The funds were awarded to Han Xiao, a scientist at Rice University.

A Rice University chemist has landed a $2 million grant from the National Institute of Health for his work that aims to reprogram the genetic code and explore the role certain cells play in causing diseases like cancer and neurological disorders.

The funds were awarded to Han Xiao, the Norman Hackerman-Welch Young Investigator, associate professor of chemistry, from the NIH's Maximizing Investigators’ Research Award (MIRA) program, which supports medically focused laboratories.

Xiao will use the five-year grant to develop noncanonical amino acids (ncAAs) with diverse properties to help build proteins, according to a statement from Rice. He and his team will then use the ncAAs to explore the vivo sensors for enzymes involved in posttranslational modifications (PTMs), which play a role in the development of cancers and neurological disorders. Additionally, the team will look to develop a way to detect these enzymes in living organisms in real-time rather than in a lab.

“This innovative approach could revolutionize how we understand and control cellular functions,” Xiao said in the statement.

According to Rice, these developments could have major implications for the way diseases are treated, specifically for epigenetic inhibitors that are used to treat cancer.

Xiao helped lead the charge to launch Rice's new Synthesis X Center this spring. The center, which was born out of informal meetings between Xio's lab and others from the Baylor College of Medicine’s Dan L Duncan Comprehensive Cancer Center at the Baylor College of Medicine, aims to improve cancer outcomes by turning fundamental research into clinical applications.

They will build upon annual retreats, in which investigators can share unpublished findings, and also plan to host a national conference, the first slated for this fall titled "Synthetic Innovations Towards a Cure for Cancer.”

The funding will go toward created a summer program called the University of Houston Cardiovascular Undergraduate Research Experience, or UH-CURE. Photo via UH.edu

University of Houston receives funding to support diverse cardiovascular researchers

pumping up innovation

University of Houston professors have received a nearly $800,000 grant to create a new summer program that will support diverse future researchers.

The National Heart, Lung, and Blood Institute provided $792,900 in grant funding to Bradley McConnell, professor of pharmacology at the UH College of Pharmacy, and Tho Tran, research assistant professor of chemistry at the UH College of Natural Sciences and Mathematics.

The funding will go toward created a summer program called the University of Houston Cardiovascular Undergraduate Research Experience, or UH-CURE. Ten undergraduate students per year will be selected for five years in cardiovascular research across disciplinary lines.

"We are so grateful to be able to provide talented students across the U.S. an opportunity to experience our excellent cardiovascular research environment,” Tran says in a news release. “We want UH-CURE participants to gain confidence in their research abilities through our hands-on approach and the skillset to navigate future challenges through our professional training.”

The goal is to increase students’ interest in cardiovascular research, and students have the opportunity to receive a $6,000 stipend, travel to a globally recognized cardiovascular research conference, and take part in on-campus housing and a food allowance. The summer program will also try to develop research skills, increase awareness of transdisciplinary research, promote diversity and collaborations, cultivate transferable skills necessary for succeeding in graduate school and help facilitate undergraduate students to pursue further training in cardiovascular research.

The program will integrate students into a research lab where they will learn research skills, data analysis, and research integrity. The program will be under the mentorship of a faculty member from across UH’s colleges, and include workshop and enrichment activities.

McConnell and Tran previously formed the American Heart Association-funded UH-HEART pilot program, which focused on cardiovascular research. They expanded on that initiative with UH-CURE, which includes cardiovascular research across disciplinary lines from community engagement and population-based research to basic, translational, and applied research. UH-CURE also helps prepare for careers in cardiovascular research.

“We all know that a diverse environment leads to a much better generation of ideas and solutions,” Tran adds. “We hope to bring that strength to the future of cardiovascular research through our students.”

