Houston lands in the No. 7 spot for growth in the granting of degrees in biological and biomedical sciences. Photo by Natalie Harms/InnovationMap

Thanks in large part to producing hundreds of college-trained professionals, Houston’s life sciences industry ranks among the top U.S. markets for talent in 2024.

In a report published by commercial real estate services company CBRE, Houston lands in the No. 7 spot for growth in the granting of degrees in biological and biomedical sciences. From 2017 to 2022, Houston notched a growth rate of 32.4 percent in this category.

In 2022, the University of Houston led the higher education pack in the region, graduating 746 people with a bachelor’s degree or above in biological or biomedical sciences, according to the report.

“For years, our team has seen the positive effect that the increase in degreed life sciences professionals has had on the Houston life sciences sector,” Nelson Udstuen, senior vice president of CBRE’s healthcare and life sciences practice group in Houston, says in a news release. “This is the result of the rigorous investment and recruitment in place by several of our region’s finest academic institutions.”

Houston ranks within the top 15 across the report’s three subcategories: No. 4 in manufacturing talent, No. 12 in R&D, and No. 14 in medtech talent. Houston is one of 16 markets appearing within the top 25 for all three subsectors.

Manufacturing, Houston’s highest-rated life sciences talent subsector, includes drug manufacturing as well as cell and gene therapy. The report tallies 38,370 workers in the manufacturing segment, with more than two-thirds of them (37 percent) employed as inspectors, testers, sorters, samplers, and weighers.

The report also identifies 15,690 R&D specialists and 32,170 medtech professionals in the Houston life sciences market.

For the report, CBRE evaluated various criteria for the 100 largest U.S. for life sciences labor.

Houstonians can opt into learning more about the hydrogen economy in this new program from the University of Houston. Photo courtesy of University of Houston

UH launches hydrogen economy program for energy professionals, students

say hi to hydrogen

The University of Houston will launch a new micro-credential program titled “The Hydrogen Economy” starting Feb. 20 and running through May 8.

The program is designed for industry professionals, rising seniors, and graduate students. It aims to present the "opportunities and challenges offered by the growing hydrogen sector," according to a statement from UH.

“The energy field is evolving rapidly, and energy professionals need to do the same," Ramanan Krishnamoorti, vice president of energy and innovation at UH, said in a statement. "What we’re seeing is that the people the companies are going to value are those who can contribute to this transformation.”

The program consists of three badges that are earned via 15-hour modules held over three-week periods. Courses and lectures are held via Zoom weekly with recorded sessions to be viewed independently twice a week.

Participants can complete the entire program (earning all three badges) for $2,000, or earn individual badges for $750 each.

According to UH, the program aims to give participants a solid understanding of:

  • Key characteristics and drivers for hydrogen as the decarbonization fuel of choice
  • Fundamentals for the existing hydrogen market, and how it is poised to change
  • Policy and strategy: Critical factors in building The Hydrogen Economy
  • Hydrogen as a means for transporting and storing renewable energy
  • Current and emerging options for producing hydrogen, including offshore options
  • Basics of hydrogen safety
  • Technical options for storing and transporting hydrogen, including decision factors
  • Fuel cells and their roles in transportation, in the electric grid, and in domestic and commercial power supply
  • Hydrogen fueled vehicles – from forklifts, trains and ships to aircraft
  • Hydrogen as a fuel to decarbonize industry
  • Trade-offs for use of hydrogen vs. electrification vs. advanced renewable hydrocarbon fuels as vectors for decarbonization

The new offering from UH is one of several micro-credential programs UH Energy has launched since 2020. Other programs include:

  • Upstream Energy Data Analytics Program
  • CCUS Executive Education Program
  • Data Analytics for the Process Industries Program
  • Sustainable Energy Development Program
  • Environmental, Social and Governance in Energy
  • Rubbers in Extreme Environments

For more specifics about the Hydrogen Economy Program, click here

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Rice University joins prestigious schools such as MIT and Harvard. Photo courtesy of Rice University

Houston university declared No. 7 in the nation and best in Texas by new study

POMP AND PRESTIGE

The Owls of Rice University have a lot to hoot about. The Houston school has been ranked as the seventh best college in the U.S. and the best college in Texas.

Niche.com's latest college rankings, released August 21, rely on U.S. Department of Education data coupled with reviews from current students, alumni, and parents to judge American colleges on 12 factors, including academics, campus, dorm life, and professors. Niche.com helps parents and students choose colleges and K-12 schools.

