Notice Board :

Call for Paper
Vol. 13 Issue 6

Submission Start Date:
June 01, 2026

Acceptence Notification Start:
June 10, 2026

Submission End:
June 30, 2026

Final MenuScript Due:
July 05, 2026

Publication Date:
July 10, 2026
                         Notice Board: Call for PaperVol. 13 Issue 6      Submission Start Date: June 01, 2026      Acceptence Notification Start: June 10, 2026      Submission End: June 30, 2026      Final MenuScript Due: July 05, 2026      Publication Date: July 10, 2026




Volume XIII Issue V

Author Name
Anju Verma, Mridul Tewari, Vishwas Dixit
Year Of Publication
2026
Volume and Issue
Volume 13 Issue 5
Abstract
Searchable encryption (SE) allows keyword search over encrypted data stored on untrusted cloud servers, enabling confidentiality and utility simultaneously for web applications that outsource their databases. This report reviews core SE models, surveys recent schemes and performance results, and outlines a practical architecture and experiment design suitable for implementation in real web applications, with a focus on searchable symmetric encryption (SSE) for cloud databases.[1][2] Recent work highlights a central tension: fully hiding search and access patterns without sacrificing efficiency remains impossible with current techniques, so practical systems must carefully balance leakage, performance, and complexity. State‑of‑the‑art SSE schemes improve locality and dynamic updates, achieving substantial performance gains on large datasets, but still leak access patterns and often require non‑trivial changes to application logic and indexing.
PaperID
2026/IJTRM/05/2026/46310

Author Name
Sheetal Adhikari, Sushma Kushwaha
Year Of Publication
2026
Volume and Issue
Volume 13 Issue 5
Abstract
The rapid proliferation of digital platforms and social media has significantly transformed the way information is generated and consumed. However, this transformation has also facilitated the widespread dissemination of fake news, which poses serious threats to societal stability, political systems, and public trust. Fake news refers to deliberately fabricated or misleading information presented as legitimate news, often created to achieve political, financial, or social gains. In recent years, automated fake news detection has emerged as a critical research area leveraging machine learning (ML), deep learning (DL), and multimodal analysis techniques. This paper presents a comprehensive survey of state-of-the-art approaches for fake news detection, including supervised, unsupervised, and semi-supervised learning methods. Furthermore, recent advancements such as transformer-based models, multimodal fusion techniques, and graph-based learning frameworks are discussed.
PaperID
2026/IJTRM/05/2026/46312

Author Name
Ankit Raj, Prof. Aman Prakash Janoriya
Year Of Publication
2026
Volume and Issue
Volume 13 Issue 5
Abstract
Traffic flow prediction plays a crucial role in intelligent transportation systems (ITS) by enabling effective traffic management, congestion control and route optimization. With the rapid growth of urbanization and vehicle density, accurate traffic forecasting has become essential for enhancing road safety and reducing travel delays. This study presents a comprehensive analysis of various machine learning techniques applied to traffic flow prediction, including traditional models such as Support Vector Machines (SVM), Random Forests and regression-based methods, as well as advanced deep learning approaches like Long Short-Term Memory (LSTM) networks, Convolution Neural Networks (CNN) and hybrid architectures. The research explores how these models handle temporal and spatial dependencies in traffic data, assess their performance using benchmark datasets and highlight their strengths and limitations in real-time prediction scenarios. The comparative study demonstrates that deep learnin
PaperID
2026/IJTRM/05/2026/46314

Author Name
Priyanka Sharma, Priyanka Vishvkarma
Year Of Publication
2026
Volume and Issue
Volume 13 Issue 5
Abstract
Educational institutions increasingly rely on web analytics to understand how students and staff use university and college websites, but traditional analytics tools often rely on invasive tracking techniques, cookies, and detailed logs that raise serious privacy and regulatory concerns. Differential Privacy (DP) offers a principled way to perform statistical analysis on user interaction data while mathematically limiting the privacy risk to any individual, and has seen growing adoption in industry and government systems.[1][2][3][4][5][6] This paper proposes and analyzes a framework for privacy-preserving web analytics on educational websites using Differential Privacy, focusing on core metrics such as page views, session counts, bounce rate, and basic engagement statistics. The framework integrates DP mechanisms into the data processing pipeline so that only noisy, privacy-protected aggregates are stored or exported, and it is evaluated using realistic website traffic scenarios to qu
PaperID
2026/IJTRM/05/2026/46319