The University of Oklahoma has received a $398,020 grant from the National Science Foundation to improve instruction in introductory biology courses. The AIBS will provide programmatic staffing and expertise in building an online communication network for the project.
Researchers can now run complex molecular dynamics simulations on desktop computers at much faster speeds than before, with a speedup of up to 100 times. The new open-source software, OpenMM, leverages GPU acceleration to accelerate applications beyond graphics processing.
Using metagenomics, Yale scientists linked environmental factors to molecular changes in marine micro-organisms, revealing adaptations to temperature and salinity.
The Synthetic Biology Project aims to minimize risks and maximize benefits through rigorous analysis and public engagement. The project explores governance options, examines public perceptions, and identifies knowledge gaps in synthetic biology.
The partnership will facilitate collaborative research in areas such as structural biology, systems genetics, and radiation biology. GUMC researchers are utilizing ORNL's supercomputing capabilities to analyze complex molecular data and develop new diagnostic tools for cancer diagnosis.
Researchers at the University of California, San Diego, discovered a protein compass that helps amoebas find bacteria by scent. This molecular switch is also shared with human immune cells to locate infection sites.
LMU Munich has awarded two Alexander von Humboldt professorships to international scientists Ulrike Gaul and Georgi Dvali, both experts in systems biology and cosmological particle research. The awards bring significant funding and attract top talent to the institution.
EMBO has honored 59 leading life scientists from Europe and around the world with membership, including eight Associate Members. This recognition highlights the significant contributions of these researchers to the field of molecular life sciences.
Dr. Randy Moore, a professor at the University of Minnesota, is receiving the 2008 Evolution Education Award for his innovative classroom teaching and community education efforts to promote evolutionary biology. His approach incorporates evolution as a unifying element of modern biology, helping students understand and appreciate nature.
The new NIAID-funded programs aim to identify molecular features that distinguish bacterial and viral species, which may be targets for potential medical interventions. Researchers will use computational and experimental methods to analyze the dynamics of molecular components within microbes and their interactions with human cells.
Molecular diagnostic products are based on cutting-edge research in genomics and proteomics, enabling early detection of cancer and optimizing drug therapy. Companies like Roche, Myriad Genetics, and Genomic Health are well-positioned for future growth with their genetic tests and companion diagnostics.
The Chicago Center for Systems Biology will focus on transcriptional networks, studying how multiple genes work together to regulate life's basic processes. Researchers will use complex biological models to understand gene regulation in response to environmental and genetic variation.
A UC San Diego scientist presents the first unified vision of 'the building blocks of life', revealing that only 68 molecules construct four fundamental cell components: nucleic acids, proteins, glycans, and lipids. This framework may hold the key to unlocking the origins of many serious diseases.
The Broad Institute will develop molecular tools to probe human biology and disease using small molecules. The six-year NIH grant supports high-throughput screening of molecular libraries to identify compounds with interesting biological functions.
Recent advancements in cardiac imaging have led to the detection of impairments in cellular processes that precede changes in morphology and function. These early stages can be identified through various imaging techniques such as PET, nuclear imaging, MRI, ultrasound, and optical imaging.
Rutgers University has received a $3.2 million grant from the NSF to equip experts in fields such as cell and molecular biology, computational modeling and biomaterials to move stem-cell breakthroughs from the biology lab into practical therapies. The program will also support training for underrepresented minorities and enhance divers...
Researchers at Caltech and the University of Washington aim to design complex molecular systems using computer science principles, enabling systematic design and implementation in the laboratory. The project may lead to revolutionary changes in fields such as nanotechnology and biochemical circuitry.
The University of Georgia has been awarded a $9.2 million grant to explore the molecular underpinnings of human embryonic stem cell differentiation, aiming to identify genetic and protein modification patterns that accompany this process.
The Society of Nuclear Medicine and Molecular Imaging (SNM) has awarded $170,000 in research grants to support nuclear medicine and molecular imaging research. This funding supports independent research projects, including the work of talented young scientists who will further advance diagnostic tools and treatments.
The American Society for Biochemistry and Molecular Biology (ASBMB) has selected eight scientists for its annual awards competition, recognizing their contributions to science. The award winners include David Davies, John Kuriyan, Sarah Spiegel, Susan Lindquist, Douglas Rees, Phillip Zamore, Sandra Schmid, and Rochelle Schwartz-Bloom.
Japanese researchers successfully observed individual molecular rotors caught in motion using a novel microscopy technique. The study focused on rotaxanes, two-part molecular systems that rotate around an axis, revealing rapid rotational and vibrational motion when wet.
