Science

When we think of solid objects, we often overlook the chaotic activity happening within their atomic structures. Inside hadrons—comprising protons and neutrons—lies a dynamic ensemble of constituent particles called partons, which include quarks and gluons. These fundamental building blocks are constantly interacting, and understanding their complex relationships is crucial in the field of nuclear physics.

Recent scientific advancements have unveiled a more intricate world beneath the ocean’s surface, challenging long-standing beliefs about wave dynamics. Researchers have demonstrated that ocean waves can manifest significantly more complex and towering heights than previously acknowledged. Traditionally, the study of waves has been simplified, relying on the premise that waves travel in two dimensions. However,

In our contemporary world, the role of materials science cannot be overstated, particularly when it comes to applications that operate under extreme conditions. Industries such as nuclear energy and military defense demand materials that exhibit remarkable resilience against factors such as high pressure, soaring temperatures, and corrosive environments. Hence, the pursuit of understanding the atomic

Timekeeping has come a long way since the dawn of civilization, evolving from sundials to atomic clocks that measure time with unprecedented precision. However, the latest research from the University of Arizona, led by Jason Jones, heralds a new chapter in this field. The team has successfully developed an optical atomic clock that relies solely

Quantum entanglement represents one of the most perplexing and intriguing aspects of quantum mechanics—the science that governs the behavior of matter and energy at the atomic and subatomic levels. Unlike classical physical phenomena that we experience in daily life, entanglement defies traditional notions of locality, implying that particles can instantaneously affect each other’s states irrespective

In the realm of nuclear physics, the investigation of isotopes, particularly those that are rare and unstable, presents not only scientific challenges but promising avenues for understanding fundamental aspects of the universe. Recently, researchers at RIKEN’s RI Beam Factory (RIBF) in Japan achieved a groundbreaking milestone with the discovery of the rare fluorine (30F) isotope.

Quantum computing has tantalized researchers and technologists for decades, offering promises of dramatically enhanced computational power compared to traditional computers. Among the most intriguing concepts in this domain is the notion of a topological quantum computer. Although primarily theoretical at present, the potential advantages make it a focal point of contemporary research. A topological quantum

In the arena of quantum physics, particular phenomena pique the interest of researchers due to their potential impact on technology. One such phenomenon is the pseudogap, a peculiar state observed in high-temperature superconductors. For years, scientists have wrestled with understanding its underlying mechanisms, but recent breakthroughs promise a clearer understanding that could revolutionize our approach

In 2022, a significant breakthrough emerged from the Collider Detector at Fermilab (CDF) that sparked re-examination in the realm of particle physics. The Compact Muon Solenoid (CMS) experiment, housed at the Large Hadron Collider (LHC), has, in turn, made headlines with its remarkable new mass measurement of the W boson—a critical particle in the universe’s

In a groundbreaking study, researchers have revealed new insights into the state of warm dense matter—an exotic phase of matter that sits between solid and plasma. Utilizing exceptionally high-powered lasers, they can induce a rapid transition of materials like copper into this elusive form. At temperatures soaring close to 200,000 degrees Fahrenheit, the characteristics of