mhurhangee/ep-ind-claims huggingface dataset:
A method for paging by a terminal in a mobile communication system, the method comprising: receiving, by a terminal from the base station, a first local counter value for synchronization with a base station and a first local Identifier, ID, allocated to the terminal by the base station; synchronizing, by the terminal, a counter value of the terminal with the first local counter value: and entering an idle state; the method characterized in further comprising: receiving, by the terminal, a paging request message in a subframe included in a system frame, wherein the system frame corresponds to the counter value and the subframe is equal to the first local ID. receiving, by a terminal from the base station, a first local counter value for synchronization with a base station and a first local Identifier, ID, allocated to the terminal by the base station; synchronizing, by the terminal, a counter value of the terminal with the first local counter value: and entering an idle state; the method characterized in further comprising: receiving, by the terminal, a paging request message in a subframe included in a system frame, wherein the system frame corresponds to the counter value and the subframe is equal to the first local ID.
A laser cutting device for a transparent material, adapted to focus laser light into a plurality of predetermined spots in the material, wherein the spots are located on a predetermined cutting line or cutting area in a direction substantially perpendicular to the direction of incidence of the laser light, characterized in that the device includes a means for mode conversion into laser light having a helical phase front, which means can be brought into and out of the beam path of the laser light.
An indicating lamp emitting light radially toward a periphery of a central axis and away from the central axis and comprising: three LED substrates that, when viewed in parallel to the central axis, form an equilateral triangle surrounding the central axis and are disposed equidistantly with respect to the central axis; and LEDs that, when viewed in parallel to the central axis, are disposed on an outer surface of each LED substrate at least one each at each of a pair of placement positions at both sides sandwiching a reference normal being a normal to the outer surface of each LED substrate and passing through the central axis and each have an optical axis orthogonal to the outer surface of each LED substrate; characterised by further comprising: an optical system by which, when viewed in parallel to the central axis, radiated lights from the LEDs at the pair of placement positions of each LED substrate are converted to and emitted as emitted parallel lights that are respectively parallel to a pair of light emission reference lines passing through the central axis at both sides sandwiching the reference normal of each LED substrate and respectively contain the corresponding light emission reference lines. three LED substrates that, when viewed in parallel to the central axis, form an equilateral triangle surrounding the central axis and are disposed equidistantly with respect to the central axis; and LEDs that, when viewed in parallel to the central axis, are disposed on an outer surface of each LED substrate at least one each at each of a pair of placement positions at both sides sandwiching a reference normal being a normal to the outer surface of each LED substrate and passing through the central axis and each have an optical axis orthogonal to the outer surface of each LED substrate; characterised by further comprising: an optical system by which, when viewed in parallel to the central axis, radiated lights from the LEDs at the pair of placement positions of each LED substrate are converted to and emitted as emitted parallel lights that are respectively parallel to a pair of light emission reference lines passing through the central axis at both sides sandwiching the reference normal of each LED substrate and respectively contain the corresponding light emission reference lines.
Machine for crushing and recovering waste materials from the demolition of buildings comprising: - a frame closed by panels; - an inlet hopper for the waste to be crushed; - an outlet for the crushed waste; - a grinding chamber delimited by a casing and connected to said inlet hopper; - a rotor provided with a plurality of blades consisting of steel blocks; - at least one counter-blade permanently combined with said grinding chamber; - first screen means, to select the granulometry of said crushed waste, connected to said treatment chamber; - motor means arranged for driving said rotor; - an electrical control panel, wherein steel blocks are arranged on the rotor in a discontinuous manner both longitudinally and transversally, thus partially occupying the rotor itself and so that along generic cross sections of the rotor the same number of blocks are positioned, arranged at the same angles, and in the following cross sections of the rotor the blocks are staggered from one another at a set angle (α), characterized in that said first screen means comprise two overlapping plates (20, 30), combined in a sliding manner and provided with corresponding openings (21, 31) for said crushed materials, wherein at least one of said plates (20, 30) is combined with adjustment means allowable to the operator from the outside of the panels of said machine, which can be operated during the working thereof, in order to centre, or decentralize, their respective holes (21,31) and thus adjust the granulometry of the crushed waste passing through them. - a frame closed by panels; - an inlet hopper for the waste to be crushed; - an outlet for the crushed waste; - a grinding chamber delimited by a casing and connected to said inlet hopper; - a rotor provided with a plurality of blades consisting of steel blocks; - at least one counter-blade permanently combined with said grinding chamber; - first screen means, to select the granulometry of said crushed waste, connected to said treatment chamber; - motor means arranged for driving said rotor; - an electrical control panel,
