NOVELTY - An extruded thin layer polymer product comprises at least one layer possessing electrical properties. The layers are milli, micro or nano size, where the layers contain nanoparticle electrical conducting materials. The electrical conducting layers are layered between nonconducting layers. The product comprises layers with pores adjacent to conducting layers.    USE - As an extruded thin layer polymer product comprising superconducting tape, and battery (such as lithium ion battery) (claimed), used in semiconductor applications.    ADVANTAGE - The product is resistant to electro-static discharges (ESD), electromagnetic pulse (EMP), high power microwave (HPM) attacks, and electromagnetic interference (EMI). The micro-layer products do not use a substrate that can be taken from pellet form to a finished product in a single extrusion operation, thus drastically reduces production costs. The electrically conducting product creating using nanolayers can reduce the amount of metal required to maintain the desired degree of electrical continuity. This is advantageous when creating products that benefit from lighter weight materials.    DETAILED DESCRIPTION - INDEPENDENT CLAIMS are included for the following:    (1) preparing multilayer electrical conducting extrusions, involving receiving a flow of extrudible material in an extrusion system and constructing a series of ribbon shaped flow streams, where at least one of the streams comprises conducting particles; subjecting the ribbon shaped flow streams to multiple sequences of stages, where in the each of the sequences the flow streams are compressed, and the sequences further include joining sets of the series of ribbon shaped flow streams to form multiple laminated flow streams flowing in parallel; dividing each of the multiple parallel laminated flow streams into at least two adjacent flow streams, while compressing the resulting flow streams to form thinner laminations; overlapping the adjacent flow streams to form a flow stream, thus multiplying the number of laminations; repeating the dividing and overlapping steps in parallel for each of the multiple parallel laminated flow streams to multiply the number of laminations and to generate progressively thinner laminations until at least one electrical conducting layer is obtained;    (2) an extrusion system comprising: a first stage of die plates constructed to receive a flow of extrudible material and divide the flow into multiple ribbon shaped flow streams; a second stage of die plates constructed to receive the multiple ribbon shaped flow streams and further divide each of the multiple ribbon shaped flow streams into at least two ribbon shaped flow streams and further second stage of die plates constructed to layer at least two ribbon shaped flow streams into composite laminated flow streams; and a third stage of die plates constructed to receive the composite laminated flow streams and to again divide each of the composite laminated flow streams into at least two ribbon shaped flow streams and further third stage of die plates constructed to layer at least two ribbon shaped flow streams into composite laminated flow streams, where the number of laminations is multiplied and compressed; and    (3) a method of forming a tubular shaped micro-layer electrical conducting product involving extruding a flow of extrusion material containing electrical conducting particles in a non-rotating extrusion assembly; forming a first set of multiple laminated flow streams from the extruded flow; amplifying a number of the laminations by repeatedly compressing, dividing and overlapping the multiple laminated flow streams; rejoining the parallel amplified laminated flows; forming a first combined laminate output with nano-sized features from the rejoining; and forming a tubular shaped micro-layer electrical conducting product from the combined laminate output.