Presenter Information

Sait SuerFollow

Location

https://www.kennesaw.edu/ccse/events/computing-showcase/fa24-cday-program.php

Streaming Media

Event Website

https://github.com/saitsuer/Optimization-of-Fixed-Time-in-Round-Robin-Scheduling-using-Clustering-Algorithms

Document Type

Event

Start Date

19-11-2024 4:00 PM

Description

This project introduces a method to optimize the fixed time in Round Robin scheduling using unsupervised clustering, specifically DBSCAN. Traditionally, fixed time is chosen arbitrarily, often leading to inefficiencies like increased waiting times and frequent context switches. Our approach leverages DBSCAN to identify clusters of processes based on arrival and burst times, as well as to detect outliers that may need unique fixed times. This adaptive, data-driven adjustment has demonstrated improved performance over traditional methods, reducing waiting time, minimizing context switches, and enhancing system throughput. Simulations confirmed the effectiveness of this approach, especially in datasets with outlier processes, where DBSCAN performed exceptionally well.

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Nov 19th, 4:00 PM

GPR-142 Optimization of Fixed Time in Round Robin Scheduling using Clustering Algorithms

https://www.kennesaw.edu/ccse/events/computing-showcase/fa24-cday-program.php

This project introduces a method to optimize the fixed time in Round Robin scheduling using unsupervised clustering, specifically DBSCAN. Traditionally, fixed time is chosen arbitrarily, often leading to inefficiencies like increased waiting times and frequent context switches. Our approach leverages DBSCAN to identify clusters of processes based on arrival and burst times, as well as to detect outliers that may need unique fixed times. This adaptive, data-driven adjustment has demonstrated improved performance over traditional methods, reducing waiting time, minimizing context switches, and enhancing system throughput. Simulations confirmed the effectiveness of this approach, especially in datasets with outlier processes, where DBSCAN performed exceptionally well.

https://digitalcommons.kennesaw.edu/cday/Fall_2024/PhD_Research/3