Ring magnets with through-holes create a trap and non-trap region, enabling continuous cold-atom ejection without disrupting confinement.
A superconductive resonator beside the quantum dot qubit cuts local heating and preserves coherence across a wider Rabi frequency range.
A 2D fin-based qubit grid boosts qubit density and shortens qubit spacing while staying compatible with CMOS integration.
Multiple ion chains enable parallel quantum gates, then merge by shuttling for inter-chain operations while limiting heating and fidelity loss.
A movable ceramic above a slow-wave transmission line cuts phase-shifter loss and footprint while enabling wide-range beam steering in Ka-band arrays.
Segmented DC electrodes and compensation fields align RF-null and DC trapping points while reducing DAC count and stray-field effects.
Backside laser preparation and etching form precise substrate holes for multi-layer ion traps while protecting top layers and optical integration.
Passive diffractive layers shape terahertz pulses by independently controlling spectral amplitude and phase, enabling tunable optical waveforms.
Conductive shielding elements surround a quantum component to block long-wavelength radiation, cutting thermal noise in compact cryogenic setups.
Immersing superconducting quantum circuits in 3He or 4He improves thermalization below 100 mK, helping extend coherence and fidelity.
Separate contacting steps and conformal dielectric sidewall spacers prevent shorts from misalignment in dense spin qubit gate arrays.
A two-part holder with cavities and flexible PCB fixing simplifies quantum device mounting while improving cryogenic cooling and EMI shielding.
A two-part cavity holder with PCB and waveguide connections simplifies quantum device mounting while improving cryogenic protection and cooling.
A conductive etch stop layer enables precise through-substrate vias in ion traps while forming reliable electrical coupling for scalable fabrication.
Off-resonant ancilla qubit drives make weak resonator nonlinearities tunable, enabling photon-number dependent control with lower errors.
A multi-capacitor qubit layout relaxes space limits around SQUID-based circuits, improving resonator routing, control lines, and qubit scaling.
Continuous RF and DC blades with recessed electrodes enable low-noise ion recirculation, deep trapping, and optical access in compact atomic instruments.
Selective compensation electrodes counter stray voltages in ion traps, aligning trapping points to preserve ion control and coherence.
Spatiotemporal modulation of tunable superconducting resonators enables non-reciprocal routing at cryogenic temperatures without magnetic interference.
A stacked magnetic body, absorber, and resonator layout improves high-frequency isolation while keeping quantum computer non-reciprocal circuits compact.
Quantum-secure distributed control synchronizes AC frequency and DC voltage in multi-inverter microgrids while improving resilient power sharing.
Hybrid laser and controlled-current tuning shifts Josephson junction resistance toward target values to reduce qubit frequency collisions.
Embedding analytes in an epoxy matrix enables stable laser-ablation targets with precise atom release and low material waste for QIP atomic sources.
Optical splitters and waveguides carry multiplexed qubit control and readout signals, cutting wiring area while limiting cross-talk and noise.
Air-gap dielectric structures cut loss in cryogenic microstrip wiring, improving resonator quality factor, signal fidelity, and qubit calibration.