Early-stage cell therapy startup March Biosciences has partnered with CTMC. Photo via march.bio

When it came time to name their cell therapy startup, Houston life science innovators simply had to look to their calendar.

“I would argue that March is the best month in Houston,” Sarah Hein tells InnovationMap. “We started talking about putting this company together during COVID, so we were outside a lot. And we actually got together in March.”

That’s why the CEO and her co-founders Max Mamonkin and Malcolm Brenner decided to name their company March Biosciences.

It's a fresh, unstuffy name for a startup that has an innovative take on cancer immunotherapy. Their lead asset is an advanced cellular therapy known as MB-105, an autologous CD5 CAR T cell therapy. For patients with T-cell lymphoma and leukemia who have failed all currently available lines of therapy, the prognosis is understandably extremely poor. But in a phase one study, MB-105 has been proven to safely treat those patients. The phase two study is expected to begin in the first half of 2024.

Hein met Mamonkin at the TMC Accelerator for Cancer Therapeutics (ACT), at which the alumna of Resonant Therapeutics and Courier Therapeutics was an entrepreneur in residence.

“It's a perfect example of the opportunities here in Houston where you can go from bench to bedside, essentially, in the same institution. And Baylor has been particularly good at that because of the Center for Cell and Gene Therapy,” says Hein.

The serial entrepreneur first came to Houston as a PhD student in molecular and cellular biology at Baylor College of Medicine, but during her studies she became excited by the startup ecosystem in her new hometown. After earning her degree, she became a venture fellow at the Mercury Fund. Her experience in both science and business made her an ideal candidate to take March Biosciences to the next level.

In September, the company announced that it formed a strategic alliance with CTMC (Cell Therapy Manufacturing Center), a joint venture between MD Anderson Cancer Center and National Resilience.

“Our unique risk-sharing model allows us to collaborate with organizations like March Biosciences to accelerate the development and manufacture of innovative cell therapies, like MB-105, and bring them into the clinic with a consistent and scalable manufacturing process,” said CTMC’s CEO, Jason Bock in a press release.

The partnership “has allowed us to move really quickly,” Hein says.

That’s because what CTMC does uniquely well is take early stage companies like March Biosciences and advance them to a state that’s ready for manufacturing in a short time, around 18 months, says Hein.

According to Hein, March Biosciences’ success is a testament to Houston and its world-class medical center.

“It’s a great example of the opportunities you see here in Houston, where we have a technology that was developed by brilliant scientists here in Houston and we can pull together the resources that we need to take it to the next level,” Hein says. "Working with partners here in Houston, we have all the pieces and the community rises to the occasion to support you.”

Jason Bock, founder and CEO of the Cell Therapy Manufacturing Center, joins the Houston Innovators Podcast to explain the complicated — yet necessary — process of scaling cell therapies. Photo courtesy

Houston innovator aims to scale cancer-curing cell therapies

HOUSTON INNOVATORS PODCAST EPISODE 185

It's almost unreal what can be done with therapeutics today, especially in the specialty of cell therapy.

"It feels like science fiction," says Jason Bock, founder and CEO of the Cell Therapy Manufacturing Center, or CTMC, a joint venture between National Resilience and MD Anderson Cancer Center.

Cell therapy is essentially personalized medicine, he explains. The process includes taking out a patient’s own immune cells, identifying specifically the T-cells, and engineer them to have them target cancer before expanding them and reintroducing them to the patient.

“The supply chain begins with the patient,” Bock explains on the Houston Innovators Podcast. “If the patient is going to be an integral part of the supply chain, one way to simplify your supply chain is to locate your manufacturing very close to where your patients are.”

That's where CTMC, located in the heart of the Texas Medical Center, comes in. Bock moved to Houston from the East Coast four years to stand up the program at MD Anderson. The founding thesis was to work with faculty members who have interesting ideas for biologics or cell therapies, help them industrialize them, and then bring them into the MD Anderson clinic to evaluate in patients.

Last year, the entity spun out into a joint venture structure with National Resilience, a company that was founded amid the pandemic to build resilience in the nation for complex biologics manufacturing — like vaccines, for instance — in order to expedite the process of getting these treatments to patients.

With access to patients established, how do you address scalability of this treatment in a field that's so customized?

While it might sound like a challenge to scale personalized medicine — it's a worthwhile challenge. Bock says that even though cell therapy is in its early stages still — the first treatment was approved by the FDA just five years ago — early studies have shown patients, who essentially have no other treatment options, can see life-saving results in as little as one treatment.

