Abstract: A catheter system (100) for placement within a blood vessel (108) having a vessel wall (108A) for treating a treatment site (106) within or adjacent to the vessel wall (108A) within a body (107) of a patient (109) includes a system console (123), one or more energy guides (122A), and an optical connector assembly (251). The system console (123) includes an energy source (124) and a console connection aperture (148). The one or more energy guides (122A) are configured to receive energy from the energy source (124). The optical connector assembly (251) includes a guide coupling housing (250) that retains at least a portion of each of the one or more energy guides (122A).

Abstract: A catheter system configured to use a guidewire lumen, includes an energy source, a first energy guide, and a first emitter station including a first station housing. The energy source generates first energy. The first energy guide receives the first energy from the energy source. The first energy guide has a first guide distal end. The first station housing has (a) a first housing base configured to be secured at least partially about the guidewire lumen, (b) a first guide retainer that extends away from the first housing base, the first guide retainer being configured to selectively receive and retain the first guide distal end of the first energy guide, and (c) a first corresponding plasma target that is spaced apart from the first guide retainer. The first housing base, the first guide retainer, and the first corresponding plasma target are integrally formed with one another.

Abstract: A catheter system (100) for placement within a blood vessel (108) having a vessel wall (108A) for treating a treatment site (106) within or adjacent to the vessel wall (108A) within a body (107) of a patient (109) includes a system console (123), one or more energy guides (122A), and an optical connector assembly (251). The system console (123) includes an energy source (124) and a console connection aperture (148). The one or more energy guides (122A) are configured to receive energy from the energy source (124). The optical connector assembly (251) includes a guide coupling housing (250) that retains at least a portion of each of the one or more energy guides (122A).

Abstract: An Augmented Reality (AR) and Artificial Intelligence (AI)-constructed, interactive three-dimensional (3D) human body modeling system that analyzes data descriptive of medical records and generates an interactive 3D human body model output via AR. The 3D human body model may have body part-specific interactive medical record data embedded therein, permitting a user to quickly, easily, and intuitively navigate the model to identify relevant medical status for the modelled individual.

Abstract: A catheter system (100) for treating a vascular lesion (106A) within or adjacent to a vessel wall (108A) of a blood vessel (108) within a body (107) of a patient (109) includes a catheter shaft (210); a handle assembly (228); and a source manifold (236). The handle assembly (228) is coupled to the catheter shaft (210). The handle assembly (228) includes an assembly housing (266). The handle assembly (228) is usable by a user to selectively position the catheter shaft (210) near the vascular lesion (106A). The source manifold (236) is coupled to the assembly housing (266). The source manifold (236) includes a manifold housing (282) having a catheter shaft port (264) that is configured to receive a portion of the catheter shaft (210) so that the catheter shaft (210) is coupled to the manifold housing (282).

Abstract: A catheter system (100) for treating a treatment site (106) includes a catheter (102), a system console (123) that includes a console connection aperture (148), an energy source (124), one or more energy guides (122A) that receive energy from the energy source (124), and an optoelectrical connector (151) that is coupled to the catheter (102). The optoelectrical connector (151) includes a guide coupling housing (250) that retains at least a portion of each of the energy guides (122A). The guide coupling housing (250) is configured to be selectively mechanically connected to the system console (123) via the console connection aperture (148) so that the energy guides (122A) are adjustably aligned relative to the energy from the energy source (124).

Abstract: A catheter system (100) for treating a treatment site (106) within or adjacent to a vessel wall (108A) of a blood vessel (108) within a body (107) of a patient (109) includes a first energy guide (222A), a second energy guide (222A), and a routing assembly (280). The routing assembly (280) defines a routing space (282) that retains a routing length (222L) of each of the energy guides (222A), the routing assembly (280) including an inner routing guide (287) that is positioned within the routing space (282), the routing length (222L) of each of the energy guides (222A) each being positioned at least partially about the inner routing guide (287), the routing space (282) being configured so that the routing length (222L) of at least one of the energy guides (222A) is adjustable.

Abstract: A catheter system (100) for placement within a blood vessel (108) having a vessel wall (108A) for treating a treatment site (106) within or adjacent to the vessel wall (108A) within a body (107) of a patient (109) includes a system console (123), one or more energy guides (122A), and an optical connector assembly (251). The system console (123) includes an energy source (124) and a console connection aperture (148). The one or more energy guides (122A) are configured to receive energy from the energy source (124). The optical connector assembly (251) includes a guide coupling housing (250) that retains at least a portion of each of the one or more energy guides (122A).

Abstract: A catheter system (100) for treating a vascular lesion (106A) within or adjacent to a vessel wall (108A) of a blood vessel (108) within a body (107) of a patient (109) includes a catheter shaft (210); a handle assembly (228); and a source manifold (236). The handle assembly (228) is coupled to the catheter shaft (210). The handle assembly (228) includes an assembly housing (266). The handle assembly (228) is usable by a user to selectively position the catheter shaft (210) near the vascular lesion (106A). The source manifold (236) is coupled to the assembly housing (266). The source manifold (236) includes a manifold housing (282) having a catheter shaft port (264) that is configured to receive a portion of the catheter shaft (210) so that the catheter shaft (210) is coupled to the manifold housing (282).

