A team of researchers at the Georgia Institute of Technology wondered whether federal regulators can persuade companies to abandon toxic chemicals by simply highlighting that information.
Physical chemist Laura Fabris—an associate professor in the Materials Science and Engineering Department at Rutgers University and principal investigator of the Fabris NanoBio Group—uses the transmission electron microscopes at Brookhaven Lab’s Center for Functional Nanomaterials (CFN) to visualize nanoparticles and understand how to optimize their morphology to improve clinical diagnoses.
New research shows how some harmful microbes in the soil have to contend not just with a farmer’s chemical attacks, but also with their microscopic neighbors — and themselves turn to chemical warfare to ward off threats.
A team of Cornell University engineers and nutritionists with funding from the National Institute of Biomedical Imaging and Bioengineering, part of NIH, have designed and tested a small, portable diagnostic system that can be used in the field to test blood for vitamin A and iron deficiencies.
A new case report led by Maya Styner, MD, of the UNC School of Medicine describes how a patient's use of a common over-the-counter biotin supplement caused clinically misleading test results and almost resulted in an unnecessary, invasive medical procedure.
A new open-access white paper discusses the practical aspects of attribute selection and ranking, a critical first step in biosimilar drug development. These updated analytical standards were compiled by an international, multidisciplinary team involving FDA and pharmaceutical industry experts, and The American Association of Pharmaceutical Scientists (AAPS), which published the paper today in The AAPS Journal.
Dr. Hae-Kwon Jeong has developed a novel method to separate light olefins – such as ethylene and propylene that are used in packaging, plastic processing and textile manufacturing – from paraffins – such as ethane and propane. This is one of the most significant seperations in chemical and petrochemical industries, with propylene production amounting to around $90 billion annually worldwide, yet one of the most challenging due to the similarity of their physical and chemical properties.
Introducing a revolutionary tool in therapeutic and genomic research, BioChain’s CEO Grace Tian is pleased to launch the vamPure Blood Nucleic Acid Extraction Kit. This highly validated product is designed to get the highest yield of genomic DNA from either fresh or frozen blood samples.
he American Association of Pharmaceutical Scientists (AAPS) is pleased to announce the availability of the open-access white paper entitled “Rational Selection, Criticality Assessment, and Tiering of Quality Attributes and Test Methods for Analytical Similarity Evaluation of Biosimilars.”
Scientists have used a powerful X-ray laser at the Department of Energy’s SLAC National Accelerator Laboratory to heat water from room temperature to 100,000 degrees Celsius in less than a tenth of a picosecond, or millionth of a millionth of a second.
Chemists have identified a catalyst to drive the reaction of carbon dioxide and propane to produce propylene, a globally needed chemical building block used to manufacture many everyday items.
The National Institutes of Health announced today that it will establish a national service and training center for cryogenic electron microscopy research at the Department of Energy’s SLAC National Accelerator Laboratory.
Recent articles in the Journal of Lipid Research found a surprising insight into healthy octogenarians’ arteries; a microRNA key to the puzzle of killing fat cells; and a change in cultured cell signaling that may affect experimental outcomes.
In the days leading up to Rensselaer Polytechnic Institute's Commencement Ceremony on May 19, we are sharing profiles of some of our outstanding students.
The words you don’t want to hear from a pharmaceutical company after presenting a new potential drug that obliterates cancer in mice: “It’s too early.” That’s code for: you haven’t convinced us this could actually work and is safe for humans.NewCures at Northwestern University is a novel accelerator poised to prevent that brush-off.
Researchers at the University of Wisconsin–Madison have developed liquid crystal films and droplets that can hold a wide range of “micro-cargo” until their release is cued by body heat or a beam of light or even the wake of swimming microorganisms.
The trick is in exploiting the way liquid crystals can be organized, as UW–Madison chemical and biological engineering professor Nick Abbott and members of his lab describe today in the journal Nature.
Chemist Ashley Head of the Interface Science and Catalysis Group at the CFN studies the interesting chemical processes and phenomena that take place on surfaces—an understanding relevant to designing efficient catalysts, developing more sophisticated gas masks for soldiers, and other applications.n the
New Toxicological Sciences features a historical perspective and contemporary review of zebrafish as a model in toxicology. There also are highlighted papers on dietary intervention for pulmonary injury; PBPK modeling for PFOA risk; IVIVE and toxicokinetics; and microelectrode arrays and seizures.
Floyd Romesberg, PhD, professor at The Scripps Research Institute, has won the 2018 Royal Society of Chemistry (RSC) Bioorganic Chemistry Award for his ground-breaking contributions to the expansion of the genetic alphabet.
Research that explores new ways for laundry detergents to improve their cleaning performance in lower wash temperatures was honored with the American Cleaning Institute (ACI) Distinguished Paper Award, recognizing the most outstanding research to appear in 2017 in the Journal of Surfactants and Detergents.
Beta peptides have become a key tool in building more robust biomaterials. These synthetic molecules mimic the structure of small proteins, but they are protected against processes that degrade natural peptides. A new study has expanded what we can do with these crafty peptides. Published in APL Bioengineering, the researchers show that molecules that have previously posed challenges to bioengineers can now be used to make new kinds of biomaterials.
Representing a leap forward in cancer research, BioChain Institute, Inc. and Chief Executive Officer Grace Tian are launching the cfPure MAX Cell Free DNA Extraction Kit, a product designed to extract cell free DNA from plasma samples.
