Electronics for Trapped Ion Control
Because these couplings are in the optical regime for both microwave and optical qubits, laser control is an essential component of
With their low-noise, low-drift and low-cross-talk capabilities, these subsystems are now enabling the multi-channel optical beam control operations needed for quantum computing, quantum state manipulation for applications such as atomic clocks and advanced quantum . With their low-noise, low-drift and low-cross-talk capabilities, these subsystems are now enabling the multi-channel optical beam control operations needed for quantum computing, quantum state manipulation for applications such as atomic clocks and advanced quantum . Experiments with trapped ions and neutral atoms typically employ optical modulators in order to control the phase, frequency, and amplitude of light directed to ind...

Because these couplings are in the optical regime for both microwave and optical qubits, laser control is an essential component of
A promising strategy for scaling trapped-ion-based quantum technologies is to use fully integrated optical waveguides
In this work we design, fabricate, and test an optical modulator capable of monolithic integration with a surface-electrode ion trap.
Published in the journal Nature Communications, the breakthrough optical phase modulators could help unlock much larger quantum
In this study, a two-channel all-optical modulator based on a solution-processed quantum dot structure is introduced
In this article we present a fiber-integrated ion trap structure, eliminating the need for external free-space optics or
For quantum computers to reach their potential, the number of qubits must be massively
The conversion of information from single photons in the microwave region to the optical region is an essential task for
Precision control of optical beams for quantum state manipulation L3Harris is building upon more than 40 years'' experience in
Scalable optics co-fabricated with a cryogenic surface-electrode ion trap are used to drive high-fidelity multi-ion
We demonstrated trapping two neutral (87)Rb atoms in a two site optical ring lattice generated by reflecting a single
Electro-optic modulators (EOMs) convert signals from the electrical to the optical domain. They are at the heart of
A quantum computer based on trapped ions requires precise control over the lasers which are used to address different transition in
Trapped-ion quantum computing requires precise optical control for individual qubit manipulation. However,
L3Harris is leveraging more than 40 years'' experience in developing acousto-optic (AO) devices and
A laser locking system and an acuosto-optical modulator are in-stalled. This paper focuses on the setup procedure and outlines func
Using CMOS-compatible optical modulators to solve I/O challenges in trapped-ion quantum computing Abstract: Most trapped-ion
The next section will detail integration of this high extinction optical switch with a surface electrode trap and focusing grating couplers
chip using photonic micro electromechanical systems (MEMS). Through simulation and experimentation, the prospect of integrated
Abstract Segregated ion traps, that allow for independent computations in di erent regions, are a promising platform for scalable
optical power effectively delivered to the trapped ions at the trapping height. The proposed grating coupler, combined with on-chip
The evolution of high-speed optical modulators in silicon photonics is crucial for advancing optical communication networks amid
Trapped ions are leading candidates for the practical implementation of quantum information processing. In the TIQI-group at ETH
Here, we present tip-enhanced nano-optical trapping spectroscopy, utilizing shear-force atomic force microscopy in
Abstract We present the design and characterization of individual addressing optics based on a multi-channel acousto
In Sec. III.1, we present a trap design that accommodates both dual species operation and the high optical access
In this work, we demonstrate an approach to individual optical addressing in trapped-ion chains with minimal cross
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