Notice Board :

Call for Paper
Vol. 16 Issue 5

Submission Start Date:
May 01, 2024

Acceptence Notification Start:
May 10, 2024

Submission End:
May 25, 2024

Final MenuScript Due:
May 31, 2024

Publication Date:
May 31, 2024
                         Notice Board: Call for PaperVol. 16 Issue 5      Submission Start Date: May 01, 2024      Acceptence Notification Start: May 10, 2024      Submission End: May 25, 2024      Final MenuScript Due: May 31, 2024      Publication Date: May 31, 2024




Volume XVI Issue II

Author Name
Irfan Aziz, Vikrant S Choudhary
Year Of Publication
2024
Volume and Issue
Volume 16 Issue 2
Abstract
This research initiative is driven by the desire to elevate the comfort and productivity of individuals working within workshop environments. Workshops often encompass a variety of activities ranging from fabrication and assembly to creative endeavors, and the comfort of occupants plays a crucial role in ensuring their effectiveness. Recognizing this, the study employs Computational Fluid Dynamics (CFD) analysis as a tool to delve into the intricacies of heating and cooling systems within such spaces. The primary aim of this research is twofold: first, to optimize the thermal environment of workshops to enhance productivity, and second, to achieve this optimization in a manner that is energy-efficient and sustainable. To achieve these objectives, the study undertakes a comprehensive examination of different heating and cooling strategies, employing CFD simulations to analyze their effectiveness. The utilization of CFD allows for a detailed investigation into various aspects of airflow,
PaperID
2024/EUSRM/2/2024/61488

Author Name
Gerish Sharma, Vikrant S Choudhary
Year Of Publication
2024
Volume and Issue
Volume 16 Issue 2
Abstract
Natural fibers represent a renewable resource and serve as supplements for polymer-based materials. The development of composite materials using natural fibers, known as environmentally friendly composites, has gained widespread acceptance in society. These natural fibers offer a viable alternative to synthetic materials and contribute to applications requiring reduced weight and energy conservation. The utilization of natural fiber-reinforced polymer composites and natural-based resins has led to the replacement of existing synthetic polymer or glass fiber reinforced materials on a large scale. Industries such as automotive and aircraft are particularly interested in exploring various types of natural fibers, notably hemp, flax, and sisal, along with bio-resin systems for their interior components. The attractiveness of natural fiber composites lies in their high specific properties coupled with lower costs compared to traditional materials. This combination of superior performance ch
PaperID
2024/EUSRM/2/2024/61489

Author Name
Yogesh Patidar, Ajay Kumar, Vimal Agriya, Gaytri Malviya
Year Of Publication
2024
Volume and Issue
Volume 16 Issue 2
Abstract
This paper introduces an enhanced distributed ant colony optimization (ACO) algorithm tailored for routing and spectrum assignment (RSA) in optical burst switched (OBS) networks with flexible spectrum options. The algorithm addresses the spectrum continuity constraint and integrates a distributed approach for monitoring congestion along network links. By leveraging this congestion information, the algorithm dynamically selects route-spectrum combinations to minimize burst loss probability (BLP). The key innovation lies in the incorporation of a dynamic route congestion measure, as opposed to the static route length measure used in previous approaches. This dynamic approach enables the algorithm to adaptively adjust routing decisions based on real-time congestion levels, enhancing the efficiency of spectrum utilization and reducing BLP. The effectiveness of the proposed algorithm is evaluated using an optical burst switching simulator across various network topologies, with multiple spe
PaperID
2024/EUSRM/2/2024/61490

Author Name
Afroz Alam, Vijay Kumar
Year Of Publication
2024
Volume and Issue
Volume 16 Issue 2
Abstract
This study uses statistical analysis to investigate coastal geomorphological changes in the Western Ghats region and their relationship with climate change. Using a multi-decade database that includes variables such as sea level rise, precipitation patterns, temperature changes and coastal erosion rates, the study determines the extent and magnitude of geomorphological changes. Statistical modeling techniques are used to determine the relationship between climate drivers and coastal land dynamics. The findings reveal a significant link between sea level rise, intense storm events and the rate of coastal erosion in the Western Ghats region. In addition, anthropogenic factors such as urbanization and deforestation are important contributors to coastal geomorphological changes. These insights highlight the importance of implementing adaptive measures to reduce the impact of climate change on coastal ecosystems and human communities. By combining statistical analysis with a cross-sectional
PaperID
2024/EUSRM/2/2024/61491