mhurhangee/ep-ind-claims huggingface dataset:
A system for monitoring physical assets in a monitored environment, the system comprising: monitoring devices attached to a plurality of monitored physical assets, and configured to collect monitoring data from the plurality of monitored physical assets; a first access point, configured to receive the collected monitoring data from the monitoring devices and to process the collected monitoring data; an Internet of Things (IoT) link established between each of the monitoring devices and the first access point; an IoT communication protocol overlay that enables synchronized uplinks from the monitoring devices, attached to the plurality of monitored physical assets, to the first access point via the IoT links, wherein the IoT communication protocol overlay governs transmissions of collected monitoring data by the monitoring devices, attached to the plurality of monitored physical assets, to the first access point; a hub/cloud platform configured to: receive the processed monitoring data from the first access point; perform data analytics on the processed monitoring data; and provide a user interface that enables a user to monitor the plurality of monitored physical assets; and a hub configured to establish an interface between the first access point and a cloud environment, wherein the hub/cloud platform jointly executes on the hub and in the cloud environment to provide analytics services to the user. monitoring devices attached to a plurality of monitored physical assets, and configured to collect monitoring data from the plurality of monitored physical assets; a first access point, configured to receive the collected monitoring data from the monitoring devices and to process the collected monitoring data; an Internet of Things (IoT) link established between each of the monitoring devices and the first access point; an IoT communication protocol overlay that enables synchronized uplinks from the monitoring devices, attached to the plurality of monitored physical assets, to the first access point via the IoT links, wherein the IoT communication protocol overlay governs transmissions of collected monitoring data by the monitoring devices, attached to the plurality of monitored physical assets, to the first access point; a hub/cloud platform configured to: receive the processed monitoring data from the first access point; perform data analytics on the processed monitoring data; and provide a user interface that enables a user to monitor the plurality of monitored physical assets; and receive the processed monitoring data from the first access point; perform data analytics on the processed monitoring data; and provide a user interface that enables a user to monitor the plurality of monitored physical assets; and a hub configured to establish an interface between the first access point and a cloud environment, wherein the hub/cloud platform jointly executes on the hub and in the cloud environment to provide analytics services to the user.
Method for locking and unlocking a throw-object with a spring-strained cocking piece, arranged at the housing of the throw-object, acting at an ignition chain, characterized in that the cocking piece is held in the locking position by a linearly shiftable shaped piece (1a, 1b, 1c) in the trigger and throw direction, which is, for the ignition of the throw-object, disengaged in the first measure of said shaped piece (1a, 1b, ic) by a manual, orthogonal towards its top area oriented shift from the locking position and being linearly shifted in the second measure in the trigger and throw direction while maintaining the disengaged state and being removed from the housing of the throw-object and other locking devices manually unlocking the cocking piece for activating the ignition chain.
A railcar braking device, comprising: an air brake that applies a braking force to a wheel joined to an axle shaft with a pressure of air and includes a discharge valve for reducing the pressure of air; and a controller that, when there is a predetermined difference or larger in rotational speed between a plurality of axle shafts, controls the air brake to only discharge air from the air brake by controlling the discharge valve and to release, for a predetermined period of time, the braking force applied to the wheel joined to the axle shaft rotating at a relatively low speed, characterized in that the controller controls the air brake to maintain a state in which the braking force is released for the predetermined period of time irrespective of variation in the rotational speed of the axle shaft rotating at the relatively low speed, and the controller generates, after an elapse of a predetermined period of time, the braking force for the wheel for which the braking force has been released. an air brake that applies a braking force to a wheel joined to an axle shaft with a pressure of air and includes a discharge valve for reducing the pressure of air; and a controller that, when there is a predetermined difference or larger in rotational speed between a plurality of axle shafts, controls the air brake to only discharge air from the air brake by controlling the discharge valve and to release, for a predetermined period of time, the braking force applied to the wheel joined to the axle shaft rotating at a relatively low speed, characterized in that the controller controls the air brake to maintain a state in which the braking force is released for the predetermined period of time irrespective of variation in the rotational speed of the axle shaft rotating at the relatively low speed, and the controller generates, after an elapse of a predetermined period of time, the braking force for the wheel for which the braking force has been released.
