To be better leaders, the administration should engage its primary audience: the faculty. Graphic by Miguel Tovar/University of Houston

The world of academic research is tough. As institutional research offices juggle regulatory and financial challenges within a continually strained system, they still have to lead their respective enterprises and serve their research communities.

“Service before leadership,” said Amr Elnashai, vice president/vice chancellor for research and technology transfer at the University of Houston. “We cannot miss this very important fact – we have to serve the needs of our research communities, first, before they will trust us to lead.”

How can we better serve faculty while tackling the many challenges faced by research divisions?

Sara Bible, associate vice provost for research at Stanford University, says the best way is to continually engage faculty in the business of research.

Rule making within research

Let’s be honest – faculty don’t particularly enjoy the administrative overburden dished out by university research offices. Nor should they.

But involving faculty in the process is the quickest way to earn their cooperation.

“You will have good results if you put in the time,” said Bible. “It’s really important to be flexible with faculty and staff on campus.”

One way Bible has successfully engaged her research community is in policy development. Her office at Stanford implemented a research policy working group that spends months testing policy language and effectiveness with university faculty and staff before it is launched.

“We’ve had great results,” she said. “People want to engage and be part of the process, not just be expected to follow a rigid set of rules.”

The pre-deadline deadline

Another way to partner with faculty is to work with them to improve the proposal review cycle, for everyone knows the risks of pushing the magic button mere minutes before the deadline.

Melinda Cotton, assistant vice president for Sponsored Programs at the University of Alabama at Birmingham, recommends creating a pre-deadline deadline.

Her office worked with faculty, schools and departments to establish the submission of proposals a full seven days before their due dates. This gave the office time to strengthen merit of the research project and fix minor details that could disqualify a proposal.

“Within our School of Medicine, more than 80 percent of our proposals came in by our pre-deadline,” she said. “We work hard to communicate and advocate to faculty that we can serve them better by doing it this way, and it’s working for us.”

Ultimately, there are lots of processes university research offices have to put in place to do the business of research. But to be better leaders, the administration should engage its primary audience: the faculty.

Engagement in policy-making, for instance, gives insight into pain points and allows research offices to put the best processes in place to get the job done for everyone.

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This article originally appeared on the University of Houston's The Big Idea. Lindsay Lewis, the author of this piece, formerly served as the executive director of communications for the UH Division of Research.


Faculty in academia shouldn't be hesitant to follow their entrepreneurial goals just because it may be difficult to balance the two worlds. Graphic by Miguel Tovar/University of Houston

University of Houston: Tips for balancing faculty and founder life

Houston voices

Finding balance in your professional life and your dreams can be hard for anyone. Faculty in academia, hoping to become entrepreneur and start their own companies, find this especially difficult. Finding this balance is essential to having success both professionally and in entrepreneurial endeavors.

Amy J. Ko, a professor at the University of Washington Information School and Co-Founder of AnswerDash, said in a post on her Bits and Behavior blog that she found parallels between being an entrepreneur and being a professor that helped her start her technology company.

Here are four parallels between startup life and faculty life that Ko found striking.

1. Fundraising.

"I spend a significant amount of my time seeking funding, carefully articulating problems with the status quo and how my ideas will solve these problems. The surface features of the work are different—in business, we pitch these ideas in slide decks, elevators, whereas in academia, we pitch them as NSF proposals and DARPA white papers—but the essence of the work is the same: it requires understanding the nature of a problem well enough that you can persuade someone to provide you resources to understand it more deeply and ultimately address it."

2. Experimentation.

"Research requires a high degree of iteration and experimentation, driven by carefully formed hypotheses. Startups are no different. We are constantly generating hypotheses about our customers, our end users, our business plan, our value, and our technology, and conducting experiments to verify whether the choice we've made is a positive or negative one."

3. Learning.

"Both academia and startups require a high degree of learning. As a professor, I'm constantly reading and learning about new discoveries and new technologies that will change the way I do my own research. As a founder, and particularly as a CTO, I find myself engaging in the same degree of constant learning, in an effort to perfect our product and our understanding of the value it provides."

4. Teaching.

"The teaching I do as a CTO is comparable to the teaching I do as a Ph.D. advisor in that the skills I'm teaching are less about specific technologies or processes, and more about ways of thinking about and approaching problems."

Ko also mentions the distinct differences between the two are the pace, the outcomes, and the consequences.

Finding Balance as a Professor and Entrepreneur

Alaina G. Levine, an award-winning entrepreneur, science journalist, and STEM careers consultant said in a Science Mag blog post that the key to success is to find ways to balance the two worlds.

"Issues of intellectual property ownership, human resources protocols, and time management, as well as the challenge of keeping a delineated barrier between professorial and business activities can be difficult to manage, but these concerns shouldn't prevent academics from seeking to create a startup company," Levine said in the blog post.

