APPLICATION PROSPECTS OF NI-DOPED SILICON MICRO- AND NANOSTRUCTURES IN ENERGY-EFFICIENT DEVICES
Keywords:
Nickel-doped silicon, nanostructures, energy-efficient materials, thermoelectric devices, renewable energy.Abstract
This paper explores the application potential of nickel-doped silicon micro- and nanostructures in enhancing the performance and energy efficiency of modern electronic systems. Nickel doping is known to modify the electrical, optical, and thermal properties of silicon, making it an attractive material for renewable energy devices. The study focuses on synthesizing and characterizing Ni-doped silicon using controlled thermal diffusion, followed by microstructural and electrophysical evaluation. Results show that nickel nanoclusters significantly enhance charge carrier mobility, reduce energy loss, and improve heat conduction. These characteristics make Ni–Si structures promising for use in photovoltaic cells, thermoelectric generators, and smart energy management systems.
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