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K. Senthilnathan

Researcher at VIT University

Publications -  67
Citations -  668

K. Senthilnathan is an academic researcher from VIT University. The author has contributed to research in topics: Photonic-crystal fiber & Dispersion (optics). The author has an hindex of 12, co-authored 65 publications receiving 548 citations. Previous affiliations of K. Senthilnathan include Hong Kong Polytechnic University & Anna University.

Papers
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Graphene-Based Conducting Metal Oxide Coated D-Shaped Optical Fiber SPR Sensor

TL;DR: In this paper, a graphene-based indium tin oxide coated surface plasmon resonance sensor built on a D-shaped optical fiber for near infrared near-infrared was presented.
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Design and Analysis of Surface-Plasmon-Resonance-Based Photonic Quasi-Crystal Fiber Biosensor for High-Refractive-Index Liquid Analytes

TL;DR: In this paper, a sixfold photonic quasi-crystal fiber with a trapezoidal analyte channel based on surface plasmon resonance was proposed for the detection of high-refractive-index (RI) liquid analytes and numerically analyzed its sensing performance for different liquid analyte refractive indices and heights using the finite element method.
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Robust pedestal-free pulse compression in cubic-quintic nonlinear media

TL;DR: In this paper, a stability analysis of the soliton in the anomalous and normal dispersion regime is performed, and it is shown that the normal soliton is more stable.
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Nearly chirp- and pedestal-free pulse compression in nonlinear fiber Bragg gratings

TL;DR: In this article, the authors demonstrate almost chirp-and pedestal-free optical pulse compression in a nonlinear fiber Bragg grating with exponentially decreasing dispersion, which can be well approximated by a few gratings with different constant dispersions, and propose a compact pulse compression scheme, which consists of a linear and nonlinear grating to effectively compress both hyperbolic secant and Gaussian shaped pulses.
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Efficient Pulse Compression Using Tapered Photonic Crystal Fiber at 850 nm

TL;DR: In this article, a self-similar scaling analysis was performed on photonic crystal fiber (PCF) to obtain the short pulses with large compression factor and minimal pedestal energy when compared to adiabatic compression scheme.