mhurhangee/ep-ind-claims huggingface dataset:
A method of decoding an audio signal including a downmixed mono signal (m), comprising: receiving spatial information including spatial parameters, wherein the spatial parameters usable for generating a multi-channel signal of 5.1 channels from the downmixed mono signal include Channel Level Difference, CLD0, to CLD4 and Inter Channel Correlation, ICC0, to ICC4; generating a combined CLDα and a combined ICCα, wherein the combined CLDα and ICCα are used for generating a stereo signal (Lt, Rt) from the downmixed mono signal (m); and decoding the audio signal using the combined CLDα and ICCα, wherein the combined CLDα and ICCα are generated by inputting the CLD0 to CLD4 and the ICC0 to ICC4 into specific conversion formulae that are decided according to tree configuration information for the audio signal. receiving spatial information including spatial parameters, wherein the spatial parameters usable for generating a multi-channel signal of 5.1 channels from the downmixed mono signal include Channel Level Difference, CLD0, to CLD4 and Inter Channel Correlation, ICC0, to ICC4; generating a combined CLDα and a combined ICCα, wherein the combined CLDα and ICCα are used for generating a stereo signal (Lt, Rt) from the downmixed mono signal (m); and decoding the audio signal using the combined CLDα and ICCα,
Single circuit tire pressure valve assembly comprising a control and supply channel and a tire pressure valve with a control inlet which is connected via a branching and a control branch to the control and supply channel, with a supply inlet which is connected via the branching and a supply branch to the control and supply channel, with a vent and with a tire port, wherein a) in a first switching position the tire pressure valve closes the tire port, b) in a second switching position the tire pressure valve connects the tire port to the vent, c) in a third switching position the tire pressure valve connects the tire port to the supply inlet, d) the tire pressure valve for an at least temporary pressure in the control and supply channel - which is lower than a first threshold value is in the first switching position, - which is higher than the first threshold value and lower than the second threshold value is transferred from the first switching position into the second switching position and - which is higher than the second threshold value is transferred from the first switching position or from the second switching position into the third switching position, characterized in that a self holding valve is provided which comprises a passive self holding function such that after transferring the tire pressure valve into the third switching position the third switching position is upheld even if the pressure in the control and supply channel temporarily falls below the second threshold value. a) in a first switching position the tire pressure valve closes the tire port, b) in a second switching position the tire pressure valve connects the tire port to the vent, c) in a third switching position the tire pressure valve connects the tire port to the supply inlet, d) the tire pressure valve for an at least temporary pressure in the control and supply channel - which is lower than a first threshold value is in the first switching position, - which is higher than the first threshold value and lower than the second threshold value is transferred from the first switching position into the second switching position and - which is higher than the second threshold value is transferred from the first switching position or from the second switching position into the third switching position, - which is lower than a first threshold value is in the first switching position, - which is higher than the first threshold value and lower than the second threshold value is transferred from the first switching position into the second switching position and - which is higher than the second threshold value is transferred from the first switching position or from the second switching position into the third switching position,
A method executed by an electronic device for identifying an abnormal terminal, comprising: determining a cell having an abnormal indicator; identifying an international mobile subscriber identification, IMSI, number of a terminal experiencing abnormal access according to signalings of the cell having an abnormal indicator; and determining the terminal experiencing abnormal access through IMSI number signaling verification, characterized in that, determining the terminal experiencing abnormal access through IMSI number signaling verification comprises: monitoring the IMSI number signaling within a first preset period of time according to the IMSI number of the terminal; in response to a target cell to which the terminal is handed over being a Long Term Evolution, LTE, cell enabling Enhancement Machine Type Communication, eMTC, and the terminal reestablishing connection back to a source cell after handover and the source cell being a LTE cell without enabling eMTC, then determining that the terminal belongs to a terminal experiencing abnormal access. for identifying an abnormal terminal, comprising: determining a cell having an abnormal indicator; identifying an international mobile subscriber identification, IMSI, number of a terminal experiencing abnormal access according to signalings of the cell having an abnormal indicator; and determining the terminal experiencing abnormal access through IMSI number signaling verification, characterized in that, determining the terminal experiencing abnormal access through IMSI number signaling verification comprises: monitoring the IMSI number signaling within a first preset period of time according to the IMSI number of the terminal; in response to a target cell to which the terminal is handed over being a Long Term Evolution, LTE, cell enabling Enhancement Machine Type Communication, eMTC, and the terminal reestablishing connection back to a source cell after handover and the source cell being a LTE cell without enabling eMTC, then determining that the terminal belongs to a terminal experiencing abnormal access.
