Maria Birlem
CEO
Yuri
This company develops and operates in-house space labs and ground simulators to conduct biotechnology research in microgravity environments. They enable customers to advance cell culture growth, disease modeling, protein crystallization, and synthetic biology applications beyond Earth's gravity. Yuri provides access to space-based experimentation to foster innovation in life sciences and materials research.
- Biotechnology
- Hardware
Updated 5 days ago
Funding
Raised to date
$2.2MRaised to date based on public sources. This may differ from the amount the company actually raised and is based only on what is publicly available on the internet.
Funding rounds are not available yet.
Founders
Product
Problem
Terrestrial research environments limit the development of complex 3D cell cultures and the analysis of biomolecular structures due to the effects of gravity on cellular development, fluid dynamics, and crystallization processes. These limitations hinder advancements in drug development, cell-based therapies, and the understanding of disease mechanisms.
Solution
Yuri provides hardware and services for conducting life science research in microgravity, enabling the growth of complex 3D cell cultures and the analysis of biomolecular structures. By leveraging the unique conditions of space, Yuri facilitates advancements in drug development, cell-based therapies, and synthetic biology. Their offerings allow researchers to overcome the limitations of terrestrial environments, such as gravitational forces that restrict cell development and affect fluid dynamics. Yuri's solutions support a range of applications, including modeling human diseases, studying plant biology, and advancing nanofluidics.
Target Audience
Yuri's primary customers include biotech companies, pharmaceutical firms, research institutions, and government agencies involved in drug development, cell-based therapies, and space-based research.
Features
- Hardware for growing cell cultures in 3D, enabling complex structures to form without gravitational restrictions.
- Platforms for modeling human diseases by simulating the effects of long-duration spaceflight, such as immune dysfunction and bone loss.
- Equipment for analyzing proteins and molecules, leveraging microgravity to grow larger and higher-quality crystals.
- Tools for advancing synthetic biology by exposing organisms to the harsh environment of space, leading to surprising results in artificial evolution.
- Systems for studying plant biology, examining the effects of weightlessness on plant growth and development.
- Solutions for advancing nanofluidics, utilizing microgravity to better understand the complexity of biomedical devices involving fluids.