Houston startup, researchers awarded millions to develop Brain Mesh implant

brain health

Rice researchers will collaborate with Houston health tech startup Motif Neurotech to develop Brain Mesh, a distributed network of minimally invasive implants in the skull. Photo via Motif Neurotech

Houston startup Motif Neurotech and several Rice research groups have been selected by the United Kingdom's Advanced Research + Invention Agency (ARIA) to participate in its inaugural Precision Neurotechnologies program. The program aims to develop advanced brain-interfacing technologies for cognitive and psychiatric conditions.

ARIA will invest $84.2 million over four years in projects that “explore and unlock new methods to interface with the human brain at the circuit level,” according to a news release.

Three of the four Rice labs will collaborate with Houston health tech startup Motif Neurotech to develop Brain Mesh, which is a distributed network of minimally invasive implants that can stimulate neural circuits and stream neural data in real time. The project has been awarded approximately $5.9 million.

Motif Neurotech was spun out of the Rice lab of Jacob Robinson, a professor of electrical and computer engineering and bioengineering and CEO of Motif Neurotech. It will be developed in collaboration with U.K.-based startup MintNeuro, which will help develop custom integrated circuits that will help to miniaturize the implants, according to a separate release.

Robinson will lead the system and network integration and encapsulation efforts for Mesh Points implants. According to Rice, these implants, about the size of a grain of rice, will track and modulate brain states and be embedded in the skull through relatively low-risk surgery.

The Rice lab of Valentin Dragoi, professor of electrical and computer engineering at Rice and the Rosemary and Daniel J. Harrison III Presidential Distinguished Chair in Neuroprosthetics at Houston Methodist, will conduct non-human primate experimental models for Brain Mesh. Kaiyuan Yang, associate professor of electrical and computer engineering who leads the Secure and Intelligent Micro-Systems Lab at Rice, will work on power and data pipeline development to enable the functional miniaturization of the Mesh Points.

“Current neurotechnologies are limited in scale, specificity and compatibility with human use,” Robinson said in a news release. “The Brain Mesh will be a precise, scalable system for brain-state monitoring and modulation across entire neural circuits designed explicitly for human translation. Our team brings together a key set of capabilities and the expertise to not only work through the technical and scientific challenges but also to steward this technology into clinical trials and beyond.”

The fourth Rice lab, led by assistant professor of electrical and computer engineering Jerzy Szablowski, will collaborate with researchers from three universities and two industry partners to develop closed-loop, self-regulating gene therapy for dysfunctional brain circuits. The team is backed by an award of approximately $2.3 million.

“Our goal is to develop a method for returning neural circuits involved in neuropsychiatric illnesses such as epilepsy, schizophrenia, dementia, etc. to normal function and maybe even make them more resilient,” Szablowski said in a news release.

Neurological disorders in the U.K. have a roughly $5.4 billion economic burden, and some estimates run as high as $800 billion annually in terms of economic disruptions in the U.S. These conditions are the leading cause of illness and disability with over one in three people impacted according to the World Health Organization.

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Rice University opens biotech venture studio in TMC

rapidly scaling

In its mission to amplify and advance biotech innovation, Rice University has announced its latest initiative — a new lab focused on bringing life-saving medical technologies to commercialization.

Established to rapidly build companies based on Rice University's portfolio of over 100 patents, RBL LLC is a new biotech venture creation studio based in Texas Medical Center Helix Park. RBL comes on the heels of establishing the Rice Biotech Launch Pad, a biotech innovation accelerator that opened last year.

Paul Wotton, executive director of the Rice Biotech Launch Pad, co-founded RBL with his colleagues Omid Veiseh, Rice professor of bioengineering and faculty director of the Rice Biotech Launch Pad; Jacob Robinson, Rice professor of electrical and computer engineering; and Dr. Rima Chakrabarti, a physician scientist and venture capital investor with KdT Ventures.

“This is a pivotal moment for Houston and beyond,” Wotton, who serves as RBL’s managing partner, says in a news release from Rice. “Houston has rapidly emerged as a global life sciences powerhouse, blending cutting-edge research with early clinical applications at Rice and the city’s world-renowned hospital systems.

