mhurhangee/patent-ind-claim-en huggingface dataset:
A link resource transmission method, comprising: flooding (S101), by a first node, first control routing information, wherein the first control routing information comprises an identifier of an area in which the first node is located; receiving (S102), by the first node, second control routing information flooded by a second node, wherein the second control routing information comprises an identifier of an area in which the second node is located; determining (S103), by the first node through comparison, whether the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located; and when (S104) the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located, transmitting, by the first node, link data information of the first node to the second node. flooding (S101), by a first node, first control routing information, wherein the first control routing information comprises an identifier of an area in which the first node is located; receiving (S102), by the first node, second control routing information flooded by a second node, wherein the second control routing information comprises an identifier of an area in which the second node is located; determining (S103), by the first node through comparison, whether the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located; and when (S104) the identifier of the area in which the first node is located is consistent with the identifier of the area in which the second node is located, transmitting, by the first node, link data information of the first node to the second node.
Method for managing, by a computer system on board a first motor vehicle , the operation of an adaptive cruise control of the first vehicle, the method comprising the steps of: i) determining whether a second motor vehicle located directly in front of the first vehicle was previously located directly in front of the first vehicle and whether a third motor vehicle located directly in front of the second vehicle was previously located directly in front of the second vehicle; and, when this is not the case, assign a zero value to a current consistency parameter, or, when this is the case, ii) determine the instantaneous speed of movement of the second vehicle; iii) determine the instantaneous speed of movement of the third vehicle; iv) determining a value of a speed divergence parameter as a function of the instantaneous speed of movement of the second vehicle and the instantaneous speed of movement of the third vehicle; v) determining a value of a variation parameter of a consistency indicator as a function of the value of the speed divergence parameter; vi) determine a value of the current consistency parameter as a function of the value of the variation parameter of a consistency indicator; And vii) manage the operation of the adaptive cruise control such that a set speed value that it takes into account is adapted according to the value of the speed divergence parameter and the value of the current coherence parameter; the management process being characterized in that step iv) comprises a step consisting of determining the difference between the instantaneous speed of movement of the third vehicle and the instantaneous speed of movement of the second vehicle and of dividing this difference by the instantaneous speed of movement of the second vehicle . i) determining whether a second motor vehicle located directly in front of the first vehicle was previously located directly in front of the first vehicle and whether a third motor vehicle located directly in front of the second vehicle was previously located directly in front of the second vehicle; and, when this is not the case, assign a zero value to a current consistency parameter, or, when this is the case, ii) determine the instantaneous speed of movement of the second vehicle; iii) determine the instantaneous speed of movement of the third vehicle; iv) determining a value of a speed divergence parameter as a function of the instantaneous speed of movement of the second vehicle and the instantaneous speed of movement of the third vehicle; v) determining a value of a variation parameter of a consistency indicator as a function of the value of the speed divergence parameter; vi) determine a value of the current consistency parameter as a function of the value of the variation parameter of a consistency indicator; And vii) manage the operation of the adaptive cruise control such that a set speed value that it takes into account is adapted according to the value of the speed divergence parameter and the value of the current coherence parameter; the management process being characterized in that
A terminal , comprising a processor , an interface chip (110-2), a motion sensor , and a first Type C interface (110-1), wherein the processor is separately connected to the motion sensor and the interface chip (110-2); the interface chip (110-2) is separately connected to the processor and a CC pin in the first Type C interface (110-1); the motion sensor is configured to monitor a motion status of the terminal ; characterized in that : the processor is configured to control, according to the motion status of the terminal that is detected by the motion sensor , the interface chip (110-2) to configure the CC pin of the first Type C interface (110-1) to be in a low-level mode when it is determined that the motion status of the terminal changes from a moving state to a static state, wherein the change in the motion status reflects that the terminal is disconnected from an external device and the terminal configures the CC pin to be in the low-level mode by reducing an active level of the CC pin. the processor is separately connected to the motion sensor and the interface chip (110-2); the interface chip (110-2) is separately connected to the processor and a CC pin in the first Type C interface (110-1); the motion sensor is configured to monitor a motion status of the terminal ; characterized in that : the processor is configured to control, according to the motion status of the terminal that is detected by the motion sensor , the interface chip (110-2) to configure the CC pin of the first Type C interface (110-1) to be in a low-level mode when it is determined that the motion status of the terminal changes from a moving state to a static state, wherein the change in the motion status reflects that the terminal is disconnected from an external device and the terminal configures the CC pin to be in the low-level mode by reducing an active level of the CC pin.
