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Exploring the Universe within the Human Lens Through Raman Spectroscopy

P. Malik, T. Dewan, A. Nishad, Pulkit Gupta

2017

1 citation

Abstract

Ever since the emergence of refined modalities of cataract surgery, the looming question has been the same - How to improve the technique, to minimize manipulation of biological components and optimize the end result? The most recent development has been, combining ultrasound energy with femtolaser. The previous studies have shown attempts to improve surgical outcome by using lesser phacoemulsification power, using incremental ultrasound power, calibrated phaco-tip and sensor-enabled phaco. However none have focused on the biomechanical properties and resonant frequency of the human lens. A review of Quantum physics informs us that all matter has a wavelength and a frequency of its own. Massive oscillatory motions are imparted with resonant frequency. Once the resonant frequency is achieved, it is possible to liquify solids non-thermally. Through our research, we discovered the innumerable possibilities and applications of the Raman Spectroscopy method. Raman Spectroscopy is a non-invasive, qualitative and quantitative optical technique for determining the molecular composition of matter. It is an inelastic scattering technique that can be used to probe the vibrational energy levels of a molecule within a sample and has been used extensively in biology and biochemistry to study the structure and dynamic function of important molecules. New lens fibers are formed throughout life and the human crystalline lens is a closed system i.e. there is no shedding. In the absence of…

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