Beyond the Comfort Zone: Reflections from Los Alamos

I wanted to write a few words about a recent experience that brought me to Los Alamos National Laboratory as a summer student.

For two weeks, I was surrounded by graduate students, staff scientists, and professors from universities across the United States, all sharing a strong curiosity for ab initio methods in computational condensed matter physics. Being selected for such a small cohort made the experience feel even more valuable: the discussions were intense, the level was high, and the atmosphere pushed everyone to engage seriously with the material.

Summer school cohort at Los Alamos National Laboratory

Summer school cohort at Los Alamos National Laboratory.

The school began with an introduction to density functional theory in the Kohn-Sham formulation, followed by more advanced approaches that go beyond ground-state calculations. We then revisited concepts from second quantization and focused on the role of Green’s functions in many-body physics. In the following days, the lecturers introduced us to the Bethe-Salpeter equation and its role in describing excitonic effects in optical spectra, state-of-the-art molecular dynamics methods, and the growing use of machine learning and AI in computational materials workflows.

What I appreciated most was not only the technical content, but the perspective the school gave me. Many of these methods are still far from being tools I can use confidently, and some aspects remain obscure to me. But I think this was partly the point: the school was not only about mastering every detail in two weeks, but about understanding what methods exist, what they can do, where they fail, and how they might be used to ask better research questions.

In that sense, the experience was useful beyond the lectures themselves. It made me think more critically about the tools I currently use and about the directions in which my own research could grow. Some of the methods discussed during the school are unfamiliar and technically demanding, but they could add real value to the systems we study in our group. The school gave me a stronger motivation to explore them, even if that means moving outside my current comfort zone.

Equally important were the conversations with other students. Hearing about the problems they are working on, the methods they are developing, and the way they approach research was genuinely motivating. Those informal discussions, together with the time spent in the landscapes of New Mexico, made the experience feel less like a sequence of lectures and more like a reminder of why research is exciting in the first place.

I left Los Alamos with more questions than answers, but also with a clearer sense of direction. For me, that was probably the most valuable outcome of the school.

Giuseppe Giorgio

Los Alamos National Laboratory main gate at sunset
Los Alamos National Laboratory main gate at sunset.

Welcome to Rishi!

Rishi Madhuvairy, Materials Science and Nanoengineering student at Rice University
Rishi Madhuvairy, a Materials Science and Nanoengineering student at Rice University, has been selected for the 2026 RAMI Undergraduate Research Fellowship.

Rishi Madhuvairy, an undergraduate student in Materials Science and Nanoengineering (MSNE) at Rice University, has been selected for the 2026 RAMI Undergraduate Research Fellowship, a highly selective summer research program hosted by the Rice Advanced Materials Institute.

As a member of Alessandro Alabastri’s lab, and under the supervision of Giuseppe Giorgio, Rishi will contribute to a research project focused on integrating graphene metamaterial absorbers into metal-insulator-graphene rectenna stacks for enhanced absorption and conversion of ambient RF (GHz) radiation.

A Highly Selective Opportunity

Rishi was chosen from a large pool of applicants as part of a very small RAMI cohort. Each summer, the program supports only about 10 undergraduate fellows, making it a particularly selective opportunity for students pursuing advanced materials research.

His selection reflects not only the strength of his academic record, but also the relevance of his proposed research, the support of his faculty mentor, and his potential to contribute meaningfully to a collaborative research environment.

“You were selected in recognition of your excellent academic record, strong letter of support from your mentoring faculty, and your keen interest in advanced materials research.”

— RAMI Fellowship award letter

Research at the Intersection of Materials, Nanotechnology, and Energy Conversion

Rishi’s project sits at the intersection of nanomaterials, electromagnetics, and device engineering. By studying graphene-enabled absorber and rectenna architectures, his work aims to advance new strategies for harvesting and converting low-power ambient RF radiation through carefully engineered material platforms.

This research direction aligns strongly with RAMI’s broader mission of supporting innovative materials-focused projects and giving undergraduate students the opportunity to gain hands-on experience in cutting-edge research under close faculty mentorship.

A Summer of Advanced Materials Research

As a 2026 RAMI Undergraduate Research Fellow, Rishi will take part in a 10-week summer research experience at Rice University, contributing to ongoing work in advanced materials while developing technical skills, working closely with mentors, and engaging with the wider research community.

Congratulations to Rishi on this outstanding and well-deserved achievement.

🎉 Congratulations to our Graduates, Will Schmid and Qian Ye!

The lab is proud to celebrate the commencement of Will Schmid and Qian Ye!

Will graduated in Electrical and Computer Engineering, and Qian graduated in Physics. Their hard work, dedication, and research contributions have been invaluable to our lab. We wish them both the very best in their future endeavors!

A graduate, Will Schmid, shaking hands with a professor during commencement.
Will Schmid (ECE)
A graduate, Qian Ye, on stage being hooded by a professor during commencement.
Qian Ye (Physics)
A graduate, Qian Ye, on stage being hooded by a professor during commencement.
Congratulations to Qian and Will on their commencement! A proud moment with Alessandro as they embark on their next journey.

Why You Should Never Arm Wrestle a Theorist

Our professor Alessandro (a theorist, of course) went head-to-head with one of our intrepid experimental grad students in an epic arm-wrestling battle.

The stakes were high – bragging rights, a semester’s supply of coffee, and perhaps the very fabric of scientific understanding!

