mhurhangee/ep-ind-claims huggingface dataset:
An imidazolidinedione compound of formula: wherein R 1 and R 2 are independently selected from hydrogen, deuterium, C 1 -C 4 alkyl and one or more deuterium-substituted or perdeuterated C 1 -C 4 alkyl, R 1 and R 2 are not simultaneously hydrogen; R 3 is hydrogen, deuterium or halogen; R 4, R 5, R 6, R 9, R 11 are hydrogen, deuterium or halogen; R 7 and R 8 are independently selected from C 1 -C 4 alkyl and one or more deuterium-substituted or perdeuterated C 1 -C 4 alkyl, or R 7 and R 8 are joined to form C 3 -C 6 cycloalkyl, or one or more deuterium-substituted or perdeuterated C 3 -C 6 cycloalkyl; Rio is selected from C 1 -C 4 alkyl and one or more deuterium-substituted or perdeuterated C 1 -C 4 alkyl, or one or more halogen-substituted or perhalogenated C 1 -C 4 alkyl; X is S or O; or a crystal form, pharmaceutically acceptable salt, hydrate or solvate thereof, wherein the compound or its crystal form, pharmaceutically acceptable salt, hydrate or solvate is selected from the group consisting of: R 1 and R 2 are independently selected from hydrogen, deuterium, C 1 -C 4 alkyl and one or more deuterium-substituted or perdeuterated C 1 -C 4 alkyl, R 1 and R 2 are not simultaneously hydrogen; R 3 is hydrogen, deuterium or halogen; R 4, R 5, R 6, R 9, R 11 are hydrogen, deuterium or halogen; R 7 and R 8 are independently selected from C 1 -C 4 alkyl and one or more deuterium-substituted or perdeuterated C 1 -C 4 alkyl, or R 7 and R 8 are joined to form C 3 -C 6 cycloalkyl, or one or more deuterium-substituted or perdeuterated C 3 -C 6 cycloalkyl; Rio is selected from C 1 -C 4 alkyl and one or more deuterium-substituted or perdeuterated C 1 -C 4 alkyl, or one or more halogen-substituted or perhalogenated C 1 -C 4 alkyl; X is S or O; or a crystal form, pharmaceutically acceptable salt, hydrate or solvate thereof, wherein the compound or its crystal form, pharmaceutically acceptable salt, hydrate or solvate is selected from the group consisting of:
Hand-guided working implement, comprising an internal combustion engine, a throttle lever and a mode actuator, wherein the throttle lever is adjustable between an idle position and a full throttle position and wherein the mode actuator is adjustable between an operating position and a starting position, wherein the internal combustion engine has an intake port, in which at least one throttle element (21, 23) is located, wherein the throttle element (21, 23) is in a throttling position (66, 67) in the starting position of the mode actuator, wherein the throttle element (21, 23) is held in the throttling position (66, 67) by way of a catch mechanism and wherein the catch mechanism is released if the throttle lever is operated towards the full throttle position, characterised in that the working implement comprises a resetting element, which is permanently coupled to the position of the throttle lever and which, if the throttle lever is operated to release the catch mechanism, acts on the mode actuator and resets the mode actuator from the starting position into the operating position, in that the resetting element acts together with an actuating part connected to the mode actuator, and in that the resetting element is pivotably mounted on the throttle lever and bears against the actuating part.
A method for performing a handover operation, the method comprising: initiating, by one or more processors of a non-terrestrial node, communication with a first terrestrial node of a network, the first terrestrial node having a first unique node identifier and a cell identifier; storing, by the one or more processors, a mapping that associates the first unique node identifier with the cell identifier; receiving, by the one or more processors, an indicator that the mapping is subject to change; and based on the received indicator, the one or more processors updating the mapping to associate a second unique node identifier of a second terrestrial node of the network with the cell identifier. initiating, by one or more processors of a non-terrestrial node, communication with a first terrestrial node of a network, the first terrestrial node having a first unique node identifier and a cell identifier; storing, by the one or more processors, a mapping that associates the first unique node identifier with the cell identifier; receiving, by the one or more processors, an indicator that the mapping is subject to change; and based on the received indicator, the one or more processors updating the mapping to associate a second unique node identifier of a second terrestrial node of the network with the cell identifier.
