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  • A three-dimensional image of an etched gallium-arsenide semiconductor, taken during etching with a new microscopy technique that monitors the etching process on the nanometer scale. The height difference between the orange and purple regions is about 250 nanometers.

    New method monitors semiconductor etching as it happens – with light

    CHAMPAIGN, Ill. — University of Illinois researchers have a new low-cost method to carve delicate features onto semiconductor wafers using light – and watch as it happens.

  • Professor Tandy Warnow developed a new statistical method that sorts genetic data to construct better species trees detailing genetic lineage.

    New method helps map species' genetic heritage

    CHAMPAIGN, Ill. - Where did the songbird get its song? What branch of the bird family tree is closer to the flamingo - the heron or the sparrow?

  • New material could enhance fast and accurate DNA sequencing

    CHAMPAIGN, Ill. - Gene-based personalized medicine has many possibilities for diagnosis and targeted therapy, but one big bottleneck: the expensive and time-consuming DNA-sequencing process.

  • Illinois professor Nick Fang developed a two-dimensional acoustic cloak that makes objects in the center invisible to sonar and other ultrasound waves.

    Newly developed cloak hides underwater objects from sonar

    CHAMPAIGN, Ill. - In one University of Illinois lab, invisibility is a matter of now you hear it, now you don't.

  • Researchers found that a class of molecules called sphingolipids congregate in large patches in the cell membrane. Red and yellow colors indicate local elevations in the sphingolipid abundance.

    New look at cell membrane reveals surprising organization

    CHAMPAIGN, Ill. - Sight would dramatically alter a blind man's understanding of an elephant, according to the old story. Now, a look directly at a cell surface is changing our understanding of cell membrane organization.

  • New life for EBICS project will create bio-machines to improve health

    By studying the behavior of living cells and combining them with synthetic tissue, researchers are creating “biological machines” to deliver drugs more effectively, function as internal diagnostic tools or serve as contaminant sensors in the field.

  • Jian-Min (Jim) Zuo, a professor of materials science and engineering, has developed a new imaging technique that can reveal the atomic structure of a single nanocrystal with a resolution of less than one angstrom (less than one hundred-millionth of a centimeter).

    New imaging technique reveals the atomic structure of nanocrystals

    CHAMPAIGN, Ill. - A new imaging technique developed by researchers at the University of Illinois overcomes the limit of diffraction and can reveal the atomic structure of a single nanocrystal with a resolution of less than one angstrom (less than one hundred-millionth of a centimeter).

  • Illinois researchers developed a novel imaging technique that can quantitatively measure cell mass with light.

    New imaging method sheds light on cell growth

    CHAMPAIGN, Ill. - University of Illinois researchers are giving a light answer to the heavy question of cell growth.

  • Postdoctoral researcher Jaemin Kim, professor of chemical and biomolecular engineering Yang Hong and graduate student Pei-Chieh (Jack) Shih are part of a team that developed a new material that helps split water molecules for hydrogen fuel production.

    New, highly stable catalyst may help turn water into fuel

    Breaking the bonds between oxygen and hydrogen in water could be a key to the creation of hydrogen in a sustainable manner, but finding an economically viable technique for this has proved difficult. Researchers report a new hydrogen-generating catalyst that clears many of the obstacles – abundance, stability in acid conditions and efficiency.

  • Electrical and computer engineering professor Can Bayram, left, and graduate student Kihoon Park led a study that redefines the thermal properties of gallium nitride semiconductors.

    New heat model may help electronic devices last longer

    A University of Illinois-based team of engineers has found that the model currently used to predict heat loss in a common semiconductor material does not apply in all situations. By testing the thermal properties of gallium nitride semiconductors fabricated using four popular methods, the team discovered that some techniques produce materials that perform better than others. This new understanding can help chip manufacturers find ways to better diffuse the heat that leads to device damage and decreased device lifespans.

  • Illinois researchers developed a new drug candidate that targets a receptor inside sarcoma cancer cells. Pictured are graduate student Fatimeh Ostadhossein and bioengineering professor Dipanjan Pan.

    New drug seeks receptors in sarcoma cells, attacks tumors in animal trials

    A new compound that targets a receptor within sarcoma cancer cells shrank tumors and hampered their ability to spread in mice and pigs, a study from researchers at the University of Illinois reports.

  • A new climate model that makes projections specific to urban areas predicts that by the end of this century, average warming across global cities will increase by 1.9 degrees Celsius to 4.4 C, depending on the rate of emissions.

