Guest Column | December 20, 2023

AI's Role In Drug Discovery To Propel Personalized, Patient-Centric Medicine

By Roger Palframan, head of U.S. research, UCB

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In an era where our knowledge of disease and biology is rapidly growing and technological progression is breathtaking, it’s imperative that the pharmaceutical industry doesn’t remain static and that it grows and improves using these advancements to propel us into a new era of drug discovery. Set to play a pivotal role in this new era is artificial intelligence (AI). The integration of AI into early-stage drug research is key, and traditional methods, often lengthy, costly, and involving many different disciplines, are evolving through AI-driven processes.

At UCB, we see AI-driven drug discovery and development as representing a future where new medicines could become more precise and effective, better tolerated, and better tailored to an individual patient's profile and health characteristics.

The application of AI in drug discovery includes the ability to more efficiently analyze extensive data sets to identify potential drug candidates. These could be chemical compounds, genetic sequences, or even existing drugs that could be repurposed. Using machine learning algorithms, we can identify novel small molecule lead structures in silico and simultaneously optimize their properties and their interaction with certain molecular targets. This allows us to address massive chemical spaces not accessible without AI, thereby reducing the need for experimental trial and error type of work. The new approaches will not only accelerate the discovery phase but also potentially save research costs.

Furthermore, AI is instrumental in the move toward precision medicine, an emerging approach successfully pioneered in oncology, that considers individual variability in genes, environment, and lifestyle to define the most appropriate treatment or health-maintaining strategy. By analyzing patient-specific data, AI can help researchers understand specific diseases better and develop more personalized treatment strategies.

Additionally, at the clinical trials phase, AI can streamline processes with remarkable efficiency. Its impressive generative capabilities can be exploited to generate study concepts and protocols, write reports, and help with regulatory documents, reducing the complexity surrounding investigational clinical trials and therefore compressing drug development times. Moreover, AI can significantly accelerate the recruitment process, identifying the most promising sites, ensuring a diverse representation of patients, and helping trial participants to overcome barriers related to geography. This diversity is crucial for the generalizability and effectiveness of clinical trials.

Beyond these technological improvements, AI is a catalyst for innovation as it offers fresh perspectives and insights, uncovering hidden connections within vast data sets. This ability to reveal previously unnoticed patterns and relationships in data is not just transformative; it's driving a new era of discovery in the field. AI's impact extends from the laboratory to the clinic, marking a new frontier in pharmaceutical research and development. It’s important to note that while technological and scientific knowledge is accelerating and shaping how we work, the essential role of human curiosity, collaboration, and connections in scientific exploration will not change.

Bridging Innovations: The Critical Role Of Expert Partnerships In Pharma

At UCB, we recognize that we can’t solve the world’s health problems on our own. It’s not about individuals anymore, it’s about collaborations and working in partnership with academics, patients, and peers. This approach fosters innovation, merging various scientific disciplines, teams, and cross-industry expertise. Such integration enriches our work with fresh insights and diverse skills.

The more we collaborate, the greater our capacity for innovation. So, we must make finding the right partners a critical focus. It’s important to establish an ecosystem of collaborations, with each party bringing relevant expertise to the partnership.

These collaborations represent more than technical alliances; they are cultural journeys. They introduce our scientists to cutting-edge solutions, enabling technologies and new thinking from the tech, academic, and leading research institutes, broadening our horizons and enhancing our approach.

Working with expert partners, our ambition is to not just to accelerate the drug discovery and development process but to bring greater precision and personalization. We believe that this approach is crucial in addressing current and future health challenges.

Redefining Expertise: The Evolving Landscape Of Pharmaceutical R&D

As the pharmaceutical industry embraces AI, we are seeing the need for new skills researchers should acquire and new roles that will be created. We recognize the imperative and joint need to integrate data science and AI into our daily operations, and this creates opportunities for researchers to expand their skillsets and take on new roles. As AI continues to evolve, these skills and roles will continue to be defined and redefined.

The advancement of AI in the pharmaceutical sector is set to continue its upward trajectory. Technologies like machine learning and physics-based approaches have already demonstrated significant potential across various stages of drug discovery, from target identification to lead optimization and clinical trial design. As computational capabilities expand and more diverse data becomes available, AI models will grow more robust, training on more relevant data sets to improve performance. Furthermore, ongoing enhancements in algorithms and model architectures are making AI systems increasingly sophisticated and efficient. We can envisage a not-too-distant future where the generation of therapeutic hypotheses from current biomedical knowledge will be almost exhaustive. While this will keep pharma companies busy for some time, we need to realize that there are still very significant knowledge gaps over vast areas of biology, which AI will not be able to harness unless scientists in industry and academia start studying them and generate data.

While technology provides us with the tools to innovate, it’s the emergence of new and advancement of current drug modalities that's truly propelling us into a new era. These modalities, which range from small molecules, peptides, and proteins to antibodies, cell therapies, and gene therapy, offer unprecedented opportunities to design targeted therapies.

AI In Pharma: Paving The Way For Patient-Centric Medicine

The integration of AI in pharma is more than just a technological advancement; it's a shift toward more personalized, patient-centric medicine. The potential benefits are enormous: from accelerated drug discovery to improved patient outcomes and engagement, we are set to see a revolutionary shift with the potential to redefine how medicines are brought to patients.

As we embrace AI's transformative potential in drug discovery and pharmaceuticals, it's vital to remember the enduring importance of the human touch. Despite technological advances, healthcare remains fundamentally patient-centric, relying on empathy and understanding that only people can provide. Balancing AI's efficiency with this human touch is key to truly revolutionizing patient care and outcomes.

About The Author:

Roger Palframan is head of U.S. research at UCB. He has held leadership roles in research and external innovation and has led project teams in discovery and in global clinical development. Palframan has led the strategy and build of UCB’s U.S. research capability, which included the acquisition and integration of Beryllium Discovery, Element Genomics, Ra Pharmaceuticals, and Zogenix. He has led the strategy and build of the company’s global gene therapy research platform and digital transformation in global research. Palframan received his BSc in pharmacology at King’s College London and his Ph.D. in immunology at Imperial College London. Roger was a Wellcome Trust Postdoctoral Research Fellow at Harvard Medical School.