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Out of 3,425 patients enrolled in the study, 0.4% (13 patients) experienced a delayed intracranial hemorrhage, a significantly lower rate than previously reported (7.2%).
A pivotal study has shed new light on the molecular underpinnings of plant reproduction, pinpointing a key interaction that is vital for the development of pollen.
Medical products such as ointments or syringes reach their limits when it comes to delivering medication locally – and above all in a controlled manner over a longer period of time. Empa researchers are therefore developing polymer fibers that can deliver active ingredients precisely over the long term. These "liquid core fibers" contain drugs inside and can be processed into medical textiles.
A cutting-edge study reveals that inoculating arbuscular mycorrhizal fungi (AMF) into acidic soils significantly bolsters soybean growth, particularly in plants with enhanced phosphorus efficiency. This eco-friendly method outperforms traditional phosphorus fertilization, offering a promising strategy for sustainable agriculture in nutrient-scarce environments.
In a breakthrough that could redefine tomato flavor, a study has pinpointed the genetic markers that dictate citric acid (CA) levels — the cornerstone of a tomato's taste and nutritional richness.
A recent study has discovered that SALT TOLERANCE HOMOLOG2 (CaSTH2), a gene in pepper, acts as a negative regulator of the plant’s defense mechanisms.
A new study finds that early elementary school teachers report feeling less close to chronically absent students and view them less positively, even when those students do not cause trouble in the classroom.
Georgia Tech bioengineer Ankur Singh and his team have developed a method to enhance adoptive T-cell therapy using nanowires to deliver miRNA to T-cells, preserving their naïve state for more effective disease-fighting. This innovative technique allows the T-cells to remain programmable and robust, offering a potential gamechanger for immunotherapies.
Researchers at Washington University in St. Louis can more effectively study mutations that cause heart disease by putting cells through their paces.
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