"We see in a large group of patients — 30 to 50 percent of patients — are cured with one dose," he says on the show.

CTMC has a 60,000-square-foot space two blocks away from MD Anderson. This critical lab space with 14 clean rooms was made available after its previous biotech tenant moved out. The setup can support up to 140 people, and the organization has grown to 80 people over the past few years.

Bock says CTMC is an engine for cell therapy research — one that can take a therapeutic from research to the clinic in about one to two years. Every year, he says CTMC can roll three to five therapeutics into the clinic phase.

And, Houston's an ideal place to do that.

"Houston has a chance to play a role in all aspects of cell therapy," he says, from discovery to the clinical side. "Some really interesting cell therapies that are in development were discovered here in Houston."

Bock shares more on how the impact CTMC is making on cell therapy advancement on the podcast. Listen to the interview below — or wherever you stream your podcasts — and subscribe for weekly episodes.


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Houston hardtech accelerator names 8 founders to 2026 cohort

hardtech fellows

Hardtech-focused organization Activate has named 50 new members to its 2026 cohort of scientists, which includes eight startups joining Activate Houston.

Activate aims to support scientists at "the outset of their entrepreneurial journey." It partners with U.S.-based funders and research institutions to support its fellows in developing high-impact technology. Its fellows receive a living stipend, research and development funding, connections from Activate's robust network of mentors and access to a curriculum specific to the program for two years.

This year's fellows represent 41 companies from 22 U.S. cities and 11 states.

“This cohort clearly demonstrates that the next industry-defining companies won't choose between modern technology and deep science; they'll be built by combining both,” Cyrus Wadia, CEO of Activate, said in the announcement. “These are the scientists and engineers turning our most urgent global challenges into the companies that will deliver a more sustainable future.”

The Houston fellows are working across the energy, space, AI infrastructure and agriculture sectors. They include:

  • Sophie Clare Broun, founder of Anning Corporation, which is producing clean hydrogen by stimulating naturally occurring geologic deposits
  • Kathy Andersen, founder of Brint Tech, which builds optical sensing systems that quantify hydrogen for infrastructure operators
  • Dorsa Talebi, founder of Kinetiq Drive, which builds rare-earth-free, contact-free electric motors with wireless rotors for small appliances and heavy industry alike
  • Neethu Pottackal, founder of Nivera, which is developing natural, edible coatings made from agricultural byproducts to reduce food waste and extend the shelf life of fresh food
  • Jonathan Huffman, founder of Orbital Arc, which is shrinking spacecraft propulsion to a microchip powerful enough for deep space
  • Tim Lee, founder of Renesin, which develops advanced materials for faster, more efficient AI hardware
  • Joshua Livingston, founder of Selerra Separations, which is developing high-performance membranes that cut the cost and energy consumption of water treatment
  • Wenli Jiang, founder of SwieNitro Recovery, which is developing technology that converts nitrogen-rich waste streams into valuable fertilizer

"Home to the largest concentration of engineers in the United States and a dense ecosystem of Fortune 100 and Fortune 500 companies, Houston is uniquely positioned for scientists tackling large-scale industrial challenges. Activate Houston fellows are connected to the city's deep networks in energy, chemicals, and materials," Activate said in the announcement.

Activate named its inaugural Houston cohort in 2024. It has other hubs in Boston, New York, and Berkley, California—where Activate is headquartered. The organization also offers a virtual and remote cohort, known as Activate Anywhere. Nationally, it has supported 346 fellows and 276 companies since 2015.

Activate Houston is led by managing director Jeremy Pitts, who co-founded Greentown Labs in Boston. It is based out of the Ion. The latest cohort is Activate Houston's third. Read more about the last year's cohort here.

Rice, Houston Methodist award $90K for cancer research projects

seed grants

Rice University’s Synthesis X Center, in partnership with the Houston Methodist Neal Cancer Center, announced earlier this month the organizations would award $90,000 in seed grant funding to two projects that could help fight cancer. One would ease the pain of chemotherapy, while the other could change the way the progression of leukemia is tracked.

“We’re excited to be collaborating with the Neal Cancer Center to support collaborative, novel and interdisciplinary proposals to improve cancer care and outcomes,” Han Xiao, Rice professor of chemistry and the director of the SynthX Center, said in a news release. “Together, we can achieve translational excellence.”

The projects

Chemotherapy is one of the most effective cancer treatments, but it can be hard on the body. The human body doesn’t like being injected with radioactive material, especially the skin around the injection point, which can become extremely irritated. For patients in long-term treatment, the skin irritation can be more than just a bother; it can lead to infections that are dangerous to a compromised immune system.

