Abstract: Two-part cyanoacrylate/cationically curable adhesive systems are provided.

Abstract: A workflow construction system for constructing automation workflows that automate user specific processes. The workflow construction system may include a template library including workflow templates and pre-configured attributes. The workflow template can accelerate the design and construction of custom automation workflows. An orchestration layer included in the workflow construction system will also improve the performance of systems that execute the automation workflows by dynamically scaling the processing capacity, memory, and storage of servers and other systems hosting the model file instances of the automation workflows to ensure the available resources meet the demands of users completing processes using the automation workflows.

Abstract: A system for treating tissue including a clip assembly including a pair of clip arms, a proximal end of each of the clip arms slidably received within a channel of a capsule and moveable between a tissue receiving configuration and a tissue clipping configuration. The system also including an applicator releasably coupleable to the clip assembly, the applicator including a control member connectable to the proximal end of each of the clip arms and a locking sleeve coupleable to a proximal end of the capsule via a deflectable tab including an engaging structure configured to engage a corresponding engaging structure at the proximal end of the capsule and a releasing structure proximal of the engaging structure, the releasing structure engagable with a portion of the control member to deflect the deflectable member and disengage the engaging structure of the locking sleeve from the corresponding engaging structure of the capsule.

Abstract: The present invention provides methods and devices for making an anti-scatter grid for a radiographic imaging device identifiable. A method for providing an anti-scatter grid (100) for a radiographic imaging device comprises forming, by an additive manufacturing process, a grid pattern (110) in accordance with a product specification of the anti-scatter grid (100) to be provided; and forming, by an additive manufacturing process, a number of structural modifications (121) in or at the grid pattern in a manner making the number of structural modifications (121) image-based recognizable when the anti-scatter grid (100) is viewed according to its intended use in a viewing direction from a radiation source of the radiographic imaging device, and in a unique identification pattern (120) creating a unique identifier to make the anti-scatter grid to be provided identifiable among one or more others.

Abstract: A self-starting bandgap cell for generating a reference voltage.

Abstract: A low dropout regulator for providing an output voltage, the low dropout regulator comprising a resistive device configured to contribute to the stability of the low dropout regulator during operation and to have a resistance that is dependent on a load current.

Abstract: An apparatus comprising a bias current generator for generating a bias current, the bias current generator comprising two or more negative threshold transistors of the same type and coupled in series.

Abstract: A filter circuit for use with a system configured to be coupled with an electrical load, the filter circuit comprising a first filter, wherein the first filter is configured to receive a first voltage and provide an output voltage, the output voltage being the first voltage after filtering by the first filter, and the filter circuit is configured to adjust the bandwidth of the first filter in response to a load transient.

Abstract: The present invention provides methods and devices for making an anti-scatter grid for a radiographic imaging device identifiable. A method for providing an anti-scatter grid (100) for a radiographic imaging device comprises forming, by an additive manufacturing process, a grid pattern (110) in accordance with a product specification of the anti-scatter grid (100) to be provided; and forming, by an additive manufacturing process, a number of structural modifications (121) in or at the grid pattern in a manner making the number of structural modifications (121) image-based recognizable when the anti-scatter grid (100) is viewed according to its intended use in a viewing direction from a radiation source of the radiographic imaging device, and in a unique identification pattern (120) creating a unique identifier to make the anti-scatter grid to be provided identifiable among one or more others.

Abstract: The disclosure relates to an X-ray imaging system for acquiring two-dimensional or three-dimensional images of a subject. A relative position of an X-ray emitting region, as seen in a coordinate system which is stationary relative to an anti-scatter arrangement and/or an X-ray sensitive surface is controlled so that a first and a second image are acquired at different relative positions of the X-ray emitting region relative to the anti-scatter arrangement and/or the X-ray sensitive surface (10). A data processing system of the imaging system generates an output image, based on each of the images. In the output image, artefacts generated by the anti-scatter arrangement, are reduced, suppressed or eliminated compared to the first and the second image.

Abstract: Embodiments described herein may include apparatus, systems, techniques, or processes that are directed prioritizing memory requests from core processors such that some memory transaction requests receive a higher priority than other memory transaction requests. In some embodiments, queue lengths and latency, frequency of core demand transaction prioritization and the like are monitored and prioritization throttled accordingly. Other embodiments may be described and/or claimed.

Abstract: The disclosure relates to an X-ray imaging system for acquiring two-dimensional or three- dimensional images of a subject. A relative position of an X-ray emitting region, as seen in a coordinate system which is stationary relative to an anti-scatter arrangement and/or an X-ray sensitive surface is controlled so that a first and a second image are acquired at different relative positions of the X-ray emitting region relative to the anti-scatter arrangement and/or the X-ray sensitive surface (10). A data processing system of the imaging system generates an output image, based on each of the images. In the output image, artefacts generated by the anti-scatter arrangement, are reduced, suppressed or eliminated compared to the first and the second image.