    New data-driven global climate model provides projections for urban environments

    Cities only occupy about 3% of the Earth’s total land surface, but they bear the burden of the human-perceived effects of global climate change, researchers said. Global climate models are set up for big-picture analysis, leaving urban areas poorly represented. In a new study, researchers take a closer look at how climate change affects cities by using data-driven statistical models combined with traditional process-driven physical climate models.

  • Illinois researchers created a system using CRISPR technology to selectively turn off any gene in Saccharomyces yeast. Pictured, from left: chemical and biomolecular engineering professor Huimin Zhao, graduate students Mohammad Hamedi Rad, Zehua Bao, Pa Xue and Ipek Tasan.

    New CRISPR technology ‘knocks out’ yeast genes with single-point precision

    The CRISPR-Cas9 system has given researchers the power to precisely edit selected genes. Now, researchers have used it to develop a technology that can target any gene in the yeast Saccharomyces cerevisiae and turn it off by deleting single letters from its DNA sequence.

  • Illinois researchers adapted CRISPR gene-editing technology to help a cell skip over mutated portions of genes. From left, professor Pablo Perez-Pinera, graduate student Alan Luu, professor Jun Song and graduate student Michael Gapinske.

    New CRISPR technique skips over portions of genes that can cause disease

    In a new study in cells, University of Illinois researchers have adapted CRISPR gene-editing technology to cause the cell’s internal machinery to skip over a small portion of a gene when transcribing it into a template for protein building. This gives researchers a way not only to eliminate a mutated gene sequence, but to influence how the gene is expressed and regulated.

    Such targeted editing could one day be useful for treating genetic diseases caused by mutations in the genome, such as Duchenne’s muscular dystrophy, Huntington’s disease or some cancers.

  • Illinois researchers demonstrated a CRISPR gene-editing technique that slowed the progression of ALS in mice. Pictured, from left: graduate student Colin Lim, professor Thomas Gaj, graduate student Michael Gapinske, professor Pablo Perez-Pinera.

    New CRISPR base-editing technology slows ALS progression in mice

    A new CRISPR gene-editing method can inactivate one of the genes responsible for an inherited form of ALS, scientists at the University of Illinois at Urbana-Champaign report in a new study. The novel treatment slowed disease progression, improved muscle function and extended lifespan in mice with an aggressive form of ALS.

  • Inspired by the eye of the morpho butterfly, a new camera that can see both visible and infrared light could help surgeons more easily identify cancerous tissue.

    New camera gives surgeons a butterfly’s-eye view of cancer

    Cancer lurking in tissue could be more easily found when looking through a butterfly’s eye.

  • Researchers at a table with various models of new multimaterial devices.

    New approach to flexible robotics and metamaterials design mimics nature, encourages sustainability

    A new study challenges the conventional approach to designing soft robotics and a class of materials called metamaterials by utilizing the power of computer algorithms. Researchers from the University of Illinois Urbana-Champaign and Technical University of Denmark can now build multimaterial structures without dependence on human intuition or trial-and-error to produce highly efficient actuators and energy absorbers that mimic designs found in nature.

  • A new study from engineers at the University of Illinois, Urbana-Champaign uses simple experiments to explain how a better understanding of flowing motion of soft materials will help design new materials and could help predict some natural disasters.

    New approach to explaining soft material flow may yield way to new materials, disaster prediction

    How does toothpaste stay in its tube and not ooze out when we remove the cap? What causes seemingly solid ground to suddenly break free into a landslide? Defining exactly how soft materials flow and seize has eluded researchers for years, but a new study explains this complex motion using relatively simple experiments. The ability to define – and eventually predict – soft material flow will benefit people dealing with everything from spreadable cheese to avalanches.

  • Portrait of the researchers that participated in the study

    New analytical technique helps researchers spot subtle differences in subcellular chemistry

    Researchers at the University of Illinois Urbana-Champaign can now rapidly isolate and chemically characterize individual organelles within cells. The new technique tests the limits of analytical chemistry and rapidly reveals the chemical composition of organelles that control biological growth, development and disease. 

  • Industrial and enterprise systems engineering professor Lavanya Marla and her team have developed models to help the airline industry create schedules that are less susceptible to delay and easier to fix once disrupted.

    New aircraft-scheduling models may ease air travel frustrations

    Flight schedules that allow for a little carefully designed wiggle room could prevent the frustration of cascading airport delays and cancellations. By focusing on the early phases of flight schedule planning and delays at various scales, researchers have developed models to help create schedules that are less susceptible to delays and easier to fix once disrupted.

