Non-alcoholic steatohepatitis (NASH), also known as Metabolic Associated Steatohepatitis (MASH), is a disease characterized by the accumulation of fat in the liver and its inflammation due to metabolic issues, not alcohol. As a result, the liver does not function properly, and over time, the disease can progress to fibrosis, cirrhosis, and liver failure. It has become a major health concern, with over 70 million global cases progressing to cirrhosis and responsible for more than 2 million deaths annually. It is now the leading cause of liver transplants in the US.

Despite the urgent need for treatments, drug development is still very inefficient to halt or reverse NASH/MASH progression. The problem is worsening as obesity and type 2 diabetes rates rise, fueling liver fat accumulation and inflammation. Nearly 20% of liver transplants in the US in 2024 were attributed to NASH, underscoring its severe medical and economic consequences.
Therefore, NASH is not only a medical issue but also an economic and social one. Due to the lack of successful pharmacological treatments, there is growing interest from the pharmaceutical industry, regulatory authorities, and researchers in facilitating the development of new therapies to reduce the severity of NASH. The NASH/MASH market is projected to grow from $3.5B in 2023 to $77.4B by 2031, with a CAGR of 47%, making it one of the most lucrative sectors in biotech. Altogether, SERVATRIX will take part in this huge market opportunity.
SERVATRIX: A new therapeutic approach to NASH
SERVATRIX Biomed is developing a novel therapy that targets a key mechanism involved in NASH progression: NRF2, a protein that regulates cellular defense against oxidative, inflammatory, and metabolic stress, three critical factors in chronic diseases like NASH.
Most current NRF2-targeting strategies cause an excessively strong activation of this protein. However, this approach has limitations, including off-target effects and poor specificity. SERVATRIX takes a different route, focusing on a lesser-known regulator of NRF2 discovered by our CSO. This unique strategy allows for moderate protein activation, balancing therapeutic benefits while minimizing risks.
The company has patented a new family of molecules that have already shown to completely block the disease progression in animal models with no adverse effects, therefore providing safety and therapeutic efficacy. This represents a differentiated and potentially game-changing approach to treating this disease.
A strong team with deep scientific expertise
SERVATRIX is built on over 15 years of research into NRF2 and its role in chronic diseases. The company is led by Dr. Antonio Cuadrado, a Professor of Biochemistry and Molecular Biology at the Autonomous University of Madrid, who is one of the world’s leading experts on NRF2. He has authored more than 200 scientific publications, including over 100 related to NRF2. He leads BenBedPhar (COST Action CA20121), a network of more than 400 researchers across 38 countries dedicated to the study of NRF2-based therapies.
SERVATRIX also brings together a highly experienced research team, collaborating with top-tier institutions such as the Autonomous University of Madrid, CSIC, and other European research centers. The management team includes professionals with strong backgrounds in pharmaceutical entrepreneurship and investment, supported by a Scientific Advisory Board composed of global experts in preclinical and clinical development.
Achievements and recognition
SERVATRIX has gained significant recognition for its innovative approach:
- Over EUR 900k in funding, combining public and private investment.
- Secured a highly competitive NEOTEC grant, positioning it as one of Europe’s most promising deep-tech startups.
- Participates in leading healthcare innovation programs (SILO, Healthstart, AseBio,…) reinforcing its strategic growth.

With a clear Scientific Roadmap, strong expertise, and a differentiated therapeutic strategy, SERVATRIX is poised to transform the treatment landscape for NASH and other metabolic diseases.