A method in a system including at least one host server and at least one interface card configured to interface with a network or a storage, wherein the at least one host server comprises a processor having a first instruction set architecture, ISA, and the at least one interface card comprises a processor having a second ISA, the method comprising: designating at least one type of resource, associated with the at least one host server for harvesting by compute entities (142, 144, 146), the compute entities (142, 144, 146) configured for execution using the processor having the second ISA, wherein the at least one host server is configured to execute compute entities (132, 134, 136) requiring execution by the processor having the first ISA; and in response to a request for accessing the at least one type of resource by a compute entity, executing on the processor having the second ISA, automatically allowing the compute entity to access the at least one type of resource associated with the at least one host server. designating at least one type of resource, associated with the at least one host server for harvesting by compute entities (142, 144, 146), the compute entities (142, 144, 146) configured for execution using the processor having the second ISA, wherein the at least one host server is configured to execute compute entities (132, 134, 136) requiring execution by the processor having the first ISA; and in response to a request for accessing the at least one type of resource by a compute entity, executing on the processor having the second ISA, automatically allowing the compute entity to access the at least one type of resource associated with the at least one host server.
A vertebral implant comprising: a stuffing including: a perfusion device having a proximal end being an injection port, the perfusion device having at least one perfusion port; and a three-dimensional porous device covering at least part of the perfusion device and covering the at least one perfusion port (111; a hollow tube having a distal end being connected with the proximal end of the stuffing by a detachable structure; and a medical filler being filled into the three-dimensional porous device via the hollow tube and the perfusion device; characterized in that the three-dimensional porous device is a three-dimensional connecting pore structure, and in that the three-dimensional porous device is capable of automatically expanding after being compressed. a stuffing including: a perfusion device having a proximal end being an injection port, the perfusion device having at least one perfusion port; and a three-dimensional porous device covering at least part of the perfusion device and covering the at least one perfusion port (111; a perfusion device having a proximal end being an injection port, the perfusion device having at least one perfusion port; and a three-dimensional porous device covering at least part of the perfusion device and covering the at least one perfusion port (111; a hollow tube having a distal end being connected with the proximal end of the stuffing by a detachable structure; and a medical filler being filled into the three-dimensional porous device via the hollow tube and the perfusion device; characterized in that the three-dimensional porous device is a three-dimensional connecting pore structure, and in that the three-dimensional porous device is capable of automatically expanding after being compressed.
A protection circuit for a hybrid Active Neutral Point Clamped (ANPC) type power converter with cascaded semiconductors (120, 130), wherein a polarity selection stage of the converter comprises IGBTs, and wherein at least two flying capacitor cells, arranged in the power converter, comprise each an arrangement of two MOSFET or SiCMOSFET type transistors and a flying capacitor; the protection circuit comprising: at least one comparator circuit (210, 310, 410, 420, 510), adapted to monitor a voltage characteristic on a collector-emitter path of each of the IGBTs arranged in the polarity selection stage of the converter, and to monitor a voltage characteristic on the flying capacitor of each of the at least two flying capacitor cells arranged in the power converter; the at least one comparator circuit (210, 310, 410, 420) is further adapted to output an electrical signal, representing the voltage characteristic of the IGBTs and of the flying capacitor of each of the at least two flying capacitor cells to at least one evaluation unit (220, 230, 320, 450, 520); wherein the at least one evaluation unit (220, 230, 320, 450, 520) is further adapted to evaluate the result from the at least one comparator circuit (210, 310, 410, 420) and to deactivate the IGBTs of the polarity selection stage in case that the voltage characteristic of any of the IGBTs and/or the flying capacitors of any of the flying capacitor cells deviate from a predetermined threshold. at least one comparator circuit (210, 310, 410, 420, 510), adapted to monitor a voltage characteristic on a collector-emitter path of each of the IGBTs arranged in the polarity selection stage of the converter, and to monitor a voltage characteristic on the flying capacitor of each of the at least two flying capacitor cells arranged in the power converter; the at least one comparator circuit (210, 310, 410, 420) is further adapted to output an electrical signal, representing the voltage characteristic of the IGBTs and of the flying capacitor of each of the at least two flying capacitor cells to at least one evaluation unit (220, 230, 320, 450, 520); wherein the at least one evaluation unit (220, 230, 320, 450, 520) is further adapted to evaluate the result from the at least one comparator circuit (210, 310, 410, 420) and to deactivate the IGBTs of the polarity selection stage in case that the voltage characteristic of any of the IGBTs and/or the flying capacitors of any of the flying capacitor cells deviate from a predetermined threshold.
