Hard hat and kind heart zone: Each case study is being carefully reconstructed. Sorry about the rogue pixels.
Product: IVD Platform
Designing for environments where clarity isn’t aesthetic. It’s clinical.
Imagine if a single mislabeled tube could ripple through an entire hospital.
Not because someone was careless. Because the systems around them weren’t built for the volume, the interruptions, or the complexity of modern diagnostics.
Labs don’t fail because people fail. Labs fail because workflows do.
This platform was designed to change that.
Lab technicians were reconciling siloed instrument and specimen data manually. A workflow that increased cognitive load, introduced preventable errors, and slowed diagnostic turnaround. Diagnostic testing influences 70% of healthcare decisions, so the cost of ambiguity was high.
What made this hard to solve
Each role had different tools, mental models, and failure points. Mapping the workflow end-to-end helped us identify where errors originated, where information broke down, and where the system needed to intervene.
(Direct hands-on users of the IVD portal)
(Roles who shape requirements, constraints, and success but do not use the portal)
Once we mapped the ideal workflow, we layered in real-world failure modes from research: instrument downtime, reagent tracking gaps, missing notifications, and LIS upload failures. This exposed the operational fragility labs deal with daily.
Instead of designing a linear flow, we designed for resilience. Ensuring the system supported real-world interruptions, not idealized workflows.
A triage model that surfaces priority, status, and next actions at a glance. Reducing cognitive load for technicians managing hundreds of samples a day using color, iconography, and grouping.
The goal: help techs immediately identify what needs attention, what is ready for approval, and what is already transmitted. Without drilling into multiple screens.
A single source of truth for each specimen. The progress bar replaced multiple disconnected LIS screens, giving lab staff immediate clarity on where each sample is in the process: received, processing, testing, review, approved, transmitted.
We also surfaced who is on call, what is pending release, and any urgent flags. Reviewer notes and compatibility flags appear directly in context, so decisions can be made without switching systems.
A dashboard designed for large monitors across the lab. Alerts organized by severity and type using color and iconography for instant recognition. Lab managers can triage issues without opening detailed screens.
A shift from reactive troubleshooting to proactive operational awareness. Cognitive overload here isn’t just frustrating. It is dangerous.
Business impact
We built real, testable components early: instrument health cards, sample check-in forms, lifecycle modules. Each piece was designed to be buildable, not hypothetical. That approach gave engineering confidence and let us parallelize design and development in a regulated environment.
To move quickly without compromising rigor, I introduced three practices that reduced friction across the full cross-functional team.
These created the conditions for the speed and rigor reflected in the outcomes below.
SME alignment isn’t knowledge transfer. It’s consensus-building between legacy experience and present-day operations.
A lightweight governance model to align decisions and prevent one-off redesigns before they reach engineering.
Enforce the design system as the default standard with clear onboarding and acceptance criteria from day one.
Quick, role-specific tests with real users to catch friction before handoff, not after build.
Results
We cut review cycles by 75%, shipped an MVP in six months, and launched at AACC, the industry’s largest clinical chemistry conference. The design system built for this platform went on to serve all company products.