A method of controlling a wind turbine connected to a utility grid, the method comprising: detecting a low voltage event where the grid voltage drops from a first level and to a second lower level; operating the wind turbine during the low voltage event in a grid event mode, wherein during the low voltage event, the wind turbine is controlled by use of proportional-integral control or proportional-integral-derivative control; detecting a termination of the low voltage event; receiving a current operational state of the wind turbine; receiving or determining a post event operational state defining a desired operational state to which the wind turbine should recover; based on the current operational state and the post-event operational state, calculating one or more predicted operational trajectories using a model predictive control routine, wherein the one or more predicted operational trajectories include a predicted control trajectory, where a trajectory comprises a time series of at least one variable; and controlling the wind turbine in a recovery mode using the predicted control trajectory. detecting a low voltage event where the grid voltage drops from a first level and to a second lower level; operating the wind turbine during the low voltage event in a grid event mode, wherein during the low voltage event, the wind turbine is controlled by use of proportional-integral control or proportional-integral-derivative control; detecting a termination of the low voltage event; receiving a current operational state of the wind turbine; receiving or determining a post event operational state defining a desired operational state to which the wind turbine should recover; based on the current operational state and the post-event operational state, calculating one or more predicted operational trajectories using a model predictive control routine, wherein the one or more predicted operational trajectories include a predicted control trajectory, where a trajectory comprises a time series of at least one variable; and controlling the wind turbine in a recovery mode using the predicted control trajectory.
A surgical access assembly comprising: a surgical access device (100, 200) including an elongated shaft (112, 210) defining an access lumen (111, 211) therethrough, the elongated shaft having a distal portion (110b, 210b) terminating at a distal tip; and a cleaning cap (140, 240) disposed over the distal portion (1 10b, 210b) of the elongated shaft (112, 210), the cleaning cap including an instrument channel (143, 243) aligned with the access lumen (111, 211), the instrument channel including wipers (150, 250) disposed therein, characterised in that: the distal portion (110b, 210b) of the surgical access device is disposed within an annular pocket (141, 241) defined between inner and outer annular walls (146, 144, 246, 244) of the cleaning cap (140, 240), wherein the annular pocket is complementary in size and shape to the distal portion of the cannula and includes a proximal cutout in an inner surface of the outer annular wall (144, 244) of the cleaning cap (140, 240) that receives a rib of the elongated shaft (112, 210); and the instrument channel (143, 243) is defined by an inner surface of the inner annular wall (146, 246) and is disposed within the access lumen (111, 211) of the surgical access device (100, 200). a surgical access device (100, 200) including an elongated shaft (112, 210) defining an access lumen (111, 211) therethrough, the elongated shaft having a distal portion (110b, 210b) terminating at a distal tip; and a cleaning cap (140, 240) disposed over the distal portion (1 10b, 210b) of the elongated shaft (112, 210), the cleaning cap including an instrument channel (143, 243) aligned with the access lumen (111, 211), the instrument channel including wipers (150, 250) disposed therein, characterised in that: the distal portion (110b, 210b) of the surgical access device is disposed within an annular pocket (141, 241) defined between inner and outer annular walls (146, 144, 246, 244) of the cleaning cap (140, 240), wherein the annular pocket is complementary in size and shape to the distal portion of the cannula and includes a proximal cutout in an inner surface of the outer annular wall (144, 244) of the cleaning cap (140, 240) that receives a rib of the elongated shaft (112, 210); and the instrument channel (143, 243) is defined by an inner surface of the inner annular wall (146, 246) and is disposed within the access lumen (111, 211) of the surgical access device (100, 200). the distal portion (110b, 210b) of the surgical access device is disposed within an annular pocket (141, 241) defined between inner and outer annular walls (146, 144, 246, 244) of the cleaning cap (140, 240), wherein the annular pocket is complementary in size and shape to the distal portion of the cannula and includes a proximal cutout in an inner surface of the outer annular wall (144, 244) of the cleaning cap (140, 240) that receives a rib of the elongated shaft (112, 210); and the instrument channel (143, 243) is defined by an inner surface of the inner annular wall (146, 246) and is disposed within the access lumen (111, 211) of the surgical access device (100, 200).
