atmp-formulation-development

ATMP Formulation Development: Navigating the Frontier of Advanced Therapies

ATMP Formulation Development: Navigating the Frontier of Advanced Therapies

ATMP Formulation Development: Navigating the Frontier of Advanced Therapies

18.07.2025

6

Minutes

Leukocare Editorial Team

18.07.2025

6

Minutes

Leukocare Editorial Team

Advanced Therapy Medicinal Products (ATMPs) offer revolutionary treatments but present significant formulation complexities for CMC/Drug Product Directors. Struggling with inherent instability and market pressures? Uncover the critical insights needed to navigate this challenging landscape.

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Navigating the Frontier of Medicine: Formulation Development for Advanced Therapies

FAQ

1. Current Situation

2. Typical Market Trends

3. Current Challenges and How They Are Solved

5. Value Provided to Customers

Navigating the Frontier of Medicine: Formulation Development for Advanced Therapies

Advanced Therapy Medicinal Products (ATMPs) are at the forefront of a new wave of medicine. They can treat, and sometimes even cure, diseases once thought untreatable.[1, 2] These therapies, which include gene therapies, cell-based treatments, and tissue-engineered products, are not like traditional drugs. They are complex biological systems, and this complexity brings unique challenges, especially for formulation development.

As a Director in CMC or Drug Product Development, you probably know how tough it is to move a promising therapy from the lab to the clinic. These therapies are naturally unstable and present new challenges, making things even harder. This article looks at ATMP formulation today, the challenges we all face, and how working together smartly can lead to success.

1. Current Situation

The ATMP market is growing rapidly. Projections show the global market could reach over USD 39 billion by 2032, growing more than 13% each year.[1, 2] This growth is fueled by scientific breakthroughs and increasing demand for personalized treatments for conditions like cancer and genetic disorders.[1, 2]

The path to market is steep. ATMPs have a difficult time in development, not necessarily because of their mode-of-action, but due to regulatory and manufacturing hurdles. The products themselves—living cells, viral vectors, or engineered tissues—are super sensitive to their environment.[4] So, making a stable, effective, and safe formulation is a critical and often tough step.

2. Typical Market Trends

Several key trends are shaping the ATMP landscape:

  • A push for accelerated development: Many ATMPs target rare or life-threatening diseases, leading to fast-track designations and immense pressure to shorten timelines from discovery to Biologics License Application (BLA).

  • The rise of new modalities: Viral vectors like AAVs and lentiviruses, as well as non-viral systems like Lipid Nanoparticles (LNPs) for mRNA delivery, are becoming more common.[4] Each comes with its own specific formulation challenges, from managing aggregation in AAVs to ensuring the stability of LNP-mRNA complexes.[5, 6]

  • A move towards predictive technologies: The industry uses artificial intelligence (AI) and machine learning more and more to predict formulation results.[14, 7] These tools can look at huge amounts of data to find the best ingredients and conditions, cutting down on time and materials spent on trial-and-error.[10, 11]

  • Outsourcing to specialized partners: ATMPs are getting more complex, so many companies, from small virtual biotechs to large pharma, are turning to external partners who specialize in formulation. This helps them lower development risks and fill gaps in their own knowledge.[12]

3. Current Challenges and How They Are Solved

The road to a stable ATMP formulation is filled with specific, technical roadblocks. Knowing these problems is the first step to fixing them.

  • Product Stability: ATMPs are fragile. Viral vectors can become less effective if they clump or break down, and cells can die.[14, 7] Cryopreservation is often necessary for storage and transport, but the freeze-thaw process itself can damage cells. The answer is finding the right mix of excipients, cryoprotectants, and buffer systems.[15, 23] This means carefully checking ingredients that protect the product from physical and chemical stresses, like temperature changes and forces during manufacturing.[18] For cell therapies, finding other options for potentially toxic cryoprotectants like DMSO is also important.

  • Manufacturing and Scalability: What works in a small lab usually doesn't work for large-scale manufacturing. The processes can be manual and change a lot, leading to inconsistent product quality.[15, 23] For viral vectors, separating empty capsids from full ones is a big, expensive problem that affects product safety and purity.[21, 22] It's key to develop a strong, scalable, and often automated manufacturing process early.[24] This means deeply understanding how manufacturing settings affect the final product.[23, 25] For AAVs, this means making purification better. For cell therapies, it means using closed, automated systems to reduce manual differences and ensure consistency.

