ARCHITECTURAL PRINCIPLES AND OPERATIONAL PRACTICES FOR BUILDING SECURE DIGITAL INFRASTRUCTURE IN CLOUD ENVIRONMENTS

Topicality. Internet ecosystems evolve faster than traditional enterprise lifecycles, which results in the constant emergence of new attack vectors and growing risks of data leakage, data loss, and SLA violations. Security is no longer limited to being a property of code; it has become an end-to-end attribute of the entire ecosystem, encompassing identities, networks, data, applications, processes, and telemetry. Subject of study. Multi-layered security for cloud infrastructures and web applications that combines Zero Trust, defense in depth, secrets management, privacy controls, DevSecOps practices, and correlation of logs, metrics, and traces. Purpose. To create a reproducible scaffold of architectural principles and operational practices that reduces the attack surface, shortens MTTD and MTTR, supports SLO and SLA compliance, and facilitates alignment with control catalogs such as CIS AWS Foundations and industry frameworks including NIST SP 800-207, NIST SP 800-53, ISO/IEC 27001, CSA CCM, and the OWASP Top Ten. Methods. Isolation of environments and trust boundaries; role-based access with MFA and short-lived credentials; centralized secrets management and rotation; private networks and micro-segmentation; pervasive encryption at rest and in transit; data lifecycle and privacy controls; implementation of security gates in CI/CD; standardized configuration baselines and continuous compliance scanning; centralized logging, distributed tracing, and guided incident response. Results. A detailed set of policies and sub-practices with clearly defined goals, procedures, artifacts, acceptance criteria, and metrics; generalized figures representing security posture; a table of operational targets; and an analysis of observability’s role in improving MTTD and MTTR. Conclusions. The integration of security standards and observability into both system architecture and operational lifecycle improves system resilience, strengthens auditability, and ensures that risks remain manageable while maintaining acceptable operational costs.

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Publication Details

Journal
Terra security
Published
2025-09-26
DOI
https://doi.org/10.20998/3083-6298.2025.02.06
Primary Topic
Cloud Data Security Solutions
Type
article
Field-Weighted Citation Impact
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article

ARCHITECTURAL PRINCIPLES AND OPERATIONAL PRACTICES FOR BUILDING SECURE DIGITAL INFRASTRUCTURE IN CLOUD ENVIRONMENTS

Вячеслав Иванович Максимов
Terra security
Cloud Data Security Solutions
article

ARCHITECTURAL PRINCIPLES AND OPERATIONAL PRACTICES FOR BUILDING SECURE DIGITAL INFRASTRUCTURE IN CLOUD ENVIRONMENTS

Вячеслав Иванович Максимов
article en

Abstract

Topicality. Internet ecosystems evolve faster than traditional enterprise lifecycles, which results in the constant emergence of new attack vectors and growing risks of data leakage, data loss, and SLA violations. Security is no longer limited to being a property of code; it has become an end-to-end attribute of the entire ecosystem, encompassing identities, networks, data, applications, processes, and telemetry. Subject of study. Multi-layered security for cloud infrastructures and web applications that combines Zero Trust, defense in depth, secrets management, privacy controls, DevSecOps practices, and correlation of logs, metrics, and traces. Purpose. To create a reproducible scaffold of architectural principles and operational practices that reduces the attack surface, shortens MTTD and MTTR, supports SLO and SLA compliance, and facilitates alignment with control catalogs such as CIS AWS Foundations and industry frameworks including NIST SP 800-207, NIST SP 800-53, ISO/IEC 27001, CSA CCM, and the OWASP Top Ten. Methods. Isolation of environments and trust boundaries; role-based access with MFA and short-lived credentials; centralized secrets management and rotation; private networks and micro-segmentation; pervasive encryption at rest and in transit; data lifecycle and privacy controls; implementation of security gates in CI/CD; standardized configuration baselines and continuous compliance scanning; centralized logging, distributed tracing, and guided incident response. Results. A detailed set of policies and sub-practices with clearly defined goals, procedures, artifacts, acceptance criteria, and metrics; generalized figures representing security posture; a table of operational targets; and an analysis of observability’s role in improving MTTD and MTTR. Conclusions. The integration of security standards and observability into both system architecture and operational lifecycle improves system resilience, strengthens auditability, and ensures that risks remain manageable while maintaining acceptable operational costs.

Terra securityVol. 1(2)
Kharkiv National University of Radio Electronics (UA), V. N. Karazin Kharkiv National University (UA)
Openalex Percentile: Top 61%
Cloud Data Security Solutions
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