Tho Tran (left) and Bradley McConnell are professors at UH. Photo via UH.edu

Solugen, which uses plant-centered biotechnology to produce environmentally friendly chemicals, has raised an additional $30 million and is speculated to soon reach unicorn status. Photo via solugentech.com

Houston startup raises $30M, plans to be 'next iconic chemical company' with plant-based alternatives

climate tech

While Forbes recently anointed Houston-based Solugen Inc. as one of the next billion-dollar "unicorns" in the startup world, Dr. Gaurab Chakrabarti shrugs off the unicorn buzz.

Chakrabarti, a physician and scientist who's co-founder and CEO of the startup, concedes he doesn't know whether Solugen will be worth $1 billion or not. But he does know that the startup aspires to be a key competitor in the emerging "climate tech" sector, whose players strive to combat climate change. Chakrabarti estimates the climate-tech chemical space alone represents a global market opportunity valued at $1 trillion to $2 trillion per year.

Solugen's overarching goal in the climate-tech market: Replace petroleum-based chemicals with plant-based substitutes.

"I'd love it if we were the poster child that drives climate tech to be the next big, sexy trend," Chakrabarti says.

Chakrabarti acknowledges Solugen's investors, executives, and employees hope the startup succeeds financially. But success, he believes, goes beyond making money and plotting an exit strategy. Instead, Chakrabarti emphasizes "a shift in thinking" on climate tech that he says promises to transform the fledgling sector into a "true niche" that'll be "good for everyone."

"Who cares if people are all hyped up for the wrong reasons?" says Chakrabarti, referring to the unicorn speculation.

Solugen sits at the crossroads of biology and chemistry. In short, the startup taps into plant-centered biotechnology to produce environmentally friendly chemicals and "decarbonize" the chemical industry.

"Quite simply, we want to become the next DowDuPont or the next iconic chemical company, but using principles of green chemistry instead of principles from petroleum chemistry," Chakrabarti says.

If Solugen does reach the icon stratosphere, Chakrabarti envisions it doing so on a speedy schedule. In the traditional petrochemical market, it can take 10 to 20 years to put a new product on the market, he says. "I don't have that kind of time. I'm a very impatient person," Chakrabarti says.

Gaurab Chakrabarti Gaurab Chakrabarti, CEO and co-founder of Solugen, isn't paying any mind to his company's predicted unicorn status — rather he's focusing on the difference he can make on reducing carbon emissions. Photo via solugentech.com

Spurred by that restlessness, Chakrabarti seeks to propel Solugen's products from concept to commercialization in the span of two years. He says the startup already has proven the ability to do that with its sugar-derived hydrogen peroxide product.

"We're going to continue to do that, and it would be great if we can continue demonstrating new [products] coming to market once a year," says Chakrabarti, who grew up in Sugar Land.

Solugen seems to have plenty of financial fuel to make that happen. In April, Solugen raised $30 million in venture capital as an add-on to its Series B funding, which initially closed May 2019. That brings its total VC haul to $68 million since it was founded in 2016, according to Forbes. The recent funding lifted the company's valuation to $250 million, putting it $750 million away from unicorn territory.

Chakrabarti doesn't dismiss the notion of an eventual IPO for Solugen but says being acquired isn't "terribly interesting to me."

"If you want to make money, you can always go be a banker," he notes.

Chakrabarti estimates Solugen will generate $30 million to $40 million in revenue this year, up from $12 million in 2019. Profit remains elusive, though, as the company pours its gains into R&D. The company graduated in 2017 from the Y Combinator startup accelerator. Aside from Y Combinator and Unicorn Venture Partners, investors include Founders Fund, Refactor Capital, Fifty Years, and KdT Ventures.

Solugen's current lineup features fewer than a half-dozen products, which are sold to industrial and government customers. Hundreds more products are in the pipeline for use in sectors like agriculture and energy, Chakrabarti says.

"It's one of the blessings and curses of this company — there's always something to work on, always something big to scale up," says Chakrabarti, who earned his M.D. and Ph.D. from the University of Texas Southwestern Medical Center in Dallas.

