Abstract: The present invention is related to polymeric materials, in particular thermoplastic or resins, with antifouling, biocidal, antiviral and antimicrobial properties. In particular, the present invention comprises a polymeric material with antimicrobial properties, wherein said antimicrobial property is given by the controlled and maintained in time release of elements or compounds with antimicrobial properties. The present invention also relates to the preparation method and products generated from said polymeric materials with antimicrobial properties.

Abstract: The present invention is related to polymeric materials, in particular thermoplastic or resins, with antifouling, biocidal, antiviral and antimicrobial properties. In particular, the present invention comprises a polymeric material with antimicrobial properties, wherein said antimicrobial property is given by the controlled and maintained in time release of elements or compounds with antimicrobial properties. The present invention also relates to the preparation method and products generated from said polymeric materials with antimicrobial properties.

Abstract: The invention discloses a nanoreinforcement to produce polymeric nanocomposites from a natural laminar silicate from volcanic sources. The invention also discloses the manufacture process and use thereof to obtain polyolefin nanocomposites useful for the automotive, aerospace, construction and packaging industries, among others.

Abstract: The present invention relates to compatibilizers to be used for obtaining materials called polyolefin nanocomposites, microcomposites and polymer blends, and it includes the process for obtaining such compatibilizers. Such compatibilizers are obtained from the monomers of the organic compounds itaconic acid (ITA) or its monooctadecyl itaconate (MODIT) derivative. The compatibilizers are polyolefins grafted with those monomers, which are characterized by having functional groups with a hydrophilic character and a polymer backbone with a hydrophobic character. The compatibilizers of this invention are characterized by having controlled degrees of grafting of these monomers, and they can be used optimally in various applications. It also relates to the process for obtaining such compatibilizers.

Abstract: Hybrid clays for obtaining nanocomposites useful in the automotive, aviation, construction and packaging industry, among others. The hybrid clay comprises clays intercalated with the itaconic acid (ITA) monomer or its derivative monooctadecyl itaconate (MODIT), and a process for the preparation of these hybrid clays and the process to obtain polyolefin/clay nanocomposites.

Abstract: Nanoparticles with controlled and highly monodispersed morphology made using a modified Stöber sol-gel process. The hybrid silica nanoparticles with controlled morphology having uniform size, shape or both, and contain an aliphatic amine of 2-20 carbon atom, or an alkoxide compound selected from the group consisting of siliceous alkoxide (R?(X)—Si—(OR?)(4-X)), and/or titanium alkoxide (R?(X)—Ti—(OR?)(4-X)) and/or zirconium alkoxide (R?(X)—Zr—(OR?)(4-X)), wherein R? group can be equal or different that R?, and the R group in the chemical structure are between 1 to 18 carbon atoms, and mixtures thereof, having from one to four alkoxy groups, or a combination of said aliphatic amine and said alkoxide compound.

Abstract: The present invention relates to compatibilizers to be used for obtaining materials called polyolefin nanocomposites, microcomposites and polymer blends, and it includes the process for obtaining such compatibilizers. Such compatibilizers are obtained from the monomers of the organic compounds itaconic acid (ITA) or its monooctadecyl itaconate (MODIT) derivative. The compatibilizers are polyolefins grafted with those monomers, which are characterized by having functional groups with a hydrophilic character and a polymer backbone with a hydrophobic character. The compatibilizers of this invention are characterized by having controlled degrees of grafting of these monomers, and they can be used optimally in various applications.

Abstract: Hybrid clays for obtaining nanocomposites useful in the automotive, aviation, construction and packaging industry, among others. The hybrid clay comprises clays intercalated with the itaconic acid (ITA) monomer or its derivative monooctadecyl itaconate (MODIT), and a process for the preparation of these hybrid clays and the process to obtain polyolefin/clay nanocomposites.

Abstract: This invention reveals polypropylene composites to be used in the automotive, electronics, packaging and textile industries, which comprises a polypropylene homopolymer in a proportion ranging from 10 to 60% by weight, a natural reinforcement based on eggshells, and an antioxidant. This invention also reveals a natural reinforcement produced from eggshells obtained as an agroindustrial waste, the process to obtain said composite, and the process to obtain such reinforcement. By means of this invention, polypropylene composites using the natural reinforcement are obtained that have improved mechanical and thermal behavior when compared to polypropylene composites using traditional mineral reinforcements.

Abstract: A preparation process for a catalytic support, based on a special alumina modified with varying quantities of magnesium chloride is described, a higher rate of MgCl.sub.2 leading to a lesser quantity of heavy molecular chains in the final polymer. The support, prepared by milling the special alumina together with the MgCl.sub.2 previously treated with ethyl benzoate, is impregnated with TiCl.sub.4 in order to create the catalyst. The resulting catalysts show high activity, which enables the metallic residue and chloride eliminating stage to be avoided in the resin so created. Furthermore the types of molecular weight distribution and of mechanical properties are different for the polymers produced.

Abstract: A preparation process for a catalytic support, based on a special alumina modified with varying quantities of magnesium chloride is described, a higher rate of MgCl.sub.2 leading to a lesser quantity of heavy molecular chains in the final polymer. The support, prepared by milling the special alumina together with the MgCl.sub.2 previously treated with ethyl benzoate, is impregnated with TiCl.sub.4 in order to create the catalyst. The resulting catalysts show high activity, which enables the metallic residue and chloride eliminating stage to be avoided in the resin so created. Furthermore the types of molecular weight distribution and of mechanical properties are different for the polymers produced.