How to Balance Entrepreneurship and Faculty Responsibilities

According to Levine, these are a few things to consider before perusing entrepreneurship in order to successfully balance professorial and entrepreneurial activities:

1. Know your priorities

"If you are a professor who ponders whether your research can be developed into a technology that can be commercialized, your initial step should be to ponder your priorities. Do you want to stay in academia? Do you desire a career in industry? Deciding these choices early on, even before the lawyers and university representatives get involved, is crucial to forging a balance and a satisfying career."

2. Figuring out what path to take

"To wrangle the options and make it through the multiverse of marketing and manufacturing without sacrificing professorial duties, an academic's initial stop should be their institution's office of technology transfer (OTT). The OTT can assist faculty with understanding how much time they can spend on outside endeavors and how it must be structured. Technology transfer professionals also provide insight into patent law and can help professors navigate intellectual property (IP) issues."

3. Managing potential conflicts of interest

"Once you engage in entrepreneurship, you must create a distinct separation between your university lab and your company's facilities. IP can't flow freely between the two, and neither can labor—your grad students cannot work for you in your group and intern at your company at the same time. Safeguards that prevent mingling are necessary for legal purposes, say experts, as well as to synthesize a balance between being in academia and being in business."

4. Getting a Return on Investment on the faculty side

"Even with a targeted separation of academic and business endeavors, pursuing commercialization can actually enhance your skills in education. The connections that faculty make not only help the students but benefit the department and university as a whole as well."

What's The Big Idea?

Faculty in academia shouldn't be hesitant to follow their entrepreneurial goals just because it may be difficult to balance the two worlds. Take what you already know as a professor and apply it to your new venture as an entrepreneur. Also, know where your priorities lie, what path you're taking, watch out for conflicts of interest and make sure you, your students and university are all getting something out of it.

According to both writers, universities and research go hand in hand and both are "of critical importance" to the advancement of our society. So, is your research impactful? If the answer is yes, go for it.

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This article originally appeared on the University of Houston's The Big Idea. Cory Thaxton is the communications coordinator for The Division of Research.

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Intuitive Machines lands $148M as part of NASA Moon Base funding

to the moon

Houston-based Intuitive Machines has been awarded $148.3 million to deliver its Nova-C lander to the moon by 2028. The funding is part of $600 million that NASA recently awarded to three companies as part of the agency’s Moon Base Program.

The contracts aim to support sustained human presence and commercial operations on the Moon. Austin-based Firefly Aerospace was awarded $144.2 million by NASA for one mission and Pittsburgh-based Astrobotic netted $297.9 million for two lunar landings. Intuitive Machine's award is the company's sixth task order under NASA's Commercial Lunar Payload Services (CLPS) program.

“We’re building a proving ground for Moon Base operations,” Ryan Stephan, NASA’s Moon Base acting director of cargo landers, said in a news release. “Accelerating our Moon mission ordering cadence and launch opportunities enable us to move quickly to learn, iterate, and improve.”

Under the latest task order, Intuitie Machines will deliver three scientific and operational payloads to the moon, which include a:

  • Linear Energy Transfer Spectrometer (LETS) radiation monitor to gather critical environmental safety data
  • Advanced stereo cameras to analyze surface-plume interactions (SCALPSS)
  • Laser retroreflector array (LRA) for precise cislunar positioning

The funding breakdown includes a $68.6 million base contract and a $79.7 million performance incentive for Intuitive Machines.

The company says the funding will allow it to create a standardized and repeatable "lunar utility pipeline" for delivering cargo to the moon.

"We are shifting the paradigm from custom aerospace engineering to commercial mass production of lunar infrastructure," Steve Altemus, CEO of Intuitive Machines, said in a separate news release. "Our flight-proven Nova-C platform allows us to build, test, and deploy multiple landers in parallel using Industry 4.0-powered manufacturing. This contract directly advances our core mission to provide persistent, reliable, and commercial baseline of transport, connectivity, and operations that allows our customers to stay longer and achieve more on the Moon."

NASA also shared that it is exploring plans to send PROMISE, a rover based on the Mars Perseverance and Curiosity rovers, to the moon and it plans to seek proposals for additional lunar lander missions, technology demonstrations, a communications and navigation satellite network, and new science payloads to support its lunar outpost. NASA is developing its Moon Base near the lunar South Pole. The agency expects it to come to fruition sometime after 2032.

Intuitive Machines had received its last CLPS award for $180.4 million in March 2026. It will be the first mission to utilize the company's larger cargo lunar lander, Nova-D. The company was also recently awarded a $1 million grant from Maryland Gov. Wes Moore to expand its robotics operations in the state.

UT team develops wearable technology for atmospheric water harvesting

In The Air

Engineers at the University of Texas at Austin have developed a prototype jacket that harvests clean drinking water directly from the atmosphere, and it works even in the driest desert conditions.

