Building an AI-Native Software Development Workflow with Google Stitch and Antigravity
One source of truth for reliable AI-driven implementation

I'm a highly motivated and experienced developer expertise in leveraging the power of .NET Core Technology. Currently collaborating with an Australian company based in Nusa Dua, Bali, Indonesia, to deliver innovative application development services that push the boundaries of what technology can achieve, and also contribute to the ever-evolving landscape of the global IT industry
AI coding tools are becoming very powerful. However, in actual projects using AI-assisted development, I frequently encountered a frustrating pattern. As projects expanded, the AI started making unexpected errors. It wasn't that the AI was "bad" rather, the project context had slowly drifted out of sync.
The user interface changed while the documentation became outdated. Backend specifications still referred to old component names, and AI-generated code depended on assumptions from weeks earlier.
The outcome was clear:
APIs no longer matched the Frontend
DTO names became inconsistent
Components were duplicated
Old flows resurfaced
Implementation plans became partially outdated
That's when I realized the core problem wasn't the AI itself; it was Context Drift. I improved the flow and clarity by merging short sentences into a more cohesive observation. I replaced vague phrases with more precise language: "strange mistakes" became "unexpected errors," and "the project context slowly drifted apart" turned into "the project context had slowly drifted out of sync."
The Hidden Problem in AI-Assisted Development
Most developers currently use AI like this:
Prompt → Generate Code → Fix Errors → Repeat
This works for small scripts.
However, as your application evolves quickly, AI starts to lose alignment with the current state of the project.
Especially when:
UI changes frequently
Product flows evolve
Features are renamed
Specs are manually updated
Multiple documents exist
The AI does not truly “understand” your project state.
It only understands:
Whatever context you currently provide
Whatever documents are still accurate
Whatever naming conventions remain consistent
And that becomes dangerous in larger systems.
The Real Problem: Context Drift
Most AI-assisted development workflows today still rely heavily on:
prompts
markdown documentation
screenshots
temporary chat context
This works surprisingly well for smaller projects.
But as projects evolve rapidly, AI systems slowly lose alignment with the actual state of the application.
Typical failure patterns include:
outdated component references
renamed UI elements
hallucinated APIs
deprecated flows reappearing
duplicated business logic
frontend/backend naming inconsistencies
The issue is not necessarily that AI models are “bad” at coding.
The issue is:
fragmented and evolving context.
Once:
design
documentation
implementation plans
architecture decisions
begin drifting apart...
AI systems become increasingly unreliable.
That realization was what pushed me toward building a context synchronization workflow instead of relying purely on prompt engineering.
Human Validation Still Matters
This workflow does not remove engineers from the process.
Instead, it reduces:
repetitive synchronization work
implementation drift
fragmented project memory
context inconsistencies across systems
Human review still remains critical for:
architecture decisions
business rules
security considerations
migration approval
infrastructure strategy
The goal is not:
“replace engineers with AI”
The goal is:
reduce context fragmentation so AI execution becomes more reliable.
High-Level Workflow
This workflow allows:
design systems
technical documentation
architecture decisions
AI coding agents
to evolve together in a more synchronized way.
My Goal
I wanted to create a workflow where:
Design updates automatically influence documentation
AI agents always read the latest project state
Implementation plans evolve together with UI changes
Frontend and backend specs remain synchronized
Hallucinations are minimized
In short:
I wanted a Single Source of Truth for AI Development...😌
My Current Stack
For my experiment, I used:
Google Stitch → UI/UX & product flow generation
Antigravity → AI development execution
Markdown docs → architecture & planning
Git → versioned project memory
The key insight was:
Stitch should become the UI/UX source of truth.
And Antigravity should become:
the execution engine that reads synchronized context.
Building the Synchronization Layer
Once I understood that the real issue was context drift, I stopped treating AI as “just a code generator.”
Instead, I started building a synchronization layer between:
design systems
technical documentation
structured AI context
implementation workflows
The goal was to ensure that:
UI changes remain synchronized with technical specs
architecture decisions are preserved
AI agents always consume updated project context
implementation drift becomes easier to detect
The workflow is surprisingly simple.
