mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: identifying a request from a user device to access data on a storage server; determining, by a router, a sensitivity level of response data for a response to the request; determining, by the router, security context of the response, wherein the security context comprises a security level of the user device that is to receive the response, a security level of network elements that are associated with the response, and a security level of the destination network that is associated with the response; determining, by the router, a routing action to perform for the response by applying a policy to the sensitivity level of the response data and the security context of the response; and executing, by the router, the routing action for the response, wherein executing the routing action comprises selecting, based on the sensitivity level of the response data and the security context of the response, one or more router paths for sending the response to the user device if the user device is not blocked from accessing the response data, wherein, when the sensitivity level of the response data requires a secure router path, the selected one or more router paths include a secure router that is in closest proximity to the user device; and sending the response data to the user device using one or more routers in the one or more router paths. identifying a request from a user device to access data on a storage server; determining, by a router, a sensitivity level of response data for a response to the request; determining, by the router, security context of the response, wherein the security context comprises a security level of the user device that is to receive the response, a security level of network elements that are associated with the response, and a security level of the destination network that is associated with the response; determining, by the router, a routing action to perform for the response by applying a policy to the sensitivity level of the response data and the security context of the response; and executing, by the router, the routing action for the response, wherein executing the routing action comprises selecting, based on the sensitivity level of the response data and the security context of the response, one or more router paths for sending the response to the user device if the user device is not blocked from accessing the response data, wherein, when the sensitivity level of the response data requires a secure router path, the selected one or more router paths include a secure router that is in closest proximity to the user device; and sending the response data to the user device using one or more routers in the one or more router paths.
A medical container connectable to a syringe, comprising: a tube body having a tubular shape and including an inner peripheral portion inside the tube body, a mouth section through which liquid can enter and exit a distal end portion, a proximal-end opening at a proximal end section, and a proximal-end edge portion surrounding the proximal end opening, a plug body that seals the mouth section, a bag body that has a bag-like shape and includes an edge portion which is tightly fixed to the proximal-end edge portion and seals the proximal end opening, and a reversing part which is surrounded by the edge portion and has flexibility, and a space for containing a medicine defined by the tube body, the plug body, and the bag body, wherein the reversing part is configured to reverse inside/outside when the liquid enters and exits the space through the mouth section, by which the reversing part can take a first state in which the reversing part expands toward a distal end side, and a second state in which the reversing part expands toward the proximal end side, and the reversing part being positioned inside the tube body in the first state and protruding from the proximal end opening in the second state, characterized in that the reversing part is configured such that in both the first state and the second state, the reversing part is separated from the inner peripheral portion of the tube body. a tube body having a tubular shape and including an inner peripheral portion inside the tube body, a mouth section through which liquid can enter and exit a distal end portion, a proximal-end opening at a proximal end section, and a proximal-end edge portion surrounding the proximal end opening, a plug body that seals the mouth section, a bag body that has a bag-like shape and includes an edge portion which is tightly fixed to the proximal-end edge portion and seals the proximal end opening, and a reversing part which is surrounded by the edge portion and has flexibility, and a space for containing a medicine defined by the tube body, the plug body, and the bag body, wherein the reversing part is configured to reverse inside/outside when the liquid enters and exits the space through the mouth section, by which the reversing part can take a first state in which the reversing part expands toward a distal end side, and a second state in which the reversing part expands toward the proximal end side, and the reversing part being positioned inside the tube body in the first state and protruding from the proximal end opening in the second state, characterized in that the reversing part is configured such that in both the first state and the second state, the reversing part is separated from the inner peripheral portion of the tube body.