A primate restraint device comprising: a containing body having both side surfaces, a top surface, and a bottom surface; a door provided on a rear surface side of said containing body and capable of opening and closing the rear surface side of said containing body by sliding up and down; and a partition wall formed so as to close an inside of said containing body from a front surface side and to be movable forward and backward within said containing body and configured to be able to be fixed at a desired position within said containing body; characterized in that two hind-limb protrusion openings through each of which a hind limb of a contained primate is protruded outside being provided in said partition wall. a containing body having both side surfaces, a top surface, and a bottom surface; a door provided on a rear surface side of said containing body and capable of opening and closing the rear surface side of said containing body by sliding up and down; and a partition wall formed so as to close an inside of said containing body from a front surface side and to be movable forward and backward within said containing body and configured to be able to be fixed at a desired position within said containing body; characterized in that two hind-limb protrusion openings through each of which a hind limb of a contained primate is protruded outside being provided in said partition wall.
A method comprising: receiving, by a computing device, a first abnormality detection model from a remote device, the first abnormality detection model trainable using a machine learning technique for detecting anomaly of an application in a resource usage; obtaining resource usage data of the application according to the first abnormality detection model, the resource usage data comprising information about usage or energy consumption of one or more hardware components or one or more services accessed by the application on the computing device; determining, by the computing device using the first abnormality detection model, whether the application has anomaly in the resource usage based on the resource usage data obtained; taking an action in response to determination on the anomaly of the application in the resource usage; the method being characterized in: producing a set of historical data for the application, the set of historical data comprising abnormality detection results of the application, actions taken in response to the abnormality detection results of the application, usage patterns of the application, or energy consumption patterns of the application; and adjusting the action to be taken for the application corresponding to an abnormality detection result based on the set of historical data. receiving, by a computing device, a first abnormality detection model from a remote device, the first abnormality detection model trainable using a machine learning technique for detecting anomaly of an application in a resource usage; obtaining resource usage data of the application according to the first abnormality detection model, the resource usage data comprising information about usage or energy consumption of one or more hardware components or one or more services accessed by the application on the computing device; determining, by the computing device using the first abnormality detection model, whether the application has anomaly in the resource usage based on the resource usage data obtained; taking an action in response to determination on the anomaly of the application in the resource usage; the method being characterized in: producing a set of historical data for the application, the set of historical data comprising abnormality detection results of the application, actions taken in response to the abnormality detection results of the application, usage patterns of the application, or energy consumption patterns of the application; and adjusting the action to be taken for the application corresponding to an abnormality detection result based on the set of historical data. producing a set of historical data for the application, the set of historical data comprising abnormality detection results of the application, actions taken in response to the abnormality detection results of the application, usage patterns of the application, or energy consumption patterns of the application; and adjusting the action to be taken for the application corresponding to an abnormality detection result based on the set of historical data.
Method for operating an electric motor, comprising: a stator, an outer rotor, which outer rotor has a sensor magnet having a plurality SP of sensor poles and a rotor magnet having a plurality RP of rotor poles, being in interaction with the stator, wherein RP is smaller than SP, and wherein the number SP of the sensor poles applies to: SP = 2 n − 1 * RP with n = 2, 3, 4,..., at least one rotor-position sensor (42, 44) being connected to the stator, and a rotor-position evaluation device, the method comprising the following steps: A) With the at least one rotor-position sensor at least one rotor-position signal depending on the rotational position of the sensor magnet is created; B) the at least one rotor-position signal is supplied to the rotor-position evaluation device; C) the at least one rotor-position signal is converted into at least one digital value having a resolution of at least 2 Bit in the rotor-position evaluation device, whereby the at least one rotor-position signal can be converted in different digital values even with rotational positions in the inner of the angular range. a stator, an outer rotor, which outer rotor has a sensor magnet having a plurality SP of sensor poles and a rotor magnet having a plurality RP of rotor poles, being in interaction with the stator, wherein RP is smaller than SP, and wherein the number SP of the sensor poles applies to: SP = 2 n − 1 * RP with n = 2, 3, 4,..., at least one rotor-position sensor (42, 44) being connected to the stator, and a rotor-position evaluation device, the method comprising the following steps: A) With the at least one rotor-position sensor at least one rotor-position signal depending on the rotational position of the sensor magnet is created; B) the at least one rotor-position signal is supplied to the rotor-position evaluation device; C) the at least one rotor-position signal is converted into at least one digital value having a resolution of at least 2 Bit in the rotor-position evaluation device, whereby the at least one rotor-position signal can be converted in different digital values even with rotational positions in the inner of the angular range. A) With the at least one rotor-position sensor at least one rotor-position signal depending on the rotational position of the sensor magnet is created; B) the at least one rotor-position signal is supplied to the rotor-position evaluation device; C) the at least one rotor-position signal is converted into at least one digital value having a resolution of at least 2 Bit in the rotor-position evaluation device, whereby the at least one rotor-position signal can be converted in different digital values even with rotational positions in the inner of the angular range.
