Articles tagged with Chemical Engineering
Scientists at UD aim to improve battery performance by introducing tapers into polymer membrane electrolytes, increasing conductivity and processing speed. The goal is to create more impact-resistant and safer batteries for devices like cell phones, laptops, and electric vehicles.
The study reveals how calcium phosphate molecules crystallize and build up into a perfectly arranged bone structure. Researchers used an artificial biomaterial to mimic natural bone tissue functions, allowing them to study the phenomenon at an atomic level.
Engineers at the University of Michigan developed a method to make arrays of nanofibers that can be sticky, repellant, insulating or light emitting. The discovery uses liquid crystals to guide the growth of curved fibers with well-defined lengths and diameters.
Lehigh University's Kelly Schultz and her team discovered that the structure of cross-linked polymeric gels is independent of concentration until a limit, called the overlap concentration. This characteristic could improve the tailoring of implantable scaffolds to regrow tissue.
Researchers have developed flexible, semi-transparent films that block electromagnetic interference while allowing light to pass through. The films, made from a combination of carbon nanotubes and MXene, demonstrate high strength, flexibility, and conductivity, making them suitable for use in devices with display screens.
Dr. Susan Fullerton, a researcher at the University of Pittsburgh, has received the 2019 Marion Milligan Mason Award for her novel work on ion transport and next-generation electronic devices. The award recognizes her contributions to advancing women in the chemical sciences and provides funding and leadership development opportunities.
The clean meat industry is struggling to scale up production and gain consumer acceptance, with challenges including product naming and labeling. Despite these hurdles, start-ups aim to capture a small percentage of the $1-trillion-per-year combined meat market.
A University of Akron engineer is working on antifouling materials to prevent unwanted organisms from accumulating on medical implants. This can help reduce the risk of foreign body reactions and improve patient outcomes.
UNIST has selected 6 extraordinary scholars as 'Rising-star Distinguished Professor', recognizing their exceptional contributions to fields like Artificial Intelligence, Energy, and Materials Science. The honored faculty members will receive an honorarium for salary and research support.
The Center for Materials for Water and Energy Systems (M-WET) will develop next-generation polymer membrane-based water purification technologies to tackle complex waters in energy production, reuse, and industrial applications. Researchers aim to address fundamental science knowledge gaps and overcome fouling challenges.
Researchers at UIC have discovered a way to treat boron nitride, making it bind to other materials like electronics, biosensors, and airplanes. This breakthrough could significantly improve their performance.
A team of chemical engineers used 3D electron microscopy to study the internal structure of reverse osmosis membranes, finding that the density varies throughout the film and is highest at the surface. This discovery could lead to improved membrane design and water recovery capabilities.
The article tackles key questions about graduate school, including choosing a research program and advisor, and overcoming obstacles like burnout and unexpected setbacks. It provides a roadmap for navigating the chemistry graduate school experience, drawing on stories from students and expert advice.
The BRICS countries have seen significant growth in academic activity between 2000 and 2015, reaching 29% of global publications cited in Scopus. China's exceptionally high rate of publications led the way, while Russia saw a notable increase after 2013.
Rice University scientists have created a magnetic nanoparticle compound that efficiently separates crude oil droplets from produced water. The nanoparticles are attracted to the magnet and bind to the oil, allowing for easy separation. This solution could be valuable for industry and offshore oil rigs.
Researchers at SwRI and UTSA are developing a biodegradable implant that can deliver personalized doses of medicine to treat various illnesses. The implant is designed to be drug agnostic and can work with any type of drug, potentially treating a wide range of diseases.
A hydraulic jump occurs when water hits a sink, causing waves and turbulence. Researchers at Cambridge University have explained this phenomenon using surface tension, debunking a 200-year-old theory. The study's findings have wide-reaching implications for industries with high water consumption.
A team of Michigan Tech students has developed a method to recycle lithium-ion batteries using old mining technologies, resulting in inexpensive and energy-efficient processes. The process separates valuable materials like lithium, graphite, and cobalt, making them suitable for remanufacturing into new batteries.
Scientists at the University of Washington have developed a method to improve the performance of perovskite solar cells by surface passivation, which significantly boosts their efficiency. This breakthrough could lead to thinner and more flexible solar cells with higher power conversion efficiency.
Researchers at the University of Pittsburgh developed a new approach to model complex chemical reactions, enabling better understanding of fundamental reactions and their impact on chemical engineering. PhD student Yasemin Basdogan created an artistic depiction of the research for the journal cover.
Mesoscience offers broad potential beyond chemical engineering, tackling complex systems in the real world with unprecedented approach. The concept is attracting increasing attention from top scientists worldwide.
