It's time to devote more attention and focus on closing the gender gap in STEM, according to this University of Houston expert. Graphic by Miguel Tovar/University of Houston

Researchers and scientists can give girls a ‘leg up’.

According to Allison Master, assistant professor of psychological, health and learning sciences at the University of Houston: “Stereotypes that STEM [science, technology, engineering and math] is for boys begin in grade school, and by the time they reach high school, many girls have made their decision not to pursue degrees in computer science and engineering because they feel they don’t belong.”

Stats for STEM

The statistics are not encouraging. According to the U.S. Census: “Women made gains – from 8 percent of STEM workers in 1970 to 27 percent in 2019 – but men still dominated the field. Men made up 52 percent of all U.S. workers but 73 percent of all STEM workers.”

“But there are huge disparities between STEM fields in the representation of women,” said Master, whose new paper looks at the emergence of gender gaps among children and adolescents. “Fields like computer science (25 percent of computer jobs are held by women) and engineering (15 percent of engineering jobs are held by women) have some of the lowest percentages of women among STEM fields. On the other hand, women are overrepresented in health fields (74 percent of health-related jobs are held by women).”

Her research specifically looked at computer science and engineering fields. “We wanted to gain a better understanding of why there is such wide variation among STEM fields, and what we can do earlier in the pipeline to encourage more young girls to enter these fields.”

Off to an unfortunate start

“We find that children start to believe that boys are more interested than girls in engineering by age six (first grade), and that children start to believe that boys are more interested than girls in computer science by age eight (third grade). The more that young girls believe those stereotypes, the less interested they are in those fields,” said Master. “If girls believe they won’t belong in fields like computer science and engineering because those are fields ‘for boys,’ then they may miss out on opportunities to try those kinds of activities.”

Master decided to conduct a study on stereotyping gender roles.

“In one study, we told eight and nine year-old children about two computer science activities. When we told them that ‘girls are much less interested than boys’ in one of the activities, we found that girls became much less interested and less willing to try that activity (compared to another activity for which we told them ‘girls and boys are equally interested.’) These stereotypes can shape that choices that young girls make, opening or closing doors to different career pathways,” said Master.

Narrowing the gender gap

How do we turn this around? Mentoring elementary-age students is one way we can increase the percentage of girls who are ushered into STEM fields.

Stem Like a Girl is an initiative that aims to encourage young women to enter the STEM fields. Their website states: “We believe girls need to see strong women in STEM fields to feel supported in pursuing their own science and engineering interests.” An IBM initiative in India has a similar aim. There are lots of terrific organizations working to connect women in STEM as role models for younger girls (e.g., Society of Women Engineers, Black Girls Code, National Girls Collaborative Project, etc.),” Master adds.

Many higher education institutions hold STEM camps for girls exclusively. For instance, University of California-Davis has a program called STEM For Girls – which boasts a student demographic of 79 percent ethnic minorities. The University of Houston Hewlett Packard Enterprise Data Science Institute holds a summer camp each year called the Middle School Girls Coding Academy. This program is focused on middle school girls (rising 6th–8th graders) who learn Scratch, HTML, Game Design, and Python programming. The Academy runs another camp for high school-aged girls.

The big idea

It’s January – time for New Year’s resolutions. How about becoming a mentor or volunteering to give a presentation or teach a camp for young girls in STEM? Master goes on to say that even men in STEM should mentor young women.

“Role models are important because they help girls believe, ‘People like me can succeed,’ and ‘People like me belong here.’ But the most important thing that all role models can do (women and men, because men can also be very effective role models for girls in STEM) is to be relatable and make their work seem interesting and meaningful,” Master says.

So, does your institution have a program in robotics or coding just for girls? Or if you feel like you could benefit from a mentorship program yourself, you can apply at organizations like Harvard Women In Technology +. Harvard WIT+ helps to connect women early in their STEM careers with seasoned mentors.

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This article originally appeared on the University of Houston's The Big Idea. Sarah Hill, the author of this piece, is the communications manager for the UH Division of Research.

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5 Houston universities named best in the world on new U.S. News list

Top of the Class

Five Houston-area universities have been named among the best universities worldwide in U.S. News & World Report's just-released comprehensive list for 2026-2027.

U.S. News' Best Global Universities report ranks more than 2,250 schools based exclusively on their academic research performance and international reputation. Only 275 universities from the U.S. were included in the global ranking, and 21 based in Texas.

Harvard University topped the list for 2026-2027, and the Massachusetts Institute of Technology and Stanford University claimed the coveted No. 2 and No. 3 spots worldwide.

Houston's Baylor College of Medicine topped the list of the best local schools, and it ranked as the 144th best university in the world.

Here's how the rest of Houston's local institutions ranked:

  • No. 201 – Rice University
  • No. 324 – University of Texas Health Science Center Houston
  • No. 390 – University of Houston
  • No. 599 – University of Texas Medical Branch Galveston

In a statement explaining global university trends, the managing editor for Education at U.S. News, LaMont Jones, Ed.D., said schools in the U.S. have continued to rank "disproportionately high" while major universities from other countries in China and South America are starting to catch up.

"The continuing strength of [American university] reputations and academic research are, for the most part, unmatched," he said. "It's why students all over the world flock here to learn."

Top-ranking Texas universities
The University of Texas at Austin ranked No. 1 statewide and No. 56 worldwide, further cementing the university's reputation as the top choice for students seeking a higher education in Texas.

Earlier in June, UT Austin ranked No. 35 in a separate list of the best universities in the world from the Center for World University Rankings, which compared 2,000 schools globally.

