Tucson Conference Funds Seven Teams for ‘Game-Changing’ Quantum Research
The Simons Foundation, the Brinson Foundation, the Research Corporation for Science Advancement (RCSA), and billionaire Kevin Wells have announced the first round of recipients for the first Scialog: Quantum Matter and Information (QMI) initiative. This is an ambitious attempt to close the gap between various sectors of the quantum science community. 19 early-career academics from seven interdisciplinary teams have been chosen to receive financing for high-risk, high-reward studies that have the potential to drastically alter our comprehension of the quantum universe.
The announcement comes after 57 fellows from a variety of fields, including physics, chemistry, materials science, computer science, and engineering, attended an intense four-day conference in Tucson, Arizona, from October 16–19, 2025. Over $1.1 million has been funded for the first year of the three-year effort, with each researcher on the winning teams receiving $60,000 in direct costs.
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A Strategic Vision on Quantum Exploration
RCSA President & CEO Eric Isaacs said this Scialog could yield game-changing ideas due to quantum research’s revolutionary nature. QMI’s launch coincided with the UN’s proclamation of 2025 the International Year of Quantum Science and Technology, a turning moment for the field.
Isaacs compared recent Nobel Prizes to the work of the Fellows. He emphasized how work revealing macroscopic quantum phenomena was recently recognized with the Nobel Prize in Physics, highlighting that fundamental research in this field is now an essential tool for computing and solving global concerns rather than merely a lab curiosity. Additionally, he cited the idea of creative destruction, where new technology propels prolonged growth and radically transforms society and the economy, to tie the endeavor to the Nobel Prize in Economics.
Moving away from accidental discovery is the main objective of Scialog, the acronym of “science + dialog.” To promote a predictable, methodical approach to experimental design, the program brings together experts from a variety of fields, including synthesis and systems.
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Keynote Perspectives: From Fractional Charges to Gravitational Waves
Two keynote speakers at the conference set the tone for the interdisciplinary cooperation. with his discussion titled “The Angst and Ennui of Measuring Zero,” Rana Adhikari from the California Institute of Technology talked about the difficulties involved with precise measurement. One of the main players in the LIGO project, Adhikari, described the difficulties in lowering systematic and random noise in gravitational wave detectors. In addition to pointing out the unexpectedly high frequency of binary black hole detections in comparison to neutron star mergers, he suggested future developments utilizing frequency-dependent squeezing and deep learning for feedback control.
“Fractional Charges and Where to Find Them” was the topic of Columbia University’s Xiaoyang Zhu’s second keynote address. Time-domain pump-probe spectroscopy, according to Zhu, is a “treasure map” for locating quantum phases. He emphasized the discovery of these phenomena in twisted bilayer graphene, which may display such charges even in the absence of magnetic fields. His study focuses on the creation of fractional charges by high magnetic fields, such as the fractional quantum Hall effect.
Collaborative Innovation Awards
The 2025 rewards went to teams that pitched creative, interdisciplinary projects on the last morning of the conference. The members of the winning projects are as follows:
- Quantum Differential Spectroscopy: Mapping Entanglement in Solids: Under the direction of Yao Wang (Emory University), Fang Liu (Stanford University), and Alex Frañó (University of California, San Diego).
- Xueyue (Sherry) Zhang (Columbia University) and Timothy Su (University of California, Riverside) collaborated on Spin-Photon Interfaces in Molecular Silicon Clusters.
- Quantum Sensing from Within: Optical Defects as Internal Correlation Probes: Featuring Luis Jáuregui (University of California, Irvine), Alex Frañó (UC San Diego), Ceren Dag (Indiana University Bloomington), and Elizabeth Goldschmidt (University of Illinois at Urbana-Champaign).
- Youn Jue (Eunice) Bae of Cornell University, Serena Eley of the University of Washington, and Kazuki Ikeda of the University of Massachusetts Boston studied quantum entanglement of skyrmion-antiskyrmion pairs.
- Fang Liu (Stanford University), Sandhya Susarla (Arizona State University), and Ruijuan Xu (North Carolina State University) developed terahertz quantum interconnects via reconfigurable ferron networks.
- Yonglong Xie (Rice University) and Yao Wang (Emory University) developed a research that uses scanning charge-noise spectroscopy to visualize the entanglement of fractional excitations.
- Hendrik Utzat (University of California, Berkeley), Lilia Xie (Princeton University), and Fabio Anza (University of Maryland, Baltimore County) are the leaders of Loss of Photonic Entanglement: A Novel Probe of Classical and Quantum Spin Dynamics in Materials.
Considering the Future
Another important issue was the value of funder collaboration. Jamie Bender of The Brinson Foundation pointed out that developments in quantum research will probably influence and improve a wide range of other scientific fields.
The second Scialog: Quantum Matter and Information meeting is set for October 15–18, 2026, for anyone interested in joining this expanding network. Applications from early-career researchers who are interested in participating must be submitted by April 1, 2026.
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