Working on selling Solugen's current products and developing its new products are 70 employees, located at its headquarters in Houston and its new production facility in Lubbock. By the end of this year, the startup should employ close to 100 people, Chakrabarti says.

Chakrabarti hesitates to identify Solugen's competitors, as he believes a perceived rival very well could end up becoming a partner.

"I think everyone eventually should be a partner of Solugen, not competition," he says. "It's an ideology that's actually the competition, an ideology like, 'We've always used petrochemistry. This is just how it's been done.'"

The Welch Foundation, led by Adam Kuspa, funds basic research across the state of Texas — research that's important both in and out of pandemic. Photo courtesy of The Welch Foundation

Houston-based nonprofit leader believes COVID-19 will have long-term effects on important research

Q&A

It's Adam Kuspa's job to provide support to Texas researchers as they attempt to create innovative chemical and biochemical solutions for the betterment of mankind.

Formerly the dean of research at Baylor College of Medicine, Kuspa now serves as president of Houston-based Welch Foundation, which has, over the past several decades, provided nearly $800 million in research funding across the state.

Kuspa, through the organization, regularly sees revolutionary chemical discoveries being innovated in Texas across the 60 institutions he works with. It's usually an exciting job.

"I've spent my career, at least the last 15 years or so, helping other people do their research — before as being in research at Baylor College of Medicine," Kuspa tells InnovationMap. "I really enjoy enabling very, very smart people to do creative, innovative science. It's a lot of fun."

However, as the race to find a cure and vaccine to COVID-19 heats up, Kuspa — along with other researchers and scientists — is watching carefully to see how the disease and its to-be solutions will affect research and medical innovations as a whole.

"What people forget in the rush to get a drug out is that you could also make matters worse," he says. "Drugs don't automatically cure or are neutral. They can also do harm. So, you want to be careful not to make the situation worse."

Kuspa sat down with InnovationMap to discuss The Welch Foundation's mission, as well as some of his observations on potential cures for COVID-19 and what concerns he has.

InnovationMap: Tell me about the Welch Foundation and what role it plays in Texas?

Adam Kuspa: For over 65 years, the Welch Foundation has pursued its mandate based on Robert Welch's thought from the 1950s that chemistry was very important to the improvement of mankind. And so, our mandate is to fund foundational research in chemistry in the state of Texas, working through academic institutions throughout the state. We've done that consistently for the past 65 years through several programs.

IM: What type of research does the foundation fund usually?

AK: The research grant program gives grants to individual investigators, and we're doing about 300 to 400 continuously throughout the state of Texas. There's also block grants to departments to encourage students to become involved in chemical research. And we have other programs such as our endowed chair programs. We've given out about 40 endowed professorships, which support specific professors at individual institutions and their chemical research.

I should point out that chemistry research from our perspective is broadly defined and includes biochemistry of material sciences, et cetera. Currently our grant portfolio consists of 50 percent biomedical research grants, which is relevant to current current situation with COVID-19.

IM: How do you connect to Texas research institutions usually?

AK: We have fairly typical calls for applications for research grants or departmental grants and for our two award programs: the Welch Award in Chemistry, which is given out every year in Houston, and the Norman Hackerman Award, for junior faculty researchers in state of Texas.

A lot of the work is going out in the community to visit with the researchers and our academic institution partners. That, of course, has been curtailed, but typically we would visit any one of the 60 or so institutions that we support on a cycle of several years. So, that involves going to the chemistry departments, speaking with faculty, hearing how the research is going, and getting feedback on how our programs can be improved.

We also have an annual research conference, which unfortunately has been canceled this year, but typically draws 200 to 800 participants from around the state with speakers coming in around the world. This year, it was meant to be on neuroscience. Last October, the conference concerned genome editing. So, it's quite exciting, and the conferences, which are always held in Houston, are generally very well attended. They are a good way to start to interact with the scientific community in general.

IM: What has been the organization’s focus during the pandemic?