Last year's Niche.com list of the best colleges put Rice at No. 10, so it jumped up three spots this year.

On the new list, Rice ranks fourth among the colleges with the best professors, 10th among the colleges with the best value, and 16th among the hardest colleges to get into.

Here's Niche.com's new report card for the country's 10 best colleges:

  1. Massachusetts Institute of Technology, Boston
  2. Harvard University, Cambridge, Massachusetts
  3. Stanford University, Palo Alto, California
  4. Yale University, New Haven, Connecticut
  5. Duke University, Durham, North Carolina
  6. Princeton University, Princeton, New Jersey
  7. Rice University
  8. California Institute of Technology, Pasadena, California
  9. Brown University, Providence, Rhode Island
  10. University of Pennsylvania, Philadelphia

Known as the "Harvard of the South," Rice "is a premier research institution with a 300-acre campus that serves as a green oasis in the heart of Houston," Forbes noted in 2019.

In Niche.com's ranking this year, Rice earns bragging rights as the best college in Texas. Here are the state's top 10, according to Niche.com:

  1. Rice University
  2. University of Texas at Austin
  3. Texas A&M University, College Station
  4. Southern Methodist University, Dallas
  5. Trinity University, San Antonio
  6. Texas Christian University, Fort Worth
  7. Baylor University, Waco
  8. LeTourneau University, Longview
  9. Texas Tech University, Lubbock
  10. University of Texas at Dallas

Shortly after the Niche.com rankings came out, Rice appeared at the top of The Princeton Review's list of American colleges and universities with the overall best quality of life. Every year, The Princeton Review rates colleges and universities based on critiques submitted by students at 386 schools.

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This article originally appeared on CultureMap.

Former University of St. Thomas business school dean, Beena George, is taking on a new role at the university: Chief innovation officer. Courtesy of UST

Houston educator plans to lead her university into the future with her new role

Featured innovator

High school graduation numbers are decreasing, and, by 2025, far fewer college freshmen will be starting school. Some project as high as a 15 percent drop, says Beena George, inaugural chief innovation officer of Houston's St. Thomas University.

UST is looking forward to and anticipating changes and challenges within higher education like this, and one of the steps the university has been to create George's position.

"My role is to ferment that culture of innovation," George says. "Not just sit here and think of ideas."

As the school gets ready to welcome students back onto its Montrose campus, the former business dean gets ready to serve in her new role for the first semester. She spoke with InnovationMap about her career, goals, and the role UST plays within the Houston innovation ecosystem.

InnovationMap: What have you learned throughout your career that has prepared you for the role?

Beena George: I've always been interested in solving problems. If I saw something that was an opportunity, and we didn't take advantage of it, I'll keep thinking about it. I've been thinking about what makes me enjoy this role and stage in my career, and I think it's because most roles tend to be mostly operational, but this is thinking of new things and doing things differently and checking your own assumptions. That is what really engages me in my role. My career has given me different opportunities to use this, but not so much as now. When teaching, you have that opportunity every day — engaging students differently. Then as dean, it was about looking at new opportunities and programs for the business school, like our Master of Clinical Translation Management program.

IM: How did this clinical translation program come about?

BG: The idea of clinical translation is essentially to move a discovery from the lab to the patient's bedside — it's the commercialization of life sciences. The program trains students to shepherd a discovery from the lab to the commercial setting so that it's available to patients.It's a combination of business, life sciences, regulatory affairs. It's a one-year online program with some residency periods. It's the only of its kind in Houston and is one of less than 10 in the United States and, to my knowledge, the only of its kind in a business school.

IM: What does innovation mean to the University of St. Thomas and this inaugural position?

BG: I think innovation isn't entirely new on college campuses, but now is a time when higher education is in flux. There has been a lot of changes in the industry and in society in general that's requiring higher education institutions to react in a different way. Some of the things that we've always been doing — creating new programs, moving online, new campuses — now it's even more important to bring that to prominence and figure out how it fits with your university. Things have changed, so the rate at which you're innovating has to increase.

IM: What’s on your to-do list for this first year and within five years?

BG: Since this is a new role, my first goal for the next two to three months is the process of discovery — internally and externally. One of the cool things that's happening in Houston is all these partnerships and collaborations. That's what I'm trying to do — learn about the groups here and outside and make these connections. The other part of it is bringing information in from the outside. There are so many different ways of doing things. For instance, in higher education, it's been historically tied to credit hours. We know now there are many different ways to look at education. That's the kind of conversation I look to get started.

