Awards

2025 MUSE Design Awards

Professional Silver Winner

2025 Indigo Design Awards

Agency Silver Winner

2025 New York Product Design Awards

Professional Silver Winner

Project Overview 👋

PenguBuddy is an interactive health tracking system designed to improve the well-being of aquarium penguins through AI-powered insights and real-time behavior monitoring. Built in collaboration with Georgia Aquarium and Georgia Tech’s ACI Lab, the system combines an underwater robot and a digital platform to support both animal care and visitor engagement.

My main contribution focused on the B2B web platform for animal care staff, where I designed tools to monitor individual penguin health, flag abnormal behavior, and streamline team communication. The platform empowers caretakers to make faster, data-informed decisions while improving daily workflows.


Timeline

3 months

Winter 2024

Team

My Role

Product Designers (2B+2C)

ID Designer

Project Manager

Video Editor

Product Designer

(2B Platform)

Tool

Figma

FigJam

Notion

Context

Ensuring penguin health in zoos requires ongoing monitoring, yet traditional methods are fragmented and inefficient. Data collection is often limited, ad-hoc, and biased by time constraints. Captive penguins display just 2–23% of the activity levels observed in the wild (over 80%), highlighting a clear welfare concern.

To address this, we partnered with Georgia Aquarium and Georgia Tech's ACI Lab to develop PenguBuddy, a smart platform streamlining health tracking for data-driven animal care.

Solution

Introducing PenguBuddy

Connects visitors, penguins, and caretakers through an interactive system.

Platform Features

👩‍💻

Centralized Dashboard & Team Collaboration

Monitor real-time penguin health and behavior, stream live footage, and collaborate with team seamlessly. All in one smart, connected platform.

🎥

AI-Powered Behavior Alerts

📊

Data-driven Insights

Track individual penguin health in detail and manage the monitor robot.

📆

Smarter Care Planning

Manage penguin health routines with AI-suggested treatments, visual scheduling, and real-time task tracking.

AI flags unusual penguin behaviors and delivers instant video clips to support early action and informed care.

Project Timeline

  1. Problem Space

Understand the Use Cases

Understand the Problems - What’s animal’s Welfare?

Understand the Problems - Monitoring Welfare

Through Biometrics Indicators

Through Behavioral Indicators

On-field Research

Understand the Problems - Monitoring Problems

Market Research

According to keepers…

Understand the Problems - How to improve Welfare?

2. Concept Development

PenguBuddy acts as both a welfare monitor and an enrichment tool for penguins in captivity.

By combining AI-powered real-time monitoring with interactive engagement, it not only detects early signs of health or behavioral issues but also addresses them at the root.

System Diagram

To address welfare from both enriching and monitoring system, PenguBuddy is formed by three products: an underwater robot that serves both as a toy for the penguins and a monitor, a mobile app that allows visitors to interact with the robot, and a SaaS platform that serves keepers by tracking data and automatic analysis. 

3. In-depth Research

My main responsibility was designing the B2B platform. I conducted the research to define the system’s structure and data needs.

To guide this, I referenced the Five Domains Model: nutrition, environment, health, behavior, and mental state, which offers a science-based framework for assessing penguin welfare and helps keepers monitor well-being more accurately.

Current User Flow

The team currently uses a platform named ZIMS by Species 360 to track and document health data of African penguins. It is a widely used software platform designed to support the comprehensive management of animal records, medical histories, husbandry data and studbooks.

Painpoints of Current System

Stakeholder Insights

To uncover specific user needs, we interviewed various stakeholders at the aquarium to understand their experiences with the current management system, identify pain points, and gather expectations for future improvements.

Problem Statement

4. Designing MVP

Scoping the MVP

After comprehensive evaluation with cross-functional teams based on data importance, feasibility, budget, product vision, etc., I defined key data types and collection methods for our MVP.

User Flow & Wireframes

I mapped user flows based on the real-world care tasks and translated them into wireframes, aligning each screen with relevant data inputs.

Design System

I created a scalable design system that promotes visual consistency and accessibility by integrating WCAG guidelines, inclusive design principles, and clear documentation to support cross-team implementation.

Design Iteration

After an internal design audit and user testing, we identified several issues in the individual page of the initial version:

  1. The alert section had redundant components, both a badge and an alert message.

  2. Alert messages and follow-up recommendations, part of a continuous action flow, were siloed, disrupting the user workflow.

  3. The design lacked flexibility, with no space for keepers to add notes that couldn’t be captured by the robot.

  4. Using a slide-in modal limited deeper interactions like tagging or editing, leading to overlapping modals and poor usability.

  5. Insights from a nutrition specialist highlighted feeding times as a critical data point that needed to be included.

In the updated version:

  1. I replaced the modal with a dedicated subpage and added a breadcrumb for easier navigation.

  2. Alert and follow-up recommendations were combined into a streamlined insight component aligned with user workflows.

  3. I added a notes section for keepers to manually input observations, offering better flexibility.

  4. Based on feedback from the nutrition team, I integrated feeding data into the profile and reorganized the layout accordingly.

5. Hi-fi Prototype

I. A Centralized & Semi-automated System

Centralized Dashboard & Team Collaboration
Track real-time penguin health and behavior, stream live footage, and coordinate seamlessly, all within one smart, connected platform.

Data-Driven Insights
Monitor detailed health metrics for each penguin to support informed, proactive care.

AI-Summarized Labels for Individuals
AI extracts key points from notes and generates color-coded labels by severity, making critical information easier to scan at a glance.

II. Real-time & Multimodal Data Collection

Multimodal Data Powered by Smart Robot
The robot captures video and audio of penguins, using AI to generate highlight clips that flag potential health issues. This enables more comprehensive, context-rich reviews. Staff can also manage the robot directly through the platform.

III. Streamline the Daily Care Routine

Activity Scheduling & AI-Suggested Care
Supports both calendar and Kanban views to help staff organize daily care routines. Under the scheduling section, AI suggests relevant activities, such as health checks, which can be scheduled with one click.

2 Views: Calendar and Kanban views

Schedule from AI suggestions with one click

6. Conclusion

Next Step

1. User Testing

Validate the system with real stakeholders and refine based on feedback.

2. Incorporate Environmental Data

Add inputs for factors like temperature, light, and noise.

3. Collaborate with Dev Team

Work closely with engineers to align on feasibility and implementation.

4. Scale to More Taxa

Adapt the system to support other species beyond penguins.


Potential Impact

1. Less Reliance on Manual Monitoring

Validate the system with real stakeholders and refine based on feedback.

2. Proactive Health Care

AI flags risks early, supporting timely interventions.

3. Efficient Teamwork

Centralized tools streamline daily care and communication.

4. Enrichment Through Play

Robots keep penguins active and engaged.

5. Scalable System

Designed to expand across species and facilities.

6. Long-Term Welfare Insights

Trends reveal chronic issues and guide better care.


What I Learned…

Building for Multi-Stakeholder Needs

From vets to trainers, I balanced overlapping roles and data needs to create a platform that works across disciplines.

Scalability Through Focus

Designing deeply for one species (penguins) helped me build a flexible, scalable framework for broader B2B applications.

Driving Clarity Through Systems Thinking

Simplifying health metrics, task flows, and AI outputs taught me how to turn fragmented data into actionable, user-centered systems.

Thank you for your attention 🩵