Stanford's new "milli-spinner" blood clot removal device achieves 90% success on first try where current methods struggle at just 11%.

Tejal  Somvanshi

Unlike current methods that break up blood clots, the milli-spinner shrinks them to just 5% of their original size.

Photo Source: Dr. Yale Rosen Atlas of Pulmonary Pathology (CC BY-SA 2.0)

When someone has a stroke, every minute counts - the faster doctors remove the clot, the more brain cells survive.

Photo Credit: Yale Rosen (CC BY-SA 2.0)

Current clot removal methods work on first attempt only 50% of the time. What makes the milli-spinner so different?

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The milli-spinner applies two forces: compression against the tube and a spinning motion that rolls up the clot's fibrin threads.

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Think of a tangled ball of cotton fibers pressed between palms and rubbed in circles - this is how the milli-spinner transforms dangerous clots.

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"It's unbelievable. This is a sea-change technology that will drastically improve our ability to help people," says Stanford's Dr. Jeremy Heit.

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The breakthrough device evolved from research on tiny robots originally designed to swim through the body to deliver medicine.

Photo Credit: Polina Tankilevitch (Pexels)

Beyond strokes, the milli-spinner could potentially treat heart attacks, pulmonary embolisms, and even remove kidney stone fragments.

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Stanford researchers have launched a company to bring the milli-spinner to market, with clinical trials planned soon.

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