https://www.rgnpublications.com/journals/index.php/jims/issue/feedJournal of Informatics and Mathematical Sciences2025-12-31T00:00:00+0530Prof. (Dr.) Prem Nathpnath@rgnpublications.comOpen Journal Systems<p><strong>Focus and Scope:</strong> The <em data-start="94" data-end="151">Journal of Informatics and Mathematical Sciences (JIMS)</em> has been in continuous publication since 2009. The journal is devoted to the dissemination of original research contributions in all areas of Informatics and Mathematical Sciences. Manuscripts considered for publication must be clearly written, present significant findings, and require no major revisions. Acceptance of articles is strictly subject to peer review.</p> <p style="line-height: 2;" data-start="521" data-end="886"><strong data-start="521" data-end="541">Editorial Policy: </strong>Decisions regarding acceptance or rejection are rendered expeditiously, typically within four to eight weeks of manuscript submission. In addition to original research papers, the journal also publishes authoritative survey articles that provide comprehensive accounts of research developments in selected areas over the past three decades.</p> <p><strong>Peer Review Process:</strong> All submitted manuscripts are subject to peer review. Each paper is evaluated by at least one referee, and the final decision is made by the Editorial Board within four to eight weeks of submission.</p> <p><strong>Publication Frequency:</strong> The Journal of Informatics and Mathematical Sciences publishes three/four issues per volume annually.</p> <p><strong>Open Access Policy:</strong> This journal provides immediate open access to its content on the principle that making research freely available to the public supports a greater global exchange of knowledge.</p> <p><strong>Advertising Policy:</strong> The "Journal of Informatics and Mathematical Sciences" accepts online advertising. For any query, kindly contact us at info@rgnpublications.com</p>https://www.rgnpublications.com/journals/index.php/jims/article/view/3464Applications of the Tachibana Operator for Invariant Pseudoparallel Submanifold in Kenmotsu Manifolds Equipped With a General Connection2025-11-20T08:32:54+0530Mehmet Atçekenmehmetatceken@aksaray.edu.trTuğba Merttmert@cumhuriyet.edu.tr<p>The present paper aims to study invariant pseudoparallel submanifolds of a Kenmotsu manifold admitting general connection, obtain necessary and sufficient conditions for an invariant pseudoparallel submanifold to be totally geodesic under some conditions. Furthermore, we investigate the conditions on the general connection of an invariant submanifold of a Kenmotsu manifold.</p>2025-12-30T00:00:00+0530Copyright (c) 2025 Journal of Informatics and Mathematical Scienceshttps://www.rgnpublications.com/journals/index.php/jims/article/view/3424Enhanced Survey Estimation Using Calibration under Scrambled Response and Measurement Error2025-10-15T16:43:53+0530Ridhi Agarwalridhi@acadally.comYash Prakashyash@acadally.com<p>This study addresses the challenges of collecting accurate data on sensitive issues by applying various Scrambled Response Techniques combined with various calibration estimators under measurement error. A simulation study using real data evaluates the performance of the proposed estimators both with and without measurement error. Results show that the proposed method consistently outperforms traditional Scrambled Response Technique, demonstrating greater efficiency and reliability in handling sensitive survey data.</p>2025-12-30T00:00:00+0530Copyright (c) 2025 Journal of Informatics and Mathematical Scienceshttps://www.rgnpublications.com/journals/index.php/jims/article/view/3334A New Non-Divergent Root Finding Algorithm2025-08-24T14:24:53+0530Mehmet Pakdemirlipakdemirli@gmail.com<p>A new iteration algorithm is proposed. The algorithm does not diverge when the first derivative is zero or nearly zero as in the case of Newton-Raphson method. The convergence rate of the new algorithm is linear compared to the quadratic convergence of the Newton-Raphson method (The Newton-Raphson method is faster). The algorithm significantly increases the interval of convergence for roots. A hybrid algorithm combining the increase in the range of convergence of the new method and the faster rate of convergence of the Newton-Raphson method is suggested. The criterion to select the best choice during the running of the algorithm is given. Numerical examples are treated and the three methods (Non-Divergent Algorithm, Newton-Raphson method and the Hybrid method) are contrasted with each other. The hybrid method is recommended since it decreases the number of iterations and increases the range of convergence.</p>2025-12-30T00:00:00+0530Copyright (c) 2025 Journal of Informatics and Mathematical Scienceshttps://www.rgnpublications.com/journals/index.php/jims/article/view/3358Reconstruction of a Discontinuous Refractive Index Using Modified Transmission Eigenvalues2025-09-08T08:11:09+0530Yun Chol Kimkyc78924@star-co.net.kpChol Won Okyc78924@star-co.net.kp<p>We consider the inverse problem of reconstructing a spherically symmetric and discontinuous refractive index using modified interior transmission eigenvalues. We first investigate the asymptotic behavior of the characteristic function. Then we establish the uniqueness of a discontinuous refractive index from modified transmission eigenvalues without assuming that the contrast has a fixed sign. Finally, numerical examples are presented to verify the uniqueness results.</p>2025-12-30T00:00:00+0530Copyright (c) 2025 Journal of Informatics and Mathematical Scienceshttps://www.rgnpublications.com/journals/index.php/jims/article/view/3468Integrating Algorithms for Complete Bipartite Graph in Network Analysis2025-11-23T07:28:00+0530K. Rama Thulasiramathulasik82@gmail.comG. Shobhalathalathashobha91@gmai.com<p>This study aims to provide a comprehensive overview of network analysis, emphasizing the construction and application of complete bipartite graphs within organizational networks. The approach integrates both statistical and algorithmic perspectives to explore the network relationships among components in a system. In this framework, complete bipartite graphs serve as a powerful structure for implementing classical graph theory algorithms to address key problems such as game theory valuation, minimum spanning tree (MST) construction, maximum flow determination, and maximum weight matching. To address these problems, various well-established techniques are employed: the graphical method is used to solve the value of the game, Prim’s algorithm for finding the MST, the Ford-Fulkerson Algorithm for computing the maximum flow, and the Hungarian Algorithm for identifying the maximum weight matching in a complete bipartite graph. These methodologies are demonstrated through suitable numerical examples within a unified network design framework. The complete bipartite graph structure, characterized by its full interconnectedness across vertex sets, enables greater flexibility and precision in handling complex network-related problems typically encountered in organizational and operational contexts. The findings are essential for optimizing human resource allocations across departments, improving supply chain logistics by matching suppliers to distributors, balancing workloads in distributed computing systems, and enhancing communication flow in hierarchical structures. Furthermore, this model is particularly beneficial in scenarios such as task scheduling, transportation planning, and decision-making processes where interdependent entities must be efficiently paired or evaluated.</p>2025-12-31T00:00:00+0530Copyright (c) 2025 Journal of Informatics and Mathematical Sciences