Researchers have mapped the structure and mechanics of a critical cellular machine that malfunctions in people with rare genetic disorders. The discovery could lead to new treatments and faster diagnoses for children with conditions like infantile encephalopathy, corpus callosum hypoplasia, and Kenny-Caffey syndrome.
Researchers redesigned a key component of lipid nanoparticles to steer particles toward lymph nodes, reducing off-target delivery. This advancement could make mRNA vaccines more efficient, potentially achieving strong immune protection at lower doses.
For the first time, researchers have directly visualized how newly formed cellular organelles leave the endoplasmic reticulum and transition onto microtubule tracks inside living cells. The study reveals that the ER plays an active role in steering intracellular traffic.
Researchers have discovered the ExHOS nanomachine, which controls constitutive exocytosis by delivering spherical molecular packages to the cell surface. This process is essential for preserving cell fitness and vital functions such as communication and growth.
Scientists at the University of Tsukuba have identified a system to transport excess reactive sulfur species out of cells, maintaining redox homeostasis and preventing oxidative stress. This discovery opens new avenues for research into sulfur stress and related diseases.
Researchers developed a new method to study membrane proteins in their native environment, the cell, using electron spin resonance spectroscopy. This technique allows for precise determination of protein properties and could lead to better understanding and targeting of membrane proteins involved in anti-cancer drug resistance.
The study reveals a specialized transport hub at the base of cilia, where trains assemble and load cargo for transport. This discovery provides new insights into molecular basis for various diseases, including cystic kidneys and blindness.
Researchers have gained insight into the electronic structure of hydrated proton complexes, revealing that three inner water molecules are drastically modified by the proton. The first hydration shell senses the electric field of the proton through Coulomb interactions.
Researchers have developed a new labeling technique to analyze exosomes from specific cell types, providing insights into their role in both health and disease. The technique allows for the identification of protein cargo and RNA in exosomes, enabling the study of cellular communication and potential monitoring of response to treatment.
Researchers at Washington University in St. Louis found that cancer cells metabolize glucose in their mitochondria, following conventional biochemical patterns. The study suggests that limiting glucose uptake may not be an effective strategy to target cancer cells, and glucose metabolism may need to be reevaluated as a therapeutic target.
Scientists have developed a smart contact lens that can capture and detect exosomes, nanometer-sized vesicles found in bodily secretions, which hold promise for cancer diagnostics. The lens was designed to bind to antibodies capturing exosomes found in tears, offering a potential platform for non-invasive cancer screening.
The study found that plants have a transport route for calcium ions into their mitochondria, which is essential for signal transmission. The researchers also discovered a link between calcium ion transport and the regulation of the plant hormone jasmonic acid, which controls defense against herbivores and senescence.
The Gerlich Group at IMBA found that histone acetylation establishes a sharp surface boundary on chromosomes, resisting microtubule perforation. Chromatin phase separation and DNA looping by condensin cooperates to build mitotic chromosomes with unique physical properties.
Researchers developed artificial microtubules to transport microscopic cargo along magnetic stepping stones, overcoming fluid flow obstacles. The technology could facilitate targeted drug delivery and treat blocked vessels or cancerous tumors.
Researchers at Tokyo Institute of Technology have successfully synthesized a synthetic mechanosensitive potassium channel, exhibiting stimuli responsiveness and selective ion transport. The new ion channel could lead to breakthroughs in therapeutic treatments for ion-channel related diseases.
A novel peptide has been developed for targeted transport of molecules, including active substances and dyes, into mammalian cells. The peptide interacts with an acidic partner peptide to facilitate precise delivery.
Researchers have identified a family of proteins called PIN-FORMED as essential for auxin transport, guiding plant growth and development. The discovery provides the first structural basis of auxin transport by PIN proteins and sheds light on how herbicides can be recognized by these proteins.
Scientists identify PiT2-loop7 missense mutations causing inorganic phosphate dyshomeostasis, leading to primary familial brain calcification. The study reveals how these mutations affect PiT2 phosphorylation and membrane localization, reducing Pi transport activity.
Researchers used fluorescence microscopy to study clathrin-mediated endocytosis in living cells. They found evidence of three models of curvature initiation and discovered that short-lived events favored the constant-curvature model, while longer events preferred the flat-to-curved transition pathway.
A team of researchers from Kumamoto University has developed a transformable polyrotaxane carrier that can facilitate genome editing using Cas9RNP with high efficiency. The carrier, called amino-PRX, is multi-step transformable and has low cytotoxicity, making it an enormously promising candidate for safe and efficient delivery.
