Houston's San Jacinto College is launching a biotechnology program in early 2024 to be housed in the Center for Biotechnology in Generation Park. Rendering courtesy of McCord

Houston's San Jacinto College will roll out a new biotechnology program in early 2024 as it gets closer to its goal of launching the Center for Biotechnology in Generation Park.

In partnership with the Ireland-based National Institute for Bioprocessing Research and Training, the licensed training curriculum will offer regional biopharmaceutical training at the college's South Campus starting in January.

Initially, the 90-hour hybrid training program will provide opportunities for participants to gain experience with "all aspects of biomanufacturing, specialized instrumentation and equipment training, and advanced techniques," according to a statement. Students will earn an onboarding certificate that will help them enter the field.

The college then plans to open the Center for Biotechnology, developed by McCord Development Inc., at its Generation Park Campus in the first quarter of 2025. The state-of-the-art facility is slated to allow for more hands-on training within simulated environments, and will allow students to earn associate of applied science degrees in biomanufacturing technology, as well as credentials for those already in the workforce.

“The biomanufacturing industry is seeing substantial growth in the Greater-Houston area,” Christopher Wild, executive director for the San Jacinto College Center for Biotechnology, says in a statement. “The College’s partnership to offer NIBRT’s premier, industry-leading training right here in the Houston-area represents a firm commitment to bolstering the biomanufacturing workforce pipeline which will help position the region for continued growth.”

The center will also offer programs that are customizable to industry partners' needs, according to a statement, and will provide cost-effective training for new hires. It will be the only NIBRT-licensed training in the Southwest and Southeast region.

“The NIBRT team have been very impressed by San Jacinto’s excellent track record in developing workforce programmes for the Greater Houston Region across a broad range of industrial sectors," Darrin Morrissey, CEO of NIBRT, says in a statement. We are very much looking forward to working with the San Jacinto team to deliver world class biopharma training programs to their students."

The new center is part of Generation Park, a 4,300-acre master-planned development in Northeast Houston. In late 2022, San Jac and McCord, which is developing Generation Park, shared that they had signed a memorandum of understanding with the NIBRT to launch the program and center.

At the time, San Jacinto College was slated to be the institute’s sixth global partner and second U.S. partner.

Over the summer, McCord also revealed plans for its 45-acre biomanufacturing campus at Generation Park.
Generation Park has announced additional biomanufacturing facility development. Rendering courtesy of McCord

Real estate company unveils plans for 45-acre biomanufacturing campus in Northeast Houston

life science upgrade

A Houston-based real estate company has reveals its plans to create a 45-acre biomanufacturing campus in the first phase of a life science development in Generation Park.

McCord Development released its plans for BioHub Two this week. The project will include 500,000 square feet for manufacturing, lab, and office space located in Generation Park, a 4,300-acre master-planned development in Northeast Houston.

The news of the BioHub follows Generation Park's December announcement of the San Jacinto College’s Biotech Training Center, a project in partnership with the National Institute of Biotechnology Research and Training. The institute will have a "bioprocessing pilot plant operated in a realistic GMP simulated and operational manufacturing environment," according to a news release from McCord.

“Houston has consistently been ranked as a burgeoning life science cluster, and BioHub Two has the unique advantage of being a short walk from the region’s only Biotech Training Center at San Jacinto College’s Generation Park campus," says John Flournoy, senior director of sales and leasing.

Last year, the Greater Houston Partnership released data showing the potential for the Bayou City as a hub for biomanufacturing, cell and gene therapy, cancer treatment, drug development, and more. Earlier this summer, Houston maintained its standing as a hub for life sciences on an annual report from CBRE.

“Houston’s high concentration of life sciences employment, healthy funding landscape, access to the Texas’ $6 billion CPRIT grant fund, and commitment to translational research is making it one of the country’s fastest growing life science ecosystems,” says Ryan McCord, president of McCord Development, in the release. “BioHub Two’s location in Generation Park is strategic and cost-effective, as the world-leading research and development facilities at the Texas Medical Center, Houston International Airport and Port of Houston are in close proximity.”

The larger Generation Part plans include two multifamily complexes, a mixed-use development called The Commons, and retail and green spaces.