"Investors from across the nation are recognizing Houston’s potential, and with RBL, we’re building on that momentum," he continues. "We’ll not only amplify the work of the Rice Biotech Launch Pad but expand our reach across Texas, creating opportunities for biotech ventures statewide and driving growth for the biotech industry as a whole.”

Strategically located in TMC, RBL will collaborate with medical leaders, investors, corporations, and other players both in the same building and on the greater TMC campus.

“Leveraging Rice University’s Biotech Launch Pad breakthroughs and pairing it with the world-class translational infrastructure of TMC Helix Park well positions RBL to drive unprecedented advances in patient care,” William McKeon, president and CEO of the TMC, says in the release. “This partnership between academia, industry and health care is exactly what’s needed to transform medical discoveries into real-world solutions that improve lives globally.”

RBL is Rice's latest effort to bridge the gap between academia and biotech innovation, an effort led by Paul Cherukuri, Rice’s chief innovation officer, who reportedly spearheaded development of the new initiative.

“RBL is a game-changer for Rice, Houston and the global biotech community,” Cherukuri adds. “This venture not only accelerates the commercialization of our innovations but also sets a blueprint for other universities looking to maximize the real-world impact of their discoveries. By combining scientific expertise with entrepreneurial support from Day Zero together with strategic clinical partnerships in the TMC, we’re creating a model for driving large-scale biotech innovation that universities everywhere should aspire to replicate.”

Since the Rice Biotech Launch Pad was established, Motif Neurotech closed its series A round with an oversubscribed $18.75 million, the hub secured a $34.9 million grant, and a “living pharmacy” founded at the Launch Pad received industry validation.

“RBL provides a powerful platform to translate high-impact scientific discoveries into therapies that will dramatically improve patient outcomes,” Veiseh says. “Our goal is to rapidly bring Rice’s pioneering research into the clinic, delivering life-saving solutions to patients around the world.”

Created through the Rice Biotech Launch Pad, Motif Neurotech is focused on developing minimally invasive bioelectronics for the treatment of psychiatric conditions. Photo via motifneuro.tech

Houston mental health tech startup receives industry validation for bioelectronic device

on the right path

A new tool in the fight against treatment-resistant depression could be on the horizon thanks to a Rice University professor.

Jacob Robinson, a professor of electrical and computer engineering and of bioengineering is also co-founder and CEO of Motif Neurotech. Created through the Rice Biotech Launch Pad, Motif Neurotech is focused on developing minimally invasive bioelectronics for the treatment of psychiatric conditions. The company closed its series A round with an oversubscribed $18.75 million earlier this year.

This week, Rice University announced that Robinson has published a peer-reviewed study in Science Advances describing his wireless device called the Digitally programmable Over-brain Therapeutic (DOT). The epidural cortical stimulator is 9 millimeters in width, meaning that it’s easily implantable but is powerful enough to send electrical stimulation to the brain through the dura, the membrane that protects the brain and spinal cord.

“It overcomes challenges by using a battery-free and wireless approach to create an implant that can deliver precise and programmable stimulation to the brain, without brain surgery,” Robinson explained in a press release.

Jacob Robinson, a professor of electrical and computer engineering and of bioengineering, is also co-founder and CEO of Motif Neurotech. Photo via motifneuro.tech

The DOT stimulator is intended to send electrical charges meant to provide neuromodulation for mental health woes including not just depression, but also obsessive compulsive disorder and post-traumatic stress disorder. The treatment could be an alternative to transcranial magnetic stimulation (TMS), a technique that has increased in popularity in recent years.

TMS uses pulsed magnetic fields to stimulate the brain. A typical TMS course includes 36 total treatments and can cause headaches. The DOT stimulator can enact the same timing patterns used in TMS, such as the intermittent theta burst stimulation (iTBS) paradigm, which has been noted to improve mood in patients, but can be achieved at home with far greater ease. Implantation takes just 20 minutes.

So far, the DOT stimulator has been implanted in both a human and a pig. In the pig, researchers noted that the electrical stimulation did not cause any damage to the brain or dura. Just as importantly, it showed stable performance for 30 days in inducing motor responses, meaning it can operate on a longer-term basis.

Motif Neurotech was founded along with Kaiyuan Yang and physicians Sunil Sheth and Sameer Sheth. The Rice Biotech Launchpad brings together local researchers like Robinson and his team with a network of industry executives. With their manuscript, entitled “Miniature battery-free epidural cortical stimulators” freshly published on the Science Advances website, big things could be coming for the bioelectronics company and for sufferers of treatment-resistant depression.