IM: You mention collaboration, and I think that’s key when it comes to higher education institutions within the innovation ecosystem, but how do you see that teamwork affecting the city as a whole?

BG: So I have been so glad to see that, because I've always believed that there has to be some competition — it ensures that everyone performs at their best. But there are some industries where you have to go beyond competition to the next level and manage competition and collaboration at the same time. We have two networks — Texas Medical Center and the academic partnership created by The Ion — and talk about what's happening on your campuses and how we can work together in Houston. There's also the 60x30 Texas, which has different advisory councils that offers that same conversation of collaboration to work together to meet our goals. Those types of conversations are important and having those types of venues to do that can have only a positive effect on Houston.

IM: How is UST finding new ways to prepare its students for the workforce?

BG: One thing that has gained a lot of attention here on campus is providing students with more experiential learning opportunities — more internships and apprenticeships and bringing the industry into the classroom. Carlos Monroy, a professor at UST, and his student worked on a project for the city. This is something that allows us to remain connected to the industry and it gives our faculty the idea of what the Industry needs and they can focus on that in the classroom.

IM: UST recently announced a major “renewal” plan. How is this going to affect innovation efforts on campus?

BG: I think the whole process is about innovation. What we have is an opportunity to recreate ourselves for the next millennium and create a sustainable operating model that will continue to provide for our students. I think it will affect everything.


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Portions of this interview have been edited.

The device is lighter than a Band-Aid and could be used as robot skin to track movement and health conditions. Photo via uh.edu

University of Houston professors identify super thin wearable device

Data collecting skin

Imagine a wearable device so thin it's less noticeable and lighter than a Band-Aid but can track and record important health information. According to some University of Houston researchers, you might not need to imagine it at all.

A recent paper, which ran as the cover story in Science Advances, identified a wearable human-machine interface device that is so thin a wearer might not even notice it. Cunjiang Yu, a Bill D. Cook associate professor of Mechanical Engineering at the University of Houston, was the lead author for the paper.

"Everything is very thin, just a few microns thick," says Yu, who also is a principal investigator at the Texas Center for Superconductivity at UH, in a release. "You will not be able to feel it."

The device is reported in the paper to be made of a metal oxide semiconductor on a polymer base. It could be attached to a robotic hand or prosthetic, as well as other robotic devices, that can collect and report information to the wearer.

"What if when you shook hands with a robotic hand, it was able to instantly deduce physical condition?" Yu asks in the release.

The device could also be used to help make decisions in situations that are hazardous to humans, such as chemical spills.

Current devices on the market or being developed are much slower to respond and bulkier to wear, not to mention expensive to develop.

"We report an ultrathin, mechanically imperceptible, and stretchable (human-machine interface) HMI device, which is worn on human skin to capture multiple physical data and also on a robot to offer intelligent feedback, forming a closed-loop HMI," the researchers write in the paper. "The multifunctional soft stretchy HMI device is based on a one-step formed, sol-gel-on-polymer-processed indium zinc oxide semiconductor nanomembrane electronics."

The paper's co-authors, in addition to Yu, include first author Kyoseung Sim, Zhoulyu Rao, Faheem Ershad, Jianming Lei, Anish Thukral, and Jie Chen, who are all from UH; Zhanan Zou and Jianliang Xiao of the University of Colorado; and Qing-An Huang of Southeast University in Nanjing, China.


Soft Wearable Multifunctional Human-Machine Interfaces (HMIs)www.youtube.com

Houston Baptist University has created a program that is training the next generation of cybersecurity professionals. Courtesy of HBU

Houston university creates program to fill the need for cyber engineering professionals

The future of tech

A few years ago, Houston Baptist University realized there was a huge need for more engineering programs within Houston higher education in one area particularly: Cybersecurity.

The school brought in Stan Napper from Louisiana Tech University to become the founding dean of the College of Engineering. The college now has three bachelor's degree programs in cyber engineering, electrical engineering, and computer science.

"Cyber engineering is designing secure systems at the interface of operational technology and information technology," says Napper. "Cyber engineering is in the middle of devices and data. It's in the middle of the hardware and software. And, academically, it's in the middle of electrical engineering and computer science."

The program is the only of its kind in Texas, Napper says. In fact, he says he doesn't know of any other similar programs other than the one he was a part of at Louisiana Tech. However, he does expect that to change. There's a growing need for cybersecurity specialists — especially in the health care and energy industries.

