Houston regenerative medicine company expands lab for future trials

new digs

FibroBiologics has opened a new 10,000-square-foot Houston lab to scale up research efforts and pave the way for in-house manufacturing. Photo via Fibrobiologics.com

A Houston regenerative medicine company has unveiled new laboratory space with the goal of expanding its pioneering science.

FibroBiologics uses fibroblasts, the body’s most common type of cell, rather than stem cells, to help grow new cells. Fibroblasts are the primary variety of cells that compose connective tissue. FibroBiologics has found in studies that fibroblasts can be even more powerful than stem cells when it comes to both regeneration and immune modulation, meaning they could be a more versatile way forward in those fields.

In 2023, FibroBiologics moved into new lab space in the UH Technology Bridge. Now, with its new space, the publicly traded company, which has more than 240 patents issued or pending, will be even better equipped to power forward with its research.

The new space includes more than 10,000 square feet of space devoted to both labs and offices. The location is large enough to also house manufacturing drug product candidates that will be used in upcoming trials. Additionally, the company reports that it plans to hire additional researchers to help staff the facility.

“This expansion marks a transformative step forward for our company and our mission,” Pete O’Heeron, FibroBiologics founder and CEO, said in a news release. “By significantly increasing the size of our lab, we are creating the space and infrastructure needed to foster greater innovation and accelerate scientific breakthroughs.”

The streamlined, in-house manufacturing process will reduce the company’s reliance on external partners and make the supply chain simpler, O’Heeron added in the release.

Hamid Khoja, the chief scientific officer for FibroBiologics, also chimed in.

“To date, our progress in developing potentially transformative therapeutic candidates for chronic diseases using fibroblasts has been remarkable,” he added in the release. “This new laboratory facility will enable further expansion and acceleration of our research and development efforts. Additionally, the expansive new space will enable us to bring in-house currently outsourced projects, expand our science team and further contribute to the increased efficiency of our R&D efforts.”

This news arrives shortly after a milestone for the company in its research about neurodegenerative disease. Last month, fibroblast treatments in an animal model study demonstrated a notable regeneration of the myelin sheath, the layer that insulates nerves and is worn down by disease.

“Confirming remyelination in a second validated animal model is an important step in our research and development efforts, offering fresh hope for patients with demyelinating diseases, including multiple sclerosis,” O’Heeron added in a separate release. “These findings advance our mission to develop transformative fibroblast-based therapies that address the root causes of chronic disease, not just their symptoms, and reflect our dedication to pushing the frontiers of regenerative medicine."

From Your Site Articles
FibroBiologics will IPO this week. Photo via Getty Images

Houston regenerative medicine company to IPO, move toward more human trials

ready to list

Want a piece of one of Houston’s most promising biotech companies? On January 31, FibroBiologics will begin the trading of its common stock on the Nasdaq stock exchange.

While most labs in the realm of regenerative medicine are focused on stem cells, FibroBiologics has bet on fibroblasts as the secret to treating myriad ailments. Fibroblasts, the most common type of cell in the body, are the primary cells that compose connective tissue.

Interested investors can find a prospectus to peruse before taking the leap. FibroBiologics filed with the U.S. Securities & Exchange Commission (SEC) on November 7, 2023. In September, FibroBiologics CEO Pete O’Heeron told InnovationMap, “I think what we're going to see is that fibroblasts are going to end up winning... They're just a better overall cell than the stem cells.”

O’Heeron was first exposed to the possibilities of fibroblasts as a means of regrowing discs in the spine. Since starting the company in 2008 as SpinalCyte, O’Heeron and FibroBiologics have organically written and filed more than 320 patents. Potential treatments go far beyond spinal surgery to include wound care, cancer, and multiple sclerosis.

According to O’Heeron, the goal in going public is to raise capital for human trials.

“We’ve had really fantastic results with animals and now we’re ready for humans,” he explained in September. “We've done small human trials, but we haven't done the large ones that are going to get the commercialization approval from the FDA.”

