Researchers have developed a computational framework to design and fabricate crisscross DNA megastructures, expanding accessibility to DNA nanotechnology. This breakthrough enables the construction of complex structures with precise control, opening up new avenues for applications in fields like optics, immunology, and tissue engineering.
A protein that sticks cells together has been found to also help engulf dead cells, a discovery that could lead to new clues for understanding chronic inflammatory conditions. The study found that the 'tissue glue' helps cells adapt to swallow dead cells, which are a major cause of inflammation.
A study from Texas A&M University researchers reveals that too much RNA can starve cells of energy, damaging mitochondria and impairing cellular function. This discovery has implications for understanding viral infections, aging-related diseases, and RNA-based therapeutics.
Researchers have created microscopic oil droplets in water that can change shape in complex ways and engulf their surroundings. The droplets' behavior mimics morphogenesis, a process by which cells reshape themselves, without relying on genes or cellular machinery.
Researchers developed a new way to uncover differences in how viruses infect and destroy individual microbial cells. The study used a mathematical modeling framework to analyze infection outcomes in individual cells, revealing striking accuracy and new insights into viral behavior.
A recent study found that CD38, a protein associated with inflammation and aging, plays a key role in rapidly advancing periodontitis and peri-implantitis. This discovery could lead to new treatment approaches and provide insights into other inflammatory conditions, including cancer.
Researchers identified karyoptosis as a key link between toxic protein accumulation and neuron death in neurodegenerative diseases like Alzheimer's and frontotemporal dementia. The study found that targeting proteins acting as 'switches' in this pathway may slow or prevent cell death by karyoptosis.
New research reveals that cells slow down heat dissipation due to unique biomolecules, changing our understanding of heat conduction. This phenomenon could affect treatments for conditions linked to body temperature changes.
A team of researchers at Kyoto University has discovered that the protein ZO-1 plays a crucial role in collective cell migration by riding ERK activation waves to podosomes on the basal cell surface. This movement enhances force generation, extracellular matrix degradation, and invasive cell migration.
Researchers developed a two-step treatment using growth factors FGF2 and BMP2 to redirect fibroblast cells towards regeneration. The study suggests that regeneration may not be lost in humans but rather obscured by the healing process.
A recent study reveals that MLKL activation causes direct damage to mitochondria, impairing energy production and leading to functional decline in hematopoietic stem cells. In contrast, deletion or inhibition of MLKL significantly alleviates these defects, suggesting a post-transcriptional mechanism driving HSC aging.
Researchers at Pohang University of Science & Technology discovered a way to prime skin cells for regeneration before injury, enabling rapid and effective healing. This approach, called mosaic partial reprogramming, reshapes surrounding cells and tissue microenvironment to accelerate wound healing.
A research team has discovered how mechanosensitive ion channels trigger the selective breakdown of damaged ER fragments via calcium signaling. This process involves the coordinated action of ER-phagy receptor FAM134B and lipidated LC3, and has implications for understanding diseases associated with ER dysfunction.
Researchers discovered that PFK, a key sugar-processing enzyme, has a hidden function controlling cell division by unwinding RNA and promoting gene translation. The enzyme's ability to bind and unwind RNA was found to be crucial for cell cycle progression, with cells lacking PFK2 showing slowed growth and division issues.
Researchers developed AI-powered in silico labeling to analyze cell images without staining, preserving cell health. The system leverages context, such as cell shape and position, to accurately stain rare processes like cell division.
Researchers found that bacteria, such as Salmonella and E. coli, use a 'run-and-tumble' movement pattern to move through different environments, despite the complexity of their surroundings. This behavior is similar to walking through mud, where the underlying movement pattern remains the same, but with changes in speed and efficiency.
Researchers at Northwestern University discovered a hidden molecular control switch inside the protein TRPM5, which regulates taste, blood sugar control and gut health. The switch can be activated or inhibited by small molecules, unlocking new opportunities for therapeutic development.
Estrogen activates previously unknown pathways in the colon, triggering pain and increasing sensitivity to certain foods. This explains why women are more likely to suffer from IBS and provides potential new ways to treat the condition.
Researchers at the University of Houston have discovered a potential therapeutic strategy for counteracting muscle wasting in pancreatic cancer by blocking a specific cell pathway. Muscle wasting, also known as cachexia, is a debilitating syndrome affecting 60-85% of patients with pancreatic cancer.
A new tool called LEVA allows researchers to precisely arrange and track tiny biological packages called surface-bound extracellular vesicles and particles (EVPs). By studying EVPs' messages, scientists can gain insights into various biological processes, including wound healing, infection, regeneration, and cancer spread.
