Abstract: The invention concerns the manufacture of complex metallic or metallized porous structures, wherein the electroplating metal over the entire developed surface is preceded by a specific pre-metallization of the basic structure. The pre-metallization is obtained by depositing a conductive polymer, which is deposited on the entire developed surface of the structure by the steps of an oxidizing pre-treatment of the structure, depositing in the liquid phase, a monomer having a polymerized form that is electrically conductive, and polymerizing by oxidation-doping of the monomer. The structures according to the invention are particularly intended for use as electrodes for the electrolysis of liquid effluents, as electrode supports for electrochemical generators, as catalyst supports, filtration media, phonic insulation, electromagnetic and nuclear protection structures, or for other applications.

Abstract: The present invention relates to a gene, known as CAP43, and its gene product. In particular, the application demonstrates that the CAP43 gene and its gene product are expressed at elevated in certain diseased cells and tissues, such as cancer cells and tissues. The invention therefore provides novel uses for the CAP43 gene and gene product, including novel diagnostic methods for diagnosing diseases, such as cancer, by detected elevated levels of CAP43 expression. Methods are also provided for identifying diseased cells and tissue, particularly cancer cells and tissue, by identifying cells and tissues that express elevated levels of CAP43. Moreover, the invention also provides novel therapeutic methods for treating diseases, such as cancer, by targeting therapeutic compounds to cells expressing CAP43. Pharmaceutical compositions which may be used in such methods of treatment are also provided.

Abstract: The invention concerns the manufacture of complex metallic or metallized porous structures, wherein the electroplating metal over the entire developed surface is preceded by a specific pre-metallization of the basic structure. The pre-metallization is obtained by depositing a conductive polymer, which is deposited on the entire developed surface of the structure by the steps of an oxidizing pre-treatment of the structure, depositing in the liquid phase, a monomer having a polymerized foam that is electrically conductive, and polymerizing oxidation-doping of the monomer. The structures according to the invention are particularly intended for use as electrodes for the electrolysis of liquid effluents, as electrode supports for electrochemical generators, as catalyst supports, filtration media, phonic insulation, electromagnetic and nuclear protection structures, or for other applications.

Abstract: The invention concerns the manufacture of complex metallic or metallized porous structures, wherein the electroplating metal over the entire developed surface is preceded by a specific pre-metallization of the basic structure. The pre-metallization is obtained by depositing a conductive polymer, which is deposited on the entire developed surface of the structure by the steps of an oxidizing pre-treatment of the structure, depositing in the liquid phase, a monomer having a polymerized form that is electrically conductive, and polymerizing by oxidation-doping of the monomer. The structures according to the invention are particularly intended for use as electrodes for the electrolysis of liquid effluents, as electrode supports for electrochemical generators, as catalyst supports, filtration media, phonic insulation, electromagnetic and nuclear protection structures, or for other applications.

Abstract: Since sodium dodecyl sulfate (SDS) binds tightly to proteins but not to DNA, the addition of potassium chloride (KCl) to SDS lysates of cells, nuclei or mitochondria results in the formation of an insoluble precipitate which includes all proteins and detergent-resistant DNA-protein complexes separated from free DNA in the supernatant. The amount of SDS-precipitable DNA represents a measure of crosslinked DNA-protein. This precipitation method is useful for determining or quantitating crosslinked DNA-protein formed in cells, nuclei or mitochondria of animals following their exposure to crosslinking agents such as chromate, nickel, cis-Pt (II) diammine dichloride and formaldehyde. The method is also useful for evaluating agents for their ability to induce covalent DNA-protein crosslinking.