Houston company receives FDA approval for tech that uses sound to blast away cellulite

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Houston-based Soliton can use its audio pulse technology to erase scars, cellulite, and tattoos. Photo via soliton.com

Soliton, a Houston-based technology company, is using audio pulses to make waves in the med-aesthetic industry.

The company, which is licensed from the University of Texas on behalf of MD Anderson, announced that it had received FDA approval earlier this month for its novel and proprietary technology that can reduce the appearance of cellulite.

MIT engineer and doctor Christopher Capelli first developed the basis of the tool while he led the Office of Technology Based Ventures at M.D. Anderson.

Capelli uncovered that he could remove tattoos more effectively by treating the skin with up to 100 waves per second (about five to 10 times greater than other devices on the market), giving birth to the company's proprietary Rapid Acoustic Pulse (RAP) platform.

In 2012 he formed Soliton with co-founder and entrepreneur Walter Klemp, who also founded Houston-based Moleculin, and later brought on Brad Hauser as CEO. By 2019, the company had received FDA approval for using the technology for tattoo removal.

"The original indication was tattoo removal, which is what Chris envisioned," Hauser says. "The sound wave can increase in speed whenever it hits a stiffer or denser material. And tattoo ink is denser, stiffer than the surrounding dermis. That allows a shearing effect of the sound wave to disrupt that tattoo ink and help clear tattoos."

According to Hauser, the team then turned to a second application for the technology in the short-term improvement in the appearance of cellulite. With the use of the technology, patients can undergo a relatively pain-free, 40- to 60-minute non-invasive session with no recovery time.

Brad Hauser is the CEO of Soliton. Photo courtesy of Soliton

"It works similarly in the fibrous septa, which are the tethered bands that create the dimples and cellulite and the uneven skin. Those are stiffer than the surrounding fat cells in the subcutaneous tissue," Hauser says. "That allows the technology to disrupt those fibrous septa and loosen and release the dimples."

In 2021 the company plans to commercialize their product and get it into the hands of dermatologists, plastic surgeons, and other medical professionals for 25 key accounts—potentially including ones Houston—with a plan for a national rollout in 2022.

And they don't plan to stop there.

The company has already announced a partnership for a proof-of-concept study with the U.S. Navy in which Soliton will aim to use its technology to reduce the visibility of fibrotic scars, and more importantly work to increase mobility or playability of scars.

"Often the scar ends up causing restrictions in motion and discomfort with pressure of even clothing and certainly with sleeping," Hauser says. "We believe based on the reduction in volume and the increase in playability that we saw in our original proof-of-concept study that we will be able to bring benefits to these military patients."

Work on the study is slated to begin in the first half of this year.

In the meantime, the company is making headway with treatment of liver fibrosis, announcing just this week that it's pre-clinical study in animals demonstrated positive results and a reduction in effects by 42 percent seven days after the completion of carbon tetrachloride (CCL4) induction. The RAP technology was also named the best new technology by the Aesthetic Industry Association earlier this month.

"It's really targeting collagen fiber and fibroblasts on a cellular level" Hauser says. "Which we think has numerous potential uses in the future."

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Houston-based HPE wins $931M contract to upgrade military data centers

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Hewlett Packard Enterprise (HPE), based in Spring, Texas, which provides AI, cloud, and networking products and services, has received a $931 million contract to modernize data centers run by the federal Defense Information Systems Agency.

HPE says it will supply distributed hybrid multicloud technology to the federal agency, which provides combat support for U.S. troops. The project will feature HPE’s Private Cloud Enterprise and GreenLake offerings. It will allow DISA to scale and accelerate communications, improve AI and data analytics, boost IT efficiencies, reduce costs and more, according to a news release from HPE.

The contract comes after the completion of HPE’s test of distributed hybrid multicloud technology at Defense Information Systems Agency (DISA) data centers in Mechanicsburg, Pennsylvania, and Ogden, Utah. This technology is aimed at managing DISA’s IT infrastructure and resources across public and private clouds through one hybrid multicloud platform, according to Data Center Dynamics.

Fidelma Russo, executive vice president and general manager of hybrid cloud at HPE, said in a news release that the project will enable DISA to “deliver innovative, future-ready managed services to the agencies it supports that are operating across the globe.”

