Alpha Omega, Inc.

Quantinuum LLC

David Edward Hayes

Donna Marie Auguste

Klaus Dimmler

Alan D DeVilbiss

Christopher Langer

Russell Stutz

Philip Makotyn

Patricia Lee

John Gaebler

Curtis Volin

Mary Rowe

Brian Vincent Estey

Benjamin Spaun

Thomas Howard Loftus

Atomic object confinement apparatuses that include RF busses and systems including atomic object confinement apparatuses that include RF busses are provided. An example atomic object confinement apparatus comprises RF rail electrodes and an RF bus electrode(s). The RF rail electrodes form a periodic array of confinement segments within a central zone of the atomic object confinement apparatus and the RF bus electrodes are disposed in a perimeter zone disposed about the central zone. The RF rail electrodes and the RF bus electrode(s) are configured to generate a substantially periodic array of trapping regions when an oscillating voltage signal is applied to the RF rail electrodes and the RF bus electrode(s).

Atomic object confinement apparatus with radio frequency electrode shaping for periodic boundary conditions

The disclosure provides an atomic object trap apparatus and a method of operating such. The atomic object trap apparatus comprises two or more radio frequency (RF) electrodes formed concentrically in a substantially elliptical shape; and three or more trapping and/or transport (TT) electrode sequences formed concentrically in a substantially elliptical shape. The two or more RF electrodes and the three or more TT electrode sequences define a substantially elliptically-shaped atomic object trap. At least one TT electrode sequence of the three or more TT electrode sequences is disposed concentrically between the two or more RF electrodes. Each RF electrode and TT electrode sequence is elliptically shaped such that each comprises two substantially parallel longitudinal regions and two arc-spanning beltway regions, the four regions forming a substantially elliptical shape. The method is directed to operating a quantum computing system comprising an example atomic object trap apparatus.

Apparatuses, systems, and methods for elliptical atomic object traps

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.

Apparatuses, systems, and methods for ion traps

Gasket for an electric plug

In an embodiment, set forth by way of example and not limitation, an ambient energy powered electronic gasket includes an insulating gasket body adapted to engage a surface of a powered device, and an electronic circuit enclosed within the gasket body including a DC power supply powered by an ambient energy source related to the powered device with which it is engaged. The ambient energy source can be an AC power source, electromagnetic energy, mechanical, heat, chemical, fluid flow, etc., by way of non-limiting examples.

Ambient energy powered electronic gaskets

In some implementations, a sensing apparatus for an appliance connector, set forth by way of example and not limitation, includes at least one substrate including one or more openings operative to receive a corresponding number of prongs of the appliance connector. At least one sensor is coupled to the substrate and is operative to sense at least one characteristic of an environment. A transmitter is coupled to the substrate and is operative to transmit one or more signals derived from the at least one sensed characteristic, where the transmitted signals are capable of being received by a receiving device. A power circuit is coupled to the substrate and is operative to provide power to the at least one sensor and to the transmitter, where the power circuit can receive electric current from at least one of the prongs of the appliance connector to drive the transmitter and the sensor.

Sensors for electrical connectors

A remote control system, set forth by way of example and not limitation, includes a remote control device including one or more controls operative to develop at button control signals in response to activation by a user. An interface device is responsive to the button control signals and is operative to provide device control signals via a wired connection to an electronic display device. The device control signals are operative to control an application running on an electronic display device.

Remote control systems and methods for providing page commands to digital electronic display devices

In an embodiment, set forth by way of example and not limitation, a power line surge protector circuit includes a first input node, a second input node, a first output node and a second output node; a semiconductor shunt having an avalanche breakdown potential, the shunt being coupled between the first input node and the second input node, whereby a voltage potential between the first input node and the second input node which is in excess of the avalanche breakdown potential shunts current between the first input node and the second input node; and a resettable circuit breaker coupled between the first input node and the shunt.

Growing community of inventors

Denver, CO, United States of America

David Edward Hayes