Abstract: Specimen delivery device for the delivery of a liquid sample to be analysed comprising: a proximal end, and a distal end. The distal end being longitudinally displaced from the proximal end of the device. The device comprises a base at the proximal end for releasable connection to a magnetic sample holder of a liquid sample analysis device. The device further comprises a longitudinally extending projection having a radial inner portion, the projection extending from the base towards the distal end, the projection being arranged for receiving and holding a sheath. The device comprises at least one fluidic conduit, the fluidic conduit extending at least partially longitudinally within the radial inner portion, the fluidic conduit for the delivery of a liquid sample for analysis.

Abstract: A method includes identifying high-availability jobs and low-availability jobs that demand usage of resources of a distributed system. The method includes determining a first quota of the resources available to low-availability jobs as a quantity of the resources available during normal operations, and determining a second quota of the resources available to high-availability jobs as a quantity of the resources available during normal operations minus a quantity of the resources lost due to a tolerated event. The method includes executing the jobs on the distributed system and constraining a total usage of the resources by both the high-availability jobs and the low-availability jobs to the quantity of the resources available during normal operations.

Abstract: A method includes identifying high-availability jobs and low-availability jobs that demand usage of resources of a distributed system. The method includes determining a first quota of the resources available to low-availability jobs as a quantity of the resources available during normal operations, and determining a second quota of the resources available to high-availability jobs as a quantity of the resources available during normal operations minus a quantity of the resources lost due to a tolerated event. The method includes executing the jobs on the distributed system and constraining a total usage of the resources by both the high-availability jobs and the low-availability jobs to the quantity of the resources available during normal operations.

Abstract: A method includes identifying high-availability jobs and low-availability jobs that demand usage of resources of a distributed system. The method includes determining a first quota of the resources available to low-availability jobs as a quantity of the resources available during normal operations, and determining a second quota of the resources available to high-availability jobs as a quantity of the resources available during normal operations minus a quantity of the resources lost due to a tolerated event. The method includes executing the jobs on the distributed system and constraining a total usage of the resources by both the high-availability jobs and the low-availability jobs to the quantity of the resources available during normal operations.

Abstract: A method includes identifying high-availability jobs and low-availability jobs that demand usage of resources of a distributed system. The method includes determining a first quota of the resources available to low-availability jobs as a quantity of the resources available during normal operations, and determining a second quota of the resources available to high-availability jobs as a quantity of the resources available during normal operations minus a quantity of the resources lost due to a tolerated event. The method includes executing the jobs on the distributed system and constraining a total usage of the resources by both the high-availability jobs and the low-availability jobs to the quantity of the resources available during normal operations.

Abstract: An instance of a flow definition language for designing an integrated circuit implementation flow. The instance of the flow definition language includes a hierarchical collection of stages for a physical chip design. Relational constraints define the execution order of a plurality of tasks in the hierarchical collection of stages. Parameters customize the plurality of tasks. The relational constraints and parameters are hierarchically defined, such that higher order definitions in the hierarchical collection of stages override lower level definitions of the relational constraints and parameterized knobs.

Abstract: Methods for generating a padring layout design are described. These methods utilize automation while still allowing customization. Automation is emphasized as much as possible so that more time can be used to solve the various problems that make each padring layout design unique. A framework in which regular patterns can be described, replicated, and tailored is provided. The padring is broken down into zones in which slots having bumps/bond pads areas, I/O cell areas, and/or edge logic cell areas are laid out in a regular pattern through an instantiation process. Edge logic, which is comprised of standard cells, is pulled from the core of the chip because these cells couple directly to I/O cells and are critical for timing.

Abstract: An open adaptable operator's platform is provided for a vehicle, such as an agricultural or industrial utility vehicle. The platform is movably supported on the vehicle in order to damp and/or suppress vibrations during operation. Rollover protection is fastened to the platform to protect an operator at least partially from injury in case the vehicle is overturned. Noise generated by the rollover protection is reduced or avoided.

Abstract: An abutted-pin hierarchical physical design process is described. The abutted-pin hierarchical physical design provides solutions to the problems of the traditional hierarchical physical design and provides additional advantages and benefits. In particular, the abutted-pin hierarchical physical design does not have channels. Moreover, in the abutted-pin hierarchical physical design, components of the top-level are merged into the block-level so that the top-level netlist is reduced significantly.

Abstract: An abutted-pin hierarchical physical design process is described. The abutted-pin hierarchical physical design provides solutions to the problems of the traditional hierarchical physical design and provides additional advantages and benefits. In particular, the abutted-pin hierarchical physical design does not have channels. Moreover, in the abutted-pin hierarchical physical design, components of the top-level are merged into the block-level so that the top-level netlist is reduced significantly.