mhurhangee/ep-ind-claims huggingface dataset:
A motor vehicle with a lighting means which comprises one or more multi-aperture projection displays, wherein a respective multi-aperture projection display contains an illumination means for illuminating a large number of object structures and an array of projection lenses, wherein each projection lens is associated with an object structure which is projected by the respective projection lens into at least one projection plane (5, 5', 5") which extends perpendicularly and/or obliquely to the ground in the vicinity of the motor vehicle, wherein the multi-aperture projection display or displays are configured such that by structurally superposing the projected object structures an overall image with a symbol set (S1, S2, S3) which can be perceived by the driver of the motor vehicle is produced in the at least one projection plane (5, 5', 5"), characterised in that one or more individual multi-aperture projection displays are configured such that with the respective individual multi-aperture projection display different overall images with a different symbol set (S1, S2, S3) which can be perceived by the driver of the motor vehicle are generated in a plurality of projection planes (5, 5', 5") at different distances (d1, d2, d3) from the motor vehicle.
A flexible endoscope, comprising: a handle (102, 710, 712, 714, 716); a flexible shaft having a distal end and a proximal end; a coupling mechanism releasably attaching said handle (102, 710, 712, 714, 716) to the proximal end of said flexible shaft; an illumination unit disposed in said flexible shaft, said illumination unit providing light to an area in front of the distal end of said flexible shaft; and an imaging unit disposed in said flexible shaft, said imaging unit generating image data of the area in front of the distal end of said flexible shaft; said coupling mechanism includes an electrical channel for transmitting electrical power to said illumination unit and said imaging unit, and a data channel for transmitting the image data from said imaging unit characterized in that a check valve (124, 126) is disposed on said shaft, said check valve (124, 126) communicatively connecting an interior of said shaft to outside and being adapted to indicate a presence of fluid in the interior and discharge any fluid that may have entered into the shaft; and said check valve (124, 126) incorporates a vent valve that provides an opening for the release of gas-based fluids contained within the interior of said shaft and for adjusting the pressure inside the interior of said shaft. a handle (102, 710, 712, 714, 716); a flexible shaft having a distal end and a proximal end; a coupling mechanism releasably attaching said handle (102, 710, 712, 714, 716) to the proximal end of said flexible shaft; an illumination unit disposed in said flexible shaft, said illumination unit providing light to an area in front of the distal end of said flexible shaft; and an imaging unit disposed in said flexible shaft, said imaging unit generating image data of the area in front of the distal end of said flexible shaft; said coupling mechanism includes an electrical channel for transmitting electrical power to said illumination unit and said imaging unit, and a data channel for transmitting the image data from said imaging unit characterized in that a check valve (124, 126) is disposed on said shaft, said check valve (124, 126) communicatively connecting an interior of said shaft to outside and being adapted to indicate a presence of fluid in the interior and discharge any fluid that may have entered into the shaft; and said check valve (124, 126) incorporates a vent valve that provides an opening for the release of gas-based fluids contained within the interior of said shaft and for adjusting the pressure inside the interior of said shaft.
A breakaway safety system for a vessel, said vessel Including (a) at least one hull; (b) one or more engine arrangements supported by said at least one hull; and (c) one or more propeller extensions mounted to said at least one hull and coupled to receive motive power from said one or more engine arrangements in operation; characterized in that said safety system includes: one or more sensors mounted to said vessel for measuring operating parameters of said vessel and for generating one or more corresponding input signals; a control unit for receiving said one or more corresponding input signals, and for processing said one or more input signals to generate at least one control output (Q,A); one or more fracturable regions for mounting said one or more propeller extensions to said at least one hull; and one or more fracturing devices (200, 300, 400, 500) operable to fracture said one or more fracturable regions for jettisoning associated one or more propeller extensions In an event that said control unit detects a potentially hazardous impact event and activates its at least one control output (Q, A) accordingly. (a) at least one hull; (b) one or more engine arrangements supported by said at least one hull; and (c) one or more propeller extensions mounted to said at least one hull and coupled to receive motive power from said one or more engine arrangements in operation; one or more sensors mounted to said vessel for measuring operating parameters of said vessel and for generating one or more corresponding input signals; a control unit for receiving said one or more corresponding input signals, and for processing said one or more input signals to generate at least one control output (Q,A); one or more fracturable regions for mounting said one or more propeller extensions to said at least one hull; and one or more fracturing devices (200, 300, 400, 500) operable to fracture said one or more fracturable regions for jettisoning associated one or more propeller extensions In an event that said control unit detects a potentially hazardous impact event and activates its at least one control output (Q, A) accordingly.
