TMC, Memorial Hermann launch partnership to spur new patient care technologies

medtech partnership

A new partnership will allow Memorial Hermann employees and physicians to participate in the TMC Center for Device Innovation. Photo via tmc.edu

Texas Medical Center and Memorial Hermann Health System have launched a new collaboration for developing patient care technology.

Through the partnership, Memorial Hermann employees and physicians will now be able to participate in the TMC Center for Device Innovation (CDI), which will assist them in translating product innovation ideas into working prototypes. The first group of entrepreneurs will pitch their innovations in early 2026, according to a release from TMC.

“Memorial Hermann is excited to launch this new partnership with the TMC CDI,” Ini Ekiko Thomas, vice president of information technology at Memorial Hermann, said in the news release. “As we continue to grow (a) culture of innovation, we look forward to supporting our employees, affiliated physicians and providers in new ways.”

Mentors from Memorial Hermann, TMC Innovation and industry experts with specialties in medicine, regulatory strategy, reimbursement planning and investor readiness will assist with the program. The innovators will also gain access to support systems like product innovation and translation strategy, get dedicated engineering and machinist resources and personal workbench space at the CDI.

“The prototyping facilities and opportunities at TMC are world-class and globally recognized, attracting innovators from around the world to advance their technologies,” Tom Luby, chief innovation officer at TMC Innovation Factor, said in the release.

Memorial Hermann says the partnership will support its innovation hub’s “pilot and scale approach” and hopes that it will extend the hub’s impact in “supporting researchers, clinicians and staff in developing patentable, commercially viable products.”

“We are excited to expand our partnership with Memorial Hermann and open the doors of our Center for Device Innovation to their employees and physicians—already among the best in medical care,” Luby added in the release. “We look forward to seeing what they accomplish next, utilizing our labs and gaining insights from top leaders across our campus.”

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Eleven medtech startups, hailing from Houston to the Netherlands, have been selected to join TMCi's HealthTech Accelerator. Photo via tmc.edu

TMCi names 11 global startups to latest HealthTech Accelerator cohort

new class

Texas Medical Center Innovation has named 11 medtech startups from around the world to its latest HealthTech Accelerator cohort.

Members of the accelerator's 19th cohort will participate in the six-month program, which kicked off this month. They range from startups developing on-the-go pelvic floor monitoring to 3D-printed craniofacial and orthopedic implants. Each previously participated in TMCi's bootcamp before being selected to join the accelerator. Through the HealthTech Accelerator, founders will work closely with TMC specialists, researchers, top-tier hospital experts and seasoned advisors to help grow their companies and hone their clinical trials, intellectual property, fundraising and more.

“This cohort of startups is tackling some of today’s most pressing clinical challenges, from surgery and respiratory care to diagnostics and women’s health," Tom Luby, chief innovation officer at Texas Medical Center, said in a news release. "At TMC, we bring together the minds behind innovation—entrepreneurs, technology leaders, and strategic partners—to help emerging companies validate, scale, and deliver solutions that make a real difference for patients here and around the world. We look forward to seeing their progress and global impact through the HealthTech Accelerator and the support of our broader ecosystem.”

The 2025 HealthTech Accelerator cohort includes:

Houston-based Respiree, which has created an all-in-one cardiopulmonary platform with wearable sensors for respiratory monitoring that uses AI to track breathing patterns and detect early signs of distress
College Station-based SageSpectra, which designs an innovative patch system for real-time, remote monitoring of temperature and StO2 for assessing vascular occlusion, infection, and other surgical flap complications
Austin-based Dynamic Light, which has developed a non-invasive imaging technology that enables surgeons to visualize blood flow in real-time without the need for traditional dyes
Bangkok, Thailand-based OsseoLabs, which develops AI-assisted, 3D-printed patient-specific implants for craniofacial and orthopedic surgeries
Sydney, Australia-based Roam Technologies, which has developed a portable oxygen therapy system (JUNO) that provides real-time oxygen delivery optimization for patients with chronic conditions
OptiLung, which develops 3D-printed extracorporeal blood oxygenation devices designed to optimize blood flow and reduce complications
Bengaluru, India-based Dozee, which has created a smart remote patient monitor platform that uses under-the-mattress bed sensors to capture vital signs through continuous monitoring
Montclair, New Jersey-based Endomedix, which has developed a biosurgical fast-acting absorbable hemostat designed to eliminate the risk of paralysis and reoperation due to device swelling
Williston, Vermont-based Xander Medical, which has designed a biomechanical innovation that addresses the complications and cost burdens associated with the current methods of removing stripped and broken surgical screws
Salt Lake City, Utah-based Freyya, which has developed an on-the-go pelvic floor monitoring and feedback device for people with pelvic floor dysfunction
The Netherlands-based Scinvivo, which has developed optical imaging catheters for bladder cancer diagnostics

