Articles tagged with Mass Spectrometry
Scientists have made the first definitive detection of organic molecules at Mars using NASA's Curiosity rover. The discovery suggests that ancient Martian environments may have provided a supply of reduced organic molecules for use as building blocks for life and an energy source.
Dr. Paul Mahaffy, a leading expert on Mars chemistry, received the John C. Lindsay Memorial Award for his groundbreaking work on the Curiosity Rover's Sample Analysis at Mars (SAM) Instrument Suite. The award honors his contributions to planetary science and exploration.
New research reveals how red tide's chemicals disable competitor algae without killing them, affecting nutrient cycling and primary production in the ocean. Red tide's chemical cues alter large-scale ecosystem processes.
Researchers at Purdue University developed a nanotube coating that significantly reduces the voltage required for mass spectrometers, allowing for miniaturization and increased portability. The technique simplifies analysis by nearly eliminating background noise, making it gentler on fragile molecules.
A robotic system enables scientists to analyze the chemical composition of irregularly shaped surfaces, simulating early Earth conditions on meteorites and rocks. This technology has potential applications in biomedical fields like dermatology, allowing researchers to probe lesions with high accuracy.
A new mass spectrometry-based technique provides high-throughput analysis of proteins like IGF1 at a rate of over 1,000 human samples per day. The method accurately characterizes protein structure and variants, offering a detailed portrait of protein information not available through traditional ELISA tests.
Immunologists have developed an improved mass spectrometric method for proteomic analyses, allowing for the identification and quantification of more proteins. The new technique, called ISOQuant, eliminates the need for labeling samples, enabling direct analysis of patient samples and specific immune cells.
The University of Colorado Boulder has been awarded a cooperative agreement worth up to $14.6 million from the Defense Advanced Research Projects Agency (DARPA) to develop a new technological system to rapidly determine how drugs and biological or chemical agents exert their effects on human cells. The Subcellular Pan-Omics for Advance...
Three mass spectrometers from NASA's Goddard Space Flight Center conducted simultaneous experiments on the moon and Mars to analyze atmospheric and rock samples. This milestone demonstrates the value of these instruments for understanding planetary environments.
Researchers at Washington University in St. Louis have developed a new technique to isolate and examine a photosynthetic megacomplex in its complete functioning state. This breakthrough provides a deeper understanding of the organization of these complex membranes, which are essential for plant growth and movement.
Researchers have developed a new testing strategy that can estimate levels of essential vitamins and minerals without directly testing each nutritional factor. This approach uses protein levels in the bloodstream as proxies for nutrient levels, enabling rapid detection of population-wide deficiencies and potential remediation efforts.
Yinsheng Wang, a UC Riverside professor of chemistry, has received the prestigious Biemann Medal for his significant contributions to mass spectrometry. The award recognizes his work on DNA damage and anti-tumor drugs, highlighting the importance of mass spectrometry in understanding genetic information.
An interdisciplinary team from MIT identified cirrus clouds' major seeds as mineral dust and metallic aerosols. The study found that these particles freeze into ice crystals, influencing global climate patterns.
R. Graham Cooks receives the Dreyfus Prize for his groundbreaking work on mass spectrometry instrumentation, enabling remote deployment of analytical instruments and transforming fields like pharmaceuticals and biotechnology. This achievement showcases Cooks' innovative spirit and impact on modern science.
Researchers at Heidelberg University Hospital have developed a new method to detect drug interactions at very low doses, which can be used to study interactions between drugs without posing risks to patients. This breakthrough improves the reliability of pharmacological studies and has the potential to reduce medication errors.
Researchers at ETH Zurich have developed a new method to analyze the chemical composition of exhaled breath, revealing an individual's unique 'breathprint' that stays constant over time. This non-invasive approach holds promise for early disease detection and monitoring, and could potentially replace traditional blood and urine analysis.
Researchers at the University of Nevada, Reno have developed a self-healing coating for aluminum that provides corrosion protection and can replace carcinogenic chromate coatings. The new molybdate-based coating shows exceptional performance and can be applied to all aluminum products.
Researchers find hydroxyl compounds in lunar regolith created by solar wind implantation, leading to widespread water presence in lunar materials. The discovery suggests ice in permanently shadowed polar craters could contain hydrogen atoms from solar wind.
The ProteoWizard Toolkit allows scientists to easily analyze and share multi-platform mass spectrometry data, a major breakthrough for large-scale biological research. The software is expected to improve the understanding of complex diseases like cancer.
Researchers at Vanderbilt University have created a new 3D view of the body's response to infection, enabling the identification of proteins involved in the inflammatory response. The technology combines magnetic resonance imaging (MRI) and imaging mass spectrometry to visualize the immune system's response to bacterial infections.
