UX Research

Design System

User Interviews

Prototyping

Airudi

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Details have been generalized and visuals removed to protect confidentiality.

Objective

0->1 Design for AI Nurse Assignments

Timline

5 months (July 2025 – Dec 2025)

Team

1 Product Owner, 2 Designers, 2 ML, 4 Engineers

Contribution

Competitive research, interviews, surveys, JTBD, field observation, ecosystem mapping, as-is/to-be workflows, high-fidelity AI prototyping, usability testing, dev handoff

The project aimed to streamline administrative tasks and support nursing workflows using AI. We consolidated fragmented steps into a unified experience, minimized tool switching, and provided cues to make workload distribution more transparent and intuitive.

The project aimed to streamline administrative tasks and support nursing workflows using AI. We consolidated fragmented steps into a unified experience, minimized tool switching, and provided cues to make workload distribution more transparent and intuitive.

Problem

Frustration in percieved inequitable workload distribution

Nursing staff described burnout as being exacerbated by heavy administrative workload and a perception that workload distribution was not always equitable. Managers, meanwhile, had limited visibility and tools to coordinate assignments efficiently, making it challenging to balance workloads fairly.

💭

How might we reduce administrative burden and improve trust in workload distribution without increasing complexity or cognitive load?

Objectives

⚖️

Support balanced workloads and improve perceived fairness/trust

👣

Reduce manual coordination steps and tool switching in assignment workflows

Enable faster adjustments during shift changes and exceptions

🧑🏽‍💻

Ensure the experience remained usable under real-world constraints (interruptions, time pressure, role-based coordination)

Constraints & Considerations

We encountered several constraints during the project

We therefore prioritized high-fidelity prototyping early to validate workflows quickly and reduce implementation risk.

Aggressive timeline

with limited room for scope creep

🔌

Integration dependencies

outside our direct control, impacting data availability and update cadence

⚙️

Operational realities

(interruptions, shift handoffs, rapidly changing conditions) requiring speed and resilience

🤝

Trust requirements

for AI-assisted workflows: adoption depended on transparency and user control

Process

The process at a Glance

Competitive Landscape Synthesis

Competitive landscape review to identify opportunities and pitfalls

I conducted a competitive review across a broad set of relevant products and adjacent solutions.

🎯

We identified industry patterns, trends, and differentiation opportunities - focusing on workflow support, trust, and operational fit - to guide early design principles and anticipate adoption pitfalls.

Research

Interviews, Surveys & Field Observation

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Methods

  • 5 in-depth interviews

  • 14 survey responses, primarily from frontline staff

  • Weekly touchpoints with nurse managers to validate feasibility and operational constraints

  • Field observation to understand the lived reality of coordination and assignment work

NOTE: Quotes are paraphrased from multiple conversations. Details have been generalized to protect confidentiality.

It takes a significant amount of time to gather the information needed to create fair assignments.

“High-effort tasks aren’t always accounted for in assignments.”

“High-effort tasks aren’t always accounted for in assignments.”

“Teamwork breaks down when workload isn’t visible or shared.”

“Teamwork breaks down when workload isn’t visible or shared.”

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Key insight: Manual and fragmented workflows

Across interviews and observation, we saw that key workload signals were often calculated manually using disconnected tools. This increased coordination time, introduced inconsistency, and created information gaps.

north star

JTBD Framework

We translated research insights into a JTBD framework to keep the team focused on core outcomes and avoid over-optimizing for smaller details.

As-is & To-be

Ecosystem Mapping → Future Blueprint

As-is workflow mapping
  • Each step and resources used

  • System touchpoints

  • Manual workarounds

  • Sources of friction and repeated effort

->

->

To-be service blueprint
  • User actions

  • Supporting system behaviors

  • Constraints & dependencies

  • Expected simplification of coordination and reduction in unnecessary effort compared to the as-is flow

Aligning on the blueprint upfront ensured the team shared the same operational goals before building

It reduced time, steps, & cognitive load, as well as preserving safety and control.

Decisions

Key Design Decisions

01

Consolidate manual calculations into the platform

Manual calculations created friction, so we explored ways to centralize effort and reduce duplicate work across the workflow.

02

Reduce information asymmetry to improve trust

To address trust challenges caused by uneven access to information, we focused on making workload-related context more visible and understandable across roles.

03

Design for exceptions and rapid change

Because conditions change during a shift, we designed for fast edits and clear paths to adjust assignments when needed.

04

Align automation behaviors with clinical expectations

I partnered closely with engineering and applied AI teams to translate research insights into system principles and edge-case considerations.

Prototyping & testing

AI Prototyping & Usability Testing

I facilitated weekly alignment sessions to validate scope, interactions, and edge cases. Prototypes were shared with additional target users to gather formative feedback, which informed iterative refinements prior to development handoff.

Purpose
Validate an early concept and identify usability risks prior to implementation.

->

->

Iterations made
  • Improved visibility of key actions

  • Adjusted UI formatting to improve scanability

  • Clarifying how exceptions and adjustments could be handled

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Visuals have been removed to protect confidentiality.

outcome

In testing and iterative feedback sessions, users responded positively

Better workload transparency

Transparency cues reduced uncertainty and improved perceived fairness

Fewer manual steps

Reduced tool switching and eliminated reliance on memory for contextual cues

Better exception readiness

Stronger support for mid-shift changes through fast edits and override paths

I facilitated weekly alignment sessions to validate scope, interactions, and edge cases. Prototypes were shared with additional target users to gather formative feedback, which informed iterative refinements prior to development handoff.

reflection

Closing Thoughts

Expanding Usability Testing

With more time, I would have broadened usability testing across additional roles and contexts, explored edge cases over longer work periods, and examined more configurability to better support variation in workflows and environments. Early formative feedback during design reviews was directionally positive, but outcomes were not measured quantitatively.

Prioritizing Scalability

I realized that scalability needed to be treated as a core requirement rather than a future consideration. This shaped how I approached reusable patterns, system alignment, and designing for adaptability beyond a single initiative.