A user authentication system comprising: a plurality of types of bodily information acquisition apparatuses (10, 20, 30, 40) configured to acquire different types of bodily information for a certain user; a control unit (31, 41) configured to generate a group of associated data relating to the bodily information each time new bodily information is measured by a certain bodily information acquisition apparatus, the group of data comprising at least information of the date and time of a measurement, the identification number of the user, the information of the certain apparatus identification number, and the measured bodily information; a storage unit configured to store the newly generated group of data; a user determination unit configured to check whether or not there is a logical discrepancy between the newly generated group of data for the user and other previously stored group of data for the same user, said previously stored group of data being associated with a bodily information acquisition apparatus other than said certain bodily information acquisition apparatus, and thereby determine whether or not the newly generated group of data relates to the certain user; characterized in that the measured bodily information of said previously stored group of data is of a different type than the bodily information of the newly generated group of data and the logical discrepancy is due to the determination that the acquisition of the newly generated data at the date and time of the newly generated group of data is impossible from a temporal perspective. a plurality of types of bodily information acquisition apparatuses (10, 20, 30, 40) configured to acquire different types of bodily information for a certain user; a control unit (31, 41) configured to generate a group of associated data relating to the bodily information each time new bodily information is measured by a certain bodily information acquisition apparatus, the group of data comprising at least information of the date and time of a measurement, the identification number of the user, the information of the certain apparatus identification number, and the measured bodily information; a storage unit configured to store the newly generated group of data; a user determination unit configured to check whether or not there is a logical discrepancy between the newly generated group of data for the user and other previously stored group of data for the same user, said previously stored group of data being associated with a bodily information acquisition apparatus other than said certain bodily information acquisition apparatus, and thereby determine whether or not the newly generated group of data relates to the certain user; characterized in that the measured bodily information of said previously stored group of data is of a different type than the bodily information of the newly generated group of data and the logical discrepancy is due to the determination that the acquisition of the newly generated data at the date and time of the newly generated group of data is impossible from a temporal perspective.
Hatch locking device for an aircraft hatch, comprising: an eccentric bush which can be connected to a hatch bulkhead of the aircraft hatch panel; an inner lining (5, 6) which is introduced into the eccentric bush and has a bolt receptacle which is oriented centrally along a bolt receptacle axis for receiving a locking bolt; a conical pressing sleeve which is arranged in the inner lining (5, 6); a conical clamping sleeve, the outer conical shell face of which is in displaceable engagement with an inner conical shell face of the conical pressing sleeve, and the inner cylindrical shell face of which is flush with the outer wall of the bolt receptacle; and linear actuators (4a, 4b) which are mounted on in each case two opposite sides of the conical pressing sleeve in the inner lining (5, 6) and are designed to displace the conical pressing sleeve along the bolt receptacle axis with respect to the conical clamping sleeve. an eccentric bush which can be connected to a hatch bulkhead of the aircraft hatch panel; an inner lining (5, 6) which is introduced into the eccentric bush and has a bolt receptacle which is oriented centrally along a bolt receptacle axis for receiving a locking bolt; a conical pressing sleeve which is arranged in the inner lining (5, 6); a conical clamping sleeve, the outer conical shell face of which is in displaceable engagement with an inner conical shell face of the conical pressing sleeve, and the inner cylindrical shell face of which is flush with the outer wall of the bolt receptacle; and linear actuators (4a, 4b) which are mounted on in each case two opposite sides of the conical pressing sleeve in the inner lining (5, 6) and are designed to displace the conical pressing sleeve along the bolt receptacle axis with respect to the conical clamping sleeve.
