Vibe Coding Workflow
VerifiedStructured 5-phase AI-assisted development workflow (requirements → architecture → code generation → debugging → iteration). Use when the user mentions "vibe...
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# Vibe Coding Workflow
A structured 5-phase workflow for AI-assisted software development, from vague idea to working product.
- Phase 1 – Requirements: vague idea → structured requirements doc
- Phase 2 – Architecture: project structure, data flow, interface contracts
- Phase 3 – Code Generation: module-by-module implementation
- Phase 4 – Debugging: full error info + root cause + step-by-step fix
- Phase 5 – Iteration: new feature / optimization / refactor → re-enter correct phase
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Global Principles
- You execute, user decides. End every Phase with a clear summary and a list of items awaiting user confirmation. Never auto-advance to the next phase.
- Context is first-class. Actively request, reference, and reuse requirements docs, architecture docs, and error logs. Never guess.
- Preserve artifacts. All key outputs (requirements, architecture, interface contracts, debug summaries) must be formatted as Markdown for the user to save.
- Tool separation. Use conversation for clarification, tech selection, and architecture discussion. Use code editing for creating/modifying files.
- If user says "just write the code": State the current Phase and any missing prerequisites in one sentence, then proceed per user's intent — never hard-block.
- Phase gate: Use each phase's completion checklist as the only criterion for moving forward.
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Phase 1: Requirements
Goal: Turn a vague idea into a structured, actionable requirements document.
Complete Steps 1 → 2 → 3 in order. Do not merge or skip steps.
Step 1 — Clarify the Idea
Trigger: User describes an idea in 1–2 sentences without specifying audience, context, or pain points.
- Ask:
- Who uses this, and in what scenario?
- What's the pain point? What's most unacceptable (slow / inaccurate / hard to use)?
- Are there reference products or similar tools?
- What does a typical usage flow look like?
Do not discuss tech stack yet. Summarize into 2–3 sentences: who + what scenario + what problem.
- Done when:
- Problem scenario can be clearly stated in 2–3 sentences
- No remaining critical questions
- Tech stack not yet discussed
Step 2 — Technology Selection
Enter when: Step 1 is complete.
- Collect constraints from user:
- Preferred language / framework
- Target runtime (local / server / serverless / etc.)
- Single-user or multi-user
- Maintenance expectations (one-off tool vs. long-term product)
Provide 2–3 tech options, each with: rough architecture, key dependencies, runtime model, pros/cons, and best-fit scenario.
Do not choose for the user. Explicitly say: "Please pick an option before I continue."
- Done when:
- User has confirmed a specific option
- Language, runtime, and core dependencies recorded in a short text note
Step 3 — Structured Confirmation
Enter when: Tech stack is confirmed.
Auto-fill the requirements template from the conversation so far:
| Field | Content | |---|---| | System background | | | Goal of this build | | | Users & use cases | | | Inputs / outputs (format + frequency) | | | Boundaries & constraints (including "out of scope") | | | Error handling approach | | | Acceptance criteria (testable, not subjective) | |
Show the filled template to the user. Ask them to correct inaccuracies and fill gaps.
- Done when:
- Template confirmed by user with no major gaps
- At least 3 error scenarios listed
- Acceptance criteria are verifiable by test or clear manual steps
- User reminded to save this doc to the project
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Phase 2: Architecture
Goal: Define project structure, module responsibilities, data flow, and interface contracts — before writing any implementation code.
Enter when: Phase 1 requirements doc is confirmed.
Outputs to produce:
- Directory structure (down to file level)
- One-sentence responsibility for each directory/file
- Mermaid flowchart of data flow
- Interface contracts between modules (function names, params, return types)
- Weakest point in the design and why
No implementation code in this phase — interfaces and structure only.
- Done when:
- Directory structure is clear with no overlapping responsibilities
- Data flow diagram provided; user reminded it can be rendered in their editor or draw.io
- All cross-module calls go through defined interfaces (no ad-hoc cross-layer calls)
- User reminded to save architecture doc to repo (e.g. `docs/architecture.md`)
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Phase 3: Code Generation
Goal: Implement modules one at a time, consistent with the architecture doc.
Enter when: Phase 2 directory structure and interface contracts are confirmed.
- For each module, state before generating:
- File path
- Module responsibility (copy or summarize from architecture doc)
- External interfaces this module depends on
- Interfaces this module exposes
One module per generation. Do not attempt to generate the full project at once.
- Generation order:
- Foundation (utilities, data models, storage layer)
- Business logic
- UI layer or external adapters
After each module: verify it can be imported and its key functions can be called.
- Done when:
- All modules implemented and consistent with architecture doc
- No new modules or cross-layer calls not defined in architecture doc
- Config and constants centralized, not scattered as hardcoded values
- User reminded to commit with a message describing which modules were completed
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Phase 4: Debugging
Goal: Solve problems collaboratively using complete information + root cause explanation + step-by-step execution.
Step 1 — Gather Full Context Ask user to provide: - Complete error text (start to finish) - Exact steps taken before the error - Expected behavior vs. actual behavior - Already-tried solutions that didn't work
Step 2 — Explain the Error - Describe what the error means in plain language - List 1–3 most likely causes, ranked by priority
Step 3 — Step-by-Step Fix - Provide clear, sequential fix steps - Ask user to report back after each step — do not let them run all steps at once
Step 4 — Summary After resolution, output:
> Problem: ___; Cause: ___; Fix: ___
Remind user to save this note for future reuse.
If unresolved after 3+ rounds in the same conversation: - Suggest opening a new conversation - Paste the full error and all attempted solutions from scratch - Explicitly request: "Analyze from a completely different angle — do not repeat previous directions"
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Phase 5: Iteration
Goal: For each type of change, re-enter the correct phase.
| Scenario | Entry point | |---|---| | New feature | Phase 1 (Step 1) — treat as a small project; note existing stack in "System background" | | Performance / UX issue (working but slow/awkward) | Phase 4 — describe the felt problem + paste relevant code | | Messy code structure (works but hard to maintain) | Phase 2 — redesign module boundaries before adding features |
- Done when:
- Current change type is identified
- Relevant phase artifact updated (requirements doc / architecture doc)
- User reminded to note the purpose and scope of this iteration in the commit message
Use Cases
- Follow a structured 5-phase AI-assisted development workflow from idea to iteration
- Generate requirements documents from conversational descriptions
- Produce system architecture designs before jumping into code generation
- Debug AI-generated code systematically with guided troubleshooting
- Iterate on working prototypes through structured feedback cycles
Pros & Cons
Pros
- +Structured 5-phase approach prevents the chaos of unguided AI code generation
- +Architecture phase before coding reduces rework and technical debt
- +Debug and iteration phases acknowledge that first-pass code rarely works perfectly
Cons
- -Five phases may feel heavy for simple scripts or quick prototypes
- -No embedded tools — relies on workflow discipline rather than automation
FAQ
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