What the AI is allowed to do
Manage prompts, policies, model settings, agent instructions, tool permissions, and human interaction as part of the system—not as informal setup.
AI Software Development Lifecycle
AI systems depend on more than code. EAINE helps teams manage models, prompts, context, agents, policies, tests, releases, and live performance through one lifecycle.
Value, requirements, and architecture
Build, evaluate, and secure
Release, operate, and improve
What changes
Traditional software controls still matter. AI also introduces changing behaviour, context, autonomy, evidence, and learning that teams must manage.
Manage prompts, policies, model settings, agent instructions, tool permissions, and human interaction as part of the system—not as informal setup.
Manage data, knowledge, retrieval, memory, permissions, sources, freshness, and boundaries so answers have an accountable basis.
Keep requirements, decisions, evaluations, security results, approvals, operating signals, incidents, and learning connected.
Version code, models, tools, prompts, knowledge, controls, thresholds, and release configuration together.
For implementers and reviewers
The First Edition manuscript is mapped to EAINE’s framework and reference architecture (Framework baseline: EAINE v1.0 · Released 20 October 2026). Verification of the latest revision remains in progress.
Most readers can continue directly to the nine stages. Open this map when you need exact implementation or review references.
The First Edition manuscript is mapped to EAINE’s framework and reference architecture (Framework baseline: EAINE v1.0 · Released 20 October 2026). Verification of the latest revision remains in progress.
First Edition, 2026 · ISBN 978-93-345-4606-4 · Framework baseline: EAINE v1.0 · Released 20 October 2026. Review snapshot: 19 September 2026, covering the 7 September manuscript revision. Chapter-lineage and claim reconciliation remain open. The mappings below are navigation references, not verified alignment or independent review evidence.
Book anchor: Chapters 11 and 12
Website anchor: /adoption
Control references: DOM-001, CMP-001, DEC-011
Book anchor: Chapter 11
Website anchor: /framework
Control references: DOM-001, DOM-002, CMP-004, CMP-010, DEC-012
Book anchor: Chapter 13
Website anchor: /framework
Control references: DOM-002, DOM-010, CMP-002, CMP-011, DEC-013
Book anchor: Chapter 14
Website anchor: /framework
Control references: CMP-005, CMP-006, CMP-007, CMP-008, IF-004, IF-005, IF-006
Book anchor: Chapter 15
Website anchor: /evidence
Control references: DOM-006, CMP-009, REC-010, REC-011
Book anchor: Chapters 16 and 24
Website anchor: /evidence
Control references: DOM-008, CMP-010, CMP-011, DEC-016
Book anchor: Chapter 16
Website anchor: /evidence
Control references: DOM-002, DOM-007, CMP-003, CMP-014, DEC-017
Book anchor: Chapter 16
Website anchor: /adoption
Control references: DOM-009, CMP-012, CMP-013, DEC-018
Book anchor: Chapters 17 and 22
Website anchor: /adoption
Control references: DOM-010, CMP-015, DEC-019
Lifecycle evidence
The nine stages are not a separate story from the book. Each stage strengthens one or more of the five traces and leaves evidence for the next accountable decision.
What outcome matters, for whom, and within which constraints?
Who may decide, approve, act, stop, and answer?
Which exact configuration produced the outcome?
What justified release, and what remains unknown?
What did production change for the next decision?
Nine stages
Should this problem use AI, and under what constraints?
What must the system do, refuse, reveal, and escalate?
Where will context, controls, identity, tools, models, and evidence live?
How will prompts, code, models, tools, context, and policies change safely?
What evidence supports quality, safety, and business claims?
How can data, models, prompts, tools, agents, identities, and supply chains fail?
Is the system evidence-ready, operable, reversible, and approved?
Is real behaviour, impact, security, reliability, cost, and use observable?
How does evidence improve the system and the enterprise practice?
AI SDLC is not a waterfall. Stages may iterate, but accountability, evidence, and release authority must never disappear inside iteration.
Release principle
Before release, teams need realistic testing, security checks, named approval, operational ownership, monitoring, and a recovery plan.
Internal checks cover the nine stages, change routing, responsible-AI feedback, and tests for expected failure. Practitioner use, independent review, and field evidence are still required before a final release or a claim that the lifecycle is effective in practice.
Residual uncertainty is recorded and accepted by an accountable authority. It is not hidden behind model performance averages.