The Energy Education Foundation will offer EnergyXP to middle schoolers this fall. Photo courtesy Energy Education Foundation.

In today’s ever-changing digital world, the way we teach kids about science is rapidly transforming. Energy education, specifically, is expanding and contributing to the STEM landscape significantly. Helping children understand where energy comes from, how we use it in our everyday lives and how it affects our planet is critical to sparking early interest in STEM learning and inspiring potential careers in the energy industry.

Thanks to new technology and the power of artificial intelligence, we are better equipped to explain these complex ideas in fun, interactive and easy-to-understand ways.

The Role of Educational Technology in Classrooms

Traditional teaching methods can struggle to connect scientific concepts to students’ everyday experiences. A 2023 study found that technology not only makes learning more engaging and enjoyable but also encourages students to invest more effort in their studies over time.

Tools like tablets, smartboards, interactive simulations and gamified learning apps allow students to visualize energy systems, conduct virtual experiments and explore dynamic models that demonstrate how energy flows through different systems.

For example, virtual labs allow students to simulate the installation of solar panels or observe how wind turbines convert kinetic energy into electricity, all without leaving the classroom. These digital tools transform abstract theories into concrete, hands-on experiences, making it easier for students to understand and retain core principles of energy science.

Gamified learning has also become increasingly popular in K–12 classrooms because it engages students by meeting them where they are through interactive, game-like experiences. By incorporating familiar motivators such as points, levels, rewards and challenges, it taps into the same engagement techniques students encounter in video games and apps outside the classroom.

In an era when competition for students’ attention is higher than ever, more educators are turning to gamification because it works; it transforms passive learning into an active, student-centered experience, helping learners stay focused and motivated.

When applied to energy education, gamification can be especially powerful. Educational games that task students with managing a virtual city, designing energy-efficient systems or balancing an energy budget help build valuable real-world skills like problem-solving and systems thinking. Most importantly, they keep students engaged and make learning about energy meaningful.

Equity and Access in Educational Technology

While technology and AI offer immense potential to transform energy education, it is crucial to address the digital divide that exists across different schools and communities. Not all students have equal access to the devices, software or reliable internet connectivity needed to benefit from these innovative learning tools.

Bridging this gap requires collaborative efforts through public-private partnerships, targeted grants and community-driven educational outreach programs. These initiatives play a vital role in ensuring that every student, regardless of socioeconomic background or geographic location, has the opportunity to engage with tech-driven energy education.

Organizations like the Energy Education Foundation are taking meaningful steps in this direction. This fall, the nonprofit is launching EnergyXP, an innovative, mobile STEM learning experience designed for middle school students. The program offers 16 interactive, hands-on, and digital activities aligned with the Next Generation Science Standards, and is provided free of charge to participating schools. Through EnergyXP, students explore diverse energy concepts while building curiosity, collaboration and critical thinking skills. The program links classroom learning to real-world applications, helping students see the role of energy in their daily lives and sparking interest in STEM careers.

Other promising initiatives such as community tech hubs, low connectivity learning platforms, school-device loan programs and subsidized broadband options also support increased access to digital education. In Harris County, the Commissioners Court recently voted unanimously to create the Harris County Broadband Task Force with the aim of expanding internet access and affordability and addressing the growing digital literacy demands in the region. Additionally, Compudopt, a partner of the Energy Education Foundation, is another valuable resource for the Houston-area community. Its programs work to eliminate barriers to computer access, build technical and digital literacy skills, offer no- or low-cost high-speed internet options and support the long-term success of youth and their communities.

By supporting programs and organizations that decrease the digital divide, we can ensure that all students have access to engaging, technology-driven energy education. Providing young learners with the tools to explore, innovate and connect with the energy systems that power their world is key to building a more diverse, inclusive energy workforce for the future.

AI is Transforming the Energy Landscape

Students who utilize technology and AI in the classroom will be better equipped for the energy jobs of the future. As the energy sector continues to evolve, AI is becoming an essential tool for addressing complex challenges from optimizing energy production and distribution to accelerating innovation and improving system reliability.