Device for positioning a magnetic coil for transcranial magnetic stimulation in relation to the head of a patient, comprising: a head unit with a support for the head of the patient and a positioning unit , which is connected to the support , with a coil seat for holding the magnetic coil ; and a holding arm that holds the head unit and that is configured to be installed firmly, wherein a reversibly movable connection is provided between the head unit and the holding arm in a way that a change of a force, which is applied onto the support by the head of the patient, leads to a relative movement between the head unit and the holding arm through the reversibly movable connection . a head unit with a support for the head of the patient and a positioning unit , which is connected to the support , with a coil seat for holding the magnetic coil ; and a holding arm that holds the head unit and that is configured to be installed firmly, wherein a reversibly movable connection is provided between the head unit and the holding arm in a way that a change of a force, which is applied onto the support by the head of the patient, leads to a relative movement between the head unit and the holding arm through the reversibly movable connection .
A method of writing secure data to a tag associated with an object , comprising: receiving, at a trusted authority , data from a phone , the received data including tag data and user-entered data; and based on the received data, generating, at the trusted authority , a validation signature for a tag ; wherein the trusted authority causes the phone to write the generated validation signature and the received user-entered data into a memory of the tag . receiving, at a trusted authority , data from a phone , the received data including tag data and user-entered data; and based on the received data, generating, at the trusted authority , a validation signature for a tag ; wherein the trusted authority causes the phone to write the generated validation signature and the received user-entered data into a memory of the tag .
A computer-implemented method for protecting backed-up data from ransomware attacks, at least a portion of the method being performed by a computing device comprising at least one processor, the method comprising: determining that a backup system periodically backs up at least one file stored at the computing device to a remote storage system by storing a copy of the at least one file at the remote storage system; identifying one or more characteristics of the at least one file backed up by the backup system, wherein the one or more characteristics are used by the backup system to identify files that are to be backed up to the remote storage system; storing a tripwire file with the one or more characteristics at the computing device; determining that the at least one file stored at the computing device has likely been encrypted by ransomware executing on the computing device by detecting that the tripwire file has been modified; performing , in response to detecting that the tripwire file has been modified, an action that prevents the backup system from replacing the copy of the at least one file at the remote storage system with copy of an encrypted version of the at least one file. determining that a backup system periodically backs up at least one file stored at the computing device to a remote storage system by storing a copy of the at least one file at the remote storage system; identifying one or more characteristics of the at least one file backed up by the backup system, wherein the one or more characteristics are used by the backup system to identify files that are to be backed up to the remote storage system; storing a tripwire file with the one or more characteristics at the computing device; determining that the at least one file stored at the computing device has likely been encrypted by ransomware executing on the computing device by detecting that the tripwire file has been modified; performing , in response to detecting that the tripwire file has been modified, an action that prevents the backup system from replacing the copy of the at least one file at the remote storage system with copy of an encrypted version of the at least one file.
