Researchers at the University of Chicago have developed a new spectroscopy method that has the potential to help scientists better understand certain molecular processes, ultimately helping them create future treatments for different viruses.Read More
Science Market Update
The University of Illinois, Chicago is highlighted time and time again in Science Market Update for its researchers' critical discoveries and and contributions to science. But what about the grants and awards that go into funding these projects? Read on to discover the Top 5 Funding Facts you need to know about UIC:
Low-density Lipoprotein (LDL) has been considered to be the major cause of heart disease. However, Professor Fred Kummerow from the University of Illinois recently drew a different conclusion on this issue based on his six-decades research.
Gene manipulation is a very fine-tuned science that is prevalent in all sorts of biotechnological lab work. We often think of genes as controlling a very precise function or set of functions; for instance, the particular gene responsible for damaging tissue in gum disease, which we looked at in a previous Ohio State blog, or the gene responsible for pollination features in bees, which we saw in an earlier Michigan State blog. Now a research project from University of Illinois, Chicago introduces a way to delve deeper than even the gene level and look at the roles of individual molecules that the genes influence.
To understand the complex working of biological molecules, sharp images are the key. Electron microscopes do a good job when it comes to inorganic compounds but don’t lend quite as easily to organic molecules, especially if you want to view them alive and in action. Researchers at the University of Illinois, Chicago have developed a new method for imaging biomolecules that solves many of the current problems in the field.
It doesn’t take an environmentalist to realize that plastic bags are an environmental hazard. They are notorious for tangling the throats and limbs of animals, and it’s nearly impossible to dispose of them properly since they don’t biodegrade. A new method developed by researchers at the University of Illinois, Urbana-Champaign does one better than disposal: it converts the bags straight into biofuel.
For many of the 366 million people around the world who have been diagnosed with type 2 diabetes, insulin injections are an unfortunate but often necessary routine. However, the most recent lab reports from the University of Illinois, Chicago show that in many people, the insulin they need is right inside their own cells, just waiting to be released.
With the multitudes of green methods and practices available to labs today, it’s simply a waste not to take full advantage of them. We recently discussed the growing prevalence of this technology on college campuses in our blog MSU Green Chemistry Finds Renewable Energy in Biowaste. This week, the University of Illinois at Chicago joins the scene with a revamping of their Science and Engineering Laboratories Complex focused on energy efficiency and conservation.
Depending on who you ask, antibiotics are the best and worst defense against disease-bearing bacteria. On the one hand, they are very effective and easy to administer. Unfortunately, the more we use them, the more bacteria learn to thrive in a so-called “antibacterial” environment, culminating in a worst-case scenario where all bacteria are entirely resistant to antibiotics. Fighting against that future are bioresearchers from the University of Illinois, Chicago, who are pursuing more clever ways to prevent microbes from diseasing us.
Bioresearchers at the University of Illinois at Urbana-Champaign have invented an ingenious method for shining light on one of the most mysterious organs we have: the brain. Their tool of choice is a thin, flat LED that can be seamlessly and innocuously injected, causing minimum invasiveness and disturbance. The LEDs will help advance our understandings of bodily organs like the brain through the field of optogenetics.