Bhalla et al. Res. Trends Int. J. Technol. Innov., October - December 2026, 1 (4) : 36-44
1International Institute of Information Technology Bangalore, Bangalore, India; 2Department of Computer Applications, NMIMS University, Mumbai, India
Article History
Accepted : 02 Aug 2026
Published : 05 Oct 2026
Publication Issue
Volume 1, Issue 4
October - December 2026
Page Number36–44
Elastic, on-demand IT infrastructure promises operational simplicity for bursty workloads, but cold-start latency and GPU access limitations raise questions about its suitability for real-time video analytics pipelines. This paper benchmarks an object-detection video analytics pipeline deployed across two elastic-container platforms and a traditional centralized data center deployment, measuring end-to-end latency, cost and cold-start frequency under three traffic patterns. The centralized deployment delivered the lowest steady-state latency, but the elastic-container platforms reduced cost by up to 58 percent for bursty, intermittent traffic patterns despite a measured cold-start penalty averaging 1.9 seconds.
Keywords - IT infrastructure, video analytics, edge computing, infrastructure benchmarking, cost optimization
Real-time video analytics workloads such as retail footfall counting are often bursty by nature, tied to business hours or events, making elastic, pay-per-use IT infrastructure attractive despite known concerns about cold-start latency for compute-heavy, GPU-dependent inference tasks.
An identical YOLOv8-based object detection video analytics pipeline was deployed on two elastic-container platforms and a baseline centralized data center deployment on reserved GPU nodes, and benchmarked under three synthetic traffic patterns, constant load, business-hours load, and bursty event-triggered load, measuring end-to-end frame processing latency, monthly infrastructure cost, and cold-start frequency.
The centralized baseline achieved the lowest steady-state per-frame latency at 82 milliseconds versus 134 milliseconds and 151 milliseconds for the two elastic-container platforms, but under the bursty event-triggered traffic pattern, the elastic-container platforms reduced monthly cost by 58 percent and 51 percent respectively relative to the always-on centralized baseline, at the cost of an average cold-start penalty of 1.9 seconds affecting the first request after an idle period.
The choice between elastic-container and centralized IT infrastructure for real-time video analytics should be driven by traffic pattern: elastic platforms offer substantial cost advantages for bursty workloads that can tolerate occasional cold-start latency, while steady high-throughput workloads remain better served by reserved infrastructure. Future work will evaluate provisioned-concurrency options to mitigate cold-start penalties.
[1] Jocher G. et al., YOLOv8, Ultralytics, 2023. [2] Barroso L. A. et al., The Datacenter as a Computer: Designing Warehouse-Scale Machines, Morgan and Claypool, 2018.
© 2026 The Author(s). Published by IJEIA Editorial Office. This is an open access article under the Creative Commons Attribution 4.0 International License (CC BY 4.0).
Tarun Bhalla, Ishika Chawla (2026). IT Infrastructure Benchmarking for Real-Time Video Analytics Deployment: Edge, Elastic-Container and Centralized Data Center Models. IJEIA, 1(4), 36-44.