A method for determining a position, particularly a coronal position of an eye relative to a coronal plane of the head of a person, with a handheld 3D-surface scanning device, wherein the method comprises the steps of: - Acquiring a digital data set comprising information about a three-dimensional surface and texture of at least a portion of the face of the person, the portion of the face comprising both eyes; - Determining from the data set for each eye a three-dimensional center position (10-1, 10-2) of the center of the pupil of the eye; - Determining from the digital data set for each eye a three-dimensional rim position (11-1, 11-2) that corresponds to the anterior lateral orbital rim of the eye; - Determining a connecting line between the two rim positions (11-1, 11-2); - Determining for each three-dimensional center position of the centers of the pupils (10-1, 10-2) a distance (14-1, 14-2) to the connecting line, wherein each distance (14-1, 14-2) corresponds to a coronal position of an eye relative to the coronal plane of the head. - Acquiring a digital data set comprising information about a three-dimensional surface and texture of at least a portion of the face of the person, the portion of the face comprising both eyes; - Determining from the data set for each eye a three-dimensional center position (10-1, 10-2) of the center of the pupil of the eye; - Determining from the digital data set for each eye a three-dimensional rim position (11-1, 11-2) that corresponds to the anterior lateral orbital rim of the eye; - Determining a connecting line between the two rim positions (11-1, 11-2); - Determining for each three-dimensional center position of the centers of the pupils (10-1, 10-2) a distance (14-1, 14-2) to the connecting line, wherein each distance (14-1, 14-2) corresponds to a coronal position of an eye relative to the coronal plane of the head.
A router (300, 800) comprising: an input (320, 802); an output (322, 804); shared memory; a forwarding path configured to forward a plurality of packets from the input (320, 802) to the output (322, 804), the forwarding path also having at least one counter between the input and the output and configured to count non-packet specific information of the plurality of packets forwarded through the forwarding path from the input to the output and before the plurality of packets reach the output, the non-packet specific information being aggregate packet information that does not include information that can be used to identify details of a specific packet, the at least one counter configured to produce count information for storage in the shared memory; and a service path configured to manage statistical data relating to the plurality of packets forwarded through the forwarding path, the service path being configured to retrieve the count information from the shared memory and transmit the count information from the shared memory to a database within a persistent storage for storage, the service path being further configured to produce statistical information using the count information retrieved from the shared memory and calculate a flow rate of the plurality of packets through the forwarding path, determine a total number of packets through the forwarding path for a given time, or determine a total number of bits through the forwarding path for a given time. an input (320, 802); an output (322, 804); shared memory; a forwarding path configured to forward a plurality of packets from the input (320, 802) to the output (322, 804), the forwarding path also having at least one counter between the input and the output and configured to count non-packet specific information of the plurality of packets forwarded through the forwarding path from the input to the output and before the plurality of packets reach the output, the non-packet specific information being aggregate packet information that does not include information that can be used to identify details of a specific packet, the at least one counter configured to produce count information for storage in the shared memory; and a service path configured to manage statistical data relating to the plurality of packets forwarded through the forwarding path, the service path being configured to retrieve the count information from the shared memory and transmit the count information from the shared memory to a database within a persistent storage for storage, the service path being further configured to produce statistical information using the count information retrieved from the shared memory and calculate a flow rate of the plurality of packets through the forwarding path, determine a total number of packets through the forwarding path for a given time, or determine a total number of bits through the forwarding path for a given time.
A method for improving flowmeter reliability, wherein the flowmeter comprises at least one flow tube (130, 130'), at least one pickoff sensor (170L, 170R) attached to the at least one flow tube (130, 130'), at least one driver (180L, 180R) attached to the at least one flow tube (130, 130'), and meter electronics in communication with the at least one pickoff sensor (170L, 170R) and the at least one driver, comprising the steps of vibrating at least one flow tube (130, 130') in a drive mode vibration with the at least one driver (180L, 180R); receiving a sensor signal based on a vibrational response to the drive mode vibration from the at least one pickoff sensor (170L, 170R); calculating at least one flow variable; measuring a pickoff sensor (170L, 170R) voltage; characterized by: determining whether the pickoff sensor (170L, 170R) voltage is below a predetermined voltage threshold; determining a point immediately prior to when the pickoff sensor voltage fell below the predetermined voltage threshold and determining a first value of the at least one flow variable at this point; determining a point wherein the pickoff sensor voltage returned above the predetermined voltage threshold and determining a second value of the at least one flow variable at this point; and calculating an average of the first and second values of the at least one flow variable; and correcting the at least one flow variable by ignoring the at least one flow variable and substituting it with the calculated average during periods wherein the pickoff sensor (170L, 170R) voltage is below the predetermined voltage threshold. determining whether the pickoff sensor (170L, 170R) voltage is below a predetermined voltage threshold; determining a point immediately prior to when the pickoff sensor voltage fell below the predetermined voltage threshold and determining a first value of the at least one flow variable at this point; determining a point wherein the pickoff sensor voltage returned above the predetermined voltage threshold and determining a second value of the at least one flow variable at this point; and calculating an average of the first and second values of the at least one flow variable; and correcting the at least one flow variable by ignoring the at least one flow variable and substituting it with the calculated average during periods wherein the pickoff sensor (170L, 170R) voltage is below the predetermined voltage threshold.
