Reconstruct the enterprise SDLC
See the customer's real delivery system - not its stated methodology.
The system as it runs, not as it's written down
After this you can reconstruct a customer's real delivery system from a discovery call instead of accepting the wiki version.
Before you can sell Cursor into an enterprise, you have to draw their delivery system from memory. The real one, not the one in the wiki.
The org chart and the Confluence page describe an aspiration. The actual SDLC is a living machine made of queues, handoffs, fear and a return loop nobody documents. Day 1 is about reconstructing that machine.
Every enterprise hands you a tidy story. "We're agile, two-week sprints, we ship to prod twice a week." That's a methodology talking and it tells you nothing about how a change actually moves from someone's head into a customer's hands:
- Where it waits.
- Who signs off.
- What evidence gets generated.
- What happens when it breaks at 2am.
The gap between the stated process and the operational reality is where low-risk, high-trust Cursor wins live.
An enterprise SDLC is two value streams, not one. The forward stream (idea → production) is what everyone talks about. The return loop (incident → postmortem → corrective change) is what everyone forgets. It is also the single richest source of low-blast-radius Cursor use cases you will find in a discovery call.
This is what separates a real field engineer from a feature-lister in an interview. A weak candidate pitches into a vacuum. A strong one says: show me your value streamThe end-to-end path a change takes from idea to running in production. and I'll show you where the AI removes toil without touching your risk posture. That line only lands if you can reconstruct the value stream faster than the customer can.
"Tell me how a single feature actually ships, from the moment someone has the idea to the moment a customer touches it. Skip the methodology. Give me the queues and the sign-offs."
Reset the demo-jockey frame before you walk in. Cursor is no longer just an AI-assisted editor; it's an end-to-end SDLC control plane with a surface touching every stage of the stream you just reconstructed. The desktop IDE and the agent window (Cursor 3Cursor's agent-forward interface (also called the agent window or Glass), built to run and supervise many agents at once rather than edit one file., internally 'Glass') sit at Build; the CLI brings the full agent harness to the terminal and pipes into CI at Test/Release; cloud agents run on their own VMs and open PRs across Build → Test; BugBot lives in human review; automations and the Agent SDKA programmatic interface for running Cursor agents from your own scripts, services or CI, locally or in the cloud. sit in Operate and the return loop. A year ago the product was three things - Tab, indexing, chat. Naming the surfaces per stage is how you avoid sounding like you're selling autocomplete.
There's a generational arc behind this. Era 1 was Tab/autocomplete (attention on keystrokes). Era 2 was synchronous agents riding shotgun (attention on steering) and lasted under a year. Era 3 is async agents running in the cloud and returning artifacts (attention on reviewing and managing). Locate where the customer's org sits on that arc and you've framed the whole pitch.
Takeaway. Reconstruct the real delivery system, not the stated methodology - the gap between them is where Cursor wins.
Self-check
Two value streams: forward flow and the return loop
After this you can name both value streams and explain why the return loop is the safest place to start a pilot.
Picture the lifecycle as a circuit, not a pipeline. Work flows forward from idea to running software. A second current flows backward from production reality into the next change. Most vendors only see the forward arrow. You need both, because the return loop is where the operational pain sits and where the cheapest wins live.
Interactive diagram. Tab through its regions; each focused region shows its detail in the panel below.
Forward value stream (Plan → Design → Build → Test → Release → Operate) plus the return loop (Incident → Postmortem → Corrective change). Every stage emits artifacts into a system of record: that's the context surface the AI either has or doesn't.
The forward streamidea → production
Forward flow moves an idea through plan, design, build, test, release and into operate. Each stage has an owner, a primary system of record and an artifact it emits. Each stage is also a queue: work piles up waiting for design review, for a free QA environment, for a change-advisory-board slot. The methodology sets the cadence of the stream. It says nothing about what happens inside any stage.
The return loopincident → postmortem → corrective change
When something breaks in Operate, it generates an incident, which generates a postmortem, which generates corrective changes:
- Config hardening.
- A missing test.
- A runbook fix.
- Alert tuning.
- A dependency bump.
Those changes re-enter the forward stream at Build. This loop is a goldmine. The work is well-scoped, low-risk, usually dreaded and it produces audit-friendly evidence as a side effect. For an AI coding agent in a cautious org, it's the perfect first habitat.