FibroBiologics is growing with impressive speed. O’Heeron told us that he is hiring as quickly as he is able to find qualified scientists with the expertise to do the one-of-a-kind work required. The company opened a new lab last fall at the UH Technology Bridge, Newlin-Linscomb Lab for Cell Therapies. With its new status as a publicly traded company, FibroBiologics is primed to break even more ground.

FibroBiologics is opening a unique new lab at the University of Houston's Technology Bridge. Photo by Natalie Harms/InnovationMap

Houston regenerative medicine company opens new lab at UH

cell therapy innovation

Pete O’Heeron wants you to know that “Bohemian Rhapsody” was originally released as a B-side. What does this nugget about Queen have to do with regenerative medicine? For O’Heeron and his company, FibroBiologics, it means everything.

That’s because most scientists consider stem cells the A-side when it comes to the race to curing disease. But FibroBiologics has set its sights on fibroblasts. The most common cell in the body, fibroblasts are the main cell type in connective tissue.

“Everyone was betting on stem cells, and we started betting on fibroblasts,” says O’Heeron, who started the company in 2008 as SpinalCyte. “I think what we're going to see is that fibroblasts are going to end up winning, there are more robust, more that are lower cost cell, they have higher therapeutic values, higher immune modulation. They're just a better overall cell than the than the stem cells.”

Since a neurosurgeon and a dermatologist first introduced O’Heeron to the idea of using fibroblasts to regrow discs in the spine, the company has expanded its reach to include promising treatments for multiple sclerosis and cancer and in wound care. Imagine a world where doctors lay fibroblasts directly onto surgical incisions after surgery, cutting the time for healing in half.

FibroBiologics has organically written and filed more than 320 patents.

“It's quite a unique situation. I don’t think that in other areas of science that you have such a wide open area to go out and patent. It's just it was a brand new area nobody had been working on,” O’Heeron explains.

And soon, investors will be able to own a stake in the impressive work being forged in Houston. FibroBiologics, previously FibroGenesis, was formed in order to go public in a direct NASDAQ listing. The goal is to access the capital necessary to go to human trials. Earlier this year, the company also launched a crowdfunding campaign.

“We’ve had really fantastic results with animals and now we’re ready for humans,” says O’Heeron. “We've done small human trials, but we haven't done the large ones that are going to get the commercialization approval from the FDA.”

With that in mind, the company just signed a deal with University of Houston’s Innovation Center. On Thursday, September 7, FibroBiologics will dedicate the Newlin-Linscomb Lab for Cell Therapies in the UH Technology Bridge. The new lab is named for former player and color commentator for the Houston Rockets, Mike Newlin and his wife, Cindy, as well as Pam and Dan Linscomb, a founding partner of Kuhl-Linscomb, one of the largest wealth management companies in Houston.

Other big local names newly attached to the company are astronaut Kate Rubins and Elizabeth Shpall, the director of the cell therapy laboratory at MD Anderson Cancer Center. Both have joined FibroBiologics as members of its scientific advisory board.

To fill the lab, O’Heeron says that he is adding to his team as quickly as he is able. The barrier is the fact that there are few, if any people in the world with the exact qualifications he’s seeking.

“Anytime you're breaking new scientific ground, you can't really just go out and recruit someone with that background because it really doesn't exist,” he says. But he is willing to teach and challenge scientists who are the right fit, and is hoping to expand the team in the new lab.

But like Queen did in 1975, FibroBiologics is pioneering a category of its own. And that’s something worth betting on.

A Houston research team is studying the effects of regenerative medicine on hearts. Photo via TMC.org

Innovative Houston lab works with 'ghost hearts' to study impact of regenerative medicine

stem cell magic

Ask any high achiever and they’ll tell you — failure is the path to success.

As Camila Hochman-Mendez puts it, “I’m like Thomas Edison, right? I know a thousand ways of how not to create a lightbulb.” But she’s not really talking about electricity. Hochman-Mendez is director of Regenerative Medicine Research and the Biorepository Core at Texas Heart Institute.

Hochman-Mendez follows another pioneering woman in the role, Doris Taylor. The younger scientist took on the prime job when Taylor left in 2020. By then, Hochman-Mendez had been at The Texas Heart Institute for three years, moving from research scientist to assistant director in just four months.