A hot spot detection system, including: a segmentation unit configured to segment an anatomical first image representation into regions corresponding to anatomical structures of a subject; a hot spot detection unit configured to detect regions of high tracer uptake from a functional second image representation; a classification unit configured to classify the regions of high tracer uptake according to their position relative to the anatomical structures segmented from the anatomical first image representation; an uptake unit configured to examine segmented regions of the first image representation for at least one of homogeneity and uptake to identify normal and abnormal regions; a suppression unit configured to suppress regions of high tracer uptake in the functional second image representation based on results of the classification unit, wherein said regions being suppressed correspond to anatomical structures identified as normal; and an identification unit configured to identify unsuppressed regions of high uptake as one of potential lesion and non-potential lesion, characterized in that the system further includes: a normalization unit configured to compare the metabolic activity of an unsuppressed high intensity region with the metabolic activity of regions identified as normal by the uptake unit. a segmentation unit configured to segment an anatomical first image representation into regions corresponding to anatomical structures of a subject; a hot spot detection unit configured to detect regions of high tracer uptake from a functional second image representation; a classification unit configured to classify the regions of high tracer uptake according to their position relative to the anatomical structures segmented from the anatomical first image representation; an uptake unit configured to examine segmented regions of the first image representation for at least one of homogeneity and uptake to identify normal and abnormal regions; a suppression unit configured to suppress regions of high tracer uptake in the functional second image representation based on results of the classification unit, wherein said regions being suppressed correspond to anatomical structures identified as normal; and an identification unit configured to identify unsuppressed regions of high uptake as one of potential lesion and non-potential lesion, characterized in that the system further includes: a normalization unit configured to compare the metabolic activity of an unsuppressed high intensity region with the metabolic activity of regions identified as normal by the uptake unit. a normalization unit configured to compare the metabolic activity of an unsuppressed high intensity region with the metabolic activity of regions identified as normal by the uptake unit.
Method for controlling a heat-generating plant for heating and/or cooling a building, wherein the heat-generating plant comprises - a pellet heating boiler which is designed for burning biogenic solid fuels and for heating a first heat carrier, in particular water and/or air; and - a heat pump (32, 51) for heating and/or cooling a second heat carrier, in particular water and/or air, wherein the method comprises the steps: - determining an air temperature, wherein the determined air temperature comprises an outside temperature and/or a room temperature; - determining a switchover point on the basis of a power limit of the pellet heating boiler and of the heat pump (32, 51), wherein the power limit of the pellet heating boiler is dependent on the efficiency of the pellet heating boiler, and/or the power limit of the heat pump (32, 51) is dependent on the efficiency of the heat pump (32, 51); and - controlling the pellet heating boiler and the heat pump (32, 51) in a manner dependent on the determined air temperature and the determined switchover point, wherein either the pellet heating boiler or the heat pump (32, 51) is operated. - a pellet heating boiler which is designed for burning biogenic solid fuels and for heating a first heat carrier, in particular water and/or air; and - a heat pump (32, 51) for heating and/or cooling a second heat carrier, in particular water and/or air, wherein the method comprises the steps: - determining an air temperature, wherein the determined air temperature comprises an outside temperature and/or a room temperature; - determining a switchover point on the basis of a power limit of the pellet heating boiler and of the heat pump (32, 51), wherein the power limit of the pellet heating boiler is dependent on the efficiency of the pellet heating boiler, and/or the power limit of the heat pump (32, 51) is dependent on the efficiency of the heat pump (32, 51); and - controlling the pellet heating boiler and the heat pump (32, 51) in a manner dependent on the determined air temperature and the determined switchover point, wherein either the pellet heating boiler or the heat pump (32, 51) is operated.
