A Houston life science expert shares what she thinks Houston needs to work on to continue growing as an health care innovation ecosystem. Photo via Getty Images

Once upon a time in Houston, a promising startup, let’s call it BioMatrix, set out to revolutionize the world of biomaterials. Their groundbreaking product held immense potential, but the company faced the harsh reality of a lack of funding, resources, and talent in their local life sciences sector.

As they watched well-funded competitors in established hubs like Boston and Silicon Valley flourish, the passionate team at BioMatrix persevered, determined to overcome these challenges, and make their mark in the rapidly evolving world of MedTech and life sciences. But would they ultimately move to a richer life science hub?

Over the years, Houston has emerged as a life sciences hub, fueled by the world's largest medical center, Texas Medical Center, and an expanding network of research institutions, startups, and investors. However, despite all its potential, the city still lags other innovation hubs and isn’t included in many of the lists for top life science ecosystems. The challenges are many-fold, but some primary challenges are associated with lack of capital, trouble with talent acquisition, and weak collaboration.

Despite an uptick in venture capital funding, Houston's life sciences sector still trails the likes of Silicon Valley and Boston. Programs like CPRIT help keep companies within Texas, while Houston's unique advantages, such as lower living costs and the TMC's presence, can attract investments, but ultimately, to secure necessary capital, stakeholders must cultivate relationships with investors, government agencies, and other funding sources to infuse more money into the Houston ecosystem. And, when individuals try to do this, the rest of the ecosystem must be supportive.

Talent retention and attraction pose another challenge, as Houston competes with well-funded life science hubs offering abundant research institutions and funding opportunities. While Houston boasts numerous educational institutions producing skilled life sciences graduates, many curricula primarily prepare students for academic rather than industry careers, creating a skills and knowledge gap.

Having a lot of experience in academia doesn’t often translate well into the industry, as is demonstrated by many startup founders who struggle to understand the various stakeholder requirements in bringing a life science product to market.

To bridge this, educational institutions should incorporate more industry-oriented courses and training programs, like Rice University’s GMI Program, that emphasize practical skills and real-world applications. Collaborating with local companies for internships, co-op placements, and hands-on experiences can expose students to industry practices and foster valuable connections.

For any life science company, navigating the intricate regulatory landscape is also a challenge, as missteps can be disastrous. However, it’s even more of a challenge when you lack the fundamentals knowledge of what is required and the skills to effectively engage with industry experts in the space.

To address this, Houston must provide more opportunities for companies to learn about regulatory complexities from experts. Workshops, accelerators, or dedicated graduate and undergraduate courses focusing on regulatory compliance and best practices can facilitate knowledge and experience exchange between regulatory experts and innovators.

The initial inception of M1 MedTech was the result of a personal experience with a company who didn’t understand the fundamentals for regulatory interactions and didn’t know how to appropriately engage with consultants, resulting in time and money wasted.

Enhancing collaboration among Houston's life science stakeholders — including academia, research institutions, healthcare providers, subject matter experts, innovators, and investors — is fundamental for growth. A robust and lively professional network can stimulate innovation and help emerging companies access essential resources.

To this end, Houston should organize more industry-specific events, workshops, and conferences, connecting key life science players and showcasing the city's commitment to innovation. These events can also offer networking opportunities with industry leaders, attracting and retaining top talent. We’ve seen some of this with the Texas Life Science Forum and now with the Ion's events, but we could afford to host a lot more.

Houston's life sciences sector holds immense growth potential, but addressing funding, talent recruitment, regulatory navigation, and collaboration challenges is needed for continued success. By tackling these issues and leveraging its unique strengths, Houston can establish itself as a significant player in the global life sciences arenas. If we wait too long, we won’t be able to truly establish the Third Coast because another player will come into the mix, and we’ll lose companies like BioMatrix to their golden shores.

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Isabella Schmitt is the director of regulatory affairs at Proxima Clinical Research and principal at M1 MedTech.

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MD Anderson makes AI partnership to advance precision oncology

AI Oncology

Few experts will disagree that data-driven medicine is one of the most certain ways forward for our health. However, actually adopting it comes at a steep curve. But what if using the technology were democratized?

This is the question that SOPHiA GENETICS has been seeking to answer since 2011 with its universal AI platform, SOPHiA DDM. The cloud-native system analyzes and interprets complex health care data across technologies and institutions, allowing hospitals and clinicians to gain clinically actionable insights faster and at scale.

The University of Texas MD Anderson Cancer Center has just announced its official collaboration with SOPHiA GENETICS to accelerate breakthroughs in precision oncology. Together, they are developing a novel sequencing oncology test, as well as creating several programs targeted at the research and development of additional technology.

