TIGERS-X Mission Patch
TIGERS-X / Mission Brief
Mission Brief / 01

TIGERS-X

Thailand Innovative G-force Varied Emulsification Research for Space Exploration

Built in Thailand. Bound for the International Space Station. Designed to Change Medicine.

Chapter 01 / Premise

Investigating Fluid Physics In Microgravity

2.5 KG100 × 100 × 200 MM
LOADING PAYLOAD MODEL…

This payload is designed to investigate how complex fluids behave in microgravity. It is the first of its kind to study Total Parenteral Nutrition in space. It is a small cube, built by Thai researchers and engineers, preparing to operate aboard the International Space Station.

Chapter 02 / Science
TPN

Medicine At Its Core

Studying Total Parenteral Nutrition on Low Earth Orbit

Total Parenteral Nutrition (TPN) is a life-saving solution for patients who cannot use their gastrointestinal system, yet it still relies on a “One-Size-Fits-All” approach rather than true Personalized Medicine. The limitation is not just about selecting nutrients, but understanding how they behave as complex systems.

In practice, TPN depends on stable multi-phase emulsions of lipids, water, and biomolecules. Their behavior—droplet size, coalescence, and phase separation—directly affects dosing accuracy and safety, with instability posing risks such as fat embolism or nutrient degradation.

Chapter 03 / Environment

Use Microgravity as a Key to New Discovery

studying these systems on Earth is fundamentally limited by physics. Gravity is not just another variable, it is a dominant force that drives sedimentation, buoyancy-driven separation, and convection. These effects mask microscale behaviors governed by surface tension and diffusion.

Microgravity aboard the International Space Station acts as a “physics sandbox,” allowing us to isolate fundamental mechanisms of buoyancy and fluid physics. This enables direct observation which are phenomena that are otherwise inaccessible on Earth.

Parabolic flight microgravity

Phase 1 / Short-Duration Flights

The first phase involved short-duration microgravity flights, providing initial insights into fluid distribution in the absence of gravity-driven separation. However, less than a minute of microgravity limited the ability to study time evolution or steady-state behavior.

TIGERS-X mission patch

Phase 2 / Long-Duration ISS Studies

The second phase advances to long-duration experiments aboard the ISS, enabling precise, repeatable observation of temporal dynamics and equilibrium states, and allowing systematic experimental design.

Chapter 04 / Implication

Rethinking How Medicine Is Made. On Earth and In Space.

The goal is not simply to mix fluids in space, but to build datasets and models of nutrient systems in microgravity that can be translated into real medical applications like TPN. This shifts the focus from demonstration to understanding the underlying physics of how these fluids behave.

Short Term

Improve TPN formulations on earth

Insights from this project can improve TPN formulations on Earth, especially for patient-specific nutrition. For example, reducing emulsifier dependency can increase formulation flexibility and better support personalized medicine.

Medium Term

Food and fluid systems for long-duration space missions

This knowledge informs food and fluid system design for long-duration space missions. In space, formulations must remain stable over time, resist phase separation, be storable, and flow properly without gravity, requiring fluid delivery systems built for microgravity behavior.

Long Term

Space medicine allowing multi-planetary species

These advances contribute to space medicine, including drug mixing in microgravity, nutritional delivery, surgery that requires precise fluid control without gravity, and preventive care such as fluid balance management and long-term health optimization for multi-planetary species.

Chapter 05 / Operations
Payload

Operate Remotely on the Space Station

TIGERS-X is an active communication payload designed to operate with direct telemetry and telecommand between orbit and Earth. Researchers can monitor and control the experiment in near real time without astronaut intervention.

This changes the payload from something simply sent to space into something operated in space.

International Space Station

Columbus Module

Chapter 06 / Architecture
Communications

Secure Connection To The Station

The payload communicates through the International Space Station’s onboard TCP/IP network, linked through Space Applications Services’ ground station in Zaventem, Belgium, and connected to the Bangkok mission control team through a secure internet connection.

This allows the team to receive telemetry and send telecommands to the International Space Station in near real time.

FIG. 05 / Telemetry & Telecommand LinkACTIVE
International Space Station
Columbus Module
European Space Agency
ESA / Space Applications Services
Ground Station, Belgium
Space Applications Services
Mission Control
Bangkok, Thailand
TIGERS-X Mission Patch
LATENCY ≈ 1.2sTCP/IP · ENCRYPTEDBIDIRECTIONAL
Chapter 07 / Specification

Compact But Powerful

The design of the experiment cube is compact but powerful. It is designed to be lightweight and small, but powerful enough to perform the experiment. It is designed to be easy to integrate and test, and to be easy to operate in space.

