Abstract: Example embodiments provide methods, systems, apparatuses, products and/or the like for reflecting, collecting, entangling, and/or detecting photons generated by quantum objects. In various embodiments a quantum entanglement apparatus is provided. The quantum entanglement apparatus comprising a first reflecting component on a first surface of a first quantum object confinement component, the first reflecting component configured to reflect a first emitted photon emitted by a first quantum object, a first photonic integrated circuit on a first side of the first quantum object confinement component, a first collection component optically coupled to the first photonic integrated circuit, wherein the first collection component is configured to collect the first emitted photon reflected by the first reflecting component, a first detector configured to detect photons traversing a first optical path of the first photonic integrated circuit, and a first filter along the first optical path.

Abstract: In various embodiments, a system comprising an atomic object confinement apparatus and one or more signal manipulation elements is provided. Each signal manipulation element (a) is associated with a respective atomic object position of the atomic object confinement apparatus and (b) is one of a collection array or an action array. A collection array is configured to, responsive to an emitted signal emitted by an atomic object at the respective atomic object position being incident on the collection array, provide an induced collection signal to a respective collection position. An action array is configured to, responsive to an incoming signal being incident on the action array, provide an induced action signal to the respective atomic object position. The one or more signal manipulation elements comprise metamaterial arrays and/or diffractive optical elements.

Abstract: A multi-frequency laser system including a first beam splitter configured to split the first beam into a high-power portion of the first beam and a low power portion of the first beam and a second beam splitter configured to split the second beam into a high-power portion of the second beam and a low power portion of the second beam, wherein a frequency of the first beam is shifted with respect to a frequency of the second beam. The system includes a combiner configured to combine the low power portion of the first beam and the low power portion of the second beam to generate a heterodyne beam used to reduce a phase error between the high-power portion of the first beam and the high-power portion of the second beam.

Abstract: Various embodiments for precise and accurate delivery, in terms of position, frequency, and/or phase, of one or more lasers to an atomic system are provided. In a first embodiment, a gate laser system for a trapped ion quantum computer comprising a first and second laser are provided. The first and second lasers are frequency locked to a first and second frequency of a frequency comb, respectively. The first and second lasers are each configured to provide laser beams to a qubit ion within an ion trap of the quantum computer to provide a gate. In another embodiment, a qubit ion and sympathetic ion management system for a trapped ion quantum computer comprising a first, second, and third laser is provided. Each laser is locked to a different frequency of a frequency comb, and provide one or more laser beams to an ion trap of the quantum computer.

Abstract: In various embodiments, a quantum object confinement apparatus comprising a plurality of electrodes and configured to define a confinement volume within configured for confining one or more quantum objects therein is provided. The confinement volume defines one or more quantum objects positions. The quantum object confinement apparatus comprises one or more metasurfaces that are configured to be associated with respective quantum object positions. The plurality of metasurfaces comprises of a plurality of transparent conducting oxide metamaterial structures.

Abstract: A system comprising a particle confinement assembly and one or more signal manipulation elements is provided. The particle confinement assembly defines a plurality of particle positions. Each signal manipulation element of the one or more signal manipulation elements (a) is associated with at least one respective position of the plurality of particle positions and (b) comprises an active nanophotonic component having a dynamically controllable optical effect. A respective signal manipulation element of the one or more signal manipulation elements is configured to, responsive to an incident signal being incident thereon and based on a state of the dynamically controllable optical effect, cause either (a) an induced signal to be incident on at least a portion of the at least one respective position or (b) an induced signal to be incident on a respective collection location corresponding to the at least one respective position.

Abstract: An optics-integrated confinement apparatus system comprises a confinement apparatus chip having a confinement apparatus formed thereon and having at least one apparatus optical element disposed and/or formed thereon.

Abstract: A confinement assembly configured for confining quantum objects is provided. The confinement assembly includes a first substrate having potential generating elements formed thereon; and may include a second substrate that is secured with respect to the first substrate. The confinement assembly further includes at least a portion of a laser (e.g., gain media and at least part of a resonant structure) formed on the first and/or second substrate. The potential generating elements are operable for generating confinement regions configured for confining the quantum objects. The confinement assembly at least partially defines an optical path for causing an optical beam to interact with the at least a portion of the laser. The optical beam is (a) a seeding laser beam configured to control at least one property of light emitted by the laser or (b) an optical pumping beam configured to power the lasing activity of the laser.

Abstract: In various embodiments, a system comprising an atomic object confinement apparatus and one or more signal manipulation elements is provided. Each signal manipulation element (a) is associated with a respective atomic object position of the atomic object confinement apparatus and (b) is one of a collection array or an action array. A collection array is configured to, responsive to an emitted signal emitted by an atomic object at the respective atomic object position being incident on the collection array, provide an induced collection signal to a respective collection position. An action array is configured to, responsive to an incoming signal being incident on the action array, provide an induced action signal to the respective atomic object position. The one or more signal manipulation elements comprise metamaterial arrays and/or diffractive optical elements.

Abstract: Methods and systems for managing data privacy of personal identifiable information in a building management system may include presenting a data privacy survey via a user interface of a data processing system. The data privacy survey may identify a plurality of types of personal identifiable information (PII) that will be collected by the building management system, and a plurality of data privacy settings for each of the plurality of types of PII. A setting change to at least one of the plurality of data privacy settings for at least one of the plurality of types of PII may be set, in which one or more constraints in the building management system for each of the plurality of types of PII may be implemented in the building management system.

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.

Abstract: Various embodiments for precise and accurate delivery, in terms of position, frequency, and/or phase, of one or more lasers to an atomic system are provided. In a first embodiment, a gate laser system for a trapped ion quantum computer comprising a first and second laser are provided. The first and second lasers are frequency locked to a first and second frequency of a frequency comb, respectively. The first and second lasers are each configured to provide laser beams to a qubit ion within an ion trap of the quantum computer to provide a gate. In another embodiment, a qubit ion and sympathetic ion management system for a trapped ion quantum computer comprising a first, second, and third laser is provided. Each laser is locked to a different frequency of a frequency comb, and provide one or more laser beams to an ion trap of the quantum computer.