Treating orbital degrees of freedom as dynamical variables in altermagnets generates emergent electric fields tunable by lattice anisotropy, driving orbital and magnetic multipole currents even in simplified textures with dynamic lattice distortion.
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2026 2verdicts
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A geometric logical T gate in superconducting qubits suppresses Rabi frequency, detuning, and crosstalk errors to fourth order while inherently handling collective dephasing via DFS encoding and optimized pulses.
citing papers explorer
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Orbital-driven emergent transport in altermagnets
Treating orbital degrees of freedom as dynamical variables in altermagnets generates emergent electric fields tunable by lattice anisotropy, driving orbital and magnetic multipole currents even in simplified textures with dynamic lattice distortion.
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Suppression of Universal Errors in DFS-Encoded Superconducting Geometric Logical \emph{T} Gate
A geometric logical T gate in superconducting qubits suppresses Rabi frequency, detuning, and crosstalk errors to fourth order while inherently handling collective dephasing via DFS encoding and optimized pulses.