Rice team demonstrates miniature brain stimulator in humanswww.youtube.com

Motif Neurotech, which develops minimally invasive bioelectronics for mental health treatment, closed its series A round with an oversubscribed $18.75 million. Photo via Rice.edu

Rice University medical device spinout secures nearly $19M series A

fresh funding

A health tech startup based out of a newly formed accelerator program at Rice University has raised venture funding.

Motif Neurotech closed its series A round with an oversubscribed $18.75 million. The company, which develops minimally invasive bioelectronics for mental health treatment, was formed out of the Rice Biotech Launch Pad that launched last fall.

The round was led by Arboretum Ventures, with participation from new investors KdT Ventures, Satori Neuro, Dolby Family Ventures, re.Mind Capital and existing investors Divergent Capital, TMC Venture Fund, PsyMed Ventures, Empath Ventures and Capital Factory, according to a news release from Rice.

“Minimally invasive bioelectronics are the future of mental health treatment,” Jacob Robinson, CEO and founder of Motif Neurotech, says in the release. “Thirty percent of patients with depression don’t respond to two or more medications, and there is a significant need for additional treatment options that are effective and easily accessible."

The fresh funding will go toward developing the inaugural product, the DOT microstimulator, a wireless, battery-free device that can provide at-home therapy for treatment-resistant depression, or TRD, a major depressive disorder.

“This is a pivotal moment for the company as it closes its Series A in addition to the recent successful completion of the proof-of-concept first-in-human implant of the DOT stimulator device," Tom Shehab, managing partner of Arboretum Ventures, says in the release. "We believe Motif’s device will greatly improve the quality of life for patients who have been diagnosed with difficult to treat mental health disorders, including TRD."

Shehab, along with Amy Kruse, chief investment officer of Satori Neuro, will reportedly join Motif Neurotech's board of directors alongside Anthony Arnold, president and CEO of Sensydia Corporation, and Jacob Robinson, professor of electrical and computer engineering and bioengineering at Rice.

The Rice Biotech Launch Pad was established to take biotech innovations from concept to clinical trials in five years or less. It occupies 15,000 square feet of space on campus and is funded through federal grants and donations.

The first of Rice University's new moonshot initiatives, the Rice Biotech Launch Pad was announced on the 61st anniversary of President John F. Kennedy's address at Rice Stadium. Photo by Gustavo Raskosky/Rice University

New biotech lab, accelerator emerges in Houston to speed up commercialization of life-saving cures

ready to launch

A new initiative from Rice University is launching with an ambitious goal — to take biotech innovations from concept to clinical trials in five years or less.

The Rice Biotech Launch Pad is a newly announced initiative that will expedite Rice University's health and medical technology innovations. The accelerator, which will occupy 15,000 square feet of space on campus, will be funded through federal grants and donations.

“The Rice Biotech Launch Pad will ensure that our faculty and students have the skills, partnerships, tools and support to create technologies that can transform our city and the world,” Rice President Reginald DesRoches says in a press release. “More importantly, the accelerator will provide a pathway for these creations and discoveries to be turned into medical cures that significantly impact people’s lives. Rice researchers have been doing this for years. This development will allow them to do even more and at a quicker, more efficient pace.”

Leading the program are two seasoned experts: associate professor of bioengineering at Rice, Omid Veiseh, and biotech entrepreneur Paul Wotton, who co-founded Avenge Bio and other startups with technology discovered in Veiseh’s lab. Veiseh will serve as faculty director, and Wotton will lead as executive director. Veiseh says the team behind the new lab will assist faculty in their mission to garner funding — via grants from organizations such as ARPA-H, DARPA and the NIH — as well as creating pathways for licensing revenue for the university.

“We have the infrastructure, financial backing and talent in Houston to do more in creating new medicines to cure disease," Veiseh says in the release. "This is a thriving environment that warrants more attention and dedication to bring forward Houston’s medical discoveries. I am proud to help make this happen.”