  • Researchers at Illinois, led by Paul Braun, a professor of materials science and engineering and of chemistry, have demonstrated the first optoelectronically active 3-D photonic crystal.

    New 3-D photonic crystals have both electronic and optical properties

    CHAMPAIGN, Ill. - In an advance that could open new avenues for solar cells, lasers, metamaterials and more, researchers at the University of Illinois have demonstrated the first optoelectronically active 3-D photonic crystal.

  • Portrait of postdoctoral researcher Pengcheng Sun

    New 3D microbatteries stand up to industry standard thin-film counterparts

    The thin-film lithium-ion batteries used in microdevices such as portable and medical electronics may supply a good amount of power relative to their mass, but do not provide enough power for many devices due to their limited size. Researchers have introduced a fabrication process that builds microbatteries with thick, 3D electrodes using lithography and electrodeposition – and seals each unit in a gel electrolyte-filled package. The new prototype shows the highest peak power density of any reported microbatteries, the researchers said.

  • A colored microscope image depicting a green nerve surrounded by red and blue muscle cells.

    Nerves prompt muscle to release factors that boost brain health

    Exercise prompts muscles to release molecular cargo that boosts brain cell function and connection, but the process is not well understood. New research from the University of Illinois Urbana-Champaign found that the nerves that tell muscles to move also prompt them to release more of the brain-boosting factors.

  • Schematic representation of phase segregated InGaAs/InAs nanowires grown on graphene and single phase InGaAs nanowires grown on a different substrate

    Nanowires grown on graphene have surprising structure

    CHAMPAIGN, Ill. - When a team of University of Illinois engineers set out to grow nanowires of a compound semiconductor on top of a sheet of graphene, they did not expect to discover a new paradigm of epitaxy.

  • InGaAs: Solar cells (bottom) made with arrays of nanowires. Engineers can tune the performance by using nanowires of differing composition and thickness (top).

    Nanowires could be solution for high- performance solar cells

    CHAMPAIGN, Ill. - Tiny wires could help engineers realize high-performance solar cells and other electronics, according to University of Illinois researchers.

  • Electrical and computer engineering professor Joseph Lyding led the research team that developed a way to heal gaps in wires too small for even the world's tiniest soldering iron.

    Nanotubes can solder themselves, markedly improving device performance

    CHAMPAIGN, Ill. - University of Illinois researchers have developed a way to heal gaps in wires too small for even the world's tiniest soldering iron.

  • An array of nanopillars etched by thin layer of grate-patterned metal creates a nonreflective surface that could improve electronic device performance.

    Nanostructured metal coatings let the light through for electrical devices

    Light and electricity dance a complicated tango in devices like LEDs, solar cells and sensors. A new anti-reflection coating developed by engineers at the University of Illinois at Urbana Champaign, in collaboration with researchers at the University of Massachusetts at Lowell, lets light through without hampering the flow of electricity, a step that could increase efficiency in such devices.

  • An artist's rendering of a nanostimulator attached to a fat-derived stem cell in damaged muscle tissue.

    Nanostimulators boost stem cells for muscle repair

    In regenerative medicine, an ideal treatment for patients whose muscles are damaged from lack of oxygen would be to invigorate them with an injection of their own stem cells.

    In a new study published in the journal ACS Nano, researchers at the University of Illinois at Urbana-Champaign demonstrated that “nanostimulators” – nanoparticles seeded with a molecule the body naturally produces to prompt stem cells to heal wounds – can amp up stem cells’ regenerative powers in a targeted limb in mice.

  • Graduate student Binxin Fu, left, and civil and environmental engineering professor Rosa Espinosa-Marzal

    Nanoscale observations simplify how scientists describe earthquake movement

    Using single calcite crystals with varying surface roughness allows engineers to simplify the complex physics that describes fault movement. In a new study from the University of Illinois Urbana-Champaign, researchers show how this simplification may lead to better earthquake prediction.

  • Illinois professor Narayana Aluru led a team that found that tiny pores in thin sheets of the material molybdenum disulfide could be very good at removing salt from seawater to yield drinkable water.

    Nanopores could take the salt out of seawater

    University of Illinois engineers have found an energy-efficient material for removing salt from seawater that could provide a rebuttal to poet Samuel Taylor Coleridge’s lament, “Water, water, every where, nor any drop to drink.”

