Physics

Harnessing and controlling light is essential for the advancement of technology in various fields such as energy harvesting, computation, communications, and biomedical sensing. However, the complex behavior of light poses challenges for its efficient control. In a recent study published in Nature Physics, researchers at the CUNY Graduate Center have developed a new platform that

In the realm of scientific advancements, optical tweezers have emerged as a groundbreaking technology with numerous applications in fields like cancer therapy and environmental monitoring. These devices, which utilize lasers to manipulate tiny particles such as cells and nanoparticles, were even honored with a Nobel Prize in 2018. Now, a team of scientists has taken

In the realm of unconventional computing technologies, a team of physicists has achieved a significant breakthrough in the field of room-temperature quantum fluids of light. This advancement in spatial manipulation and energy control of polariton condensates showcases the potential for high-speed, all-optical polariton logic devices, which have long been seen as the key to next-generation

Holographic imaging has long been plagued by distortions in dynamic environments, making it difficult for traditional deep learning methods to adapt. These methods often struggle because they are designed to rely on specific data conditions, which limits their ability to handle diverse scenes. However, researchers at Zhejiang University recognized this problem and set out to

Phonons, which are quasi-particles associated with sounds or lattice vibrations, have long been thought to possess negligible magnetic moments. However, a recent experiment conducted by researchers at Nanjing University and the Chinese Academy of Sciences has challenged this notion. Their study, featured in Nature Physics, has uncovered giant phonon magnetic moments in Fe2Mo3O8, a polar

Advancements in quantum computing have revolutionized the field of problem-solving, addressing challenges that were once considered insurmountable for conventional computers. Quantum computers have the potential to tackle complex problems in cryptography, pharmacology, and the study of molecular and material properties. However, the current computational capabilities of quantum computers remain limited. QUBO: Uniting Quantum and Traditional

In a groundbreaking study, quantum physicists at Delft University of Technology have harnessed the power of superconductors to control and manipulate spin waves on a chip. This pioneering research sheds new light on the interaction between magnets and superconductors, offering a glimpse into the future of electronic alternatives. The study, published in Science, highlights the

Superconducting cameras have long held promise for the field of science and biomedical research due to their ability to capture very weak light signals. However, limitations in pixel count have hindered their widespread use. In a recent study published in Nature, researchers at the National Institute of Standards and Technology (NIST) have successfully built a

The field of quantum computing is rapidly advancing, and scientists from the Quantum Systems Accelerator (QSA) are at the forefront of this revolution. QSA, a collaboration between Lawrence Berkeley National Laboratory (Berkeley Lab) and the University of California, Berkeley (UC Berkeley), is dedicated to designing and building the next generation of programmable quantum devices. In

Investigating systems consisting of self-propelled particles, commonly referred to as active particles, has become a rapidly growing area of research. While theoretical models often assume that the swimming speed of these particles remains constant, it is crucial to consider scenarios where the propulsion speed depends on the orientation. This is especially relevant for particles generated

Whenever light interacts with matter, it has long been observed that light appears to slow down. This phenomenon has been explained by standard wave mechanics, which can describe most daily occurrences involving light. However, a recent study by researchers from the University of Eastern Finland and Tampere University has uncovered a new perspective on this

In the world of science, the principle that the brighter the light source, the brighter the resulting image seems intuitive. However, recent research has uncovered a counterintuitive effect in X-ray diffraction images. When silicon crystals are illuminated with ultrafast laser pulses of X-ray light, the initial diffraction images appear brighter as more photons fall on