Neurological disorders are considered the second leading cause of death and the primary cause of long-term disability, worldwide. In fact, over 6.5 million neurological disorder related deaths are reported annually, globally. Further, according to a report published by the United Nation (UN), close to 1 billion people, across the globe, suffer from various types of neurological disorders, including Alzheimer’s disease, Parkinson’s disease, amyotrophic lateral sclerosis and multiple sclerosis. The growing number of patients suffering from neurodegenerative disorders has imposed a huge burden, in terms of finances as well as resources, on the overall healthcare system. In this context, it is worth mentioning that the annual expenditure associated with neurological disorder care in 2020 was more than USD 655 billion, in the US alone. SARM1 inhibitors have the potential to overcome these challenges and address the unmet need.
Given the fact that majority of the current treatment options have proven to be inadequate, especially for axonal degeneration associated neurological disorders, there is a high demand for highly effective therapeutics targeting neurological disorders. Sterile Alpha and toll / Interleukin-1 Receptor Motif-Containing 1 (SARM1), an NADase enzyme, has been found to play a critical role in inducing axonal degeneration, which is a central pathological feature in various neurodegenerative disorders. Currently, several studies are evaluating SARM1 inhibitors as potential therapeutic agents for the treatment of neurological disorder. The role of SARM1 in neurodegenerative disorders is outlined below.
Axonal degeneration is a principal pathophysiological event for the occurrence of neurological disorders. SARM1, an NADase enzyme, depletes the energy stored in axons upon activation and initiates axonal degeneration process. The process leads to generation of metastable pool of damaged axons that remain structurally and functionally viable but are subjected to degeneration in the absence of external intervention. However, it has been reported that small molecules, such as isoquinoline inhibitors (DSRM-3716), can deactivate the phenotype of SARM1 enzyme and prevent axon degeneration. Therefore, inhibition of SARM1 by small molecules can be used to treat axonopathies of the central and peripheral nervous system and allow recovery of metastable pool of damaged axons.The mechanism of action of SARM1 inhibitors is outlined below.
Key Milestones Related to SARM1 Inhibitors
Currently, there are no available treatment options that target axonal degeneration. However, SARM1 has become a potential therapeutic target and several studies are evaluating various SARM1 inhibitors as therapeutic agents for the treatment of multiple neurological disorders. Therefore, the SARM1 inhibitor market is an evolving area of research within the neurodegeneration and associated diseases domain.
What is the Current Industry Landscape and Upcoming Trends in the SARM1 Inhibitor Market?
As per a recent market report by Roots Analysis, around 15 small molecule and biologics are being evaluated in pre-clinical and discovery stages for their potential to be an SARM1 inhibitor candidate.
You can also download the SAMPLE REPORT on SARM1 inhibitors by Roots Analysis.