By exposing students to AI-driven learning experiences early on, we can help them build the skills needed to understand and contribute to emerging technologies such as smart grids, predictive maintenance, renewable energy forecasting and energy storage optimization. These technologies are already shaping the future of how we produce, store and consume energy.

Through hands-on engagement with AI-powered simulations, data analysis tools and problem-solving scenarios, students are learning how to lead in a tech-driven, sustainable energy future.

As the world transitions toward more technology-driven energy systems, the importance of early, engaging and equitable energy education has never been more critical. Through the integration of technology, gamified learning and AI in the classroom, we can make science more accessible and empower students with the knowledge and skills they need to shape the future. Programs like EnergyXP demonstrate how innovation in education can bridge opportunity gaps, spark curiosity and lay the groundwork for a more inclusive and forward-thinking energy workforce. The investments we make in today’s classrooms will determine the energy leaders of tomorrow.

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Kristen Barley is the executive director of the Energy Education Foundation, a nonprofit dedicated to inspiring the next generation of energy leaders by providing comprehensive, engaging education that spans the entire energy spectrum.


The Energy Education Foundation will offer EnergyXP to middle schoolers this fall. Photo courtesy Energy Education Foundation.

Houston nonprofit launches new energy education platform

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The Energy Education Foundation, a Houston-based nonprofit, will roll out a new app-based education platform just in time for back-to-school season.

Starting this fall, EEF will offer its new EnergyXP platform to students in middle schools and through community and education events across the country. The STEM-focused platform aims to boost exposure to oil and gas concepts and career paths, according to a release from the non-profit.

EnergyXP represents a fully redesigned, interactive version of the foundation's former Mobile Energy Learning Units, which now feature upgraded technology, enhanced curricula and app integration.

“EnergyXP marks the most recent development in our educational initiatives. We aim to inspire students nationwide to explore real-world energy concepts and careers,” Kristen Barley, executive director of the Energy Education Foundation, said in the release. “Our collaborative approach involves strong partnerships with educators, industry experts and local organizations to ensure that our programs are responsive to community needs. By prioritizing equitable access to quality STEM education, we can help build a more inclusive, future-ready energy workforce.”

The new platform offers 16 hands-on and digital STEM activities that introduce a variety of energy concepts through real-world applications while "showcasing the relevance of energy in everyday life," according to the release.

EEF will host two virtual sneak peeks of the platform on Aug. 7 and Aug. 8. Register here.

Texas has the largest installed wind capacity in the United States. Photo by Sam LaRussa on Unsplash

Expert: Debunking the myth that Texas doesn't care about renewable energy

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When most people think about Texas, wind turbines and solar panels may not be the first images that come to mind. But in reality, the state now leads the nation in both wind-powered electricity generation and utility-scale solar capacity. In 2024 alone, Texas added approximately 9,700 megawatts of solar and 4,374 megawatts of battery storage, outpacing all other energy sources in new generation capacity that year. So what’s driving Texas’ rapid rise as the renewable energy capital of the United States?

Leader in wind energy

Texas has been a national leader in wind energy for more than a decade, thanks to its vast open landscapes and consistent wind conditions, particularly in regions like West Texas and the Panhandle. These ideal geographic features have enabled the development of massive wind farms, giving Texas the largest installed wind capacity in the United States. Wind energy also plays a strategic role in balancing the grid and complements solar energy well, as it often peaks at night when solar output drops.

Battery storage growth

Increasing battery storage capacity is unlocking more potential from solar and wind. When intermittent energy sources like wind and solar go offline, batteries release stored electricity and provide stability to the Electric Reliability Council of Texas system. Excluding California, Texas has more battery storage than the rest of the United States combined, accounting for over 32% of all the capacity installed nationwide.

Solar electricity generation and utility-scale batteries within ERCOT power grid set records in summer 2024. Between June 1 and August 31, solar contributed nearly 25% of total power demand during mid-day hours. In the evening, as demand stayed high but solar output declined, battery discharges successfully filled the gap. Battery storage solutions are now a core element of ERCOT’s future capacity and demand planning.