Sluice gate, intended to withstand a pressure exerted by a liquid, the sluice gate comprising a generally flat shell plate, a plurality of thin webs extending along the shell plate and substantially parallel to one another, each web being secured to the shell plate, each web being pierced with a plurality of separate cutouts, characterized in that the sluice gate comprises at least one stiffener resulting from the assembly of a plurality of elements which are aligned along a longitudinal axis of the stiffener and which each extend between the webs, without passing through the webs, and in that each element is secured to a face (25, 26) of at least one web, around one of the cutouts coaxial with the stiffener.
An anti-MUC16 antibody or an antigen-binding fragment thereof, wherein the antibody or antigen-binding fragment thereof: (a) immunospecifically binds to a cell recombinantly expressing a first form of MUC16, which first form is glycosylated, and wherein the amino acid sequence of the first form is SEQ ID NO:133; (b) immunospecifically binds to the amino acid sequence CGTQLQNFTLDRSSV (SEQ ID NO:131), wherein amino acid residue number 7 of CGTQLQNFTLDRSSV (SEQ ID NO:131) is glycosylated; (c) lacks immunospecific binding to a cell recombinantly expressing a second form of MUC16, which second form is unglycosylated, and wherein the amino acid sequence of the second form is SEQ ID NO: 139; (d) lacks immunospecific binding to a cell recombinantly expressing a third form of MUC16, which third form is glycosylated, and wherein the amino acid sequence of the third form is SEQ ID NO: 139; and (e) inhibits matrigel invasion in vitro of cells recombinantly expressing said first form of MUC16. (a) immunospecifically binds to a cell recombinantly expressing a first form of MUC16, which first form is glycosylated, and wherein the amino acid sequence of the first form is SEQ ID NO:133; (b) immunospecifically binds to the amino acid sequence CGTQLQNFTLDRSSV (SEQ ID NO:131), wherein amino acid residue number 7 of CGTQLQNFTLDRSSV (SEQ ID NO:131) is glycosylated; (c) lacks immunospecific binding to a cell recombinantly expressing a second form of MUC16, which second form is unglycosylated, and wherein the amino acid sequence of the second form is SEQ ID NO: 139; (d) lacks immunospecific binding to a cell recombinantly expressing a third form of MUC16, which third form is glycosylated, and wherein the amino acid sequence of the third form is SEQ ID NO: 139; and (e) inhibits matrigel invasion in vitro of cells recombinantly expressing said first form of MUC16.
Downhole apparatus for location in a fluid-filled bore, the apparatus comprising a tubular body comprising a plurality of cylindrical chambers for containing a compressible substance, pistons mounted in the cylindrical chambers, and a lock arrangement having a locking configuration for retaining the pistons in the cylindrical chambers and an unlocked configuration in which bore fluid pressure translates the pistons through the cylindrical chambers, wherein the lock arrangement comprises a switch coupled to a receiver configured to receive a signal to initiate the process of changing the lock arrangement from the locked configuration to the unlocked configuration.
A method for data transfer between a host and a device (D1, D2) through data communication pipes (CTRL1, CTRL2, B_I1, B_I2, B_I3, B_O1, B_O2, B_O3) wherein the method is implemented by said host or by said device, said host or said device comprising a memory, said memory comprises multiple memory segments (HMC1, HMC2, HMB1, HMB2, HMB3, HMB4), the method comprising: each memory segment of said multiple memory segments is assigned to at maximum a single data communication pipe of said data communication pipes at a time; at least one memory segment of said multiple memory segments is allocated to and shared by at least one data communication pipe pair comprising an input data communication pipe and an output data communication pipe; said at least one memory segment is allocated either to said output data communication pipe or either to said input data communication pipe of said at least one input data communication pipe pair at a time; said allocation is dependent on a direction, incoming or outgoing, of said data transfer between said host and said device. each memory segment of said multiple memory segments is assigned to at maximum a single data communication pipe of said data communication pipes at a time; at least one memory segment of said multiple memory segments is allocated to and shared by at least one data communication pipe pair comprising an input data communication pipe and an output data communication pipe; said at least one memory segment is allocated either to said output data communication pipe or either to said input data communication pipe of said at least one input data communication pipe pair at a time; said allocation is dependent on a direction, incoming or outgoing, of said data transfer between said host and said device.
