TECHNOLOGY FOCUS - POLYMERS - Preferred Material: In the elastomeric composite material, the polymer matrix is a thermoplastic elastomer, where the elastomeric matrix comprises 10-90 wt.%, preferably 50 wt.% of the thermoplastic elastomeric compound, and electrically conductive capacitor, which has the function to serve as support matrix or the other components. The elastomeric matrix is selected from the group comprising the following families of thermoplastic matrices: (a) rubbers derived from poly(butadiene) (PB), which have simplified formula: -(CH2-CH=CH-CH2)- including all its variants, either high, medium or low cis, high, medium or low transmission, high , medium or low vinyl poly (butadiene), regardless of their relative composition between these three variants and the molecular weight of PB; (b) elastomeric copolymers styrene-butadiene, whether linear or branched (SSBR), regardless of the different arrangements having comonomers together, which may be located alternately or randomly distributed along the polymer backbone or its branches, regardless of the composition ratio of butadiene/styrene or molecular weight of the molecule; (c) elastomeric copolymers styrene-butadiene-styrene block, whether linear or branched (SBS), regardless of the arrangements having different comonomers block each other, which may be located randomly in block-, diblock, triblock or beyond any variation along the main polymer chain or of its branches, regardless of the composition ratio of butadiene/styrene block in each branch or individually or in the overall composition and the molecular weight of the elastomer; (d) elastomeric copolymers hydrogenated styrene-ethylene-butadiene-styrene block, whether linear or branched (SEBS), regardless of the arrangements that have different comonomers block each other, which may be located block-random, diblock, triblock or any variation beyond along the main polymer chain or of its branches, regardless of the composition ratio of butadiene/styrene block in each branch or individually or in the overall composition and the molecular weight the elastomer and the remaining range of concentrations of double bonds or degrees of hydrogenation; (e) copolymers of rubbers nitrile butadiene (NBR) having different molecular weights and ratios of butadiene/acrylonitrile copolymers; (f) elastomeric copolymers styrene-isoprene-styrene block, whether linear or branched (SIS), regardless of the arrangements having different comonomers block each other, which may be located randomly in block-, diblock, triblock or any variation beyond along the main polymer chain or of its branches, regardless of the composition ratio of the isoprene/styrene block in each branch or individually or in the overall composition and the molecular weight of the elastomer; (g) variety of materials of the poly(ethylene propylene diene monomers) or EPDM, regardless of the ratio of monomers prevailing in it and having the molecular weight; (h) diversity of poly(ethylene vinyl acetate) or EVA having different ethylene/vinyl acetate relations and molecular weights; (i) alkyl acrylic elastomers (AAc), as a special case, but are not limited to, hexyl acrylate, butyl acrylate, or any material with minimal formula CH2=CH-COO-(CH2)x-CH3, where x can go from 0 to infinite repeat units, preferably between 4 and 8 repeat units; (j) silicone rubbers having different molecular weights; (k) any variety of thermoplastic copolymers based urethane or ether-ester urethane or PU, regardless of the relative composition between urethane and ester or ether; (l) any variety and molecular weight poly (olefins) thermoplastic, which may preferably include any of the following examples: poly (ethylene) low regular or linear, medium, high and ultrahigh density polyethylene (LDPE, LLDPE, MDPE, HDPE, UHDPE) or polypropylene, regardless of melt flow is concerned; (m) any possible mixture involving some of the above thermoplastic elastomers or, regardless of the polymerization technique employed for their synthesis; (n) any of the materials described above which have been treated to be vulcanized, branched (grafteados) or crosslinked before, during or after the formation of the thermoplastic elastomeric composite, electrically conductive and capacitor. The electrically conducting nanostructured composite comprises 1-90 wt.%, preferably 25 wt.% of any material capable of conducting electricity or via electron transport. The electrically conductive compound is selected from the group comprising any of the following families of compounds and composites: metal powder particles or nanostructured powders of metallic particles or electrically conductive metal oxides, and combinations; nanostructured particles of coal; inherently conductive polymers that have been doped or not (ICP: dopant), where the inherently conductive polymer comprises 25-95 wt.% of the compound electronic conductor. The inherently conductive polymer is between 25-40 wt.%, or preferably constitutes 25 wt.% of electrically conductive compound. The inherently conductive polymers have been doped and is nanostructured. The ICP comprises at least one of any of these monomeric electroactive groups having more than 12 repeating units: inherently conducting polymers such as aromatic amine derivatives of poly(aniline); inherently conductive polymers of heterocyclic aromatic compounds such as derivatives of poly (thiophenes), non-aromatic heterocyclic derivatives such as derivatives of poly (acetylenes); among these compounds inherently conductive polymers and other polymers where they can be conductive or non-inherently compounds or conductive polymers with metals or with inherently conductive polymers or inorganic salts with inherently conductive polymers or carbon nanostructures based carbon structure containing structure PI in their conjugated bonds that are capable of conducting electrons, and thus electricity. The dopants that are used to improve electrical conductivity of inherently conducting polymers are used from 5-75 wt.%, preferably 25 wt.% of electrically conductive compound. The dopants are selected from the group comprising one of the following families of compounds: inorganic or organic acids of relatively low or intermediate molecular weight such as acids and oxy-acids derived from halogen; sulfur derived acids as sulfuric, sulfonic, sulfurous, among others; organic acids such as formic, acetic or propionic acid; they may also be derived from polymers with acidic functionality pendant structural or comprising any of the acids described above classes; structures and nanostructures acidified ceramic oxides based on silicon and aluminum, alone or combinations, oxides of titanium, zirconium, hafnium and mixtures; carbon nanostructures functionalized with acid groups. The conductor comprises compatibilizer compound and 25 wt.% of the polymeric matrix different from the nature of the elastomeric matrix. The elastomeric matrix different from the matrix polymer is selected from: poly(alkyl methacrylates); copolymers (styrene-acrylic) and any derivatives having about 40 wt.% of the acrylic portion, methacrylic or acrylic alkyl in the polymer molecule; derivatives of poly (ethylene oxide), poly (alkyl glycols) and poly (vinyl pyrrolidones) in any of its variations in molecular weight or alternation with other copolymers, gels with swelling index above 1.5 in the presence of solvents and can be synthesized from these monomers, styrene-divinyl benzene (DVB-STY) and any derivatives with or without functional groups such as carboxylic, sulfonic, among others; 2-hydroxy methacrylate with ethylene glycol methacrylate (HEMA-EGDMA), any such molecular weight and crosslinking monomer ratio. The polymer matrices are dispersed or swollen in water, alcohols from 1 to 6 carbons in the molecule, propylene carbonate or dimethyl formamide, or mixtures of these solvents between itself or any other solvent capable of dispersing, dissolving or swelling these matrices along with the carrier ions. The ion carrier is selected from: a lithium salt, salts derived from cations of elements IA and A Group II of the Periodic Table and anions derived from elements of groups III, IV, V, VI and VII A of the periodic table. Preferred Method: In making the electrically conductive and capacitive elastomeric composite material, the mixing well is made by extrusion or mixing chamber, either single or twin screw, and at a temperature ranging from 60-180 degrees C, a screw speed ranging from 10-200 rpm and the mixing time or batch residence time in an extruder is 1-20 minutes, feeding either all at once or dosing electronically conducting compound. The mixing time is less than 10 minutes. The screw speed is 50 rpm and the mixing time is 1.5 minutes. EXAMPLE - No suitable example given.