technical-term · Operating model · emerging · Reviewed
AI-native SDLC
An approach to software delivery that connects AI-assisted intent, implementation, verification, release, and operational learning through maintained artifacts and accountable decisions.
Definition
AI-native SDLC means designing the software development lifecycle around the capabilities and failure modes of AI-assisted work. Intent, requirements, repository context, implementation plans, tests, review findings, and operating feedback become linked inputs to a continuing delivery loop. Human owners determine the intended outcome, resolve consequential uncertainty, and authorize release. The term describes an operating approach; it is not a single vendor product, an assurance certificate, or a claim that more autonomous activity produces better software.
The software engineering practices are established; their integration into AI-native delivery remains an evolving operating model. Claude Academy’s playbook is official Anthropic guidance, not an independent comparison of frameworks.
Why it matters
Claude Academy’s AI-native SDLC playbook is a useful primary reference because it connects the work around implementation. It begins with accepted intent, carries decisions into planning and repository knowledge, and connects executable feedback, review, deployment, and monitoring. Adoption is modular: a team can improve one bounded workflow without attempting the complete automated loop immediately.
The playbook already makes governance concrete in several places. It distinguishes advisory skills from mandatory enforcement, protects defect-reproducing tests, retains human production authorization, scopes agent credentials, and discusses administrator-managed hooks and sandboxing. Its treatment of parallel work is limited by the team’s ability to review the result. These controls should be credited accurately when comparing approaches.
LockedIn Labs’ interpretation is that the artifact chain becomes more useful when every consequential transition has an explicit acceptance record. A team should be able to identify the candidate, the operating scope it requests, the evidence actually produced, the policy used to evaluate it, and the person who can accept the remaining risk. This is our implementation proposal, rather than a claim that the playbook omits accountability.
The lifecycle applies both to using agents to build ordinary software and to delivering applications whose runtime behavior depends on models. The second case adds changeable prompts, retrieval material, model routes, tools, and permissions to the operating boundary. A code build cannot by itself evaluate all of those inputs. Reassess the affected behavior when a material input changes, using the cadence and checks justified by its consequence.
System anatomy
- Accepted intent
- Record the user problem, expected outcome, constraints, open questions, and the owner who can accept or revise them. Link working artifacts to the authoritative requirements system instead of creating competing sources of truth.
- Maintained context
- Keep repository instructions and reusable skills concise, versioned, owned, and corrected after recurring mistakes. A documented instruction helps generation; mandatory behavior needs the relevant permission or executable control.
- Bounded implementation
- Review a plan at the level appropriate to the change, isolate genuinely independent work, and preserve a path for revising the plan when evidence changes. More sessions are useful only while integration and review can absorb the work.
- Observable verification
- Run the checks that address the candidate’s risks and retain their actual results. Preserve defect-reproducing tests, challenge agent configuration on representative work, and keep model findings distinct from human approval and deterministic gates.
- Specific authorization
- Our acceptance-record proposal binds an authorized operating scope to a candidate and its evidence. Record restrictions and unresolved findings; a change to the candidate, environment, permission, or acceptance policy may invalidate an earlier decision.
- Operational learning
- Use defined monitoring criteria to detect deviations, direct investigation to owners, and turn failures into regression cases. Rehearse recovery and account for effects that restoring an earlier software version cannot reverse.
Important distinctions
- A coding assistant rollout
- Installing an assistant changes how code can be produced. An AI-native lifecycle also changes how intent, context, review, deployment, and learning connect across the team.
- Agent self-review
- A generator can use tests and critique for feedback. Independent verification additionally requires a defensible separation of evidence, methods, permissions, and acceptance authority.
- Prompt-based policy
- Instructions and skills can express expectations. Enforcement depends on the effective tool, identity, sandbox, repository, and release controls; the playbook explicitly recognizes this distinction.
- One universal stage count
- A six-stage playbook and LockedIn Labs’ eight-phase framework organize overlapping responsibilities differently. Compare the decisions, controls, and evidence each covers; phase count alone establishes no advantage.
