University of Houston reveals $35M campus transformation ahead of centennial

go coogs

Coogs' house is getting ready for a remodel. Rendering courtesy of UH

As the University of Houston gets ready for its centennial in 2027, the school is launching a major transformation to its urban campus. The $35 million project aims to transform several prominent areas of the university grounds and create a stronger first impression of the school — and stir up pride for students, faculty, staff, and alumni.

To achieve this transformation of the Coogs’ lair, the university hired Houston-based urban design firm OJB, which will develop a new multi-purpose gathering space — dubbed Centennial Plaza —at the heart of the campus. Harking to great university and collegiate gathering spaces, Centennial Plaza will be constructed in the original — and familiar — campus quad. Plans call for an “awe-inspiring” public destination for game day and students events and official ceremonies,

Meanwhile, UH's’ main entrance on University Drive will be reimagined and redefined, meant to create a memorable arrival experience. A new gateway monument will be installed at Spur 5, according to press materials. In a push to assist with campus walkability, a new, continuous line of trees will form a shaded central pathway from the gateway to Cullen Performance Hall.

Rendering courtesy of UH

Other aspects of the project include the addition of monument gateways at several university entrances. Sustainable landscaping and storm water management will be also be added across campus.

The design process is currently underway with construction expected to commence next summer.

“Our centennial plan is a transformative project,” University of Houston President Renu Khator says in a press release announcing the initiative. “The University of Houston is a crucial part of the fourth largest city in the country, and having a welcoming campus that everyone can be proud of is paramount. This reimagination will create a sense of place, community and learning, while also promoting health and well-being not only for our students, but for all Houstonians.”

Additional areas targeted for landscaping improvements are Lynn Eusan Park, Cougar Woods, Butler Plaza, and the campus woodland from the Science and Research 1 building to the Gerald D. Hines College of Architecture and Design.

The campus enhancements are scheduled to be completed by the end of 2026 to help kick off the school's centennial celebrations.

Current and past Coogs should take heart in OJB’s design resume — especially with institutes of higher learning. Locally and in Texas, the award-winning, prolific firm has designed Aggie Park at Texas A&M University and the popular Klyde Warren Park in Dallas. Statewide it has overseen campus improvements for Rice, Baylor, and Texas Tech universities. Nationally, OBJ has spearheaded improvements at prestigious institutions such as Harvard and Stanford.

“So much of the student and campus experience is found in the spaces in between buildings: its landscape and open spaces,” Chip Trageser, partner in charge for OJB, notes in a press statement. “We know that spending time outdoors is beneficial for social connection, as well as improved mental and physical health. Creating inclusive spaces for people to come together is at the core of innovation. The Centennial Plan strengthens these experiences, not only from a physical point of view, but also as an expression of the University of Houston’s values and mission.”

Earlier this year, UH also revealed details on its central hub for innovation on campus. The building, which is slated to open in 2025 next to the M.D. Anderson Library on UH's main campus, will be around 70,000 square feet and will house a makerspace, the Cyvia and Melvyn Wolff Center for Entrepreneurship, the Energy Transition Institute, innovation programs, and Presidential Frontier Faculty labs and offices.

In short, big changes and updates are coming to the Coogs House.

Rendering courtesy of UH

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Steven Devadanam contributed to this article, which originally ran on CultureMap.

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UH student earns prestigious award for cancer vaccine research

up-and-comer

Cole Woody, a biology major in the College of Natural Sciences and Mathematics at the University of Houston, has been awarded a Barry Goldwater Scholarship, becoming the first sophomore in UH history to earn the prestigious prize for research in natural sciences, mathematics and engineering.

Woody was recognized for his research on developing potential cancer vaccines through chimeric RNAs. The work specifically investigates how a vaccine can more aggressively target cancers.

Woody developed the MHCole Pipeline, a bioinformatic tool that predicts peptide-HLA binding affinities with nearly 100 percent improvement in data processing efficiency. The MHCole Pipeline aims to find cancer-specific targets and develop personalized vaccines. Woody is also a junior research associate at the UH Sequencing Core and works in Dr. Steven Hsesheng Lin’s lab at MD Anderson Cancer Center.

“Cole’s work ethic and dedication are unmatched,” Preethi Gunaratne, director of the UH Sequencing Core and professor of Biology & Biochemistry at NSM, said in a news release. “He consistently worked 60 to 70 hours a week, committing himself to learning new techniques and coding the MHCole pipeline.”

Woody plans to earn his MD-PhD and has been accepted into the Harvard/MIT MD-PhD Early Access to Research Training (HEART) program. According to UH, recipients of the Goldwater Scholarship often go on to win various nationally prestigious awards.

"Cole’s ability to independently design and implement such a transformative tool at such an early stage in his career demonstrates his exceptional technical acumen and creative problem-solving skills, which should go a long way towards a promising career in immuno-oncology,” Gunaratne added in the release.