Scientists at University of Warwick solve 40-year-old Fourier Transform Mass Spectrometry phasing problem, improving data quality for pharmaceuticals, healthcare, and environmental management. The breakthrough method doubles resolution and sensitivity at no extra cost.
Researchers at Bascom Palmer Eye Institute discovered the protein cochlin plays a crucial role in regulating intraocular pressure through mechanosensing and mechanotransduction. Elevated IOP is a primary risk factor for glaucoma, and this breakthrough offers potential avenues for innovative manipulation of aqueous outflow.
Organic aerosol is a significant fraction of fine particles in Beijing, with key role in air pollution. Recent study characterizes winter organic aerosols using high-resolution measurements, revealing prominent accumulation mode and photochemical characteristics.
Researchers developed a rapid test using mass spectrometry to identify Staphylococcus aureus, the bacterium causing staph infections. The test can detect low concentrations of bacteria in just a few hours, reducing manual labor and subjective interpretation.
Researchers analyzed Mayan containers for nicotine traces, revealing physical evidence of tobacco use dating back to the Late Classic Maya period (600-900 AD). The study confirms the intended use of an ancient container and highlights the importance of mass spectrometry in analyzing organic residues.
Researchers analyze ancient Mayan pottery using advanced technology to detect nicotine and its oxidation products, providing rare evidence of unsmoked tobacco leaves. The discovery represents new insights into the ancient roots of tobacco use in the Americas.
A new approach enables precise mass measurements of single molecules using molecular oscillators, overcoming limitations of conventional mass spectrometry. The technique allows for fast, miniaturized, and real-time analysis of molecular binding affinity, paving the way for versatile low-cost mass spectrometry measurements.
Advances in nanotechnology are driving innovation in mass spectrometry instrumentation, enabling faster and more precise biomarker validation. Researchers have developed novel nanoflow separation methodologies that ramp up the speed and precision of validating biomarkers.
Researchers at Fred Hutchinson Cancer Center demonstrate a staged, targeted pipeline approach using mass spectrometry to prioritize and validate protein biomarkers in mice. This method enables the testing of a larger number of biomarker candidates than conventional technologies, improving the efficiency of biomarker evaluation. The stu...
NASA has selected Southwest Research Institute's MASPEX mass spectrometer for technology development funding to analyze comets and improve understanding of their origin. The instrument is expected to excel in identifying isotopes in low-density populations and provide valuable insights into the origin of life.
Scientists have developed a powerful new technique to visualize the underpaintings of famous artworks by Rembrandt, Caravaggio, and Rubens. The scanning macro X-ray fluorescence analysis allows for detailed imaging of the composition of underpaintings without harming priceless artwork.
Carol V. Robinson has pioneered the use of electrospray mass spectrometry for structural studies of large protein assemblies. Her research has opened up a new area of mass spectrometry and inspired future generations of women in science.
A new analytical technique makes it easier to analyze rocks and soils on Mars, possibly indicating signs of life. The tool combines mass spectrometry with laser ablation and an ion funnel, allowing for in-situ analysis without sample handling.
Researchers use temperature jump and fast chemical reaction to capture protein folding process, providing detail needed for accurate predictions. The new method offers hope for improving protein structure predictions, which are crucial for medicine and biotechnology.
Researchers have developed a new technique using Time-of-Flight Secondary Ion Mass Spectrometry (ToF-SIMS) to detect and differentiate explosives. This technology provides rapid identification of components in explosives like C4, including the explosive active components, additives, binders, and contaminants.
AUA-led team finds complex organic molecules, including amino acids and nucleotide bases, in Titan's atmosphere. These findings suggest that Titan's atmosphere could be a reservoir of prebiotic molecules that serve as the springboard to life.
Researchers used imaging mass spectrometry to map signaling molecules between organisms, discovering metabolites involved in bacterial cannibalism. SDP and SKF were found to be essential for identifying and killing genetically identical cells.
A new method uses isotopic analysis to distinguish olive oil from shark-derived squalene and squalane, a potential solution to stop commercial fraud and protect sharks. The technique could also promote the production of plant-based squalene, discouraging shark fishing.
Researchers at Ohio State University have developed a rapid and accurate method to genotype single nucleotide polymorphisms (SNPs) that affect warfarin dose, enabling personalized treatment for patients. This new approach has the potential to improve patient outcomes and reduce adverse effects associated with warfarin therapy.