New value, higher uncertainty
Higher blast radiusHow much breaks if a change goes wrong; the scope of potential damage. per change
Design + product judgment heavy
Where leadership's attention sits
Restorative, well-scoped work
Low blast radiusHow much breaks if a change goes wrong; the scope of potential damage., high toil
Generates ITGCIT General Controls. The baseline IT controls auditors check: who can change what, how changes get approved and how systems are run.-friendly evidence
Where Cursor lands first, quietly
Asked 'where would you start a Cursor pilot in a risk-averse bank?', answer with the return loop: postmortem corrective actions and flaky-test remediation. The blast radiusHow much breaks if a change goes wrong; the scope of potential damage. is small, the before/after evidence is clean and you're fixing pain they already feel. Graduate forward into Build and Test as trust compounds.
Takeaway. Start a pilot in the return loop - corrective changes are well-scoped, low blast radiusHow much breaks if a change goes wrong; the scope of potential damage. and evidence themselves.
Self-check
QWhich of the following is the strongest reason the return loop is the ideal first habitat for an AI coding agent in a cautious enterprise?
Methodology is not lifecycle
After this you can separate what a methodology supplies from what it leaves undefined and probe the stages instead of the ceremonies.
Scrum, Kanban and SAFeScaled Agile Framework. A framework for coordinating many agile teams at enterprise scale, common in regulated orgs. are coordination layers.
They tell a team when to talk, how work flows and who aligns with whom. They stay deliberately silent on how you design a system, test it, release it and operate it. Confusing the two is the most common rookie mistake in enterprise discovery.
Interactive diagram. Tab through its regions; each focused region shows its detail in the panel below.
Scrum/Kanban/SAFe set ceremonies and cadence on top; they never reach into Design → Build → Test → Release → Operate. Cursor lives in the machine - the stages every methodology leaves undefined. Probe the stages, not the ceremonies.
- Methodology
- Scrum
- What it actually supplies
- Cadence - sprints, ceremonies, a backlog ritual
- What it's silent on
- Design, test strategy, release mechanics, operations
- Methodology
- Kanban
- What it actually supplies
- Flow - WIPWork in Progress. How many tasks are in flight at once; Kanban deliberately limits it to improve flow. limits, pull, continuous movement
- What it's silent on
- Same - design/test/release/operate are out of scope
- Methodology
- SAFeScaled Agile Framework. A framework for coordinating many agile teams at enterprise scale, common in regulated orgs.
- What it actually supplies
- Coordination - aligning many teams, PI planning, portfolio
- What it's silent on
- Still silent on the engineering craft of each stage
| Methodology | What it actually supplies | What it's silent on |
|---|---|---|
| Scrum | Cadence - sprints, ceremonies, a backlog ritual | Design, test strategy, release mechanics, operations |
| Kanban | Flow - WIPWork in Progress. How many tasks are in flight at once; Kanban deliberately limits it to improve flow. limits, pull, continuous movement | Same - design/test/release/operate are out of scope |
| SAFeScaled Agile Framework. A framework for coordinating many agile teams at enterprise scale, common in regulated orgs. | Coordination - aligning many teams, PI planning, portfolio | Still silent on the engineering craft of each stage |
A team can be flawless at Scrum and still have a brittle, manual, fear-driven path from a merged PR to production. The methodology made the meetings efficient and never touched the machine. Cursor lives in the machine, in Design, Build, Test, Release and Operate, which is exactly the territory every methodology leaves undefined.
Don't let a prospect's methodology fluency fool you into thinking their lifecycle is mature. 'We do SAFeScaled Agile Framework. A framework for coordinating many agile teams at enterprise scale, common in regulated orgs.' tells you about coordination overhead. It says nothing about whether their release is a one-click deploy or a Friday-night ritual with a 40-line runbook. Probe the stages, never the ceremonies.
Takeaway. A methodology governs the meetings; Cursor lives in the machine - the stages it leaves undefined. Probe stages, not ceremonies.
Self-check
The artifact graph: every stage emits context
After this you can explain why an agent hallucinates org-incorrect output as a missing edge in the artifact graph and where MCP closes it.