Regenerative Medicine is every bit as exciting as it sounds. At Hochman-Mendez’s lab, her team creates ghost hearts — organs from which all cells are scrubbed, leaving collagen, fibronectin, and laminin in the shape of the formerly beating ticker. The goal is to use the decellularized organs as protein scaffolds that, once injected with stem cells, will once again contract and pump blood.

Hochman-Mendez cautions that we are still years away from that point, but her lab is working hard to get there.

“The ultimate goal is to develop functional hearts that can be used for transplant,” says Hochman-Mendez.

Those hearts would be made from the patient’s own cells, avoiding organ rejection, which the scientist says is essentially trading one disease for another. But she is realistic about that fact that there are many barriers to her success.

“It does come with a lot of technical challenges,” she says.

These challenges include the simple number of cells that billions, and potentially hundreds of billions of cardiomyocytes are needed to recreate a human heart. The necessary protocols, Hochman-Mendez explains, are extremely costly and labor intensive.

It also takes 60 days for the cells to reach a maturity at which they can function. The lab recently received a pair of grants targeted at creating bioreactors that can be reliable for at least those 60 days.

The third major issue facing the Regenerative Medicine lab is contamination.

“It needs to be very sterile,” says Hochman-Mendez. “It needs to be so clean that if you have one tiny bacteria there, you’re screwed.”

Fortunately, the scientist says that her favorite hobby is computer programming. She and a physician colleague have created a robotic arm that can help to prevent the contamination that often stemmed from humans manually injecting stem cells into the decellularized organs.

This not only works towards solving the contamination problem, it also allows the team to more accurately distribute the cells that they add, using an injection map. To that end, she is producing a three-dimensional model of a protein scaffold that will allow her team and other scientists in the field of regenerative medicine to understand how the cells really disperse when they inject them.

When will her lab produce working hearts?

“I try to be very conservative on timing,” she says.

She explains that it will take significant leaps in technology to make a heart mature to the level at which it’s usable for an adult body in 60 days.

“That’s magic and I don’t believe in magic,” she says, but adds that she hopes to have a prototype ready to be tested in five years.

Hochman-Mendez does this all with a small team of nine researchers, most of whom happen to be female.

“The best candidates are the ones that I select," she says. "The majority are females. I think it’s a mix of trying to be very unbiased, but I usually don’t even look at the name before looking at the CV to preselect the people that I interview.”

And together, Hochman-Mendez are making medical history, one success-spawning failure at a time.

Camila Hochman-Mendez is director of Regenerative Medicine Research and the Biorepository Core at Texas Heart Institute. Photo via texasheart.org

You can now hop online and invest in this promising cell therapy startup. Photo via Getty Images

Houston biopharma company launches equity crowdfunding campaign

money moves

A clinical-stage company headquartered in Houston has opened an online funding campaign.

FibroBiologics, which is developing fibroblast cell-based therapeutics for chronic diseases, launched a campaign with equity crowdfunding platform StartEngine. The platform lets anyone — regardless of their net worth or income level — to invest in securities issued by startups.

The funding, according to a press release, will be used to support ongoing operations of Fibrobiologics and advance its clinical programs in multiple sclerosis, degenerative disc disease, wound care, extension of life, and cancer.

"We're excited to partner with StartEngine on this campaign. StartEngine has over 600,000 investors as part of their community and has raised over half a billion dollars for its clients," says FibroBiologics' Founder and CEO Pete O'Heeron, in the release.

"This is an exciting time at FibroBiologics as we continue progressing our clinical pipeline and developing innovative therapies to treat chronic diseases," he continues. "This new funding will fuel our growth in the lab and bring us one step closer to commercialization."

The campaign, launched this week, already has over 100 investors, at the time of publication, and has raised nearly $2 million, according to the page. The minimum investment is set at around $500, and the company's indicated valuation is $252.57 million.

In 2021, FibroBiologics announced its intention of going public. Last year, O'Heeron told InnovationMap on the Houston Innovators Podcast of the company's growth plans as well as the specifics of the technology.

