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Shail Kumar Dinkar

Researcher at Indian Institute of Technology Roorkee

Publications -  18
Citations -  246

Shail Kumar Dinkar is an academic researcher from Indian Institute of Technology Roorkee. The author has contributed to research in topics: Computer science & Engineering. The author has an hindex of 5, co-authored 11 publications receiving 107 citations.

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Opposition based Laplacian Ant Lion Optimizer

TL;DR: A novel algorithm called opposition based Laplacian antlion optimizer (OB-L-ALO) to accelerate the performance of the original ALO is presented, showing diversity in solving the real world optimization problems.
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An efficient opposition based Lévy Flight Antlion optimizer for optimization problems

TL;DR: A new efficient version of recently proposed Antlion Optimizer (ALO) namely Opposition based Levy Flight Antlions optimizer (OB-LF-ALO), conceptualized on the theory of Opposition based learning integrated with Levy Flight for random walk in place of uniform distributed randomWalk in original ALO is proposed.
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Opposition-based Laplacian Equilibrium Optimizer with Application in Image Segmentation using Multilevel Thresholding

TL;DR: A modified version of freshly developed Equilibrium Optimizer for segmentation of gray-scale images using multi-level thresholding and utilizing Otsu’s interclass variance function to obtain optimum threshold values for image segmentation is proposed.
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Accelerated Opposition-Based Antlion Optimizer with Application to Order Reduction of Linear Time-Invariant Systems

TL;DR: This paper proposes a novel variant of antlion optimizer (ALO), namely accelerated opposition-based antlions Optimizer (OB-ac-ALO) which is conceptualized withOpposition-based learning (OBL) model and integrated with acceleration coefficient (ac).
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A novel hybrid deep learning method with cuckoo search algorithm for classification of arrhythmia disease using ECG signals

TL;DR: This work presents an efficient hybridized approach for the classification of electrocardiogram (ECG) samples into crucial arrhythmia classes to detect heartbeat abnormalities by removing the inherent noise of ECG signals in preprocessing phase using discrete wavelet transformation (DWT).