DESIGNING RESILIENT FRONT END ARCHITECTURES FOR REAL-TIME WEB APPLICATION

The need for real-time interactivity on web applications has transformed the fundamentals of front-end developmentto an extent. From gameplay and collaborating platforms to financial dashboards and Internet of Things trackers, theexpectation of instantaneous responses, smooth communication, and uninterrupted system availability is nowstandard. These requirements poses significant architectural challenges, particularly in developing fault-tolerantfront-end systems that can operate under high data throughput, with partial failures or network instability. This paperunravels the architectural patterns and principles required to create resilient front-end architectures for RTWAs. Arobust architecture provides consistent performance and minimal latency and guarantees fault tolerance, scalabilityunder pressure, and unhindered user experience in the face of disruptions.By combining research insights with engineers’ practices, this research discovers the essence of resilient front-endsystems, like efficient state management, strong error-handling strategies, asynchronous communication models, andutilizing such technologies as WebSocket and Service Workers. By thoroughly examining more than thirty-fiveacademic and technical sources, the paper provides principal trends in state synchronization, client interfaces’ faulttolerance, and real-time messaging protocols. The study also compares modern JavaScript frameworks (for example,React, Next.js) and their built-in resilience mechanisms while examining real-time data management strategies usingload distribution techniques and hybrid architectures.The findings form a systematic guide for the researchers and developers involved in RTWAs regarding designchoices that enhance its scalability, maintainability, and ability to recover the system. This task helps to continue thesearch for the best practic

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2024-08-21
DOI
https://doi.org/10.5281/zenodo.15486443
Primary Topic
Aquaculture disease management and microbiota
Type
article
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article

DESIGNING RESILIENT FRONT END ARCHITECTURES FOR REAL-TIME WEB APPLICATION

Zenodo (CERN European Organization for Nuclear Research)
Aquaculture disease management and microbiota
article

DESIGNING RESILIENT FRONT END ARCHITECTURES FOR REAL-TIME WEB APPLICATION

article en

Abstract

The need for real-time interactivity on web applications has transformed the fundamentals of front-end developmentto an extent. From gameplay and collaborating platforms to financial dashboards and Internet of Things trackers, theexpectation of instantaneous responses, smooth communication, and uninterrupted system availability is nowstandard. These requirements poses significant architectural challenges, particularly in developing fault-tolerantfront-end systems that can operate under high data throughput, with partial failures or network instability. This paperunravels the architectural patterns and principles required to create resilient front-end architectures for RTWAs. Arobust architecture provides consistent performance and minimal latency and guarantees fault tolerance, scalabilityunder pressure, and unhindered user experience in the face of disruptions.By combining research insights with engineers’ practices, this research discovers the essence of resilient front-endsystems, like efficient state management, strong error-handling strategies, asynchronous communication models, andutilizing such technologies as WebSocket and Service Workers. By thoroughly examining more than thirty-fiveacademic and technical sources, the paper provides principal trends in state synchronization, client interfaces’ faulttolerance, and real-time messaging protocols. The study also compares modern JavaScript frameworks (for example,React, Next.js) and their built-in resilience mechanisms while examining real-time data management strategies usingload distribution techniques and hybrid architectures.The findings form a systematic guide for the researchers and developers involved in RTWAs regarding designchoices that enhance its scalability, maintainability, and ability to recover the system. This task helps to continue thesearch for the best practic

Zenodo (CERN European Organization for Nuclear Research)
Industry, innovation and infrastructure
Openalex Percentile: Top 55%
Aquaculture disease management and microbiota
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