Researchers at NIST have developed a method to quantify extremely low levels of C-reactive protein (CRP), a molecule that indicates cardiovascular disease risk. The new certified reference material will improve the accuracy of clinical laboratory tests for CRP, enabling more precise detection of individuals at high risk of heart attack.
Researchers at the University of Gothenburg have developed a new technique that allows for precise analysis of protein sugar structures. This breakthrough may lead to a better understanding of disease mechanisms and potential new treatments, particularly for conditions such as Alzheimer's.
Researchers have developed a new technique that combines electrosurgery with mass spectrometry to analyze tissue during surgery. This allows surgeons to distinguish between malignant tumor cells and healthy tissue in real-time, potentially sparing patients from unnecessary second surgeries.
A new mass spectrometry-based tool has been developed by University of Cincinnati experts, providing more precise and cost-effective data collection for drug discovery efforts. The novel application eliminates false-positive results and reduces reagent costs, saving substantial time and money.
Researchers have developed computational tools to decode and rapidly determine whether natural compounds are new or patented. These advances will speed the discovery process, enabling scientists to characterize ring-shaped nonribosomal peptides and accelerate the timeline for bringing new therapies into clinical application.
Scientists at Stanford University have created a new method to analyze isotopes, which are used to solve crimes, date ancient artifacts, and identify chemicals. The device uses laser-based spectroscopy to measure the ratios of isotopes in a sample, providing accurate results within one to three parts per thousand.
Scientists at Beth Israel Deaconess Medical Center and North Carolina State University have confirmed that collagen protein is preserved in the bone fragments of a 80-million-year-old hadrosaur, supporting earlier results from a Tyrannosaurus rex study. The discovery provides robust evidence for bird-dinosaur evolution.
The study reveals the precise orientation of the Fenna-Matthews-Olson (FMO) antenna protein on the membrane, allowing for efficient energy transfer. The 'taco shell' protein plays a crucial role in connecting the peripheral chlorosome antenna complex to the reaction center.
Researchers at the University of Cambridge and Bristol have successfully maintained membrane complexes intact in a mass spectrometer, enabling the study of previously unexplored interactions. This breakthrough discovery has significant implications for understanding cellular security and drug resistance.
Julia Laskin, a PNNL chemist, has received the Biemann Medal for her groundbreaking research on mass spectrometry. Her work advances biomaterials and biological processes for clean energy production and creates biologically inspired systems.
Research identifies CKAP4-similar protein Ca-Hb3 as a tumor-associated antigen in colorectal cancer. The protein has been shown to have high homogeneity with Np63 alpha, a potential oncogene.
Recent advances in mass spectrometry have expanded knowledge of protein networks inside cells and their regulation. Researchers successfully identified over 5,000 proteins in embryonic stem cells using mass spectrometry, creating the largest quantified protein map to date.
Researchers at UC San Diego have created a method to determine the structure of nonribosomal peptides in just one day, compared to six months or a year previously. This breakthrough may aid in the development of new drugs inspired by natural compounds with antibiotic and antiviral properties.
Stevens researchers discover charge-directed heterolytic fragmentation mechanism in ortho-hydroxybenzaldehyde, while meta- and para-isomers undergo charge-remote homolytic cleavage. This study provides new insights into mass spectrometry.
Researchers are developing a portable mass spectrometer to diagnose tuberculosis (TB) with greater sensitivity than smear microscopy. The device could automate the process, making it more widely available in resource-poor settings where TB kills two million people annually.
A Carnegie Mellon scientist has developed a new method to characterize large viral particles and proteins using a mass spectrometer. This breakthrough enables researchers to study intact protein complexes in seconds, paving the way for rapid disease diagnosis.
Oklahoma State University has received $1.5M in NSF grants to acquire two new instruments: a field emission environmental scanning electron microscope and an LTQ mass spectrometer. These instruments will enhance research capabilities in areas of interest to industry, government, and other universities.
Researchers at the Midwest Forensics Resource Center are developing a library of forensic ink profiles using Direct Analysis in Real Time (DART) mass spectrometry. The new technique allows for faster and more detailed analysis of inks, enabling forensic scientists to differentiate between inks like never before.
The Cryogenic MALDI-FTMS technology enables unbiased view of disease by identifying proteins and biomarkers. This will aid in disease diagnosis, identification, and treatment options.
Researchers developed a technique to detect and sort different-sized polymer chains that pass through or block tiny pores in thin membranes. This non-destructive method measures individual biomolecules at the nanoscale level, enabling future applications in lab-on-a-chip molecular analyzers.
Researchers have identified a new class of lipids in tears and oleamide, a previously unknown lipid, shedding light on the complex design of tears. The discovery may help scientists better understand eye-related disorders like dry eye disease, which affects millions Americans.