Abstract: An isolated DNA molecule has the sequence of encoding a fragment of encoding Tumor Necrosis Factor (TNF) Binding Protein II. It has a length sufficient to serve as an immunogen for raising antibodies against a polypeptide that is a fragment of TNF Binding Protein II. The DNA may be used to produce replicable expression vehicles and prokaryotic or eukaryotic expression host cells. Such host cells may be used to produce polypeptides encoded by such DNA molecules.

Abstract: Recombinant DNA encoding Tumor Necrosis Factor (TNF) Inhibitory Protein, or an active fragment thereof, is obtained. The TNF Inhibitory Protein has the ability to inhibit: (a) the binding of TNF to its receptors, and (b) the cytotoxic effect of TNF. TNF Inhibitory Protein and salts, functional derivatives and active fractions thereof can be used to antagonize the deleterious effects of TNF by eliminating TNF from the body, and to reduce the cytotoxic activity of TNF by binding to TNF and thereby to inhibit the binding of TNF to its receptors. The DNA may be in an expression vector. Host cells transfected with such an expression vector may be used to produce the TNF Inhibitory Protein.

Abstract: The bioactivity of TNF is inhibited by administering heparin or a derivative thereof along with a soluble TNF receptor. The heparin or derivative thereof can be administered simultaneously with the soluble TNF receptor, either in separate compositions or in compositions containing both heparin or a derivative thereof and at least one soluble TNF receptor. The heparin or derivative may also be administered without the soluble TNF receptor and still effect some amount of inhibition of TNF bioactivity.

Abstract: Tumor Necrosis Factor (TNF) Binding Protein is isolated and substantially purified. It has the ability to inhibit the cytotoxic effect of TNF and/or to maintain its prolonged beneficial effects. Isolated cDNA encoding TNF Binding Protein II is obtained and may be used to produce expression vectors, prokaryotic or eukaryotic expression hosts and methods of obtaining the protein by culturing of such hosts.

Abstract: Tumor Necrosis Factor (TNF) Inhibitory Protein is isolated and substantially purified. It has the ability to inhibit: (a) the binding of TNF to its receptors, and (b) the cytotoxic effect of TNF. TNF Inhibitory Protein and salts, functional derivatives and active fractions thereof can be used to antagonize the deleterious effects of TNF.

Abstract: Recombinant DNA encoding Tumor Necrosis Factor (TNF) Inhibitory Protein, or an active fragment thereof, is obtained. The TNF Inhibitory Protein has the ability to inhibit: (a) the binding of TNF to its receptors, and (b) the cytotoxic effect of TNF. TNF Inhibitory Protein and salts, functional derivatives and active fractions thereof can be used to antagonize the deleterious effects of TNF by eliminating TNF from the body, and to reduce the cytotoxic activity of TNF by binding to TNF and thereby to inhibit the binding of TNF to its receptors. The DNA may be in an expression vector. Host cells transfected with such an expression vector may be used to produce the TNF Inhibitory Protein.

Abstract: Tumor Necrosis Factor (TNF) Inhibitory Protein is isolated and substantially purified. It has the ability to inhibit: (a) the binding of TNF to its receptors, and (b) the cytotoxic effect of TNF. TNF Inhibitory Protein and salts, functional derivatives and active fractions thereof can be used to antagonize the deleterious effects of TNF by eliminating TNF from the body, and to reduce the cytotoxic activity of TNF by binding to TNF and thereby to inhibit the binding of TNF to its receptors.

Abstract: Tumor Necrosis Factor (TNF) Inhibitory Protein is isolated and substantially purified. It has the ability to inhibit: (a) the binding of TNF to its receptors, and (b) the cytotoxic effect of TNF. TNF Inhibitory Protein and salts, functional derivatives and active fractions thereof can be used to antagonize the deleterious effects of TNF.

Abstract: Tumor Necrosis Factor Binding Protein I (TBP-I), precursors and analogs thereof, are produced by transfecting eukaryotic cells with an expression vector comprising al DNA molecule encoding the whole human type I TNF receptor or a soluble domain thereof, and culturing the transfected cells, whereby the soluble proteins are secreted into the medium.

Abstract: Tumor Necrosis Factor (TNF) Inhibitory Protein is isolated and substantially purified and the DNA that encodes the TNF inhibitory protein, vectors, host cells, and a recombinant method for producing the encoded protein are also set forth. It has the ability to inhibit: (a) the binding of TNF to its receptors, and (b) the cytotoxic effect of TNF. TNF Inhibitory Protein and salts, functional derivatives and active fractions thereof can be used to antagonize the deleterious effects of TNF.

Abstract: Tumor Necrosis Factor Binding Proteins (TBPs) are useful in the treatment of autoimmune diseases and graft-versus-host reactions.

Abstract: The use of interleukin-6 and/or salts, functional derivatives, muteins or active fractions thereof, in the treatment of chronic lymphocytic leukemia and B-cell lymphomas, as well as such use together with the soluble interleukin-6 receptor, to pharmaceutical compositions and to a method of treating chronic lymphocytic leukemia or B-cell lymphomas.

Abstract: Antibodies to TNF Binding Protein I (TBP-I) are provided that can be used in diagnostic assays and as pharmaceutical agents for either inhibiting or mimicking the effects of TNF on cells.