AK: We are obligated to fund foundational research in chemistry and allied fields, like biochemistry. So, we're not at liberty to fund development of therapies, for instance. However, I would say an interesting way to look at this is that we hear a lot about a search for a therapeutic for COVID-19 and, obviously, a search for vaccine — these begin with research.

Since it normally takes 15 to 18 years to bring a drug to market from first principles of how you're going to interrupt the human biology to effecting a cure, you're hearing a lot about testing existing drugs or their potential therapeutic effect on COVID-19. The reason we're able to do that is because we have a lot of drugs that are in the process of being developed and drugs that are already approved for human use. It's a lot more efficient to try to look at the potential utility of those already human-approved drugs and their potential effect on viral replication.

So, we sort of view our role as the Welch Foundation as funding that foundational research — either in drug development from a chemical perspective or in funding foundational work in how viruses attack the human body in the first place. And, although we give out grants for basic research, our investigators are pretty industrious. When there's a situation like the COVID-19 pandemic, a number of them turned their attention towards the problem at hand.

Another way that we've supported the general availability of potential therapeutics is that we've made a large grant to The Center for Drug Discovery at the Baylor College of Medicine directed by Martin Matzuck. And the reason we were interested in helping to get that center started is because they had an idea to make a drug discovery and development much more efficient and cost effective. That promotes a general capability of Houston and Texas in terms of being able to bring about potential therapeutics to wide range of diseases, but potentially for COVID-19 specifically.

IM: What’s the usual process of getting a drug from research stage to use?

AK: There are four phases of testing. Phase one is for safety, phase two is for dosing and potential efficacy, and phase three is for broad range of efficacy — large numbers of patients and trials that take hundreds of millions of dollars to perform. Approval by FDA occurs after phase three, but then there's actually a phase four study, which is following the drug for potential adverse effects once it is in common use by the public.

You may remember there's a drug called Vioxx — it's a very good pain reliever. But, in the phase four study, after millions of prescriptions were written already, it was found to cause rare heart problems and heart attacks. People were dying spontaneously, and it was hard to pin that specifically on Vioxx, but you can do it statistically from the phase four trial after the drug was introduced.

So, the reason you hear about hydroxychloroquine as a treatment for COVID-19 is because you sort of get the short circuit and skip those phases and jump right to phase four studies where you know it's basically safe and you roughly know how to dose. But what you don't though is how that approved drug can be used for particular indications like COVID-19 and how safe it is.

You can't actually jump the normal 18-year process, and with existing drugs you're still only at year 15, where you're got another few years to figure out how to actually use them in the context of the COVID-19.

IM: Scientists and researchers are working on solutions, but what are the challenges they are facing?

AK: That's a great question. Given that we have so many research grants around the state, we get input literally on an hourly basis from our grantees on the status of their research because of the interruption. And the short story is that all research has been shut down in the state of Texas except for research directly related to coronavirus.

Large biomedical research centers, which have hundreds of millions of dollars a year in external research funding going to cure a broad range of disease have shut all of their labs down, except for the few labs that are working directly on COVID-19. That includes vaccine discovery and production.

A lot of work has been wasted because often biological experiments take weeks and months of progression, and if can't complete the final steps, you'll have to start over.

IM: Do you think this will have a long-term effect on research?

AK: I think so. Science, as it turns out, is a very creative, human-interactive activity. It's actually much more social than people realize. It's not the individual scientist working at the lab bench only. It's a lot of travel, seminars given by out-of-town speakers, scientific conferences, gatherings of hundreds of people.

The annual neuroscience conference attracts 40,000 people every year from all over the world — and that's not happening. As far as we can tell, all scientific conferences have been canceled for the rest of 2020. When I talked to my colleagues and professors around the country, every out of town seminar has been canceled. So, the exchange of information that's been so vital to stimulate creativity and collaboration between laboratories isn't happening, and there are new venues have to be found to do that online. But there is going to be a limitation. I think people are adapting, and we'll just have to see how it unfolds.

