moving in

Rice University opens new facility to house energy transition research

The 250,000-square-foot building is the new home for four key research areas at Rice: advanced materials, quantum science and computing, urban research and innovation, and the energy transition. Photo courtesy of Rice

As the academic year officially kicks off, professors have started moving in and Rice University has opened its largest core campus research facility, The Ralph S. O’Connor Building for Engineering and Science.

The 250,000-square-foot building is the new home for four key research areas at Rice: advanced materials, quantum science and computing, urban research and innovation, and the energy transition. The university aims for the space to foster collaboration and innovation between the disciplines.

"To me it really speaks to where Rice wants to go as we grow our research endeavors on campus," Michael Wong, Chair of the Department of Chemical and Biomolecular Engineering, whose lab is located in the new facility, said in a video from Rice. "It has to be a mix of engineering and science to do great things. We don’t want to do good things, we want to do great things. And this building will allow us to do that."

At $152 million, the state-of-the-art facility features five floors of labs, classrooms and seminar rooms. Common spaces and a cafe encourage communication between departments, and the top level is home to a reception suite and outdoor terrace with views of the Houston skyline.

It replaces 1940s-era Abercrombie Engineering Laboratory on campus, which was demolished in 2021 to make way for the new facilities. The iconic sculpture "Energy" by Rice alumnus William McVey that was part of the original building was preserved with plans to incorporate it into the new space.

The new building will be dedicated to its namesake Ralph O'Connor on Sept. 14 in Rice's engineering quad at 3 p.m. O'Connor, a Johns Hopkins University grad, became a fan Rice when he moved to Houston to work in the energy industry in the 1950s.

The former president and CEO of the Highland Oil Company and founder of Ralph S. O’Connor & Associates left the university $57 million from his estate after he died in 2018. The gift was the largest donation from an estate in Rice's history and brought his donations to the university, including those to many buildings on campus and endowments and scholarships, to a total of $85 million.

“How fitting that this building will be named after Ralph O’Connor,” Rice President Reginald DesRoches said in a statement last summer. “He was a man who always looked to the future, and the future is what this new engineering and science building is all about. Discoveries made within those walls could transform the world. Anybody who knew Ralph O’Connor knows he would have loved that.”

The dedication event will be open to the public. It will feature remarks from DesRoches, as well as Rice Provost Amy Dittmar, Dean of the Wiess School of Natural Sciences Thomas Killian, Chair of the Rice Board of Trustees Robert Ladd and Dean of the George R. Brown School of Engineering Luay Nakhleh. A reception and tours of the new building will follow.

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This article originally ran on InnovationMap.

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A View From HETI

Greenhouse gases continue to rise, and the challenges they pose are not going away. Photo via Getty Images

For the past 40 years, climate policy has often felt like two steps forward, one step back. Regulations shift with politics, incentives get diluted, and long-term aspirations like net-zero by 2050 seem increasingly out of reach. Yet greenhouse gases continue to rise, and the challenges they pose are not going away.

This matters because the costs are real. Extreme weather is already straining U.S. power grids, damaging homes, and disrupting supply chains. Communities are spending more on recovery while businesses face rising risks to operations and assets. So, how can the U.S. prepare and respond?

The Baker Institute Center for Energy Studies (CES) points to two complementary strategies. First, invest in large-scale public adaptation to protect communities and infrastructure. Second, reframe carbon as a resource, not just a waste stream to be reduced.

Why Focusing on Emissions Alone Falls Short

Peter Hartley argues that decades of global efforts to curb emissions have done little to slow the rise of CO₂. International cooperation is difficult, the costs are felt immediately, and the technologies needed are often expensive. Emissions reduction has been the central policy tool for decades, and it has been neither sufficient nor effective.

One practical response is adaptation, which means preparing for climate impacts we can’t avoid. Some of these measures are private, taken by households or businesses to reduce their own risks, such as farmers shifting crop types, property owners installing fire-resistant materials, or families improving insulation. Others are public goods that require policy action. These include building stronger levees and flood defenses, reinforcing power grids, upgrading water systems, revising building codes, and planning for wildfire risks. Such efforts protect people today while reducing long-term costs, and they work regardless of the source of extreme weather. Adaptation also does not depend on global consensus; each country, state, or city can act in its own interest. Many of these measures even deliver benefits beyond weather resilience, such as stronger infrastructure and improved security against broader threats.

McKinsey research reinforces this logic. Without a rapid scale-up of climate adaptation, the U.S. will face serious socioeconomic risks. These include damage to infrastructure and property from storms, floods, and heat waves, as well as greater stress on vulnerable populations and disrupted supply chains.

Making Carbon Work for Us

While adaptation addresses immediate risks, Ken Medlock points to a longer-term opportunity: turning carbon into value.

Carbon can serve as a building block for advanced materials in construction, transportation, power transmission, and agriculture. Biochar to improve soils, carbon composites for stronger and lighter products, and next-generation fuels are all examples. As Ken points out, carbon-to-value strategies can extend into construction and infrastructure. Beyond creating new markets, carbon conversion could deliver lighter and more resilient materials, helping the U.S. build infrastructure that is stronger, longer-lasting, and better able to withstand climate stress.

A carbon-to-value economy can help the U.S. strengthen its manufacturing base and position itself as a global supplier of advanced materials.

These solutions are not yet economic at scale, but smart policies can change that. Expanding the 45Q tax credit to cover carbon use in materials, funding research at DOE labs and universities, and supporting early markets would help create the conditions for growth.

Conclusion

Instead of choosing between “doing nothing” and “net zero at any cost,” we need a third approach that invests in both climate resilience and carbon conversion.

Public adaptation strengthens and improves the infrastructure we rely on every day, including levees, power grids, water systems, and building standards that protect communities from climate shocks. Carbon-to-value strategies can complement these efforts by creating lighter, more resilient carbon-based infrastructure.

CES suggests this combination is a pragmatic way forward. As Peter emphasizes, adaptation works because it is in each nation’s self-interest. And as Ken reminds us, “The U.S. has a comparative advantage in carbon. Leveraging it to its fullest extent puts the U.S. in a position of strength now and well into the future.”

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Scott Nyquist is a senior advisor at McKinsey & Company and vice chairman, Houston Energy Transition Initiative of the Greater Houston Partnership. The views expressed herein are Nyquist's own and not those of McKinsey & Company or of the Greater Houston Partnership. This article originally appeared on LinkedIn.

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