State agricultural organizations and researchers are working to improve cannabis cultivation through biological means of pest control and sequencing the cannabis genome. This effort aims to increase the crop's value by providing better growing conditions and fertilizers, ultimately reducing the demand for trained scientists.
Researchers at Rice University have extended a 100-year-old modeling formula to account for complex surfactants in enhanced oil recovery. The new model, developed by Walter Chapman and Xiaoqun Mu, incorporates temperature, pressure, composition, and other conditions to provide a more accurate prediction of oil behavior in wells.
Researchers at McMaster University have developed a transparent test patch that can signal contamination as it happens, using harmless molecules. The patch can be incorporated into food packaging and monitor contents for harmful pathogens like E. coli and Salmonella, providing a definitive indication of safety before consumption.
Researchers discovered that when live bacteria are spun at high speeds, they aggregate and form a dense disk, but when the spinning stops, the disk collapses due to imperfections on its surface. The resulting rapid movement of bacteria away from their origin of rotation creates an explosion-like effect.
A Lehigh University professor has received a prestigious NSF CAREER Award to explore the role of human mesenchymal stem cells in remodeling hydrogel materials for wound healing. Her research aims to develop new biomaterials with optimal properties for tissue regeneration and structural integrity.
A new study suggests that cells can be engineered to overcome evolutionary pressure and stably produce high levels of valuable chemicals by rewiring production cells to slow down growth when they lose production. This allows productive cells to maintain their function even in large-scale fermentations.
Researchers at UT Austin developed a cost-effective method to produce triacetic acid lactone, a biorenewable platform chemical, by engineering yeast Y. lipolytica to increase TAL production tenfold. This breakthrough enables mass production of polyketides for various industrial applications.
Associate Professor Jeffrey Rimer received the award for his pioneering research on crystallization, including the discovery of a natural fruit extract that can dissolve calcium oxalate crystals. His work has transformative implications for drug development and has led to human clinical trials underway.
Israel E. Wachs, Lehigh University professor, has been awarded a Fulbright Senior Scholar Fellowship to research energy-related topics with Gideon Grader and Oz Gazit at Technion-Israel Institute of Technology. This fellowship aims to increase mutual understanding between the U.S. and Israel through academic exchange.
Researchers at the University of Texas at Austin have created a first-of-its-kind chemical oscillator using DNA molecules, enabling precise molecular control and complex behaviors. The discovery opens doors to creating molecular machines that can perform sophisticated tasks such as communication and signal processing.
Two Pitt ChemE Professors, James McKone and Chris Wilmer, have been honored as new Fellows at the Scialog: Advanced Energy Storage meeting. They were among 58 early-career researchers recognized for their work on novel electrochemical energy storage innovations.
The partnership aims to apply advanced chemical engineering research to industrial-scale chemical manufacturing, reducing waste generation, utility, and energy costs. The University of Pittsburgh's Chemical and Petroleum Engineering Department is developing new educational programs and internships to prepare students for the industry.
iScience is an open-access, peer-reviewed journal publishing on a continuous basis starting early 2018. It will promote rigorous research that advances a field and reporting with transparent methods, replication studies, and negative results. The editorial board harnesses experts across many different fields.
Researchers at Caltech have created bacteria that can produce chemical compounds with boron-carbon bonds, a breakthrough in synthetic biology. The findings could lead to more economical and environmentally friendly ways to manufacture pharmaceuticals and other products.
Two INRS professors, Shuhui Sun and Federico Rosei, received international recognition for their groundbreaking work on novel materials. Their research focuses on developing renewable energy technologies, with Professor Rosei's discoveries leading to improved solar panels.
Professor Sang-Young Lee's 'all-inkjet-printed flexible batteries on paper' technique fabricates batteries directly on conventional A4 paper using a commercial desktop inkjet printer. This technology enables printing portable electronic devices on any surface, regardless of shape, holding promise for IoT and wearable electronics.
Tandon researcher Jin Montclare develops phosphotriesterase (PTE) variants to neutralize toxic chemical agents, including VX and organophosphorus compounds. Her goal is to create stable, robust, and effective antidotes with improved therapeutic efficacy.
Researchers at KAIST have developed a novel fabrication technology to produce superomniphobic surfaces that can repel liquids, including water and oil. The new approach uses localized photofluidization of azobenzene molecule-containing polymers, resulting in a superior superomniphobic property.
Researchers at Rice University have developed a new computer model that accurately simulates the interactions between water and alkanes, a family of hydrocarbons. This breakthrough could have far-reaching implications in fields such as energy production, environmental systems and biology.