A shell suitable for a blade, mast or tidal turbine, the shell including a triaxial fiber-reinforced composite laminate comprising: a first layer comprised of a first plurality of fibers; a second layer comprised of a second plurality of fibers oriented at a first angle of 60 to 75 degrees relative to the first plurality of fibers; and a third layer comprised of a third plurality of fibers oriented at a second angle of -60 to -75 degrees relative to the first plurality of fibers, wherein a modulus of elasticity of the fibers of the first plurality of fibers is higher than a modulus of elasticity of the fibers of the second plurality of fibers, and the modulus of elasticity of the fibers of the first plurality of fibers is higher than a modulus of elasticity of the fibers of the third plurality of fibers. a first layer comprised of a first plurality of fibers; a second layer comprised of a second plurality of fibers oriented at a first angle of 60 to 75 degrees relative to the first plurality of fibers; and a third layer comprised of a third plurality of fibers oriented at a second angle of -60 to -75 degrees relative to the first plurality of fibers, wherein a modulus of elasticity of the fibers of the first plurality of fibers is higher than a modulus of elasticity of the fibers of the second plurality of fibers, and the modulus of elasticity of the fibers of the first plurality of fibers is higher than a modulus of elasticity of the fibers of the third plurality of fibers.
A system for calculating trajectory and/or range data of object(s) external to an aircraft, the system comprising: a light projector /34) configured to be mounted at a projector location on the aircraft and to project pulses of spatially-patterned light from the light projector onto a scene external to the aircraft, thereby providing rapidly-changing illumination of a spatially-patterned portion of the scene; a camera (36, 38) configured to be mounted at a camera location on the aircraft and to receive a portion of the projected pulses of spatially-patterned light reflected by the scene, and further configured to focus the received portion onto a focal plane array comprising a plurality of light-sensitive pixels, the camera having a pulse-mode in which the camera forms a pulse image comprising pixel data generated by the plurality of light-sensitive pixels, the pixel data indicative of a rate of change of light intensity focused thereon exceeding a predetermined threshold; and an image processor configured to identify pixel coordinates corresponding to a subset of the plurality of light-sensitive pixels indicative of the rate change of light intensity focused thereon exceeding a predetermined threshold, the image processor further configured to calculate, based on the projector location of the light projector, the camera location of the camera and the identified pixel coordinates, trajectory and/or range data of object(s) in the scene from which the spatially-patterned light projected by the light projector is reflected. a light projector /34) configured to be mounted at a projector location on the aircraft and to project pulses of spatially-patterned light from the light projector onto a scene external to the aircraft, thereby providing rapidly-changing illumination of a spatially-patterned portion of the scene; a camera (36, 38) configured to be mounted at a camera location on the aircraft and to receive a portion of the projected pulses of spatially-patterned light reflected by the scene, and further configured to focus the received portion onto a focal plane array comprising a plurality of light-sensitive pixels, the camera having a pulse-mode in which the camera forms a pulse image comprising pixel data generated by the plurality of light-sensitive pixels, the pixel data indicative of a rate of change of light intensity focused thereon exceeding a predetermined threshold; and an image processor configured to identify pixel coordinates corresponding to a subset of the plurality of light-sensitive pixels indicative of the rate change of light intensity focused thereon exceeding a predetermined threshold, the image processor further configured to calculate, based on the projector location of the light projector, the camera location of the camera and the identified pixel coordinates, trajectory and/or range data of object(s) in the scene from which the spatially-patterned light projected by the light projector is reflected.
Support for an end winding of a rotor of an electrical machine, where the rotor comprises a stator core in which winding bars (5, 6) are inserted and distributed around the circumference, where the winding bars (5, 6) extend beyond an axial end of the stator core to form the end winding, characterised in that the end winding support comprises an outer ring and an inner ring in the area of the end winding between which the winding bars (5, 6) can be arranged in the area of the end winding, where the outer ring is shrunk onto the winding bars (5, 6) and forms a compound structure with the inner ring and the winding bars (5, 6) in the area of the end winding and both the outer ring and the inner ring are arranged at a certain distance from the stator core in axial direction, where both rings (10, 12) can expand unchecked in radial direction in such a way that the compound structure can largely move freely in radial direction.
Metal heat exchanger tube for the evaporation of liquids on the outside of the tube, comprising a tube axis, a tube wall, and integrally formed ribs that run circumferentially on the outside of the tube, comprising a rib foot, rib flanks, and a rib tip, wherein the rib foot projects substantially radially from the tube wall, a groove is located in each case between every two ribs which are adjacent to one another in the axial direction, and wherein lateral material projections are arranged at the rib flanks which are formed from the material of the ribs, wherein at least first, second, and third lateral material projections, which are arranged in such a way that the grooves are largely covered by the entirety of the material projections (41, 42, 43), characterised in that the first, second, and third lateral material projections are formed on levels that are in each case differently spaced apart from the tube wall in the radial direction.