Research reveals extracellular vesicles facilitate coordinated responses among pathogenic fungal cells, enabling them to overcome host defenses. The discovery could lead to the development of more effective therapies to combat fungal infections.
Researchers at Arizona State University have developed a hybrid device that combines living organisms with bio batteries to produce stored energy under light conditions. The technology, known as microbial electro photosynthesis, has the potential to power a wide range of products, including transportation fuels and cosmetics.
Researchers at the University of Eastern Finland used molecular modeling to investigate nano-plastic transport into cell membranes. The study found that some microplastics can passively penetrate the membrane, potentially causing adverse health effects.
A study led by Przemyslaw Nogly at PSI has detailed insight into the mechanism of a light-driven chloride pump in bacteria, revealing how light energy converts to kinetic energy and transports chloride ions inside cells. The pump uses two molecular gates to ensure one-way transport, with the process taking around 100 milliseconds.
Researchers at Simon Fraser University discovered that the number of molecular machines affects system performance, highlighting a key design principle for optimizing collective behavior.
Scientists at the University of Missouri discovered that bisphenol A (BPA) exposure during pregnancy can negatively impact fetal brain development. MicroRNAs in the placenta play a key role in regulating cellular functions, including neural development. Researchers believe that microRNA packages could reach the brain through the placen...
The study provides a comprehensive model of the yeast nuclear pore complex, shedding light on its core scaffold and functional adaptations. This discovery may help understand how viruses infect cells and alter their physiology to cause disease.
Researchers have discovered that specific regions of HAT family proteins determine which amino acids they bind to, leading to unique functions in cell growth and diseases like cancer and neurodegenerative disorders. This knowledge will enable efforts to develop compounds targeting these proteins for therapy.
A new viral disease caused by Tomato brown rugose fruit virus (ToBRFV) has emerged, threatening global tomato production. ToBRFV overcomes the durable Tm-2² resistance gene, which had remained unbroken for over half a century.
Researchers at IRB Barcelona have identified γTuRC as a centriole stabilizer, revealing its role in maintaining centriole stability and preventing microcephaly. The study's findings suggest that defects in γTuRC may contribute to various human diseases, including adolescent scoliosis and male infertility.
Researchers discovered that living cell interiors become softer and more fluid during mitosis, a process crucial for life. The findings could help ensure precise separation of cellular structures into daughter cells.
A research team from the University of Zurich has identified a common genetic variant in the AQP1 gene that affects treatment efficacy and patient survival on peritoneal dialysis. Patients carrying this variant have a higher risk of death, but researchers found a way to circumvent the problem using colloid osmotic agents.
Jochen Zimmer, a UVA professor, has been awarded $9 million by the HHMI to pursue his research on biopolymer transport across biological membranes. His work aims to develop new biomaterials for medicines, food, and energy, potentially combating diseases, hunger, and climate change.
Researchers aim to produce enough mRNA vaccines from spinach and lettuce to rival traditional shots. They're exploring chloroplasts as a key to making plant-based mRNA vaccines that can be stored at room temperature.
Researchers have identified a new transport pathway for cellular waste that passes through the cell nucleus's membrane, allowing damaged proteins to be removed from the genome. This discovery has potential implications for treating cancers and neurodegenerative diseases.
Scientists developed a new mouse line to study protein balance and quality control in the mammalian brain. The research revealed that different neurodegenerative diseases have distinct protein misfolding patterns, offering insights into potential therapeutic options.
Scientists at Sanford Burnham Prebys have gained insight into the process of autophagy, where cells degrade and recycle cellular components. The study reveals that a chemical modification helps direct the transport of autophagosomes to cellular recycling plants, potentially leading to new targets for age-related diseases.
Researchers at LMU München found that diffusiophoresis can facilitate directed particle transport in cells, even without motor proteins. The mechanism sorts particles by size and has implications for understanding cellular processes and potential applications in artificial minimal cells.
Researchers at NUST MISIS developed a new structure for perovskite solar cells using MXenes, increasing power conversion efficiency to over 19%. The modified cells show superior performance and improved stabilized power output compared to reference devices.
New theories have enabled researchers to model unusual dynamics where particle motions are no longer influenced by previous events. The 'memory term' principle allows studying this effect in a broader range of situations, particularly for advanced materials that respond to their environment.
Researchers from ICIQ and IRBBarcelona have developed a synthetic carrier that can transport amino acids, such as Proline, across cell membranes. The study shows a 30-fold increase in L-Proline transport activity, opening up new possibilities for treating diseases related to amino acid metabolism.
