Science - Global

Science

Science with purpose

At Ipsen we believe in advancing science with purpose. With our unique size and specialized expertise, we accelerate innovation navigating development and regulatory pathways to bring transformational new medicines to patients around the world.

We bring innovation where people have the fewest options

How Ipsen drives science with purpose

Ipsen’s science in ADCs

Ipsen’s science in ADCs

Achieving balance with precision

We are focused on maximizing the potential of the three key components of ADCs in solid tumors – the monoclonal antibody, the cytotoxic agent, and the linker.

Targeting tumor-specific antigens with innovative linker-payload designs and evaluating assets with a high DAR (drug-antibody ration) we aim to achieve strong anti-tumor activity across a number of solid tumors, while maintaining promising safety profiles.

Ipsen’s science in MAPK

Ipsen’s science in MAPK

We follow the science to better target the tumor

Our expert teams are exploring ways to more effectively block the MAPK pathway at multiple points, addressing challenges like pathway reactivation and resistance.

We aim to unlock the diversity of the MAPK pathway by targeting different proteins, across multiple solid tumor types, using biomarker-driven mutation identification to find the patients who will benefit most.

Through data-backed decision making and an unwavering commitment to treating some of the most challenging cancers, we aim to develop targeted therapies that improve patient outcomes.

Ipsen’s science in TCEs

Ipsen’s science in TCEs

Bringing science to cancer

With a data-driven approach, we are advancing multiple strategies to unlock new ways of engaging T cells, aiming to overcome challenges like dose-limiting toxicities and T cell exhaustion. Through biomarker-driven insights and next-generation platform designs, we are working to expand the potential of TCEs across a broad range of cancers, including ‘cold’ tumors that typically fail to trigger a strong immune response.

By leveraging breakthrough innovations – such as redirecting new and expanded pools of highly activated T cells – we aim to redefine how immunotherapies harness the immune system. Backed by science and an unwavering commitment to people facing some of the most difficult-to-treat cancers, we are driving the development of more precise, effective, and safer treatments for those who need them most.

Ipsen’s science in rare cholestatic liver disease

Ipsen’s science in rare cholestatic liver disease

Using science to restore balance

Our focus is on expanding therapeutic possibilities for rare liver diseases where current options remain limited.

We are focused on five rare liver diseases: ALGS, BA, PBC, PFIC, and PSC, and aim to restore bile balance through modulating three different receptors involved in the bile acid system to relieve debilitating symptoms and improve long-term liver health.

IBAT and ASBT inhibitors reduce bile acid reabsorption in the intestine, lowering toxic bile buildup that contributes to pruritus and liver damage. PPAR agonists activate receptors in liver cells to regulate bile acid metabolism, reduce inflammation, and help protect against disease progression.

Our commitment extends beyond symptom relief – we strive to drive breakthroughs that reshape the future of treatment and redefine what’s possible for people with rare liver diseases.

Glossary

Defining some key terms in our science stories

Antibody-drug conjugates (ADCs) are a class of targeted cancer therapies that combine the precision of monoclonal antibodies with the potent cell-killing ability of cytotoxic drugs.

 

Designed to selectively deliver chemotherapy agents to cancer cells while sparing healthy tissues, ADCs help minimize side effects and improve treatment efficacy. Despite their advancements, many ADCs face challenges in balancing effectiveness with a manageable safety profile.

An agonist is a drug or molecule that activates a receptor in the body, triggering a response.

An antibody binds to a specific antigen, typically a disease-related protein like a cancer marker – working like a lock and key. A monoclonal antibody is an engineered antibody designed for therapeutic use.

If a pathway or receptor plays a role in a disease, we can inhibit or block it to reduce its activity and achieve a therapeutic effect.

The MAPK cell pathway, also referred to as MAP-kinase, plays a key role in regulating cell growth, differentiation and proliferation. Mutations in the chain of proteins that make up the pathway can result in hyperactivation—the pathway gets stuck ‘on’.

 

Uncontrolled cell proliferation signals can result in oncogenesis, where healthy cells become transformed into cancer cells.
Despite their advancements, many ADCs face challenges in balancing effectiveness with a manageable safety profile.

A novel therapeutic approach that represents a distinct way of treating disease – it introduces a fundamentally different mechanism or treatment strategy than existing options.

The liver plays a vital role in overall health, including bile production, which aids digestion and waste removal. Bile flows through a network of ducts to the small intestine or is stored in the gallbladder. Most bile acids are then reabsorbed and returned to the liver, maintaining the body’s bile acid balance.

