Abstract: Systems and methods for intent-based orchestration of independent automations are provided. Examples described herein alleviate the complexities and technical challenges associated with deploying, provisioning, configuring, and managing configurable endpoints, including network devices, network security systems, cloud-based security services (e.g., provided by or representing a Secure Access Service Edge (SASE) platform), and other infrastructure, on behalf of numerous customers (or tenants). For example, customer intent may be automatically translated into concrete jobs and tasks that operate to make changes to one or more of the configurable endpoints so as to insulate the user from being required to know which configurable endpoint(s) need(s) to change, which vendor supports a given configurable endpoint, and/or vendor specific issues involved in changing the configurable endpoints.

Abstract: Systems and methods for intent-based orchestration of independent automation are described.

Abstract: A method and apparatus for regulating the temperature of substrates positioned within a chamber are provided. In one embodiment, a substrate support pin is provided that includes a body having a substrate support region defined at a first end and a mounting region defined at a second end of the body. A mounting feature is formed at the mounting region and is adapted to couple the body to a vacuum chamber body. A passage extends from the mounting region to the support region. An outlet formed through the body and orientated at an angle greater than zero relative to a centerline of the body is p provided to deliver fluids flowing through the passage out the first end of the body. In another embodiment, a chamber includes a pin configured to provide a temperature controlled fluid to an underside of a substrate supported on the pin.

Abstract: Automated systems and methods for processing substrates are described. An automated processing system includes: a vacuum chamber; a substrate support located inside the vacuum chamber and constructed and arranged to support a substrate during processing; and a substrate alignment detector constructed and arranged to detect if the substrate is misaligned as the substrate is transferred into the vacuum chamber based upon a change in a physical condition inside the system. The substrate alignment detector may include a vibration detector coupled to the substrate support. A substrate may be transferred into the vacuum chamber. The position of the substrate may be recorded as it is being transferred into the vacuum chamber. Misalignment of the substrate with respect to the substrate support may be detected. The substrate may be processed. The processed substrate may be unloaded from the vacuum chamber. The position of the processed substrate may be recorded as it is being unloaded from the vacuum chamber.

Abstract: Automated systems and methods for processing substrates are described. An automated processing system includes: a vacuum chamber; a substrate support located inside the vacuum chamber and constructed and arranged to support a substrate during processing; and a substrate alignment detector constructed and arranged to detect if the substrate is misaligned as the substrate is transferred into the vacuum chamber based upon a change in a physical condition inside the system. The substrate alignment detector may include a vibration detector coupled to the substrate support. A substrate may be transferred into the vacuum chamber. The position of the substrate may be recorded as it is being transferred into the vacuum chamber. Misalignment of the substrate with respect to the substrate support may be detected. The substrate may be processed. The processed substrate may be unloaded from the vacuum chamber. The position of the processed substrate may be recorded as it is being unloaded from the vacuum chamber.

Abstract: A linear thruster is disclosed in which a load beam is linearly moved by fluid power relative to a guide beam and a piston. The beams are multisided in cross-section to substantially increase the linear bearing area between the bodies and, thereby, substantially increase the strength of the linear thruster against side forces as well as moments to which the linear thruster might subjected. Internal positioning of the components and energy transmission are maximized and the stroke may be variably adjusted.

Abstract: A linear thruster is disclosed in which a load beam is linearly moved relative to a guide beam by fluid power. One or both of the beams are multisided in cross-section to substantially increase the linear bearing area between the beams and substantially increase the strength of the linear thruster against side forces as well as moments while permitting a substantial reduction in the volumetric space consumed by the linear thruster. The fluid power and the energy inputs to the linear thruster may all be positioned at one end of the guide beam.

Abstract: Device for retrieving the free end of a roll of film from a film cartridge; curved inner and outer jaws are movable with respect to one another. The operation involves inserting the jaw ends into the cartridge, rotating the film within the cartridge until the free end is between the jaw ends, and grasping the film with the jaw ends.