Abstract: A pipe insulation is formed from multiple discrete sheets of fiberglass that are wetted with a binder composition. The sheets are spiral wound around a mandrel in a partially overlapping fashion. The wound sheets are further processed to interface with one another and form a unitary elongated cylinder. The binder in the elongated cylinder is then cured to form the pipe insulation.

Abstract: A system including a computing device, a software application stored in a memory of the computing device and configured to run on a processor of the computing device, and a module in communication with the computing device, said module including a data communication capability, where the data includes light intensity or wavelength information, a light source configured to provide light capable of penetrating the patient's skin to a subcutaneous level, a light sensor configured to detect the light from the light source reflected and scattered from the patient's skin including from the subcutaneous level at a single point in time or sequentially at multiple points in time, and a power source, where the software application is configured to determine levels or concentrations of a substance in a patient's skin based on a measurement of light intensity or wavelength from the light sensor.

Abstract: Implementations are directed to improving healthcare services. In some aspects, a method includes receiving a plurality of requests for assessing quality of care, the plurality of requests for assessing quality of care including health data of a plurality of patients; training, a risk score machine learning (ML) model using the health data; receiving, from a user device, a request for assessing of quality of care for a particular patient, the request including the particular patient’s private health information; performing assessment of quality of care using the particular patient’s private health information; generating a risk score input from the particular patient’s private health information; generating risk scores for one or more potential health conditions for the particular patient by executing the risk score ML model using the risk score input; and providing i) the quality of care assessment result and ii) the risk scores for output on the user’s device.

Abstract: A system including a computing device, a software application stored in a memory of the computing device and configured to run on a processor of the computing device, and a module in communication with the computing device, said module including a data communication capability, where the data includes light intensity or wavelength information, a light source configured to provide light capable of penetrating the patient's skin to a subcutaneous level, a light sensor configured to detect the light from the light source reflected and scattered from the patient's skin including from the subcutaneous level at a single point in time or sequentially at multiple points in time, and a power source, where the software application is configured to determine levels or concentrations of a substance in a patient's skin based on a measurement of light intensity or wavelength from the light sensor.

Abstract: A medication delivery device with a sensing system to determine at least one of a dose set and a dose delivery. The sensing system is operable to detect relative rotational positions of first and second members of the device which are indicative of at least one of an amount of a dose set and an amount of a dose delivered by operation of the device, and generate outputs correlated to such relative rotational positions. The system includes a wiper coupled to the first member, and a sensing band coupled to the second member for physically contacting the wiper as the second member rotates relative to the first member. A controller electrically communicates with the sensing system to determine, based on the generated outputs of the sensing system, at least one of the amount of the dose set and the amount of the dose delivered by operation of the device.

Abstract: A method includes providing a plurality of simulation components (101-105), each simulating operation of a distinct element of a cyber-physical system and including at least first and second simulation components (101, 102) arranged in series with one or more outputs of the first simulation component (101) being provided as input to the second simulation component (102). A plurality of output predictions are generated using a surrogate model of the first simulation component and, in response, a plurality of the second simulation components (102-1, 102-2, 102-3), or a plurality of second surrogate models, are executed in parallel. The input values of each second simulation component (102-1, 102-2, 102-3), or surrogate model corresponds to a respective one of the plurality of output predictions from the surrogate model of the first simulation component (101).

Abstract: A rotary sub-assembly for pumping of fluid is provided. The sub-assembly includes a hollow body defining a cavity having a longitudinal axis, the body comprising a cavity wall with at least two ports passing therethrough. At least a portion of the cavity has a non-circular cross-section such that a first constant or varying radial distance from the longitudinal axis to inwardly-offset segments of the cavity wall surrounding the two ports is less than a second constant or varying radial distance from the longitudinal axis to second segments of the cavity wall spaced apart from the two ports. A rotatable plunger is housed in the cavity. The plunger is sized and shaped such that a side wall of the plunger can establish a liquid-tight seal against the inwardly-offset segments of the cavity wall, but does not establish a liquid-tight seal with the second segments of the cavity wall spaced apart from the two ports.

Abstract: Systems and methods for automatically managing and increasing the efficiency of non-authorized software installation such as on mobile devices having restricted operating systems.

Abstract: In accordance with one aspect of the present disclose, a fluid compressor for compressing a fluid is disclosed. The fluid compressor has a frame and a piston assembly. The piston assembly has a compression chamber connected to the frame, and the compression chamber includes a movable piston inside of the compression chamber along with a connection rod of a smaller transverse dimension than the diameter of the piston connected to the piston at a first end of the connection rod. The fluid compressor further has a pivot point located on the frame, and a lever connected to the pivot point. The lever has a short end and a long end on opposite sides of the pivot point, and the short end is connected to a second end of the connection rod. Further included is a lifting device for raising and lowering the lever.

Abstract: A method and automated apparatus for rapid non-invasive detection of a microbial agent in a test sample is described herein. The apparatus may include one or more means for automated loading, automated transfer and/or automated unloading of a specimen container. The apparatus also includes a detection system for receiving a detection container, e.g., container or vial, containing a biological sample and culture media. The detection system may also include one or more heated sources, holding structures or racks, and/or a detection unit for monitoring and/or interrogating the specimen container to detect whether the container is positive for the presence of a microbial agent therein. In other embodiment, the automated instrument may include one or more, bar code readers, scanners, cameras, and/or weighing stations to aid in scanning, reading, imaging and weighing of specimen containers within the system.