Angel A Marti, a professor of chemistry at Rice University, and Biana Godin, an associate professor of nanoscience at Houston Methodist Research Institute, are experimenting with metal nanoclusters as a way to block radiation at the injection site. The nanocluster could be applied in a cream or a gel on the skin, serving as a type of shield against the harsh radioactive material.

Meanwhile, Yuan Ma, an assistant professor of chemistry at Rice, and Shu-Hsia Chen, a professor of immunology at Houston Methodist Research Institute, are working with m6A. Discovered in the 1970s, m6A is the most prevalent chemical modifier found in mRNA in mammals. It is prevalent in many cancers, including leukemia.

Ma and Chen are working on measuring the amount of m6A in leukemia to see if it can determine the most effective cancer treatments. The team is also experimenting with ways to shut off m6A to see if it makes current leukemia treatments more effective.

Progress from SynthX

SynthX was first launched in April 2024 to turn research from Rice and Houston Methodist into real-world cancer treatments. Within a year, the center had secured $1.5 million in grant money to work on crossing the blood-brain barrier in brain cancer treatments. These latest awards show that SynthX Center continues to bridge the worlds of research and clinical practice.

“This collaboration reflects a shared commitment to team science in cancer research,” Daniela Matei, the director of the Houston Methodist Neal Cancer Center, added in the release. “These are the types of translational and pioneering projects that lead to transformation in patient care.”'

The SynthX Center awarded $90,000 in seed grants to three teams in 2025 and $80,000 to three teams in 2024.

Tesla self-driving mode wasn't to blame in Houston-area crash, report suggests

Tesla news

Federal safety investigators looking into a runaway Tesla that killed a grandmother in her home say the driver had pressed the accelerator to full speed, suggesting the vehicle's self-driving software was not to blame.

The driver had told police that he had the self-driving software turned on, but a report from the National Transportation Safety Board concluded that he had actually overridden that feature when he pushed hard on the pedal. Moments later the Tesla Model 3 raced down a residential street in Katy, Texas, at highway speeds, slammed into a brick home and killed a 76-year-old woman standing in the front room.

The crash last month drew national attention because Tesla CEO Elon Musk is seeking to reassure the public its self-driving feature is safe as he prepares to turn hundreds of thousands of Teslas already on the road into fully automatic vehicles and begin selling two-seated Cybercabs missing steering wheels and pedals.

The crash came two months after officials at a separate federal agency, the National Highway Traffic Safety Administration, announced it was elevating a 2024 investigation of the self-driving feature to new “engineering analysis” level, raising the possibility of a recall of 3.2 million Tesla vehicles.

That NHTSA probe was triggered by crashes where the self-driving feature failed to alert drivers to take control in fog and other poor visibility conditions.

The agency opened an investigation last year into 58 incidents in which Teslas reportedly violated traffic safety laws while using self-driving technology, leading to more than a dozen crashes and fires and nearly two dozen injuries.

Separate from the National Transportation Safety Board, NHTSA is also looking into the Tesla house crash in Texas, one of 46 “special crash” investigations of Tesla's self-driving or driver-assistance technology in the past decade, according to the agency’s records. In more than a dozen of those crashes, at least one person — a driver, passenger or pedestrian — was killed.

Tesla had originally called its driver assistance software Full Self-Driving, or FSD, but auto experts and regulators complained it was misleading because drivers must always keep their eyes on the road and be ready to take over at any time.

The company has since changed the name to Full Self-Driving (Supervised).

Video of the Katy, Texas, accident shows the Tesla traveling at more than 70 mph (112.65 kilometers per hour), jumping a curb then tearing across a lawn before crushing through a brick wall of a home. A woman standing feet away, Martha Avila, was found amid piles of crumbling plaster, split beams and bits of furniture and rushed to a hospital but died.

Sales of Tesla cars still haven't recovered fully from boycotts last year over Musk's political stands, but the stock is rising anyway as he has successfully shifted attention away from the sales figures. He says they matter less now that the company is on the cusp of major technological advances, such as turning Teslas into hands-free vehicles and having its Optimus robots take over for humans for tasks at home and work.

Tesla stock has risen 22% in the past year and is currently trading at 170 times expected annual earnings compared to 20 for the S&P 500.

For its second-quarter financial results, financial analysts surveyed by FactSet expect earnings per share will barely budge — 32 cents versus 33 cents a year earlier — continuing a sixth quarter streak of flat or falling profits.