Researchers at the University of Colorado Boulder have successfully added a fourth dimension to their printing technology, opening up exciting possibilities for the creation and use of adaptive, composite materials in manufacturing, packaging and biomedical applications.
A pair of breakthroughs in the field of silicon photonics by researchers at the University of Colorado Boulder, the Massachusetts Institute of Technology and Micron Technology Inc. could allow for the trajectory of exponential improvement in microprocessors that began nearly half a century ago—known as Moore’s Law—to continue well into the future, allowing for increasingly faster electronics, from supercomputers to laptops to smartphones.
CU-Boulder’s newest residence hall, Kittredge Central, is welcoming students this week for the first time, 53 of whom are engineering students and will be immersed in Spanish through the building’s new Residential Academic Program, or RAP. Also, the nearby Kittredge West residence hall is reopening this week after renovations. Both buildings comprise a number of “green” features to improve water and energy efficiency and to reduce the campus’s carbon footprint.
A decade ago, John Giacomoni was working as a professional research assistant in the Software Engineering Research Lab at the University of Colorado Boulder when the group took on a problem they couldn’t afford to solve.
Giacomoni was working in Professor Alexander L. Wolf’s lab and their task was to build a system that could secure the campus from electronic attacks. As the scope of the project expanded, they soon discovered the specialty hardware they needed to continue was a budget buster.
A Colorado student space research consortium led by the University of Colorado Boulder teamed up with a Virginia space consortium led by the University of Virginia this week to help aspiring rocket scientists from around the country learn how to design, build and fly payloads.
When praying mantises, dragonflies, ants and other insects peer out at the world, their bulging, compound eyes allow them to see an incredibly wide field of view with an almost infinite depth of field.
Imitating the functionality of an insect eye — which is really a collection of many tinier eyes, known as ommatidia — in a camera has been a long sought-after goal for engineers. Now, camera lenses with wide fields of view, such as fisheye lenses, create distortion around the edges of the image.
To find the answer, he went about building experiments. He tried to test the impact of the fields on E. coli, on cancer cells, on fruit flies and even on mice. But he quickly ran into a problem: The magnetic fields in the biological incubators he was using weren’t consistent. In fact, they weren’t even close.
It took at least 1,000 hours of work but the result is stunning.
During the 2011-12 academic year, engineering students in Andrews Hall started an extracurricular project to build a “grand orrery,” a mechanical planetary system that illustrates the relative positions and motions of both the inner and outer planets.