The published literature is one to one-and-a-half years behind what's actually happening in the laboratory. So, the way people learn about what's going on — the failed experiments, the things you're trying out, the exciting new ideas — is generally through face-to-face interactions. And that happens by scientists traveling between universities and at conferences in the hallways between the formal sessions. That aspect is absolutely vital to the progress of science.

IM: What is something you want people to know about the basic research that the Welch Foundation is funding?

We need consistency and support for basic research because, during a pandemic, we want to have a cure, but we don't think about the hundreds of thousands of scientists across the country who are struggling to get funding for the basic research when there's not a pandemic.

Additionally, this basic research is also the engine for industry — particularly the biotech industry in Houston, and folks have been really working hard to try to ensure that there's an ecosystem for new companies to be formed out of Houston. I think part of the reason why we might survive this current oil glut as opposed to the mid 1980s is that the Houston economy is diversified with — not just with the port and NASA — but with biomedical research and patient care. In Houston, health care is the largest employer — it's larger than oil and gas. That kind of diversification is good for the economy and good for the innovation environment that people in Houston have tried really to make happen for the last 10 years or so.

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This conversation has been edited for brevity and clarity.

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UH lands $4M NIH grant to study early signs of autoimmune disease

NIH funding

The University of Houston recently received a $4 million National Institutes of Health grant to support a 10-year longitudinal study to identify the earliest biological markers of autoimmune disease.

Led by Chandra Mohan, the Hugh Roy and Lillie Cranz Cullen Endowed Professor of Biomedical Engineering, the study aims to examine what causes Systemic Autoimmune Rheumatic Diseases (SARDs) and to identify targets for future treatments. The study will be carried out in collaboration with Dr. Karen Costenbader at Harvard Medical School, Boston.

SARDs include conditions like rheumatoid arthritis, systemic lupus erythematosus, Sjögren’s syndrome and systemic sclerosis—all are considered chronic diseases currently without a cure. Autoimmune diseases affect over 30 million people globally, according to UH.

SARDs occur when the body’s immune system attacks healthy, non-threatening tissues and organs. According to UH, in these diseases, the body often attacks nuclear antigens, creating anti-nuclear autoantibodies, which can be early detection signs for SARDs in more than 50 percent of patients, Mohan says.

Researchers will study blood samples and environmental exposure over the 10 years to better understand anti-nuclear autoantibodies.

“Collectively, these studies will help identify the genetic, environmental and cellular factors that are operative at the two steps of SARD development, namely the emergence of anti-nuclear autoantibodies and disease onset,” Mohan said in a news release. “ More importantly, these studies will highlight functional molecular pathways and mechanisms that may be operative at each step."

Mohan predicts that looking at SARDs’ shared characteristics, rather than each disease individually, could help identify more treatment methods.

“Individual SARDs have been examined in silos without an attempt to discern shared underlying features at the molecular level,” he added in the release. “Current understanding of the initial (and likely shared) origins of SARDs is only rudimentary but urgently needed to develop means for prevention and treatment.”

Earlier this year, UH also received an $11 million NIH grant to conduct a first-of-its-kind study of early language development in children ages 18 to 24 months. Read more here.

New Texas Stock Exchange officially begins trading in Dallas

Welcome to Y'all Street

Two-step aside, New York Stock Exchange and Nasdaq. The Dallas-based Texas Stock Exchange, nicknamed Y’all Street, just kicked off live trading with five stocks — and lots of Lone Star ambition.

“The Texas Stock Exchange aims to revitalize competition for [stock] issuers, establish the premier venue for listings, and create a world-class trading platform for all market participants,” the exchange says in a fact sheet.

The exchange — whose Texas-influenced nickname is a nod to New York City’s Wall Street — has collected at least $275 million in investments. The roughly 90 financial backers of TXSE include Bank of America, BlackRock, Charles Schwab, Citadel Securities, Dell Family Office, Fortress, Goldman Sachs, and JPMorgan Chase.

