Microgravity as an Enabling Research Environment

Over the past decades, microgravity research has evolved into a powerful enabler of scientific and technological innovation. What was once a frontier of exploration is now a strategic environment for advanced experimentation and private investment in space.

Microgravity does not simply improve existing processes — it allows entirely new research pathways to emerge, generating solutions and product categories with the potential to transform life on Earth. From life sciences to advanced materials, its unique conditions unlock discoveries that cannot be achieved under terrestrial gravity.

© Nasa

Protein Crystallisation & Biopharmaceuticals

Microgravity provides a unique environment for the controlled growth of high-quality protein crystals, enabling improved structural analysis at molecular level.
These conditions support advanced drug development and biopharmaceutical research by enhancing crystal uniformity and resolution. The resulting structural insights contribute to the design of more targeted and effective therapeutic solutions.

© Nasa

Stem Cells & Tissue Engineering

The absence of gravity influences cellular differentiation, tissue organisation, and regenerative processes.
Microgravity allows the study of stem cell behavior in three-dimensional structures without gravitational distortion, supporting research in tissue engineering, regenerative medicine, and advanced cell culture systems, including organ-on-chip platforms.

© Nasa

Oncology & Disease Modelling

Microgravity environments enable the formation of complex 3D cellular structures that more closely resemble in vivo tumor architecture.
This capability enhances the study of cancer progression, drug response, and cellular interactions, supporting the development of more predictive disease models and innovative therapeutic strategies.

© Nasa

Microbiology &
Host-Pathogen Interaction

Microgravity affects microbial growth patterns, virulence expression, and antibiotic resistance mechanisms.
Studying these variations in orbit improves understanding of host-pathogen interactions and supports the development of more effective antimicrobial treatments and infection control strategies.

© Nasa

Aging & Cellular Degeneration

Microgravity accelerates certain biological processes, offering a unique platform to study aging-related cellular mechanisms.
Research conducted in orbit contributes to a deeper understanding of musculoskeletal degradation, immune response changes, and other age-associated conditions, supporting translational applications on Earth.

© Nasa

Fluid Physics & Advanced Materials

In microgravity, fluid dynamics and material behavior can be observed without buoyancy-driven convection or sedimentation effects.
This enables precise investigation of multiphase flows, crystal growth, combustion, and material solidification processes; supporting advancements in industrial manufacturing and materials science.

From Applications to Infrastructure

Our microgravity applications are supported by proprietary technologies and dedicated operational facilities. Discover the engineering systems that enable experiment execution and the programmes and environments where research is prepared, qualified, and operated.