Researchers at Gladstone Institutes found that hypoxia therapy can extend lifespan and improve brain function in mice with motor neuron degeneration. The therapy works by reducing the amount of oxygen available to cells, which can help counteract the effects of defective mitochondrial quality control machinery.
Researchers aim to understand how chronic alcohol exposure changes the brain's stress circuitry, with potential breakthroughs in treating AUD. Advanced neuroscience approaches will be used to examine PACAP's role in excessive drinking, anxiety-like behaviors, and pain sensitivity.
Circulating tumor cells undergo biomechanical adaptations to interact with blood components and survive for hours, ultimately facilitating metastatic progression. Understanding these dynamic behaviors offers deeper insights into CTC biology and the metastatic cascade.
Intravital mesoscale optical imaging enables high-resolution visualization across large fields of view, but faces challenges such as scattering and photobleaching. Advanced techniques like computational imaging and real-time processing are being developed to overcome these limitations.
Denis V. Titov's paper, published in Biophysical Journal, presents a detailed biophysical model of glycolysis, solving a complex problem and providing insight into cell energy metabolism. The award recognizes outstanding early career work in biophysics.
Researchers have found that proteins vital for sound signal transmission in the ear also manage the fatty molecules on the cell membrane. When these proteins malfunction, it can trigger permanent hair cell death and lead to hearing loss.
Researchers develop novel method to manipulate cell structures using weak magnetic fields and isotopes, bridging structural biology, biophysics, and quantum biology. This work offers a potential new strategy for stabilizing damaged brain proteins, typical of neurodegenerative diseases.
Researchers at UT San Antonio have discovered the molecular mechanisms generating electrical oscillations in microtubules, a frequency similar to that observed during brain activity. This discovery could lead to therapies preventing or reversing memory loss and improving neuroplasticity.
A new multifocal metalens design enables super-resolution imaging of brain organoids, achieving twice the resolution of conventional WF microscopy. The system also suppresses background noise and resolves fine neuronal fibers.
Wonhwa Cho will be honored for his mechanistic elucidation of lipid-protein interactions foundational to lipid-targeted drug discovery. His work has revolutionized lipid research and laid the foundation for new translational research.
Charles L. Brooks III is being honored for his groundbreaking research on protein folding, free energy methods, and its applications in biophysics. The award recognizes his contributions to advancing the field of computational biophysics.
The Biophysical Society honors Ashley R. Carter with the 2026 PUI Faculty Award for her outstanding contributions to biophysics research and mentorship of undergraduate students. Carter will be recognized at the Society's 70th Annual Meeting in San Francisco, California.
Yifan Cheng will be honored at the Biophysical Society's 70th Annual Meeting for his work on TRP channels and its impact on biophysics research. The award recognizes his outstanding achievements in membrane protein studies and promotes excellence in this field.
Ken A. Dill will receive the Biophysical Society's 2026 Founders Award for his work on protein folding and statistical mechanical theories. The award recognizes his contributions to the field of biophysics, including his development of energy landscapes that remain a staple in presentations of protein dynamics.
Erdinc Sezgin receives 2026 Early Independent Career Award for combining chemistry, physics, biology, and computer science to study cellular organization in health and disease. The award recognizes his noteworthy contributions in biophysics research and service during independence.
Yiechang Lin and Kai Sheng will be recognized for their pioneering work in lipid-protein interactions and bacterial ribosome assembly, advancing our understanding of biophysics. They have excelled in their respective studies, publishing prolifically at an early stage of their careers.
Cornelis (Cees) Dekker will be honored for his groundbreaking contributions to nanobiology and single-molecule biophysics. The Kazuhiko Kinosita Award recognizes outstanding researchers advancing the field of single-molecule biophysics.
Sarah Veatch of the University of Michigan will be honored for foundational research on miscibility phase transitions in membranes and its application to cellular processes. Her work elucidates lipid membrane structure and relates key features to cellular function, making her a leader in this field.
The Biophysical Society has named 2026 Society Fellows, including Kenneth J. Breslauer, Susan K. Buchanan, Deborah Leckband, Alexander D. MacKerell, Jr., and Huan-Xiang Zhou, for their groundbreaking research in biophysics.
Nuria Assa-Munt receives award for tireless efforts in setting high standards for NIH reviews and advancing biophysics research. She is recognized for her leadership in training the next generation of scientists.
