Aeri

AI-powered preventative care contact lens for diabetes with AR integration, exploring a more proactive alternative to today’s reactive management tools.

Aeri hero

Timeline

24 hours (AI Hackathon)

Role

Product Designer, product strategy, user research, visual design and AI integration

Team

Chareese Lam (Product and Motion)

Isabella Mixton-Garcia (Research)

Tools

  • Figma
  • Gemini
  • Lovable
  • OpenAI
  • Midjourney
  • Claude
  • Perplexity
  • After Effects

Overview

Aeri was created for the Parsons x University of Arizona 24-hour AI Hackathon, where teams were assigned. It is an AI-powered preventative care concept designed for people managing Type 2 diabetes.

The project explores a more proactive alternative to today's reactive health tools by helping users anticipate changes earlier. Aeri combines continuous sensing, predictive AI, and an augmented reality interface to deliver clearer, more actionable guidance throughout the day.

Design Challenge

What if diabetes care could become more preventative?

Problem

Diabetes treatments today are reactive

Most tools surface glucose and trends, but they still lean on the person to interpret what it means and what to do next.

Care often stays reactive: responding after numbers shift instead of helping people anticipate what is coming.

Current devices show the data, but users are left to carry the cognitive load.
Solution

Shifting toward proactive care

We set out to design a system that helps people act before issues intensify. We focused on the management of Type 2 diabetes approaching the problem through earlier awareness, clearer guidance, and more confident decision-making.

Our solution, Aeri, is an AI-powered preventative care concept that utilizes an AR-integrated contact lens to help users anticipate changes earlier throughout the day.

At a glance

A new frontier in diabetes management

Augmented reality surfaces insights directly in context.
Approach

A more supportive experience

Aeri's core experience is built around four connected parts: live interventions, daily overviews, metric breakdowns, and user controls. Together, they make health insights more useful, timely, and actionable.

User controls also give people more choice over what is surfaced, how prominently it appears, and when they are notified.

Aeri ambient interface in a living space
Aeri UI in a forest setting
Aeri interface detail
Aeri experience in context
Key Features

Aeri is structured across three integrated layers

  • Glucose Biosensor

    • Continuously tracks metabolic signals
    • Captures glucose data in real time
    • Sends readings to a connected system
  • Smart Lens

    • Delivers support through an AR lens
    • Surfaces guidance within the user's view
    • Reduces the need to check a separate device
  • AI Integrated Interface

    • Detects patterns across glucose and behavior
    • Predicts shifts before they escalate
    • Turns data into timely recommendations
Impacts

More than 1 in 10 adults worldwide

Stat from International Diabetes Federation

Context

A growing global health reality

Its scale reflects a growing need for tools that better support the ongoing decisions, adjustments, and mental effort of daily care. Managing diabetes is not limited to isolated moments of checking a number. It is shaped by repeated choices around food, activity, sleep, stress, and routine, all of which can influence glucose levels throughout the day.

As a result, care often becomes a continuous process of monitoring, interpreting, and responding. This creates an opportunity to design tools that do more than report data by offering guidance that feels more supportive, timely, and easier to live with.

Market Research

Revealing the gap

Conversations and user interviews point to a system that interrupts daily life rather than supporting it: frequent sensor failures, constant replacements, and the need to repeatedly check numbers create frustration and fatigue. Instead of feeling supported, many feel tethered to their devices, managing alerts, troubleshooting issues, and trying to make sense of inconsistent readings.

Research revealed the emotional and mental strain of reactive diabetes management.
Competitor Research

Tracking diabetes data isn't easy

Across the category, products have improved in sensing accuracy, connectivity, and real-time display. However, reliability issues, short sensor lifecycles, and fragmented device ecosystems continue to introduce friction.

As conditions become more complex, the operational overhead increases highlighting an opportunity to reduce system friction and create a more seamless experience that requires less active management from the user.

Competitor product 1
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Iteration

Translating ideas into a working vision

  • Whiteboarding exploration

    Whiteboarding

    • Mapped early system directions
    • Explored sensing, prediction, and interaction flows
    • Tested multiple concepts to identify viable pathways
  • Prompting and interface exploration

    Prompting

    • Generated interface behaviors
    • Explored interactions at higher fidelity
    • Evaluated clarity, usability, and feasibility
  • Asset creation and refinement

    Asset Creation

    • Built interface and visual system outputs
    • Developed scenes to show the product in context
    • Refined consistency across touchpoints
The Pitch

Proactive care, guided in real time

Reflection

Our takeaways

Working through a 24-hour sprint

Working in a collaborative sprint setting reinforced the importance of aligning early, defining roles quickly, and a shared understanding of the concept.

Working with AI

I learned to use AI as a tool to accelerate exploration and production, while staying intentional in directing and refining outputs. Strong results came from guiding, editing, and curating rather than relying on it passively.

Working with complex systems

I learned how to simplify a complex system under time pressure by focusing on what is most relevant to the user. This meant prioritizing clarity over completeness and translating technical logic into understandable moments of guidance.

Future Development

Next Steps

  • Further evaluate the biomedical feasibility of the sensing approach and underlying hardware.
  • Refine predictive modeling with clinical datasets to improve accuracy and reliability.
  • Test AR guidance interactions in real-world contexts to validate usability and behavior.
  • Expand user research with individuals managing Type 2 diabetes to ground the system in lived experience.