The accelerator’s founding advisory council members from Rice are:

Paul Cherukuri, Rice’s vice president for innovation.
Jacob Robinson, professor of electrical and computer engineering and of bioengineering and founder and CEO of Motif Neurotech.
Ashok Veeraraghavan, professor of electrical and computer engineering and computer science and co-founder of Synopic.
Yael Hochberg, head of the Rice Entrepreneurship Initiative and the Ralph S. O'Connor Professor of Finance and Entrepreneurship at the Jesse H. Jones Graduate School of Business.

“The Biotech Launch Pad is the first in a series of Rice Moonshots that are hyper-focused on building a ‘speed and scale’ innovation ecosystem across Houston," Cherukuri says. "We at Rice are committed towards driving the Biotech Launch Pad in collaboration with our partners within the Texas Medical Center and the new Helix Park campus.”

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Rice University researchers unveil new model that could sharpen MRI scans

MRI innovation

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.

Houston-area lab grows with focus on mobile diagnostics and predictive medicine

mobile medicine

When it comes to healthcare, access can be a matter of life and death. And for patients in skilled nursing facilities, assisted living or even their own homes, the ability to get timely diagnostic testing is not just a convenience, it’s a necessity.

That’s the problem Principle Health Systems (PHS) set out to solve.

Founded in 2016 in Clear Lake, Texas, PHS began as a conventional laboratory but quickly pivoted to mobile diagnostics, offering everything from core blood work and genetic testing to advanced imaging like ultrasounds, echocardiograms, and X-rays.

“We were approached by a group in a local skilled nursing facility to provide services, and we determined pretty quickly there was a massive need in this area,” says James Dieter, founder, chairman and CEO of PHS. “Turnaround time is imperative. These facilities have an incredibly sick population, and of course, they lack mobility to get the care that they need.”

What makes PHS unique is not only what they do, but where they do it. While they operate one of the largest labs serving skilled nursing facilities in the state, their mobile teams go wherever patients are, whether that’s a nursing home, a private residence or even a correctional facility.

Diagnostics, Dieter says, are at the heart of medical decision-making.

“Seventy to 80 percent of all medical decisions are made from diagnostic results in lab and imaging,” he says. “The diagnostic drives the doctor’s or the provider’s next move. When we recognized a massive slowdown in lab results, we had to innovate to do it faster.”

Innovation at PHS isn’t just about speed; it’s about accessibility and precision.

Chris Light, COO, explains: “For stat testing, we use bedside point-of-care instruments. Our phlebotomists take those into the facilities, test at the bedside, and get results within minutes, rather than waiting days for results to come back from a core lab.”

Scaling a mobile operation across multiple states isn’t simple, but PHS has expanded into nine states, including Texas, Oklahoma, Kansas, Missouri and Arizona. Their model relies on licensed mobile phlebotomists, X-ray technologists and sonographers, all trained to provide high-level care outside traditional hospital settings.

The financial impact for patients is significant. Instead of ambulance rides and ER visits costing thousands, PHS services often cost just a fraction, sometimes only tens or hundreds of dollars.

“Traditionally, without mobile diagnostics, the patient would be loaded into a transportation vehicle, typically an ambulance, and taken to a hospital,” Dieter says. “Our approach is a fraction of the cost but brings care directly to the patients.”

The company has also embraced predictive and personalized medicine, offering genetic tests that guide medication decisions and laboratory tests that predict cognitive decline from conditions like Alzheimer's and Parkinson’s.

“We actively look for complementary services to improve patient outcomes,” Dieter says. “Precision medicine and predictive testing have been a great value-add for our providers.”

Looking to the future, PHS sees mobile healthcare as part of a larger trend toward home-based care.

“There’s an aging population that still lives at home with caretakers,” Dieter explains. “We go into the home every day, whether it’s an apartment, a standalone home, or assisted living. The goal is to meet patients where they are and reduce the need for hospitalization.”

Light highlighted another layer of innovation: predictive guidance.

“We host a lot of data, and labs and imaging drive most treatment decisions,” Light says. “We’re exploring how to deploy diagnostics immediately based on results, eliminating hours of delay and keeping patients healthier longer.”

Ultimately, innovation at PHS isn’t just about technology; it’s about equity.

“There’s an 11-year life expectancy gap between major metro areas and rural Texas,” Dieter says. “Our innovation has been leveling the field, so everyone has access to high-quality diagnostics and care, regardless of where they live.”

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