One mental model separates a field engineer from a demo jockey: every stage of the lifecycle emits an artifact into a system of record and every artifact is context the AI either has or doesn't. The lifecycle is a graph of artifacts strung across a fleet of disconnected enterprise systems. The AI's effectiveness is bounded by how much of that graph it can see.
- Stage
- Plan
- System of record
- Jira / Linear
- Artifact emitted
- Tickets, epics, acceptance criteria
- Stage
- Design
- System of record
- Confluence / Notion
- Artifact emitted
- Design docs, ADRs, RFCs
- Stage
- Build
- System of record
- GitHub / GitLab
- Artifact emitted
- Code, PRs, review threads
- Stage
- Test / CI
- System of record
- Jenkins + Artifactory
- Artifact emitted
- Pipelines, test results, build artifacts
- Stage
- Release
- System of record
- ServiceNow
- Artifact emitted
- Change records, CABChange Advisory Board. A group that reviews and signs off on higher-risk production changes before they ship. approvals
- Stage
- Operate
- System of record
- Datadog / PagerDuty
- Artifact emitted
- Metrics, alerts, incidents, postmortems
| Stage | System of record | Artifact emitted |
|---|---|---|
| Plan | Jira / Linear | Tickets, epics, acceptance criteria |
| Design | Confluence / Notion | Design docs, ADRs, RFCs |
| Build | GitHub / GitLab | Code, PRs, review threads |
| Test / CI | Jenkins + Artifactory | Pipelines, test results, build artifacts |
| Release | ServiceNow | Change records, CABChange Advisory Board. A group that reviews and signs off on higher-risk production changes before they ship. approvals |
| Operate | Datadog / PagerDuty | Metrics, alerts, incidents, postmortems |
The disconnect is the whole point
Each system holds a slice of the truth and none of them talk to each other natively. The Jira ticket doesn't know about the Datadog alert. The PR doesn't know about the ADRArchitecture Decision Record. A short doc capturing one architecture decision and the reasoning behind it. that justified it. A human engineer reconstructs this graph in their head every single day, which is the cognitive tax of working in a large org. An AI agent that only sees the code in the editor is flying with one slice of a six-slice context graph.
MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. (Model Context Protocol) is how Cursor bridges the artifact graph. Each system of record can expose an MCP server (Jira, GitHub, Datadog, Confluence, ServiceNow) so the agent can pull the ticket, the ADRArchitecture Decision Record. A short doc capturing one architecture decision and the reasoning behind it., the failing test and the incident timeline into one reasoning context. You're not handing the model code. You're handing it the graph the senior engineer carries in their head.
"Every artifact in your lifecycle is context the model has or doesn't. MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. closes that gap: it lets the agent read the same systems of record your senior engineers reconstruct in their heads every morning."
How an MCP server actually connectsthe mechanism, not the hand-wave
MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. (Model Context Protocol) is a standard for letting an agent talk to a third-party system in that system's own language. The provider exposes an MCP server; you authenticate it once; the agent can then take actions on your behalf within the scope that auth grants. It's the connective-tissue layer that keeps the engineer inside Cursor instead of swapping between Jira, GitHub and Datadog tabs all day, losing flow state and burning mental bandwidth across many sources of truth. The thing being bridged isn't more code - it's the artifact graph.
- System of record
- Atlassian / Jira
- What the MCP server lets the agent do
- Given just 'implement GRAPH-59', recognize it as a Jira ticket, pull the full issue, plan and build from it
- Least-privilege note
- The ticket becomes the agent's brief
- System of record
- Linear
- What the MCP server lets the agent do
- Answer 'what's the project description for bookmarks?' without opening Linear; dedup bugs before filing
- Least-privilege note
- Read scope, then act
- System of record
- Databricks / SQL
- What the MCP server lets the agent do
- Fetch data the change depends on
- Least-privilege note
- Wire it read-only so the agent can query but never drop a prod table
- System of record
- Datadog / ServiceNow
- What the MCP server lets the agent do
- Pull the incident timeline / change record into the reasoning context
- Least-privilege note
- Scope to the repos and projects in play
| System of record | What the MCP server lets the agent do | Least-privilege note |
|---|---|---|
| Atlassian / Jira | Given just 'implement GRAPH-59', recognize it as a Jira ticket, pull the full issue, plan and build from it | The ticket becomes the agent's brief |
| Linear | Answer 'what's the project description for bookmarks?' without opening Linear; dedup bugs before filing | Read scope, then act |
| Databricks / SQL | Fetch data the change depends on | Wire it read-only so the agent can query but never drop a prod table |
| Datadog / ServiceNow | Pull the incident timeline / change record into the reasoning context | Scope to the repos and projects in play |
Each server bridges one node of the artifact graph. Authentication and tool scope are the governance surface - grant exactly what the workflow needs.