  • Regulatory Complexity: Regulatory agencies have specific rules for ATMPs, but because these products are new, the path isn't always clear.[26] Getting the necessary data on how the product is characterized, its stability, and how strong it is can be tough because biological materials naturally vary a lot. Talking early and often with regulatory bodies is a must.[28] Using a risk-based approach—where you find and fix potential problems early—can help make the regulatory journey smoother.[28] This means putting together a strong data package that fully describes the product and explains why certain formulation choices were made.

4. How Leukocare Can Support These Challenges

Developing a successful ATMP formulation needs a partner who understands these specific challenges. At Leukocare, we work with all kinds of biotech companies, from fast-track virtual firms to big pharma and CDMOs, to tackle these formulation challenges directly.[26]

We build our approach on strong technical knowledge and a collaborative spirit. We use a smart formulation platform and AI to predict stability, helping us efficiently explore all possible formulation designs. This data-driven method lets us create formulations for tight deadlines, reduce risks for new therapies, and provide strong data for regulatory approval.[10, 11]

If you're a fast-track biotech leader rushing to get BLA approval, we offer a clear, scientifically-guided path. We help you get there faster with a formulation made for regulatory approval.

If you're a mid-size biotech with existing partners but new challenges, we can step in to fix a specific problem, like making your product more stable when freeze-dried or working with a new type of therapy. We support your internal teams, not replace them, showing our value with a pilot project first.

If you're a CDMO wanting to offer full services without building your own formulation team, we act as a quiet, seamless partner. We handle formulation development on our own, making sure projects run smoothly while staying loyal to your client relationship.

5. Value Provided to Customers

Our goal is to help you create a stable, effective product that can be sold. We do this by:

  • Giving you data for decisions: Our predictive modeling and formulation knowledge provide the data you need to make good decisions, whether for internal progress or talking with investors and regulators.[12]

  • Being a strategic partner: We don't just do experiments. We're a thinking partner, bringing our perspective and scientific expertise to help you build a strong CMC story.

  • Delivering reliable results: We know there's no room for mistakes. We provide structure, speed, and substance, all backed by data and delivered reliably. Our approach is designed to give you results you can trust, solving complex problems while focusing on what you need.

Developing an ATMP is tough, but you don't have to do it alone. With the right partner and a good formulation strategy, you can get through these complexities and bring these life-changing therapies to patients who need them.

FAQ

Q1: At what stage should I start thinking about formulation for my ATMP?
It's smart to think about formulation early in development. Focusing on formulation early can help you avoid expensive delays later. It ensures stability, scalability, and a clearer path to approval right from the start.

Q2: How does formulation for a viral vector differ from a cell therapy?
Both need careful stabilization, but the challenges are different. For viral vectors (like AAVs), the main issues are stopping them from clumping and keeping the viral capsid intact.[14, 7] For cell therapies, it's all about keeping cells alive and working, especially during freezing and thawing.

Q3: What are the most important excipients to consider for an ATMP formulation?
This depends on the product. Common ones include buffers to keep pH stable, salts for tonicity, cryoprotectants like sugars or glycerol to protect during freezing, and surfactants to stop surface sticking and clumping. You need to pick them based on your ATMP's specific stability needs.[18]

Q4: How can AI and predictive modeling help my formulation development?
AI and predictive modeling can really speed things up. They analyze big datasets to predict which excipient combinations will likely work best. This means fewer wet-lab experiments, saving time, money, and valuable material.[10, 11]

Q5: We are a small virtual company with no lab. How can we manage formulation development?
Many virtual companies handle formulation successfully by partnering with specialized outside organizations.[30, 31] A good partner will be your formulation team, giving you the infrastructure, scientific input, and strategic advice you need to advance your product.

Literature

  1. ddregpharma.com

  2. prnewswire.com

  3. pharmiweb.com

  4. progress-lifesciences.nl

  5. cellandgene.com

  6. nih.gov

  7. nih.gov

  8. gencefebio.com

  9. frontiersin.org

  10. ijpsjournal.com

  11. pharmtech.com

  12. mit.edu

  13. nih.gov

  14. nih.gov

  15. biocompare.com

  16. nih.gov

  17. pantheracryo.com

  18. nih.gov

  19. nih.gov

  20. researchgate.net

  21. ispe.org

  22. medrego.com

  23. insights.bio

  24. cellandgene.com

  25. nih.gov

  26. nih.gov

  27. frontiersin.org

  28. celegence.com

  29. ispe.org

  30. nih.gov

  31. patheon.com

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