunologically active proteins that can be used to treat immune deficiencies, psoriasis, epidermolysis bullosa, other dermatitises, nosocomial infections, antibiotic-resistant infections in the urinary system of children and grownups.

A new route is shown for at delivery in fighting drug resistant infections. Nanotubes and antibiotics and complexed non-covalently, with no chemical bonding, but through adsorption of antibiotics onto the nanotube surface governed by sufficiently strong molecular attraction between hydrophobic systems of the two. This allows the antibiotics to be freed from the nanotubes more easily as they reach the cell membrane. When antibiotics are introduced with nanotubes in this manner, bacterial resistance is mitigated by nanotube transport potentially into the membrane of the bacteria. Nanotubes used in this way help to overcome antibiotic resistance.

The invention belongs to the field of medicaments, and in particular relates to a pharmaceutical composition for treating invasive infection of Candida albicans echinocandin drug-resistant bacteria and application thereof. The active component of the pharmaceutical composition is composed of caspofungin and compound L-269289, and in vitro inhibits Echinocandin drug-resistant strains of Candida albicans, the caspofungin and compound L-269289 The mass ratio is 1:3~1:36; for the treatment of the invasive infection of Candida albicans echinocandins drug-resistant strains to mice, the mass ratio of the caspofungin and the compound L-269289 is 1:10. The present invention has verified in vitro experiments that the combined use of caspofungin and compound L‑269289 can effectively kill echinocandin drug-resistant strains of Candida albicans, and is suitable for treating echinocandin drugs of Candida albicans Invasive infection of mice by drug-resistant strains.