Health-Tech

AI-Assisted Workflow

Safety-Critical UX

AI-assisted triage that speeds

decisions without taking control

away from nurses.

Full app working

Contribution

Product Designer
End-to-end UX
AI prototyping
Design handoff

Design focus

Safe clinical triage
Explainable AI workflows

Research partner

Mayo Clinic
Hematology physicians

Designed to turn fragmented referral data into an explainable first-pass recommendation—while keeping clinical judgment with the nurse.

Overview

The stakes

A nurse may spend 15–20 minutes triaging one referral because critical information is scattered across EHR modules—time that should support clinical judgment, not manual searching.

What I designed

An AI-assisted triage workspace that brings together referral notes, labs, and messages; surfaces decision-relevant signals; and makes every recommendation explainable, reviewable, and easy to override.

Design principles

Reduce data-gathering time

Unify scattered EHR data into

one workspace so nurses

decide faster.

Improve triage accuracy

Surface key clinical signals

instantly to reduce under-

triage and errors.

Preserve clinician control

AI augments decisions —

nurses always have the final

say.

The design bet

AI should make the path to a safe decision more legible—not make the decision for the clinician.

Research

Triage Nurse — Primary User

Who: A registered nurse responsible for reviewing incoming hematology referrals and assigning

urgency tiers before any doctor sees the case.

Pain: Labs, referral notes, imaging, and messages are scattered across multiple EHR modules.

Every review means manually opening tabs, cross-referencing values, and building a mental

model from scratch — under time pressure.

Consequence: High-risk referrals can be delayed. Low-acuity cases consume unnecessary clinic

time. Triage inconsistencies between nurses compound the problem at scale.

Need: A calm, unified workspace that surfaces the most relevant data first and provides

explainable AI support — without removing clinical control.

Doctors — Secondary User

Who: Hematologists who receive and act on the triaged referrals.

Pain: Referrals often arrive incomplete or poorly organized, requiring time-consuming

clarification and re-review before they can decide on care path.

Need: Clear triage logic, visibility into how decisions were made, and confidence that high-risk

cases are escalated appropriately.

Core Pain Points

Fragmented clinical data

Labs, notes, referrals, and

history live in different tabs.

Nurses waste time hunting

instead of deciding.

Complex lab interpretation

Abnormal CBCs, trends over

time, prior transfusions, and

oncology history require

manual cross-checking.

Expertise gap

Due to patient complexity,

nurses need a high level of

expertise — gaps can lead to

under-triage errors.

Though triaging time was an issue, it was not the primary

concern. The primary concern was accuracy of triaging.

Analysis

Research — Plot Twist

We had a chance to speak with hematology physicians from Mayo Clinic. Through direct

conversations and survey-based analysis, we found that though triaging time was an issue, it was

not the primary concern — and to some extent a consequence of the primary problem. 

The primary concern was accuracy.

16.3%

Triage errors in a

hospital study of 1,929

patients

59–82%

Nurse triage accuracy

range across studies

19%

Under-triage rate in

structured nurse

settings

17%

Of total triage time lost

to interruptions

Qualitative findings — Why and how?

—

Nurses balance protocol adherence with real-time judgement under pressure. Factors like

patient condition, system workflow, and lack of support influence decisions.

—

Workload and overcrowding are the most frequently reported barriers to quality triage — with

training and technology helping but not eliminating the issue.

—

Under-triage occurred in up to 19% of cases, and inappropriate referrals around 11%, showing structured triage alone can still misclassify urgency without additional support.

Quantitative findings — What happens and how often?

—

In a hospital ED study of 1,929 patients, triage errors occurred in 16.3% of cases, directly linked to higher workload.

—

Nurse triage accuracy ranged between 59% and 82% across studies — variation tied to experience, case mix, and environment.

—

Interruptions contributed to about 17% of total triage time, slowing assessments and increasing error potential.

Design Process

Agentic AI Feature Framework

The system needed to unify data, improve consistency by summarizing complex clinical

information, and surface relevant signals automatically. We mapped two core AI features to the

identified problems:

—

AI-driven clinical

signal

highlighting

— The system scans the EHR and surfaces the most relevant information

making it easier for the nurse to review the triage decision without manually

searching the chart.

—

Supervised

Triaging

A workflow where the AI prepares a triage recommendation from the EHR,

and a triage nurse reviews and approves it.

Design Constraints & Roadblocks

1. Trust barriers around AI in clinical care

Clinicians are skeptical of AI that feels opaque or authoritative.

→ Explicit explanation instead of hidden logic. Clear visual separation via AI watermarks. Neutral

language with tooltips where necessary.

2. Fragmented and inconsistent data

Referral data varies widely in completeness, structure, and quality.

→ High-impact actions gated until essentials are present. Timeline and summary cards prioritized

with badges. Data checklist enforced.

3. Cognitive load in high-volume triage

Triage nurses manage many referrals under pressure, often on small screens.

→ Calm visual hierarchy with limited colors. Progressive disclosure for trends. Visual graphs for high-

value data only.

Vibe Coding — How we built it

"Vibe coding" involves a shift from manual syntax to high-level intent, using AI to bridge the gap

between design and functional code. Tool - Figma make

01 — Intent-based prompting

Describing desired outcomes in natural language

— "Build a medical dashboard that color-codes

patient urgency based on blood count metrics."

02 — Rapid iteration loop

View the AI-generated preview, identify what

feels wrong, and provide conversational

feedback. The AI updates the codebase instantly.

03 — Polishing & Scaffolding

Advanced logic added by prompting specific

behaviors — "On click, open the message modal"

or "Show a loading spinner when data is

fetched."

