Manufacturing industry based optical quantum electronic material nanofabrication using spectroscopy techniques

Solid-state quantum emitters need accurate nanofabrication platforms with high process yields in order to be used in practical quantum information technologies. Self-assembled semiconductor quantum dots have shown to be among finest choices to fulfil the requirements of a variety of innovative quantum photonic devices due to their exceptional emission features. The aim of this research is to develop quantum electronic material nanofabrication in manufacturing industry based on spectroscopy techniques. Using optical quantum electronics, IR absorption spectroscopy, Raman scattering, and surface-enhanced Raman scattering for nanomaterial characterization, the proposed model for manufacturing industrial material nanofabrication is described here. Here, we demonstrate the nanofabrication of polymer nanostructures with better than 100 nm spatial resolution, chemical identification at nanometer scale, and nanometer-scale chemical imaging. When employing either band, particularly spectrally sharp band at 1000 cm⁻¹, inverse ratio of these typical death periods is known as the "cell death enhancement factor." These findings significantly support the prospective future application of this approach to investigate the effectiveness, dynamics, and molecular processes of different manufacturing industry defect detection.