Research on discovering and developing new drugs. Covers structure-revealing tools, eye-disease mechanisms, protein screening, and once-daily oral medicines.
Researchers at Texas A&M University have found a way to intervene early in traumatic brain injuries using a natural, gut-derived chemical that prevents post-traumatic epilepsy from taking root. The treatment reduced brain inflammation, improved memory and mood, protected brain cells, made seizures both rarer and harder to trigger.
OYE Therapeutics announced positive Phase 1 results for OYE-101, a proprietary intravenous caffeine formulation. The study demonstrated the safety and tolerability of OYE-101 in healthy adult volunteers, supporting its planned development as a treatment to support emergence from general anesthesia and deep sedation.
Deep learning models accelerate drug design, predict chemical interactions, and engineer stable candidates. AI-powered simulations optimize dosimetry, predicting biodistribution and generating patient-specific digital twins for individualized treatment planning.
A novel therapy targeting the bone marrow microenvironment is shown to accelerate recovery and promote hematopoietic regeneration after injury. Pharmacological activation of YAP/TAZ improves BM niche recovery, enhancing engraftment and white blood cell recovery following HSCT.
Researchers developed a new method using blue LED lights and commercial chemical building blocks to modify two carbon atoms in a single reaction, increasing the complexity of molecules quickly. This approach could lead to faster production of complex drugs with specific properties.
Macrophages are critical drivers of chronic allograft failure, with emerging strategies targeting key macrophage signaling pathways providing an important conceptual shift. Targeted therapies, such as inhibiting the purinergic pathway and mTOR/NF-κB pathway, show promise in preventing chronic rejection.
A Wisconsin lab advance has developed a way to remove liquid chromatography from peptide mapping, an essential test for determining a candidate drug's stability. This technique accelerates the process by 100-fold, allowing companies to analyze massive data influx instantly and reducing costs.
Researchers discovered a potential drug developed at Michigan Medicine reverses metabolic dysfunction-associated steatohepatitis (MASH) in animal models by disrupting the disease-driving pathway that links the gut and liver. DT-109 improved gut health, reducing inflammation in livers of nonhuman primates.
A new PNAS special feature showcases the critical role of behavioral and decision sciences in U.S. governance, highlighting how psychological and economic research protect public health, consumer rights, and finances across federal agencies. The research demonstrates how 'invisible' scientific frameworks streamline medical drug reviews...
Researchers have identified a promising drug to treat neurodegenerative conditions, including Alzheimer's disease and traumatic brain injury. The study found that inhibition of an enzyme called 15-PGDH was potently neuroprotective by restraining the production of reactive oxygen species that damage the brain.
Researchers at the University of Warwick and Monash University have uncovered a molecular basis for combinatorial biosynthesis, a strategy to create multiple versions of powerful cancer therapies. By understanding how bacterial enzymes interact, they can design new therapies with improved potency and selectivity.
Researchers at Texas A&M University develop a laser technique called TRIP to directly measure quantum forces shaping proteins, enabling accurate prediction of how pharmaceutical drugs interact with them. This breakthrough could lead to the design of medicines tailored to specific diseases, revolutionizing precision medicine.
A POSTECH research team has created an automated, modular system for assembling reconstituted cell-free systems, significantly reducing costs by 95% and preparation time to 2 days. This innovation enables the customization of individual components, paving the way for improved biologically engineered high-value therapeutics.
Researchers found that over-the-counter probiotics contain only 36 unique species of bacteria, with most common species being forms of Lactobacillus. The analysis suggests a lack of consistency in the combination of species used to support gut health and vaginal health claims.
A comprehensive analysis of 173,303 Pakistani genomes reveals the presence of 34,000 people with complete loss of function of at least one gene, known as 'human knockouts'. This study provides valuable information needed to develop new treatments for human diseases and sheds light on why drugs developed in mice often fail in humans.
Universities and hospitals conduct substantial numbers of late-stage clinical trials to repurpose generic drugs at reduced costs. This research has huge potential to provide society with affordable treatments for various conditions.
Researchers at the University of Houston have discovered adding salt can help release therapeutic material from endosomes, improving delivery efficiency for mRNA vaccines and gene therapies. The simple strategy overcomes a major obstacle in gene medicine, potentially making these therapies more efficient and accessible worldwide.
The University of Virginia has joined SPARK GLOBAL to leverage resources and expertise in accelerating the development of new medicines. This collaboration aims to reduce time from lab discoveries to clinic trials, delivering tangible healthcare solutions to patients.
Researchers found that temperature and calcium levels inside cells can dramatically impact how drugs interact with their targets. This discovery could lead to smarter medicine design and more effective treatments.
Researchers discovered a previously unknown binding site in a cancer-related protein that could lead to more precise cancer drugs. The study reveals the power and limitations of AI tools for drug discovery, showing that even small chemical changes can dramatically alter how molecules bind to proteins.
