Jainendra Jain named 2025 Wolf Prize laureate in physics
Jainendra K. Jain, Evan Pugh University Professor and Erwin W. Müller Professor of Physics and holder of the Eberly Family Chair in the Penn State Eberly College of Science, has been awarded, along with two others, the 2025 Wolf Prize in Physics for “groundbreaking contributions to quantum matter and its topological potential” that revolutionized “our understanding of two-dimensional electron systems in strong magnetic fields.”
‘Nanodot’ control could fine-tune light for sharper displays, quantum computing
By Jamie Oberdick and Ashley WennersHerron
Newly achieved precise control over light emitted from incredibly tiny sources, a few nanometers in size, embedded in two-dimensional (2D) materials could lead to remarkably high-resolution monitors and advances in ultra-fast quantum computing, according to an international team led by researchers at Penn State and Université Paris-Saclay.
Novel ‘living’ biomaterial aims to advance regenerative medicine
By Sarah Small
A biomaterial that can mimic certain behaviors within biological tissues could advance regenerative medicine, disease modeling, soft robotics and more, according to researchers at Penn State.
Material’s ‘incipient’ property could jumpstart fast, low-power electronics
By Jamie Oberdick
Scientists at Penn State have harnessed a unique property called incipient ferroelectricity to create a new type of computer memory that could revolutionize how our devices work, such as using much less energy and being able to work in extreme environments like outer space.
The researchers noted that the societal benefits of this research could be significant. Traditional AI systems, especially those handling image recognition, consume significant energy. The ferroelectric transistors’ low power requirements present a sustainable alternative.
Ilya Kovalenko
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Magnetic semiconductor preserves 2D quantum properties in 3D material
By Ashley WennersHerron
There is a big problem with quantum technology — it’s tiny. The distinctive properties that exist at the subatomic scale usually disappear at macroscopic scales, making it difficult to harness their superior sensing and communication capabilities for real-world applications, like optical systems and advanced computing. Now, however, an international team led by physicists at Penn State and Columbia University has developed a novel approach to maintain special quantum characteristics, even in three-dimensional (3D) materials.
