Houston-based research organization taps video game makers to advance space medicine

out-of-this-world tech

A Houston space medicine research organization has partnered with a video game maker that has created surgery simulation technology. Photo via levelex.com

A Houston-based organization affiliated with NASA has teamed up with a video game company to advance virtual simulation in space medicine.

The Translational Research Institute for Space Health, known as TRISH, in partnership with NASA in a consortium led by Baylor College of Medicine, California Institute of Technology in Pasadena, and Massachusetts Institute of Technology in Cambridge has advanced a new approach for space medicine using video game technology by collaborating with video game company, Level Ex.

"We discovered Level Ex through a process of landscaping the many virtual simulation companies that were out there," says Andrew Peterman Director of Information System at TRISH. "We especially noted those that were on the cutting edge of the technology."

Based in Houston, TRISH aims to collaborate with the best and the brightest to revolutionize space health, providing grants to companies with innovative concepts. With Level Ex, they found a new approach to decode earthly medical technologies in space.

Level Ex, a Chicago-based company created in 2015 was founded to provide training games for doctors to use to practice surgeries and procedures. The games are interactive, with the virtual patient reacting to the actions of the player. The training simulations consist of in-depth and physics-driven medical simulations that are verified by doctors in their advisory board.

"We're hoping to completely change the ways that doctors stay up to speed," says Level Ex founder-and-CEO Sam Glassnberg.

With their ongoing collaboration with TRISH, they have a challenge that's out of this world. In space, astronauts have limited space for medical tools and run on a limited crew. This makes providing basic medical training to all astronauts especially important.

Especially since the body begins to react to the new environmental conditions of space missions. The effects can be small or lead to new changes or challenges for astronauts who take on long-range missions. Astronauts may see their bodies slowly start to lose bone and muscle mass. Their fluid begins to shift toward their head, leading to increased risks of hypertension and thrombosis.

All of these are challenges NASA is working to address with the help of gaming technology from Level Ex that innovates the technology with higher-level capability and training. Combining video game technology and medical simulation applications to incorporate and explore the interplay of environmental conditions found in space.

"What we really liked about Level Ex is that they have an amazing team both on the clinical and technical side, says Peterman. "They are a group of former big-name game developers who along with clinical experts have married technology and medicine with their platform producing full in engine physics-driven real simulations rather than video playback."

The astronauts will train using simulations that allow them to practice a procedure in zero gravity conditions and even simulate the gravity conditions of Mars. The game will also allow astronauts to get their own on-screen avatar with their medical information thus allowing fellow astronauts to gain more practice and experience with fewer variables in space.

The advanced medical simulation platform has potential for commercial uses on earth, improving the range of the technology to simulate new, rare, and complex scenarios across a range of medical specialties, allowing doctors to practice a range of difficult scenarios without putting patient lives at risk.

Peterman says that the partnership is expected to continue into the future for immediate applications along with other innovations in astronaut healthcare, including autonomous frameworks to provide medical knowledge in outer space.

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TMC lands $3M grant to launch cancer device accelerator

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A new business accelerator at Houston’s Texas Medical Center has received a nearly $3 million grant from the Cancer Prevention and Research Institute of Texas.

The CPRIT grant, awarded to the Texas Medical Center Foundation, will help launch the Accelerator for Cancer Medical Devices. The accelerator will support emerging innovators in developing prototypes for cancer-related medical devices and advancing them from prototype to clinical trials.

“The translation of new cancer-focused precision medical devices, often the width of a human hair, creates the opportunity to develop novel treatments for cancer patients,” the accelerator posted on the CPRIT website.

Scientist, consultant, and entrepreneur Jason Sakamoto, associate director of the TMC Center for Device Innovation, will oversee the accelerator. TMC officials say the accelerator builds on the success of TMC Innovation’s Accelerator for Cancer Therapeutics.

Each participant in the Accelerator for Cancer Medical Devices program will graduate with a device prototype, a business plan, and a “solid foundation” in preclinical and clinical strategies, TMC says. Participants will benefit from “robust support” provided by the TMC ecosystem, according to the medical center, and “will foster innovation into impactful and life-changing cancer patient solutions in Texas and beyond.”