Only two types of cells — stem cells and fibroblasts — can be used in cell therapy for a regenerative treatment, which is when specialists take healthy cells from a patient and inject them into a part of the body that needs it the most. As O'Heeron explains in the podcast, fibroblasts can do it more effectively and cheaper than stem cells.

"(Fibroblasts) can essentially do everything a stem cell can do, only they can do it better," says O'Heeron. "We've done tests in the lab and we've seen them outperform stem cells by a low of 50 percent to a high of about 220 percent on different disease paths."


Celltex is looking into using stem cells to treat COVID-19, and the Houston biotech company just got the green light to go to trials. Photo courtesy of Celltex

Houston biotech company gets FDA greenlight to move forward with COVID-19 stem cell treatment

coronavirus cure?

A Houston-based biotech company announced last week that it has gotten the approval it was seeking from the U.S. Food and Drug Administration to continue testing its COVID-19 treatment that uses stem cells.

Celltex has received approval from its Investigational New Drug application, or IND, to look into stem cells — specifically Autologous Adipose Tissue-Derived Mesenchymal Stem Cells, or AdMSCs — and their effect on COVID-19 patients.

"The FDA's approval of our IND is not only a critical milestone for Celltex, but also for everyone who has been affected by COVID-19," says David G. Eller, Celltex chairman and CEO. "I am optimistic that our findings will result in favorable outcomes that will improve lives today and for generations to come."

Celltex has been in the stem cell business for nearly a decade and has treated patients with debilitating diseases like multiple sclerosis, Parkinson's, rheumatoid arthritis, and more. Eller says he's been considering how Mesenchymal Stem Cells, or MSCs, could be used amid the pandemic.

"Throughout the entire pandemic, MSCs have shown promise for combatting symptoms and complications associated with COVID-19, and as the nation's leading commercial MSC banking and technology company, Celltex has the unique ability to transition these initial findings into a clinical trial," Eller says.

The FDA clearance will allow for a phase two trial "that will evaluate the safety and prophylactic efficacy of AdMSCs against COVID-19," according to the release. There will be 200 patients across multiple centers that will be involved in the placebo-controlled study.

Celltex offices out of the Galleria area and has laboratory operations of its wholly-owned Mexican subsidiary are located in Hospital Galenia in Cancún, Quintana Roo, Mexico. Last year, Celltex planned an expansion into Saudi Arabia and also has a presence in Europe.

Ad Placement 300x100
Ad Placement 300x600

CultureMap Emails are Awesome

Property Showcase

Rice University team develops eco-friendly method to destroy 'forever chemicals' in water

clean water research

Rice University researchers have teamed up with South Korean scientists to develop the first eco-friendly technology that captures and destroys toxic “forever chemicals,” or PFAS, in water.

PFAS have been linked to immune system disruption, certain cancers, liver damage and reproductive disorders. They can be found in water, soil and air, as well as in products like Teflon pans, waterproof clothing and food packaging. They do not degrade easily and are difficult to remove.

Thus far, PFAS cleanup methods have relied on adsorption, in which molecules cling to materials like activated carbon or ion-exchange resins. But these methods tend to have limited capacity, low efficiency, slow performance and can create additional waste.

The Rice-led study, published in the journal Advanced Materials, centered on a layered double hydroxide (LDH) material made from copper and aluminum that could rapidly capture PFAS and be used to destroy the chemicals.

The study was led by Rice professor Youngkun Chung, a postdoctoral fellow under the mentorship of Michael S. Wong. It was conducted in collaboration with Seoktae Kang, professor at the Korea Advanced Institute of Science and Technology, and Keon-Ham Kim, professor at Pukyung National University, who first discovered the LDH material.

The team evaluated the LDH material in river water, tap water and wastewater. And, according to Rice, that material’s unique copper-aluminum layers and charge imbalances created an ideal binding environment to capture PFAS molecules.

“To my astonishment, this LDH compound captured PFAS more than 1,000 times better than other materials,” Chung, lead author of the study and now a fellow at Rice’s WaTER (Water Technologies, Entrepreneurship and Research) Institute and Sustainability Institute, said in a news release. “It also worked incredibly fast, removing large amounts of PFAS within minutes, about 100 times faster than commercial carbon filters.”