Researchers at Northwestern University have developed a new cell perturbation system that can deliver DNA, RNA, and proteins into cells with high efficiency and low toxicity. The Nanofountain Probe Electroporation system has the potential to revolutionize medical treatments by enabling quicker and more customized treatment plans.
A research team led by Prof. Dr. Robert Grosse has found that bundled fibers of actin play a crucial role in the expansion of cell nuclei after division. This process is essential for reorganizing genetic information and processing chromatin.
Researchers at Florida State University have discovered a key role for an adaptor protein in forming the outer structure of vesicles, which are essential for transporting molecules within cells. This finding sheds new light on how cells move resources and could potentially lead to breakthroughs in drug delivery and virus entry prevention.
Researchers developed a tiny plastic robot that moves under the influence of light and magnetism, allowing it to attract and capture contaminant particles from the surrounding liquid or pick up and transport cells. The robot operates independently of the water composition, making it suitable for use in contaminated water.
A recent study by KU Leuven researchers has discovered a link between a defective ATP13A2 gene and cell death in Parkinson's disease. The study found that the gene plays a crucial role in transporting polyamines, essential molecules supporting various cellular functions.
Researchers at the University of Basel have developed biocompatible polymer vesicles that can enter the cell nucleus, allowing for targeted drug delivery. The nanocontainers can be designed to transport therapeutic agents directly to the cell's control center.
Researchers at the University of Basel have discovered a cellular machine called FERARI that sorts out reusable proteins for recycling, introducing a new 'kiss-and-run' mechanism. This process saves energy and time by reusing valuable cell components, potentially mitigating diseases associated with disrupted recycling processes.
A study found that silencing the KPNA4 gene reduces cell proliferation, migration ability and resistance to radiation in HNSCCs. Targeting disease-specifically altered transport systems may serve as promising therapeutic strategies for cancer treatment.
A team of researchers at LMU in Munich has found that messenger RNAs are transported between the cell body and nerve processes like sushi on an endless conveyor belt, allowing them to reach specific synapses. The discovery sheds light on how proteins are delivered to synapses, a crucial process for learning and memory.
Researchers developed a novel computational approach to assign functions to unknown genes, revealing transporters play a critical role. The study highlights the importance of environmental conditions shaping minimal genomes and paves the way for focused research on essential and facilitator gene sets.
Researchers at the University of Bern have determined the structure of monocarboxylate transporter 4 (MCT4), a key protein in cancer cell metabolism. The study provides insights into the molecular mechanism of MCT4 and identifies promising binding sites for inhibitors, paving the way for new cancer treatments.
A new microfluidic organ chip model of the human blood-brain barrier has been developed, allowing for in vivo-like transport of drugs and therapeutic antibodies. The model recapitulates the physical barrier functions and transport abilities of the human BBB, offering a significant advance in drug development.
Scientists at Scripps Research have discovered how neurons manage mitochondrial transport, a process crucial for nerve cell function and energy production. The study found that cAMP signaling enhances mitochondrial transport after synapse formation, requiring significant energy to maintain communication between cells.
Researchers at WashU Medicine have identified a protein responsible for transporting nicotinamide mononucleotide (NMN) into cells, where it can be used to produce energy. This finding has implications for understanding the process of aging and developing therapies to boost cellular energy levels.
A team of scientists has identified a previously unknown protein structure that enables the controlled intake of potassium ions into cells. The discovery, published in Nature Communications, reveals a complex mechanism involving two inter-subunit half-channels and challenges existing theories on potassium transport.
E. coli's KdpFABC transport system uses a unique combination of pore and transporter to import potassium ions into the cell, blurring the boundaries between passive transport and active transport complexes. This discovery challenges the long-held dogma that these two systems are mutually exclusive.
Scientists at IOCB Prague have discovered a previously unknown passive mechanism by which positively charged short peptides can penetrate cells. This process is based on membrane fusion induced by the transported peptides and shares the same mechanistic basis as known processes in neurons during nerve impulses.
A new scalable means of applying an electron transport layer in perovskite cells has been developed, resulting in a 30 percent efficiency gain. This breakthrough could make perovskite solar cells more commercially viable and pave the way for record-breaking p-i-n perovskite solar cells.
Scientists have developed a method to track protein movement using nanosensors, allowing for the observation of protein distribution and transport within cells. The technique uses genetically altered nanobodies that can fluoresce, enabling researchers to follow protein pathways in living cells.