Air intake of an aircraft nacelle that comprises, on the one hand, a lip that is defined by a wall of which the surface that is in contact with the aerodynamic flows is extended on the inside of the nacelle by an inside wall that borders a pipe that empties out at a power plant, and on the outside of the nacelle by an outside wall, and, on the other hand, a surface-type Joule-effect defrosting system, the air intake comprising at least a first alveolar structure (60.1) that is made of a material that conducts the heat that is flattened against the inside surface of the wall and inserted between said wall and the defrosting system, characterized in that it comprises at least a second alveolar structure (60.2) that is made of composite material that is adjacent to the first structure (60.1) and disposed adjacent said first structure (60.1) along the wall.
An electronic device (100, 1401, 1501) comprising: an antenna including a ground part, a feeding part, a radiator, and a first switch; wherein the feeding part is configured to transmit a signal to the radiator via a first path, and further configured to transmit a signal to the radiator via a second path, or a third path, wherein the first switch is interposed between the feeding part and the radiator in the second path and the third path, wherein the first switch is configured to change a connection state of the second path and the third path, characterized in that the third path includes a variable capacitor; and the electronic device further comprises a second switch configured to electrically connect or disconnect one point of the first path to or from the radiator. an antenna including a ground part, a feeding part, a radiator, and a first switch; wherein the feeding part is configured to transmit a signal to the radiator via a first path, and further configured to transmit a signal to the radiator via a second path, or a third path, wherein the first switch is interposed between the feeding part and the radiator in the second path and the third path, wherein the first switch is configured to change a connection state of the second path and the third path, characterized in that the third path includes a variable capacitor; and the electronic device further comprises a second switch configured to electrically connect or disconnect one point of the first path to or from the radiator.
A compound of Formula: wherein: L 1 and L 2 are independently a linker selected from a bond, - q-, - qCH=CH r-, -NH-, -NHC q-, and any combinations thereof, wherein q is independently for each occurrence 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12 and wherein r is independently for each occurrence 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12; R 1 is phenyl, which can be optionally substituted with 1, 2, 3, 4 or 5 substituents selected independently from the group consisting of alkyl, CF 3, NO 2, CO 2 H, SO 2 H, cyano, hydroxy, thiol, alkylthio, alkoxy, acyl, halogen, amino, alkyl amino, dialkylamino, and any combinations thereof; R 2 is hydrogen, lower alkyl, cyclyl, heterocyclyl, aryl, or heteroaryl, each of which can be optionally substituted; R 3 is phenyl, which can be optionally substituted with 1, 2, 3, or 4 substituents selected independently from the group consisting of alkyl, CF 3, NO 2, CO 2 H, SO 2 H, cyano, hydroxy, thiol, alkylthio; p is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10. L 1 and L 2 are independently a linker selected from a bond, - q-, - qCH=CH r-, -NH-, -NHC q-, and any combinations thereof, wherein q is independently for each occurrence 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12 and wherein r is independently for each occurrence 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11 or 12; R 1 is phenyl, which can be optionally substituted with 1, 2, 3, 4 or 5 substituents selected independently from the group consisting of alkyl, CF 3, NO 2, CO 2 H, SO 2 H, cyano, hydroxy, thiol, alkylthio, alkoxy, acyl, halogen, amino, alkyl amino, dialkylamino, and any combinations thereof; R 2 is hydrogen, lower alkyl, cyclyl, heterocyclyl, aryl, or heteroaryl, each of which can be optionally substituted; R 3 is phenyl, which can be optionally substituted with 1, 2, 3, or 4 substituents selected independently from the group consisting of alkyl, CF 3, NO 2, CO 2 H, SO 2 H, cyano, hydroxy, thiol, alkylthio; p is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9 or 10.