MAFLD and MASH: Clinical Research with Precision
THE CHALLENGE
A Growing Global Health Crisis With No Approved Drug Treatment
Metabolic dysfunction-associated liver disease (MAFLD), previously NAFLD (non-alcoholic fatty liver disease) is one of the most prevalent metabolic conditions worldwide, affecting more than one in four adults globally. In obese or Type 2 diabetic populations, that figure climbs to between 70 and 80 percent. The condition is now recognised as the hepatic manifestation of metabolic syndrome and a significant driver of liver-related and cardiovascular mortality.
When left unmanaged, hepatic inflammation and fibrosis cause 30 to 40 percent of MAFLD cases to progress to metabolic dysfunction-associated steatohepatitis (MASH), previously known as NASH (non-alcoholic steatohepatitis), which substantially increases the risk of liver cirrhosis and hepatocellular carcinoma. MAFLD and MASH have become leading causes of liver-related morbidity and mortality globally.
Despite significant advances in understanding the pathophysiology of MAFLD, no pharmacological treatment has received approval from the FDA or the European Medicines Agency. Lifestyle interventions show high efficacy in controlled trials, but sustained real-world adherence remains a major clinical challenge.
25%+
Global adult prevalence of MAFLD, rising to 70-80% in obese or Type 2 diabetic patients
60%
Increase in overall mortality associated with MAFLD, primarily from liver-related and cardiovascular complications
0
FDA or EMA approved pharmacological treatments currently available for MAFLD or MASH
TREATMENT LANDSCAPE
A Rich Investigational Pipeline and the Need for Rigorous Trial Partners
Intensive basic research has identified several promising molecular signalling pathways for pharmacological interventions in MAFLD and MASH. Incretin-based treatments and SGLT-2 inhibitors, approved for Type 2 diabetes, have demonstrated beneficial effects in obese patients with MAFLD/MASH, generating further interest in metabolic co-targeting.
Vitamin E and PPAR-gamma agonists have shown promise in smaller trials, though their overall clinical impact remains limited. The investigational pipeline is broad and active, creating strong demand for early-phase trial partners with relevant disease expertise and capable biomarker infrastructure.
OUR CAPABILITIES
Specialist Infrastructure for Early-Phase MAFLD and MASH Trials
hVIVO brings focused early-phase clinical trial expertise to sponsors advancing candidates across the MAFLD and MASH pipeline. Our approach combines precise patient characterisation, validated biomarker assessment, and end-to-end trial management to generate the high-quality data needed for regulatory submissions and investment decisions.
We work across trial stages, from first-in-patient studies through proof-of-concept, supporting pharmaceutical companies, biotechs, and start-ups at critical decision points in their development programmes.
A Partner Built for the Demands of Metabolic Liver Disease Research
Patient Recruitment and Characterisation
Access to a broad, well-characterised database of volunteers and patients categorised by hepatic and metabolic biomarkers, enabling efficient, high-quality recruitment for your MAFLD or MASH study.
Early-Phase Trial Unit Standards
Our purpose-built early-phase clinical trial units operate to the highest standards, with full compliance with FDA and EMA regulatory requirements and meticulous attention to data integrity throughout.
End-to-End Scientific Support
From study protocol design and biomarker strategy through to data analysis and scientific publication support, our team of scientists, project managers, and medical writers works alongside your team at every stage.
Preclinical to Proof-of-Concept
Our service range spans from preclinical research through to advanced proof-of-concept trials, with the flexibility to support first-in-patient studies and dose-escalation designs in complex metabolic populations.
Published Track Record
External Clinical Centre Network
Collaboration with prestigious external clinical centres extends our reach and recruitment capacity, enabling us to meet the volume and speed requirements of your trial without compromising on candidate quality.
