NOVELTY - The method comprises directing a source of near-infra-red (NIR) laser radiation through a transparent support and into a composition, causing the composition to be transferred from the transparent support across a gap to a receiving substrate (6), causing oligomer and/or polymer to solidify on the receiving substrate, and forming a printed object (7) on the receiving substrate. The source of NIR laser radiation is a pulsed laser source (1) or an array of pulsed lasers. The support is transparent to NIR laser radiation, and is positioned between the receiving substrate and the laser source.    USE - The method is useful for depositing a composition on a receiving substrate such as a multi-layered electronic or electrical component to form an electrically conductive printed object such as a product, which is useful as an electronic or electrical component including: a printed circuit board; an electrode; a sensing layer in a strain sensor or an angular displacement sensor; a heating element; a conductive contact layer in a solar cell, a display, LED or transistor; and an electrode material for a super-capacitor and an electrochemical battery and useful for an electrical or electronic device (all claimed), where the receiving substrate consists of metal foil, paper, cardboard, textile and plastic.    ADVANTAGE - The method is capable of efficiently and uniformly depositing the composition on the flexible and stretchable receiving substrate thus precisely and economically forming the printed object with improved dielectric and opto-electronic properties, high ionic conductivity, excellent light absorbing properties, and enhanced electronic, electric, optical, magnetic or other similar physical properties and without short-circuit and failure.    DETAILED DESCRIPTION - The method comprises directing a source of near-infra-red (NIR) laser radiation through a transparent support and into a composition, causing the composition to be transferred from the transparent support across a gap to a receiving substrate (6), causing oligomer and/or polymer to solidify on the receiving substrate, and forming a printed object (7) on the receiving substrate. The source of NIR laser radiation is a pulsed laser source (1) or an array of pulsed lasers. The support is transparent to NIR laser radiation, and is positioned between the receiving substrate and the laser source. The composition: is present in contact with the transparent support; is positioned between the transparent support and the receiving substrate; comprises a functional material (greater than 50 wt.%) in particulate form for absorbing near-infra-red laser radiation, 40 wt.% of an oligomer and/or 40 wt.% polymer, water (30 wt.%), and optionally additives; and has pH of greater than 7. The functional particles contain greater than 35 wt.% of NIR absorbing material that consists of metals, carbon-based materials, organic or inorganic semiconductors and conductive polymer powders, and are present in a form consisting of tubes, nano-tubes, fibers, nano-fibers, wires, nano-wires, rods, nano-rods, ribbons, nano-ribbons, plates, nano-plates, flakes and nano-flakes. The water comprises 10 wt.% of an alkaline material. A distance between a NIR transparent media (2) and the substrate is 0.1-0.5 mm. The receiving substrate is formed of flexible or stretchable material, rigid or flexible multi-layer material, or a previously deposited layer, and is a part of an assembled device such as an electrical or electronic device. The oligomer and/or polymer is dried and/or solidified while reaching the receiving substrate, and form a thermoplastic structure in the solidified composition. The solidified printed object comprises conducting non-crosslinked composition. INDEPENDENT CLAIMS are included for:    (1) a method of making a product;    (2) an apparatus for laser assisted material deposition;    (3) a printed object; and    (4) a composition for laser assisted deposition.    DESCRIPTION OF DRAWING(S) - The diagram shows a schematic view of a horizontal laser printing device.    Laser source (1)    Near-infra-red transparent media (2)    Rollers (3)    Cartridge (4)    Receiving substrate (6)    Printed object. (7)