Interest in creating a hydrogen economy

Texas is well positioned to become a national hub in the hydrogen economy. The state has everything needed to lead in this emerging space with low-cost natural gas, abundant and growing low carbon electricity, geology well suited for hydrogen and carbon storage, mature hydrogen demand centers, existing hydrogen pipelines, established port infrastructure and more. The state already has an existing hydrogen market with two-thirds of the country’s hydrogen transport infrastructure.

In 2023, the Texas Legislature created the Texas Hydrogen Production Policy Council, which found that:

  • Hydrogen could represent a grid-scale energy storage solution that can help support the increased development of renewable electricity from wind and solar. Renewable electricity that is converted to hydrogen can improve overall grid reliability, resilience and dispatchability.
  • The development of the hydrogen industry, along with its supporting infrastructure and its downstream markets within Texas, could attract billions of dollars of investment. This development may create hundreds of thousands of jobs - especially with younger generations who are passionate about climate science - and greatly boost the Texas economy.
  • Hydrogen supports the current energy economy in Texas as a critical component to both conventional refining and the growing production of new biofuels (such as renewable diesel and sustainable aviation fuel) within the state.

Legislative action and pressure to reduce carbon emissions

Texas has also seen key legislative actions and policies that have supported the growth of renewable energy in Texas. During the most recent legislative session, lawmakers decided that The Texas Energy Fund, a low-interest loan program aimed at encouraging companies to build more power infrastructure, will receive an additional $5 billion on top of the $5 billion lawmakers approved in 2023. Of that amount, $1.8 billion is earmarked to strengthen existing backup generators, which must be powered by a combination of solar, battery storage and natural gas. These funds signal growing institutional support for a diversified and more resilient energy grid.

Furthermore, there is growing pressure from investors, regulators and consumers to reduce carbon emissions, and as a result, private equity firms in the oil and gas sector are diversifying their portfolios to include wind, solar, battery storage and carbon capture projects. In 2022, private equity investment in renewable energy and clean technology surged to a record-high $26 billion.

The future of the renewable energy workforce

With renewable energy jobs projected to grow to 38 million globally by 2030, the sector is poised to be one of the most promising career landscapes of the future. Given that young people today are increasingly environmentally conscious, there is a powerful opportunity to engage students early and help them see how their values align with meaningful, purpose-driven careers in clean energy. Organizations like the Energy Education Foundation play a vital role in this effort by providing accessible, high-quality resources that bridge the gap between energy literacy and real-world impact. The nonprofit employs comprehensive, science-based educational initiatives to help students and educators explore complex energy topics through clear explanations and engaging learning tools, laying a strong foundation for informed, future-ready learners.

STEM and AI education, which are reshaping how young people think, build, and solve problems, provide a natural gateway into the renewable energy field. From robotics and coding to climate modeling and sustainable engineering, these learning experiences equip students with the critical skills and mindsets needed to thrive in a rapidly evolving energy economy. By investing in engaging, future-focused learning environments now and through leveraging trusted educational partners, like the Energy Education Foundation, we can help ensure that the next generation of learners are not just prepared to enter the clean energy workforce but are empowered to lead it.

With its rapidly growing wind, solar, battery and hydrogen sectors, Texas is redefining its energy identity. To sustain this momentum, the state must continue aligning education, policy, and innovation—not only to meet the energy demands of tomorrow, but to inspire and equip the next generation to lead the way toward a more sustainable, resilient and inclusive energy future.

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Kristen Barley is the executive director of the Energy Education Foundation, a nonprofit dedicated to inspiring the next generation of energy leaders by providing comprehensive, engaging education that spans the entire energy spectrum.


The ExxonMobil Foundation has invested more than $17 million in the Open Doors Project. Photo via Khan Academy

ExxonMobil invests $17M with nonprofit to fund more STEM instruction, resources

future workforce

The ExxonMobil Foundation announced they are collaborating with the Khan Academy on the Open Doors Project, which aims to bring free math and science courses and teacher guides to Texas in a larger goal to inspire new STEM leaders.