The sharpest MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. demo isn't 'the agent can see Jira.' It's that the ticket becomes the prompt. Hand a cloud agent only 'implement GRAPH-59' and, with the Atlassian MCP connected, it identifies the Jira ticket, retrieves the full issue, makes a plan and builds the feature - in a 2M-line repo it figured out how to test the change itself and shipped in ~1 hour what an experienced engineer had estimated at weeks. Crucially, cloud agents inherit the MCP tools you connected client-side (Cursor claims it's uniquely able to use MCP servers in cloud agents), so an async run can pull the spec, read the failing test and check the incident timeline without you babysitting it.
More integrations is not strictly better. Loading every tool of an MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. server can blow up the context window. If MCP is eating context, audit the installed integrations and connect only the servers and tools a given workflow actually needs. This is the same discipline buyers respect: least privilege on auth, least bloat on tools.
- Naive view
- AI writes code from a prompt
- Field-engineer view
- AI reasons over the artifact graph; MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. decides how much of it the agent can see
- The lever
- More of the graph in context → less hallucination, more org-correct output
Takeaway. Every artifact is context the model has or doesn't and MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. is how Cursor bridges the systems of record into one reasoning context.
Self-check
QAn agent confidently produces a refactor that ignores a documented architectural constraint. Through the artifact-graph lens, what most likely went wrong?
The persona map: who owns what, who fears what
After this you can match a Cursor headline to a persona by reading their fear, not their job title.
A lifecycle is run by people.
Every persona owns a stage, guards a fear and responds to a different headline. Pitch the same Cursor message to an IC dev and a release manager and you lose one of them. Memorize this map. The fear column is where deals are won or lost.
- Persona
- IC developer
- Owns
- Writing the code
- Fears
- Drudgery, context-switching, getting blamed
- Cursor headline
- Stay in flow; the agent does the toil, you keep judgment
- Persona
- Tech lead
- Owns
- Code quality, the PR queue
- Fears
- Review backlog, inconsistent patterns
- Cursor headline
- BugbotCursor's automated PR reviewer that posts inline findings and can push fix commits from isolated VMs. triages PRs; standards enforced via .cursor rules
- Persona
- Eng manager
- Owns
- Throughput, team morale
- Fears
- Missing dates, burnout, churn
- Cursor headline
- Measurable throughput lift without adding headcount
- Persona
- Architect
- Owns
- System integrity, ADRs
- Fears
- Architectural drift, undocumented decisions
- Cursor headline
- Agent reasons over ADRs via MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. - drift goes down, not up
- Persona
- QA lead
- Owns
- Test strategy, coverage
- Fears
- Flaky suites, escaped defects
- Cursor headline
- Generate tests, kill flakiness, close coverage gaps
- Persona
- Platform / DevOps
- Owns
- Pipelines, golden paths
- Fears
- Pipeline sprawl, non-standard setups
- Cursor headline
- Agents adopt the golden path; allowlists keep it governed
- Persona
- SRESite Reliability Engineering. The team and practice that keeps production reliable: monitoring, on-call and incident response.
- Owns
- Reliability, on-call
- Fears
- Toil, alert fatigue, MTTRMean Time to Restore. How long it takes to recover service after a failed change or incident.
- Cursor headline
- Faster incident triage; corrective changes drafted fast
- Persona
- Security
- Owns
- Risk, controls, compliance
- Fears
- Data leakage, ungoverned AI, supply chain
- Cursor headline
- ZDRZero Data Retention. A contractual guarantee that the model provider won't store your code or train on it., Privacy ModeCursor's setting that routes requests under zero-data-retention terms so providers don't store or train on your code., SSOSingle Sign-On. One company login (usually via SAML or OIDC) instead of a separate password per tool./SCIMSystem for Cross-domain Identity Management. A standard for automatically creating and removing user accounts when people join or leave., audit logs, allowlists
- Persona
- Release manager
- Owns
- The release, CABChange Advisory Board. A group that reviews and signs off on higher-risk production changes before they ship., rollback
- Fears
- Bad change in prod, blast radiusHow much breaks if a change goes wrong; the scope of potential damage.