A load measuring apparatus for a construction machine having a loading weight arithmetic module calculating a loading weight on the basis of loads of a plurality of suspension cylinders, characterized in that the load measuring apparatus comprises a loading weight confirmation module outputting the loading weight calculated by the loading weight arithmetic module when all of the loads of the suspension cylinders are equal to or larger than a specified value, the loading weight confirmation module making the loading weight calculated by the loading weight arithmetic module ineffective without outputting the loading weight when any one of the loads of the suspension cylinders is below the specified value.
A semiconductor laser module (100, 200, 300) comprising: a semiconductor laser (130, 230, 330) that outputs laser light; a housing; an optical fiber (120, 220, 320) that guides the laser light through the housing (101, 201); a lens (140, 240, 340) that couples the laser light, which is output from the semiconductor laser (130, 230, 330), with the optical fiber (120, 220, 320); and a base (110, 210, 310) that is substantially tabular in shape and that has the optical fiber (120, 220, 320) fixed to a first face thereof either directly or indirectly and that has the semiconductor laser (130, 230, 330) and the lens (140, 240, 340) fixed to the first face thereof either directly or indirectly in an area on the first face of the base (110, 210, 310), the area on the first face being opposite to a junction plane (S 1), wherein the housing (101, 201) houses the base (110, 210, 310) and fixes the base (110, 210, 310) either directly or indirectly, wherein among faces of the base (110, 210, 310), a second face on a side of said base that is fixed either directly or indirectly to the housing (101, 201) includes the junction plane (S 1), which is joined to the housing (101, 201) either directly or indirectly, and a detachment plane (S 2), which is detached to remain unfixed from the housing (101, 201), wherein the base (110, 210, 310) is a tabular member having a step difference at the intersection between the junction plane (S 1) and the detachment plane (S 2). a semiconductor laser (130, 230, 330) that outputs laser light; a housing; an optical fiber (120, 220, 320) that guides the laser light through the housing (101, 201); a lens (140, 240, 340) that couples the laser light, which is output from the semiconductor laser (130, 230, 330), with the optical fiber (120, 220, 320); and a base (110, 210, 310) that is substantially tabular in shape and that has the optical fiber (120, 220, 320) fixed to a first face thereof either directly or indirectly and that has the semiconductor laser (130, 230, 330) and the lens (140, 240, 340) fixed to the first face thereof either directly or indirectly in an area on the first face of the base (110, 210, 310), the area on the first face being opposite to a junction plane (S 1), wherein the housing (101, 201) houses the base (110, 210, 310) and fixes the base (110, 210, 310) either directly or indirectly, wherein among faces of the base (110, 210, 310), a second face on a side of said base that is fixed either directly or indirectly to the housing (101, 201) includes the junction plane (S 1), which is joined to the housing (101, 201) either directly or indirectly, and a detachment plane (S 2), which is detached to remain unfixed from the housing (101, 201), wherein the base (110, 210, 310) is a tabular member having a step difference at the intersection between the junction plane (S 1) and the detachment plane (S 2).
An ablation device for treatment of tissue in body lumens with varying sizes, the device comprising: a catheter; an expansion member coupled with a distal portion of the catheter; an ablation structure comprising a plurality of longitudinal electrode regions (502,504,506,702-718,802-810,902-912,1006-1016) wherein each of the electrode regions is configured to be selectively enabled or disabled; an ablation structure support coupled with the ablation structure, wherein the ablation structure and the ablation structure support are configured to at least partially unfurl or furl around the expansion member as the expansion member expands or contracts, the ablation device being arranged so that as the expansion member expands and the ablation structure unfurls, longitudinal electrode regions are exposed from beneath an overlapping portion of the ablation structure; and a power source configured to selectively enable the plurality of longitudinal electrode regions, characterized in that the power source is configured to sequentially enable the longitudinal electrode regions starting with the longitudinal electrode region (502,702,802, 902,1006) adjacent a free edge of the ablation structure, the power source being further configured to detect a first electrode region that is fully shielded by the overlapping portion of the ablation structure and to stop the sequential enabling of the longitudinal electrode regions when the first fully shielded longitudinal electrode region is detected. a catheter; an expansion member coupled with a distal portion of the catheter; an ablation structure comprising a plurality of longitudinal electrode regions (502,504,506,702-718,802-810,902-912,1006-1016) wherein each of the electrode regions is configured to be selectively enabled or disabled; an ablation structure support coupled with the ablation structure, wherein the ablation structure and the ablation structure support are configured to at least partially unfurl or furl around the expansion member as the expansion member expands or contracts, the ablation device being arranged so that as the expansion member expands and the ablation structure unfurls, longitudinal electrode regions are exposed from beneath an overlapping portion of the ablation structure; and a power source configured to selectively enable the plurality of longitudinal electrode regions, characterized in that the power source is configured to sequentially enable the longitudinal electrode regions starting with the longitudinal electrode region (502,702,802, 902,1006) adjacent a free edge of the ablation structure, the power source being further configured to detect a first electrode region that is fully shielded by the overlapping portion of the ablation structure and to stop the sequential enabling of the longitudinal electrode regions when the first fully shielded longitudinal electrode region is detected.
