Physics-informed AI reveals brain fluid flow from MRI, key to understanding brain health and neurological diseases.
A study by researchers at The University of Manchester, carried out alongside the Universities of Melbourne and Copenhagen, could hold the key to understanding the causes of long-term health problems, such as infertility and ovarian cancer.
The study, published in PRX Life, used a combination of high-resolution imaging, flow measurements, and mathematical modeling to examine fluid flows around corals that are driven by cilia—densely packed tiny hairs on the coral’s surface. The collective beating of the cilia contributes to the movement of fluid around the surface of the coral, regulating the animal’s immediate environment through the transport of particles such as oxygen.
The researchers found that heterogeneity in ciliary orientation —small variations in the direction individual cilia beat—can significantly boost transport efficiency. For substances that diffuse slowly through the fluid, this natural variability increased particle transport by more than 50% compared to perfectly aligned cilia. This contrasts with other biological systems, highlighting how coral cilia are uniquely adapted to their environment.
A health scare prompted the first ever early return from the International Space Station for a medical reason. Does it change the plan for deep space missions?
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00:00 Intro.
Just a few hours before the Orion spacecraft crossed the sky en route to the moon on April 1, mechatronics engineer Rodrigo Trevisan Okamoto received confirmation he had been waiting for since the Artemis 2 mission was announced in 2023. The email from NASA stated that the crew of the first crewed mission to orbit the moon in half a century would carry a device developed by Okamoto and his team at Condor Instruments, a São Paulo-based startup.
“The NASA announcement was sudden and caught us by surprise. And it was only after the mission concluded that we learned the astronauts had been using the equipment in tests for the past two years,” Okamoto told Agência FAPESP.
The device, called an actigraph, is shaped like a wristwatch and incorporates accelerometers, as well as light and temperature sensors, to precisely map the user’s sleep and wake patterns over the course of days or weeks.
Researchers modeled the specific dosage of trauma to highlight an escalating relationship between the sheer volume of trauma and later health vulnerabilities. Small amounts of childhood adversity corresponded to relatively modest increases in health risks. However, once a person’s trauma score passed four distinct adverse experiences, the upward trajectory of their health risk accelerated rapidly.
The researchers also investigated the stepping stones connecting early trauma to later disease onset. Using a statistical technique called mediation analysis, they looked for intermediate health issues that acted as bridges over the span of a lifetime. They found that developing either a single physical illness or isolated depression in early adulthood often served as an indirect pathway to combined disease in older age.
For individuals with the highest amounts of early trauma, early-onset depression played a particularly strong bridging role. An initial diagnosis of depression frequently paved the way for additional physical conditions as time went on. These findings align with biological theories suggesting that severe childhood stress permanently disrupts the body’s immune regulation and stress hormone pathways.
A new skin-like computing patch developed at the University of Chicago Pritzker School of Molecular Engineering (UChicago PME) can analyze health data using artificial intelligence in an unprecedented way. Unlike today’s wearable devices, it carries out its AI computations directly on the body, in mere milliseconds, without relying on a wireless connection.
While your current smartwatch may be able to track your heart rate or movements, it doesn’t analyze what it finds. The analysis happens elsewhere, after it shuttles data to an external server. In some situations—detecting ventricular fibrillation in the heart, for instance—that few-seconds lag to communicate with the server is too long.
The new device, designed and tested in collaboration with researchers at Argonne National Laboratory, was made possible by the development of manufacturing processes that allow organic electrochemical transistors to be printed onto flexible surfaces.
Scientists at the UCLA Health Jonsson Comprehensive Cancer Center have developed a new cytokine-armored CAR-T cell therapy that helps the immune system better attack aggressive brain tumors in mice while reducing dangerous side effects that have long limited immune-based treatments for glioblastoma, one of the deadliest and most treatment-resistant brain cancers.
The therapy works by reprogramming CAR-T cells to release immune-stimulating proteins, called IL-12 and DR-18, that activate the body’s own immune system, strengthening the overall anti-cancer response. In mouse models, the approach improved tumor control, including against cancers made up of mixed cell populations that often escape therapies.
Researchers also found that pairing the treatment with a second CAR-T strategy targeting VEGF, a protein that drives abnormal blood vessel growth and contributes to swelling in glioblastoma, helped reduce side effects while preserving strong anti-tumor activity.
Can we have higher yields and better taste? Using a natural extract from the fungus Pseudozyma aphidis, this method improves the firmness and natural sugar content of crops like tomatoes and melons while significantly boosting production. This discovery offers a practical path to meeting global food demands without compromising the health of the planet or produce quality. Furthermore, because the approach uses stable microbial secretions instead of live cultures, it ensures consistent and reliable performance across various agricultural environments and climates.
Researchers at the Hebrew University of Jerusalem have identified a natural, eco-friendly way to significantly increase agricultural yields while also improving the quality and taste of produce. The study, led by Professor Maggie Levy alongside researchers Anton Fennec and Neta Rotem, focuses on an extract derived from the yeast-like fungus Pseudozyma aphidis.
As the global population continues to grow, the demand for higher agricultural output has historically led to the heavy use of synthetic fertilizers and pesticides. These chemicals often contribute to soil and water pollution and increase greenhouse gas emissions. The new research, published in the journal Plant Physiology, suggests that beneficial micro-organisms can offer a sustainable alternative to these traditional agricultural inputs.