Nobel Prize in Physics 2026: Condensed Matter and Particle Physics in Focus
As the 2026 Nobel Prize in Physics approaches, analysts and citation data point to condensed matter physics as the most likely field, with organic LEDs, multiferroics, and the quantum anomalous Hall effect among the leading contenders. Particle and nuclear physics may also be due, but large collaborations complicate the three-person award limit.
Condensed matter physics is emerging as the most likely field for the 2026 Nobel Prize in Physics, according to an analysis of historical award patterns and citation data. The prediction, published by Physics World, suggests that after several years of prizes in quantum optics, atomic physics, and artificial intelligence, the committee may turn to breakthroughs in materials science and particle physics.
The assessment draws on an infographic tracking Nobel Prizes by subfield over decades. Its authors argue there is a regular pattern of gaps between awards in specific areas, and that both condensed matter and particle and nuclear physics are now due. The analytics company Clarivate has released its Citation Laureates 2026 in physics, and all three predictions are in condensed matter physics. Clarivate, and its predecessor Thomson Reuters, has a strong record of identifying future Nobel winners based on the citation impact of published research.
The first Clarivate prediction is a prize for Chihaya Adachi, Stephen Forrest, and Mark Thompson for work leading to ultrahigh-efficiency organic light-emitting diodes. The second is for Nicola Spaldin for her theoretical work on room-temperature magnetoelectric multiferroics, which Clarivate says are enabling new energy-efficient device paradigms. The third is for Qikun Xue for the experimental observation of the quantum anomalous Hall effect. All three share a relatively immediate connection to new technologies, a factor that often appeals to the Nobel committee.
Other prestigious awards also provide clues. The 2026 Kavli Prize in Nanoscience went to Eva Andrei, Pablo Jarillo-Herrero, and Allan MacDonald for pioneering work on twistronics, a field that involves rotating two sheets of 2D material such as graphene to create moiré superlattices with properties including superconductivity. The applied physicist Federico Capasso is another strong contender, recognised for semiconductor technologies including the quantum cascade laser and for seminal work on optical metamaterials. A prize for metamaterials could be shared with John Pendry, a 2024 Kavli nanoscience laureate who developed a mathematical framework for designing optical metamaterials. Possible partners include David Smith, a pioneer in microwave-frequency metamaterials, and Andrea Alù, a prolific researcher in photonic metamaterials. Other names in the field include Ulf Leonhardt, Nader Engheta, George Eleftheriades, and Vladimir Shalaev.
Particle and nuclear physics present a more complicated picture. One potential breakthrough is the trapping and detailed study of cold antihydrogen atoms by CERN’s ATHENA and ALPHA collaborations. Jeffrey Hangst, a Denmark-based American physicist and founder of both collaborations, is seen as a likely laureate. Precise comparisons of antihydrogen and hydrogen could reveal why the universe appears to contain far more matter than antimatter. However, these experiments have yet to find significant deviations from the Standard Model, which may preclude a prize. There is also debate over whether the work belongs to atomic and molecular physics rather than particle and nuclear physics.
Another candidate is the creation of the quark–gluon plasma, a state of matter that occurs briefly when large nuclei such as lead or gold are collided at high energies, producing a soup of quarks and gluons thought to resemble the early universe. But because the experimental work was done by large collaborations at CERN and Brookhaven National Laboratory, selecting just three individuals would be difficult. This has led some to call for lifting the three-person limit on Nobel winners.
Finally, an intriguing possibility comes from Clarivate’s 2025 Citation Laureates, which proposed Ingrid Daubechies, Stéphane Mallat, and Yves Meyer for advancing wavelet theory, a mathematical revolution with practical applications in physics and beyond. While the Nobel Prize in Physics typically favours experimental breakthroughs, the growing role of advanced mathematics in physical discovery could make this a dark-horse contender.
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