Scientists create a moiré metasurface to map right- and left-handed regions in materials, visualizing chirality as two-dimensional images. The new approach resolves chirality distributions with a resolution of approximately 100 μm.
Researchers developed a miniaturized human intestine model to study EV-A71 infection, revealing the virus's ability to evade the immune system and persist for extended periods. The model showed long-term viral replication without triggering a strong immune response.
Researchers at EPFL have discovered a way to generate and screen large libraries of synthetic cyclic peptides that can both enter cells and block disease-related protein interactions. This breakthrough could broaden access to previously difficult targets for drug development, enabling the creation of orally available peptide drugs.
Two projects, BOOST-HP and BIONIC, use machine learning to analyze large datasets of medication exposure and outcomes. The findings highlight the need for more data and cautious design of machine learning models to accurately assess potential links between medications and pregnant women.
Researchers at UW Medicine Institute for Protein Design and Skape Bio used AI methods to create on-demand molecules that can toggle GPCRs. The approach enables precise control of GPCR signaling in cells, offering new insights into bodily functions and potential medicines for diseases.
Researchers identified a vitamin K-dependent GAS6 pathway that controls osteoclast maturation and bone resorption in mice. Osteoblasts use Vitamin K signals to regulate osteoclast fusion via the GAS6 pathway.
Researchers have developed engineered peptide binders called CRABs that can selectively interfere with calcium signaling pathways, potentially leading to more effective and safer immunotherapies. The study's findings offer new hope for treating disorders linked to excessive CRAC-channel activity.
The ISSCR Consortium supports the FDA's draft guidance on using new approach methodologies (NAMs) in drug development, emphasizing the need for a flexible and science-driven framework. The consortium recommends clarifying biological complexity alignment with context of use and expanding recognition of computational modeling and hybrid ...
Researchers used wastewater surveillance to detect drug-resistant Candida auris strains up to five months before patients showed symptoms, opening a new frontier for hospitals. The study found higher detection rates and concentrations of the pathogen in hospital wastewater compared to community-scale treatment plants.
Researchers developed a new method called sm-PORE-cupine to study individual RNA molecules and reveal how their structures influence gene regulation. The technology provides deeper insight into how RNA structure affects cellular function and could help identify new therapeutic targets for diseases such as viral infections.
Researchers developed ApexGO, an AI-powered method to turn weak antibiotic candidates into more potent ones. The tool uses generative AI and Bayesian optimization to guide molecular tweaks, predicting which changes are likely to increase antimicrobial activity.
A PSU-led research team has developed a novel chemical compound, T111, that shows promise for treating and preventing malaria. The compound targets all three major life-cycle stages of the malaria parasite, making it a strong candidate for a single-encounter radical cure.
Researchers developed genESOM, a generative AI that can expand dataset volume and simulate larger animal numbers while maintaining reliability. This allows for 30-50% reduction in animal experiments without compromising results.
A team of researchers has uncovered a promising new target for antimalarial drug design, identifying an enzyme called aminopeptidase P from the Plasmodium falciparum parasite. The new inhibitors have been shown to bind more strongly and selectively than existing compounds, demonstrating potential as a new class of drugs to combat malaria.
The UK-led OpenBind initiative has released its first publicly available dataset and predictive AI model, accelerating the discovery of new medicines using artificial intelligence. The release showcases high-quality, standardized experimental data and a trained predictive model, enabling researchers worldwide to drive the next generati...
A multi-institutional team led by Sanford Burnham Prebys aims to develop a non-opioid pain therapeutic using lead molecule SBI-810. The effort, funded by a $3.9 million NIH grant, seeks to optimize the compound into a drug that could provide effective pain relief without addiction risks.
Researchers have developed a novel method to generate diazo compounds without toxic precursors, enabling efficient synthesis of valuable intermediates for chemical and pharmaceutical applications. The phosphine-mediated Michael addition reaction produces β-heteroatom-substituted diazo esters under mild conditions.
The FDA has merged two of OYE Therapeutics' Investigational New Drug applications, creating a more streamlined regulatory framework for development across related programs. This move is expected to improve regulatory efficiency, reduce duplicative development activity, and simplify operational execution.
A research consortium has developed mini-antibodies that can reactivate mutated p53, a key tumor suppressor protein. These DARPins bind selectively to p53 mutants, restoring stability and functionality, making them potentially useful against various types of tumors.
Volume 39 of SLAS Discovery highlights novel assays and AI-assisted workflows to accelerate personalized cancer immunotherapy. The journal aims to advance life sciences discovery through education, knowledge exchange, and global community building.