A method in a wireless communication system for gathering measurements associated with wireless signals from a mobile terminal to a base station, wherein the method is performed by a centralized radio environment map controller, comprising the steps of: configuring one or more mobile terminals to make measurements of the radio environment; configuring the one or more mobile terminals to construct a minimization of drive test report from the measurements; obtaining information related to the one or more mobile terminals; directing the one or more mobile terminals to transmit the report; directing each of the one or more mobile terminals to use a particular network connection to transmit the report; and storing the report in a layered radio environment map, wherein the layered radio environment map is a radio environment map distributed between system layers of the wireless communication system, the method characterised by further comprising the steps of: the particular network connection is selected based in part on the information related to the one or more mobile terminals such that power consumption in each of the one or more mobile terminals is minimized, wherein the storing the report in the layered radio environment map comprises selectively storing the report in a local base station resource environment map of the layered radio environment map or a central radio environment map of the layered radio environment map, wherein the selectively storing is based on the purpose for which the report is to be used and the amount of storage available. configuring one or more mobile terminals to make measurements of the radio environment; configuring the one or more mobile terminals to construct a minimization of drive test report from the measurements; obtaining information related to the one or more mobile terminals; directing the one or more mobile terminals to transmit the report; directing each of the one or more mobile terminals to use a particular network connection to transmit the report; and storing the report in a layered radio environment map, wherein the layered radio environment map is a radio environment map distributed between system layers of the wireless communication system, the particular network connection is selected based in part on the information related to the one or more mobile terminals such that power consumption in each of the one or more mobile terminals is minimized, wherein the storing the report in the layered radio environment map comprises selectively storing the report in a local base station resource environment map of the layered radio environment map or a central radio environment map of the layered radio environment map, wherein the selectively storing is based on the purpose for which the report is to be used and the amount of storage available.
A compound represented by formula I: or a pharmaceutically acceptable salt, solvate, hydrate, enantiomer or stereoisomer thereof; wherein, independently for each occurrence, W is Z 1 is Z 2 is Z 3 is Y is X is R 1 is C 1-12 alkyl; R 2 is cyclopropyl, cyclobutyl, or cyclopentyl; R 3 is hydrogen, C 1-6 alkyl, halo, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, amino, or cyano; R 5a is hydrogen, halo, C 1-6 alkyl or C 1-6 haloalkyl; R 5b is hydrogen, halo, C 1-6 alkyl or C 1-6 haloalkyl; and n is 1. W is Z 1 is Z 2 is Z 3 is Y is X is R 1 is C 1-12 alkyl; R 2 is cyclopropyl, cyclobutyl, or cyclopentyl; R 3 is hydrogen, C 1-6 alkyl, halo, C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, amino, or cyano; R 5a is hydrogen, halo, C 1-6 alkyl or C 1-6 haloalkyl; R 5b is hydrogen, halo, C 1-6 alkyl or C 1-6 haloalkyl; and n is 1.
A control assembly, for a power machine having an engine, comprising an engine speed sensor configured to provide feedback of a load on the engine, and a controller configured to control a hydrostatic pump of a hydrostatic drive assembly, the control assembly further comprising: a user interface including operator controls capable of providing a pump stroke or displacement input signal to the controller to control the magnitude and direction of flow from the hydrostatic pump and a mode selector to select a power management control mode, a speed control mode and a no control mode; and a power management component configured to receive the feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the power management control mode is selected; and a speed control component configured to receive a feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the speed control mode is selected; wherein the controller is configured to control the magnitude and direction of the hydrostatic pump stroke or displacement in response to the operator controls and wherein the controller is configured, in the power management control mode, to destroke the pump to manage power usage and, in the speed control mode, to adjust the hydrostatic pump stroke to maintain a set engine speed in response to the feedback of the engine speed sensor and, in the no control mode, not to provide any control input to the controller based upon the feedback from the engine speed sensor. a user interface including operator controls capable of providing a pump stroke or displacement input signal to the controller to control the magnitude and direction of flow from the hydrostatic pump and a mode selector to select a power management control mode, a speed control mode and a no control mode; and a power management component configured to receive the feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the power management control mode is selected; and a speed control component configured to receive a feedback from the engine speed sensor and provide a control input to the controller based on the feedback received from the engine speed sensor when the speed control mode is selected; wherein the controller is configured to control the magnitude and direction of the hydrostatic pump stroke or displacement in response to the operator controls and wherein the controller is configured, in the power management control mode, to destroke the pump to manage power usage and, in the speed control mode, to adjust the hydrostatic pump stroke to maintain a set engine speed in response to the feedback of the engine speed sensor and, in the no control mode, not to provide any control input to the controller based upon the feedback from the engine speed sensor.
Method for producing a stamp impression with UV-curable ink with a preferably self-inking stamp and a stamp for this purpose, in which a text plate with the negative stamp impression is moved from a resting position into a stamping position, whereby in the stamping position the stamp impression with the ink is produced on a preferably smooth surface of a document or object or workpiece, and then the text plate is returned to the resting position, characterised in that a controller is activated, wherein for the curing of the ink at least one or several irradiation sources arranged on the stamp is or are, respectively, switched on with UV rays aligned in the direction of a printing surface.