The partnership between Japan-based Mitsui Fudosan Co. Ltd. and the National Cancer Center will focus on advancing cancer treatments, providing a pathway for Japanese innovators to expand in the U.S. market. Photo courtesy of TMC

TMC launches cancer-focused partnership with Japan

global collaboration

Houston's Texas Medical Center announced the launch of its new TMC Japan BioBridge and Japan-Accelerator Cancer Therapeutics and Medical Devices, or JACT, this month.

The strategic partnership between Japan-based Mitsui Fudosan Co. Ltd. and the National Cancer Center will focus on advancing cancer treatments and providing a pathway for Japanese innovators to expand in the U.S. market. A delegation from TMC recently visited Tokyo, and William F. McKeon, president and CEO of TMC, signed the TMC Japan BioBridge Memorandum of Understanding with Takeshi Ozane, general manager of Mitsui Fudosan, and Hitoshi Nakagama, president of the National Cancer Center of Japan.

“The launch of TMC Japan BioBridge is a vital step forward in connecting two global leaders in healthcare innovation,” McKeon says in a statement. “Japan’s leadership has demonstrated an impressive commitment to advance medical cures and life sciences technologies and through this partnership, we are opening necessary doors for Japanese researchers and innovators to access the US market and collaborate with our TMC ecosystem. Together, we aim to accelerate critical breakthroughs to make a difference for patients all around the world.”

The new JACT will offer cancer-treatment companies a structured process to prepare for a U.S. expansion and will allow for meetings with pharmaceutical companies, hospital systems and investors and provide insights on U.S. regulatory approvals. It'll focus on three key areas, according to the statement:

Milestone development and financial planning
Clinical and regulatory expertise
Strategic partnerships and market insights

“This TMC Japan BioBridge and JACT Program will enable us to promote the advancement of start-up companies aiming to commercialize innovative medical technologies originating in Japan into the U.S." Nakagama says in a statement. "We also hope this collaboration will not be limited to our (Japan Agency for Medical Research and Development)-supported project, but will lead to further cooperation between TMC, NCC, and other Japanese institutions in various fields.”

This is the sixth international strategic partnership for the TMC. It launched its first BioBridge, which focus on partnerships to support international healthcare companies preparing for U.S. expansion, with the Health Informatics Society of Australia in 2016. It also has BioBridge partnerships with the Netherlands, Ireland, Denmark and the United Kingdom.

Houston-based Galen Data, a provider of cloud-based connectivity software for medical devices, has been acquired. Photo via Getty Images

Houston startup acquired, plans to expand global medical device software solutions

exit this way

Houston-based Galen Data, a provider of cloud-based connectivity software for medical devices, has been acquired by health care-focused asset manager Lauxera Capital Partners. Financial terms weren’t disclosed.

Lauxera, based in France, says the Galen Data acquisition complements its 2022 purchase of Germany-based Matrix Requirements, a provider of software for medical device R&D and quality control teams.

“The Galen team has built an exceptional product providing medical device companies a cost-effective, compliant, and secure solution for medical device cloud connectivity,” Samuel Levy, founding partner of Lauxera, says in a news release.

Chris DuPont, co-founder and CEO of Galen Data, says the Lauxera deal “empowers us to take our business to the next level and better serve our clients while pushing forward the innovation that’s at the core of everything we do.”

Chris DuPont is the co-founder and CEO of Galen Data. Photo via LinkedIn

Galen Data had raised $7.21 million in venture capital since its founding in 2016, according to PitchBook. Investors included the Texas HALO Fund, the Houston Angel Network, Tamiami Angel Fund IV, and Zeeland Ventures. As of November 2023, Galen Data was valued at $18 million, according to Dealroom.co.

Customers of Galen Data include Austin-based Cardi/o, Houston-based Delphi Diagnostics, Houston-based Future Caridia, Austin-based Harmonic Bionics, Houston-based Tienovix, and Houston-based Zibrio.

