Notice Board :

Call for Paper
Vol. 7 Issue 4

Submission Start Date:
April 01, 2026

Acceptence Notification Start:
April 10, 2026

Submission End:
April 25, 2026

Final MenuScript Due:
April 30, 2026

Publication Date:
April 30, 2026
                         Notice Board: Call for PaperVol. 7 Issue 4      Submission Start Date: April 01, 2026      Acceptence Notification Start: April 10, 2026      Submission End: April 25, 2026      Final MenuScript Due: April 30, 2026      Publication Date: April 30, 2026




Volume VI Issue VIII

Author Name
Ashish Puranik, Pragya Sharma
Year Of Publication
2025
Volume and Issue
Volume 6 Issue 8
Abstract
The exponential growth of electronic waste (e-waste) in urban areas poses significant environmental, logistical, and economic challenges. Efficient management of reverse logistics networks is essential for sustainable e-waste handling, especially in rapidly developing cities like Indore, Madhya Pradesh. This study presents an optimization framework based on Operations Research (OR) techniques to enhance the collection, routing, and processing of e-waste. A Mixed Integer Linear Programming (MILP) model is developed with the objective of minimizing total costs, including collection, transportation, and handling, while adhering to real-world constraints such as vehicle capacities, time windows, and facility limits. Primary and secondary data were gathered from local municipalities, recyclers, logistics providers, and informal aggregators. The model is solved using MATLAB/CPLEX, with GIS-based mapping for spatial optimization and Arena simulation for evaluating dynamic flows. The results r
PaperID
2025/IJEASM/8/2025/3222

Author Name
Jegadeeswaran Balakrishnan, Trilok Singh
Year Of Publication
2025
Volume and Issue
Volume 6 Issue 8
Abstract
The automotive aftermarket is undergoing rapid transformation, driven by the integration of Artificial Intelligence (AI) and data-driven technologies to meet evolving customer expectations for faster service delivery and enhanced experiences. This research paper explores the development and implementation of AI-powered smart service models in the automotive aftermarket, focusing on predictive maintenance, intelligent inventory management, and personalized customer engagement. By leveraging machine learning algorithms, IoT-enabled diagnostics, and real-time data analytics, service providers can minimize vehicle downtime, accelerate repair cycles, and deliver highly customized service recommendations. The study highlights how AI-driven insights not only streamline operational efficiency but also foster customer loyalty by improving transparency, convenience, and trust in aftermarket services. Through industry case studies and empirical analysis, this paper demonstrates that AI-enabled sm
PaperID
2025/IJEASM/8/2025/3223

Author Name
Deepak Narayanam, Trilok Singh
Year Of Publication
2025
Volume and Issue
Volume 6 Issue 8
Abstract
The rising complexity and volume of Anti-Money Laundering (AML) regulations have significantly increased the compliance burden on financial institutions, demanding timely, accurate, and auditable documentation and reporting. This research paper examines the transformative potential of large language models (LLMs) in automating AML workflows, particularly in drafting, validating, and submitting regulatory documentation and reports. By analyzing current AML compliance challenges—including manual errors, resource constraints, and data silos—this study explores how LLM-based systems can enhance operational efficiency, consistency, and regulatory adherence. The paper reviews existing implementations, highlights use cases such as automated suspicious activity report (SAR) generation, and discusses integration with transaction monitoring systems. It also addresses key limitations, including model bias, explainability concerns, and data privacy risks. Finally, the research offers recommendatio
PaperID
2025/IJEASM/8/2025/3224

Author Name
Ajit Kumar
Year Of Publication
2025
Volume and Issue
Volume 6 Issue 8
Abstract
Infectious diseases remain a major global health concern due to their rapid transmission and unpredictable outbreak patterns. Accurate prediction of disease spread is essential for early intervention, resource allocation, and effective public health planning. Traditional epidemiological models often struggle to capture the complex spatial and temporal dynamics associated with disease transmission. This study proposes a spatiotemporal machine learning framework for predicting the spread of infectious diseases using historical epidemiological data, environmental variables, and human mobility information. The proposed model integrates spatial dependencies between geographic regions and temporal patterns of disease incidence to improve forecasting accuracy. Advanced machine learning techniques such as Long Short-Term Memory (LSTM) networks and spatial feature modeling are used to capture nonlinear relationships in epidemiological data. Experimental results demonstrate that the proposed mod
PaperID
2025/IJEASM/8/2025/3233