A human engineered DKK-1 antibody or antigen binding fragment thereof, comprising a light chain variable region (LCVR) and a heavy chain variable region (HCVR), wherein the LCVR comprises CDRs LCDR1, LCDR2, and LCDR3 and the HCVR comprises CDRs HCDR1, HCDR2, and HCDR3, wherein LCDR1 is SEQ ID NO: 5, LCDR2 is SEQ ID NO: 8, LCDR3 is SEQ ID NO: 7, HCDR1 is SEQ ID NO: 1, HCDR2 is SEQ ID NO: 2, and HCDR3 is SEQ ID NO:4 for use in the treatment of cancer.
A method for monitoring the transport of bank notes in a transport system, having sensors (PDT01 to PDS01) arranged along the transport system for capturing transported bank notes, and a control device for monitoring and controlling the transport system on the basis of signals of the sensors (PDT01 to PDS01), from which the control device derives a presence or absence of a bank note at the place of the respective sensor (PDT01 to PDS01), wherein the signals of all the sensors (PDT01 to PDS01) are stored by the control device, wherein the signals of all the sensors (PDT01 to PDS01) are assigned a unique time specification or cycle specification, all the transported bank notes are assigned by the control device a unique object code, which is linked with the unique time specification or cycle specification, and through evaluation of the stored signals of the sensors (PDT01 to PDS01) occurrence and type of errors upon transport of the bank notes are derived from deviations from expected presences or absences of bank notes, for which purpose the signals of the sensors (PDT01 to PDS01), that are provided with the unique time specifications or cycle specifications, are associated with the bank notes denoted via the unique object codes, characterized in that all the signals of the sensors (PDT01 to PDS01) that are associated with a unique object code are normalized to one of the sensors (PDT01 to PDS01), in particular the first sensor in the transport system, for which purpose the unique time specifications or cycle specifications for each sensor (PDT01 to PDS01) to be normalized are shifted by a run-time difference or a cycle number, wherein the run-time difference or the cycle number result from the distance of the sensor (PDT01 to PDS01) to be respectively normalized from the sensor serving as a normalization basis, a transport speed employed in the transport system, as well as the location of the sensor (PDT01 to PDS01) to be respectively normalized in relation to the sensor in the transport system that serves as a normalization basis.
A system for fastening bodywork elements (3, 4, 5) to a motor vehicle body, this fastening system including an interface present in the form of a one-piece part and secured to the motor vehicle body, characterized in that this interface includes: - a first part including fastening means intended to receive a sill mounting; - a second part including fastening means intended to receive a mudguard; - a third part including fastening means intended to receive a front wing. - a first part including fastening means intended to receive a sill mounting; - a second part including fastening means intended to receive a mudguard; - a third part including fastening means intended to receive a front wing.
A method comprising: receiving (no), at an event listener, two or more base events that occur on, related to, or around a mobile device, wherein the two or more base events comprise at least a pairing of the mobile device with an external device and one or more unlocks of the mobile device while the mobile device is paired with the external device; storing the two or more base events at a state storage; providing the two or more base events stored at the state storage to an inference module; providing a current security configuration to the inference module, the current security configuration is a setting that is currently in place and enables access to the mobile device; identifying, by the inference module, a security configuration change based on the two or more base events and the current security configuration, wherein the security configuration change is a setting where no password is required to access the mobile device when the mobile device is paired with the external device and the external device is designated as a trusted device; providing to a user on a display a suggestion corresponding to the identified security configuration change and including a metric of expected improvement for the identified security configuration change; upon approval of the suggestion from the user, changing the current security configuration based on the security configuration change. receiving (no), at an event listener, two or more base events that occur on, related to, or around a mobile device, wherein the two or more base events comprise at least a pairing of the mobile device with an external device and one or more unlocks of the mobile device while the mobile device is paired with the external device; storing the two or more base events at a state storage; providing the two or more base events stored at the state storage to an inference module; providing a current security configuration to the inference module, the current security configuration is a setting that is currently in place and enables access to the mobile device; identifying, by the inference module, a security configuration change based on the two or more base events and the current security configuration, wherein the security configuration change is a setting where no password is required to access the mobile device when the mobile device is paired with the external device and the external device is designated as a trusted device; providing to a user on a display a suggestion corresponding to the identified security configuration change and including a metric of expected improvement for the identified security configuration change; upon approval of the suggestion from the user, changing the current security configuration based on the security configuration change.