In all, CPRIT recently awarded $27 million in grants for cancer research. That includes $18 million to attract top cancer researchers to Texas. Houston institutions received $4 million for recruitment:

  • $2 million to the University of Texas MD Anderson Cancer Center to recruit Rodrigo Romero from Memorial Sloan Kettering Cancer Center in New York City
  • $2 million to MD Anderson to recruit Eric Gardner from Weill Cornell Medicine in New York City

A $1 million grant also went to Baylor College of Medicine researcher Dr. Akiva Diamond. He is an assistant professor at the medical college and is affiliated with Baylor’s Dan L. Duncan Comprehensive Cancer Center.

Musk’s SpaceX spends $17B to acquire spectrum licenses from EchoStar

SpaceX Update

Elon Musk’s SpaceX has reached a deal worth about $17 billion with EchoStar for spectrum licenses that it will use to beef up its Starlink satellite network.

The deal for EchoStar’s AWS-4 and H-block spectrum licenses includes up to $8.5 billion in cash and up to $8.5 billion in SpaceX stock. SpaceX will make approximately $2 billion in cash interest payments on EchoStar debt through November 2027.

SpaceX and EchoStar will enter into a long-term commercial agreement which will allow EchoStar’s Boost Mobile subscribers to access SpaceX’s next generation Starlink Direct to Cell service.

Shares of EchoStar surged 19% before the market opened Monday.

Last month AT&T said that it will spend $23 billion to acquire wireless spectrum licenses from EchoStar, a significant expansion of its low- and mid-band coverage networks.

EchoStar said that it anticipates that the AT&T deal and the SpaceX transaction will resolve recent inquiries from the Federal Communications Commission about the rollout of 5G technology in the U.S. The FCC had been calling for hearings on whether Echostar was properly using the spectrum that it is now selling, and its efforts to make 5G more available to communities.

EchoStar said Monday that it will use the proceeds from the sale partly to pay down debt. Current operations of Dish TV, Sling and Hughes will not be impacted, the company said.

Houston students develop cost-effective glove to treat Parkinson's symptoms

smart glove

Two Rice undergraduate engineering students have developed a non-invasive vibrotactile glove that aims to alleviate the symptoms of Parkinson’s disease through therapeutic vibrations.

Emmie Casey and Tomi Kuye developed the project with support from the Oshman Engineering Design Kitchen (OEDK) and guidance from its director, Maria Oden, and Rice lecturer Heather Bisesti, according to a news release from the university.

The team based the design on research from the Peter Tass Lab at Stanford University, which explored how randomized vibratory stimuli delivered to the fingertips could help rewire misfiring neurons in the brain—a key component of Parkinson’s disease.

Clinical trials from Stanford showed that coordinated reset stimulation from the vibrations helped patients regain motor control and reduced abnormal brain activity. The effects lasted even after users removed the vibrotactile gloves.

Casey and Kuye set out to replicate the breakthrough at a lower cost. Their prototype replaced the expensive motors used in previous designs with motors found in smartphones that create similar tiny vibrations. They then embedded the motors into each fingertip of a wireless glove.

“We wanted to take this breakthrough and make it accessible to people who would never be able to afford an expensive medical device,” Casey said in the release. “We set out to design a glove that delivers the same therapeutic vibrations but at a fraction of the cost.”

Rice’s design also targets the root of the neurological disruption and attempts to retrain the brain. An early prototype was given to a family friend who had an early onset of the disease. According to anecdotal data from Rice, after six months of regularly using the gloves, the user was able to walk unaided.

“We’re not claiming it’s a cure,” Kuye said in the release. “But if it can give people just a little more control, a little more freedom, that’s life-changing.”

Casey and Kuye are working to develop a commercial version of the glove priced at $250. They are taking preorders and hope to release 500 pairs of gloves this fall. They've also published an open-source instruction manual online for others who want to try to build their own glove at home. They have also formed a nonprofit and plan to use a sliding scale price model to help users manage the cost.

“This project exemplifies what we strive for at the OEDK — empowering students to translate cutting-edge research into real-world solutions,” Oden added in the release. “Emmie and Tomi have shown extraordinary initiative and empathy in developing a device that could bring meaningful relief to people living with Parkinson’s, no matter their resources.”

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