"One of those things that really got my attention a couple of years ago is in 2017, the FDA issued a recall on the over 450,000 pacemakers that had already been implanted," Napper says. "Modern pacemakers now can be controlled remotely through the skin to change the pacing frequency or some other parameters of that pacemaker without having to go back and do another surgery. They discovered a software glitch to a particular brand of pacemaker that could have been exploited."

Thankfully, that glitch wasn't exploited, but it put thousands of people's lives at risk by those technology designers not foreseeing this cybersecurity glitch. Anywhere devices — not just computers or phones — are used remotely or on a network, security is compromised.

Napper has only one year of the program under his belt, but he says he has already seen a lot of interest from the school's advisory board, which is made up of 75 CTO and tech leaders.

"They're lining up to get our students as interns even before we have the students ready," Napper says. "We've only finished our first freshman class."

Napper says the program is on track to have a capacity of 200 to 250 students. At a school like HBU, which has around 3,400 total students, that's a huge chunk of the school's population. Some think the program, considering the need and reception, could grow to 1,000 students.

The courses cover everything within operational and intellectual technology — device design, data science, automation, artificial intelligence — and the students are already getting their hands dirty.

"Our approach to education is learning in context. It is very hands on, but it's not hands off or hands on sake," Napper says. "There's no single class in our inventory of courses where one person stands at the front and talks the whole time. Our students carry their lab with them to class. We changed the definition of a lab. A lab is not the place you go to once a week in order to write a lab report."

This fall, the school will have its inaugural class in sophomore-level courses and a new batch of freshmen. Down the road, Napper says they'll look into creating a master's program.

Michael Tims / Houston Bapitst U

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Texas Republicans are pushing to move NASA headquarters to Houston

space city

Two federal lawmakers from Texas are spearheading a campaign to relocate NASA’s headquarters from Washington, D.C., to the Johnson Space Center in Houston’s Clear Lake area. Houston faces competition on this front, though, as lawmakers from two other states are also vying for this NASA prize.

With NASA’s headquarters lease in D.C. set to end in 2028, U.S. Sen. Ted Cruz, a Texas Republican, and U.S. Rep. Brian Babin, a Republican whose congressional district includes the Johnson Space Center, recently wrote a letter to President Trump touting the Houston area as a prime location for NASA’s headquarters.

“A central location among NASA’s centers and the geographical center of the United States, Houston offers the ideal location for NASA to return to its core mission of space exploration and to do so at a substantially lower operating cost than in Washington, D.C.,” the letter states.

Cruz is chairman of the Senate Committee on Commerce, Science, and Transportation; and Babin is chairman of the House Committee on Science, Space, and Technology. Both committees deal with NASA matters. Twenty-five other federal lawmakers from Texas, all Republicans, signed the letter.

In the letter, legislators maintain that shifting NASA’s headquarters to the Houston area makes sense because “a seismic disconnect between NASA’s headquarters and its missions has opened the door to bureaucratic micromanagement and an erosion of [NASA] centers’ interdependence.”

Founded in 1961, the $1.5 billion, 1,620-acre Johnson Space Center hosts NASA’s mission control and astronaut training operations. More than 12,000 employees work at the 100-building complex.

According to the state comptroller, the center generates an annual economic impact of $4.7 billion for Texas, and directly and indirectly supports more than 52,000 public and private jobs.

In pitching the Johnson Space Center for NASA’s HQ, the letter points out that Texas is home to more than 2,000 aerospace, aviation, and defense-related companies. Among them are Elon Musk’s SpaceX, based in the newly established South Texas town of Starbase; Axiom Space and Intuitive Machines, both based in Houston; and Firefly Aerospace, based in the Austin suburb of Cedar Park.

The letter also notes the recent creation of the Texas Space Commission, which promotes innovation in the space and commercial aerospace sectors.

Furthermore, the letter cites Houston-area assets for NASA such as:

  • A strong business environment.
  • A low level of state government regulation.
  • A cost of living that’s half of what it is in the D.C. area.

“Moving the NASA headquarters to Texas will create more jobs, save taxpayer dollars, and reinvigorate America’s space agency,” the letter says.

Last November, NASA said it was hunting for about 375,000 to 525,000 square feet of office space in the D.C. area to house the agency’s headquarters workforce. About 2,500 people work at the agency’s main offices. NASA’s announcement set off a scramble among three states to lure the agency’s headquarters.

