A cryogenic uniaxial strain cell for homogeneous straining of thick square semiconductor quantum chips, validated experimentally to 215 microstrain at 200 V on a silicon die.
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High magnetic fields directly enhance the amplitude and correlation length of stripe order in a cuprate superconductor far above the vortex melting transition, indicating a coupling mechanism independent of superconductivity suppression.
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A Cryogenic Uniaxial Strain Cell for Quantum Devices
A cryogenic uniaxial strain cell for homogeneous straining of thick square semiconductor quantum chips, validated experimentally to 215 microstrain at 200 V on a silicon die.
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Direct High-Magnetic-Field Coupling to Stripe Order in a Cuprate Superconductor
High magnetic fields directly enhance the amplitude and correlation length of stripe order in a cuprate superconductor far above the vortex melting transition, indicating a coupling mechanism independent of superconductivity suppression.