The Open Doors Project will be the largest single curriculum project for Khan Academy, and will reach schools in Houston.

“Our main goal with this program is to meet the needs of Texas teachers and students,” Sal Khan, founder and CEO of Khan Academy, says in a news release. “We’re grateful for the ExxonMobil Foundation’s vision and support for developing courses and teacher guides that will deliver world-class math and science resources to students and teachers when and where they need it.”

The ExxonMobil Foundation is providing support for the creation of Texas Essential Knowledge and Skills (TEKS)-aligned math and science courses for 3-12 grades through the Open Doors Project. These courses will make it easier to align with the non-profit Khan Academy’s vision of providing free “world-class education” in their classrooms.

The program will include structured lesson plans and instructional guidance that are adaptable for students' various learning styles to help reach “mastery” level of multiple STEM topics. The first round of courses will begin on June 30 with additional courses to come in 2025 and 2026.

The ExxonMobil Foundation has invested more than $17 million in the Open Doors Project, and offers additional support through the Khan Academy Districts to primary and secondary schools in areas where ExxonMobil operates, which includes Houston, Western Texas and the Gulf Coast. Khan Academy is available in large institutions like Kipp and Houston Independent School District, which uses the academy as part of its college readiness program.

“We’re committed to addressing the gap in STEM education,” Alvin Abraham, president of the ExxonMobil Foundation, says in a news release. “With Khan Academy’s help, we can empower teachers to work with students to master the STEM curriculum and take their knowledge into careers that can change the world.”

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New report predicts major data center boom in Texas by 2028

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Data centers are proving to be a massive economic force in Texas.

For instance, a new report from clean energy company Bloom Energy predicts Texas will see a 142 percent increase in its market share for data centers from 2025 to 2028. That would be the highest increase of any state.

Bloom Energy expects Texas to exceed 40 gigawatts of data-center capacity by 2028, representing a nearly 30 percent share of the U.S. market. A typical AI data center consumes 1 to 2 gigawatts of energy.

“Data center and AI factory developers can’t afford delays,” Natalie Sunderland, Bloom Energy’s chief marketing officer, said in the report. “Our analysis and survey results show that they’re moving into power‑advantaged regions where capacity can be secured faster — and increasingly designing campuses to operate independently of the grid.”

“The surge in AI demand creates a clear opportunity for states that can adapt to support large-scale AI deployments at speed,” Sunderland adds.

Further evidence of the data center explosion in Texas comes from ConstructConnect, a provider of data and software for contractors and manufacturers. ConstructConnect reported that in the 12-month span through November 2025, data-center construction starts in Texas accounted for $11 billion in spending. At $12.5 billion, only Louisiana surpassed the Texas total.

Capital expenses for U.S. data centers were expected to surpass $425 billion last year, according to ratings agency S&P Global.

ConstructConnect also reports that Texas is among five states collectively grabbing 80 percent of potential data center construction starts. Currently, Texas hosts around 400 data centers, with close to 60 of them in the Houston market.

A large pool of data-center construction spending in Texas is flowing from Google, which announced in November that it would earmark $40 billion for new AI data centers in the state.

“Texas leads in AI and tech innovation,” Gov. Greg Abbott proclaimed when the Google investment was unveiled.

Other studies and reports lay out just how much data centers are influencing economic growth in the Lone Star State:

  • A study by Texas Royalty Brokers indicates Texas leads the U.S. with 17 clusters of AI data centers. The study measured the density of AI data centers by counting the number of graphics processing units (GPUs) installed in those clusters. GPUs are specialized chips built to run AI models and perform complex calculations.
  • Citing data from construction consulting company FMI, The Wall Street Journal reported that spending on construction of data centers is expected to rise 23 percent in 2026 compared with last year. Much of that construction spending will happen in Texas. In the 12 months through November 2025, the average data center cost $597 million, according to ConstructConnect.
  • Data published in 2025 by commercial real estate services company Cushman & Wakefield shows three Texas markets — Austin, Dallas and San Antonio — boast the lowest construction costs for data centers among the 19 U.S. markets that were analyzed. The mid-range of costs in that trio of markets is roughly $10.65 million per megawatt. Houston isn’t included in the data.

