Tiny-Shaped Particles Developing a Mono-Layer Shape Dealing Localized   Gravity and Levity at the Solution Surface
  Developing tiny metallic particles of specific shapes is needed for many cutting-edge applications. In processing solutions by different methods and approaches, atoms first dissociate from the precursor. The supplied tuned pulses develop tiny triangular particles. According to the published literature, the supply of nanoenergy packets for developing tiny-shaped particles occurs through different sources. Owing to their potential application, tiny-shaped particles are the building blocks of the later-developed mono-layers of nanoparticles and particles. During development, triangularly shaped tiny particles leave the electronically flat-leveled solution surface. By entering an electronically decreasing-level solution surface, tiny-shaped particles arrive at the center of the concave meniscus. In a triangularly shaped tiny particle, atomic arrays convert into structures of smooth elements, where photons traveling along the air-solution interface further flatten them. There is the nucleation of a mono-layer. For later coalesced tiny particles, structures of smooth elements adhered adjacently to grow a nucleated mono-layer. The developing tiny-sized and tiny-shaped particles do not appear to qualify for the extensively studied surface plasmons phenomenon. In the upper-shaped mono-layer, the force of gravity becomes more significant than the force of levity. The opposite is the case for the lower-shaped mono-layer. Only a few microseconds are involved in adhering to two mono-layers. This study highlights the development of triangularly shaped tiny particles, a mono-layer shape, and the adherence of two mono-layer shapes. This study has great potential in the nanoscience and nanotechnology fields. 
Mubarak Ali
cond-mat.mtrl-sci