Micro Frontend Architecture With Webpack Module Federation: Enhancing Modularity Focusing On Results And Their Implications

The increasing complexity of web applications has necessitated a shift towards modular architectures, with micro frontends emerging as a leading solution. This research explores the implementation of micro frontend architecture using Webpack Module Federation, aimed at enhancing modularity, scalability, and team collaboration. By breaking down monolithic applications into smaller, independent components, organizations can achieve greater flexibility and maintainability in their development processes. In our study, we conducted a comprehensive analysis of various case studies where micro frontend architecture was implemented. These case studies highlighted significant improvements in both development speed and application performance. Specifically, we found that teams adopting micro frontends reported a 30% reduction in deployment times, allowing for faster iterations and a more responsive development cycle. The isolation of frontend components also facilitated parallel development, enabling teams to work independently without the risk of code conflicts. This resulted in a marked increase in developer productivity and a decrease in the time-to-market for new features. Additionally, our results indicate that utilizing Webpack Module Federation allows for dynamic loading of micro frontends, which optimizes resource utilization. We observed a reduction in initial loading times by approximately 25% in applications utilizing module federation compared to traditional monolithic architectures. This improvement can be attributed to the ability to load only the necessary components on demand, thereby minimizing the overall application bundle size and enhancing user experience. Security and maintainability also emerged as significant advantages of the micro frontend approach. The decoupling of components reduces the surface area for vulnerabilities and simplifies the updating process, as individual micro frontends can be upgraded independently without affecting the entire system. Our findings suggest that organizations can improve their security posture by adopting micro frontends, as the isolation of components inherently limits the impact of potential threats.

Authors

Publication Details

Journal
Journal of Quantum Science and Technology.
Published
2024-11-01
DOI
https://doi.org/10.63345/jqst.v1i4.95
Citations
6
Primary Topic
Embedded Systems Design Techniques
Type
article
Field-Weighted Citation Impact
2.93
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article

Micro Frontend Architecture With Webpack Module Federation: Enhancing Modularity Focusing On Results And Their Implications

Ashish Kumar, Hrishikesh Rajesh Mane, Prof. Arpit Jain, Murali Mohana Krishna Dandu et al.
6 citations
Journal of Quantum Science and Technology.
Embedded Systems Design Techniques
2.93
article

Micro Frontend Architecture With Webpack Module Federation: Enhancing Modularity Focusing On Results And Their Implications

Ashish Kumar, Hrishikesh Rajesh Mane, Prof. Arpit Jain, Murali Mohana Krishna Dandu, Prof. Punit Goel, Er. Aman Shrivastav
article en
6 citations

Abstract

The increasing complexity of web applications has necessitated a shift towards modular architectures, with micro frontends emerging as a leading solution. This research explores the implementation of micro frontend architecture using Webpack Module Federation, aimed at enhancing modularity, scalability, and team collaboration. By breaking down monolithic applications into smaller, independent components, organizations can achieve greater flexibility and maintainability in their development processes. In our study, we conducted a comprehensive analysis of various case studies where micro frontend architecture was implemented. These case studies highlighted significant improvements in both development speed and application performance. Specifically, we found that teams adopting micro frontends reported a 30% reduction in deployment times, allowing for faster iterations and a more responsive development cycle. The isolation of frontend components also facilitated parallel development, enabling teams to work independently without the risk of code conflicts. This resulted in a marked increase in developer productivity and a decrease in the time-to-market for new features. Additionally, our results indicate that utilizing Webpack Module Federation allows for dynamic loading of micro frontends, which optimizes resource utilization. We observed a reduction in initial loading times by approximately 25% in applications utilizing module federation compared to traditional monolithic architectures. This improvement can be attributed to the ability to load only the necessary components on demand, thereby minimizing the overall application bundle size and enhancing user experience. Security and maintainability also emerged as significant advantages of the micro frontend approach. The decoupling of components reduces the surface area for vulnerabilities and simplifies the updating process, as individual micro frontends can be upgraded independently without affecting the entire system. Our findings suggest that organizations can improve their security posture by adopting micro frontends, as the isolation of components inherently limits the impact of potential threats.

Journal of Quantum Science and Technology.Vol. 1(4)
Openalex Percentile: Top 7%
Embedded Systems Design Techniques
2.93
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