A wavelength switch system (300, 500) for dynamic switching of multi-channel optical signals having spectral channels of different wavelengths, comprising: a) a plurality of fiber collimator elements (304, 504) for optical signals having spectral channels, each fiber collimator element (304, 504) comprising two or more fiber collimator ports and two or more separate optical paths whereby the fiber collimator ports are configured to receive and transmit two or more corresponding independent optical signals at a time; b) a wavelength separator (307, 507) configured to separate an optical signal into spectral channels; c) relay optics (305, 405) optically coupled between the plurality of fiber collimator elements (304, 504) and the wavelength separator (307, 507), wherein the relay optics (305, 405) are configured to direct optical signals originating from a first fiber collimator port towards a common point on a wavelength separator (307, 507) but at different angles; and d) two or more independent arrays of channel deflection elements (311, 312, 511, 512) optically coupled to the wavelength separator (307, 507), wherein each array of channel deflection elements (311, 312, 511, 512) is configured to selectively direct a group of spectral channels corresponding to one of the optical signals originating from the first collimator port toward a second fiber collimator port; e) focusing optics optically coupled between the wavelength separator (307, 507) and the arrays of channel deflection elements (311, 312, 511, 512). a) a plurality of fiber collimator elements (304, 504) for optical signals having spectral channels, each fiber collimator element (304, 504) comprising two or more fiber collimator ports and two or more separate optical paths whereby the fiber collimator ports are configured to receive and transmit two or more corresponding independent optical signals at a time; b) a wavelength separator (307, 507) configured to separate an optical signal into spectral channels; c) relay optics (305, 405) optically coupled between the plurality of fiber collimator elements (304, 504) and the wavelength separator (307, 507), wherein the relay optics (305, 405) are configured to direct optical signals originating from a first fiber collimator port towards a common point on a wavelength separator (307, 507) but at different angles; and d) two or more independent arrays of channel deflection elements (311, 312, 511, 512) optically coupled to the wavelength separator (307, 507), wherein each array of channel deflection elements (311, 312, 511, 512) is configured to selectively direct a group of spectral channels corresponding to one of the optical signals originating from the first collimator port toward a second fiber collimator port; e) focusing optics optically coupled between the wavelength separator (307, 507) and the arrays of channel deflection elements (311, 312, 511, 512).
A computer implemented method for selective volume rendering of 3D volumetric data from a patient, the method comprising: - obtaining a 3D volumetric data set comprising data for a first and a second anatomical structure in the patient's body; - obtaining a first digital 3D representation, wherein the first digital 3D representation comprises a first surface scan having a first portion with a topography surface of the first anatomical structure; - defining a bounding box having a first clipping surface and a second clipping surface, the bounding box defining a portion of the 3D volumetric data set to be used in volume rendering; - replacing the first clipping surface at least partly with the topography surface of the first anatomical structure; and - generating a 2D projection of the first anatomical structure by volume rendering of the set of 3D volumetric data defined by the bounding box, where the replaced first clipping surface is applied to exclude 3D volumetric data relating to the second anatomical structure. - obtaining a 3D volumetric data set comprising data for a first and a second anatomical structure in the patient's body; - obtaining a first digital 3D representation, wherein the first digital 3D representation comprises a first surface scan having a first portion with a topography surface of the first anatomical structure; - defining a bounding box having a first clipping surface and a second clipping surface, the bounding box defining a portion of the 3D volumetric data set to be used in volume rendering; - replacing the first clipping surface at least partly with the topography surface of the first anatomical structure; and - generating a 2D projection of the first anatomical structure by volume rendering of the set of 3D volumetric data defined by the bounding box, where the replaced first clipping surface is applied to exclude 3D volumetric data relating to the second anatomical structure.