Water filling device for sanitary facilities in vehicles, comprising: - a water inlet port , - a water outlet port , - a connecting line which connects the water inlet port to the water outlet port for conducting water, - a shut-off valve which is inserted in the connecting line and can be switched between an open position and a closed position, - a valve drive means for actuating the shut-off valve from the open position to the closed position and vice versa, - a control unit which is coupled for signal transmission purposes to the valve drive means and is designed to actuate the valve drive means, characterized in that the water filling device has a flushing receiving opening which is designed to receive the water outlet port and is fluidically connected to a flushing water outlet opening, and in that the control unit is designed - to actuate the valve drive device to switch the shut-off valve from the closed position to the open position after a predefined first time interval has elapsed, and - to actuate the valve drive device to switch the shut-off valve from the open position to the closed position after a second time interval has elapsed, said second time interval being subsequent to the first time interval. - a water inlet port , - a water outlet port , - a connecting line which connects the water inlet port to the water outlet port for conducting water, - a shut-off valve which is inserted in the connecting line and can be switched between an open position and a closed position, - a valve drive means for actuating the shut-off valve from the open position to the closed position and vice versa, - a control unit which is coupled for signal transmission purposes to the valve drive means and is designed to actuate the valve drive means, - to actuate the valve drive device to switch the shut-off valve from the closed position to the open position after a predefined first time interval has elapsed, and - to actuate the valve drive device to switch the shut-off valve from the open position to the closed position after a second time interval has elapsed, said second time interval being subsequent to the first time interval.
A method for in-situ measurement of a thickness of a coating deposited by a deposition process, comprising the steps of: initiating deposition within a deposition chamber such that a first coating (C 1 ) forms on an outer surface of a probe disposed in the deposition chamber , wherein the probe comprises a coil assembly including at least one coil (302, 302'; 304, 304'; 306), wherein the probe is separated by a distance (d) from a substrate disposed within the deposition chamber ; exciting the coil assembly with a first alternating current to produce a first time-varying magnetic field, the first time-varying magnetic field generating an eddy current in the first coating; determining a metric related to an inductance or resistance of the coil assembly , wherein a value of the metric is related to a first thickness (T 1 ) of the first coating (C 1 ) and results at least partially from an eddy current magnetic field produced by an eddy current in the coating; and correlating the first thickness (T 1 ) of the first coating (C 1 ) to a second thickness (T 2 ) of a second coating (C 2 ) deposited on a surface of the substrate . initiating deposition within a deposition chamber such that a first coating (C 1 ) forms on an outer surface of a probe disposed in the deposition chamber , wherein the probe comprises a coil assembly including at least one coil (302, 302'; 304, 304'; 306), wherein the probe is separated by a distance (d) from a substrate disposed within the deposition chamber ; exciting the coil assembly with a first alternating current to produce a first time-varying magnetic field, the first time-varying magnetic field generating an eddy current in the first coating; determining a metric related to an inductance or resistance of the coil assembly , wherein a value of the metric is related to a first thickness (T 1 ) of the first coating (C 1 ) and results at least partially from an eddy current magnetic field produced by an eddy current in the coating; and correlating the first thickness (T 1 ) of the first coating (C 1 ) to a second thickness (T 2 ) of a second coating (C 2 ) deposited on a surface of the substrate .
A method performed by a server , the method comprising: receiving , from another device , a request for providing a first service to a terminal while at least one second service is being provided to the terminal ; in response to the request, determining whether a number of the at least one second service being provided to the terminal is a maximum number of services simultaneously supported by the terminal , wherein the maximum number of services is determined based on a hardware capability of the terminal and a number of allocable bearers; identifying a second service based on priority information, the second service having the lowest priority among the at least one second service according to the priority information; identifying that the a priority of the second service is lower than or equal to a priority of the first service; and if the number of the at least one second service is the maximum number, determining to terminate the second service of the at least one second service being provided to the terminal based on the identification that the priority of the second service is lower than or equal to the priority of the first service; and if the second service is terminated , transmitting a setup message for the first service to the terminal, wherein the first service is a mission critical push to talk, MCPTT, service, and wherein a priority of the first service is higher than a priority of a service which is not the MCPTT service according to priority information. receiving , from another device , a request for providing a first service to a terminal while at least one second service is being provided to the terminal ; in response to the request, determining whether a number of the at least one second service being provided to the terminal is a maximum number of services simultaneously supported by the terminal , wherein the maximum number of services is determined based on a hardware capability of the terminal and a number of allocable bearers; identifying a second service based on priority information, the second service having the lowest priority among the at least one second service according to the priority information; identifying that the a priority of the second service is lower than or equal to a priority of the first service; and if the number of the at least one second service is the maximum number, determining to terminate the second service of the at least one second service being provided to the terminal based on the identification that the priority of the second service is lower than or equal to the priority of the first service; and if the second service is terminated , transmitting a setup message for the first service to the terminal, wherein the first service is a mission critical push to talk, MCPTT, service, and wherein a priority of the first service is higher than a priority of a service which is not the MCPTT service according to priority information.
