Revolutionary Plasma Exchange Technique Effectively Removes Microplastics from Bloodstream
Plasma Exchange Technique Removes Microplastics from Bloodstream
In a significant breakthrough for human health, Circulate Health has announced that therapeutic plasma exchange (TPE) can effectively reduce the presence of microplastics in human blood. This finding, detailed in their recent study published in the Journal of Clinical Apheresis, highlights TPE as the first proven method for removing these pervasive pollutants from the human body.
Understanding Microplastics
Microplastics, often categorized as tiny plastic particles measuring between 1 and 5 micrometers, have become widespread in our environment. They are found in air, water, food, and dust, and once they enter the human body through ingestion, inhalation, or dermal absorption, they can circulate through the bloodstream to vital organs such as the heart, lungs, and nervous system. Studies have identified potential health risks associated with microplastic exposure, including inflammation, oxidative stress, and organ damage.
Recent research indicates that individuals in the United States might consume between 39,000 to 52,000 microplastic particles annually, according to a 2019 study in Environmental Science & Technology.
The Landmark Study
Led by Dr. Brad Younggren, CEO and Co-Founder of Circulate Health, the study engaged over 100 patients who consented to have blood samples taken before and after undergoing plasma exchange therapy. Utilizing the innovative PlasticTox assay, researchers measured the levels of microplastic particles in blood samples.
Remarkably, patients who initially presented with over 30 microplastic particles per 100 microliters saw their average levels decrease from 52.2 to 21.1 particles per 100 microliters post-treatment (p<0.001). The Spectrum Optia Apheresis System facilitated this process by separating the patients’ plasma and replacing it with a sterile 5% albumin solution, thereby clearing microplastics from circulation.
This study represents a crucial step in understanding the long-term biological effects of microplastics.