Reichman University Researchers Reveal How the Brain Dynamically Reconfigures Networks During Speech Processing Study published in NeuroImage demonstrates how the human brain flexibly reorganizes large-scale neural networks when processing meaning and intonation in speech

How does the brain manage to catch the drift of a mumbled sentence or a flat, robotic voice? A new study led by researchers at Reichman University’s Baruch Ivcher School of Psychology and the Dina Recanati School of Medicine has uncovered that  the human brain dynamically reconfigures large-scale neural networks during speech processing, offering new insights into the neural mechanisms underlying language comprehension.

Acute sepsis alters how intravenous fluids and vasoactive drugs function in the body. Using a sheep model, researchers examined how sepsis affects the distribution of crystalloid fluids and the effectiveness of vasoactive drugs. Results showed that sepsis reduced urine output, weakened drug responses, and caused fluid to accumulate in the interstitial “third fluid space.” These findings highlight how sepsis disrupts normal fluid regulation, complicating effective fluid and drug management during treatment.

Features of urban areas, such as street connectivity or access to green spaces, can impact cardiometabolic health. However, most studies in this area do not provide actionable findings for effective urban planning. Researchers now discuss how parametric urban design, an advanced computational approach, could overcome the existing methodological limitations and increase the applicability of findings. Their insights could help clinicians, public health researchers, and urban designers to refine their current approaches and develop health-focused environments.