A processor comprising: at least one core; and a cache control circuit coupled to the at least one core, wherein the cache control circuit is to: receive a remote atomic operation, RAO, request from a requester, wherein a RAO is an atomic operation that is executed outside the processor; characterized in that the cache control circuit is further to: send the RAO request and data associated with the RAO request to a destination device (145, 160), wherein the destination device (145, 160) is to execute the RAO using the data and destination data obtained by the destination device (145, 160) and store a result of the RAO to a destination location; and receive a completion for the RAO from the destination device (145, 160). at least one core; and a cache control circuit coupled to the at least one core, wherein the cache control circuit is to: receive a remote atomic operation, RAO, request from a requester, wherein a RAO is an atomic operation that is executed outside the processor; characterized in that the cache control circuit is further to: send the RAO request and data associated with the RAO request to a destination device (145, 160), wherein the destination device (145, 160) is to execute the RAO using the data and destination data obtained by the destination device (145, 160) and store a result of the RAO to a destination location; and receive a completion for the RAO from the destination device (145, 160). send the RAO request and data associated with the RAO request to a destination device (145, 160), wherein the destination device (145, 160) is to execute the RAO using the data and destination data obtained by the destination device (145, 160) and store a result of the RAO to a destination location; and receive a completion for the RAO from the destination device (145, 160).
A method of producing an insulated structure, the method comprising: introducing a raw material into a feed hopper; compacting the raw material with at least one roller (80, 84, 88); directing the raw material that has been compacted to a crusher; directing the raw material that has been crushed to a granulator; collecting the raw material that has been compacted and exposed to both the crusher and the granulator as a core material precursor; characterized by filtering the core material precursor with a filter member; wherein a portion of the core material precursor that remains on the filter member represents a core material for use in the insulated structure. introducing a raw material into a feed hopper; compacting the raw material with at least one roller (80, 84, 88); directing the raw material that has been compacted to a crusher; directing the raw material that has been crushed to a granulator; collecting the raw material that has been compacted and exposed to both the crusher and the granulator as a core material precursor; characterized by filtering the core material precursor with a filter member; wherein a portion of the core material precursor that remains on the filter member represents a core material for use in the insulated structure.