- Cursor headline
- Cleaner change records; corrective changes are well-scoped
| Persona | Owns | Fears | Cursor headline |
|---|---|---|---|
| IC developer | Writing the code | Drudgery, context-switching, getting blamed | Stay in flow; the agent does the toil, you keep judgment |
| Tech lead | Code quality, the PR queue | Review backlog, inconsistent patterns | BugbotCursor's automated PR reviewer that posts inline findings and can push fix commits from isolated VMs. triages PRs; standards enforced via .cursor rules |
| Eng manager | Throughput, team morale | Missing dates, burnout, churn | Measurable throughput lift without adding headcount |
| Architect | System integrity, ADRs | Architectural drift, undocumented decisions | Agent reasons over ADRs via MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs. - drift goes down, not up |
| QA lead | Test strategy, coverage | Flaky suites, escaped defects | Generate tests, kill flakiness, close coverage gaps |
| Platform / DevOps | Pipelines, golden paths | Pipeline sprawl, non-standard setups | Agents adopt the golden path; allowlists keep it governed |
| SRESite Reliability Engineering. The team and practice that keeps production reliable: monitoring, on-call and incident response. | Reliability, on-call | Toil, alert fatigue, MTTRMean Time to Restore. How long it takes to recover service after a failed change or incident. | Faster incident triage; corrective changes drafted fast |
| Security | Risk, controls, compliance | Data leakage, ungoverned AI, supply chain | ZDRZero Data Retention. A contractual guarantee that the model provider won't store your code or train on it., Privacy ModeCursor's setting that routes requests under zero-data-retention terms so providers don't store or train on your code., SSOSingle Sign-On. One company login (usually via SAML or OIDC) instead of a separate password per tool./SCIMSystem for Cross-domain Identity Management. A standard for automatically creating and removing user accounts when people join or leave., audit logs, allowlists |
| Release manager | The release, CABChange Advisory Board. A group that reviews and signs off on higher-risk production changes before they ship., rollback | Bad change in prod, blast radiusHow much breaks if a change goes wrong; the scope of potential damage. | Cleaner change records; corrective changes are well-scoped |
Read the room by fear, not by title
Titles vary across orgs; fears don't. The security lead might be an 'AppSec Principal' or a 'CISOChief Information Security Officer. The executive who owns security; usually the hardest and most important person to win over.'s deputy,' but the fear is always ungoverned AI touching sensitive code and data. For that persona you lead with the security spine: SOC 2 Type II, AES-256 at rest, TLS 1.2+ in transit, Privacy ModeCursor's setting that routes requests under zero-data-retention terms so providers don't store or train on your code. with zero-data-retention terms, SSOSingle Sign-On. One company login (usually via SAML or OIDC) instead of a separate password per tool. via SAMLAn enterprise standard that powers single sign-on./OIDCOpenID Connect. A modern standard that powers single sign-on, built on OAuth., SCIMSystem for Cross-domain Identity Management. A standard for automatically creating and removing user accounts when people join or leave., RBACRole-Based Access Control. Granting permissions by role rather than configuring each person individually., model/MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs./repo allowlists, terminal sandboxing and audit logs with AI-code tracking. Open with throughput to that person and the room is already gone.
Enterprise proof point: "trusted by 64% of the Fortune 500." Box case study: 85%+ daily active, 30–50% throughput lift, 80–90% less migration effort, +75% usage in six weeks via mentorship. BugbotCursor's automated PR reviewer that posts inline findings and can push fix commits from isolated VMs. (June 2026): average review time ~90 seconds, ~22% lower run cost and ~10% more bugs found. ZDRZero Data Retention. A contractual guarantee that the model provider won't store your code or train on it. does NOT apply when customers use their own API keys. Say that plainly to a security lead; the caveat builds credibility.
Don't promise 'replaces your QA team' to a QA lead or 'no more on-call' to an SRESite Reliability Engineering. The team and practice that keeps production reliable: monitoring, on-call and incident response.. The headline is always removes toil and preserves judgment. Threaten a technical buyer's craft and you've lost them faster than any competitor could. Amplify it and you've got a champion.