Instead of relying purely on prompts, the system continuously evolves project context into a more synchronized and machine-readable form.
That shift alone dramatically reduced:
hallucinated components
outdated flows
inconsistent naming
frontend/backend drift
implementation mismatches
Why This Changed Everything
Google Stitch can export:
Project Briefs
ZIP exports
component structures
generated layouts
interaction flows
That means the design is no longer just a visual artifact.
It becomes a machine-readable context.
And that context is incredibly valuable for AI agents.
The Most Important Idea:
Merge — Don’t Replace
At first, I thought:
“I should regenerate all documentation from Stitch.”
That was a mistake.
Because design tools only know:
UI
flows
components
interactions
But they do not fully know:
backend architecture
infrastructure decisions
domain rules
deployment strategy
scaling considerations
So instead of replacing documentation, I started doing:
Context Reconciliation
Meaning:
preserve architecture decisions
preserve business logic
preserve infrastructure plans
Update UI-related flows from Stitch
detect inconsistencies automatically
This became far more powerful.
My Synchronization Strategy
I now separate responsibilities clearly.
Stitch becomes the source of truth for:
UI
UX
screen flows
component naming
interaction structure
Existing technical docs remain the source of truth for:
backend architecture
authentication strategy
infrastructure
database decisions
deployment
business/domain rules
Example
Suppose my old implementation plan contains:
UploadSection component
But Stitch now generates:
DocumentChecklist component
Instead of blindly overwriting documentation, the synchronization process now:
Marks
UploadSectionas deprecatedUpdates frontend references
Updates API mappings
Generates migration notes
Detects possible DTO inconsistencies
This dramatically reduces AI confusion during implementation.
The Missing Piece in Most AI Workflows
Most AI coding workflows fail because they treat AI like a code generator.
But the real opportunity is:
AI Context Management
The better your synchronization layer becomes,
The better your AI execution becomes.
In other words:
AI quality is heavily dependent on context quality.
My Ideal Project Structure
Here’s the structure I’m currently evolving toward:
/project-context
/design-source
stitch-export.zip
project-brief.md
/docs
implementation-plan.md
backend-spec.md
frontend-spec.md
infra.md
/generated
sync-report.md
task-context.json
Step-by-Step Context Synchronization Workflow
Here’s the workflow I’m currently evolving toward to reduce AI hallucinations and implementation drift in larger projects.
The goal is simple:
Keep design, docs, and AI agents synchronized
Avoid fragmented project context
Give AI systems a reliable source of truth
1. Start With Existing Technical Documentation
First, I maintain a structured documentation layer for the project.
/project-context
/docs
implementation-plan.md
backend-spec.md
frontend-spec.md
infra.md
These documents preserve:
architecture decisions
backend/domain logic
infrastructure setup
deployment strategy
API contracts
business rules
This becomes the long-term engineering memory of the project.
2. Design Changes Happen in Google Stitch
As the product evolves, UI/UX changes are made inside Stitch.
Examples:
renamed components
updated user flows
additional dashboard widgets
new upload interactions
reminder systems
modified onboarding screens
This is where most “context drift” usually begins.
3. Export Latest Stitch Context
After design changes are complete, I export:
stitch-export.zip
project-brief.md
Resulting structure:
/project-context
/design-source
stitch-export.zip
project-brief.md
These exports contain:
updated UI structures
screen layouts
generated components
interaction flows
product requirement summaries
At this stage:
Stitch becomes the source of truth for UI/UX
Existing docs remain the source of truth for architecture
4. Run Context Synchronization
This is the most important step.
Instead of replacing old docs completely, I run a reconciliation process between:
existing technical docs
latest Stitch exports
updated project brief
The synchronization prompt usually looks something like this:
Analyze latest Stitch export and Project Brief.
Then reconcile with existing project documents.
Goals:
- preserve existing architecture decisions
- preserve backend/domain rules
- update UI/UX flows based on Stitch
- add missing screens/components
- detect outdated specs
- generate migration notes
- generate inconsistencies report
Do NOT overwrite existing plans blindly. Merge intelligently.