SPEC 01
Dimension
200 × 200 × 100mm
SPEC 02
Material
Aluminum 7075
SPEC 03
Launch Mass
2.5kg
SPEC 04
Computer
Orange Pi
SPEC 05
Power
18W Peak
SPEC 06
Data Connectivity
Available
Chapter 08 / Heritage

Built By Thai Researchers And Engineers

TIGERS-X represents a full-stack effort developed in Thailand, from system design and hardware integration to testing and mission operations. Using local resources and facilities, the team translated research experience into a flight-ready payload, proving that Thailand can deliver complex space systems end to end.

MADE INThailand🇹🇭
TIGERS-X payload integration and engineering in Thailand
TIGERS-X payload view 1
TIGERS-X payload view 2
TIGERS-X payload view 3
Chapter 09 / Timeline

Mission Timeline

From idea to orbit and back to Earth — the operational beats of TIGERS-X.

  1. 01 / 08
    2024

    Introduction

    The project was initiated following KEETA’s heritage after participating in NASA’s Space Food Challenge project.

    Introduction — 2024
    MISSION PHASE 01
  2. 02 / 08
    2024

    Design Review

    The team passed PDR and CDR and began developing the payload to meet scientific objectives.

    Design Review — 2024
    MISSION PHASE 02
  3. 03 / 08
    Nov 2024

    Zero-G Flight Test

    The experiment was tested on a Zero-G flight as a proof of concept.

    Zero-G Flight Test — Nov 2024
    MISSION PHASE 03
  4. 04 / 08
    Nov 2024 – Feb 2026

    Integration And Testing

    The experiment cube was designed, built, and tested in Thailand using local resources.

    Integration And Testing — Nov 2024 – Feb 2026
    MISSION PHASE 04
  5. 05 / 08
    March 2026

    Delivery

    The payload was delivered and tested at Space Applications Services in Belgium, with final preparations after handover to ESA and NASA.

    Delivery — March 2026
    MISSION PHASE 05
  6. 06 / 08
    May 2026

    Launch And Installation

    The payload will launch to the International Space Station aboard SpaceX Dragon CRS-34 from Cape Canaveral Space Force Station.

    Launch And Installation — May 2026
    MISSION PHASE 06
  7. 07 / 08
    May – June 2026

    Station Science Mission

    The payload will be installed in the Columbus module and transmit recorded experiment video to the ground station.

    Station Science Mission — May – June 2026
    MISSION PHASE 07
  8. 08 / 08
    June 2026 / EOY 2026

    Return To Earth

    The experiment cube will return to Earth with CRS-34 before the end of 2026.

    Return To Earth — June 2026 / EOY 2026
    MISSION PHASE 08
Chapter 10 / Heritage

Laying The Groundwork For The Next Generation In Space

The most important output of TIGERS-X is not only the hardware or the experiment data. It is the knowledge that remains.

Through a comprehensive digital archive and operational knowledge transfer, every lesson learned from design, integration, testing, launch preparation, and mission operation is documented. The goal is to build space heritage so future generations of Thai space engineers will never have to start from zero again.

Open Heritage

The next generation of Thai space engineers will not start from zero again.

Browse Archive
TIGERS-X mission heritage and knowledge archive
Chapter 11 / Closing
TIGERS-X Mission Patch

A Small Cube. A Giant Step For Thai Space Technology And Healthcare Innovation.

TIGERS-X is not just a payload. It is a transition point.

From isolated experiments to accumulated capability.

From medical research to the future of experiments beyond Earth.

TIGERS-X · TPN µG-EXPERIMENT · CRS-34END OF MISSION BRIEFINGBANGKOK · BRUSSELS · FLORIDA · ISS
Research Team
Project LeaderWares Chanchareon
Project ManagerPotiwat Ngamkajornwiwat
SecretarySit Kuntinugunetanon
Head of EngineeringSaran Seehanam
Software EngineerThakdanai Sirisomat
Public Affairs OfficerJirasin Aswakool
Public Affairs OfficerChanud Sithipreedanant
ResearcherWarisara Boonrueng
ResearcherRattanawalee Tobsri
ResearcherHein Htet Aung
Supporting Organizations
CRA logo
Thai MHESI emblem
TSRI logo 2021
PIM logo
GISTDA logo
TEMEC logo

Design by Nattanon Dungsunenarn

Design and Communication Partner
Spaceth.co

© 2026 TIGERS-X. All rights reserved.