That technology will allow the hospital to develop new ways to chart the growth and changes of tumors in real time, pick the best clinical trials and medications for patients and make genomic testing more reliable. Shashikant Kulkarni, deputy division head for Molecular Pathology, and Dr. J. Bryan, assistant professor, will lead the collaboration on MD Anderson’s end.

“Cancer research has evolved rapidly, and we have more health data available than ever before. Our collaboration with SOPHiA GENETICS reflects how our lab is evolving and integrating advanced analytics and AI to better interpret complex molecular information,” Dr. Donna Hansel, division head of Pathology and Laboratory Medicine at MD Anderson, said in a press release. “This collaboration will expand our ability to translate high-dimensional data into insights that can meaningfully advance research and precision oncology.”

SOPHiA GENETICS is based in Switzerland and France, and has its U.S. offices in Boston.

“This collaboration with MD Anderson amplifies our shared ambition to push the boundaries of what is possible in cancer research,” Dr. Philippe Menu, chief product officer and chief medical officer at SOPHiA GENETICS, added in the release. “With SOPHiA DDM as a unifying analytical layer, we are enabling new discoveries, accelerating breakthroughs in precision oncology and, most importantly, enabling patients around the globe to benefit from these innovations by bringing leading technologies to all geographies quickly and at scale.”

Houston company plans lunar mission to test clean energy resource

lunar power

Houston-based natural resource and lunar development company Black Moon Energy Corporation (BMEC) announced that it is planning a robotic mission to the surface of the moon within the next five years.

The company has engaged NASA’s Jet Propulsion Laboratory (JPL) and Caltech to carry out the mission’s robotic systems, scientific instrumentation, data acquisition and mission operations. Black Moon will lead mission management, resource-assessment strategy and large-scale operations planning.

The goal of the year-long expedition will be to gather data and perform operations to determine the feasibility of a lunar Helium-3 supply chain. Helium-3 is abundant on the surface of the moon, but extremely rare on Earth. BMEC believes it could be a solution to the world's accelerating energy challenges.

Helium-3 fusion releases 4 million times more energy than the combustion of fossil fuels and four times more energy than traditional nuclear fission in a “clean” manner with no primary radioactive products or environmental issues, according to BMEC. Additionally, the company estimates that there is enough lunar Helium-3 to power humanity for thousands of years.

"By combining Black Moon's expertise in resource development with JPL and Caltech's renowned scientific and engineering capabilities, we are building the knowledge base required to power a new era of clean, abundant, and affordable energy for the entire planet," David Warden, CEO of BMEC, said in a news release.

The company says that information gathered from the planned lunar mission will support potential applications in fusion power generation, national security systems, quantum computing, radiation detection, medical imaging and cryogenic technologies.

Black Moon Energy was founded in 2022 by David Warden, Leroy Chiao, Peter Jones and Dan Warden. Chiao served as a NASA astronaut for 15 years. The other founders have held positions at Rice University, Schlumberger, BP and other major energy space organizations.

Houston co. makes breakthrough in clean carbon fiber manufacturing

Future of Fiber

Houston-based Mars Materials has made a breakthrough in turning stored carbon dioxide into everyday products.

In partnership with the Textile Innovation Engine of North Carolina and North Carolina State University, Mars Materials turned its CO2-derived product into a high-quality raw material for producing carbon fiber, according to a news release. According to the company, the product works "exactly like" the traditional chemical used to create carbon fiber that is derived from oil and coal.

Testing showed the end product met the high standards required for high-performance carbon fiber. Carbon fiber finds its way into aircraft, missile components, drones, racecars, golf clubs, snowboards, bridges, X-ray equipment, prosthetics, wind turbine blades and more.

The successful test “keeps a promise we made to our investors and the industry,” Aaron Fitzgerald, co-founder and CEO of Mars Materials, said in the release. “We proved we can make carbon fiber from the air without losing any quality.”

“Just as we did with our water-soluble polymers, getting it right on the first try allows us to move faster,” Fitzgerald adds. “We can now focus on scaling up production to accelerate bringing manufacturing of this critical material back to the U.S.”

Mars Materials, founded in 2019, converts captured carbon into resources, such as carbon fiber and wastewater treatment chemicals. Investors include Untapped Capital, Prithvi Ventures, Climate Capital Collective, Overlap Holdings, BlackTech Capital, Jonathan Azoff, Nate Salpeter and Brian Andrés Helmick.

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This article originally appeared on our sister site, EnergyCapitalHTX.com.