Research

From practical design to deeper research.

01 / From Problems to Designs

Small inconveniences have a way of turning into ideas.

One-Side Pole Teepee prototype outdoors
One-Side Pole Teepee More usable space, without a pole in the middle.
Hammock Phone Holder
Hammock Phone Holder Because holding a phone above my face gets old pretty quickly.
Bug-Net Tripod Hammock Bed
Bug-Net Tripod Hammock Bed My sister loved the hammock—but not the mosquitoes.

The more time I spend outdoors, the more I notice the little things.
A center pole that always seems to be in the way.
Tired arms from holding a phone above my face in a hammock. Mosquitoes turning a comfortable hammock bed into somewhere nobody wants to sleep.
Or my sister asking for something that doesn’t quite exist yet.

Little things like these often get me thinking. Sometimes I find a quick fix; other times I start sketching, looking at existing solutions, and making something of my own. Some ideas stay small, while others keep changing as I use them outdoors.

I don’t document everything I make, but here are a few ideas I happened to capture along the way.

Explore the product designs

02 / From Design to Research

Passive Thermal Regulation in Lightweight Tents

The Question

Lightweight tents are great for portability, but their thin fabrics provide little insulation: they can heat up quickly in the sun and lose heat just as quickly at night. This made me wonder: could the structure of the tent itself help stabilize its temperature without electricity or active cooling?

The Approach

I explored a three-layer passive structure combining a reflective outer layer, an air gap, and a breathable inner layer. Using a Python-based thermal model, I simulated the tent’s temperature over a 24-hour cycle and tested how solar reflectance and the air gap affected peak temperature and daily temperature swing.

Peak indoor temperature versus outer-layer solar reflectance in the simulation, decreasing from 34.03°C at reflectance 0.2 to 25.94°C at 0.9.

Key Finding

In the simulation, increasing outer-layer solar reflectance from 0.2 to 0.9 reduced peak indoor temperature from 34.0°C to 25.9°C and narrowed the daily temperature swing from 15.8°C to 10.2°C. The 30 mm air gap produced a much smaller improvement, suggesting that solar reflectance was the more influential parameter under the tested conditions.

Simulated 24-hour indoor temperature profiles comparing no air gap and a 30 mm air gap at outer-layer reflectance 0.6, alongside outdoor temperature.

Note: This is a preliminary numerical study using synthetic weather data; physical prototype testing would be the next step.

03 / Research

Materials Database

Photos & figures

Images, diagrams, or video will appear here.

About this project

Details forthcoming.

Project structure
Problem
To be added.
My role
To be added.
Build / Method
To be added.
Evidence
To be added.
Result
To be added.
Iteration
To be added.

04 / Research

AI Micro-expression Project

Photos & figures

Images, diagrams, or video will appear here.

About this project

Details forthcoming.

Project structure
Problem
To be added.
My role
To be added.
Build / Method
To be added.
Evidence
To be added.
Result
To be added.
Iteration
To be added.