The Texas Medical Center unveiled its plans for the TMC BioPort, a biomanufacturing and medical supplies distribution engine, almost a year ago. This new campus will span several hundred acres just down the road from TMC and will drive the much-needed repatriation of critical medical supplies and new cell and gene therapies, per a news release.

The opening of the pilot plant marks the debut of Cemvita’s eCO2 business as a wholly owned subsidiary. Photo courtesy of Cemvita

Fast-growing startup with carbon-free solution sets up pilot plant in Houston

big moves

Cleantech startup Cemvita has set up a pilot plant in its hometown of Houston to develop technology for converting carbon emissions as feedstock to make products like fertilizer, plastics, methane, and fuel.

The opening of the pilot plant marks the debut of Cemvita’s eCO2 business as a wholly owned subsidiary. The term eCO2 refers to equivalent carbon dioxide, or a way to measure a combination of greenhouse gases such as carbon dioxide and methane.

With a capacity of more than 14,000 gallons, the plant is producing eCO2 oil, an alternative to soybean oil. The company already is shipping samples of eCO2 products to customers, including renewable-fuel companies and plastics manufacturers.

Cemvita says the biofuel industry is facing feedstock shortages and price fluctuations. Biofuel feedstocks produce starches or sugars that can be converted to produce ethanol, while others produce oil that can be used in biodiesel production, according to the Sustainable Agriculture Research & Education (SARE) program.

“Traditional biofuels, including renewable diesel and sustainable aviation fuel, have relied on oils derived from crops, such as soybean and corn, as well as recycled vegetable oils,” Cemvita says. “As demand grows for petroleum-free alternatives, feedstock is in short supply and must compete with food markets. Crops of soybeans, sugar, and corn use huge swaths of land, and the raw materials require extensive refining — two factors that impede the processes from being sustainable.”

By contrast, eCO2 plants like Cemvita’s can supply feedstock production with minimal land and electricity requirements, and without relying on hydrogen or sunlight, the company says. Furthermore, the output of eCO2 plants is designed to carbon-negative, not just carbon-neutral.

Cemvita’s eCO2 biomanufacturing platform uses engineered microbes that absorb and convert carbon dioxide into feedstocks and finished products.

“The energy transition requires completely new, cost-effective approaches for heavy industry,” Charlie Nelson, chief operating officer of Cemvita, says in a news release. “We built this next-generation pilot plant in response to strong demand from … partners who are actively seeking sustainable solutions to the … feedstock shortage.”

Brother-and-sister team Moji and Tara Karimi founded Cemvita in 2017.

Investors in Cemvita include Oxy Low Carbon Ventures, an investment arm of Houston-based Occidental Petroleum, as well as BHP Group, Mitsubishi, and United Airlines Ventures.

Oxy Low Carbon Ventures and United Airlines Ventures are financing Cemvita’s work on sustainable jet fuel. United Airlines operates a hub at George Bush Intercontinental Airport Houston.

Veronica Wu, founder of First Bight Ventures, joins the Houston Innovators Podcast to outline Houston's opportunities in synthetic biology and biomanufacturing. Photo courtesy

Investor advocates now is the time to position Houston as a leading biomanufacturing hub

houston innovators podcast episode 178

Houston has all the ingredients to be a successful synthetic biology hub, says Veronica Wu. She believes so strongly in this that she relocated to Houston from Silicon Valley just over a year ago to start a venture capital firm dedicated to the field. Since then, she's doubled down on her passion for Houston leading in biotech — especially when it comes to one uniquely Houston opportunity: biomanufacturing.

While Houston's health care innovation scene is actively deploying synthetic biology applications, Wu points to Houston-based Solugen, a plant-based chemical producer, as an example of what Houston has to offer at-scale industrial biomanufacturing. Houston has the workforce and the physical space available for more of these types of biomanufacturing plants, which have a huge potential to move the needle on reducing carbon emissions.

"This is really fundamental technology that's going to change the paradigm and whole dialogue of how we are making a significant impact in reducing a carbon footprint and improving sustainability," says Wu, founder and managing partner of First Bight Ventures, on the Houston Innovators Podcast.

Several aspects — government funding, corporate interest, advances in technology — have converged to make it an ideal time for synthetic biology innovators and investors, Wu explains on the show, and she has an idea of what Houston needs to secure its spot as a leader in the space: The BioWell.