Researchers at the University of East Anglia have discovered that light can be programmed using its natural geometry, allowing for the creation of structured light with unique properties. This breakthrough has far-reaching implications for fields such as medicine, data transmission, and quantum technologies.
Chronic liver disease in the US costs $41.57 billion, with prescription medication expenditures accounting for nearly half of all-cause healthcare expenditures. Poor adherence to antiviral medications is a key factor in preventing disease progression and treatment, with high out-of-pocket costs increasing non-adherence risk.
The new facility enables scientists to observe and measure detonation forces in unprecedented detail, shedding light on industrial safety risks and potential breakthroughs. Researchers aim to develop safer designs and protocols by examining detonation disasters like the Buncefield Fire.
Dr. Dennis Slamon, a renowned breast cancer researcher, has been elected to the Association of American Physicians (AAP) for his pioneering work in HER2 gene discovery and targeted therapies. His research led to significant improvements in survival rates and established the principle of targeted cancer treatment.
A computational protocol has been established by University of Kent researchers to accurately identify reactions that can result in successful drug candidates for Chagas disease. This approach reduces the need for trial-and-error, prioritizing promising compounds earlier and making the drug discovery process faster and more affordable.
The experimental drug DH20931 targets triple-negative breast cancer by triggering a surge in fat-like molecules called ceramides, overwhelming cancer cells with toxic fats. In lab experiments, the drug made standard chemotherapy more effective, reducing the dose needed to kill cancer cells by about fivefold.
Researchers have discovered a way to prevent the collaboration between two important cancer-related proteins, N-MYC and Aurora A. This breakthrough could lead to new medications to combat childhood cancer. The study, published in Nature Communications, provides insights into how these proteins interact with each other.
A new analytical method allows scientists to track exactly where a cancer drug accumulates inside a living cell, enabling more precise treatment design. This breakthrough uses subcellular capillary sampling and laser ablation – Inductively coupled plasma – Mass spectrometry to detect trace amounts of metal in individual cells.
Researchers Dr Íris Luz Batalha and Dr Maria Shchepinova from the University of Bath have been awarded funding to test new ideas in tackling global health challenges. They will develop precision-targeted therapies for antimicrobial resistance and investigate why treatments for Type 2 diabetes don't work for everyone.
Researchers found that squalene-based adjuvants activate distinct pathways for vaccine protection and reactogenicity, including the role of IL-1β in enhancing efficacy and IL-1α in triggering local swelling. The study's findings could lead to safer vaccine design by targeting specific immune mechanisms.
Scientists at the University of Virginia Health System have developed a suite of AI-powered tools, called YuelDesign, YuelPocket and YuelBond, to transform how new drugs are created. These tools can design drug molecules tailored to fit their protein targets exactly, even accounting for protein flexibility.
Researchers have created a 3D experimental system to study the response of low-grade gliomas to drugs, providing a more realistic environment for testing treatments. The system uses organoids from pluripotent stem cells to replicate glioma development and characteristics.
Researchers at the University of Waterloo have discovered a safer and more effective way to treat Alzheimer's disease by combining anti-amyloid antibodies with molecules found in grapes, berries, peanuts, and turmeric. This combination approach neutralizes amyloid protein clumping in the brain, leading to better outcomes.
OYE-101, a novel intravenous caffeine formulation, has been developed to accelerate recovery from general anesthesia and deep sedation. The company's lead program is being evaluated in a scientific bridging study to support a 505(b)(2) NDA for OYE-101.
Researchers have created a detailed molecular map of the thromboxane A2 receptor, which could lead to the development of safer and more effective therapies targeting this clinically important signalling system. The study reveals an unusual activation switch and provides insights into how signalling molecules interact with the receptor.
The San Antonio Breast Cancer Symposium generated nearly $40 million in economic impact and drew over 11,000 attendees from 104 countries. The symposium also produced $1.5 million in local tax revenue and supported more than 6,800 jobs.
A new model of brain wiring could shorten the path to developing medicines for multiple sclerosis and other degenerative brain diseases. The model, made of a water-filled gel, replicates the physical properties of human axons and has been successfully grown from human cells in the laboratory.
A team of researchers has created a 3D model of pediatric brain tumors using biopsy-derived organoids, allowing for more accurate testing of new drugs. The model, which accurately reproduces the human environment, preserves the molecular characteristics of the original tumor and maintains cellular heterogeneity.
Researchers have discovered a new biomarker for immunoglobulin A (IgA) nephropathy, which is an autoimmune disease that can lead to kidney failure. Complement pathway proteins, including CFHR1, were found to be overexpressed in patients with IgA nephropathy, suggesting a potential treatment target and diagnostic marker.
A study reveals dermcidin, a human body natural molecule, exhibits antiviral activity against the influenza virus. Higher baseline levels of dermcidin in individuals who don't develop flu-like symptoms may be associated with lower susceptibility to infection.