And the results? Well, this happened…

    Professor and student arm wrestling in a lab
    
   

And at last, the experimentalist was finally defeated, though, in his defense, he is left-handed.

What do you think was the force multiplier in this victory: rigorous calculation or sheer professorial will? Let us know in the comments! 👇

Class of 2025

Celebrating Will & Qian

Congratulations to Will on his graduation.

Will Graduation 1
Will Graduation 2


Best wishes to Qian as he begins his next chapter.

Qian Graduation 1
Qian Graduation 2

Wishing you both all the best in your future endeavors.

Rice team named as a winner of the 2025 RELX Environmental Challenge

The Rice STREED team at Greentown Labs
The Rice STREED team—(left to right)—Alessandro Alabastri, William Schmid, and Sina Nazifi.

A Rice University research team led by Alessandro Alabastri, assistant professor of electrical and computer engineering at Rice University’s George R. Brown School of Engineering and Computing, has been named a second-place winner of the 2025 RELX Environmental Challenge.

The team, including graduating doctoral student William Schmid and visiting researcher Sina Nazifi, received $25,000 to further the commercial development of their solar-powered, membrane-less desalination technology.

Addressing Global Water Scarcity

This emerging technology competition is organized by RELX, a multinational provider of information-based analytics and a signatory of the UN Global Compact. Their goal is to advance sustainable, practical solutions for global issues such as water scarcity, sanitation, and health, as outlined in the United Nation’s 2030 Agenda for Sustainable Development.

Desalination – the process of turning salt water into fresh water — will become increasingly important in the coming decades as climate change and population growth strain limited fresh water sources.

Meet STREED: A Decentralized Solution

The Rice team’s winning invention, Solar Thermal Resonant Energy Exchange Desalination (STREED), is a fully decentralized system designed for communities facing severe water shortages, especially rural, remote, or low-resource areas.

STREED offers a robust alternative to traditional desalination methods, such as reverse osmosis, which can struggle with highly saline or contaminated water and produce large volumes of waste brine. While many emerging solar-driven solutions rely on fragile, expensive membranes, STREED avoids these limitations by using a membrane-free, solar thermal process that recycles heat within the system.

“Large-scale desalination plants require significant energy and infrastructure. Resources that many communities simply don’t have. Our goal was to create a low-cost, decentralized technology that can purify even high-salinity and contaminated water sources with little maintenance.”

— Alessandro Alabastri

How It Works

Built on more than a decade of research through Rice’s NSF Nanosystems Engineering Research Center for Nanotechnology-Enabled Water Treatment (now part of the Rice WaTER Institute), STREED uses a resonant energy-transfer method. This allows heat to oscillate efficiently between heated saline water and air carrying water vapor.

By tuning the system to the optimal flow rates, the device recycles thermal energy to produce fresh water day and night, leaving behind solid salt that can be repurposed.

From Research to Real-World Impact

The team presented STREED at Pollutec, Europe’s largest environmental sustainability trade show, gaining visibility and opportunities to connect with industry partners. In addition to the cash award, the team received one year of free access to ScienceDirect, RELX’s scientific research database.

“It is a great honor to be chosen as a winner of the RELX Environmental Challenge. This prize validates our team’s decade-long commitment to sustainability solutions and our dedication to develop a compact, modular, low-maintenance desalination technology.”

— William Schmid

The STREED team aims to form a startup and recently moved to Greentown Labs, the world’s largest climate tech and energy incubator, to advance the commercial development of its technology.

🎉 Congratulations to Will Schmid, our new Chevron Fellow! 🎉

We are incredibly proud to announce that our senior PhD student, Will Schmid, has been awarded the prestigious 2025-26 Chevron Energy Graduate Fellowship!

⚡ About the Fellowship: This competitive award stems from a partnership between the Rice Sustainability Institute and Chevron, designed to nurture future leaders in the energy sector. The program supports graduate students whose research will help drive the transition to affordable, reliable, and sustainable energy.

Will is one of only nine students selected from across the School of Engineering and Computing, a testament to his outstanding dedication and innovative research.

The entire lab is thrilled to see your hard work recognized. Congrats, Will! 👏

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The official link from Rice University:
https://engineering.rice.edu/inside-rice-engineering?utm_medium=email&_hsmi=384947006&utm_content=384947006&utm_source=hs_email

Congrats Qian and Will for two great papers published one day apart

🔥 A big week for A-Lab! 🔥
We’re proud to share two new publications that highlight the broad scope of our work at the intersection of light, heat, and matter, spanning from ultrafast nanoscopic dynamics to macroscale energy systems.

🔬 At the nanoscale, our study in J. Phys. Chem. C uncovers a counterintuitive phenomenon: electron–phonon temperature inversion in nanostructures under pulsed photoexcitation. These insights are fundamental for controlling energy flows at the femtosecond timescale and optimizing hot-carrier-based technologies.
📄 Link to JPCC paper: https://lnkd.in/dHr_KNwg

🌞 At the macroscale, our Nature Water article introduces STREED — a membrane-free solar thermal desalination system powered by resonant energy transfer (RET). This off-grid solution is dynamically tunable and capable of delivering fresh water under intermittent illumination, enabling decentralized water treatment in resource-limited settings.
📄 Link to Nature Water paper: https://rdcu.be/elZeL

Together, these two papers showcase how we explore photothermal phenomena from fundamental phenomena to real-world impact.
Congrats to all our amazing collaborators!

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