Optimizing Cloud Scalability: Advanced Architectures in Azure for High-performance Applications

With the growing popularity of cloud computing among various enterprises the need for highly scalable and high performers architectures becomes an imperative for survival. In today’s business environment, organisations face workload volatility challenges in addition to the basic requirements of dependability, productivity and economy. The creation of such goals is built upon the infrastructure hosted by the cloud computing where resources can be adjusted on a per-demand basis. Microsoft Azure, which is among the most popular cloud environments, provides various solutions for coping with heterogeneous demands in building scalable applications. There are main services such as Virtual Machine Scale Sets (VMSS) for automatically scaling, Azure Kubernetes Service (aks) for container orchestration services and the serverless functions including Azure Functions and Logic Apps to reduce challenges related to infrastructure management. Continuing from our previous papers, this paper aims at discussing new paradigms for architecture in Azure that are pivotal in enabling scalability and high availability at cloud environments. These strategies focus on four major paradigms: The following concepts are very relevant to the context of this article; auto-scaling, distributed computing, serverless architecture, and microservices. Auto-scaling helps applications to scale-up or down with ease, all in order to avoid wastage of the sources with the application delivering the best results online. Majority of distributed computing improves fault tolerance and performance through Azure’s Service Fabric and Functions for partitions and replication. Event-driven Serverless paradigms allows real time scalability without adding multi layer management of server. Of special interest is the focus of the study on how such strategies can be effectively applied in real life situations. A real life example of an e-commerce platform show the powerful approaches of these approaches in managing the seasonal traffic issues and at the same time reduce cost and achieve operational efficiency. This case study shows how Azure’s architectural tools can grow an application to support triple the traffic and do so while maintaining availability and responsiveness.

Authors

Publication Details

Journal
International Journal For Multidisciplinary Research
Published
2025-02-06
DOI
https://doi.org/10.36948/ijfmr.2025.v07i01.35818
Primary Topic
Cloud Computing and Resource Management
Type
article
Field-Weighted Citation Impact
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article

Optimizing Cloud Scalability: Advanced Architectures in Azure for High-performance Applications

Radhakrishnan Arikrishna Perumal -
International Journal For Multidisciplinary Research
Cloud Computing and Resource Management
article

Optimizing Cloud Scalability: Advanced Architectures in Azure for High-performance Applications

Radhakrishnan Arikrishna Perumal -
article en

Abstract

With the growing popularity of cloud computing among various enterprises the need for highly scalable and high performers architectures becomes an imperative for survival. In today’s business environment, organisations face workload volatility challenges in addition to the basic requirements of dependability, productivity and economy. The creation of such goals is built upon the infrastructure hosted by the cloud computing where resources can be adjusted on a per-demand basis. Microsoft Azure, which is among the most popular cloud environments, provides various solutions for coping with heterogeneous demands in building scalable applications. There are main services such as Virtual Machine Scale Sets (VMSS) for automatically scaling, Azure Kubernetes Service (aks) for container orchestration services and the serverless functions including Azure Functions and Logic Apps to reduce challenges related to infrastructure management. Continuing from our previous papers, this paper aims at discussing new paradigms for architecture in Azure that are pivotal in enabling scalability and high availability at cloud environments. These strategies focus on four major paradigms: The following concepts are very relevant to the context of this article; auto-scaling, distributed computing, serverless architecture, and microservices. Auto-scaling helps applications to scale-up or down with ease, all in order to avoid wastage of the sources with the application delivering the best results online. Majority of distributed computing improves fault tolerance and performance through Azure’s Service Fabric and Functions for partitions and replication. Event-driven Serverless paradigms allows real time scalability without adding multi layer management of server. Of special interest is the focus of the study on how such strategies can be effectively applied in real life situations. A real life example of an e-commerce platform show the powerful approaches of these approaches in managing the seasonal traffic issues and at the same time reduce cost and achieve operational efficiency. This case study shows how Azure’s architectural tools can grow an application to support triple the traffic and do so while maintaining availability and responsiveness.

International Journal For Multidisciplinary ResearchVol. 7(1)
Openalex Percentile: Top 97%
Cloud Computing and Resource Management
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Optimizing Cloud Scalability: Advanced Architectures in Azure for High-performance Applications — Radhakrishnan Arikrishna Perumal - · International Journal For Multidisciplinary Research (2025) | TGRS Research Map | TGRS