Aug 2026· ARES· pp. 401-419· 0 citations· 49 references
Computer Science
TL;DR
A lifecycle model for LLM systems is proposed that supports security analysis by structuring it around security-relevant boundaries rather than workflow optimisation, and is supported by a 12-stage LLMOps pillar and a 9-category governance pillar.
Abstract
Large language models are being integrated into critical infrastructure and enterprise workflows at unprecedented scale,yet the lifecycle frameworks governing their development and operations were designed for operational efficiency rather than security analysis. As a result, security-relevant activities such as data provenance verification, artifact signing, agentic permission control, and decommissioning are often left implicit or assumed to receive due care. Governance frameworks, in turn, organise requirements around risk levels or management processes without clearly linking them to the lifecycle stages where they apply. This paper addresses both deficiencies. We propose a lifecycle model for LLM systems that supports security analysis by structuring it around security-relevant boundaries rather than workflow optimisation. The model comprises 32 stages across four core pipeline layers (Data, Model, Distribution, Application), supported by a 12-stage LLMOps pillar and a 9-category governance pillar. Thirteen stages are introduced here as separate units because they expose distinct security concerns that existing frameworks do not clearly distinguish. A governance mapping synthesising the NIST AI RMF, the EU AI Act, and ISO/IEC 42001 reveals a structural property of the current regulatory landscape: governance evidence concentrates at deployment-facing stages, where systems are visible to regulators, while the most consequential decisions, data selection, alignment strategy, and capability boundaries, are made at development-facing stages, where regulatory visibility is lowest.
The rapid evolution of large language models (LLMs) has introduced new challenges in model development, deployment, monitoring, and governance. Traditional software-focused Continuous Integration (CI) pipelines are insufficient for managing the iterative and data-intensive lifecycle of LLMs, which require continuous da...
H. Mohamed· International Journal of Art...· 0 citations
The results show that lifecycle integrity can be evaluated as a structural property of the artifact graph, enabling early, machine-checkable detection of missing relations.
Padma Iyenghar, Christopher Zimmerman, C. Gregorio· International Conference on...· 0 citations
Abstract—Federal and regulated organizations continue to rely on document-centric Authorization to Operate (ATO) processes even as the NIST Risk Management Framework (RMF), continuous monitoring guidance, Zero Trust Architecture (ZTA), and continuous authorization initiatives require more continuous, evidence-driven ri...
Anand Janjal· Journal of Cybersecurity Edu...· 0 citations
Findings show that LLMs can support early stages of the elicitation of security requirements, although human review is still needed, especially to improve or adjust certain aspects of the requirements.
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A hybrid framework that takes a BPMN process model and a security requirements document as input and automatically generates security annotations adhering to the SecBPMN2 specification is presented, providing a scalable foundation for security-by-design BPM.
Md Kamrul Islam, Tiphaine Henry, Mattia Salnitri et al.· Lecture notes in business in...· 0 citations
The Deterministic– Probabilistic Responsibility Allocation Framework is introduced, which distinguishes a model-first architecture from a hybrid code-first architecture by specifying where validation, routing, state management, contextual reasoning, output enforcement, recovery, and telemetry should reside.
Swapneswar Sundar Ray· AI and Machine Learning Adva...· 0 citations
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