04 — Deployment

Once the "vibe" and functionality are aligned, the

system is published to a live URL directly from

the tool.

Solution

Feature 1 — For Triage Nurse

Triage Dashboard

Problem addressed: nurses need a fast, reliable view of what requires attention now. The dashboard brings urgency, workload, and recent activity into one re-entry point.

DECISION CUE

Urgency, confidence, and estimated review time make the next action legible.

Evidence 01 — Urgency-ranked workload view

Triage Dashboard Overview: The main workflow view showing active triage tasks in a kanban-style layout. Each patient card displays the AI-generated triage category (Face-to-Face, Malignant Hematology), confidence score, estimated review time, and patient condition at a glance. The right panel shows real-time AI Triage Recommendation trends across all four disposition categories over a 24-hour window.

Evidence 02 — Active referral queue

Active Panel list :

  • Named patient + condition (Iron Deficiency Anemia, Acute Lymphoblastic Leukemia)

  • AI disposition badge — color-coded with confidence score (92%, 96%) directly on the badge

  • Estimated review time (12 min) giving workload sense before opening any record

  • Done column with team member attribution, closing the feedback loop without a separate audit view

Feature 3 — For Triage Nurse

Privacy Mode

Design response: show the reasoning, evidence, and a controllable draft so clinicians can validate, adjust, and own every final decision.

HUMAN CONTROL

The recommendation is visible, explainable, and always available for clinician review.

fig 3.1 —Privacy mode as an admin feature

Feature 4 — For Doctors

Centralized Referral View

Proof in the interface: every referral opens as a shared clinical picture, replacing cross-tab hunting with one decision-ready workspace.

fig 4.1 —Referral communication - Doctors screen

A centralized dashboard that helps administrators and specialists track incoming referrals, current triage status, urgency, and recent communications at a glance. It prioritizes action, not noise, so clinicians spend less time hunting for context and more time dealing with patients who actually need attention.

Before: Doctors hunt across systems to understand one referral.

Now: Each referral opens into a single workspace with the referral note, relevant labs and trends,

documents, and a full clinical timeline — all in one place.

Feature 2 — For Triage Nurse

Unified Patient Workspace

Design response: one workspace for referral details, labs, documents, and timeline—so clinicians can move from searching to evaluating.

UNIFIED CONTEXT

Referral context, evidence, and workflow stay together in one review surface.

Evidence 03 — Unified patient workspace

Patient summary :

  • Named patient + condition (Iron Deficiency Anemia, Acute Lymphoblastic Leukemia)

  • AI disposition badge — color-coded with confidence score (92%, 96%) directly on the badge

  • Estimated review time (12 min) giving workload sense before opening any record

  • Done column with team member attribution, closing the feedback loop without a separate audit view

fig 2.1 — Triage Workflow

Triage Workflow

This view guides clinicians through structured triage decisions by translating referral details, lab values, and clinical context into a clear priority level and recommended care pathway. It standardizes decision-making while still allowing human override, reducing ambiguity in high-stakes cases without pretending doctors are optional.

Evidence 04 — Transparent patient summary

Patient Summary

This feature surfaces a transparent breakdown of why a triage decision was made. It links recommendations to clinical guidelines, highlights key decision factors, and documents reasoning in plain language. The goal is trust and auditability, not blind faith in an algorithm doing mysterious things.

It moves AI from an experimental layer to a practical clinical assistant  

Outcomes

While full clinical deployment would require formal trials, projected impact

includes:

↓ Data time

Reduction in data-gathering

time per triage review

↑ Speed

Faster first-pass triage

decisions

↑ Accuracy

Reduced variability between

clinicians

Trust & Adoption

Transparent AI increased acceptance likelihood.

Clear reasoning reduced fear of bias. Clinicians

felt in control, not replaced.

Trust & Adoption

Transparent AI increased acceptance likelihood.

Clear reasoning reduced fear of bias. Clinicians

felt in control, not replaced.

Cognitive Impact

Lower mental load through signal prioritization.

Reduced fatigue from fragmented data across

tabs and systems.

Efficiency

Reduction in data-gathering time. Faster first-

pass triage decisions. More referrals processed

per nurse per shift.

Learnings

01

AI adoption is a trust problem, not a technology problem. Explainability and control matter

more than predictive accuracy alone. Clinicians need to see the reasoning, not just the

answer.

02

Cognitive ergonomics is critical in healthcare. Reducing clicks is not enough — you must

reduce mental processing effort. Every pixel decision carries patient safety weight.

03

Designers must anticipate automation bias. Interfaces must encourage critical thinking, not

blind acceptance. The design must make it easy to disagree with the AI.

04

Clinical environments require humility. AI must defer to human expertise and make that

hierarchy explicit in every interaction.

Future Opportunities

—

Integration with live EHR systems

—

Real-world A/B testing of triage accuracy

—

Measuring time-to-decision metrics in production

—

Expanding into other specialty triage workflows

—

Incorporating adaptive learning models

In summary, we made triage by

Shipping with vibe coding

Used intent-based AI prototyping to rapidly

build and iterate a functional clinical triage

system.

Reducing cognitive load

Unified fragmented clinical data into one

workspace, cutting mental overhead from

cross-tab hunting.

Building AI trust

Transparent AI that shows its reasoning and

preserves full clinician control over every final

decision.

Improving accuracy

Surfaced key clinical signals instantly, reducing

variability between clinicians and supporting

better outcomes.

The future of AI in healthcare is not automation — it is

intelligent augmentation.

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