3results about "Beam/ray deflecting arrangements" patented technology

A network of quantum information processing (QIP) systems includes a first QIP system, a second QIP system, and an optical system. The first QIP system includes a first ion trap that traps a first interconnect ion and a first memory ion in a first interconnect zone. The second QIP system includes a second ion trap configured to trap a second interconnect ion and a second memory ion in a second interconnect zone. The optical system directs a first optical beam and a second optical beam to the first interconnect zone to perform a SWAP gate to transfer information between the first interconnect ion and the first memory ion during a first duration, and directs the first optical beam and the second optical beam to the second interconnect zone to perform a SWAP gate to transfer information between the second interconnect ion and the second memory ion during a second duration.

Magnet assemblies (e.g., dipole magnet assemblies) with integrated charged particle beam collectors and systems including the magnet assemblies are described. An example of a dipole magnet assembly includes a dipole deflection magnet and a channel assembly configured with a charged particle beam collector. The dipole magnet may be configured to generate a uniform magnetic field within the channel assembly that deflects a trajectory of a charged particle beam. The channel assembly may be configured to support a vacuum for the charged particle beam while absorbing secondary state particles using the charged particle beam collector. The charged particle beam collector may be removably secured to the channel assembly, welded to the channel assembly, or inserted into the channel assembly. Each charged particle beam collector may utilize an active cooling system, such as a cooling tube or embedded cooling channel, to mitigate excess heat generated by secondary state particle absorption. Materials are also described.

An electrostatic energy filter module that includes a (i) biasing circuit, (ii) distal electrodes, (iii) intermediate electrodes that are upstream to the distal electrodes; and (iv) proximal electrodes that are upstream to the intermediate electrodes. The electrodes are disk-shaped, concentric, are parallel to each other and define an optical axis. The distal electrodes are configured to receive first biasing signals from the biasing circuit, and to form first equipotential lines that are parallel to each other and are perpendicular to the optical axis. The intermediate electrodes are configured to receive second biasing signals from the biasing circuit, and to form a wide energy barrier. The proximal electrodes are configured to third biasing signals from the biasing circuit, and to form second equipotential lines that are parallel to each other and are perpendicular to the optical axis.