Houston founder on shaping the future of medicine through biotechnology and resilience

Guest Column

Living with chronic disease has shaped my life in profound ways. My journey began in 5th grade when I was diagnosed with Scheuermann’s disease, a degenerative disc condition that kept me sidelined for an entire year. Later, I was diagnosed with hereditary neuropathy with liability to pressure palsies (HNPP), a condition that significantly impacts nerve recovery. These experiences didn’t just challenge me physically, they reshaped my perspective on healthcare — and ultimately set me on my path to entrepreneurship. What started as personal health struggles evolved into a mission to transform patient care through innovative biotechnology.

A defining part of living with these conditions was the diagnostic process. I underwent nerve tests that involved electrical shocks to my hands and arms — without anesthesia — to measure nerve activity. The pain was intense, and each test left me thinking: There has to be a better way. Even in those difficult moments, I found myself thinking about how to improve the tools and processes used in healthcare.

HNPP, in particular, has been a frustrating condition. For most people, sleeping on an arm might cause temporary numbness that disappears in an hour. For me, that same numbness can last six months. Even more debilitating is the loss of strength and fine motor skills. Living with this reality forced me to take an active role in understanding my health and seeking solutions, a mindset that would later shape my approach to leadership.

Growing up in Houston, I was surrounded by innovation. My grandfather, a pioneering urologist, was among the first to introduce kidney dialysis in the city in the 1950s. His dedication to advancing patient care initially inspired me to pursue medicine. Though my path eventually led me to healthcare administration and eventually biotech, his influence instilled in me a lifelong commitment to medicine and making a difference.

Houston’s thriving medical and entrepreneurial ecosystems played a critical role in my journey. The city’s culture of innovation and collaboration provided opportunities to explore solutions to unmet medical needs. When I transitioned from healthcare administration to founding biotech companies, I drew on the same resilience I had developed while managing my own health challenges.

My experience with chronic disease also shaped my leadership philosophy. Rather than accepting diagnoses passively, I took a proactive approach questioning assumptions, collaborating with experts, and seeking new solutions. These same principles now guide decision-making at FibroBiologics, where we are committed to developing groundbreaking therapies that go beyond symptom management to address the root causes of disease.

The resilience I built through my health struggles has been invaluable in navigating business challenges. While my early career in healthcare administration provided industry insights, launching and leading companies required the same determination I had relied on in my personal health journey.

I believe the future of healthcare lies in curative treatments, not just symptom management. Fibroblast cells hold the promise of engaging the body’s own healing processes — the most powerful cure for chronic diseases. Cell therapy represents both a scientific breakthrough and a significant business opportunity, one that has the potential to improve patient outcomes while reducing long-term healthcare costs.

Innovation in medicine isn’t just about technology; it’s about reimagining what’s possible. The future of healthcare is being written today. At FibroBiologics, our mission is driven by more than just financial success. We are focused on making a meaningful impact on patients’ lives, and this purpose-driven approach helps attract talent, engage stakeholders, and differentiate in the marketplace. Aligning business goals with patient needs isn’t just the right thing to do, it’s a powerful model for sustainable growth and lasting innovation in biotech.

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Pete O’Heeron is the CEO and founder of FibroBiologics, a Houston-based regenerative medicine company.


Houston researchers make headway on affordable, sustainable sodium-ion battery

Energy Solutions

A new study by researchers from Rice University’s Department of Materials Science and NanoEngineering, Baylor University and the Indian Institute of Science Education and Research Thiruvananthapuram has introduced a solution that could help develop more affordable and sustainable sodium-ion batteries.

The findings were recently published in the journal Advanced Functional Materials.

The team worked with tiny cone- and disc-shaped carbon materials from oil and gas industry byproducts with a pure graphitic structure. The forms allow for more efficient energy storage with larger sodium and potassium ions, which is a challenge for anodes in battery research. Sodium and potassium are more widely available and cheaper than lithium.

“For years, we’ve known that sodium and potassium are attractive alternatives to lithium,” Pulickel Ajayan, the Benjamin M. and Mary Greenwood Anderson Professor of Engineering at Rice, said in a news release. “But the challenge has always been finding carbon-based anode materials that can store these larger ions efficiently.”

Lithium-ion batteries traditionally rely on graphite as an anode material. However, traditional graphite structures cannot efficiently store sodium or potassium energy, since the atoms are too big and interactions become too complex to slide in and out of graphite’s layers. The cone and disc structures “offer curvature and spacing that welcome sodium and potassium ions without the need for chemical doping (the process of intentionally adding small amounts of specific atoms or molecules to change its properties) or other artificial modifications,” according to the study.

“This is one of the first clear demonstrations of sodium-ion intercalation in pure graphitic materials with such stability,” Atin Pramanik, first author of the study and a postdoctoral associate in Ajayan’s lab, said in the release. “It challenges the belief that pure graphite can’t work with sodium.”

In lab tests, the carbon cones and discs stored about 230 milliamp-hours of charge per gram (mAh/g) by using sodium ions. They still held 151 mAh/g even after 2,000 fast charging cycles. They also worked with potassium-ion batteries.

“We believe this discovery opens up a new design space for battery anodes,” Ajayan added in the release. “Instead of changing the chemistry, we’re changing the shape, and that’s proving to be just as interesting.”

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This story originally appeared on EnergyCapitalHTX.com.

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