Zero Trust Architecture in Cloud-Native Systems Design Principles, Implementation Strategies, and Security Trade-offs in Distributed Environments

Cloud-native approaches to building things with computers have completely changed how modern computing works, letting us have systems that can easily grow, bounce back from problems, and adapt on the fly, all thanks to breaking applications into tiny 'microservices', packaging them in 'containers', and using systems like Kubernetes to manage it all [11], [14]. But because these systems are spread about, short-lived and intensely connected to each other, the old way of protecting things with a strong outer boundary just doesn’t work [6]. The National Institute of Standards and Technology’s ‘Zero Trust Architecture’ (ZTA) is a total rethink, doing away with the idea of anything being trusted by default and instead always confirming that every single part of the system is what it should be [1]. This research looks at using Zero Trust ideas within cloud-native systems, with a detailed look at how to design it, how to actually put it in place, and the security compromises you have to make in these distributed setups [7], [8]. We’re suggesting a complete system for building into cloud-native environments, one that brings together security focused on who you are (identity), access control guided by rules, splitting things up into very small protected sections (micro-segmentation), and constantly keeping an eye on everything [15], [16]. We’ll also examine using service meshes, mutual Transport Layer Security (mTLS) and policy enforcement engines as ways of doing this, and how they might work in actual deployments [25], [27].

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-03-26
DOI
https://doi.org/10.5281/zenodo.19238131
Primary Topic
Security and Verification in Computing
Type
article
Field-Weighted Citation Impact
0.00
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article

Zero Trust Architecture in Cloud-Native Systems Design Principles, Implementation Strategies, and Security Trade-offs in Distributed Environments

Maria Papadaki
Zenodo (CERN European Organization for Nuclear Research)
Security and Verification in Computing
article

Zero Trust Architecture in Cloud-Native Systems Design Principles, Implementation Strategies, and Security Trade-offs in Distributed Environments

Maria Papadaki
article en

Abstract

Cloud-native approaches to building things with computers have completely changed how modern computing works, letting us have systems that can easily grow, bounce back from problems, and adapt on the fly, all thanks to breaking applications into tiny 'microservices', packaging them in 'containers', and using systems like Kubernetes to manage it all [11], [14]. But because these systems are spread about, short-lived and intensely connected to each other, the old way of protecting things with a strong outer boundary just doesn’t work [6]. The National Institute of Standards and Technology’s ‘Zero Trust Architecture’ (ZTA) is a total rethink, doing away with the idea of anything being trusted by default and instead always confirming that every single part of the system is what it should be [1]. This research looks at using Zero Trust ideas within cloud-native systems, with a detailed look at how to design it, how to actually put it in place, and the security compromises you have to make in these distributed setups [7], [8]. We’re suggesting a complete system for building into cloud-native environments, one that brings together security focused on who you are (identity), access control guided by rules, splitting things up into very small protected sections (micro-segmentation), and constantly keeping an eye on everything [15], [16]. We’ll also examine using service meshes, mutual Transport Layer Security (mTLS) and policy enforcement engines as ways of doing this, and how they might work in actual deployments [25], [27].

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 8%
Security and Verification in Computing
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