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: Techniques for upgrading a cluster can include: defining integration points associated with workflow processing points of an upgrade workflow; associating a code entity with an integration point; and performing processing that executes the upgrade workflow to upgrade storage appliances, wherein first and second software clusters are installed on the storage appliances, wherein upgrading the storage appliances includes upgrading the first and second software clusters, wherein the processing includes: prior to upgrading a first storage appliance, executing first code corresponding to the integration point; in response to executing the first code, invoking the code entity to perform a first task in connection with the second cluster software prior to upgrading the first storage appliance; and upgrading the first storage appliance including upgrading a first component of the first software cluster and upgrading a second component of the second software cluster, wherein the first and are installed on the first sto

Abstract: Techniques for performing an upgrade can include: defining integration points each associated with a workflow processing point included in an upgrade workflow; receiving command lists each include commands of an integration point; associating each command of a command list with a code entity; performing processing that performs an upgrade workflow to upgrade a system, wherein the processing includes: executing code corresponding to the upgrade workflow, wherein a workflow processing point of the workflow is associated with a first integration point; and in response to said executing reaching the workflow processing point corresponding to the first integration point, performing second processing including: executing commands of a command list associated with the first integration point; and for each command executed, invoking a corresponding code entity that performs customized processing in connection with upgrading a first feature, facility or service in the system.

Abstract: A quantum computing system comprises a classical computing entity, a controller, and a quantum processor. The controller is configured to control operation of the quantum processor and communicate with the computing entity. The controller causes performance of syndrome circuit segments to generate syndromes of logical qubits. The syndrome circuit segment is performed at least partially by causing performance of a sequence of transportation operations and at-least-two-physical-qubits interactions. Each transportation operation of the sequence causes physical transport of at least one of a respective data qubit of the logical qubit or a respective ancilla qubit into a respective interaction zone defined by the quantum processor. A respective at-least-two-physical-qubits interaction is performed within the respective interaction zone.

Abstract: Techniques for performing an upgrade can include: defining integration points, each associated with a workflow processing point of an upgrade workflow of an upgrade infrastructure or framework; and performing processing by code of the upgrade infrastructure or framework that performs the upgrade workflow to upgrade a system, wherein the upgrade includes upgrading a first feature, facility or service of the system from a current version to a new version. The processing can include: dynamically determining, at runtime during execution of the upgrade workflow by the code of the upgrade infrastructure or framework, a set of code entities associated with a first of the integration points; executing code corresponding to workflow processing points, wherein a first of the workflow processing points is associated with the first integration point; and in response to said executing reaching the first workflow processing point, invoking each code entity of the set for upgrade processing.

Abstract: Techniques for performing an upgrade can include: defining integration points, each associated with a workflow processing point of an upgrade workflow of an upgrade infrastructure or framework; and performing processing by code of the upgrade infrastructure or framework that performs the upgrade workflow to upgrade a system, wherein the upgrade includes upgrading a first feature, facility or service of the system from a current version to a new version. The processing can include: dynamically determining, at runtime during execution of the upgrade workflow by the code of the upgrade infrastructure or framework, a set of code entities associated with a first of the integration points; executing code corresponding to workflow processing points, wherein a first of the workflow processing points is associated with the first integration point; and in response to said executing reaching the first workflow processing point, invoking each code entity of the set for upgrade processing.

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 controller of a quantum system identifies a phase update trigger for a quantum object of the quantum system and an interaction time. Responsive to identifying the phase update trigger, the controller determines, for between a first time and the interaction time, (a) a location/transport effect on a phase of the quantum object based on locations thereof and transport operations performed thereon, and (b) a quantum operation effect on the phase of the quantum object based on any quantum operations applied thereto. The immediately previous phase update for the quantum object occurred at the first time. Based on the location/transport effect, the quantum operation effect, and the interaction time, the controller determines an interaction time phase of the quantum object. The controller adjusts operation of a manipulation source such that a phase of a signal generated by the manipulation source corresponds to the interaction time phase at the interaction time.

Abstract: Techniques for performing an upgrade can include: defining integration points, each associated with a workflow processing point of an upgrade workflow; associating code entities with the integration points; and performing processing that performs the upgrade workflow to upgrade a system, wherein the upgrade includes upgrading a first feature, facility or service of the system from a current version to a new version, wherein the processing further includes: executing code corresponding to workflow processing points of the upgrade workflow, wherein a first workflow processing point of the upgrade workflow is associated with a first of the integration points; and in response to said executing reaching the first workflow processing point corresponding to the first integration point, invoking a first code entity associated with the first integration point, wherein said first code entity performs customized processing in connection with upgrading the first feature, facility or service in the system.

Abstract: Techniques for performing an upgrade can include: defining integration points each associated with a workflow processing point included in an upgrade workflow; receiving command lists each include commands of an integration point; associating each command of a command list with a code entity; performing processing that performs an upgrade workflow to upgrade a system, wherein the processing includes: executing code corresponding to the upgrade workflow, wherein a workflow processing point of the workflow is associated with a first integration point; and in response to said executing reaching the workflow processing point corresponding to the first integration point, performing second processing including: executing commands of a command list associated with the first integration point; and for each command executed, invoking a corresponding code entity that performs customized processing in connection with upgrading a first feature, facility or service in the system.