First introduced at a Houston Tech Rodeo event at the Texas Medical Center's Innovation Factory, The BioWell is a public-private partnership that aims to provide access to pilot and lab space, mentorship and programming, and more support that biomanufacturing innovators critically need.

"The way we envision The BioWell is it will provide a holistic, curated support for startups to be able to get across the Valley of Death," Wu says, explaining that startups transitioning from research and development into commercialization need extra support. The BioWell will provide that, as well as allow more engagement from corporations, investors, and other players.

Now that her plans for The BioWell have been announced, Wu is looking for those who want to be a part of it.

She shares more about her mission and what's next for First Bight Ventures on the podcast. Listen to the interview below — or wherever you stream your podcasts — and subscribe for weekly episodes.

San Diego-based rBIO moved to Houston to take advantage of the growing ecosystem of biomanufacturing and synthetic biology. Photo via Getty Images

California-founded biotech startup relocates to join Houston's emerging bioeconomy

new to hou

Cameron Owen had an idea for a synthetic biology application, and he pitched it to a handful of postdoctoral programs. When he received the feedback that he didn't have enough research experience, he decided to launch a startup based in San Diego around his idea. He figured that he'd either get the experience he needed to re-apply, or he'd create a viable company.

After three years of research and development, Owen's path seems to have taken him down the latter of those two options, and he moved his viable company, rBIO, to Houston — a twist he didn't see coming.

“Houston was not on my radar until about a year and a half ago,” Owen says, explaining that he thought of Houston as a leading health care hub, but the coasts still had an edge when it came to what he was doing. “San Diego and the Boston area are the two big biotech and life science hubs.”

But when he visited the Bayou City in December of 2021, he says he saw first hand that something new was happening.

“Companies from California like us and the coastal areas were converging here in Houston and creating this new type of bioeconomy,” he tells InnovationMap.

Owen moved to Houston last year, but rBIO still has an academic partner in Washington University in St. Louis and a clinical research organization it's working with too, so he admits rBIO's local footprint is relatively small — but not for long.

"When we look to want to get into manufacturing, we definitely want to build something here in Houston," he says. "We’re just not to that point as a company."

In terms of the stage rBIO is in now, Owen says the company is coming out of R&D and into clinical studies. He says rBIO has plans to fundraise and is meeting with potential partners that will help his company scale and build out a facility.

With the help of its CRO partner, rBIO has two ongoing clinical projects — with a third coming next month. Owen says right now rBIO is targeting the pharmaceutical industry’s biologics sector — these are drugs our bodies make naturally, like insulin. About 12 percent of the population in the United States has diabetes, which translates to almost 40 million people. The demand for insulin is high, and rBIO has a way to create it — and at 30 percent less cost.

This is just the tip of the iceberg — the world of synthetic biology application is endless.

“Now that we can design and manipulate biology in ways we’ve never been able to before,” Owen says, "we’re really only limited by our own imagination.”

Synthetic biology is a field of science that involves programing biology to create and redesign natural elements. While it sounds like science fiction, Owen compares it to any other type of technology.

“Biology really is a type of software,” he says. “Phones and computers at their core run on 1s and 0s. In biology, it’s kind of the same thing, but instead of two letters, it’s four — A, C, T, and G.”

“The cool thing about biology is the software builds the hardware,” he continues. “You put that code in there and the biology builds in and of itself.”

Owen says the industry of synthetic biology has been rising in popularity for years, but the technology has only recently caught up.

“We’re exploring a brave new world — there’s no doubt about that,” Owen says.

The new development will allow PackGene to nearly triple its Houston-area workforce by the end of the year when the facility is expected to be completed. Photo courtesy of PackGene

Gene therapy company breaks ground on Houston biomanufacturing facility

new to hou

China-based and Massachusetts-founded PackGene Biotech Inc. broke ground last week on a new 25,000-square-foot biomanufacturing and processing facility just south of NRG Park.

The full-service operations center is slated to include labs, manufacturing clean rooms, warehouse, and office space. According to a release from the company, PackGene already employs about 20 people at an existing space in Houston. The new development will allow the company to nearly triple its Houston-area workforce by the end of the year when the facility is expected to be completed.