Next, Chung, along with Rice professors Pedro Alvarez and James Tour, worked to develop an eco-friendly, sustainable method of thermally decomposing the PFAS captured on the LDH material. They heated saturated material with calcium carbonate, which eliminated more than half of the trapped PFAS without releasing toxic by-products.

The team believes the study’s results could potentially have large-scale applications in industrial cleanups and municipal water treatments.

“We are excited by the potential of this one-of-a-kind LDH-based technology to transform how PFAS-contaminated water sources are treated in the near future,” Wong added in the news release. “It’s the result of an extraordinary international collaboration and the creativity of young researchers.”

Axiom Space announces new CEO amid strategic leadership change

new leader

Six months after promoting Tejpaul Bhatia from chief revenue officer to CEO, commercial space infrastructure and human spaceflight services provider Axiom Space has replaced him.

On Oct. 15, Houston-based Axiom announced Jonathan Cirtain has succeeded Bhatia as CEO. Bhatia joined Axiom in 2021. Cirtain remains the company’s president, a role he assumed in June, according to his LinkedIn profile.

In a news release, Axiom said Cirtain’s appointment as CEO is a “strategic leadership change” aimed at advancing the company’s development of space infrastructure.

Axiom hired Cirtain as president in June, according to his LinkedIn profile. The company didn’t publicly announce that move.

Kam Ghaffarian, co-founder and executive chairman of Axiom, said Cirtain’s “proven track record of leadership and commitment to excellence align perfectly with our mission of building era-defining space infrastructure that will drive exploration and fuel the global space economy.”

Aside from praising Cirtain, Ghaffarian expressed his “sincere gratitude” for Bhatia’s work at Axiom, including his leadership as CEO during “a significant transition period.”

Bhatia was promoted to CEO in April after helping Axiom gain more than $1 billion in contracts, Space News reported. He succeeded Ghaffarian as CEO. Axiom didn’t indicate whether Bhatia quit or was terminated.

Cirtain, an astrophysicist, was a senior executive at BWX Technologies, a supplier of nuclear components and fuel, for eight years before joining Axiom. Earlier, Cirtain spent nearly nine years in various roles at NASA’s Marshall Space Flight Center in Huntsville, Alabama. He previously co-founded a machine learning company specializing in Earth observation.

“Axiom Space is pioneering the commercialization of low-Earth orbit infrastructure while accelerating advancements in human spaceflight technologies,” Cirtain said. “I look forward to continuing our team’s important work of driving innovation to support expanded access to space and off-planet capabilities that will underpin the future of space exploration.”

Among other projects, Axiom is developing the world’s first commercial space station, creating next-generation spacesuits for astronauts and sending astronauts on low-Earth orbit missions.

Houston billionaire benefactors will donate almost entire fortune to charity

Giving Back

Houston billionaires Rich and Nancy Kinder plan to donate an astounding 95% of their multi-billion-dollar wealth to charities, they told ABC13's Melanie Lawson.

The news comes as the Kinder Foundation announced an $18.5 million expansion project for Emancipation Park in the heart of Third Ward. That historic park was founded by slaves in 1872.

The Kinders are one of the wealthiest couples in the nation, worth $11.4 billion, according to Forbes. You've certainly seen the Kinder name on buildings and facilities around the city of Houston.

The Kinders are also among the most generous, giving away hundreds of millions to Houston institutions and charities. Their plan is to give away almost all of their wealth, or more than $10 billion.

Rich Kinder helped build oil and gas pipeline giant Kinder Morgan, but he stepped down as CEO more than a decade ago for a what he calls a bigger cause.

"Well, I think we'd all like to leave the world a little better place than we found it," he said. "And we just felt early on that the right thing to do was to try to give most or all of that away. So that's what we plan to do during our lifetime and after our death."

They found kindred spirits as one of the first couples to sign The Giving Pledge, established by billionaires Bill and Melinda Gates and Warren Buffett.

---

Continue reading the full story, with video, on ABC13.com.

View All Listings