Representatives of TXSE couldn’t be reached for comment. On its website, the exchange calls itself “the most well-capitalized equities exchange to ever be approved” by the U.S. Securities and Exchange Commission (SEC).

Not to be outdone, NYSE has launched Dallas-based NYSE Texas and Nasdaq has expanded its presence in Dallas.

Y’all Street adds to Dallas-Fort Worth’s rising status as a major hub for financial services, with The Wall Street Journal naming North Texas the country’s second biggest financial hub after New York City.

“A homegrown national exchange means more jobs, more investment, and more growth opportunities for businesses and communities across the Lone Star State,” Gabriela von zur Muehlen, senior vice president and chief policy officer at the Texas Association of Business, told The Texas Tribune.

Bulent Temel, an associate professor of practice in economics at the University of Texas at San Antonio, told Texas Standard that TXSE “is going to boost the credibility of the Texas economy.”

Texas’ estimated gross domestic product (GDP), a yardstick for the size of an economy, climbed to a record-setting $2.9 trillion in 2025, making it the state with the second highest GDP after California. DFW’s estimated GDP in 2023 stood at $744.6 billion, eclipsing the GDP of many countries.

“The center of gravity for American capitalism is now headquartered in the Boom Belt,” Abbott proclaimed in April, referring to an 11-state region (including Texas) in the South and Southeast that’s seeing tremendous economic and population growth. “The Texas Stock Exchange is the natural extension of that capitalism. It ensures that capital markets will reflect the quadrant that is driving American growth.”

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This article originally appeared on CultureMap.com.

Orion vehicle manager reflects on Artemis II, looks to 2028 moon mission

Q&A

Humanity is finally headed back to the moon after more than half a century. This year's launch of the Artemis II mission in the Orion spacecraft put four crew members in lunar orbit and tested the new ship developed by Lockheed Martin.

Everything went smoothly, safely returning astronauts home, but there is always room to improve. InnovationMap chatted via email with Orion vehicle manager Branelle Rodriguez, shortly after a talk at The Ion, for insight on how Orion might perform in the future as the next lunar landing approaches in early 2028.

InnovationMap: How satisfied are you with the way Orion operated on this past mission?

Branelle Rodriguez: Orion performed exceptionally well during Artemis II, successfully demonstrating critical spacecraft capabilities, including life support systems, displays and controls, and executing manual piloting operations. Artemis II brought humans back to the moon, achieving key exploration and scientific imagery, while validating systems essential for future Artemis missions.

IM: What is the most important thing you learned about improving Orion for the next mission?

BR: The Artemis II mission provided invaluable insights into crew operations and spacecraft performance in a deep-space environment. With every mission, NASA applies lessons learned to continuously improve Orion’s operations, validate design and ensure mission readiness. Artemis II offered our first opportunity to evaluate several new systems and gain a deeper understanding of what it is like for astronauts to live and work inside the spacecraft. The operational, technical and human factors data collected are being integrated across the program to refine future missions, reduce risk and enhance overall mission success.

IM: How has Orion helped the mission to explore space?

BR: Orion is one of NASA’s foundational elements for human deep space exploration—not only supporting the mission but serving as a core component of it. It is currently the only spacecraft capable of carrying crew on deep space missions and returning them safely to Earth from the high speeds required from the vicinity of the moon. No other spacecraft has the technology to endure the extremes that come with human deep-space travel, such as advanced environmental and life support, navigation, communications, radiation shielding, and the world’s largest ablative heat shield to protect the astronauts during reentry into Earth’s atmosphere. Orion has already taken astronauts to explore space farther than ever before—252,756 miles from Earth— and will carry crews to the moon on future missions to explore the lunar South Pole region. The astronauts’ observations, samples, and data collected on these future missions will expand our understanding of our solar system and home planet.

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This conversation has been edited for brevity and clarity.