- A productivity guarantee
- Local generation speed and whole-workflow improvement are different observations. Review effort, rejected work, incidents, accepted outcomes, and total operating cost belong in the evaluation.
Implementation signals
- Choose one bounded workflow and record its accepted outcome, owner, baseline, prohibited actions, and current review constraints before expanding automation.
- Keep the authoritative intent and the working plan linked. Record why a requirement or acceptance condition changed instead of allowing a generated interpretation to silently replace it.
- Inspect who can change instructions, tests, workflow configuration, thresholds, and release policy. Exercise a deliberate refusal case to establish what the effective control prevents.
- Retain a candidate-specific record of executed checks, configuration revisions, failure and repair attempts, authorizations, and unresolved findings. Mark missing or stale evidence explicitly.
- Evaluate material agent-configuration changes on representative tasks. Keep critical failure conditions separate from average task success and choose repeated trials where variability matters.
- Measure accepted lead time, review and repair effort, first-attempt gate rejection, escaped failures, and operating intervention together. Define denominators and policy versions before interpreting a trend.
- Rehearse stop, access revocation, state reconciliation, and resumption with a receiving owner. Turn the observed failure into a maintained regression case and document remaining recovery limits.
Failure modes
- A committed plan becomes stale while implementation quietly changes the accepted outcome.
- An agent makes its own result pass by weakening the relevant tests or acceptance configuration.
- Parallel implementation increases review queues, merge conflicts, or rework faster than useful outcomes.
- A model review finding or a tutorial approval flag is treated as sufficient production authority without checking the integration and identity behind it.
- A lower rejection rate is celebrated after the work mix or failure thresholds changed.
- A previous release is restored but external effects, access grants, or data changes remain unreconciled.
Sources and further study
- Claude Academy · Anthropic — AI-native SDLC playbook: Introduction
Introduces an artifact-connected delivery loop, modular adoption, and continued human judgment as faster implementation shifts constraints into planning, verification, and deployment.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Capture as intent.md
Turns an originator’s problem into versioned intent with outcomes, constraints, and open questions. The originator corrects misunderstandings and a product owner approves progression.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Requirements and design
Develops approved intent into a specification, records prompt and skill versions, surfaces policy conflicts, and retains human decisions about progression and risk.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Plan mode
Reviews sequencing, files, risks, and tests before implementation. Existing requirements systems can remain authoritative, with Markdown maintained as a linked working copy.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — CLAUDE.md
Keeps repository instructions compact and reviewed, covering commands, conventions, architecture, and recurring mistakes while removing stale or unnecessary context.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Skills as institutional knowledge
Gives reusable skills owners, versions, and activation tests. Explicitly treats skills as advisory and assigns mandatory policy to additional enforcement mechanisms.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Parallel sessions and subagents
Separates independent work into isolated sessions and worktrees, sequences tasks that share files, and expands concurrency only while review capacity and rework remain manageable.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Give Claude a feedback loop
Connects implementation to executable feedback and a final verifier with fresh context. Bug-fix tests should reproduce the defect and remain protected from weakening by the fixing agent.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Continuous evals in CI
Evaluates agent configuration as well as product code, retains representative task results, and converts incidents into regression cases. Execution cadence depends on the workflow.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — AI in the PR review loop
Uses a reviewed review rubric and severity definitions for repeatable findings. Findings are distinct from merge authorization, and protected human code-owner approval remains in the workflow.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Hooks as approval gates
Explains allow, ask, and block decisions, administrator-managed controls, and the distinct roles of tool permissions and operating-system isolation. Configuration examples need local adaptation.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — CI/CD integration and deployment
Progresses from pipeline diagnosis to bounded changes with scoped credentials and distinct agent identity. Production authorization remains human-owned and recovery should be rehearsed.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied - Claude Academy · Anthropic — Closing the loop on metrics
Uses deterministic monitoring for detection and models for bounded diagnosis or response. Owners triage findings, normal review persists, and incidents feed future evaluations.
Use in this library: Official guidance. First-party educational guidance for Claude-based workflows. The lesson supplies no publication date and does not establish independent comparative performance, certification, or implementation in a particular organization.
course · course · Publication date not supplied