The platform being developed for DISA “is designed to mirror the look and feel of a public cloud, replicating many of the key features” offered by cloud computing businesses such as Amazon Web Services (AWS), Microsoft Azure and Google Cloud Platform, according to The Register.

In the 1990s, DISA consolidated 194 data centers into 16. According to The Register, these are the U.S. military’s most sensitive data centers.

More recently, in 2024, the Fort Meade, Maryland-based agency laid out a five-year strategy to “simplify the network globally with large-scale adoption of command IT environments,” according to Data Center Dynamics.

Astros and Rockets launch new streaming service for Houston sports fans

Sports Talk

Houston sports fans now have a way to watch their favorite teams without a cable or satellite subscription. Launched December 3, the Space City Home Network’s SCHN+ service allows consumers to watch the Houston Astros and Houston Rockets via iOS, Apple TV, Android, Amazon Fire TV, or web browser.

A subscription to SCHN+ allows sports fans to watch all Astros and Rockets games, as well as behind-the-scenes features and other on-demand content. It’s priced at $19.99 per month or $199.99 annually (plus tax). People who watch Space City Network Network via their existing cable or satellite service will be able to access SCHN+ at no additional charge.

As the Houston Chronicle notes, the Astros and Rockets were the only MLB and NBA teams not to offer a direct-to-consumer streaming option.

“We’re thrilled to offer another great option to ensure fans have access to watch games, and the SCHN+ streaming app makes it easier than ever to cheer on the Rockets,” Rockets alternate governor Patrick Fertitta said in a statement.

“Providing fans with a convenient way to watch their favorite teams, along with our network’s award-winning programming, was an essential addition. This season feels special, and we’re committed to exploring new ways to elevate our broadcasts for Rockets fans to enjoy.”

Astros owner Jim Crane echoed Feritta’s comments, adding, “Providing fans options on how they view our games is important as we continue to grow the game – we want to make it accessible to as large an audience as possible. We are looking forward to the 2026 season and more Astros fans watching our players compete for another championship.”

SCHN+ is available to customers in Texas; Louisiana; Arkansas; Oklahoma; and the following counties in New Mexico: Dona Ana, Eddy, Lea, Chaves, Roosevelt, Curry, Quay, Union, and Debaca. Fans outside these areas will need to subscribe to the NBA and MLB out-of-market services.

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This article originally appeared on CultureMap.com.

Rice University researchers unveil new model that could sharpen MRI scans

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Researchers at Rice University, in collaboration with Oak Ridge National Laboratory, have developed a new model that could lead to sharper imaging and safer diagnostics using magnetic resonance imaging, or MRI.

In a study recently published in The Journal of Chemical Physics, the team of researchers showed how they used the Fokker-Planck equation to better understand how water molecules respond to contrast agents in a process known as “relaxation.” Previous models only approximated how water molecules relaxed around contrasting agents. However, through this new model, known as the NMR eigenmodes framework, the research team has uncovered the “full physical equations” to explain the process.

“The concept is similar to how a musical chord consists of many notes,” Thiago Pinheiro, the study’s first author, a Rice doctoral graduate in chemical and biomolecular engineering and postdoctoral researcher in the chemical sciences division at Oak Ridge National Laboratory, said in a news release. “Previous models only captured one or two notes, while ours picks up the full harmony.”

According to Rice, the findings could lead to the development and application of new contrast agents for clearer MRIs in medicine and materials science. Beyond MRIs, the NMR relaxation method could also be applied to other areas like battery design and subsurface fluid flow.

“In the present paper, we developed a comprehensive theory to interpret those previous molecular dynamics simulations and experimental findings,” Dilipkumar Asthagiri, a senior computational biomedical scientist in the National Center for Computational Sciences at Oak Ridge National Laboratory, said in the release. ”The theory, however, is general and can be used to understand NMR relaxation in liquids broadly.”

The team has also made its code available as open source to encourage its adoption and further development by the broader scientific community.

“By better modeling the physics of nuclear magnetic resonance relaxation in liquids, we gain a tool that doesn’t just predict but also explains the phenomenon,” Walter Chapman, a professor of chemical and biomolecular engineering at Rice, added in the release. “That is crucial when lives and technologies depend on accurate scientific understanding.”

The study was backed by The Ken Kennedy Institute, Rice Creative Ventures Fund, Robert A. Welch Foundation and Oak Ridge Leadership Computing Facility at Oak Ridge National Laboratory.

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