Abstract: A multi-layered implant and methods of forming the multi-layered implant are disclosed. The multi-layered implant includes a Metal Injection Molded body comprising a titanium alloy, a porous coating layer on a first surface of the Metal Injection Molded body, and a zirconium alloy layer on a second surface of the Metal Injection Molded body. The first surface and the second surface are on opposite sides of the Metal Injection Molded body. A zirconia layer may be formed over the zirconium alloy layer. The porous coating may be a titanium-based porous coating.

Abstract: The present invention is directed to a method and automated transfer means for transferring a container within an apparatus. The apparatus of the present invention may include a means for automated loading, a means for automated transfer and/or a means for automated unloading of a container (e.g., a specimen container). In one embodiment, the apparatus can be an automated detection apparatus for rapid non-invasive detection of a microbial agent in a test sample. The detection system also including a heated enclosure, a holding means or rack, and/or a detection unit for monitoring and/or interrogating the specimen container to detect whether the container is positive for the presence of a microbial agent. In other embodiment, the automated instrument may include one or more, bar code readers, scanners, cameras, and/or weighing stations to aid in scanning, reading, imaging and weighing of specimen containers within the system.

Abstract: A method and automated apparatus for rapid non-invasive detection of a microbial agent in a test sample is described herein. The apparatus may include one or more means for automated loading, automated transfer and/or automated unloading of a specimen container. The apparatus also includes a detection system for receiving a detection container, e.g., container or vial, containing a biological sample and culture media. The detection system may also include one or more heated sources, holding structures or racks, and/or a detection unit for monitoring and/or interrogating the specimen container to detect whether the container is positive for the presence of a microbial agent therein. In other embodiment, the automated instrument may include one or more, bar code readers, scanners, cameras, and/or weighing stations to aid in scanning, reading, imaging and weighing of specimen containers within the system.

Abstract: A method and automated apparatus for rapid non-invasive detection of a microbial agent in a test sample is described herein. The apparatus may include one or more means for automated loading, automated transfer and/or automated unloading of a specimen container. The apparatus also includes a detection system for receiving a detection container, e.g., container or vial, containing a biological sample and culture media. The detection system may also include one or more heated sources, holding structures or racks, and/or a detection unit for monitoring and/or interrogating the specimen container to detect whether the container is positive for the presence of a microbial agent therein. In other embodiment, the automated instrument may include one or more, bar code readers, scanners, cameras, and/or weighing stations to aid in scanning, reading, imaging and weighing of specimen containers within the system.

Abstract: The present invention is directed to a method and automated loading mechanism for loading an apparatus. The apparatus of the present invention may include a means for automated loading, a means for automated transfer and/or a means for automated unloading of a container (e.g., a specimen container). In one embodiment, the apparatus can be an automated detection apparatus for rapid non-invasive detection of a microbial agent in a test sample. The detection system also including a heated enclosure, a holding means or rack, and/or a detection unit for monitoring and/or interrogating the specimen container to detect whether the container is positive for the presence of a microbial agent. In other embodiment, the automated instrument may include one or more, bar code readers, scanners, cameras, and/or weighing stations to aid in scanning, reading, imaging and weighing of specimen containers within the system.

Abstract: The present invention provides a system and method for determining bilirubin levels in an individual based on skin coloration using a smartphone or other personal device and an attached ancillary apparatus. The device, such as a smartphone or tablet, is capable of storing and running software. The device is also coupled to both a camera and light source to obtain data regarding the skin's coloration. Software is installed on the device to control the light source and calculate bilirubin levels in the individual based on the input received from the camera. The ancillary apparatus is a mechanism surrounding the light source and camera that is placed on the skin of the individual when the system is in use. The ancillary apparatus thus creates a light tight seal between the skin, light source and camera, enabling the system to receive the most accurate data from the camera.

Abstract: An example method includes displaying a first control and a second control, wherein a touch associated with the controls results in moving an indicator through information in a first direction and in a second direction, in response to the detecting a first touch associated with the first control, moving the indicator in the first direction, and in response to detecting a second touch associated with the second control, moving the indicator in the first direction.

Abstract: The present invention provides a system and method for determining bilirubin levels in an individual based on skin coloration using a smartphone or other personal device and an attached ancillary apparatus. The device, such as a smartphone or tablet, is capable of storing and running software. The device is also coupled to both a camera and light source to obtain data regarding the skin's coloration. Software is installed on the device to control the light source and calculate bilirubin levels in the individual based on the input received from the camera. The ancillary apparatus is a mechanism surrounding the light source and camera that is placed on the skin of the individual when the system is in use. The ancillary apparatus thus creates a light tight seal between the skin, light source and camera, enabling the system to receive the most accurate data from the camera.

Abstract: The invention relates to a process for manufacturing a fixing device and a fixing device made by such a process. In particular, albeit not exclusively, the present invention relates a fixing device for application in fixing to concrete and like materials/substrates. The present invention therefore seeks to provide a fixing device for fixing to concrete, other like substrates which overcomes, or at least reduces some of the known problems of the prior art. The present invention also seeks to provide a fixing device which has enhanced corrosion resistance.

Abstract: The present invention is directed to a method and automated transfer means for transferring a container within an apparatus. The apparatus of the present invention may include a means for automated loading, a means for automated transfer and/or a means for automated unloading of a container (e.g., a specimen container). In one embodiment, the apparatus can be an automated detection apparatus for rapid non-invasive detection of a microbial agent in a test sample. The detection system also including a heated enclosure, a holding means or rack, and/or a detection unit for monitoring and/or interrogating the specimen container to detect whether the container is positive for the presence of a microbial agent. In other embodiment, the automated instrument may include one or more, bar code readers, scanners, cameras, and/or weighing stations to aid in scanning, reading, imaging and weighing of specimen containers within the system.