 

Rare cholestatic liver diseases (‘cholestasis’ means impaired bile flow) occur when the balance is disrupted, leading to bile acid accumulation, toxicity, intense itching (pruritus), and liver damage. This can stem from genetic mutations, autoimmune responses, or structural abnormalities, shaping their progression in both pediatric and adult patients. Our focus is on five rare liver diseases: ALGS, BA, PBC, PFIC, and PSC.

A molecule inside or on a cell that detects signals from the body or drugs, triggering a specific response.

Therapies can guide drugs directly to diseased cells or enhance the body’s own immune response.

T cell engagers (TCEs) are a class of immunotherapy designed to harness the immune system – specifically T cells – to recognize and destroy cancer cells.

 

These engineered antibodies act as molecular bridges, binding to a tumor-associated antigen on cancer cells and a T cell protein, triggering a targeted immune attack. Once activated, T cells release cytotoxic enzymes, leading to cancer cell death and amplifying the body’s immune response.

 

TCEs offer a versatile and potent approach to cancer treatment, yet existing therapies face challenges such as treatment resistance and off-target effects.

How science gives our people purpose

24 March 2025 1 mins read

A Life in Science:  Staying Curious About Innovation  

To close out our ‘A Life in Science’ series, we’re proud to feature Keira Driansky, Executive Vice President and President of North America. Her work exemplifies how collaboration in science – and by staying curious about innovation – can lead to transformative advancements in healthcare. 

17 March 2025 1 mins read

A Life in Science: Shaping the Future of Precision Medicine 

In the latest installment of our ‘A Life in Science’ series, we’re excited to introduce Crystel Ogier, our Clinical Biomarker Director, who leads the awareness and implementation of companion diagnostics at Ipsen. Crystel’s work is a prime example of how cutting-edge science is making a real impact

24 March 2025 3 mins read

Scientific Journey from Coal to Diamond: Myths and Misperceptions in Rare Disease Innovation 

In storytelling, you might hear of a superhero who squeezes coal with immense strength and heat, instantly creating a flawless diamond. While fiction, it’s true that diamonds are rare and formed under precise conditions over millions of years. For me, this analogy resonates deeply with the developme

10 March 2025 1 mins read

A Life in Science: Driving Innovation Through Collaboration 

Next in our ‘A Life in Science’ series, Dorinne Desposito, Predictive Toxicology Project Manager, shares her insights on driving innovation through creative thinking and the power of shared learning within our dedicated teams. Dorinne’s work exemplifies how cross-functional collaboration at Ipsen is

03 March 2025 1 mins read

A Life in Science: The Privilege of Making a Difference 

New in our ‘A Life in Science’ series, we hear from Christelle Huguet, Executive Vice President and Head of Research and Development, about what keeps her motivated in the challenging world of pharma.

24 February 2025 1 mins read

A Life in Science: Navigating Uncertainty to Make a Difference 

Next on our ‘A Life in Science’ series, meet Sandra Silvestri, our Executive Vice President and Chief Medical Officer.

17 February 2025 1 mins read

A Life in Science: Following Passions to Transform Healthcare  

Ipsen is proud to launch our ‘A Life in Science’ campaign, spotlighting the talented and passionate individuals who are making their mark and driving innovation. 

04 February 2025 1 mins read

Driving continuous progress in cancer care

While being diagnosed with cancer isn’t unique- around 20m people are diagnosed with cancer globally each year, and that number is projected to double in next 20 years—how it affects each person is.

07 February 2025 1 mins read

Pioneering Today to Lead in STEM Tomorrow 

Despite progress in gender equality, women remain underrepresented in STEM, making up just 1/3 of the workforce compared to 1/2 in non-STEM fields.1  

02 April 2024 3 mins read

Unlocking Potential Through Early-Stage Partnerships

We are pleased to share a recent conversation with Mary Jane Hinrichs, Senior Vice President, and Global Head of Early Development. Mary Jane spearheads the…

OUR PARTNERSHIPS

OUR PARTNERSHIPS

At Ipsen, we believe that partnerships create possibilities. We seek to build partnerships that boost our capacity to improve or extend the lives of people living with cancer, rare diseases and neurological conditions.

Learn more
CLINICAL TRIALS

CLINICAL TRIALS

Ipsen conducts first-in-the-world clinical trials to take science forward and bring innovative, new options to patients. Our global network of healthcare professionals, together with volunteers and patients, helps us test medicines and ensure their effectiveness and safety in clinical trials before new treatments can be approved and made widely available.

Learn more