Science

Quantum simulation has been a hot topic in the field of physics, with researchers exploring its potential to unravel complex quantum phenomena. A recent study published in Nature sheds light on the antiferromagnetic phase transition within a large-scale quantum simulator of the fermionic Hubbard model (FHM). Led by a team from the University of Science

Time crystals, as proposed by Nobel Prize winner Frank Wilczek in 2012, are objects that repeat themselves not in space, but in time. This phenomenon raises questions about the possibility of a periodic rhythm emerging spontaneously in a system, independent of any imposed rhythm or external time constraints. While the concept of time crystals has

In a recent study published in Physical Review Letters, a research team led by academician Guo Guangcan and professors Li Chuanfeng and Liu Biheng from the University of Science and Technology of China (USTC) has made a groundbreaking discovery in the field of quantum physics. The team has successfully constructed a coherent superposition of quantum

Researchers at Finland’s Aalto University have recently made a groundbreaking discovery in the field of microbiology by utilizing magnets to manipulate the movement of bacteria. This innovative approach not only allows for the alignment of bacteria but also opens up new possibilities for a wide range of studies, including complex materials, phase transitions, and condensed

The ability to manipulate magnetization orientation on ultrafast time scales is crucial for advancements in various technological fields, such as data storage technologies and spintronics. Traditional methods involve the use of intense laser pulses to induce thermal effects, leading to changes in the magnetic properties of materials. However, these methods suffer from limitations due to

A recent breakthrough achieved by a research team from Japan has revolutionized the observation of magnetic fields at minuscule scales. With the collaboration of several prestigious institutions and the utilization of cutting-edge technology, the team has made significant strides in enhancing our understanding of magnetic phenomena at the atomic level. This groundbreaking discovery opens up

Dark matter, a substance that makes up approximately 80% of the matter in the universe, remains one of the greatest enigmas of modern science. Despite being invisible and undetectable through conventional means, its presence is undeniable due to the gravitational effects it exerts on the visible universe. Scientists have long been puzzled by the elusive

Transport networks, such as river systems, play a crucial role in the functioning of various natural and human-made systems. Understanding how these networks form and evolve is essential for optimizing their stability and resilience. While tree-like structures are efficient for transport, networks with loops have shown to be more damage-resistant. Researchers from the Faculty of

The concept of synchrotron radiation has long been a cornerstone of materials research, with its high brilliance light providing valuable insights into the molecular structure of various substances. However, the limitations of traditional storage ring technology have hindered the full potential of this powerful tool. In 2010, physicist Alexander Chao and Daniel Ratner presented a

Supersymmetry (SUSY) is a theory that has been gaining traction in the field of particle physics due to its ability to answer some of the most puzzling questions in the field. One of the key predictions of SUSY is the existence of “superpartner” particles for every known particle. This theory provides a potential solution to