E&K Building Group is providing design-build services on the project, and the architect of record is Perkins + Will.

"These capabilities will enable us to serve our U.S. customers better and, importantly, to help bring life-saving therapies to patients faster, more reliably, and more cost- effectively. With this, we are making great strides in advancing our mission of 'making gene therapy affordable'," LiYing Yang, PackGene's CTO, says in a statement.

PackGene, which also has facilities in Shanghai and Boston, is a leader in adeno-associated virus (AAV) research, development and manufacturing. It works to accelerate gene therapy product development and works with customers to support gene therapy programs from early-stage therapeutic discovery to clinical trials.

Late last year, a report showed that Houston was expected to see growth in life sciences development, including in the gene therapy manufacturing field. The Texas Medical Center also revealed its plans for the Bioport.

In light of the report, the GHP recommended a few action items, including "accelerating workforce development programs to produce new graduates in key life sciences occupations, refining Houston’s marketing messages to highlight the region’s existing life science assets and activities within life science R&D and manufacturing," per the report. Additionally, the GHP identified the need to develop a shared regional strategy to attract and retain leading life sciences companies.

About a month later, San Jacinto College in Houston announced that it would launch a new College Biotechnology Center at Generation Park in Northeast Houston. The college said the program would offer a specific curriculum in cell and gene therapy as well as hands-on experience in a pilot-scale bioprocessing center.
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Houston space org to launch experiments aboard first mission into polar orbit

all aboard

Houston's Translational Research Institute for Space Health, or TRISH, will send its latest experiments into space aboard the Fram2 mission, the first all-civilian human spaceflight mission to launch over the Earth’s polar regions.

Fram2, operated by SpaceX, is targeting to launch Monday, March 31, at NASA’s Kennedy Space Center in Florida. The crew of four is expected to spend several days in polar orbit aboard the SpaceX Dragon spacecraft in low Earth orbit. TRISH’s research projects are among 22 experiments that the crew will conduct onboard.

The crew's findings will add to TRISH's Enhancing eXploration Platforms and ANalog Definition, or EXPAND, program and will be used to help enhance human health and performance during spaceflight missions, including missions to the moon and Mars, according to a release from TRISH.

“The valuable space health data that will be captured during Fram2 will advance our understanding of how humans respond and adapt to the stressors of space,” Jimmy Wu, TRISH deputy director and chief engineer and assistant professor in Baylor’s Center for Space Medicine, said in the release. “Thanks to the continued interest in furthering space health by commercial space crews, each human health research project sent into orbit brings us closer to improving crew member well-being aboard future spaceflight missions.”

The six TRISH projects on Fram2 include:

  • Cognitive and Physiologic Responses in Commercial Space Crew on Short-Duration Missions, led by Dr. Mathias Basner at the University of Pennsylvania Perelman School of Medicine. The crew will wear a Garmin smartwatch and a BioIntelliSense BioButton® medical grade device to track cognitive performance, including memory, spatial orientation, and attention before, during, and after the mission.
  • Otolith and Posture Evaluation II, led by Mark Shelhamer at Johns Hopkins University. The experiment will look at how astronauts’ eyes sense and respond to motion before and after spaceflight to better understand motion sickness in space.
  • REM and CAD Radiation Monitoring for Private Astronaut Spaceflight, led by Stuart George at NASA Johnson Space Center. This experiment will test space radiation exposure over the Earth’s north and south poles and how this impacts crew members.
  • Space Omics + BioBank, led by Richard Gibbs and Harsha Doddapaneni at Baylor College of Medicine. The experiment will use Baylor’s Human Genome Sequencing Center's Genomic Evaluation of Space Travel and Research program to gain insights from pre-flight and post-flight samples from astronauts.
  • Standardized research questionnaires, led by TRISH. The test asks a set of standardized research questionnaires for the crew to collect data on their sleep, personality, health history, team dynamics and immune-related symptoms.
  • Sensorimotor adaptation, led by TRISH. The project collects data before and after flight to understand sensorimotor abilities, change and recovery time to inform future missions to the moon.

TRISH, which is part of BCM’s Center for Space Medicine with partners Caltech and MIT, has launched experiments on numerous space missions to date, including Blue Origin's New Shepard rocket last November and Axiom Space's Ax-3 mission to the International Space Station last January.