The research, published in Science Advances, marks the latest milestone in nearly a decade of work by materials scientist and chair professor Guihua Yu and his team at the Cockrell School of Engineering's Walker Department of Mechanical Engineering and Texas Materials Institute. The wearable technology marks a significant leap: instead of a bulky, stationary machine, this jacket does the work.

Photo courtesy of UT Austin

"We have been working on atmospheric water harvesting technology for a number of years," Yu says. "This current version is even more wearable. We're transitioning from conventional, more stationary water harvesting to something truly portable and personal."

Yu's lab first published work on hydrogel-based water harvesting around 2019, and the jacket is the latest evolution of that platform, now called AirGel. Last year, the broader AirGel invention won the top prize in the graduate category of the National Collegiate Inventors Competition.

The jacket is woven with specially engineered hydrogel fibers; ultra-porous materials that attract and absorb moisture from the surrounding air much like a household desiccant. Unlike a desiccant, the material doesn't require intense heat to release that water. The hydrogel is thermally responsive, meaning a modest rise in temperature — even from mild solar heating — is enough to release the water it has captured.

Condenser test in AustinSo, somebody would be wearing the jacket, or perhaps carrying this gel-like textile as a blanket, as it passively absorbs moisture from the air. Then they would detach the textile panels and place them into a small, portable collector unit; essentially a compact heater. The water evaporates out of the textile, condenses inside the collector, and drips out as clean, drinkable water.

"It immediately becomes drinkable because it already goes through the distillation process," Yu explains.

In trials, the jacket produced between 400 and 900 milliliters of water per day depending on humidity, or roughly 14-30 ounces, nearly a quart, depending on the air's humidity. With one kilogram of the textile, the researchers found they could generate approximately 3.7-4 liters of water in arid conditions, and potentially double that in humid ones. So far, the team has tried the jacket out in very dry, semi-dry, and humid areas, and the jacket was able to pull water from each climate.

Lead researcher Chuxin Lei, a postdoctoral researcher on Yu's team and co-author on the paper, says the goal was to rethink who this technology could serve.

Portable bag contents

"Many current [atmospheric water harvesting] systems are still built as rigid or stationary platforms, making them less suitable for people who are moving, working outdoors, or operating in some remote environment. This lead us to ask whether we could build a water harvesting system that could become more like clothing — light, wearable, flexible, and naturally suited for personal use," Lei says.

The potential applications are wide-ranging. Yu's team has previously worked with the Department of Defense on water solutions for soldiers, where water logistics can be dangerous and costly. The technology could also serve hikers, emergency responders, disaster relief workers, and agricultural and field workers. Anyone who needs clean water on the go and far from infrastructure.

The team also sees a potential future where the technology complements large-scale centralized water systems rather than replacing them.

"Our solution cannot be a universal solution for all," Yu acknowledges. "But I think it's an extremely important alternative."

For now, the jacket is still a laboratory prototype, but Yu and Lei are optimistic. With the right industry partnerships, they say, the technology could realistically reach commercial scale within three to five years.

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This article originally appeared on CultureMap.com, written by Natalie Grigson.

Houston ranks among world’s top 30 emerging startup ecosystems

Startup Status

Long known as the Energy Capital of the World, Houston also ranks among the world’s top 30 emerging startup ecosystems, according to a new report.

The report from Startup Genome, a research and advisory organization, doesn’t assign a specific numeric ranking to Houston’s startup ecosystem. Rather, it puts Houston in the ranking range of 21 to 30 for emerging ecosystems. Startup Genome weighed factors such as early-stage funding, performance and talent to identify the top emerging ecosystems.

Houston also gained notice for being one of the world’s 20 emerging ecosystems with at least four unicorn startups in the past 10 years. Houston and nine other ecosystems each had four unicorns.

According to StartupBlink, a startup research platform, Houston’s startup ecosystem grew 24 percent in 2025, with over 1,300 startups and total startup funding exceeding $808 million. StartupBlink places Houston at No. 46 among the world’s top 100 startup ecosystems.

In a recent post on LinkedIn, David Horsup, executive in residence at the Rice Alliance Clean Energy Accelerator, wrote that Houston “has all the ingredients to be wildly successful if it stays true to its differentiated pillars that drive the economy — energy, medical, and aerospace.”

Mumbai topped Startup Genome’s list of emerging ecosystems, followed by Istanbul, Madrid, Salt Lake City-Provo and Barcelona. After Salt Lake City-Provo, the top U.S. ecosystems were Phoenix, Detroit, Minneapolis and Las Vegas.

Silicon Valley led Startup Genome’s ranking of the world’s top established ecosystems, followed by New York City, London, Tel Aviv and Boston. Austin landed at No. 18 in this category and Dallas at No. 27.

“For much of the past decade, this report has chronicled the welcome dispersion of opportunity beyond the traditional hubs,” Startup Genome writes. “That trend has not died — but it has been complicated. Capital and scale are consolidating once more, particularly in the United States, and the gap between leading and emerging ecosystems is widening.”