Chemistry professor Jeffrey Moore, graduate student Joshua Grolman and materials science and engineering professor Kristopher Kilian led a research team to create a new synthetic tissue environment for more realistic cell biology research.
Tumors are notoriously difficult to study in their natural habitat – body tissues – but a new synthetic tissue environment may give cancer researchers the next-best look at tumor growth and behavior.
Carl R. Woese Institute for Genomic Biology faculty members Saurabh Sinha, a professor of computer science, left; and Gene Robinson, a professor of entomology and IGB director; and their colleagues warn that genomics data will likely surpass other Big Data in scale.
Each cell in the body contains a whole genome, yet the data packed into a few DNA molecules could fill a hard drive. As more people have their DNA sequenced, that data will require massive computational and storage capabilities beyond anything previously anticipated, says a new assessment from computational biologists and computer scientists at the University of Illinois and Cold Spring Harbor Laboratory.
Groundwater from three main aquifers in the United States contributes to food shipped across the country and around the globe, says a new study from civil and environmental engineers at Illinois and Lehigh University.
Thirsty cities, fields and livestock drink deeply from aquifers, natural sources of groundwater. But a study of three of the most-tapped aquifers in the United States shows that overdrawing from these resources could lead to difficult choices affecting not only domestic food security but also international markets.
Dr. Stephen Boppart led a team that developed a new medical imaging device that can see individual cells in the back of the eye to better diagnose and track disease.
Eye doctors soon could use computing power to help them see individual cells in the back of a patient’s eye, thanks to imaging technology developed by engineers at the University of Illinois. Such detailed pictures of the cells, blood vessels and nerves at the back of the eye could enable earlier diagnosis and better treatment for degenerative eye and neurological diseases.
Scientists discovered that gut microbes, gene expression and enzyme activity all differ between rotation-resistant rootworms and their rotation-susceptible counterparts.
After decades of effort, scientists are finally figuring out how insects develop resistance to environmentally friendly farming practices – such as crop rotation – that are designed to kill them. The researchers say their insights will help develop more sustainable agricultural practices.
Pictured, from left: Professor Huimin Zhao, professor Charles Schroeder, graduate students Luke Cuculis and Zhanar Abil.
Searching a whole genome for one particular sequence is like trying to fish a specific piece from the box of a billion-piece puzzle. Using advanced imaging techniques, University of Illinois researchers have observed how one set of genome-editing proteins finds its specific targets, which could help them design better gene therapies to treat disease.
Illinois chemistry professor Martin Burke led a research team that found derivatives of a widely used but highly toxic antifungal drug. The new compounds are less toxic yet evade resistance.
New compounds that specifically attack fungal infections without attacking human cells could transform treatment for such infections and point the way to targeted medicines that evade antibiotic resistance.
A 1922 clash between Albert Einstein and Henri Bergson, both celebrated thinkers of the early 20th century, caused a split between science and the humanities that has never healed, says science historian Jimena Canales, in a new book.
Two of the 20th century’s greatest minds, one of them physicist Albert Einstein, came to intellectual blows one day in Paris in 1922. Their dispute, before a learned audience, was about the nature of time – mostly in connection with Einstein’s most famous work, the theory of relativity, which marks its centennial this year.
A device is remotely triggered to self-destruct. A radio-frequency signal turns on a heating element at the center of the device. The circuits dissolve completely.
University of Illinois researchers have developed heat-triggered self-destructing electronic devices, a step toward greatly reducing electronic waste and boosting sustainability in device manufacturing. They also developed a radio-controlled trigger that could remotely activate self-destruction on demand.
Illinois chemists developed a method to make tiny silicone microspheres using misting technology found in household humidifiers. The spheres could have applications in targeted medicine and imaging.
Technology in common household humidifiers could enable the next wave of high-tech medical imaging and targeted medicine, thanks to a new method for making tiny silicone microspheres developed by chemists at the University of Illinois.