Aside from officials in Texas, politicians in Florida and Ohio are pressing NASA to move its headquarters to their states. Florida and Ohio both host major NASA facilities.

NASA might take a different approach, however. “NASA is weighing closing its headquarters and scattering responsibilities among the states, a move that has the potential to dilute its coordination and influence in Washington,” Politico reported in March.

Meanwhile, Congressional Delegate Eleanor Holmes Norton, a Democrat who represents D.C., introduced legislation in March that would prohibit relocating a federal agency’s headquarters (including NASA’s) away from the D.C. area without permission from Congress.

“Moving federal agencies is not about saving taxpayer money and will degrade the vital services provided to all Americans across the country,” Norton said in a news release. “In the 1990s, the Bureau of Land Management moved its wildfire staff out West, only to move them back when Congress demanded briefings on new wildfires.”

Houston research breakthrough could pave way for next-gen superconductors

Quantum Breakthrough

A study from researchers at Rice University, published in Nature Communications, could lead to future advances in superconductors with the potential to transform energy use.

The study revealed that electrons in strange metals, which exhibit unusual resistance to electricity and behave strangely at low temperatures, become more entangled at a specific tipping point, shedding new light on these materials.

A team led by Rice’s Qimiao Si, the Harry C. and Olga K. Wiess Professor of Physics and Astronomy, used quantum Fisher information (QFI), a concept from quantum metrology, to measure how electron interactions evolve under extreme conditions. The research team also included Rice’s Yuan Fang, Yiming Wang, Mounica Mahankali and Lei Chen along with Haoyu Hu of the Donostia International Physics Center and Silke Paschen of the Vienna University of Technology. Their work showed that the quantum phenomenon of electron entanglement peaks at a quantum critical point, which is the transition between two states of matter.

“Our findings reveal that strange metals exhibit a unique entanglement pattern, which offers a new lens to understand their exotic behavior,” Si said in a news release. “By leveraging quantum information theory, we are uncovering deep quantum correlations that were previously inaccessible.”

The researchers examined a theoretical framework known as the Kondo lattice, which explains how magnetic moments interact with surrounding electrons. At a critical transition point, these interactions intensify to the extent that the quasiparticles—key to understanding electrical behavior—disappear. Using QFI, the team traced this loss of quasiparticles to the growing entanglement of electron spins, which peaks precisely at the quantum critical point.

In terms of future use, the materials share a close connection with high-temperature superconductors, which have the potential to transmit electricity without energy loss, according to the researchers. By unblocking their properties, researchers believe this could revolutionize power grids and make energy transmission more efficient.

The team also found that quantum information tools can be applied to other “exotic materials” and quantum technologies.

“By integrating quantum information science with condensed matter physics, we are pivoting in a new direction in materials research,” Si said in the release.

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

Houston humanoid robotics startup inks new deal to deploy its rugged robots

big deal

Houston-based Persona AI announced the expansion of its operations at the Ion and a major milestone in deploying its humanoid robots.

The company will establish a state-of-the-art development center in the prominent corner suite on the first floor of the Ion, and is slated to begin expansion in June.

“We chose the Ion because it’s more than just a building — it’s a thriving innovation ecosystem,” CEO Nicolaus Radford said in a news release. “This is where Houston’s tech future is being built. It’s a convergence point for the people, energy, and ideas that power our mission to redefine human-machine collaboration. For an industrial, AI-driven robotics company, there’s no better place to scale than in the heart of Houston.”

Persona AI’s new development center will be located in the suite utilized by the Ion Prototyping Lab, managed by TXRX Labs. The IPL will transition its operations to the expanded TXRX facility in the East End Maker Hub, which will allow the lab to grow its team and meet increased demand.

At the start of the year, Persona AI closed $25 million in pre-seed funding. Earlier this month, the company announced a memorandum of understanding with HD Korea Shipbuilding & Offshore Engineering, HD Hyundai Robotic, and Korean manufacturing firm Vazil Company to create and deploy humanoid robots for complex welding tasks in shipyards.

The project will deliver prototype humanoids by the end of 2026, with field testing and full commercial deployment scheduled to begin in 2027.

"As heavy industry faces growing labor constraints—especially in high-risk trades like welding—the need for rugged, autonomous humanoid robots is more urgent than ever,” Radford added in a separate statement. “This partnership with HD Hyundai and Vazil is more than symbolic—deploying to the shipyard is one of the largest real-world proving grounds for Persona's tough, humanoid robots.”