TECHNOLOGY FOCUS - ORGANIC CHEMISTRY - Preferred Compounds: The phase separable segmented copolymer comprising a portion or segment capable of donating a proton to a conductive polymer or conductive polymer precursor comprise donor monomer units including acids (including salts or anhydrides of acids), unsubstituted amides, N-hydrocarbyl-substituted amides, including N-vinyl amides, sulfoalkyl esters, or sulfoalkyl amides. The donor acid monomer units comprise acidic functionality including carboxylic acids such as acrylic acid, methacrylic acid, maleic acid, fumaric acid, itaconic acid, acidic half esters of maleic and fumaric acids where the alcohol-derived moiety contains 1-8C, and maleamic acids. The preferred acids contain 3-10, preferably 3-5C. The donor acid monomer units comprising acidic functionality include salts or anhydrides of the acids and wherein the salts include ammonium salts, amine salts, and metal salts such as, alkali metal salts and alkaline earth metal salts. The metals include lithium, sodium, and potassium salts. The donor acid monomer units comprise sulfonic acid or its salt including acrylamidoalkane sulfonic acids such as 2-acrylamido-2-methylpropanesulfonic acid, as well as such monomers as 2-sulfoethyl methacrylate, styrenesulfonic acid, vinylsulfonic acid, allylsulfonic acid, and methallylsulfonic acid or a sulfoalkyl ester such as 2-sulfoethylmethacrylate, 3-sulfopropyl acrylate, or 3-sulfopropylmethacrylate. The donor acid monomer units comprise a phosphonic acid, or its salt or anhydride including monomer units such as phosphonomethylacrylate, phosphonomethyl methacrylate, vinyl phosphonic acid, and allyl phosphonic acid. The donor monomer units comprise an amide including unsubstituted amides such as acrylamide, or methacrylamide, or an N-substituted derivative thereof such as an N-hydrocarbyl-substituted amide derivative. The donor monomer units comprising amides further include amides such as N-methylacrylamide, N,N-dimethyl acrylamide, N-methylmethacrylamide, N,N- dimethylmethacrylamide, as well as materials as t-butylacrylamide, substituted amides including those having N-substituents with polar functional groups such as hydroxy or carbonyl groups. Each hydrocarbyl group contains 1-6, preferably 1-4, more preferably 1 or 2C. Each nitrogen atom of the amide will contain one substituent. The donor monomer units comprise sulfoalkyl amides including sulfomethyl acrylamide and related materials. The donor polymer segment comprises a copolymer. It initially comprises a donor monomer precursor which, after incorporation into the polymer, can be converted into a donor monomer. It comprises a monomer unit that can be subjected to hydrolysis to convert the donor precursor monomer units into a donor monomer unit comprising alcohol, acid, or amide units. The monomer unit can be functionalized by a substitution reaction to form a donor substituent on the first monomer unit. The phase separation of the segmented polymer can occur during processing of the segmented copolymer and added conductive material or conductive material precursor as temperature or composition (e.g. by removal of solvent or other additive) is changed or by known mechanical mechanism for orientation, or stretching of the first fabricated material. The conducting polymeric material comprises a conducting polyaniline or oligoaniline-based material that forms a complex with, and is templated by, the self-assembly of a block copolymer comprising acrylamido-2-methyl-N-propanesulfonic acid monomer units and alkyl((meth) acrylate) monomer units. The monomers are of formula (R1)(R2)C=C(R3)(R4).R1, R2 = H, halogen, CN, CF3, optionally branched 1-20C alkyl, alpha,beta-unsaturated optionally branched alkenyl or alkynyl of 2-10C, alpha,beta-unsaturated optionally branched alkenyl of 2-6C substituted with halogen, 3-8C cycloalkyl, heterocyclyl, C(=Y)R5, C(=Y)NR6R7, and YC(-Y)R8;Y = NR8 or O;R5 = 1-20C alkyl, 1-20C alkoxy, aryloxy, or heterocyclyloxy;R6, R7 = H or 1-20C alkyl;R6R7 = 2-5C alkylene, thus forming 3- to 6- membered ring;R8 = H, optionally branched 1-20C alkyl or aryl;R3, R4 = H, halogen, 1-6C alkyl, or COOR9;R9 = H, alkali metal, or 1-6C alkyl;R1R3 = (CH2)n' substituted with 1-2n/ halo or 1-4C alkyl or C(=O)-Y-C(=O);andn' = 2-6.The solvent is a polar solvent, preferably water.    