A signal processing device, comprising: a multiple-input multiple-output equalizer configured to receive and equalize a plurality of real value signals (110, 120, 130, 140) corresponding to signals or signal components received by a coherent optical receiver, wherein the outputs of the multiple-input multiple-output equalizer provide equalized real or imaginary components of complex signals; and a plurality of chromatic dispersion equalizers (860, 870), wherein each chromatic dispersion equalizer (860, 870) is configured to receive and equalize one of said complex signals provided by the multiple-input multiple-output equalizer. a multiple-input multiple-output equalizer configured to receive and equalize a plurality of real value signals (110, 120, 130, 140) corresponding to signals or signal components received by a coherent optical receiver, wherein the outputs of the multiple-input multiple-output equalizer provide equalized real or imaginary components of complex signals; and a plurality of chromatic dispersion equalizers (860, 870), wherein each chromatic dispersion equalizer (860, 870) is configured to receive and equalize one of said complex signals provided by the multiple-input multiple-output equalizer.
An apparatus for setting a gain of a RF repeater, comprising: a synchronization signal power calculator configured to determine an average received power level of a synchronization signal received over a predetermined number of times as a synchronization signal power; a downlink power calculator configured to determine data channel signal power according to a power ratio of the synchronization signal to data channel signal based on the synchronization signal power, wherein the power ratio is received from a base station, and to calculate a downlink input power by summing the synchronization signal power and the data channel signal power; and a downlink gain setting unit configured to calculate a downlink gain by subtracting the downlink input power from a maximum downlink output power determined by hardware specifications to set the downlink gain. a synchronization signal power calculator configured to determine an average received power level of a synchronization signal received over a predetermined number of times as a synchronization signal power; a downlink power calculator configured to determine data channel signal power according to a power ratio of the synchronization signal to data channel signal based on the synchronization signal power, wherein the power ratio is received from a base station, and to calculate a downlink input power by summing the synchronization signal power and the data channel signal power; and a downlink gain setting unit configured to calculate a downlink gain by subtracting the downlink input power from a maximum downlink output power determined by hardware specifications to set the downlink gain.
Pushbutton for unlocking a lock of a door, hood, covering or hatch, in particular of an agricultural vehicle, e.g. a tractor or a construction machine, comprising a) a pushbutton housing, b) an actuation knob seated in the pushbutton housing comprising an actuation knob housing, and having a non-actuated and an actuated position, c) a locking mechanism for locking the actuation knob in its non-actuated position, wherein the actuation knob in its unlocked state can be displaced linearly along an actuation axis in a pushbutton actuation direction from its non-actuated position into its actuated position relative to the pushbutton housing, d) a cylinder lock with a cylinder lock core seated in the actuation knob housing and a corresponding key, e) wherein the actuating knob can only be unlocked when the corresponding key is introduced into the cylinder lock core, f) wherein the pushbutton is designed such that the actuation knob independently returns back from its actuated position into its non-actuated position and is independently locked, characterized in that the key introduced into the cylinder lock core can only be withdrawn in the non-actuated and locked position of the pushbutton. a) a pushbutton housing, b) an actuation knob seated in the pushbutton housing comprising an actuation knob housing, and having a non-actuated and an actuated position, c) a locking mechanism for locking the actuation knob in its non-actuated position, wherein the actuation knob in its unlocked state can be displaced linearly along an actuation axis in a pushbutton actuation direction from its non-actuated position into its actuated position relative to the pushbutton housing, d) a cylinder lock with a cylinder lock core seated in the actuation knob housing and a corresponding key, e) wherein the actuating knob can only be unlocked when the corresponding key is introduced into the cylinder lock core, f) wherein the pushbutton is designed such that the actuation knob independently returns back from its actuated position into its non-actuated position and is independently locked,
A process for discharging polyolefin particles from a gas-phase polymerization reactor of a pressure from 1.0 MPa to 10 MPa to a discharge vessel of a pressure from 0.001 MPa to 1.0 MPa wherein the discharging is carried out discontinuously through at least two discharge lines in which the polyolefin particles are transported horizontally or upwards, wherein the curvature of the bending of the discharge lines has a ratio R/D of at least 20, with R being the radius of curvature and D being the inner diameter of the discharge line and the flow of the polymer particles entering the discharge vessel from one discharge line is countercurrent to the flow of the polymer particles entering the discharge vessel from another discharge line.
