Abstract: A quantum system controller configured to perform conditional transport with just-in-time waveform selection is provided. The quantum system controller comprises a processing device configured to generate a set of processed waveform files configured to cause a quantum processor of the quantum computer to perform a quantum circuit; cause the processed waveform files to be preloaded to one or more arbitrary waveform generators; and causing at least one signal to be provided to the one or more arbitrary waveform generators to execute at least one of the preloaded processed waveform files, wherein the signals provided to arbitrary waveform generators to execute at least one of the preloaded waveform files is in response to the quantum system controller evaluating a conditional operation. The signals provided to the arbitrary waveform generators allow for the just-in-time selection a waveform selection not on an expected path of the quantum circuit.

Abstract: A confinement apparatus includes a 2D array portion; and at least one pipelined portion. The 2D array section includes a 2D array of interconnected confinement regions. The at least one pipelined portion comprises a plurality of pipeline sections. Each pipeline section includes a first pipeline segment, an operation segment, and a second pipeline segment.

Abstract: A confinement apparatus package is provided. The confinement apparatus chip includes a confinement apparatus die having a plurality of electrodes formed thereon, wherein the plurality of electrodes defines a confinement apparatus; an application-specific integrated circuit (ASIC) chip comprising an ASIC die having an ASIC formed thereon; and a package substrate. The ASIC die is disposed between the package substrate and the confinement apparatus die. The ASIC defines a plurality of electrical channels and each electrode of the plurality of electrodes is in electrical communication with a respective electrical channel of the plurality of electrical channels.

Abstract: Various embodiments provide methods, apparatuses, systems, or computer program products for providing a signal to an electrode of a quantum computer. In an example embodiment, the system comprises noise mitigation circuitry comprising a signal generator, a gain stage, and a filter stage. The signal generator may be comprised of a plurality of voltage sources. The controller causes the signal generator to generate a signal, and the signal is provided to the electrode through the noise mitigation circuitry to cause at least a portion of the system to perform a function.

Abstract: A controller is configured to control operation of a confinement apparatus comprising one or more radio frequency rails and a plurality of control electrodes. The controller comprises a processing element, non-transitory computer-readable memory storing computer-executable instructions. The computer-executable instructions are configured to, when executed by the processing element, cause the controller to at least identify a manipulatable object transport operation to be performed; obtain a set of voltage signal sequences corresponding to the manipulatable object transport operation to be performed from the voltage signal sequence library; and cause one or more voltage sources to apply respective voltage signal sequences of the set of voltage signal sequences corresponding to the manipulatable object transport operation to respective control electrodes of the plurality of control electrodes via respective filters.

Abstract: Quantum computers, systems, apparatuses, and/or the like and corresponding methods for de-exciting coherent motional modes of an atomic object crystal confined by an atomic object confinement apparatus. One or more voltage sources are controlled to cause a waveform to be applied to an array of electrodes of the atomic object confinement apparatus. Application of the waveform to the array of electrodes causes each of the one or more transport operations to be performed on the respective atomic object crystal and causes de-excitation of at least one coherent motional mode of the respective atomic object crystal corresponding to the at least one of the one or more transport operations. The respective shim waveform configured to de-excite the at least one coherent motional mode may be determined based on a parameterized shim waveform and a calibration process for determining parameters corresponding to the atomic object confinement apparatus.

Abstract: A quantum system controller configured to perform conditional transport with just-in-time waveform selection is provided. The quantum system controller comprises a processing device configured to generate a set of processed waveform files configured to cause a quantum processor of the quantum computer to perform a quantum circuit; cause the processed waveform files to be preloaded to one or more arbitrary waveform generators; and causing at least one signal to be provided to the one or more arbitrary waveform generators to execute at least one of the preloaded processed waveform files, wherein the signals provided to arbitrary waveform generators to execute at least one of the preloaded waveform files is in response to the quantum system controller evaluating a conditional operation. The signals provided to the arbitrary waveform generators allow for the just-in-time selection a waveform selection not on an expected path of the quantum circuit.

Abstract: Devices, methods, and systems for enclosures for an ion trapping device are described herein. One enclosure for an ion trapping device includes a heat spreader base that includes a plurality of apertures. The ion trapping device may also include a grid array having a plurality of pins extending outward from a surface of the grid array. The apertures of the heat spreader base may be arranged such that the plurality of pins passes through the plurality of apertures.

Abstract: Various embodiments provide methods, apparatuses, systems, or computer program products for providing a signal to an electrode of a quantum computer. In an example embodiment, the system comprises noise mitigation circuitry comprising a signal generator, a gain stage, and a filter stage. The signal generator may be comprised of a plurality of voltage sources. The controller causes the signal generator to generate a signal, and the signal is provided to the electrode through the noise mitigation circuitry to cause at least a portion of the system to perform a function.

Abstract: Devices, methods, and systems for enclosures for an ion trapping device are described herein. One enclosure for an ion trapping device includes a heat spreader base that includes a plurality of apertures. The ion trapping device may also include a grid array having a plurality of pins extending outward from a surface of the grid array. The apertures of the heat spreader base may be arranged such that the plurality of pins passes through the plurality of apertures.

Abstract: Devices, methods, and systems for enclosures for an ion trapping device are described herein. One enclosure for an ion trapping device includes a heat spreader base that includes a plurality of apertures. The ion trapping device may also include a grid array having a plurality of pins extending outward from a surface of the grid array. The apertures of the heat spreader base may be arranged such that the plurality of pins passes through the plurality of apertures.

Abstract: A multi-frequency laser system comprises a master oscillator to generate a master beam and an arm splitter to split the master beam into a first beam and a second beam. The first beam is provided to a primary mode arm for generation of a primary mode beam and the second beam is provided to a sideband mode arm for generation of a sideband mode beam. The sideband beam arm comprises a modulator to modulate the second beam to generate a beam comprising sidebands; a filter to select a particular sideband mode from the beam comprising sidebands; an amplifier cavity to amplify the particular sideband mode and suppress other residual modes; and an acousto-optical modulator to shift the frequency of each mode of an amplified selected sideband beam to generate a sideband mode beam. The primary and sideband mode beams are provided in a coordinated manner to enact a quantum gate.