Weyl Semimetals are materials in which electronic excitations behave like Weyl fermions, massless particles predicted in high-energy physics. These materials feature linear band crossings called Weyl nodes, which act as sources and sinks of Berry curvature in momentum space. Weyl semimetals exhibit unusual transport properties such as chiral anomaly and extremely high mobility. Their surface states form open contours known as Fermi arcs. Weyl semimetals provide a solid-state platform to study relativistic physics phenomena. They are of great interest for exploring topological transport, magnetoelectric effects, and novel optical responses. Weyl semimetals bridge condensed matter physics and particle physics, representing a new frontier in quantum materials research.
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