Abstract: Described here are devices, systems, and methods for closing the left atrial appendage. The methods described here utilize a closure device for closing the left atrial appendage and guides or expandable elements with ablation or abrading elements to ablate or abrade the left atrial appendage. In general, these methods include positioning a balloon at least partially within the atrial appendage, positioning a closure assembly of a closure device around an exterior of the atrial appendage, inflating the balloon, partially closing the closure assembly, ablating the interior tissue of the atrial appendage with the inflated balloon, removing the balloon from the atrial appendage, and closing the atrial appendage with the closure assembly.

Abstract: An anti-polish ring for an internal combustion engine is provided. The anti-polish ring includes an axially extending ring portion that is configured to scrape a top portion of a piston in a cylinder liner. The anti-polish ring is configured to accommodate passage of an intake or exhaust valve thereby. The anti-polish ring may include an alignment feature so that the anti-polish ring is inserted in a predetermined orientation in the cylinder. The anti-polish ring may include a heat shield and/or a seating member.

Abstract: The present invention is directed to properly maneuver heavy cargo to an ergonomically correct lifting height, including for equipment stored on firefighting and rescue vehicles. Mechanically and electromechanically actuated means for raising, lowering, and storing heavy equipment in, on, and around vehicles and other structures are provided.

Abstract: The present invention is directed to properly maneuver heavy cargo to an ergonomically correct lifting height, including for equipment stored on firefighting and rescue vehicles. Mechanically and electromechanically actuated means for raising, lowering, and storing heavy equipment in, on, and around vehicles and other structures are provided.

Abstract: A process and related apparatus for the treatment of hazardous waste and an initially separate waste stream, the process comprising gasifying the waste stream in a gasification unit to produce an offgas and a char material; and plasma treating the offgas, and optionally the char material, in a plasma treatment unit to produce a syngas; and blending hazardous waste with the waste stream at a point in the process determined by the relative chemical and/or physical properties of the hazardous waste and the waste stream.

Abstract: Gas Stream Production The present invention provides a method for the production of carbon dioxide and/or hydrogen gas streams, the method comprising: (i) thermally treating a feedstock material to produce a syngas comprising carbon monoxide and hydrogen and plasma-treating the syngas in a plasma treatment unit; (ii) reacting the plasma-treated syngas with water in a further treatment unit, whereby at least some of the carbon monoxide is converted into carbon dioxide; and (iii) recovering hydrogen and/or, separately, carbon dioxide from the syngas.

Abstract: A process and related apparatus for the treatment of hazardous waste and an initially separate waste stream, the process comprising gasifying the waste stream in a gasification unit to produce an offgas and a char material; and plasma treating the offgas, and optionally the char material, in a plasma treatment unit to produce a syngas; and blending hazardous waste with the waste stream at a point in the process determined by the relative chemical and/or physical properties of the hazardous waste and the waste stream.

Abstract: The present invention concerns a method and apparatus for automatic processing a biological sample on a carrier, perhaps robotically, by applying predetermined amounts of reagents in a predetermined sequence according to a processing protocol, the processing including pre-treatment steps, under the control of an adaptive processing control system using a sample process parameter input that may be independent and an independent process parameter memory that does not interrupt process operation when being used, such that samples may be added or removed without interrupting the processing of other samples. Also included is an image capture function for sample and reagent identification and process monitoring, as well as temperature regulation and environmental control functions.

Abstract: A system that incorporates teachings of the present disclosure may include, for example, a communication device having a controller to receive from a service center a request directing a field service agent utilizing the communication device to fulfill a service order of a customer, receive from the service center information identifying one or more services of the communication system to which the customer has not subscribed, and present the one or more unsubscribed services to assist the field service agent in selling the customer at least one among the one or more unsubscribed services. Other embodiments are disclosed.

Abstract: An ultrasonic image process and system for accurately evaluating the quality of a weld using ultrasonic responses and operator entered data to enhance the quality of weld inspection. Ultrasonic responses useful in accurately indicating the actual location of the weldment, detecting the actual component thickness and the location and characteristic of any other relevant ultrasonic reflectors located in or near the weld heat effected zone are input to a composite image of a weldment for the purpose of enhancing the quality and the ease of detecting, evaluating and sizing of weld defects. Through the superposition of ultrasonic image data from additional complimentary sensors and operator inputs based on prior known data, useful images can be formed to improve the decision making in weldment inspection and evaluation.

Abstract: A refuse collection vehicle (10) has a body (14) into which refuse may be loaded having an exit passage (34) from which loaded refuse may be emptied. The vehicle also has arms (56) and a fork (58) for lifting a container into a dumping position over the body. A control circuit coordinates simultaneous operation of the arms and forks by monitoring the position of the arms and forks through rotary potentiometers (200, 201).

Abstract: A front loading refuse collection vehicle (10) is provided having a body (12) which includes a hopper (16), a storage container (17), a pair of arms (56) coupled to a pivotal fork (58). The vehicle also has a control circuit (100) which coordinates movement of the fork with the arms. The control circuit receives the initial pickup position of the arms and fork from an arm position sensor (200) and a fork position sensor (201) when grasping a portable container. This position is later recalled to assist the operator in returning the arms and forks to these positions in order to release the portable container.

Abstract: A front loading refuse collection vehicle 10 is provided having a body 12 which includes a hopper 16, a storage container 17, and a tailgate 20. A pair of hydraulic cylinders 23 are mounted to the tailgate for pivotal movement thereof. A compaction blade 24 is mounted within storage container 17 for movement by a hydraulic cylinder 25. The vehicle also has a dumping system 45 for automated actuation of the compaction blade hydraulic cylinder 25 and the tailgate hydraulic cylinders 23. The dumping system includes a central multi-processor 46 coupled to receive electronic signals from an auto-eject actuation button 47, a tailgate enable switch 48, a latch sensor 50, a tailgate open sensor 51 and a compaction blade sensor 52. The central multiprocessor is coupled to output electronic signals to a hydraulic control valve 57 for the tailgate hydraulic cylinders and a hydraulic control valve 58 for the compaction blade hydraulic cylinder.

Abstract: A support insulator for supporting a high-voltage conductor within the interior of a gas-filled grounded housing has a generally triangular configuration, with the central bus supported within the interior of the triangle and with the apices of the triangle engaging the inner diameter of the grounded enclosure. An inner hub extending from the legs of the triangle assists in the support of the central insulator. The combination of a gas-filled high-voltage transmission line with a plurality of support insulators extending along the length of the line is disclosed.

Abstract: A contamination control device for use in a gas-insulated transmission bus consisting of a cylindrical center conductor coaxially mounted within a grounded cylindrical enclosure. The contamination control device is electrically connected to the interior surface of the grounded outer shell and positioned along an axial line at the lowest vertical position thereon. The contamination control device comprises an elongated metallic member having a generally curved cross-section in a first plane perpendicular to the axis of the bus and having an arcuate cross-section in a second plane lying along the axis of the bus. Each opposed end of the metallic member and its opposing sides are tapered to form a pair of generally converging and downward sloping surfaces to trap randomly moving conductive particles in the relatively field-free region between the metallic member and the interior surface of the grounded outer shell.