Electromagnetically actuated valve, comprising: - an axially displaceable valve slide (2, 3, 4) which is designed, in a closure position, to close, with a first axial end, a sealing seat in a fluid channel of the valve, - a sealing element with a corrugated bellows, which is arranged between the sealing seat and the first axial end of the valve slide (2, 3, 4) and separates the valve slide (2, 3, 4) from the fluid channel in a fluid-tight manner, - an axially movable magnet armature as part of the valve slide (2, 3, 4), and - an electrically energizable coil, wherein the magnet armature is movable, by electrical energization of the coil, counter to a mechanical load acting on the magnet armature, so as to move the valve slide (2, 3, 4) into the closure position or from the closure position, characterized in that the valve slide (2, 3, 4), at at least one of its axial ends (8, 9), is oriented in a radial direction and mounted movably in an axial direction by means of at least one spring element, wherein the valve slide (2, 3, 4), at the second axial end opposite the first axial end, has a guide pin which protrudes in an axial direction away from the magnet armature and which has a surface with a reduced diameter in comparison with the external diameter of the magnet armature, wherein the valve slide (2, 3, 4) is mounted slidably in an axial direction on this surface of the guide pin, and the valve slide (2, 3, 4), on the side of the magnet armature facing toward the first axial end of the valve slide (2, 3, 4), is oriented in a radial direction and mounted movably in an axial direction by means of the at least one spring element. - an axially displaceable valve slide (2, 3, 4) which is designed, in a closure position, to close, with a first axial end, a sealing seat in a fluid channel of the valve, - a sealing element with a corrugated bellows, which is arranged between the sealing seat and the first axial end of the valve slide (2, 3, 4) and separates the valve slide (2, 3, 4) from the fluid channel in a fluid-tight manner, - an axially movable magnet armature as part of the valve slide (2, 3, 4), and - an electrically energizable coil,
A vibrating machine for producing molded bodies by means of compacting granular raw mixtures, in particular for producing anodes and/or cathodes for the electrolytic smelting process to produce aluminium, said vibrating machine having a vibrating table, which is mounted on springs so as to be able to oscillate, onto which a molding box, where applicable with cover, can be placed and clamped, and once the raw mixture has been filled into the molding box, a cover weight can be introduced into the molding box, wherein the clamping device is produced by at least two clamping closures which are arranged at the sides outside the molding box and in each case include the components - pivot bracket, double-acting hydraulic pivot cylinder, two-armed rocker arm and resilient element, characterized by the following features of the clamping closure: a) the pivot bracket, which is pivotally mounted by way of the lower end thereof on the vibrating table, has on the upper end thereof a cranking which is directed outward and faces away from the molding box b) at a spacing below the cranking of the pivot bracket, the two-armed rocker arm is pivotally connected to said pivot bracket, wherein the rocker arm has an inner part that cooperates with the molding box/the cover and an outer part, with which the piston rod of the double-acting hydraulic pivot cylinder pivotally mounted on the vibrating table cooperates c) a compression spring is inserted in the space between the cranking of the pivot bracket and the top side of the outer part of the two-armed rocker arm, said compression spring releasing the rocker arm from its position closing the clamping closure when the pressure in the hydraulic pivot cylinder is relieved. a) the pivot bracket, which is pivotally mounted by way of the lower end thereof on the vibrating table, has on the upper end thereof a cranking which is directed outward and faces away from the molding box b) at a spacing below the cranking of the pivot bracket, the two-armed rocker arm is pivotally connected to said pivot bracket, wherein the rocker arm has an inner part that cooperates with the molding box/the cover and an outer part, with which the piston rod of the double-acting hydraulic pivot cylinder pivotally mounted on the vibrating table cooperates c) a compression spring is inserted in the space between the cranking of the pivot bracket and the top side of the outer part of the two-armed rocker arm, said compression spring releasing the rocker arm from its position closing the clamping closure when the pressure in the hydraulic pivot cylinder is relieved.