Brookhaven Lab recently started an online course to teach graduate students about the advanced material characterization techniques available at the National Synchrotron Light Source II.
Esther Gomez, assistant professor of chemical engineering and biomedical engineering, Penn State, has received the National Science Foundation’s prestigious Early Career (CAREER) award to better understand the mechanobiology of mesenchymal-epithelial transition.
Researchers in the Department of Chemistry and Biochemistry at UC San Diego mixed together unlikely materials to create a new hybrid form of crystalline matter that could change the practice of materials science. The findings, published in Nature, present potential benefits to medicine and the pharmaceutical industry.
Harvard Medical School scientists developed a new technique to analyze, with unprecedented quantitative precision, how cells initiate the removal of defective mitochondria by the cell’s autophagy, or “self-eating,” system.
Matthew Sfeir--a chemical physicist at the Center for Functional Nanomaterials--is being recognized for his research to develop enabling technologies for next-generation electronic devices, particularly in the areas of thin-film optics and solar cells.
A team of chemists has developed an MRI-based technique that can quickly diagnose what ails certain types of batteries—from determining how much charge remains to detecting internal defects—without opening them up.
The National Academies of Sciences, Engineering, and Medicine Transportation Research Board has released a flagship report on the air quality impacts of sustainable alternative jet fuel (SAJF) emissions. The report is based in part on reviews by Missouri University of Science and Technology faculty Dr. Philip D. Whitefield, chair and professor of chemistry and director of the Center for Research in Energy and Environment (CREE), and Dr. Donald E. Hagen, professor emeritus of physics.
The search for a more energy efficient and environmentally friendly method of ammonia production for fertilizer has led to the discovery of a new type of catalytic reaction.
FUJIFILM Corporation launched its new generation Dry Chemistry Analyzer, the DRI-CHEM NX700, which can perform multiple test parameters of clinical chemistry.
Getting the results of a cancer biopsy can take up to two weeks. What if it could happen in 10 minutes? In two new papers, a team of chemists and engineers from Michigan Technological University lay the groundwork for cancer detection and diagnostics based on a fluorescent GLUT5 probe. Documented in the new research, a cancer's type and malignancy changes the GLUT5 activity in a cell, creating a detectable "fingerprint" of cancer.
Researchers at the Department of Energy’s National Renewable Energy Laboratory (NREL) have found a way to create the equivalent of negative pressure by mixing two materials together under just the right conditions to make an alloy with an airier and entirely different crystal structure and unique properties.
Over the past five years, University of Chicago chemist Bozhi Tian has been figuring out how to control biology with light. In a paper published April 30 in Nature Biomedical Engineering, Tian’s team laid out a system of design principles for working with silicon to control biology at three levels—from individual organelles inside cells to tissues to entire limbs. The group has demonstrated each in cells or mice models, including the first time anyone has used light to control behavior without genetic modification.
Researchers from the Technion have completed an interdisciplinary study that reveals the optimal configuration for nanoscale robots that can travel within the human body to perform a variety of tasks. The model improves previous nature-inspired models.
Some bacteria not only escape being killed by bacteria, they turn it into food. Until now, scientists have understood little about how bacteria manage to consume antibiotics safely, but new research from Washington University School of Medicine in St. Louis illuminates key steps in the process. The findings, published April 30 in Nature Chemical Biology, could lead to new ways to eliminate antibiotics from land and water, the researchers said. Environmental antibiotic contamination promotes drug resistance and undermines our ability to treat bacterial infections.
Four senior researchers at the U.S. Department of Energy’s (DOE) Argonne National Laboratory have received international recognition for their groundbreaking work in combustion science and technology. Chemists Lawrence Harding, Albert Wagner, Stephen Klippenstein and James Miller have been inducted as fellows of The Combustion Institute.
Dr. Rainer Glaser, professor of chemistry at the University of Missouri-Columbia, has been named chair of chemistry at Missouri University of Science and Technology. His appointment begins Aug. 1.
In the early 1960s, the Thalidomide drug scare caused thousands of worldwide infant deaths and birth defects from a morning sickness medicine for expectant mothers. The disaster transformed drug regulation systems, and changed the pharmaceutical industry’s understanding of chiral properties: the notion that molecules with otherwise identical properties are in fact mirror images, like your right and left hands.
A team from Northwestern University and the University of Florida has developed a new type of electron microscope that takes dynamic, multi-frame videos of nanoparticles as they form, allowing researchers to view how specimens change in space and time.
In a variety of research programs, Argonne experts are finding ways to make cheaper and more efficient the manufacture of products derived from shale gas deposits and identifying new routes to higher-performance.
Trans 1,3-butadiene, the smallest polyene, has challenged researchers over the past 40 years because of its complex excited-state electronic structure and its ultrafast dynamics. Butadiene remains the “missing link” between ethylene, which has only one double bond, and longer linear polyenes with three or more double bonds. Now, an experimental team has solved trans 1,3-butadiene’s electronic-structural dynamics. The researchers recently reported their findings in The Journal of Chemical Physics.
To better understand the near-term commercial potential for capturing and storing atmospheric carbon dioxide (CO2), researchers from Lawrence Livermore National Laboratory have mapped out how CO2 might be captured from existing U.S. ethanol biorefineries and permanently stored (or sequestered) underground.