Yaxin Wang is director of THI's Innovative Device & Engineering Applications Lab. Photo via texasheart.org

Houston health tech innovator collaborates on promising medical device funded by DOD

team work

The United States Department of Defense has awarded a grant that will allow the Texas Heart Institute and Rice University to continue to break ground on a novel left ventricular assist device (LVAD) that could be an alternative to current devices that prevent heart transplantation and are a long-term option in end-stage heart failure.

The grant is part of the DOD’s Congressionally Directed Medical Research Programs (CDMRP). It was awarded to Georgia Institute of Technology, one of four collaborators on the project that will be designed and evaluated by the co-investigator Yaxin Wang. Wang is part of O.H. “Bud” Frazier’s team at Texas Heart Institute, where she is director of Innovative Device & Engineering Applications Lab. The other institution working on the new LVAD is North Carolina State University.

The project is funded by a four-year, $7.8 million grant. THI will use about $2.94 million of that to fund its part of the research. As Wang explained to us last year, an LVAD is a minimally invasive device that mechanically pumps a person’s own heart. Frazier claims to have performed more than 900 LVAD implantations, but the devices are far from perfect.

The team working on this new research seeks to minimize near-eventualities like blood clot formation, blood damage, and driveline complications such as infection and limitations in mobility. The four institutions will try to innovate with a device featuring new engineering designs, antithrombotic slippery hydrophilic coatings (SLIC), wireless power transfer systems, and magnetically levitated driving systems.

Wang and her team believe that the non-contact-bearing technology will help to decrease the risk of blood clotting and damage when implanting an LVAD. The IDEA Lab will test the efficacy and safety of the SLIC LVAD developed by the multi-institutional team with a lab-bench-based blood flow loop, but also in preclinical models.

“The Texas Heart Institute continues to be a leading center for innovation in mechanical circulatory support systems,” said Joseph G. Rogers, MD, the president and CEO of THI, in a press release.

“This award will further the development and testing of the SLIC LVAD, a device intended to provide an option for a vulnerable patient population and another tool in the armamentarium of the heart failure teams worldwide.”

If it works as hypothesized, the SLIC LVAD will improve upon current LVAD technology, which will boost quality of life for countless heart patients. But the innovation won’t stop there. Technologies that IDEA Lab is testing include wireless power transfer for medical devices and coatings to reduce blood clotting could find applications in many other technologies that could help patients live longer, healthier lives.

The next TMCx cohort begins August 5. Courtesy of TMC

TMCx announces its next medical device cohort with 5 startups hailing from Houston

Health tech

The Texas Medical Center's startup accelerator, TMCx, has added 19 companies from all around the world to join its medical device family.

The TMC Innovation Institute team narrowed down 140 applications to 40 for the second round of the process, which includes face-to-face interviews, according to a release. After those, 18 companies were selected to join the TMCx09 class, which focuses on medical devices. The last cohort, which specialized in digital health, concluded on June 6.

Out of the 18 companies, five are from Houston. Four other startups hail from other corners of the United States, while 10 international companies also made the cohort. The program commences on August 5, and will run for four months before concluding in a demo day event in November.

Here are the medical device startup companies joining the TMCx09 cohort.

See update at the bottom of this story.

Vascular devices

Neurescue (Copenhagen, Denmark) — Neurescue has developed a computer-aided aortic occlusion catheter to help save the lives of patients in the emergency care setting.
Venari Medical (Galway, Ireland) — Venari Medical is developing BioVena — a medical device that treats varicose veins and venous leg ulcers with a minimally invasive approach intended to reduce pain.
Obsidio (Solana Beach, California) — Obsidio is developing a universal gel embolic material to shrink lesions or to treat internal bleeds, aneurysms and vascular malformations.

Novel therapies

PATH EX (Houston) — PATH EX is developing an extracorporeal blood cleansing device designed to selectively remove pathogens, including multi-drug resistant bacteria, and endotoxins from circulating blood to diagnose and treat sepsis.
Innosphere (Hafia, Israel) — Innosphere is a medical device company developing brain stimulation solutions for treating cognitive disorders, with a focus on ADHD.

Rehab

AbiliTech (St. Paul, Minnesota) — AbiliTech is restoring independence to patients with upper limb neuromuscular conditions by offering a wearable assistive device that allows the user to perform independent activities of daily living.
Komodo OpenLab (Toronto, Ontario, Canada) — Komodo OpenLab has developed Tecla, an assistive device giving individuals with physical disabilities the ability to communicate, control, and connect with the world.