Although Houston isn’t cited in the Cushman & Wakefield data, it nonetheless is playing a major role in the data-center boom. Houston-area energy giants Chevron and ExxonMobil are chasing opportunities to supply natural gas as a power source for data centers, for example.

“As Houston rapidly evolves into a hub for AI, cloud computing, and data infrastructure, the city is experiencing a surge in data-center investments driven by its unique position at the intersection of energy, technology, and innovation,” says the Greater Houston Partnership.

Houston-based ENGIE to add new wind and solar projects to Texas grid

coming soon

Houston-based ENGIE North America Inc. has expanded its partnership with Los Angeles-based Ares Infrastructure Opportunities to add 730 megawatts of renewable energy projects to the ERCOT grid.

The new projects will include one wind and two solar projects in Texas.

“The continued growth of our relationship with Ares reflects the strength of ENGIE’s portfolio of assets and our track record of delivering, operating and financing growth in the U.S. despite challenging circumstances,” Dave Carroll, CEO and Chief Renewables Officer of ENGIE North America, said in a news release. “The addition of another 730 MW of generation to our existing relationship reflects the commitment both ENGIE and Ares have to meeting growing demand for power in the U.S. and our willingness to invest in meeting those needs.”

ENGIE has more than 11 gigawatts of renewable energy projects in operation or under construction in the U.S. and Canada, and 52.7 gigawatts worldwide. The company is targeting 95 gigawatts by 2030.

ENGIE launched three new community solar farms in Illinois since December, including the 2.5-megawatt Harmony community solar farm in Lena and the Knox 2A and Knox 2B projects in Galesburg.

The company's 600-megawatt Swenson Ranch Solar project near Abilene, Texas, is expected to go online in 2027 and will provide power for Meta, the parent company of social media platform Facebook. Late last year, ENGIE also signed a nine-year renewable energy supply agreement with AstraZeneca to support the pharmaceutical company’s manufacturing operations from its 114-megawatt Tyson Nick Solar Project in Lamar County, Texas.

Houston geothermal company raises $97M Series B

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Houston-based geothermal energy startup Sage Geosystems has closed its Series B fundraising round and plans to use the money to launch its first commercial next-generation geothermal power generation facility.

Ormat Technologies and Carbon Direct Capital co-led the $97 million round, according to a press release from Sage. Existing investors Exa, Nabors, alfa8, Arch Meredith, Abilene Partners, Cubit Capital and Ignis H2 Energy also participated, as well as new investors SiteGround Capital and The UC Berkeley Foundation’s Climate Solutions Fund.

The new geothermal power generation facility will be located at one of Ormat Technologies' existing power plants. The Nevada-based company has geothermal power projects in the U.S. and numerous other countries around the world. The facility will use Sage’s proprietary pressure geothermal technology, which extracts geothermal heat energy from hot dry rock, an abundant geothermal resource.

“Pressure geothermal is designed to be commercial, scalable and deployable almost anywhere,” Cindy Taff, CEO of Sage Geosystems, said in the news release. “This Series B allows us to prove that at commercial scale, reflecting strong conviction from partners who understand both the urgency of energy demand and the criticality of firm power.”

Sage reports that partnering with the Ormat facility will allow it to market and scale up its pressure geothermal technology at a faster rate.

“This investment builds on the strong foundation we’ve established through our commercial agreement and reinforces Ormat’s commitment to accelerating geothermal development,” Doron Blachar, CEO of Ormat Technologies, added in the release. “Sage’s technical expertise and innovative approach are well aligned with Ormat’s strategy to move faster from concept to commercialization. We’re pleased to take this natural next step in a partnership we believe strongly in.”

In 2024, Sage agreed to deliver up to 150 megawatts of new geothermal baseload power to Meta, the parent company of Facebook. At the time, the companies reported that the project's first phase would aim to be operating in 2027.

The company also raised a $17 million Series A, led by Chesapeake Energy Corp., in 2024.