Institution profile

Erzurum Technical University

Academic institutioneurope · tr
Official website
Research library2linked papers
Opportunities0open roles
Selected work

Representative Papers

Sign Language Recognition Using Original and Synthetic Depth Image Based Point Cloud Data Models

Aug 10, 2026

This study addresses the limitation in existing sign language recognition research, which predominantly relies on RGB images and lacks access to real depth data, thereby hindering the application of point cloud–based methods. For the first time, it systematically compares the performance of point clouds derived from real versus synthetic depth maps for sign language recognition. Specifically, synthetic depth maps are generated from RGB images using Depth Anything V2, and point clouds are constructed from both synthetic and real depth data. These point clouds are then evaluated using representative models including PointNet variants, LSTM, and Point Gesture Map. Experimental results demonstrate that point clouds from synthetic depth consistently achieve recognition accuracy on par with or even surpassing those from real depth across multiple architectures, confirming their feasibility and practical utility as a viable alternative in scenarios where genuine depth sensors are unavailable.

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A Double Inertial Forward-Backward Splitting Algorithm With Applications to Regression and Classification Problems

May 01, 2025

This paper addresses the problem of finding zeros of the sum of a co-coercive operator and a maximally monotone operator in real Hilbert spaces—a formulation that unifies various regression and classification tasks. To this end, we propose a novel doubly inertial forward–backward splitting algorithm, the first to incorporate two independent, tunable inertia parameters. Crucially, this design accelerates convergence and enhances numerical stability without incurring additional computational cost. Under standard assumptions of monotonicity and co-coercivity, we establish rigorous weak convergence of the generated iterates. Our theoretical analysis integrates tools from operator splitting, inertial acceleration, and monotone operator theory. Extensive experiments on benchmark regression and classification tasks demonstrate that the proposed method achieves faster convergence and higher accuracy than classical and recent forward–backward-type algorithms, delivering consistent state-of-the-art performance.

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Recent publications

Latest Papers

Sign Language Recognition Using Original and Synthetic Depth Image Based Point Cloud Data Models

Aug 10, 2026

This study addresses the limitation in existing sign language recognition research, which predominantly relies on RGB images and lacks access to real depth data, thereby hindering the application of point cloud–based methods. For the first time, it systematically compares the performance of point clouds derived from real versus synthetic depth maps for sign language recognition. Specifically, synthetic depth maps are generated from RGB images using Depth Anything V2, and point clouds are constructed from both synthetic and real depth data. These point clouds are then evaluated using representative models including PointNet variants, LSTM, and Point Gesture Map. Experimental results demonstrate that point clouds from synthetic depth consistently achieve recognition accuracy on par with or even surpassing those from real depth across multiple architectures, confirming their feasibility and practical utility as a viable alternative in scenarios where genuine depth sensors are unavailable.

0 citationsRead paper

A Double Inertial Forward-Backward Splitting Algorithm With Applications to Regression and Classification Problems

May 01, 2025

This paper addresses the problem of finding zeros of the sum of a co-coercive operator and a maximally monotone operator in real Hilbert spaces—a formulation that unifies various regression and classification tasks. To this end, we propose a novel doubly inertial forward–backward splitting algorithm, the first to incorporate two independent, tunable inertia parameters. Crucially, this design accelerates convergence and enhances numerical stability without incurring additional computational cost. Under standard assumptions of monotonicity and co-coercivity, we establish rigorous weak convergence of the generated iterates. Our theoretical analysis integrates tools from operator splitting, inertial acceleration, and monotone operator theory. Extensive experiments on benchmark regression and classification tasks demonstrate that the proposed method achieves faster convergence and higher accuracy than classical and recent forward–backward-type algorithms, delivering consistent state-of-the-art performance.

0 citationsRead paper