Experiment Introductions and Messages from the Selected Teams of Asian Try Zero-G 2025

Our experiment is that on the ISS will have a contracted slinky that will insert water to and then slowly stretch out to see how the water reacts under microgravity on the expansion.
We're both extremely excited about being able to see the results and learn how water reacts under the expansion of a slinky in microgravity.

In my experiment, thin steel wires are carved into various shapes like a heart or even a square, and the water sticks to them and starts taking their shape as well due to adhesion and cohesion, something we can't see on Earth.
I find it very exciting because it shows how something as simply beautiful as water can have such a dynamic effect in space.

It usually seem by commercial plane wing which have airfoil section and make difference of air pressure between up and down by the air go around the end wings it makes spiral shape vortices. I came up with some hypothesis which came from gravity.
Let's see how it behaves in 0G conditions.

This experiment examine the difference in how a paper airplane flies when weight of the same weight are attached to the left and right wings, and when weights of different weights are attached.
I'm looking forward to observing my experiment on the International Space Station.

Our project is about validating the conservation of angular momentum in space.
We are highly enthusiastic about contributing to the JAXA/ATZ-G initiative by capturing this invariable data.

Our experiment is called Double Gyroscope, consisting of two gyroscopes mounted at both ends of a stick.
We are incredibly excited to see both our experiments conducted aboard the International Space Station as it is truly a once in a lifetime opportunity for our students around the Asia Pacific region. We hope that this experiment of ours can inspire the future generation of space enthusiasts.

Our hypothesis is, if the center of gravity of a similar structure is shifted, its rotation around the intermediate axis will be more unsteady and more chaotic. We can test our hypothesis by tracing the path taken by a specific weight through space.
We are extremely grateful to JAXA for giving us the opportunity to perform our experiment in space.

In our experiment, we hope to observe how the sinking can serve as a stage for this interaction, where the liquid can and flow with each stretch, bend and twist.
Can't wait to see it come to life on ISS.

Our experiment is studying the simple harmonic motion through the rope and spring in microgravity.
We can't wait to see our experiment in action up there.

Liquid bridge which is water held between two solid surfaces.
And this means our experiment will take place on the ISS and we get to work with astronauts, which is an opportunity that we don't get often.

Our experiment aimed to understand how mechanical system behave differently in space which will help us improve the stability and performance of systems such as satellites and space stations.
We are very excited to test our idea aboard the International Space Station, and we hope it inspires more students to explore and unlock a new chapter into space exploration.