Rethinking Early‑Phase MASLD Trials: A More Realistic Path Forward
The complexities of MASLD The landscape of fatty liver disease has changed rapidly, and the terminology has changed with it. What was once known as NAFLD or NASH is now recognised as MASLD—metabolic dysfunction‑associated steatotic liver disease. The new name reflects a deeper truth: this is not an isolated liver condition, but a metabolic disease that sits at the crossroads of obesity, diabetes, cardiovascular risk, and systemic inflammation. For many years, MASLD was under‑recognised by clinicians and almost invisible to patients. Most people who have it still do not know they do. Even among those with type 2 diabetes—where prevalence is extraordinarily high—awareness remains low. Yet the disease carries serious consequences. It can progress from simple steatosis to fibrosis, cirrhosis, and hepatocellular carcinoma, and it significantly increases cardiovascular risk. In fact, most people with MASLD do not die from liver complications, but from cardiovascular events. This combination of high prevalence, low awareness, and significant morbidity creates a unique challenge for drug developers. It also makes early‑phase clinical research more important—and more complex—than ever. A disease that is common, silent, and difficult to identify Text: One of the fundamental challenges in MASLD development is that the disease is both widespread and underdiagnosed. Traditional diagnostic tools are either too insensitive or too invasive to be practical for broad screening. Standard abdominal ultrasound only detects fatty liver once the disease is already advanced. MRI provides a far more accurate picture, but it is expensive and typically reserved for research settings. Transient elastography technologies such as FibroScan offer a sensitive, non‑invasive alternative, but the equipment is costly and not universally available.[FT1] [AI2] In recent years, clinical risk scores such as FIB‑4, the Agile score, and the MASLD Risk Score have emerged as practical first‑line tools to identify individuals who may warrant further evaluation. These scores are inexpensive, widely accessible, and useful for triaging large populations—but they are still imperfect. They can flag patients at risk, yet they cannot confirm disease stage or reliably distinguish steatosis from fibrosis without follow‑up imaging or elastography. As a result, sponsors still face a fragmented diagnostic landscape where no single tool offers both scalability and diagnostic precision. This diagnostic gap has real implications for early‑phase trials. Identifying suitable participants requires more than simply opening a study and waiting for referrals. It demands a deliberate strategy, an understanding of which tools are appropriate for which stage of disease, and the operational capability to screen efficiently without overwhelming patients or sites. Regulatory expectations are evolving—but not fast enough The scientific community has made significant progress in developing non‑invasive methods to assess liver fat, inflammation, and fibrosis. MRI‑based techniques, elastography, and advanced ultrasound methods offer a clearer, more reproducible view of the liver than traditional biopsy. Yet regulatory expectations have not fully caught up. Biopsy remains the standard requirement for many MASLD studies, particularly those aimed at demonstrating improvements in fibrosis. This creates a major barrier. Biopsies are invasive, uncomfortable, and carry a small but real risk of complications. Patients are understandably reluctant to undergo them repeatedly, and many physicians discourage their use outside of clear clinical necessity. The result is a tension between what science can measure and what regulators still require. Sponsors often feel compelled to design biopsy‑driven studies even when better tools exist, and this can make recruitment extraordinarily difficult. It is not unusual for programmes to struggle or stall simply because patients are unwilling to undergo multiple invasive procedures for research purposes. Why early‑phase MASLD trials are uniquely challenging MASLD sits at the intersection of several metabolic pathways, and its progression varies widely from person to person. This heterogeneity makes early‑phase design particularly sensitive. Developers must understand not only the mechanism of action of their drug, but also how that mechanism interacts with the broader metabolic environment. Early‑phase studies need to capture signals that are meaningful, feasible, and aligned with the eventual regulatory path. That means selecting the right biomarkers, choosing the right imaging modalities, and defining endpoints that reflect both biological plausibility and operational reality. It also means recognising that MASLD patients often carry multiple comorbidities—diabetes, hypertension, dyslipidaemia—that influence both disease progression and study outcomes. Without careful planning, early‑phase MASLD trials can become overburdened with assessments that are difficult to execute or interpret. The goal is not to replicate a Phase II study in miniature, but to generate early evidence that a mechanism is acting in the right direction and warrants further investment. The value of integrated early‑phase expertise Given the complexity of MASLD, early‑phase development benefits enormously from an integrated approach. The most effective environments are those that connect preclinical insights with clinical strategy, and clinical strategy with operational execution. This integration allows teams to identify the most appropriate markers, anticipate feasibility challenges, and design studies that generate meaningful early signals without overwhelming patients or sites. A strong early‑phase metabolic unit brings together several critical elements: experience with first‑in‑human and early patient studies, access to the right populations, specialised investigations that have been validated and refined over time, and the scientific expertise to interpret early data in context. This combination helps sponsors move from preclinical promise to clinical proof‑of‑concept with greater clarity and confidence. For smaller biotechs—many of whom are driving innovation in MASLD—this support can be transformative. They often arrive with compelling preclinical data but limited experience navigating the regulatory, operational, and scientific complexities of metabolic liver disease. Early guidance on study design, endpoints, diagnostic tools, and feasibility can prevent costly missteps and accelerate progress. A more realistic, more hopeful path forward MASLD remains a challenging area of drug development, but it is also one of the most important. As understanding of the disease deepens and diagnostic tools continue to improve, the opportunities for meaningful therapeutic impact are growing. The key is to approach early‑phase development with realism, scientific discipline, and a willingness to adapt to the evolving landscape. By grounding early‑phase studies in biology, aligning them with regulatory expectations, and designing them with operational feasibility in mind, sponsors can generate the evidence needed to move forward with confidence. The path is not simple, but it is navigable—and with the right expertise, it becomes not just feasible, but promising.
Ready to Advance Your NAFLD or NASH Programme?
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FAQ
The site specialises in renal and hepatic impairment populations across severity levels, with strong pre-selection and referral pathways.
There is 24/7 medical oversight, continuous AE/SAE monitoring, structured stopping rules, and close collaboration with the University Hospital Kiel.