This work is part of our broader scientific grand challenge<\/a> to create new tools for sensing and directly measuring inflammation \u2014 estimated to play a major role in 50%<\/a> of all deaths \u2014 within tissues in real time.<\/p>\n Here are four ways continuous protein monitoring could change how we stay healthy.<\/p>\n 1. Catch Signs of Disease Earlier \u2014 Sometimes Before Symptoms Appear<\/p>\n \u201cOur bodies are not very good at telling us what\u2019s going on before disease is really advanced,\u201d says Kelley. By the time we feel sick enough to see a doctor, the underlying biological processes may have been at work for weeks, months or even years.<\/p>\n Consider cardiovascular diseases, which often go undetected until significant tissue damage has already occurred. By the time symptoms appear, treatment options become much more limited.<\/p>\n This is the challenge that continuous protein monitoring could help solve.<\/p>\n \u201cAdvanced disease is really hard to treat. You can manage it, but it\u2019s difficult to turn around,\u201d Kelley explains. \u201cIf we can get in there early with the earliest warning signs of disease, we\u2019re able to apply interventions and make them much more effective.\u201d<\/p>\n Cardiovascular disease is the leading cause of death in the United States. Monitoring proteins that signal heart damage or stress could enable faster treatment, better medication adherence and improved patient outcomes.<\/p>\n 2. Help People Manage High-Burden Diseases With More Precision<\/p>\n Continuous glucose monitoring revolutionized diabetes care by letting patients and doctors see blood sugar changes in real time and adjust treatment accordingly. The same approach applied to inflammatory proteins could transform care for autoimmune diseases like lupus or inflammatory bowel disease, and other chronic diseases, including those affecting cardiovascular health. Early detection of inflammatory flares could prevent irreparable damage and enable safer, more targeted treatments.<\/p>\n \u201cIf we were able to watch proteins in real time, we would be able to get at many other disease states \u2014 cardiovascular disease, kidney disease, different types of neurodegenerative disease,\u201d Kelley says. \u201cIt really opens up applications of medicine that we can use sensors for.\u201d<\/p>\n 3. Spot Inflammation in Action Thanks to Breakthrough Technology Until recently, continuous protein monitoring seemed impossible. Most monitoring technology was designed for small molecules like glucose, not complex proteins. Protein sensors would stick too tightly to their target for hours, making them unable to detect real-time fluctuations \u2014 especially when protein levels dropped. Previous sensors required manual intervention to reset them, making continuous monitoring impractical for implanted devices.<\/p>\n That\u2019s where Kelley\u2019s team made a breakthrough with \u201cactive reset\u201d technology \u2014 an innovative way to automatically regenerate the sensors.<\/p>\n \u201cYou have to be able to reset them to be responsive to changes in concentration going up and going down,\u201d Kelley explains. \u201cBeing able to do a reset allows us to bring the sensor back to baseline and use it again without doing anything to it, which is very helpful because these sensors would be implanted within the body.\u201d<\/p>\n Active reset is just one piece of the puzzle. Combined with biocompatible materials, wireless technology, and the ability to monitor through sweat, blood or tissue fluid, this means we may finally be able to look at our bodies and track our health, as Kelley says, \u201cat the biochemical level.\u201d<\/p>\n
\n![\"Chart](\"https:\/\/www.newsbeep.com\/au\/wp-content\/uploads\/2025\/09\/continous-protein-monitoring-biohub-Inline-1.png\")
Continuous protein monitoring represents the latest breakthrough in biosensor technology, building on decades of advances in monitoring heart rate, small molecules like glucose, and other biological signals.<\/p>\n