Researchers at DKFZ have developed a new simulation method to predict the molecular targets that control cell behavior. This breakthrough may lead to new treatments against cancer metastasis by targeting specific genetic changes.
The Society of Nuclear Medicine and Molecular Imaging (SNM) has awarded significant grants to support molecular imaging research, providing opportunities for young scientists to pursue cutting-edge research in emerging fields. The awards aim to advance patient care by investing in promising researchers working on vital medical practices.
Briscoe's work revealed a novel mechanism that allows cells to integrate time of exposure and concentration of Shh to mount a graded response, leading to a paradigm shift in understanding cell identity specification. His research has far-reaching implications for the control of cell identity in various contexts.
Researchers developed a computational tool to compare drug side effects and predict common targets, revealing hidden therapeutic potential. The approach successfully identified new uses for marketed drugs in treating diseases they were not specifically developed for.
Eco1 and its human homologue maintain sister chromatid cohesion by affecting Smc3, a key component of the cohesion protein complex. This process is critical for genome stability and cell survival.
Two images, one showing neuroendocrine cancer relapse and the other a foot infection, demonstrate molecular imaging's ability to provide precise snapshots of disease anatomy. Imaging techniques are increasingly being used in combination to improve treatment planning and patient outcomes.
The UK is launching a Synthetic Biology Initiative with £900,000 funding to establish a world-leading research community. The project aims to bring together biologists, engineers, and computer scientists to tackle future challenges such as sustainable power generation and medical applications.
Researchers discovered that snakes have undergone massive functional redesign of core metabolic proteins, enabling their remarkable physiological adaptations. This study provides insight into vertebrate physiology and opens up new directions for research on molecular evolution and adaptation.
Researchers have developed tests that diagnose, predict or monitor cancer risks without invasive tissue sampling. Oral epithelium can be used as a surrogate tissue to assess molecular damage to the lungs, allowing for convenient biomonitoring methods.
Scientists at Argonne National Laboratory have developed techniques to create accurate movies of molecular movements, allowing for the direct observation of complex molecule motions in solution. This breakthrough enables researchers to test the accuracy of computer simulations and gain insights into molecular structure and behavior.
Scott A. Strobel has made seminal contributions to the understanding of RNA structure and function, revealing its catalytic role through various disciplines. He will give the award lecture at the American Society of Biochemistry and Molecular Biology annual meeting.
A team of researchers has identified a molecular switch controlling multidrug resistance in fungi, which could lead to novel therapies for resistant fungal infections. The discovery was made using genetic, biochemical, and molecular approaches, and found to be similar to the regulatory switches controlling drug detoxification in humans.
Researchers have developed new mathematical models to infer ancestral origins from genomic data, significantly improving accuracy. Additionally, a novel technique for mapping disease genes using admixture linkage disequilibrium has been created, offering a powerful approach for identifying genetic determinants of common diseases.
Researchers at NIST demonstrate assembly of a single layer of organic molecules on a silicon crystal substrate compatible with CMOS manufacturing technology. The team builds a working molecular electronic device and verifies its functionality, paving the way for hybrid CMOS-molecular devices.
Researchers have identified the molecular mechanics behind Severe Congenital Neutropenia (SCN), a deadly disease characterized by a deficiency of neutrophils. The discovery of GFI1's role in regulating neutrophil development has provided new avenues for understanding the molecular basis of SCN.
Computer simulations revealed that a defective gene causes cystic fibrosis by misfolding the CFTR protein. The study identifies critical amino acid pairs essential for proper protein folding, providing guidance for designing small molecule drugs.
A new study using molecular genetic data confirms that modern birds originated more than 100 million years ago, contradicting earlier fossil-based estimates of around 60 million years ago. The analysis suggests that both the fossil record and molecular clock methods have limitations in dating biological events.
Naama Barkai receives the award for her work on chemotaxis, embryonic development, and cellular transcription programmes. Her research has revolutionised the field of systems biology and significantly changed how scientists think about complex biological processes.
Researchers have designed novel peptide sequences that can detect oxidation and reduction inside cells, providing a new tool for understanding molecular mechanisms underlying complex biomedical problems. The biosensors use Förster resonance energy transfer (FRET) to measure redox potentials and oxidative stress in live cells.
Researchers have identified a new clock gene, CRY2, that provides insight into the biology of monarch butterfly migration and evolution of circadian clocks. The discovery reveals a dual function of CRY2 as a core clock component and an output molecule linking the clock to the sun compass.