Surgery

CNX Medical (Houston) — CNX Medical is developing a transcutaneous neurostimulator that is placed in the ear and helps reduce inflammation after abdominal surgery, with a focus on post-operative ileus.
CorInnova (Houston) — CorInnova has developed a soft robotic non-blood contacting biventricular cardiac assist device for the treatment of heart failure that would eliminate the many adverse events associated with current technologies.
Ictero Medical (Houston) — Ictero Medical is developing a minimally invasive ablation solution to treat high-risk patients with gallstone disease and offer patients the benefits of surgery without the risk. The company was among the big winners at the Texas A&M New Ventures Competition.

Diagnostics

Artidis (Basel, Switzerland) — InArtidis has developed a nanomechanical biomarker technology using precise tissue measurement in combination with data analytics to personalize cancer diagnosis.
Inveox (Munich, Germany) — Inveox automates the pre-analytical process in cancer diagnosis to improve patient safety and lab efficiency.
Cambridge Respiratory Innovations Ltd. (Cambridge, United Kingdom) — CRiL has developed, N-Tidal, a device that analyzes CO2 end-tidal breathing to improve respiration monitoring.

Toward home health

Kegg (San Francisco) — Kegg is on a mission to simplify every woman's journey towards taking charge of her fertility with a user-friendly monitoring device.
TestCard (London) — TestCard is a flat pack urine test kit that functions in combination with a mobile phone application, turning a phone's camera into a clinical grade scanner.
Patch'd (New South Wales, Australia, and San Francisco) — Patch'd uses deep learning and wearable devices to predict the onset of sepsis in the at-home patient.

Transplant

Volumetric (Houston) — Volumetric's 3D bioprinting platform creates materials with living cells with applications in biomaterials, cancer research, and eventually human organ replacements. The company's technology started out of Rice University.
Tevosol (Edmonton, Alberta, Canada) — Tevasol is developing organ transplant transportation solutions. Their portable warm perfusion machines will help surgeons transplant more organs today and solve organ shortage tomorrow.

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Diagnostic Photonics withdrew from the program after the article published.

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Rice University partners with astronaut foundation to offer new STEM scholarship

space scholars

Rice University has partnered with The Astronaut Scholarship Foundation (ASF) to offer a new scholarship opportunity for junior or senior STEM majors, beginning this spring.

The prestigious Astronaut Scholarship includes up to $15,000, mentorship, networking and a paid trip to the ASF Innovators Symposium and Gala. The scholarship is funded by the James A. Lovell Jr. Family Endowment, in honor of the late American astronaut and founder of the ASF.

“This scholarship opportunity represents an exciting new avenue for Rice STEM students to synthesize their experiences in courses and research and their commitment to advancing the public good as leaders in their field,” Danika Brown, executive director for the Center for Civic Leadership at Rice, said in a news release. “We are so grateful to the Lovell family and to the foundation for investing in Rice students, and we are confident that the foundation will be impressed with our nominees and that selected students will have a life-changing experience as astronaut scholars.”

The Rice Space Institute and the Center for Civic Learning recently hosted the ASF at the Ralph S. O’Connor Building for Engineering and Science.

At the ASF event, Jeff Lovell—son of James Lovell, who commanded Apollo 13 and flew on Apollo 8—announced the scholarship aimed at Rice STEM students. Charlie Duke, who served as spacecraft communicator for the Apollo 11 Moon landing and as the lunar module pilot for Apollo 16, also spoke at the event.

The ASF awarded 74 scholarships to students from 51 universities across the U.S. last May.

The ASF awarded its first seven $1,000 scholarships in 1986 to pay tribute to the Mercury 7 astronauts. It has since awarded more than $10 million to more than 850 college students.

So far, only students from Texas A&M University and the University of Texas at Austin have received the scholarship in Texas.

Houston hospital first in U.S. to use new system for minimally invasive surgery

sharper images

Houston’s Baylor St. Luke’s Medical Center has introduced an innovative new surgical imaging system that will allow surgeons to increase the number of minimally invasive procedures as well as reposition on the fly during operations.

