A material thought to be a quantum spin liquid actually exhibits a newly identified magnetic…
Browsing: Ferromagnetism
Ferromagnetism is a physical phenomenon in which certain materials, such as iron, nickel, cobalt, and some of their alloys, can exhibit strong magnetic properties. This characteristic arises from the alignment of magnetic moments (spins) of electrons in the material, which are typically arranged in parallel to each other within certain regions called domains. When these domains are aligned in the same direction, the material exhibits a strong magnetic field. The alignment can be influenced by an external magnetic field, and once removed, ferromagnetic materials can retain a significant amount of magnetization, known as remanence, making them ideal for use in permanent magnets.
X-rays uncover magnetic phenomena that are driven by interactions between the layers of a kagome…
Quantum technology struggles with scaling up, as the special properties of quantum materials typically vanish…
AI is evolving at an incredible pace, but its growing energy demands pose a major…
Physicists have identified an unprecedented quantum phenomenon that allows precise manipulation of electron spin and…
Altermagnetism, a newly imaged class of magnetism, offers potential for the development of faster and…
Scientists have pioneered a new material based on ruthenium that demonstrates complex, disordered magnetic properties…
Researchers have developed a new “sandwich” structure material that exhibits the quantum anomalous Hall effect,…
Researchers have created a cutting-edge structure by placing a very thin layer of a special…
The team has discovered a Magnon-phonon Fermi resonance in an antiferromagnet. A significant challenge in…
Researchers have developed a new magnet-based memory device using helical magnets, promising high-density, non-volatile storage…
Research reveals a new method of establishing order in quantum systems, potentially benefiting quantum technology…
A KAIST-led research team has successfully demonstrated the internal three-dimensional polarization distribution in ferroelectric nanoparticles,…
Physicists from Princeton University directly imaged the microscopic object responsible for this magnetism, an unusual…
Tokyo Institute of Technology researchers have developed BFCO nanodots for efficient and non-destructive memory technology,…
A new fusion of materials, each with special electrical properties, has all the components required…
Magnetism is influenced by the behavior of electrons. For instance, these tiny particles can create…
An experiment carried out in Italy, backed by theoretical support from Newcastle University, has produced…