Abstract: A method for controlling at least one setting of a basic input output system (BIOS) of at least one automated transaction machine (ATM) can include provisioning features of an active management technology system of a first computing device associated with an ATM. The method can also include establishing an initial trust between the first computing device and a second computing device that is remote from the first computing device, over a serial-over-lan (SOL) connection that is a feature of the active management technology system. The method can also include configuring the setting of the BIOS of the first computing device and storing a schedule for changing the setting of the BIOS. The method can also include reconfiguring the setting of the BIOS in response to the schedule stored on the database over the SOL.

Abstract: A device for treating tissue may include a tissue expander configured to be inserted into a body lumen and stretch tissue surrounding the body lumen, and a tool configured to be coupled to the tissue expander and move along a path defined by the tissue expander.

Abstract: A low-profile universal passive protector for an IV catheter includes a connector having a tubular body and a pair of arms pivotally connected thereto. The tubular body defines an end face and the connector includes a cavity extending from the end face. An elongate sheath is snap engageable to the tubular body. A spring is insertable within the connector cavity to extend between at least one of the pair of arms and the elongate sheath when received within the cavity. A slider is moveably coupled to the sheath. The slider includes a flashback chamber formed therein. A hypodermic needle is connected to the slider and is in fluid communication with the flashback chamber. The slider is moveable along the sheath between a first position and a second position, with the hypodermic needle being drawn into the sheath as the slider moves from the first position toward the second position.

Abstract: A system includes a reconstructor (314) configured to reconstruct cone beam projection data to generate cone beam artifact corrected short scan cone beam volumetric image data. A method includes reconstructing, with a reconstructor, cone beam projection data to generate cone beam artifact corrected short scan cone beam volumetric image data. A computer-readable storage medium storing computer executable instructions which when executed by a processor of a computer cause the processor to: reconstruct cone beam projection data to generate cone beam artifact corrected short scan cone beam volumetric image data.

Abstract: An imaging system (302) includes an X-ray radiation source (312) configured to emit radiation that traverses an examination region, a detector array (314) configured to detect radiation that traverses an examination region and generate a signal indicative thereof, wherein the detected radiation is for a 3-D pre-scan, and a reconstructor (316) configured to reconstruct the signal to generate a 2-D pre-scan projection image. The imaging system further includes a console (318) wherein a processor thereof is configured to execute 3-D volume planning instructions (328) in memory to display the 2-D pre-scan projection image (402, 602, 802, 1002) and a scan plan or bounding box (404, 604, 804, 1004) for planning a 3-D volume scan of a region/tissue of interest based on a selected protocol for a 3-D volume scan of a region/tissue of interest being planned and receive an input confirming or adjusting the scan plan box to create a 3-D volume scan plan for the 3-D volume scan of the region/tissue of interest.

Abstract: An imaging system (702) includes a reconstructor (716) configured to reconstruct obtained cone beam projection data with a voxel-dependent redundancy weighting such that low frequency components of the cone beam projection data are reconstructed with more redundant data than high frequency components of the cone beam projection data to produce volumetric image data. A method includes reconstructing obtained cone beam projection data with a voxel-dependent redundancy weighting such that low frequency components are reconstructed with more redundant data than high frequency components to produce volumetric image data.

Abstract: Single points of failure (SPoFs) may be determined for I/O connectivity on a storage network. I/O path information may be determined for a storage device, for example, as a result of a host system logging into the storage network, and may be updated in response to events on the storage network. From this determined I/O path information, one or more SPoFs between a storage device and an application layer may be determined if, for the I/O path information collectively, it is determined that there is only one of any of the path components between the storage device and the application layer. The I/O path information may be displayed in a manner that facilitates a user identifying that there is an SPoF on an I/O path between a storage device and an application layer of a host system. Based on the determination of an SPoF, an alert may be issued.

Abstract: A system and method for a frac pump. The system includes a turbine. The turbine can be 100% powered by natural gas or other fuels. The turbine, which can have an OEM controller, drives a frac pump. The frac pump is used for fracturing. The system has a controller which controls the system, including the OEM controller. The system has an air filtration system to treat the air entering the turbine. The air filtration system can include a system with no moving parts and no filters. The system fits within a trailer so it can be transported to remote locations. The system is self-sufficient.

Abstract: A method is disclosed. The method includes providing a body assembly including a first recess, a second recess, and a third recess, providing a film apple box, and selectively supporting a first end portion of the film apple box in the first recess in a first orientation. The method also includes selectively supporting a second end portion of the film apple box in the second recess in a second orientation, and selectively supporting a third end portion of the film apple box in the third recess in a third orientation.

Abstract: A medical imaging system (200) includes a masking unit (234), an image registration unit (238), a motion estimator (240) and a motion compensating reconstructor (244). The masking unit constructs a mask for each reconstructed volumetric phase image of a plurality of reconstructed volumetric phase images that masks portions of a corresponding image external to an anatomical model fitted to a segmented at least one anatomical structure, 5 wherein the plurality of reconstructed volumetric phase images include a target phase and a plurality of temporal neighboring phases reconstructed from projection data. The image registration unit registers the masked reconstructed volumetric phase images. The motion estimator estimates motion between the target phase and the plurality of temporal neighboring phases according to the model based on the registered masked reconstructed 10 volumetric phase images.