Minimally invasive surgery has been shown across the board to improve patient outcomes with less chance of infection and shorter recovery times compared to traditional open surgery. However, the human body is not exactly easy to work on through small incisions, necessitating the development of state-of-the-art cameras and imaging technology to guide surgeons.

Enter GE HealthCare’s Allia Moveo, now a part of the Baylor St. Luke’s Medical Center operating room. Using cutting-edge technology, it uses the same high-definition imaging usually seen in the catheterization lab at speeds fast enough to respond to shifting surgical conditions. Its cable-free setup allows surgeons to switch positions much faster, and it features advanced 3D imaging that compensates for breathing motion and interference from metal implants.

Its design supports a range of cardiovascular, vascular, non-vascular, interventional and surgical procedures, according to CommonSpirit Health, a nonprofit Catholic health network, of which Baylor St. Luke's is a member.

“This innovative platform enhances how our clinicians navigate complex minimally invasive procedures by improving mobility, image clarity, and workflow efficiency. It strengthens our ability to deliver precise, patient-centered care while supporting our teams with technology designed for the evolving demands of modern interventional medicine,” Dr. Brad Lembcke, president of Baylor St. Luke’s Medical Center, said in a news release from Baylor and the Texas Heart Institute.

Baylor St. Luke’s is the first hospital in the U.S. to use the Allia Moveo technology. The definition and responsiveness of the new system allow surgeons to navigate the body with greater accuracy and smaller incisions, even for very delicate operations.

“Allia Moveo gives us the flexibility and image quality needed to manage increasingly complex minimally invasive procedures with greater confidence,” Dr. Gustavo Oderich, vascular surgeon and professor of surgery at Baylor College of Medicine, added in the release. “The ability to quickly reposition the system, obtain high-quality 3D imaging, and integrate advanced guidance tools directly into the workflow enhances procedural accuracy. This technology supports our mission to push the boundaries of what is possible in endovascular and interventional surgery.”

Houston clocks in as one of the hardest working cities in America

Ranking It

Houston and its residents are proving their tenacity as some of the hardest working Americans in 2026, so says a new study.

WalletHub's annual "Hardest-Working Cities in America (2026)" report ranked Houston the 37th most hardworking city nationwide. H-town last appeared as the 28th most industrious American city in 2025, but it still remains among the top 50.

The personal finance website evaluated 116 U.S. cities based on 11 key indicators across "direct" and "indirect" work factors, such as an individual's average workweek hours, average commute times, employment rates, and more.

The U.S. cities that comprised the top five include Cheyenne, Wyoming (No. 1); Anchorage, Alaska (No. 2); Washington, D.C. (No. 2); Sioux Falls, South Dakota (No. 4); and Irving, Texas (No. 5). Dallas and Austin also earned a spot among the top 10, landing as No. 7 and No. 10, respectively.

Based on the report's findings, Houston has the No. 31-best "direct work factors" ranking in the nation, which analyzed residents' average workweek hours, employment rates, the share of households where no adults work, the share of workers leaving vacation time unused, the share of "engaged" workers, and the rate of "idle youth" (residents aged 16-24 that are not in school nor have a job).

However, Houston lagged behind in the "indirect work factors" ranking, landing at No. 77 out of all 116 cities in the report. "Indirect" work factors that were considered include residents' average commute times, the share of workers with multiple jobs, the share of residents who participate in local groups or organizations, annual volunteer hours, and residents' average leisure time spent per day.

Based on data from The Organisation for Economic Co-operation and Development (OECD), WalletHub said the average American employee works hundreds of more hours than workers residing in "several other industrialized nations."

"The typical American puts in 1,796 hours per year – 179 more than in Japan, 284 more than in the U.K., and 465 more than in Germany," the report's author wrote. "In recent years, the rise of remote work has, in some cases, extended work hours even further."

WalletHub also tracked the nation's lowest and highest employment rates based on the largest city in each state from 2009 to 2024.

Source: WalletHub

Other Texas cities that earned spots on the list include Fort Worth (No. 13), Corpus Christi (No. 14), Arlington (No. 15), Plano (No. 17), Laredo (No. 22), Garland (No. 24), El Paso (No. 43), Lubbock (No. 46), and San Antonio (No. 61).

Data for this study was sourced from the U.S. Census Bureau, Bureau of Labor Statistics, U.S. Travel Association, Gallup, Social Science Research Council, and the Corporation for National & Community Service as of January 29, 2026.

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This article originally appeared on CultureMap.com.

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