Under every persona's fear is the same unspoken one: 'is this about layoffs?'
The eng manager's date-slip fear, the IC's blame fear, the architect's drift fear - all of them sit on top of a deeper question nobody asks out loud in the room. Does adopting this make my team smaller? You answer it before it's asked, the same way Cursor frames its own adoption: this is more value with the same people, not fewer developers. It's not a headcount-reduction conversation; it's shipping more and moving faster with the team you have. That single reframe disarms the most charged objection in any rollout.
The honest, durable framing is a role change, not a role cut. As async agents take more of the execution, the human moves from hands-on-keyboard to director of agents - 'be the CTO of getting the feature live,' not the babysitter. Less typing, more orchestrating and PMing multiple agents in parallel and reviewing their output. To an eng manager that's throughput without burnout; to an architect it's more attention freed for system integrity; to an IC it's escaping the toil they already resent. Every persona's fear has a version of this answer - lead with the role-shift and the layoffs question dissolves.
Takeaway. Read the room by fear, not title - and to a security lead, lead with the security spine, never throughput.
Self-check
The two-minute 'how a feature ships' narration
After this you can narrate a feature's full journey through a prospect's lifecycle and point at exactly where Cursor removes friction.
The most powerful move in a discovery call is to narrate a feature's journey through their lifecycle, name the systems and the queues, then point at exactly where Cursor removes friction.
Here's the canonical version. Adapt the system names to the account and keep the structure.
- 1Plan. A product manager files a ticket in Jira with acceptance criteria. It sits in the backlog until a sprint pulls it. (Queue #1.)
- 2Design. For anything non-trivial, an architect writes or updates an ADRArchitecture Decision Record. A short doc capturing one architecture decision and the reasoning behind it. in Confluence. The decision is now an artifact, a context source the agent should read via MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs..
- 3Build. An IC dev opens the ticket in Cursor. With Jira, GitHub and Confluence bridged, the agent has the ticket, the code and the ADRArchitecture Decision Record. A short doc capturing one architecture decision and the reasoning behind it. in context. It drafts the change. The dev keeps judgment and shapes the PR.
- 4Test / CI. The PR triggers Jenkins; tests run, artifacts land in Artifactory. BugbotCursor's automated PR reviewer that posts inline findings and can push fix commits from isolated VMs. reviews the PR in parallel so a human reviewer starts with focused findings rather than a cold diff. (Queue #2: human review.)
- 5Release. A change record is filed in ServiceNow; the CABChange Advisory Board. A group that reviews and signs off on higher-risk production changes before they ship. approves; the change ships through the golden path. Separation of duties holds, because the author isn't the approver.
- 6Operate. Datadog watches it in production. If it pages, an incident opens in PagerDuty. (Forward stream ends; return loop begins.)
- 7Return loop. The postmortem produces corrective actions: a missing test, a config hardening, a runbook fix. Those re-enter at Build as low-blast-radius work, ideal for an agent and the whole chain is linked as evidence.
It proves you understand their machine. It names the two queues where time actually leaks (sprint pull and human review), shows the artifact graph in motion and closes the circuit by ending on the return loop, your beachhead. You've shown separation of dutiesNo single person can author, approve and deploy the same change. The core control AI autonomy has to respect. stays intact and governance is respected. You did it without a single slide.
- Build
- Agent reasons over ticket + ADRArchitecture Decision Record. A short doc capturing one architecture decision and the reasoning behind it. + code via MCPModel Context Protocol. A standard that lets an AI agent pull in context from outside the repo, like Jira tickets or internal docs., producing org-correct drafts
- Human review (Queue #2)
- BugbotCursor's automated PR reviewer that posts inline findings and can push fix commits from isolated VMs. triages PRs before humans look and drains the backlog
- Return loop
- Corrective changes drafted fast, fully evidenced - the safe beachhead
"Notice I never proposed removing a single control or a single human judgment call. We drained the two queues where your time actually leaks and we started in the return loop, where the work is safest."
Takeaway. Narrate a feature through their lifecycle, name the two queues where time leaks and end on the return loop - your safest beachhead.
Self-check
QWhy should the two-minute narration deliberately END on the return loop rather than on Release?