HIWALAY.STUDIO
Ethan Del Rosario
925.822.5164
edelro@uw.edu



A powerful handheld thermal imaging camera that provides wildfire squad leaders with real-time insights for enhanced decision-making and safety

RESEARCH



Interview Insight

Firefighters use drones equipped with thermal imaging to detect burning roots after a fire, pinpointing exact locations for crews to target. However, drones aren’t used for tracking active crews in the field, and their use is limited to situations where weather makes aerial support difficult.

Market Exploration
Current thermal cameras, like the FLUKE Ti480 PRO and Seek Thermal, are durable but too bulky to carry around easily in the field. While the Seek Thermal is used in municipal applications, its size and weight make it impractical for wildland firefighting, where portability and quick access are critical. 

DEFINE


Problem

Forest firefighting crews struggle with situational awareness and coordination, putting safety and efficiency at risk.

Opportunity
There’s a growing need for portable technology that enhances real-time communication, improves safety, and supports decision-making in high-risk environments.

Our Goal
Create a device that empowers firefighting crews with real-time data, improving coordination, situational awareness, and overall safety.

EXPLORE PT. 1


R1 Rough Sketches

In the initial round of idea generation, we sketched various features like a compact design with an integrated screen, a handle for bulky gloves, and a flip mechanism. These elements were selected to explore further in the next round.

R2 Refined Sketches
Through exploring the concepts from the last round, we ended up with a fully handheld design and AR goggles, we found they were either impractical or too obtrusive. Research led us to explore a wearable concept as the most effective, non-intrusive solution, though it required further refinement.

R3 Rough CAD

We then explored a detachable camera for flexibility but needed to refine its size and integration. A larger screen with improved dials enhanced usability but felt too fragile. A rugged flip-up design with a sturdier hinge and buttons improved durability, though the screen-to-body ratio still needed adjustment.

EXPLORE PT. 2


User Testing Insight
We found helmet placement awkward; wrist and chest placements were more comfortable. The separate camera and display distracted from tool use. Testing different placements revealed the best angle, and simulating firefighting tasks showed the wearable added stimulation but needed better integration for ease of use.

R4 Intermediate CAD
In this round, we refined the final design by exploring several concepts. The wrist-attached device provided a comfortable handle, but the detachable camera and display were fragile and hard to reattach. The two-sided design clarified the form but felt restrictive. These insights helped identify key features for the final design.

R5 Rough Prototyping


We created a rough prototype of our final concept, experimenting with different pivot point locations for the handle. We tested it with gloves to ensure the motions worked with existing PPE, and adjusted hand placement to prevent accidental button presses.

REFINE



The Thermal Imaging Wildfire Gadget

We refined the handle, hinge, body, and base plate of the Fluke Twig to be both rugged and ergonomic, with a focus on durability and ease of use. The quick-release attachment method for the base plate was also incorporated for high-pressure situations.

We also designed an intuitive UI for accessing drone data and receiving objectives from the command center, enhancing communication and decision-making during operations.

To improve portability, we developed a durable travel case for the Fluke Twig. Additionally, a carabiner tracker was created to help the command center monitor fire crew locations in real-time, ensuring better coordination and safety.

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