FireSight

Prototyping

Product Design

UX Design

Overview

A safety equipment concept designed to support firefighters in smoke-filled environments. The mask integrates environmental sensing and information feedback to help firefighters maintain orientation, monitor conditions, and navigate hazardous spaces.

Time

2024 Spring

Categories

Product Design

Prototyping

Human-Machine Interface

Tools

Solidworks

KeyShot

Figma

3D Printing

Role

Interaction Designer

Product Designer

Inspiration

In emergency environments, information needs to become immediate action

In the scenario of fire scene, people will get panic and urge to get out. In this situation, some important information like hidden fire soure and toxic gas. This project is a smart fire mask which aim to help user gather those important information to help user to avoid those danger through wearable device. For the physical part, it is using M5Stack with ATOM S3 as core to build up the wearable device. Also, an app is built to connect to the device to get the surrounding information from the mask.

How might we design a wearable system that translate invisible environmental risks into clear, immediate guidance?

Detect environmental and body-related risk
Guide the user toward safer directions
Communicate system status through visual feedback
Design Outcome

Smart Fire Mask

Thermal sensing
Gas detection
Environment monitoring

The mask continuously monitors surrounding environmental conditions and translates invisible risks such as heat, gas, and humidity into simplified safety signals that can be understood immediately in high-pressure situations.

Directional LED feedback
Embedded display
Fainted-state detection

The wearable feedback system provides immediate physical and visual responses through LEDs, vibration, and the embedded display. By reducing the need for complex interpretation, the interface helps users react quickly and maintain spatial awareness during emergency conditions.

System Detail

State Diagram

By combining sensor input, motion analysis, and environmental data, the system continuously evaluates surrounding risks and determines the appropriate feedback response. Each state represents a different level of environmental awareness or user condition, while the transitions define how the system reacts to changes such as increased heat, detected movement, or prolonged inactivity. Through this logic structure, the mask is able to shift between monitoring, guidance, warning, and emergency-response behaviors in real time.

Wiring Diagram

The wearable system is built around the M5AtomS3 as the central controller, connecting environmental sensors, motion tracking, thermal sensing, LED feedback, and the embedded display through I2C and digital communication. Sensor data is continuously transmitted to the controller for real-time processing, allowing the system to react immediately to changes in environmental conditions or user movement.

Software & Communication

Software UI

The software interface provides a simplified monitoring layer for the wearable system, translating sensor activity and system states into clear visual feedback. By reducing unnecessary complexity, the interface prioritizes readability, emergency awareness, and real-time status communication during high-pressure situations.

System Communication

The system maintains real-time communication between hardware components, sensors, and the ProtoPie interface through serial data transmission. Environmental readings, motion data, and system states are continuously synchronized, allowing physical feedback and digital monitoring to respond simultaneously.

Data Monitoring

The monitoring system continuously tracks environmental conditions and body-state activity, including movement, temperature, humidity, gas levels, and thermal information. Incoming data is processed and organized into simplified system states that support immediate alerts, wearable guidance, and emergency response behaviors.

Detail Content Link