Sealing disc for sealing, in a conductor line-like manner, a supply opening for a line, such as a cable or a cable protecting tube, into a tube for installing lines or into a housing, comprising: - a circumferential pressing surface (109, 209, 309, 409, 509, 609, 709, 809) providing a sealing contact to the tube or to the housing; - at least one core (103, 203, 303, 403, 503, 603, 703, 803) which is removable for forming a feed-through opening for the line; and - at least one slot (105, 205, 305, 405, 605, 705, 805), extending from the circumferential pressing surface (109, 209, 309, 409, 509, 609, 709, 809) radially to the core through the axial thickness of the sealing disc (101, 201, 301, 401, 501, 601, 701, 801), through which the line can be inserted radially, wherein the slot (105, 205, 305, 405, 605, 705, 805) is formed by shape-complementary slot boundary surfaces (111, 113, 211, 213, 311, 313, 411, 413, 611, 613, 711, 713, 811, 813) resting on each other along a tie-in profile, wherein one of the slot boundary surfaces (111, 113, 211, 213, 311, 313, 411, 413, 611, 613, 711, 713, 811, 813) forms a tie-in recess and the other slot boundary surface forms a tie-in projection, characterized in that the recess depth or the projection height in the circumferential direction is 1/5 to 1/3 of the sealing disc diameter. - a circumferential pressing surface (109, 209, 309, 409, 509, 609, 709, 809) providing a sealing contact to the tube or to the housing; - at least one core (103, 203, 303, 403, 503, 603, 703, 803) which is removable for forming a feed-through opening for the line; and - at least one slot (105, 205, 305, 405, 605, 705, 805), extending from the circumferential pressing surface (109, 209, 309, 409, 509, 609, 709, 809) radially to the core through the axial thickness of the sealing disc (101, 201, 301, 401, 501, 601, 701, 801), through which the line can be inserted radially,
A dielectric composition comprising a complex oxide represented by the formula of xAO-yB'O-zB" 2 O 5 as the main component, wherein, A represents at least one element selected from the group consisting of Ba, Ca and Sr, B' represents at least one element selected from the group consisting of Mg and Ni, B" represents at least one element selected from the group consisting of Nb and Ta, and x, y and z meet the following conditions, x + y + z = 1.000, 0.375 ≤ x ≤ 0.563, 0.250 ≤ y ≤ 0.500, and x / 3 ≤ z ≤ x / 3 + 1 / 9.
An article comprising: a silicon oxycarbide-based layer having Si, O, and C in a covalently bonded network, the silicon oxycarbide-based layer having first and second opposed surfaces; and a calcium-magnesium alumino-silicate-based layer interfaced with the first surface of the silicon oxycarbide-based layer; and an underlying substrate interfaced with the second surface of the silicon oxycarbide-based layer. a silicon oxycarbide-based layer having Si, O, and C in a covalently bonded network, the silicon oxycarbide-based layer having first and second opposed surfaces; and a calcium-magnesium alumino-silicate-based layer interfaced with the first surface of the silicon oxycarbide-based layer; and an underlying substrate interfaced with the second surface of the silicon oxycarbide-based layer.
A method of operating a drive motor of a robot arm with a maximum dynamic torque, comprising the following steps: defining a maximum permissible desired torque value T stat of a drive element, determining an amount of a loss torque T loss of the drive train caused by inertial losses and/or other losses, determining a new maximum permissible desired torque value T dyn by increasing the maximum permissible desired torque value T stat in dependence on the amount of the loss torque T loss, and accelerating the drive motor with a dynamic torque T total limited by the new maximum permissible desired torque value T dyn. defining a maximum permissible desired torque value T stat of a drive element, determining an amount of a loss torque T loss of the drive train caused by inertial losses and/or other losses, determining a new maximum permissible desired torque value T dyn by increasing the maximum permissible desired torque value T stat in dependence on the amount of the loss torque T loss, and accelerating the drive motor with a dynamic torque T total limited by the new maximum permissible desired torque value T dyn.
A medical device comprising a biocompatible composition comprising a poly-4-hydroxybutyrate (P4HB) homopolymer produced by a transgenic fermentation process, having a weight average molecular weight between 1,000 and 800,000 Da, and up to 72% by weight or 50% by volume of the composition of a resorbable bioceramic having a size distribution between 0.1 and 500 microns, and having a tensile modulus of >0.34 GPa (>50,000 psi), wherein the device is selected from the group consisting of a suture anchor, screw, pin, bone plate, interference screw, tack, fastener, rivets, staples, tissue engineering scaffold, rotator cuff repair device, meniscus repair device, guided tissue repair/regeneration device, articular cartilage repair device, tendon repair device, ligament repair device, fixation device for an implant, fixation device for a plastic surgery device including facial and breast cosmetic and reconstructive devices, fixation device for a surgical mesh, facial reconstructive device, spinal fusion device, device for treatment of osteoarthritis, imaging device, and bone graft substitute.