Tiny-sized particles under the scheme of monolayer assembly, comprising gold atoms, developed at a different processing time in a pulse-based process. For a different processing time, atoms bind into different tiny particles under the placing packets of nanoshape energy where they elongate as per arrangement and when in one-dimensional arrays, they convert into structures of smooth elements. For different processing time and where tiny particles possess triangular-shape, they pack to develop extended shapes where development rate of an anisotropic particle is not more than millisecond time. Increasing the processing time of solution upto certain duration increases the number of developing tiny particles in a triangular-shape, so, their extended shapes also. Uniformly adjacent-orientation of electrons in atoms of tinyshaped particle is because of exerting uniform surface force along their opposite poles as per gained potential energy where stretching of their clamped energy knots is remained orientational-based. At a different processing time, inter-spacing distance of spotted intensity spots in selective area photons reflection patterns of particles is remained the same as for the case of their structures of smooth elements visualized through transmission microscope high-resolution images. When the forceful coinciding of two parallel structures of smooth elements is occurred, they bind into single element structure (of smooth element) by a bit overlying inner sides, thus, giving its double width where certain filled state electrons and unfilled energy knots (belonging to sides of elongated atoms of parallel structures of smooth elements) coordinate to adhere. This 2 study discusses the formation of tiny particles following by their extended shapes at different processing time of gold solution while employing a pulse-based electronphoton solution-interface process where they become the origin of physics and chemistry of materials by discussing many commonly-known phenomena and processes, so, opening the alternative routes to design materials and explore science.