Researchers developed Nicheformer, an AI model that learns from both dissociated and spatial data to reconstruct cell identity and tissue organization. The model shows measurable traces in gene expression even when cells are dissociated, offering new insights into how AI learns from biology.
Scientists have identified a previously unknown genetic disease, MINA syndrome, which damages motor neurons and affects movement and muscle control. The disease is caused by a rare genetic mutation in the NAMPT protein, leading to symptoms such as muscle weakness, loss of coordination, and foot deformities.
Scientists discovered that the APOE4 gene blocks brain cells from using alternative energy sources as we age, significantly increasing Alzheimer's risk. This knowledge could pave the way for new treatments by targeting lipid metabolism.
Adhesion G protein-coupled receptors (aGPCRs) use a self-cleavage process to monitor their function. This process relies on multiple domain-extrinsic factors, ensuring efficient receptor activation and preventing faulty proteins from reaching the cell surface. The discovery provides new insights into how cells maintain quality control.
A new study found that adipose-derived extracellular vesicles, tiny cell messengers in obese individuals, accelerate the buildup of amyloid-β plaques in the brain, a hallmark of Alzheimer's disease. Researchers hope targeting these tiny cell messengers could reduce the risk of Alzheimer's disease in people with obesity.
A study published in PLOS Computational Biology reveals that different cell types and variation within these cells play a crucial role in muscle remodeling during Drosophila development. The findings show that sarcolytes, hemocytes, and fat body cells work together to break down larval muscles and scatter the fragments.
Migrating cells maintain a mechanical memory that allows them to retain their shape when passing through constrictions, enabling faster movement in complex environments. This study sheds light on the biophysical mechanisms underlying cell migration and its implications for processes like wound healing and immune defense.
A new study demonstrates the potential to produce cellular spheroids from clinically relevant embryonic stem cells to generate scaffold-free chondrogenic or osteochondrogenic graft tissues. The researchers successfully cultured ES-MSC cellular spheroids, which matured into neocartilage tissues expressing cartilage-associated genes.
A study from The University of Tokyo predicts HSC quality based on real-time cellular behavior using advanced imaging technology and machine learning. The researchers discovered previously hidden diversity within HSC populations and found that kinetic features could predict the expression levels of a key gene related to 'stemness'.
Dendritic cells assemble central actin structure to push obstacles away, generating space for migration. Mutations in Dock8 gene lead to severe immune disorder symptoms.
Chemotherapy-induced pyroptosis in bladder cancer can actually make the disease more resistant to treatment by fueling cancer stem cells. Blocking this inflammatory process with belnacasan may overcome chemoresistance in preclinical models.
An international team has uncovered a new mechanism by which mitochondria and peroxisomes work together to defend against oxidative stress, maintaining cellular health. This discovery challenges the long-standing idea that cellular defense is confined within individual compartments.
Researchers found that intercellular flow plays a major role in tissue response to deformation, affecting organs' adaptability to conditions like aging and cancer. The study's findings could inform the design of artificial tissues and organs.
Researchers have discovered a novel cell-clearance pathway linked to diseases such as Chediak-Higashi Syndrome, which affects immune system function. The study used CRISPR/Cas9 gene-editing technology and live imaging to characterize this pathway and identify key genes involved.
Researchers from Queen Mary University of London and the University of Dundee have discovered how microtubules decide whether to grow or shorten, a fundamental mechanism governing cellular processes. This breakthrough sheds new light on cell division and opens potential avenues for cancer treatment.
Researchers at the University of Maryland Baltimore County have made an important discovery about how cells move through tissues, combining mathematical modeling with advanced imaging to show that physical shape and chemical signals interact. The study's findings could inform new strategies for controlling cell movement via medical tre...
CellScapes aims to uncover rules and principles of how cells cooperate to build tissues and organs, using cutting-edge imaging and computer models. The initiative will provide new tools and data for researchers worldwide to advance regenerative medicine, cancer research, and personalized therapies.
Researchers have shown that good gut bacteria can manipulate the immune system's response, leading to rheumatoid arthritis. The study found that T cells in the gut can transform into super-powerful and potent cells that attack the body's tissues.
Scientists at the University of Copenhagen have created 'super stem cells' that outperform regular stem cells by developing into multiple cell types. These 'super stem cells' show promise in improving fertility treatment, particularly IVF success rates, by producing essential tissue for early embryonic development.
Researchers are developing microscopic robots that can carry and deliver drugs inside the human body and detect microplastics. These tiny particles will be used in confined environments, such as delivering medication into the bloodstream and breaking down harmful chemicals.