Here's where other Texas universities stand among the top 1,000 in this year's global rankings:

  • No. 113 – University of Texas Southwestern Medical Center, Dallas
  • No. 177 – Texas A&M University, College Station
  • No. 296 – University of Texas at San Antonio
  • No. 451 – Baylor University, Waco
  • No. 503 – University of Texas at Dallas
  • No. 562 – Texas Tech University, Lubbock
  • No. 739 – University of North Texas, Denton
  • No. 975 – University of Texas at Arlington
  • No. 944 – Southern Methodist University, Dallas
Additionally, six Texas universities ranked outside the top 1,000: University of Texas Rio Grande Valley (No. 1,153); University of Texas El Paso (No. 1,238); Texas State University in San Marcos (No. 1,531); Texas Tech University Health Sciences Center in Lubbock (No. 1,871); Texas Christian University in Fort Worth (No. 1,906); and Sam Houston State University in Huntsville (No. 2,141).

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This article originally appeared on CultureMap.com.

Rice student startup lands $1.85M to launch medical drone network

critical cargo

Students at Rice University have developed a medical cargo drone transport system to help deliver sensitive medical supplies and improve mobile healthcare efforts.

Haast Autonomous is the brainchild of graduating seniors Ege Halac, Jason Chen and Santiago Brent, who got their venture idea off the ground with help from the Liu Idea Lab for Innovation and Entrepreneurship (Lilie) Summer Venture Studio. The founders have developed the prototype at Rice’s Oshman Engineering Design Kitchen (OEDK) with fellow Rice researchers Felix Hasson, Ethan Javedan, Kenna Sanders and Caden Schmidt.

The startup has raised $1.85 million in pre-seed funding, according to Rice. The founders plan to focus on Haast full-time following graduation. They said they aim to launch pilot trials in 2027 and head to market later that year.

“We need better alternatives for a fast, safe and on-demand system of transport for life-critical cargo,” Halac said in a news release from Rice.

The Haast team has developed a custom aircraft with software that manages dispatch, routes, and chain of custody to assist in how materials move between sites in centralized medical systems. Generally, the transportation of medical supplies and materials between facilities and points of care relies on ground shipping or expensive air transport.

Haast Autonomous’ aircraft can take off and land vertically, and is designed around a mission profile of 50 to 62 miles. It can carry a payload of at least 5 pounds, with future versions intended to scale up in size. It also includes a built-in payload bay that regulates temperature, pressure, vibration and tilt to protect sensitive contents such as patient samples, antivenom or poisoning kits and radioligands or other therapies, according to Rice.

At first, the company envisioned the mission to be centered around transplants, but saw the product being best suited for a variety of operations.

“What we realized is that the platform we are building is suited for medicine, but it really underlies a much larger problem of mission-critical transport across industries,” Brent added in the news release. “We are building the fastest, most secure logistics chain for the world’s most sensitive cargo.”

Haast Autonomous was recognized at the 2026 Oshman Engineering Design Showcase and Competition, where it won Best Aerospace or Transportation Technology. It also performed well in the 2026 Napier Rice Launch Challenge.

In the future, Haast Autonomous plans to deploy a fleet of aircraft. The software will be designed to assist hospitals in requesting flights and tracking deliveries in real time.

“The drone is only part of the solution,” Chen also added in the release. “What matters is moving something from point A to point B in a way that fits into how hospitals already operate.”

Houston scientist wins prestigious Pew Scholar award for brain cancer research

standout scholar

Christina Tringides, an assistant professor of materials science and nanoengineering at Rice University, is one of 21 scientists to win a prestigious Pew Biomedical Scholar award.

She is the first faculty member from Rice to win the distinction, which provides $300,000 over four years for advances in biomedicine, according to the university. The awards are granted to researchers who are in the first few years at the assistant professor level.

In Tringides’ case, the funding will support her innovative new method of modeling glioblastoma, a common and extremely aggressive form of brain cancer. Thanks to producing its own blood supply, glioblastoma spreads quickly, weaving tendrils of blighted tissue throughout the brain. Because of this, surgery is difficult and conventional therapies ineffective.

Understanding the way glioblastoma spreads is crucial to the search for a cure. Tringides is using hydrogels that mimic the brain’s extracellular matrix. Using cultures and a microscopic labyrinth, her team can see how the cancer spreads, bonds with neurons and changes cell wall activity. Essentially, Tringides has devised an intelligence test for tumors in hopes of learning how to outsmart them.

“As cancer crawls through the maze, we can look at how it is interacting with the neurons more and more, and measure how electrical activity is changing as a result,” she said in a news release from Rice.

Examining how cancer cells grow can reveal which conditional changes slow them down. Finding ways to alter the structure of brain matter in a way that makes it inhospitable to the cancer could lead to therapies that would impede growth or even reverse it. Using her custom-made ersatz brain maze makes it easier to observe changes than it would be in a patient’s brain.

“Imaging synapses is time-intensive ⎯ it can involve large data files that are hard to visualize, but if we know that the only place where we might have a synapse is this tiny 1-by-4-by-10 micron channel, it makes it much faster and reliable to image them,” Tringides said.

Born in Ames, Iowa, Tringides received her doctorate in biophysics from Harvard before joining Rice in 2024 through a Cancer Prevention and Research Institute of Texas (CPRIT) recruitment award.

Her research was also one of the first four projects to receive research awards through the Rice Brain Institute and TMC Neuro Collaboration Seed Grant Program.