TECHNOLOGY FOCUS - POLYMERS - Preferred Components: The first phase separable segmented polymer comprising a donor segment is a linear block copolymer, star copolymer, graft copolymer, bottlebrush copolymer, or a brash copolymer tethered to a substrate. The donor segment of the first segmented polymer and the conducting polymer or conducting polymer precursor form a complex that comprises one phase of the final nanostructure of the conducting material. Final nanostructure of the conducting segmented polymer comprising a conducting polymer complex form a spherical, cylindrical, gyroidal, or lamellar morphology. The segmented polymer comprising the conducting polymer phase comprise additional donor molecules. The conducting polymer or a conducting polymer precursor is added to the first segmented copolymer comprising a donor segment as a monomer, oligomer or polymer in a doped, partially doped, or un-doped state and is polymerized in the presence of the segmented copolymer to form the final complexed conductive phase. The conducting polymeric material comprises a strongly phase separating segmented copolymer to confine, and organize, the conducting material within the formed phase comprising a strongly acidic segment of the copolymer. It comprises a strongly phase separating amphiphilic segmented copolymer to complex with, confine, and organize, the conducting material within the formed phase comprising the conductive complex and the strongly acidic segment of the dopant amphiphilic copolymer. Incorporation of the conducting polymer within the dopant phase can change the volume fraction of the dopant phase thereby forming a continuous conductive phase. The added conductive polymer can initially be a precursor of a conductive polymer comprising a monomer, oligomer or a copolymer and can be added to the initial segmented copolymer as the sole additive or as one component of a mixture of additives. Additional doping agents can be used to adjust conductivity of the formed conductive polymeric complex or alloy and optionally the volume fraction of the conducting phase. A second segment in the segmented copolymer provides further functionality to the conducting material. The second segment provides ionic conductivity. It is a segmented copolymer thereby forming a tri-phasic material. Preferred Properties: The self assembly characteristics of the resulting phase separable segmented copolymer comprising the conducting polymer complex templates the nanostructure of the final conducting material. The phase separated material has conductivity above 1xl0-3 or above 1 S/cm. The stable conductive polymer films have as cast conductivities exceeding 10 S/cm under ambient conditions. The phase separated conductive nanostructured materials can be formed into a film, a coating, a foil, a fiber, or a solid structural material or added to another polymer to modify electrical or antistatic properties. They are inherently cohesive materials that can be bent, rolled, dropped, or pierced. The final morphology of non-donor phase in the bulk copolymer can be continuous or discontinuous and can be reversibly converted from one to another state by a mole fraction of added conductive material or by external stimuli including solvent, vapors, temperature, pH, or mechanical stresses. The properties of the material is controlled by pre-selecting a final ratio of the 2 phases, the degree of phase separation between incompatible blocks and hence the aggregation of the conjugated polymer chain, the solubility/processability of the material resulting in control over mechanical properties, electrical properties, optical properties, and inherent stability to environmental conditions. The non-donor segments of the segmented copolymer comprise polymer segments with glass transition temperature below use temperature thereby providing flexible and stretchable materials. The morphology of the second ionic conducting phase is modified by addition of a solvent. The morphology of the final membrane is gyroidal. The organization and topology or architecture of the copolymer and the nano-dimensions of each phase can be modified by the molecular weight of each segment or by the presence of selected solvents. Preferred Compounds: The conducting polymer phase comprises an oligo-polymeric material, substituted and unsubstituted, poly(para-phenylene)s, poly(para-phenylenevinylene)s, polyphenyleneethynylene such as poly(p- phenylenepentadienylene), polyanilines, polyazines, polythiophenes, polythienylenevinylene, poly(para-phenylene sulfide)s, polyfurans, polypyrroles, polyfluorene, polyselenophene, polyacetylenes, polynaphthalenes, or polyethylene dioxythiophene. The polyaniline was incorporated into the block copolymer as emeraldine base. The conducting polymeric material comprises a conducting polythiophene, substituted thiophene, or oligothiophene-based material that forms a complex with and is templated by the self-assembly of a block copolymer comprising donor segment. The precursors of polythiophene, or substituted thiophene comprises ethylenedioxythiophene unit which is added to the first segmented donor containing segmented copolymer as a monomer, oligomer, or polymer. The conducting polymeric material comprises a conducting polypyrrole, substituted polypyrrole, or oligopyrrole-based material. The precursors of polypyrrole, or substituted polypyrrole comprise pyrrole units which are added to the first segmented donor containing segmented copolymer as monomer and are polymerized. Preferred Materials: The conductive material is a processable polymeric material. The conductive nanostructured materials can be formed into a foil, a fiber, a tube or a pipe, or a coating.