A method of managing mobile elevator call requests received from a mobile device, the method comprising: receiving, by an elevator system controller, an elevator call parameter from a management interface, the elevator call parameter being a selected number of mobile elevator call requests per a selected period of time for the mobile device; receiving, by the controller, at least one mobile elevator call request from the mobile device; comparing, by the controller, a number of the at least one mobile elevator call request to the elevator call parameter; and restricting, by the controller, the mobile device from sending additional mobile elevator call requests when the at least one mobile elevator call request conflicts with the elevator call parameter, wherein the at least one mobile elevator call request conflicts with the elevator call parameter when the number of the at least one mobile elevator call request exceeds the selected number of mobile elevator call requests. receiving, by an elevator system controller, an elevator call parameter from a management interface, the elevator call parameter being a selected number of mobile elevator call requests per a selected period of time for the mobile device; receiving, by the controller, at least one mobile elevator call request from the mobile device; comparing, by the controller, a number of the at least one mobile elevator call request to the elevator call parameter; and restricting, by the controller, the mobile device from sending additional mobile elevator call requests when the at least one mobile elevator call request conflicts with the elevator call parameter, wherein the at least one mobile elevator call request conflicts with the elevator call parameter when the number of the at least one mobile elevator call request exceeds the selected number of mobile elevator call requests.
A method for determining at least one operational parameter of a wind turbine in a wind farm, wherein the wind turbine comprises at least one movable portion (68, 72, 20) which is movable during operation of the wind turbine and at least one movable portion device including a movable portion transmitter, the movable portion transmitter being disposed at the at least one movable portion, the wind farm comprising a plurality of wind turbines, each wind turbine including a tower with a tower base, wherein a receiver is installed in each of the tower bases, wherein the method comprises: sending, from at least two senders each located at one of the wind turbines, a differential signal; automatically calibrating the position of at least one of the receivers installed in the tower base of the wind turbine of the wind farm based on the differential signal; sending to at least three reference points (80, 86, 94) at least one signal (82, 90, 98) by the movable portion transmitter, wherein the at least three reference points (80, 86, 94) include at least three of the receivers installed in the tower bases; and determining a position of the at least one movable portion (68, 72, 20) depending on at least one characteristic of the at least one signal; and determining at least one operational parameter of the wind turbine depending on the position of the at least one movable portion (68, 72, 20). sending, from at least two senders each located at one of the wind turbines, a differential signal; automatically calibrating the position of at least one of the receivers installed in the tower base of the wind turbine of the wind farm based on the differential signal; sending to at least three reference points (80, 86, 94) at least one signal (82, 90, 98) by the movable portion transmitter, wherein the at least three reference points (80, 86, 94) include at least three of the receivers installed in the tower bases; and determining a position of the at least one movable portion (68, 72, 20) depending on at least one characteristic of the at least one signal; and determining at least one operational parameter of the wind turbine depending on the position of the at least one movable portion (68, 72, 20).
A vehicle, comprising: a brake lever for receiving an operator braking input as a lever travel of the brake lever; a braking wheel operatively coupled with the brake lever to brake the vehicle based on the lever travel; characterized by: a brake pressure circuit configured for: estimating a maximum braking force above which the braking wheel will skid with respect to a ground surface; scaling a lever gain of the brake lever to command the maximum braking force at a full travel of the brake lever such that a remaining brake lever travel indicates the amount of braking capability remaining for the vehicle; and braking the braking wheel based on the lever gain and the lever travel. a brake lever for receiving an operator braking input as a lever travel of the brake lever; a braking wheel operatively coupled with the brake lever to brake the vehicle based on the lever travel; characterized by: a brake pressure circuit configured for: estimating a maximum braking force above which the braking wheel will skid with respect to a ground surface; scaling a lever gain of the brake lever to command the maximum braking force at a full travel of the brake lever such that a remaining brake lever travel indicates the amount of braking capability remaining for the vehicle; and braking the braking wheel based on the lever gain and the lever travel. estimating a maximum braking force above which the braking wheel will skid with respect to a ground surface; scaling a lever gain of the brake lever to command the maximum braking force at a full travel of the brake lever such that a remaining brake lever travel indicates the amount of braking capability remaining for the vehicle; and braking the braking wheel based on the lever gain and the lever travel.