As the field of regenerative medicine continues to advance, the incorporation of AI is playing a transformative role in the pharmaceutical industry. AI-driven drug discovery can analyse millions of chemical compounds in a fraction of the time it would take using traditional methods, significantly reducing costs and the time taken for this process to be completed. By analysing vast data sets and identifying patterns that might otherwise go unnoticed, AI enables researchers to gain deeper insights into disease mechanisms. This technology is paving the way for more precise and effective therapies, ultimately improving patient outcomes.

Regenerative medicine offers an innovative approach to treating different indications by restoring damaged or diseased cells and tissues, providing new hope for patients with conditions such as Parkinson’s and Alzheimer’s disease. However, the complexity of developing these therapies presents significant challenges, from identifying viable treatments to navigating lengthy clinical trials. AI provides solutions to overcoming these hurdles by enhancing the precision and speed of research. For pharmaceutical companies, AI-driven insights streamline drug discovery and reduce development costs while researchers can leverage machine learning (ML) to accurately predict the effectiveness of a given therapy. Most importantly, patients will benefit as they will have faster access to advanced therapies compared to the past.

According to leading data and analytics company GlobalData’s AI in Drug Discovery 2024 report, AI can enhance the drug discovery process of regenerative medicine by tackling the main challenges associated with this process: the time taken and high costs. ML tools can be used to effectively detect patterns while AI can analyse chemical structures within a large data set of chemical compounds, selecting compounds that possess favourable properties. As well as this, AI can support drug target validation, providing researchers with detailed information on a drug candidate’s safety, effectiveness, and toxicity.

According to GlobalData’s Drugs Database, there are currently 40 regenerative medicine therapies that have been discovered or are being developed using AI. Of these drugs, three are undergoing Phase II clinical trials, including Aspen Neuroscience’s ANPD-001, which is currently in Phase II human clinical trials for the treatment of Parkinson’s disease. Unlike traditional methods that rely on medication to manage symptoms, this therapy aims to replace the lost dopamine-producing cells that cause the disease. Aspen’s approach involves taking a small sample of the patient’s own skin cells and reprogramming them into stem cells, resulting in the development of dopamine-producing neurons called dopamine neuronal precursor cells, which have the potential to restore lost brain function. AI and ML play an important role in this process as cells are tested to ensure proper function. This includes Aspen’s proprietary AI-based genomics test and ML-based genetic tests to evaluate cell quality. By using a patient’s own cells, this method reduces the risk of rejection and offers a more personalised, long-lasting treatment for Parkinson’s disease.

The field of regenerative medicine has the potential to expand in the future with the advancement of technologies such as AI and ML. AI is slowly being adopted by the pharmaceutical industry across different pipelines, including regenerative medicine, allowing for more effective treatments while saving time and resources.