SourcePenn State·JournalThe Journal of Chemical Physics·TypeComputational simulation/modeling·DateApr 22, 2025
A novel AI-based method called scNET combines gene expression data with networks of possible gene interactions to identify biological patterns in response to drug treatments. The system reveals complex mechanisms underlying cellular behavior, providing insights for new therapeutic approaches.
A team of chemists from Virginia Tech found a way to visualize the intricate structure and chemical reactions of battery interfaces using an X-ray beam line. This breakthrough enables researchers to gain better control over these critical surfaces, potentially leading to cheaper, higher performance batteries.
Researchers explore fluid dynamics of stentors' cooperative feeding behavior, discovering that grouping together generates more powerful flows to sweep in food from a greater distance. This finding could provide insight into how single-cell organisms evolved into complex organisms like humans.
Researchers have identified new gateways for drugs to modulate proteins regulating cellular activity. These discoveries may facilitate the creation of new medications or improve existing ones, leading to more targeted therapies and reduced side effects.
Scientists found that piRNA rapidly catches up with changes in jumping genes, improving efficiency through a competition between sites. This unique property of piRNA has implications for medical research and potential diagnostic or therapeutic strategies against unwanted genetic mutations.
Researchers found that collective cell movement exhibits robust invariance across diverse systems, including cancer cells and bacteria. This discovery could lead to improved understanding of oncological diseases and tissue engineering, as well as applications in robot navigation and artificial intelligence.
The study discovered a giant deformation potential of 123 eV, leading to exceptionally long polarization response times and enhanced spin lifetimes. Small polaron formation was confirmed through various techniques, including optical Kerr spectroscopy, X-ray diffraction, and phonon dynamics.
Biomolecular condensates constantly shift their phase, affecting movement and chemical activities within the cell. Researchers have discovered that aging-associated interactions can lead to dysfunction and disease, and manipulating surface signals may help promote healthy biological reactions.
The researchers created a chemotaxic biomimetic liquid metallic entity that exhibits various behaviors like engulfing foreign substances and changing shape, similar to living cells. These liquid metal structures can autonomously climb slopes and move through complicated surfaces with versatility and potential for future applications.
Researchers discovered that cells caught up in sepsis send out messages to other cells, causing them to die and fueling the spiraling inflammation. By understanding this process, scientists may be able to develop a treatment for inflammatory diseases like sepsis.
Concordia researchers propose a novel method using ultrasound-guided microbubbles to stimulate critical cytokine secretion in T cells, potentially re-activating them and increasing the release of proteins needed to fight cancer. The approach could complement existing treatments and improve outcomes.
Physical signals from mechanical forces play a crucial role in determining the fate of cells being extruded from tissues. The study reveals that the intensity and duration of these forces determine whether dead or live cells are eliminated, with implications for tissue homeostasis and cancer progression.
A new study by Professor Nurit Argov-Argaman at the Hebrew University of Jerusalem found that small milk fat globules promote beneficial bacteria like Bacillus subtilis, while larger ones trigger biofilm formation. The research highlights milk's natural protective mechanisms and potential to support gut health.
Researchers at the University of Massachusetts Amherst designed a novel device that manipulates cell behavior by precisely modulating the pH of the cell's environment in real-time. The device was able to manipulate pH with a resolution of 0.1 pH units, far exceeding previous electrode-based attempts.
Researchers at Stanford University have developed a new synthetic receptor, PAGER, that can accommodate a broader range of inputs and produce a more diverse set of outputs. The tool enables control of neuronal activity, immune responses, and therapeutic treatments in lab experiments.
Researchers found four molecular networks in ciliate and mammalian cells that exhibit hallmarks of habituation, suggesting single cells process and remember information over different time spans. This finding opens up new mysteries about how cells without brains manage complex behaviors.
Researchers at University of Toronto have developed a new microfluidic platform, ReSCUE, that allows for unprecedented control and manipulation of tumor shapes. This enables the formation, release, and transfer of patient-derived tumoroids, providing insights into how tumor shape predicts cancer cell behavior and aggressiveness.
Researchers at Tufts University discovered that TB bacteria maintain a consistent growth rate throughout their life cycle, defying expectations. The study also reveals new growth behaviors of TB bacteria, including the ability to grow from either end after division.
Researchers from Texas A&M University synthesized research findings to improve medical devices and therapy success rates. The review emphasizes the need to understand macrophage cell behavior to develop targeted immunotherapy treatments.
Scientists have found that biomolecular condensates can cross membranes without specialized cutting proteins, a process called wetting, which is essential for plant survival. The study shows that these liquid droplets can exert large capillary forces on membranes, cutting them in two and enabling material exchange between cell parts.