Researchers have found a naturally occurring protein called CnAß1 that permanently activates calcineurin, increasing muscle stem cell proliferation and regeneration. This uncouples the protein's activity from injury signals, making it a promising candidate for treating muscle damage and wasting.
Researchers at Yale University discovered how molecular muscles assemble a 'contractile ring' to divide cells, using a 'search, capture, pull and release' mechanism. The mechanism involves protein clusters on the inside of the cell membrane that grow and connect, forming a condensed ring.
Researchers from EMBL have visualized proteins responsible for cell-cell contacts for the first time, revealing the molecular organization of skin. The technique, called cryo-electron tomography, allows for the first 3D image of human skin at molecular resolution.
Researchers at EMBL and AMOLF discovered a new experimental approach to study microtubule end tracking proteins, which are crucial for cell shape development. The study sheds light on the interaction between proteins and the cell's skeleton, revealing how +TIPs recognize dynamic microtubule ends.
The Peking-Yale Joint Center will receive continued and expanded support from Monsanto, enabling graduate student exchanges and plant biology-related programs. The center aims to improve crop production by advancing understanding of plant biology.
The University of Leeds is partnering with Dr Tony Marchington's M2 Ventures to offer outsourced research and development in membrane biology to industries. Membrane biology research plays a crucial role in developing pharmaceutical drugs, and the partnership aims to capitalize on this expertise.
Eight scientists and one politician have been recognized by ASBMB for their groundbreaking work, advancing the field of biochemistry and molecular biology. The awards will be presented at Experimental Biology 2008 meeting in San Diego.
Nina V. Fedoroff, a renowned researcher in life sciences and biotechnology, is among eight scientists named to receive the 2006 National Medal of Science. Her work focuses on understanding gene regulation by small RNA molecules and developing mechanisms for plants to withstand environmental stressors.
Scientists from leading institutions worldwide issue a statement highlighting the critical importance of synthetic biology, citing its potential to solve eco-safe energy issues, outbreaks of malaria, and more. The Ilulissat Statement emphasizes the need for an international effort to advance research while developing protective measures.
SNM presented special recognition awards to 7 lawmakers who support the profession. The organization highlighted their dedication to patient care and safety through initiatives like the CARE Act. SNM's annual meeting will be held June 2-6 at the Washington Convention Center.
The Society of Nuclear Medicine and Molecular Imaging has developed a broad definition for molecular imaging, capturing the essence of an evolving and multidisciplinary field. The definition provides a concise explanation of the meaning of molecular imaging, including techniques such as radiotracer imaging, MRI, and optical imaging.
Researchers have identified a molecular link between spontaneous physical activity and food intake in mice, which could help explain individual variations in weight gain. The discovery of Bsx, a molecule regulating NPY and AgRP hormones, may lead to new ways to prevent obesity and related diseases.
Michael R. Zalutsky received the award for his significant contributions to medical science, especially in using molecular targeting to combat cancer. His research has had a substantial impact on therapeutic nuclear medicine and its applications.
Researchers have discovered that Alzheimer's, Parkinson's, and type 2 diabetes share a common molecular mechanism, involving amyloid fibrils with a universal 'molecular zipper' structure. This finding could lead to new diagnostic tools and treatment options through 'structure-based drug design'.
Scientists have developed a pair of molecular-scale scissors that can be manipulated by light, allowing for precise control over proteins and biological molecules. The technology has the potential to revolutionize gene manipulation and drug delivery, with practical applications still several years away.
A study by European Molecular Biology Laboratory researchers identifies NF-kB as a crucial signaling molecule in the development of chronic intestinal inflammation. The findings provide a new paradigm for understanding inflammatory bowel disease and may pave the way for novel therapeutic approaches.
Scientists have developed a deconvolution algorithm that improves the resolution of Single Plane Illumination Microscope (SPIM) images. This advancement provides new opportunities for studying sub-cellular processes in large living specimens.
A UI researcher emphasizes the importance of understanding molecular processes in solving environmental issues, as demonstrated by the case of Antarctic ozone thinning. She advocates for further research on molecular assembly and disassembly to safely recycle materials from outdated computers.
The study assessed molecular testing's utility in caring for patients with genetic retinal diseases. Molecular testing confirmed a clinical diagnosis of hereditary disorders in 133 out of 266 diagnostic tests, while also identifying carrier status and ruling out familial mutations in asymptomatic individuals.