A system (100; 200) for controlling thermal conductivity between two thermal masses comprising: a first conduction body (110; 210) configured and adapted for thermal contact with a heat source (102; 202); a second conduction body (120; 220) configured and adapted for thermal contact with a heat sink (104; 204); and a thermal expansion (140; 240) component operatively connected to move the first conduction body between a first position in which the first conduction body is spaced apart from the second conduction body for thermal isolation of the heat source and heat sink, and a second position in which the first conduction body is in thermal contact with the second conduction body for conduction of heat from the heat source, through the conduction bodies, and into the heat sink; wherein the thermal expansion component is configured and adapted to move the first conduction body into the second position at a first predetermined temperature; characterised in that the axis (106, 206) through the first and second positions of the first conduction body (110; 210) define a direction of motion, and wherein the first and second (120; 220) conduction bodies each have a wedge face (112; 122) oblique with respect to the direction of motion; and in that the thermal expansion component is configured to compress the first conduction body against the second conduction body at a second predetermined temperature, thereby increasing a rate of heat transfer between the heat source and the heat sink. a first conduction body (110; 210) configured and adapted for thermal contact with a heat source (102; 202); a second conduction body (120; 220) configured and adapted for thermal contact with a heat sink (104; 204); and a thermal expansion (140; 240) component operatively connected to move the first conduction body between a first position in which the first conduction body is spaced apart from the second conduction body for thermal isolation of the heat source and heat sink, and a second position in which the first conduction body is in thermal contact with the second conduction body for conduction of heat from the heat source, through the conduction bodies, and into the heat sink; wherein the thermal expansion component is configured and adapted to move the first conduction body into the second position at a first predetermined temperature; characterised in that the axis (106, 206) through the first and second positions of the first conduction body (110; 210) define a direction of motion, and wherein the first and second (120; 220) conduction bodies each have a wedge face (112; 122) oblique with respect to the direction of motion; and in that the thermal expansion component is configured to compress the first conduction body against the second conduction body at a second predetermined temperature, thereby increasing a rate of heat transfer between the heat source and the heat sink.
A fieldbus device for communicating with a remote automation device via a communication network, wherein the fieldbus device can be connected to a group of physically adjacent automation devices (MI, MII, MIII) via a fieldbus; having a fieldbus interface for emulating the communication functions of the remote automation device, wherein the emulating of the communication functions comprises reproducing the communication-related behavior of the remote automation device, wherein the fieldbus interface is designed to receive a fieldbus signal from a physically adjacent automation device (MI, MII, MIII) via the fieldbus, wherein the fieldbus signal is designated for the remote automation device; and having a network interface for communicating with the remote automation device via the communication network, wherein the network interface is designed to encapsulate the fieldbus signal into a data frame and to send the data frame to the remote automation device via the communication network; wherein the data frame has a plurality of time slots, wherein one time slot among the plurality of time slots is associated with the remote automation device, and wherein the network interface is designed to encapsulate the fieldbus signal in the time slot.
A balloon system for treating sinusitis or allergic rhinitis, comprising a central inner tube, a balloon to be filled and a balloon catheter outer tube, all of which axially extend; the central inner tube including a distal end part and a proximal end part in axial direction; a first end of the balloon being connected to the distal end part; the balloon catheter outer tube being radially outwardly spaced from the proximal end part, characterized in that, the distal end part and the proximal end part are detachably connected with each other by a connector, a second end of the balloon and the balloon catheter outer tube are detachably connected with each other by the connector, the connector includes a first grommet and a second grommet rotating coaxially and relatively fixed with each other in axial direction, each of the first grommet and second grommet has at least one gas port (410, 420).
A method for producing a coating from a thermoresponsive paste, which contains solid particles and a thermoresponsive component, and the coating or layer being applied onto a carrier of an electrode, to be produced from the paste, solidified and dried, characterized in that less than 80% of a volatile solvent component is removed from the coating during the solidification.