  • University of Illinois researchers developed a method to detect and map DNA methylation, which can be a sign of cancer, by threading the DNA through a tiny hole in a thin sheet of conductive material with a current running through it.

    Nanopores could map small changes in DNA that signal big shifts in cancer

    Detecting cancer early, just as changes are beginning in DNA, could enhance diagnosis and treatment as well as further our understanding of the disease. A new study by University of Illinois researchers describes a method to detect, count and map tiny additions to DNA called methylations, which can be a warning sign of cancer, with unprecedented resolution.

  • Nanofibers of metal oxide provide lots of highly reactive surface area for scrubbing sulfur compounds from fuel. Sulfur has to be removed because it emits toxic gasses and corrodes catalysts.

    Nanofibers clean sulfur from fuel

    CHAMPAIGN, Ill. - Sulfur compounds in petroleum fuels have met their nano-structured match.

  • Illinois researchers are part of multi-institutional team that found that solvents spontaneously react with metal nanoparticles to form reactive complexes that can improve catalyst performance and simultaneously reduce the environmental impact of chemical manufacturing.

    Mysterious organic scum boosts chemical reaction efficiency, may reduce chemical waste

    Chemical manufacturers frequently use toxic solvents such as alcohols and benzene to make products like pharmaceuticals and plastics. Researchers are examining a previously overlooked and misunderstood phenomenon in the chemical reactions used to make these products. This discovery brings a new fundamental understanding of catalytic chemistry and a steppingstone to practical applications that could someday make chemical manufacturing less wasteful and more environmentally sound.

  • Tiny walking "bio-bots" are powered by muscle cells and controlled by an electric field.

    Muscle-powered bio-bots walk on command

    CHAMPAIGN, Ill. - A new generation of miniature biological robots is flexing its muscle.

  • Materials science and engineering professor Qian Chen, center, and graduate students Binbin Luo, left, and Ahyoung Kim find inspiration in biology to help investigate how order emerges from self-assembling building blocks of varying size and shape.

    Multistep self-assembly opens door to new reconfigurable materials

    CHAMPAIGN, Ill. — Self-assembling synthetic materials come together when tiny, uniform building blocks interact and form a structure. However, nature lets materials like proteins of varying size and shape assemble, allowing for complex architectures that can handle multiple tasks.

     

  • Silicon solar panels are reaching their technological limit, but researchers are experimenting by combining silicon with other materials to squeeze more energy out of sunlight. Electrical and computer engineering professor Larry Lee led a new study that could boost the efficiency of consumer solar panels by 50%.

    Multi-institutional team extracts more energy from sunlight with advanced solar panels

    Researchers working to maximize solar panel efficiency said layering advanced materials atop traditional silicon is a promising path to eke more energy out of sunlight. A new study shows that by using a precisely controlled fabrication process, researchers can produce multilayered solar panels with the potential to be 1.5 times more efficient than traditional silicon panels.

  • Researchers tested 11 household fabrics that are commonly used for homemade masks and found that all are effective at curbing the small and large respiratory droplets that are released when we speak, cough or sneeze.

    Most homemade masks are doing a great job, even when we sneeze, study finds

    Studies indicate that homemade masks help combat the spread of viruses like COVID-19 when combined with frequent hand-washing and physical distancing. Many of these studies focus on the transfer of tiny aerosol particles; however, researchers say that speaking, coughing and sneezing generates larger droplets that carry virus particles. Because of this, mechanical engineer Taher Saif said the established knowledge may not be enough to determine how the effectiveness of some fabrics used in homemade masks.

  • Deborah Leckband

    'Molecular Velcro' enables tissues to sense, react to mechanical force

    The Velcro-like cellular proteins that hold cells and tissues together also perform critical functions when they experience increased tension. A new University of Illinois Urbana-Champaign study observed that when tugged upon in a controlled manner, these proteins – called cadherins – communicate with growth factors to influence in vitro tumor growth in human carcinoma cells.

  • Sheldon H. Jacobson

    Models predict optimal airplane seating for reduced viral transmission

    As airline ticket sales have soared during the holiday season and the omicron variant causes surges of COVID-19 cases, a new University of Illinois Urbana-Champaign study may help passengers and airlines reduce risk of COVID-19 transmission by optimally seating passengers to minimize potential virus spread. Researchers used the most current data on aerosol spread on airplanes to calculate optimal seating assignments for common Boeing aircraft at different capacities. 

