Efficient Data Processing Techniques for Structured Data Analysis Using Stream Pipeline Parallelism

This research illustrates how dynamic task balancing and data sharing may improve distributed data processing. The technology handles parallel processing system difficulties with huge datasets by minimizing resource utilization, time complexity, and output. We modify the workload on the fly after splitting to ensure that all processing units receive equal work. One last optimization phase optimizes job distribution to maximize system efficiency. We test the solution for latency, speed, scalability, resource utilization, fault tolerance, and synchronization overhead. Results reveal that the new strategy outperforms existing ones in every regard. It features the lowest latency, quickest production, and highest growth potential. The approach handles mistakes well, divides data effectively, and syncs everything at a cheap cost. These properties make it ideal for real-time data processing and fast-growing applications. Future study will concentrate on flexible splitting strategies, fault tolerance mechanisms, and predictive analytics machine learning models. These modifications will improve real-time data handling.

Authors

Publication Details

Journal
Fusion Practice and Applications
Published
2024-12-30
DOI
https://doi.org/10.54216/fpa.180109
Primary Topic
Neural Networks and Applications
Type
article
Field-Weighted Citation Impact
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article

Efficient Data Processing Techniques for Structured Data Analysis Using Stream Pipeline Parallelism

Sampath Sampath, D. K. Sreekantha
Fusion Practice and Applications
Neural Networks and Applications
article

Efficient Data Processing Techniques for Structured Data Analysis Using Stream Pipeline Parallelism

Sampath Sampath, D. K. Sreekantha
article en

Abstract

This research illustrates how dynamic task balancing and data sharing may improve distributed data processing. The technology handles parallel processing system difficulties with huge datasets by minimizing resource utilization, time complexity, and output. We modify the workload on the fly after splitting to ensure that all processing units receive equal work. One last optimization phase optimizes job distribution to maximize system efficiency. We test the solution for latency, speed, scalability, resource utilization, fault tolerance, and synchronization overhead. Results reveal that the new strategy outperforms existing ones in every regard. It features the lowest latency, quickest production, and highest growth potential. The approach handles mistakes well, divides data effectively, and syncs everything at a cheap cost. These properties make it ideal for real-time data processing and fast-growing applications. Future study will concentrate on flexible splitting strategies, fault tolerance mechanisms, and predictive analytics machine learning models. These modifications will improve real-time data handling.

Fusion Practice and ApplicationsVol. 18(1)
Openalex Percentile: Top 78%
Neural Networks and Applications
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