A NJIT graduate student has developed a method to accelerate the combustion of boron, a metal with high energy potential. Adding iron to boron improves ignition and speeds up its burning in air and steam.
Researchers from MIT and global partners conducted a comprehensive survey of atmospheric chemistry in a Colorado forest, identifying previously unmeasured semi-volatile and intermediate-volatility organic compounds. The findings provide new insights into air quality, ecosystem health, and climate change.
The American Chemical Society has unveiled its annual 'Talented 12' list, showcasing young scientists working on world-changing projects. The researchers are developing alternative fuel sources, novel cancer treatments and innovative materials for everyday products.
Researchers have developed a catalytic process that can effectively reduce nitrogen oxides emissions from diesel-powered vehicles, particularly during transient and cold-start conditions. The breakthrough could pave the way for more efficient NOx removal technologies, enabling diesel engines to meet stringent emissions regulations.
Researchers at Purdue University have discovered a new reaction mechanism for zeolite catalysts that can convert nitrogen oxides more efficiently, reducing emissions of smog-causing pollutants. This breakthrough could lead to the development of better catalyst designs for pollution control systems in diesel engines.
A team at MIT has carried out detailed tests that resolve the questions surrounding a compound called lithium iodide, a possible solution to some of the lithium-air battery's problems. The study finds that LiI can enhance water's reactivity and interfere with charging, but suggests ways to suppress these reactions to make it work better.
A new study identifies chemically termolecular reactions, where three molecules participate in breaking and forming bonds, impacting flame propagation speeds and gas phase chemistry. This discovery opens up new possibilities in engine design and understanding planetary atmospheres.
University of Delaware researchers have developed a novel method for creating interpenetrating polymeric networks using blue light, offering a more efficient and sustainable approach. This one-step process enables the formation of complex shapes without solvents or additives, resulting in enhanced toughness and reduced brittleness.
University of Leeds scientists have discovered a way to measure the strength of modern concrete forms using light-refracting coatings. The birefringent coating displays stress positions, allowing researchers to assess concrete toughness against fractures with high precision.
Researchers have developed lightweight, flexible, and simple TENGs from recycled plastics that can generate electricity in self-powered smart toys. The technology has shown promise in creating interactive games without the need for batteries, benefiting children's entertainment and education.
Researchers at RIT are working on developing more efficient, durable and cost-effective carbon nanotube technology for electronic components. The project aims to create affordable carbon wiring with electrical properties competitive with metal wiring.
Chris Wilmer, assistant professor at the University of Pittsburgh, has received the AIChE Young Investigator Award for his outstanding research in computational molecular science and engineering. His work focuses on large-scale molecular simulations to find promising materials for energy and environmental applications.
Researchers have developed biodegradable cellulose microbeads that can replace harmful plastic ones contributing to ocean pollution. The beads are made from cellulose, a renewable source, and break down into harmless sugars, reducing the risk of harming marine life.
Researchers have developed a more energy-efficient catalytic process to produce olefins, which are crucial building blocks for polymer production. By analyzing carboranes' role in dehydration reactions, the team created linear relationships between energy input and alcohol characteristics.
The University of Pittsburgh's Swanson School of Engineering has received a $425,000 NSF Research Experience for Undergraduates (REU) grant to support a 10-week summer research program for undergraduates in Chemical and Petroleum Engineering. The program will provide students with hands-on research experience, stipend, and financial as...
The March for Science drew hundreds of thousands of participants worldwide to show support for scientific research and demand continued government funding. The event highlighted the importance of collaborative initiatives in advancing scientific progress.
Researchers analyzed 270 studies and found a mixed picture of nanoparticles' behavior, with their reactions depending on acidity, mineral concentration, and organic substances. The data is inconsistent, insufficiently diverse, and poorly structured, hindering universal predictions.
A prototype device has been developed to remove asphaltenes from crude oil, addressing costly pipeline blockages. The device uses electrokinetics to attract and remove the solidified molecules, improving flow rates and reducing pressure requirements.
A mathematical model shows that injections of peptide CK2.3 can increase bone formation and decrease bone degradation, potentially treating osteoporosis. The researchers used a combination of biological and mathematical models to calculate ideal dosages for humans and mice, aiming to develop a promising remedy for the condition.
Scientists at Northwestern University and University of Michigan report creating the most complex nanoparticle crystal ever made, with potential applications in controlling light, capturing pollutants, and delivering therapeutics. The crystal structure was achieved through a combination of DNA technology and controlled nanoparticle shape.