  • Researchers Tatiana Garcia, a graduate student, and civil and environmental engineering professor Marcelo Garcia developed a model that predicts how Asian carp eggs will disperse after spawning that will help resource managers develop strategies for preventing spread of the invasive species to the Great Lakes.

    Model developed to track eggs of Asian carp, an invasive species

    CHAMPAIGN, Ill. - Asian carp are knocking on the door of the Great Lakes, but managers now can better pinpoint strategies to control their rapidly increasing population, according to a new model for tracking carp eggs developed by researchers at the University of Illinois and the United States Geological Survey.

  • 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.

    Mission possible: This device will self-destruct when heated

    Where do electronics go when they die? Most devices are laid to eternal rest in landfills. But what if they just dissolved away, or broke down to their molecular components so that the material could be recycled?

  • Illinois researchers developed a platform to grow and study neuron cells using tiny rolled microtubes. Pictured, left to right: Olivia Cangellaris, Paul Froeter, professor Xiuling Li, Wen Huang and professor Martha Gillette.

    Microtubes create cozy space for neurons to grow, and grow fast

    CHAMPAIGN, Ill. - Tiny, thin microtubes could provide a scaffold for neuron cultures to grow so that researchers can study neural networks, their growth and repair, yielding insights into treatment for degenerative neurological conditions or restoring nerve connections after injury.

  • Professor Brian Cunningham

    Microscope that detects individual viruses could power rapid diagnostics

    A fast, low-cost technique to see and count viruses or proteins from a sample in real time, without any chemicals or dyes, could underpin a new class of devices for rapid diagnostics and viral load monitoring, including HIV and the virus that causes COVID-19.

  • Joseph Lyding, a professor of electrical and computer engineering at the University of Illinois, led a group that developed a new microscope probe-sharpening technique.

    Microscope probe-sharpening technique improves resolution, durability

    CHAMPAIGN, Ill. - A simple new improvement to an essential microscope component could greatly improve imaging for researchers who study the very small, from cells to computer chips.

  • A photograph of an eBiobot prototype, lit with blue microLEDs.

    Microelectronics give researchers a remote control for biological robots

    First, they walked. Then, they saw the light. Now, miniature biological robots have gained a new trick: remote control. The hybrid “eBiobots” are the first to combine soft materials, living muscle and microelectronics, said researchers at the University of Illinois Urbana-Champaign, Northwestern University and collaborating institutions.

  • Photo of Yong-Su Jin in the laboratory

    Microbial division of labor produces higher biofuel yields

    Scientists have found a way to boost ethanol production via yeast fermentation, a standard method for converting plant sugars into biofuels. Their approach, detailed in the journal Nature Communications, relies on careful timing and a tight division of labor among synthetic yeast strains to yield more ethanol per unit of plant sugars than previous approaches have achieved.

  • Illinois professors Nancy Sottos and Andrew Gerwith developed a method to comprehensively measure the mechanical stress and strain in lithium-ion batteries. It revealed a point of stress in charging that, if addressed through new methods or materials, could lead to faster-charging batteries.

    Method opens a window on how stress and strain affect battery performance

    Batteries that charge faster and have greater capacity could boost portable electronic devices and electric cars. A new method to simultaneously test stress and strain in battery electrodes gives researchers a window into the mechanical, electrical and chemical forces within lithium-ion batteries. The method revealed an unexpected point of stress in the charging cycle, which could guide development of better batteries.

  • flaherty_bregante

    Metal-ion catalysts and hydrogen peroxide could green up plastics production

    Researchers at the University of Illinois are contributing to the development of more environmentally friendly catalysts for the production of plastic and resin precursors that are often derived from fossil fuels. The key to their technique comes from recognizing the unique physical and chemical properties of certain metals and how they react with hydrogen peroxide.

  • Memory advance would extend mobile-device battery life

    CHAMPAIGN, Ill. - Technophiles who have been dreaming of mobile devices that run longer on lighter, slimmer batteries may soon find their wish has been granted.

  • Hokusai’s woodblock print “The Great Wave off Kanagawa,” showing an artistic rendering of a deep blue tsunami wave

    Mechanical engineers lend fresh insight into battery-based desalination technology

    To achieve more effective saltwater desalination, mechanical engineers focused on fluid movement rather than new materials in a new study. By adding microchannels to the inside of battery-like electrodes made of Prussian blue – an intense blue pigment often used in art that also has special chemical properties – researchers increased the extent of seawater desalination five times over their non-channeled counterparts to reach salinity levels below the freshwater threshold.