The Mathematics Behind Imaging
An interesting, but very challenging kind of imaging is to visualize the interior of a non-transparent object (such as a human body) using physical fields measured outside the body. This imaging is achieved through a mathematical engine known as "inverse problems solving" or "statistical optimization", one of the key research directions at the SCI Institute.
Another research direction being pursued at the SCI Institute is solving "ill-posed" imaging problems by constraining the solution with focusing criterion. This allows us to reconstruct sharp solutions out of smooth data. The process is made possible by selecting special stabilizing functions that permit sharp solutions. Applications of this technique range from bioelectric source localization utilizing magneto and electro -encephalography data for medical imaging, to geophysical inversions with gravity and magnetic fields.
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New Methods for Revealing Brain Structure
By Gordon Kindlmann.

SCI Undergrads Present Before State Legislature

“This is a great opportunity for both students and University alike,” says Ronald J.Pugmire. Associate Vice President for Research. “Not only are we given the opportunity to show off our undergraduate programs, but the students are given both the chance to represent their research to their elected officials as well as an early glimpse into the collaboration of education and government.”
SCI Institute Appeals to Local Business Leadership for Increases In State Funding

He described the history of biomedical devices from EEG to MRI. The talk also included the story of a real patient treated in part with technology developed here at the SCI Institute. Dr. Johnson described the case of Sarah, a child diagnosed with a tumor near the top of her spinal column. In such cases, doctors are only able to see sets of two-dimensional slices generated from an MRI. The physician must then reconstruct a three-dimensional image from those slices. Using technology developed at the SCI Institute, the team of physicians was not only able to see the tumor in full three-dimensions, but they were also able to use stereo glasses to “virtually” maneuver inside of the MRI. The combination of these technologies gave the surgeons a much clearer visualization and persuaded them to alter how they were going to operate.
SCI Institute Hosts Governor to Launch Ambitious Engineering Educational Initiative

SCI Institute Director Gives Plenary Talk on Visualization at Supercomputing 2001

BISTI Grant Awarded to SCI

SCI and the Governor's New Ecosystem

SCI Institute Establishes Access Grid Node

Today's Tools - Tomorrow's Scientists: An ImageVis3D Project

In this year's high school summer intern program, the SCI Institute invited four students, one each from Juan Diego Catholic High School, The Waterford School, and two from West High School. These students were given the opportunity to work with a lead software developer from the National Institutes of Health (NIH) sponsored Center for Integrative Biomedical Computing (CIBC). Their task seemed simple: take Seg3D and ImageVis3D (two advanced software tools developed by the CIBC), find a dataset of interest to the student, load that data, and experiment with the software on both desktop and iPad versions. And then, present your results to your high school peers. In the end, the students learned that research is a full-contact sport, not just a homework assignment. They had to 'dig-in', expand their knowledge, and learn about their subjects of interest, their data, their software, even their computers. In the end, the students translated this process and knowledge to science classes at their school. And, the top question after the presentations? Oddly enough, "how do I get an internship like yours?" Kids excited about a science internship! Mission Accomplished.