Abstract: An apparatus is disclosed. The apparatus has a housing that is a rectangular prism having five substantially flat sides and an open side that is open to a cavity formed by the housing, an intermediate member disposed in the housing and dividing the cavity into a first cavity and a second cavity, a member that is movably attached to the housing via at least one movable connector, the member movable about the at least one movable connector between an open position allowing access to the second cavity and a closed position covering the second cavity, a support assembly disposed in the second cavity and attaching the member to the housing, and a fastener assembly attached to the member and selectively locking the member to the intermediate member when the member is in the closed position.

Abstract: An imaging system includes a rotating gantry with a bore, and an X-ray radiation source supported by the rotating gantry, which rotates around the bore and emit X-ray radiation that traverses at least a portion of the bore. A detector array supported by the rotating gantry, located opposite the X-ray radiation source, detects the X-ray radiation having traversed an object located within the bore and generate projection data indicative of the detected X-ray radiation, wherein the projection data comprises a sinogram. A processor estimates a portion of the object truncated in the sinogram by fitting a curve to data sampled from a plurality of views of the object in the sinogram adjacent to a set of truncated views of the object in the sinogram, and reconstructs an image of the object based on the estimated portion of the object truncated and the generated projection data.

Abstract: Detecting different mutations in the same sample is essential, especially where the sample is limited in quantity and where high-throughput methods are desired for rapid detection of mutations. Methods routinely used in the art require separate assays for detecting different mutations or mutation types (e.g. single nucleotide polymorphisms (SNPs) or copy number variations (CNVs)) in a sample. The present disclosure provides methods for detecting different mutations, such as SNPs and CNVs in the same sample.

Abstract: A system for improved window fall prevention provides removable attachment of a window screen frame to a window frame. Systems according to the disclosure provide removable attachment of a window screen frame to an anchor positioned in the window frame by means of a plurality of cables. The cables attach to the screen frame or rest against an exterior portion of the screen frame at an exterior end, are threaded through the screen frame, and include on an interior end, opposite the exterior end, a releasable attachment to the window frame anchor. The releasable attachment may be between a loop of cable formed at the interior end and the window frame anchor, where the window frame anchor may be a T-screw.

Abstract: The present invention relates generally to medical devices and, in particular, to an introducer sheath that includes a shaft including a tubular portion, an expandable portion coupled to the tubular portion and a longitudinal axis. Additionally, the expandable portion includes a first pair of leaflets and a second pair of leaflets and both the first pair of leaflets and the second pair of leaflets extend along the longitudinal axis. Additionally, the second pair of leaflets are spaced radially inward of an inner surface of the first pair of leaflets and the expandable portion is designed to shift between a first configuration and a second radially expanded configuration.

Abstract: An imaging method includes obtaining projection data for a helical scan of a subject. The method further includes reconstructing, for a particular time and image slice location of interest, a first temporal motion state image at an earlier time on the detector array and offset from the central row in a first direction with projection data from a first to subset of detector rows, and reconstructing, for the particular time and image slice location, a second temporal motion state image at a later time on the detector array and offset from the central row in a second direction with projection data from a second different subset of detector rows. The method further includes estimating a distortion vector field between the first and second temporal motion state images, and constructing motion compensated volu-metric image data with a motion compensated reconstruction algorithm using the distortion vector field to compensate for arbitrary motion.

Abstract: A handheld light assembly for eradicating pathogens includes a housing. A processor and a lamp are disposed inside the housing. The lamp irradiates surfaces with disinfecting ultraviolet light having a peak wavelength of 222 nm filtered to restrict illumination to between 200 nm and 230 nm within an irradiation zone. A distance measuring system includes a secondary light source generating secondary light and a photodetector for measuring distance of the secondary light to a surface being irradiated by the lamp light being reflected from the surface to the photodetector. The secondary light source is offset at an angle from the lamp thereby projecting the light beam to a central area of the irradiation zone generated by the lamp. The photodetector signals the processor to calculate a vertical distance between the lamp and the central area of the irradiation zone on the surface being irradiated from an angular projection of the secondary light.

Abstract: Present multi-spectral CT approaches are able to cancel the noise from the combined (mono-energy) image. However, medical professionals also find it useful to consult the basis images which are combined (summed) form the mono image, because they can provide useful extra diagnostic information. However, denoising of the basis images can lead to a “jagged” appearance of edges in the denoised basis images, inconveniently requiring further image processing steps to take place before the basis images can be clearly read. Accordingly, there is provided an apparatus (30) for simultaneous edge noise reduction. The apparatus comprises a processor (32). The processor is configured to receive first (s0) and second (p0) input image data, and to receive first (s) and second (p) denoised input image data. The first and second input image data contains noise which is anti-correlated between the first and the second input image data.

Abstract: A system (116) includes an unlogger (202) configured to unlog logged data, to produce unlogged clipped data. The logged data includes attenuation line integrals and clipping- induced bias. The system further includes a mean estimator (204) configured to estimate a meanvalue of the unlogged clipped data. The system further includes a correction determiner (206) configured to determine a correction to the clipping-induced bias based on the estimated mean value of the unlogged clipped data. The system further includes an adder (210) configured to correct the logged data with the correction to produce corrected logged data.

Abstract: A reconstruction system includes a decomposer (204) configured to decompose at least two sets of projection data generated via kVp switching between at least two radiation source voltages. Each set corresponds to a different one of the at least two radiation source voltages. The system further includes a spectral channel (206) configured to process the at least two sets of projection data and generate spectral image data. The system further includes a non-spectral channel (208) configured to process the at least two sets of projection data and generate non-spectral image data for a predetermined reference kVp.