game-changing tech

New software for facial surgery developed at Houston hospital gets FDA approval

A software technology coming out of Houston Methodist is revolutionizing a particularly complex type of surgery. Photo via houstonmethodist.org

A new technology is helping Houston surgeons with a complicated surgery process — and the software recently got clearance from the U.S. Food and Drug Administration.

The AnatomicAligner, a software program designed to improve planning for craniomaxillofacial surgeries, was developed at Houston Methodist and was funded in part by Houston Methodist's Translational Research Initiative, which is a fund that's dedicating $30 million to product development of promising medical technologies.

The hospital received FDA clearance to market the software, making Houston Methodist a member of an elite group of academic medical centers with an approved medical technology ready for market access, according to a news release.

The technology was developed by Dr. James Xia, professor of oral and maxillofacial surgery, and Dr. Jaime Gateno, chair of the Department of Oral & Maxillofacial Surgery and professor of oral and maxillofacial surgery.

The AnatomicAligner uses computer graphics and modeling technologies to simulate the entire surgery artificially with a goal of allowing surgeons to practice and plan their technique. In addition to TRI funding, Xia and Gateno also received nearly $10 million in funding from the National Institute of Craniofacial and Dental Research, per the release, to develop the methodology and the AnatomicAligner software system.

Craniomaxillofacial surgeries correct congenital and acquired deformities of the skull and face — including those acquired from trauma or congenital abnormalities, such as cleft lip and palate.

"Due to the complex nature of the CMF skeleton, it requires extensive presurgical planning," write the researchers in a description of the technology. "Unfortunately, the traditional planning methods, e.g. prediction tracings and simulating surgery on stone models have remained unchanged over the last 50 years."

The researchers have plans to share their findings in order to improve CMF — as well as other orthopedic surgeries — for the world.

"The success of AnatomicAligner will lead to a new class of imaging informatics platform for CMF surgery. This platform can also be transformed to orthopedic surgery and other medical specialties," the description continues. "Once completed, the software will be freely downloaded from internet by research community.

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Building Houston

 
 

At-home COVID-19 testing is about to get lit. Photo via Getty Images

A Houston-based research team is tapping glow-in-the-dark materials to upgrade at-home rapid COVID-19 testing.

Researchers at the University of Houston have been rethinking the lateral flow assay (LFA) test used for at-home COVID-19 diagnostics. The traditional method indicates the sample's results with colored lines.

“We are making those lines glow-in-the-dark so that they are more detectable, so the sensitivity of the test is better,” says Richard Willson, a professor at the University of Houston, in a UH news release. He previously created a smartphone-based diagnostics app.

Willson's inspiration came from a familiar and nostalgic method — the glow-in-the-dark stars in a child's bedroom. In Willson's case, it was his daughter's bedroom, and within a few days his team of students and postdocs was designing a test featuring glowing nanoparticles made of phosphors.

The team evolved into a spin-off company called Clip Health, originally founded as Luminostics by two of the researchers. The operation is again evolving with new glowing applications.

“In this new development, there are two tricks. First, we use enzymes, proteins that catalyze reactions, to drive reactions that emit light, like a firefly. Second, we attached those light-emitting enzymes onto harmless virus particles, along with antibodies that bind to COVID proteins,” says Willson in the Royal Society of Chemistry’s journal Analyst.

The test now also can be read with a smartphone app. The group is also entertaining additional tests for other diseases.

“This technology can be used for detecting all kinds of other things, including flu and HIV, but also Ebola and biodefense agents, and maybe toxins and environmental contaminants and pesticides in food,” says Willson.

In addition to Willson, the original technology was explained in a paper with co-authors:

  • Katerina Kourentzi, University of Houston research associate professor of chemical and biomolecular engineering
  • Jacinta Conrad, Frank M. Tiller Associate Professor of Chemical and Biomolecular Engineering,
  • UH researchers Maede Chabi, Binh Vu, Kristen Brosamer, Maxwell Smith, and Dimple Chavan

Researcher Richard Willson says he was inspired by the glow-in-the-dark scars on his daughter's bedroom ceiling. Photo via UH.edu

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