Stages in the component lifecycle
I worked on improving how Design and Engineering collaborate around shared UI components. The goal was not just to document components, but to create a more reliable system for how components are created, reviewed, handed over, updated, and maintained over time.
The work sits at the intersection of product design, design systems, documentation, and engineering collaboration, with AI becoming part of how I made repeatable system work more efficient.
Stages in the component lifecycle
Clear Dev SPOC model
Product areas supported by reusable prototyping

As the design system evolved, component work became harder to manage consistently. Designers could define a component in design, while engineers maintained the implementation separately. Without a clear lifecycle, small changes could create uncertainty around ownership, documentation, implementation, and communication.
I treated a shared component as something that moves through a lifecycle rather than as a one-time design or development task.
Define the component, states, behaviours, usage, and relevant design-system guidance.
Align Design and Engineering before implementation so technical and design considerations are addressed early.
Engineering implements the component against the agreed design and behaviour.
Capture the information needed for designers and developers to understand and reuse the component.
Make the updated component available with the necessary communication and context.
Treat components as evolving product assets rather than one-time deliverables.

Rather than treating the problem as a documentation exercise, I mapped the key stages from design → review → engineering → documentation → release → maintenance and identified where ownership or communication could break down.
This shifted the conversation from “How do we document this component?” to “How do we make sure this component stays healthy throughout its lifecycle?”
Both disciplines can see where a component is in its lifecycle and what needs to happen next.
Design intent and implementation context are aligned before work reaches production.
A component remains useful after release through maintenance, updates, and communication.
One of the important changes was introducing clearer ownership around component updates through a Dev SPOC (Single Point of Contact) model.
This gave engineering-side questions, implementation decisions, and updates a clearer owner. It also made it easier for designers to know where to go when a component needed to change.
The model was designed to support collaboration rather than create another layer of process. Design remained responsible for design intent and experience, while Engineering provided implementation ownership and technical context.

I created a lightweight workflow using Confluence to make component documentation easier to maintain. The focus was on capturing useful information at the right point in the lifecycle instead of treating documentation as a separate task at the end.
Why the component exists and what experience it is meant to support.
States, interactions, usage and important edge cases.
Engineering context needed to build and reuse the component.
Who to talk to when the component needs to change.
A key part of this project was exploring how I could use Claude more intentionally as a design and systems tool, rather than simply using it as a chatbot.
I designed my workflow around Claude to turn repeatable design-system tasks into structured, reusable interactions. The goal was to make AI useful inside the actual workflow, with clear inputs, expected outputs, and constraints.
Instead of repeatedly explaining the same context and process to Claude, I structured that knowledge into reusable Claude Skills. These Skills define how Claude should approach a specific type of task, what information it should consider, and what kind of output it should produce.
I cannot show the exact Skill here, but I can explain how it works: it packages repeatable design-system knowledge and working methods into a reusable workflow.

I used Claude to support areas such as:
The important distinction is that I designed the workflow and Skills, while Claude handled the repetitive execution. Design judgement, system decisions, and validation remained with me.
Decide what information the model needs to produce useful work.
Define what should be standardized and what should remain open to judgement.
Keep design decisions, validation, and quality control with the designer.
This experience changed how I think about AI in product design. I am not just comfortable using AI tools. I am interested in understanding how to structure them around real workflows.

The result was a more predictable workflow around shared components. The work connected ownership, lifecycle, documentation, collaboration, and AI-assisted system tasks into a clearer operating model.
Clearer ownership for component changes and engineering questions.
More consistent communication between Design and Engineering.
A defined path for components beyond initial implementation.
Less repetitive work through AI-assisted documentation and system tasks.

This project reinforced an important lesson: the quality of a component is influenced as much by the system around it as by the component itself.
Good collaboration does not necessarily require more meetings or more process. It requires clear ownership, shared language, and a workflow that makes the right behaviour easy.
For me, this was an opportunity to operate beyond individual UI decisions and think about how Design and Engineering can work together at a systems level.