Hawa Racine Thiam will be recognized for her groundbreaking work on biophysical immunology and subcellular biophysics. She is being honored with the 2026 Margaret Oakley Dayhoff Award for her trailblazing research, which has the potential to usher biophysical immunology into the future.
Researchers developed a technique that uses infrared light and machine learning to determine the sex of blow fly larvae, improving time-of-death estimates. The method achieved over 90% accuracy and has potential applications in forensic entomology, agriculture, and biosecurity.
Melanie Cocco has been appointed as the new Editor-in-Chief of Biophysical Reports, succeeding Jorg Enderlein. She aims to maintain high-impact research and foster scientific integrity while highlighting diversity in biological systems.
Researchers at the University of Navarra have developed FLIP-HEDOS, a model that simulates how much radiation blood absorbs during cancer treatment. The study highlights the importance of protecting blood from radiation, which can impair immune function and lead to hematologic toxicity.
BU researchers Hui Feng and Venetia Zachariou have received a $2.1 million NIH grant to fund a five-year training program in biomolecular pharmacology. The program aims to prepare the next generation of independent investigators through individualized and multidisciplinary research training.
The "HippoBox" project aims to investigate neuroplastic changes in the hippocampus using brain organoids in real weightlessness. The research could provide new insights into cognitive health of space travelers and potential treatments for depression and dementia.
A cryo-CLEM approach revealed a distinctive pattern of electron densities in the synaptic clefts, while capturing high-resolution images of presynaptic vesicles. This technique provides new insights into neuronal synaptic architecture, enabling further studies on neural function and behavior.
Researchers James Berger and Gregory Dale Kirk, from Johns Hopkins Medicine, have been elected 2024 AAAS Fellows. They are recognized for their distinguished efforts to advance science in biophysics and infectious diseases epidemiology.
Myotonic Dystrophy Type 1 affects multiple organs, including the heart, and is caused by a mutation in the DMPK gene that leads to disrupted RNA processing. Researchers at Baylor College of Medicine tested MBNL overexpression in a mouse model, achieving partial rescue of cardiac phenotypes.
Researchers developed a prognostic model for acute myeloid leukemia based on ferroptosis-related lncRNAs and immune infiltration analysis. The study found that this model holds promise for improving diagnosis, prognosis, and treatment strategies for AML patients.
A rapid and reproducible method for generating germ-free Drosophila melanogaster has been developed, enhancing efficiency and improving reproducibility. The standardized protocol achieves a 100% success rate, streamlining the process for researchers.
Scientists have developed new methods for observing membrane proteins in real-time, allowing them to better understand their structure and function. These advancements hold promise for the development of new treatments for diseases.
Marcel P. Goldschen-Ohm wins the 2024 Paper of the Year-Early Career Investigator Award for his study on GABA receptor subunit linkers and their role in pore gating and diazepam modulation, challenging conventional views on receptor function.
Researchers at Leipzig University developed a new standardised numberinng system for adhesion G-protein coupled receptors (GPCRs) to improve comparability and analysis. The system is based on AI analysis of over 14,000 modelled structures and facilitates deeper insights into disease-relevant mutations in GAIN domains.
Intracellular magnesium plays a crucial role in regulating the rectification of heterotypic Cx46/Cx50 gap junction channels, which is essential for maintaining eye lens function. This research advances understanding of complex mechanisms and opens new avenues for potential treatments of eye diseases.
A new model for sarcoplasmic reticulum Ca2+ handling in rat cardiomyocytes provides insights into calcium signaling mechanisms. The study's findings have the potential to advance our understanding of heart diseases and highlight future research directions.
Researchers developed TurCaMP, a bright cyan fluorescent protein sensitive to Ca2+ transients and insensitive to pH fluctuations. This tool enables high signal-to-noise ratio imaging of mitochondrial calcium signaling in various cellular compartments.
Biophysics Reports published a landmark study celebrating 30 years of Ca2+ spark research, revealing new insights into calcium signaling mechanisms. The review explores the digital principle of cell signaling, paving the way for further exploration in understanding and treating diseases.
This research enhances understanding of βAR signaling and its implications for heart health, highlighting the protective effects of β2AR. Targeting βAR pathways may develop novel therapies for heart diseases by leveraging compartmentalization.
Researchers identified the critical role of TIMM50 protein in mitochondrial energy production and its link to a severe and rare neurological disease. The study's findings suggest potential targets for future drug treatments and advance research on protein import into mitochondria in brain cells.
