Building Infrastructure for Generative AI Workloads: Lessons from the Field

This article provides a comprehensive analysis of architectural requirements and implementation strategies necessary for supporting large-scale generative AI systems in production environments. Drawing from practical experiences across diverse industries, the examination covers critical infrastructure components essential for the successful deployment of generative AI workloads, including compute resource provisioning, model hosting architectures, and data pipeline designs. Key challenges in scaling and performance optimization receive thorough attention through detailed exploration of distributed training environments, inference scaling methodologies, and latency optimization techniques. Operational considerations, including cost management approaches, security frameworks, and MLOps integration practice, form a substantial component of the discussion. Architectural frameworks for production environments—encompassing containerized orchestration, event-driven inference, and multi-environment deployments—deliver concrete implementation guidance from field experience. This approach equips architects with proven methodologies for building dependable, optimized technical ecosystems for advanced generative computation at scale. Enterprises benefit from strategic direction and technical recommendations when establishing infrastructure that harmonizes performance demands with operational limitations.

Authors

Publication Details

Journal
Journal of Information Systems Engineering & Management
Published
2025-08-20
DOI
https://doi.org/10.52783/jisem.v10i58s.12749
Primary Topic
Scientific Computing and Data Management
Type
article
Field-Weighted Citation Impact
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article

Building Infrastructure for Generative AI Workloads: Lessons from the Field

Yadagiri Nadiminty
Journal of Information Systems Engineering & Management
Scientific Computing and Data Management
article

Building Infrastructure for Generative AI Workloads: Lessons from the Field

Yadagiri Nadiminty
article en

Abstract

This article provides a comprehensive analysis of architectural requirements and implementation strategies necessary for supporting large-scale generative AI systems in production environments. Drawing from practical experiences across diverse industries, the examination covers critical infrastructure components essential for the successful deployment of generative AI workloads, including compute resource provisioning, model hosting architectures, and data pipeline designs. Key challenges in scaling and performance optimization receive thorough attention through detailed exploration of distributed training environments, inference scaling methodologies, and latency optimization techniques. Operational considerations, including cost management approaches, security frameworks, and MLOps integration practice, form a substantial component of the discussion. Architectural frameworks for production environments—encompassing containerized orchestration, event-driven inference, and multi-environment deployments—deliver concrete implementation guidance from field experience. This approach equips architects with proven methodologies for building dependable, optimized technical ecosystems for advanced generative computation at scale. Enterprises benefit from strategic direction and technical recommendations when establishing infrastructure that harmonizes performance demands with operational limitations.

Journal of Information Systems Engineering & ManagementVol. 10(58s)
Openalex Percentile: Top 76%
Scientific Computing and Data Management
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