This dramatically reduces AI confusion later during implementation.
5. Generate Structured AI Context
After reconciliation is complete, I generate a machine-readable context layer for AI agents.
This step is important because most technical documentation is still written primarily for humans.
Example:
There is a request form with upload components.
Humans understand this easily.
But AI agents may still become inconsistent because:
component names evolve
routes change
flows get deprecated
relationships become ambiguous
So instead of relying purely on markdown documentation, I generate structured AI memory.
Example prompt:
Analyze:
- latest Stitch export
- project brief
- implementation plan
- backend/frontend specifications
Then generate a structured AI context file called:
/generated/task-context.json
Rules:
- use latest Stitch export as UI/UX source of truth
- preserve architecture/business logic from existing docs
- detect renamed components
- detect deprecated flows
- organize screens, routes, APIs, entities, and components
Output must be machine-readable JSON for AI agents.
Resulting structure:
/project-context
/generated
task-context.json
Example generated output:
{
"project": "Berkasin.app",
"screens": [
{
"name": "Create Request",
"route": "/requests/create",
"components": [
"DocumentChecklist",
"RecipientForm",
"ReminderSettings"
]
}
],
"entities": [
{
"name": "Request",
"fields": [
"id",
"title",
"recipientEmail",
"status"
]
}
]
}
This gives AI agents:
consistent naming
updated flows
component awareness
screen relationships
Instead of relying on fragmented prompts.
6. Generate Sync Report
Finally, I generate a synchronization report describing how the project evolved after reconciliation.
This becomes extremely useful for:
AI coding agents
future contributors
incremental refactoring
detecting context drift over time
Example prompt:
Analyze:
- latest Stitch export
- project brief
- existing implementation docs
- generated task-context.json
Then generate:
/generated/sync-report.md
The report should include:
- newly added screens/components
- renamed components
- deprecated flows
- outdated specifications
- frontend/backend inconsistencies
- API contract mismatches
- suggested migrations
- potential breaking changes
Important:
- compare latest Stitch context against existing docs
- detect context drift
- do not overwrite blindly
- explain conflicts clearly
Resulting structure:
/project-context
/generated
sync-report.md
Example output:
# Sync Report v14
## Added
- Reminder scheduling flow
- WhatsApp sharing option
- Progress analytics widget
## Renamed
- UploadSection -> DocumentChecklist
## Deprecated
- Legacy upload modal
## Inconsistencies
- Backend API still references UploadSection
- Old DTO naming still used in frontend hooks
## Suggested Migrations
- Rename UploadItemDto -> DocumentItemDto
- Update request/create endpoint mapping
## Potential Breaking Changes
- Old upload API may fail after frontend sync
At this point, the workflow is no longer just “prompt engineering.”
It becomes:
AI Project State Management
Where:
design
documentation
architecture
implementation context
all evolve together in a synchronized system.
Why This Reduces AI Hallucination
Most AI hallucinations in software development are not random.
They happen because:
The documentation is outdated
UI changed, but APIs did not
naming became inconsistent
Multiple truths exist simultaneously
By synchronizing:
Stitch exports
project briefs
technical documentation
AI execution context
The AI becomes significantly more reliable...
The Bigger Realization
What I’m slowly realizing is this:
We are moving toward:
AI-Native Software Development Lifecycle (SDLC)
Where:
design tools
documentation
architecture
code generation
execution agents
all continuously synchronize together...
Not manually.
But as part of a living project context system.
Future Direction
I believe future AI-native development workflows may eventually include:
real-time design synchronization
AI-readable project graphs
component evolution tracking
architecture memory systems
automated context reconciliation
persistent engineering memory for AI agents
At that point, AI systems may behave less like isolated code generators...
and more like persistent engineering collaborators.
Honestly, that feels like where software engineering is slowly heading next.
Final Thoughts
I no longer think AI coding is mainly about prompting.
I think the future is about:
Maintaining synchronized context between humans, design systems, documentation, and AI agents.
Because once context becomes reliable:
AI execution quality improves dramatically.
And honestly…
that might become one of the most important engineering disciplines in the AI era





