NOVELTY - Forming (M1) a polymer involves: optionally heating of a polymer to be formed to a temperature above its glass transition temperature (Tg), continuously depositing polymer onto lower molding surface of first mold, (preferably in a manner that reduces/eliminates/minimizes shear stress/other stress in the polymer so deposited), where polymer remains above the (Tg); applying upper molding surface of a second mold to at least the exposed surface of polymer while polymer remains at temperature above (Tg), and allowing polymer to transition to below the (Tg) to remove polymer.    USE - For forming polymer; for mass production formed polymer; or for continuously forming a polymer (all claimed); for fabricating superfine structures or nanostructures; for forming membranes for separation of components from or within water, chemicals, gases, blood, or use within fuel cells, sensor devices, lights diffusers, light emitters, wave reflecting or absorbing such as radar, electronic circuits or circuitry, particle alignment or aligning technologies, water repellents or water repelling technologies such as hydrophobic materials, optical media such as liquid crystal display (LCD), compact disc (CD), digital video disc (DVD) technology or photo-voltaic cells, memory storage device, medical devices such as for skin repair or wound repair (e.g. bandages), drug delivery mechanisms or devices, reduced (low) friction surface materials, increased (high) friction surface materials, lamination technology, radio frequency identification (RFID) chips, conductive polymer layers/products/circuits, light bending technologies such as negative light reflections, anti-reflective surfaces or formed surface structures which are subsequently metallized and the formed product material removed from it.    ADVANTAGE - The method produces polymers in a mass production which assists in reducing the effective cost per unit area produced or which provides the ability to mass produce large volumes or large areas enables commercialization of products that have previously not been possible by traditional forming methods. The method produces polymers in a processing line speeds which can be greatly increased without loss of formed product quality; and forms polymers in high quality reproducibility. The method uses continuous forming tool to vary the pressure in forming zone, lateral and axial expansion of forming blocks, raising and lowering of bottom track/platen with molding surface, ability to vary clamping pressure of the machine between runs and over the length of track. The method designed to impart minimal stress into the polymer during forming.    DETAILED DESCRIPTION - Forming (M1) a polymer involves: optionally heating of a polymer to be formed to a temperature above its glass transition temperature (Tg), continuously depositing (preferably by flowing or laying) the polymer onto a molding surface (lower molding surface) of a first mold, (preferably in a manner that reduces, eliminates or minimizes shear stress or other stress in the polymer so deposited), where the polymer remains above the (Tg); applying a molding surface (upper molding surface) of a second mold to at least the exposed surface (upper surface) of the polymer while the polymer remains at a temperature above (Tg), and allowing the polymer to transition to below the (Tg) while within or between the upper and lower molding surfaces, where after the polymer is removed from the molding surfaces.    INDEPENDENT CLAIMS are included for the following:    (1) forming (M2) several polymers;    (2) continuously forming (M3) a polymer;    (3) continuously forming (M4) polymer;    (4) a polymer film or sheet that is formed by the method (M1)-(M4);    (5) a non-reflective product formed according to method (M1)-(M3);    (6) an apparatus (A1) for continuously forming a polymer (preferably to define a nano-scale sized surface onto at least part of the surface of the polymer so formed) comprising: optionally extruder, including extruder head for continuously extruding (preferably liquid) polymer extrudate; and forming zone to receive exudate above its (Tg), where forming zone is defined by a serially advancing molding surface or surfaces (first molding surface) of a first mold or molds and serially advancing molding surface or surfaces (second molding surface) of a second mold or molds, where the first molding surface (preferably presented to receive (preferably by depositing e.g. by laying down onto it) and preferably in a manner that reduces/eliminates/minimizes shear stress/other stress in polymer so deposited) where the polymer extrudate prior to it advancing into forming zone and to carry polymer extrudate into forming zone;    (7) an apparatus (A2) for continuously forming a co-extruded material (preferably to define a nano-scale sized surface texture onto at least past of the surface of the material so formed);    (8) a polymer with a nano-sized surface texture formed by the apparatus (A1) or (A2);    (9) a material with a nano-sized surface texture formed by the apparatus (A1) or (A2);    (10) a continuously formed polymer with a nano-sized surface texture;    (11) a continuously formed coextruded material comprising at least two polymers where at least one polymer includes a nano-sized surface texture;    (12) a sheet/film of at least one polymer (preferably at least two co-extruded polymers) that includes nano-sized surface texture that has been formed by continuous/non-discrete/non finite processing of at least one precursor polymer material;    (13) a single sheet/film of at least one polymer (preferably at least two co-extruded polymers) that includes several of identical and repeated zones of nano-sized surface texture that has been formed by continuous/non-discrete/non finite process; and    (14) several of discrete sheets/film of at least one polymer (preferably at least two co-extruded polymers) that each include identical nano-sized surface texture that has been separated from a single sheet or film precursor formed in a continuous/non discrete/non finite manner.