Completed Brain & Nervous System NIHR-supported project Bones, Joints & Muscles

Using neurophysiology to guide the development of new treatments for motor system disorders (TRANSLATIONAL EPHYS)

In plain English

AI plain-English summary

A patient referred for muscle weakness will have their brain and nerve activity measured, and a sample of their skin turned into lab-grown brain cells, to see if these two very different types of measurement match up. This matters because testing new treatments for motor system disorders is currently hampered by a disconnect between how disease is measured in patients and how it is measured in the lab. Doctors use one set of tests; researchers use another. This mismatch creates uncertainty about whether a promising drug candidate will actually work in people. Neurophysiological recordings—measuring the electrical chatter of nerves—are used in both settings, making them a potential bridge. If the measurements from patients and their lab-grown cells correlate, the approach could create a unique platform for testing new treatments. Drug developers could screen candidate therapies on patient-specific cells and have greater confidence that the results will translate to real-world improvement in muscle strength. This would accelerate the pipeline for a range of motor system disorders, from motor neuron disease to peripheral neuropathies. The study itself offers no direct benefit to participants, but aims to build a more reliable tool for future clinical trials.

View original technical description
Motor system disorders cause muscle weakness and can be difficult to treat. A potential barrier to testing new treatments can be found in the bridge between measurements made in patients and those performed in research laboratories. For example, different measures of disease are used in those two settings. This increases the uncertainty around the potential of emerging treatments. Neurophysiological measurements record the electrical activity from the brain and nerves in patients, and also in cells in the laboratory. Thus, these measurements may have the potential to provide a solution. To test this, we will undertake sophisticated measurements of brain and nerve function in patients being investigated for muscle weakness. We will also take a blood and skin samples and use stem cell technology to create patient specific brain cells that we can study in the laboratory. Potential patient participants will be identified at the time of referral to the Department of Clinical Neurophysiology. A study invitation letter and participant information sheet will be included with the department appointment ‘ring in’ letter. Participants will then be recruited in clinic. Our aim is to see if the measurements we take in patients and their cells relate to one another. If they do, this approach may provide a unique platform for testing new treatments for a range of different conditions. This study is funded by the Medical Research Council. While there is no anticipated direct benefit of this study to participants, it is hoped that the project will develop an improved platform for testing potential new treatments for motor system disorders.

Researchers

James Alix (Principal Investigator)

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Original classification

Translational Neurosciences

Plain English summaries and category classifications on this site are generated by AI and may not perfectly reflect the original research.