Abstract:
The present invention provides synthetic cell platforms. The synthetic cell platforms can be used for culturing cells in vitro. The synthetic cell platforms can also be implanted together with bound cells into an individual. The present invention provides methods of using the platforms to provide cells or progeny of such cells for use in various applications, including clinical applications; and methods of use of the platforms to introduce cells into an individual.
Abstract:
The present invention provides an antibody-immobilized carrier that can be used in antibody screening, a method of producing the antibody-immobilized carrier, and use of the antibody-immobilized carrier. Efficient antibody screening can be carried out particularly by an antibody-immobilized carrier including two or more antibody immobilized regions onto each of which a heavy-chain low-molecular-weight antibody and a light-chain low-molecular-weight antibody are separately immobilized, the two or more antibody immobilized regions each being included in an independent manner, the heavy-chain low-molecular-weight antibody including a heavy-chain variable region, the light-chain low-molecular-weight antibody including a light-chain variable region, the heavy-chain low-molecular-weight antibody and the light-chain low-molecular-weight antibody each being derived from an antibody recognizing a different antigen.
Abstract:
The invention relates to methods for coating a substrate with at least one monolayer of self-assembling proteins, using stabilized aqueous solutions with self-assembling proteins, and also to substrates obtainable as a result. Methods for stabilizing solutions with self-assembling proteins, and the stabilized solutions obtainable therefrom, are likewise provided by the invention. According to the coating method, at least one monolayer of a self-assembling protein is produced on a substrate by first providing a stabilized aqueous solution which comprises at least one self-assembling protein. To provide the coating solution, protein units aggregated from an aqueous solution of self-assembling proteins are separated off, and addition of a solution of ionic surfactants and/or of a salt-containing and/or alkaline and/or acidic solution to the protein-containing coating solution generates monomers or oligomers of the self-assembling proteins, and stabilizes them, the amount of ionic surfactant added being such that only the surface-active part of each active protein monomer or predominant protein oligomer is enveloped by surfactant particles. A substrate surface is then brought into contact with the stabilized, protein-containing solution, thus producing a protein-containing coating on the substrate. The supernatant solution is removed from the coated substrate and/or the coated substrate is dried.
Abstract:
The presently disclosed subject matter relates to peptides having binding affinity for glycopeptide antibiotics and methods and compositions for delivering glycopeptide antibiotic to the surface of medical devices. The peptide compositions can comprise a peptide having binding affinity for a surface material of a medical device that is coupled to the peptide having binding affinity for glycopeptide antibiotic. Also provided are methods of applying the peptide compositions to a medical device by contacting the peptide compositions with a surface of the medical device. In addition, kits are provided comprising the peptide compositions.
Abstract:
The present invention provides synthetic cell platforms. The synthetic cell platforms can be used for culturing cells in vitro. The synthetic cell platforms can also be implanted together with bound cells into an individual. The present invention provides methods of using the platforms to provide cells or progeny of such cells for use in various applications, including clinical applications; and methods of use of the platforms to introduce cells into an individual.
Abstract:
The invention relates to a composition for the treatment of various cancers. The composition is a vaccine containing sequences of EDB, EDA, annexin A1, endosialin, C domain of tenascin C or magic roundabout (MR) or fragments thereof as single or in a combination coupled to one or several heterologous foreign carrier molecules. The vaccine will produce antibodies that are directed against self proteins which are preferentially expressed in and around tumor vessels. The vaccine is preferably administrated together with an adjuvant.
Abstract:
Peptides and conjugates thereof comprising one or more bioactive agents which can be coupled to a tissue via a transglutaminase and related methods.
Abstract:
The present invention provides for engineered molecular opsonins that may be used to bind biological pathogens or identify subclasses or specific pathogen species for use in devices and systems for treatment and diagnosis of patients with infectious diseases, blood-borne infections or sepsis. An aspect of the invention provides for mannose-binding lectin (MBL), which is an abundant natural serum protein that is part of the innate immune system. The ability of this protein lectin to bind to surface molecules on virtually all classes of biopathogens (viruses, bacteria, fungi, protozoans) make engineered forms of MBL extremely useful in diagnosing and treating infectious diseases and sepsis.
Abstract:
The present invention relates to a chromatography ligand, which comprises Domain C from Staphylococcus protein A (SpA), or a functional fragment or variant thereof. The chromatography ligand presents an advantageous capability of withstanding harsh cleaning in place (CIP) conditions, and is capable of binding Fab fragments of antibodies. The ligand may be provided with a terminal coupling group, such as arginine or cysteine, to facilitate its coupling to an insoluble carrier such as beads or a membrane. The invention also relates to a process of using the ligand in isolation of antibodies, and to a purification protocol which may include washing steps and/or regeneration with alkali.