The Paul G. Allen Family Foundation has awarded $9 million to support six research projects focused on organelle communication and cellular membrane form, function, and behavior. These projects aim to advance our understanding of fundamental cellular functions and their interactions.
The 62nd Hands-On Workshop on Computational Biophysics at Auburn University features the new VMD 2.0, providing a unique platform for researchers to master latest computational biophysics techniques. Participants will learn hands-on with GPU-resident NAMD 3 and state-of-the-art software.
A new study provides deeper understanding of Myotonic Dystrophy Type 1 (DM1) by revealing an unexpected link between the cardiac condition and SCN5A protein. The research found that reducing fetal SCN5A expression did not correct heart defects, suggesting alternative approaches may be needed to address the condition.
Researchers are creating microphysiological systems to simulate infection and treatment in vitro, linking human lung and brain tissue models. This project aims to explore the relationship between respiratory diseases and neurological symptoms, potentially leading to new treatments.
Researchers at Auburn University have developed a novel approach integrating artificial intelligence with molecular dynamics simulations and network analysis to enhance the prediction of binding sites on the PD-L1 protein. Their findings could improve immunotherapies like pembrolizumab, revolutionizing cancer treatment.
Researchers engineered miniature linear and split-belt treadmills to study insect locomotion, gaining insights into proprioception's role in natural activities like walking. The study showed that flies can modify their steps to continue walking straight despite rotational perturbations.
A mathematical model shows that quicker decisions are influenced by initial bias, while slower decisions are less biased. The model predicts that with more information, decision makers are more likely to behave rationally.
Researchers developed TurCaMP, a bright cyan fluorescent protein that accurately monitors mitochondrial calcium dynamics. Its unique properties enable stable basal fluorescence in the physiological pH range, facilitating accurate and multiplexed calcium dynamics monitoring.
Scientists at the University of Nottingham have created a powerful method to analyze RNA structures in unprecedented detail. By combining cryogenic OrbiSIMS with advanced computational modelling and automation, they can now determine RNA structures in a matter of days, significantly advancing the field of RNA structural biology.
Lysosomes are critical for cellular degradation through endocytosis, phagocytosis, and autophagy, recycling essential components. Research has developed tools to study lysosomes in cultured cells, C. elegans, and mice, with novel assays needed to understand diverse physiological and pathological conditions.
Scientists at Karolinska Institutet and Stockholm University have mapped the cellular architecture of MS lesions using advanced methodology. This reveals how immune cells and glial cells interact in the disease.
Scientists have developed an artificial microbial community consisting of two engineered yeast strains to produce more ethanol per unit of plant sugars. The team discovered that adding the xylose-fermenting yeast specialist to the mixture first, followed by the glucose specialist, dramatically boosted ethanol production.
Researchers studied how epithelial cells sense small changes in their environment using ion channels. They found that even small movements can trigger rapid intracellular calcium changes via mechanosensitive cation channels, which play a key role in touch sensation and other physiological functions.
Scientists at Florida State University produced the first high-resolution images showing magnesium ions playing a crucial role in CRISPR-Cas9's DNA-cutting process. The discovery sheds light on how magnesium coordinates double-stranded breaks, providing new insights into the enzyme's functioning.
A new model describes microswimmer self-propulsion energy requirements, enabling optimized shape designs and applications in microfluidics, biophysics, and material science. The study reveals surprising similarities between artificial and natural shapes.
A new study by Boston University researchers found that Serum Amyloid A (SAA) acts as a universal protein detergent to clear cell membrane debris from wounds and inflammation sites. However, high levels of SAA can also promote fibrous deposits in vital organs like the kidney and liver, leading to life-threatening disease AA amyloidosis.
The next generation of supercomputers is revolutionizing biophysics research, allowing researchers to simulate complex biological processes with extraordinary detail. This enables the creation of new proteins and design of novel molecular circuits, challenging longstanding biological assumptions.
The workshop, under Prof. Rafael Bernardi and Prof. Emad Tajkhorshid's guidance, showcased expertise from NAMD and VMD developers, providing in-depth dives into molecular dynamics simulations and biomolecular visualization.
A new study found that high-stress caregivers had higher klotho levels and longer telomeres in specific immune cells, which may provide protection against aging. In contrast, low-stress caregivers showed no significant associations between klotho levels and telomere length.
A study by Prof. WANG Lei and WANG Chih-chen’s group at the Institute of Biophysics (IBP) of the Chinese Academy of Sciences (CAS) establishes the relationship between oxidative protein folding and stem cell aging for the first time.