Abstract: Techniques for performing an upgrade can include: defining integration points, each associated with a workflow processing point of an upgrade workflow; associating code entities with the integration points; and performing processing that performs the upgrade workflow to upgrade a system, wherein the upgrade includes upgrading a first feature, facility or service of the system from a current version to a new version, wherein the processing further includes: executing code corresponding to workflow processing points of the upgrade workflow, wherein a first workflow processing point of the upgrade workflow is associated with a first of the integration points; and in response to said executing reaching the first workflow processing point corresponding to the first integration point, invoking a first code entity associated with the first integration point, wherein said first code entity performs customized processing in connection with upgrading the first feature, facility or service in the system.

Abstract: The present teaching relates to methods, systems, and programming for financial management. In an example, a method for performing financial management is presented. A first set of rules associated with a first access credential to an account and a second set of rules associated with a second access credential to the account are provided. The second set of rules is at least partially different from the first set of rules. A determination is made whether the access credential received from a first user matches the first access credential. A first request related to the first user with respect to a transaction is received, and information regarding the transaction is extracted. At least one action is determined with respect to the first request based on the information and the first set of rules.

Abstract: An ion trap apparatus is provided. The ion trap apparatus comprises two or more radio frequency (RF) rails formed with substantially parallel longitudinal axes and with substantially coplanar upper surfaces; and two or more sequences of trapping and/or transport (TT) electrodes with each sequence formed to extend substantially parallel to the substantially parallel longitudinal axes of the RF rails. The two or more RF rails and the two or more sequences of TT electrodes define an ion trap. The two or more sequences of TT electrodes are arranged into a number of zones. Each zone comprises wide matched groups of TT electrodes and at least one narrow matched group of TT electrodes. A wide TT electrode is longer and/or wider in a direction substantially parallel to the substantially parallel longitudinal axes of the RF rails than a narrow TT electrode.

Abstract: An ion trap apparatus is provided. The ion trap apparatus comprises two or more radio frequency (RF) rails formed with substantially parallel longitudinal axes and with substantially coplanar upper surfaces; and two or more sequences of trapping and/or transport (TT) electrodes with each sequence formed to extend substantially parallel to the substantially parallel longitudinal axes of the RF rails. The two or more RF rails and the two or more sequences of TT electrodes define an ion trap. The two or more sequences of TT electrodes are arranged into a number of zones. Each zone comprises wide matched groups of TT electrodes and at least one narrow matched group of TT electrodes. A wide TT electrode is longer and/or wider in a direction substantially parallel to the substantially parallel longitudinal axes of the RF rails than a narrow TT electrode.

Abstract: A controller of a quantum system identifies a phase update trigger for a quantum object of the quantum system and an interaction time. Responsive to identifying the phase update trigger, the controller determines, for between a first time and the interaction time, (a) a location/transport effect on a phase of the quantum object based on locations thereof and transport operations performed thereon, and (b) a quantum operation effect on the phase of the quantum object based on any quantum operations applied thereto. The immediately previous phase update for the quantum object occurred at the first time. Based on the location/transport effect, the quantum operation effect, and the interaction time, the controller determines an interaction time phase of the quantum object. The controller adjusts operation of a manipulation source such that a phase of a signal generated by the manipulation source corresponds to the interaction time phase at the interaction time.

Abstract: An ion trap apparatus is provided. The ion trap apparatus comprises two or more radio frequency (RF) rails formed with substantially parallel longitudinal axes and with substantially coplanar upper surfaces; and two or more sequences of trapping and/or transport (TT) electrodes with each sequence formed to extend substantially parallel to the substantially parallel longitudinal axes of the RF rails. The two or more RF rails and the two or more sequences of TT electrodes define an ion trap. The two or more sequences of TT electrodes are arranged into a number of zones. Each zone comprises wide matched groups of TT electrodes and at least one narrow matched group of TT electrodes. A wide TT electrode is longer and/or wider in a direction substantially parallel to the substantially parallel longitudinal axes of the RF rails than a narrow TT electrode.

Abstract: An ion trap apparatus is provided. The ion trap apparatus comprises two or more radio frequency (RF) rails formed with substantially parallel longitudinal axes and with substantially coplanar upper surfaces; and two or more sequences of trapping and/or transport (TT) electrodes with each sequence formed to extend substantially parallel to the substantially parallel longitudinal axes of the RF rails. The two or more RF rails and the two or more sequences of TT electrodes define an ion trap. The two or more sequences of TT electrodes are arranged into a number of zones. Each zone comprises wide matched groups of TT electrodes and at least one narrow matched group of TT electrodes. A wide TT electrode is longer and/or wider in a direction substantially parallel to the substantially parallel longitudinal axes of the RF rails than a narrow TT electrode.

Abstract: The present teaching relates to methods, systems, and programming for financial management. In an example, a method for performing financial management is presented. A first set of rules associated with a first access credential to an account and a second set of rules associated with a second access credential to the account are provided. The second set of rules is at least partially different from the first set of rules. A determination is made whether the access credential received from a first user matches the first access credential. A first request related to the first user with respect to a transaction is received, and information regarding the transaction is extracted. At least one action is determined with respect to the first request based on the information and the first set of rules.

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: A storage rack device for storing, shaping, and displaying baseball caps includes a bottom plate, a top plate, and a pair of rods. The rods are coupled to and extend between the bottom plate and the top plate. The rods are opposingly positioned proximate to a lower circumference of the top plate and extend in parallel to the bottom plate. The pair of rods is configured to selectively insert a bill of a cap to couple the cap to the pair of rods so that the bill is selectively positionable in a curved configuration and a flat configuration.