
🧠 Intent-Driven Engineering: How Elite Teams Start Projects (and Actually Finish Them)
- Mark Kendall
- 17 hours ago
- 2 min read
🧠
Intent-Driven Engineering: How Elite Teams Start Projects (and Actually Finish Them)
Intro
Most engineering projects don’t fail because of bad developers.
They fail because of:
Misalignment
Assumptions
Starting too fast in the wrong direction
Teams jump into tools, platforms, and code before they fully understand what they’re building.
Intent-Driven Engineering flips that model.
Instead of starting with technology, it starts with clarity, and uses that clarity to drive everything else—architecture, execution, and delivery.
What Is Intent-Driven Engineering?
Intent-Driven Engineering is:
A structured approach where teams define, refine, and operationalize intent before writing production code, using iteration, constraints, and AI-assisted interpretation to ensure alignment and predictable execution.
It transforms engineering from:
Reactive → Deliberate
Fragmented → Aligned
Trial-and-error → Controlled iteration
The End-to-End Process (Start to Finish)
This is the exact system that enables teams to start strong—and stay aligned all the way through delivery.
1. Define the Problem (Not the Solution)
Every successful project begins with clarity:
What problem are we solving?
What does success actually look like?
Not:
“Let’s use this platform”
“Let’s build this system”
But:
“What outcome are we engineering toward?”
2. Create the Intent File (Single Source of Truth)
The intent file defines:
Desired outcome
Constraints
Guardrails
Success criteria
This becomes:
The foundation of everything that follows
3. Model the Team as Capabilities (Not Roles)
Instead of assigning tasks, define:
What capabilities exist
What expertise is available
What the system can “do”
Example:
API design
Platform knowledge (like ServiceNow)
AI/automation logic
The team becomes an execution engine aligned to intent
4. Iterate on Intent (Before Code Exists)
Before writing a single line of code:
Refine the intent
Add constraints
Remove ambiguity
Run iterations
You are debugging the problem before solving it
5. Use AI as an Intent Interpreter (Not Just a Generator)
AI is introduced to:
Expand possibilities
Challenge assumptions
Refine intent
Generate structured outputs
AI becomes a clarity engine—not just a coding tool
6. Map Intent to Technology (Even If Unknown)
Here’s the breakthrough:
You don’t need to know the platform upfront.
Intent defines behavior
Technology implements it
Intent drives technology—not the other way around
7. Decompose into Execution Intent Files
Break the system into:
Sub-intents
Team-aligned intent files
Clear boundaries
This enables:
Parallel execution without losing alignment
8. Build the Timeline Around Intent Milestones
Instead of task tracking:
Intent defined
Intent validated
Intent implemented
Intent verified
Progress is measured by alignment, not activity
9. Scaffold the System Before Full Implementation
Create:
Structural code patterns
Integration points
Baseline architecture
Consistency is established before complexity
10. Implement with Continuous Drift Detection
As development begins:
Validate against intent
Detect drift early
Adjust in real time
Execution becomes a closed-loop system
Why It Matters
Traditional engineering approaches fail because:
Requirements are vague
Teams interpret differently
Issues are discovered too late
Intent-Driven Engineering solves this by:
Aligning teams before execution
Using constraints to reduce ambiguity
Leveraging AI to accelerate clarity
Enabling predictable outcomes
Key Takeaways
Start with intent, not tools
Treat intent as a living artifact
Model teams as capabilities, not just roles
Use AI to refine thinking—not replace it
Scaffold before deep implementation
Continuously monitor drift
Final Thought
Most teams try to engineer their way out of misalignment.
That rarely works.
Intent-Driven Engineering ensures alignment is engineered first—so execution becomes predictable.
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