Houston lab develops AI tool to improve neurodevelopmental diagnoses

developing news

One of the hardest parts of any medical condition is waiting for answers. Speeding up an accurate diagnosis can be a doctor’s greatest mercy to a family. A team at Baylor College of Medicine has created technology that may do exactly that.

Led by Dr. Ryan S. Dhindsa, assistant professor of pathology and immunology at Baylor and principal investigator at the Jan and Dan Duncan Neurological Research Institute at Texas Children’s Hospital, the scientists have developed an artificial intelligence-based approach that will help doctors to identify genes tied to neurodevelopmental disorders. Their research was recently published the American Journal of Human Genetics.

According to its website, Dhindsa Lab uses “human genomics, human stem cell models, and computational biology to advance precision medicine.” The diagnoses that stem from the new computational tool could include specific types of autism spectrum disorder, epilepsy and developmental delay, disorders that often don’t come with a genetic diagnosis.

“Although researchers have made major strides identifying different genes associated with neurodevelopmental disorders, many patients with these conditions still do not receive a genetic diagnosis, indicating that there are many more genes waiting to be discovered,” Dhindsa said in a news release.

Typically, scientists must sequence the genes of many people with a diagnosis, as well as people not affected by the disorder, to find new genes associated with a particular disease or disorder. That takes time, money, and a little bit of luck. AI minimizes the need for all three, explains Dhindsa: “We used AI to find patterns among genes already linked to neurodevelopmental diseases and predict additional genes that might also be involved in these disorders.”

The models, made using patterns expressed at the single-cell level, are augmented with north of 300 additional biological features, including data on how intolerant genes are to mutations, whether they interact with other known disease-associated genes, and their functional roles in different biological pathways.

Dhindsa says that these models have exceptionally high predictive value.

“Top-ranked genes were up to two-fold or six-fold, depending on the mode of inheritance, more enriched for high-confidence neurodevelopmental disorder risk genes compared to genic intolerance metrics alone,” he said in the release. “Additionally, some top-ranking genes were 45 to 500 times more likely to be supported by the literature than lower-ranking genes.”

That means that the models may actually validate genes that haven’t yet been proven to be involved in neurodevelopmental conditions. Gene discovery done with the help of AI could possibly become the new normal for families seeking answers beyond umbrella terms like “autism spectrum disorder.”

“We hope that our models will accelerate gene discovery and patient diagnoses, and future studies will assess this possibility,” Dhindsa added.

Texas robotics co. begins new search for missing Malaysia Airlines flight 370

International News

Malaysia’s government has given final approval for a Texas-based marine robotics company to renew the search for Malaysia Airlines Flight 370, which is believed to have crashed in the southern Indian Ocean more than a decade ago.

Cabinet ministers agreed to terms and conditions for a “no-find, no-fee” contract with Texas-based Ocean Infinity to resume the seabed search operation at a new 5,800-square-mile site in the ocean, Transport Minister Anthony Loke said in a statement Wednesday. Ocean Infinity will be paid $70 million only if wreckage is discovered.

The Boeing 777 plane vanished from radar shortly after taking off on March 8, 2014, carrying 239 people, mostly Chinese nationals, on a flight from Malaysia’s capital, Kuala Lumpur, to Beijing. Satellite data showed the plane turned from its flight path and headed south to the far-southern Indian Ocean, where it is believed to have crashed.

An expensive multinational search failed to turn up any clues to its location, although debris washed ashore on the east African coast and Indian Ocean islands. A private search in 2018 by Ocean Infinity also found nothing.

The final approval for a new search came three months after Malaysia gave the nod in principle to plans for a fresh search.

Ocean Infinity CEO Oliver Punkett earlier this year reportedly said the company had improved its technology since 2018. He has said the firm is working with many experts to analyze data and had narrowed the search area to the most likely site.

Loke said his ministry will ink a contract with Ocean Infinity soon but didn’t provide details on the terms. The firm has reportedly sent a search vessel to the site and indicated that January-April is the best period for the search.

“The government is committed to continuing the search operation and providing closure for the families of the passengers of flight MH370,” he said in a statement.