System by means of which a movement of a first object relative to a second object can be regulated, the first object having at least one sensor by means of which raw data (st) about an object environment of the first object can be detected, and at least one of the objects and/or a component of one of the objects being movable by means of an actuator , a control unit being provided, which has a regulation module by means of which the actuator can be regulated such that a movement compensation and/or a change from their relative position to one another can be carried out between the objects , the control unit having a signal processing module by means of which the raw data (st) are processed such that at least one movement data element (ht) is determined, the control unit having a prediction module by means of which at least one future movement data element (h t+Ts ) is predicted on the basis of the movement data element (ht), the at least one future movement data element (h t+Ts ) being provided as an actual variable or as the basis of an actual variable for an actual variable input of the regulation module , characterized in that the control unit has an interpolation module by means of which at least one or more interpolation movement data element(s) (h t+Tp ) can be detected from the movement data elements (h t , h t+Ts ) of the prediction module and the signal processing module , the interpolation movement data element(s) (h t+Tp ) being provided as the basis of an actual variable or as an actual variable for the actual variable input of the regulation module , and the interpolation movement data element(s) (h t+Tp ) temporally lying between two or more of the determined movement data elements (h t , h t+Ts ).
A portable electronic device (112-1, 400), comprising an interface circuit (114-2, 418) configured to communicate with other electronic devices in an enterprise-hosted network (EHN) operated by an entity, wherein the portable electronic device is configured to: discover the EHN by receiving one or more messages that include information about the EHN; connect to the EHN using a quarantine zone, wherein the quarantine zone restricts access to the EHN, and wherein the quarantine zone is bounded or isolated in the EHN and its associated memory; provide valid credentials to establish a level of trust with the EHN; receive a request for a credential ; provide the credential to the EHN, wherein the credential includes authorization information, authentication information, or both; and receive provisioning information that customizes an application on the portable electronic device to a venue associated with the entity such that the customized application implements a venue-specific function, and wherein the provisioning information allows the portable electronic device to connect to the EHN outside of the quarantine zone. discover the EHN by receiving one or more messages that include information about the EHN; connect to the EHN using a quarantine zone, wherein the quarantine zone restricts access to the EHN, and wherein the quarantine zone is bounded or isolated in the EHN and its associated memory; provide valid credentials to establish a level of trust with the EHN; receive a request for a credential ; provide the credential to the EHN, wherein the credential includes authorization information, authentication information, or both; and receive provisioning information that customizes an application on the portable electronic device to a venue associated with the entity such that the customized application implements a venue-specific function, and wherein the provisioning information allows the portable electronic device to connect to the EHN outside of the quarantine zone.
An illuminated medical device , comprising: a surgical instrument comprising: (i) a metal suction tube ; and (ii) an electrode for delivering electrical current to cauterize tissue, wherein the electrode is disposed on a distal portion of the metal suction tube , and wherein the metal suction tube is a conductor for providing the current to the electrode ; and a non-fiber optic optical waveguide having an outer surface, a proximal region and a distal region , wherein the optical waveguide surrounds at least a portion of the surgical instrument, and wherein the optical waveguide is configured to transmit light from the proximal region of the optical waveguide toward the distal region of the optical waveguide by total internal reflection. a surgical instrument comprising: (i) a metal suction tube ; and (ii) an electrode for delivering electrical current to cauterize tissue, wherein the electrode is disposed on a distal portion of the metal suction tube , and wherein the metal suction tube is a conductor for providing the current to the electrode ; and (i) a metal suction tube ; and (ii) an electrode for delivering electrical current to cauterize tissue, wherein the electrode is disposed on a distal portion of the metal suction tube , and wherein the metal suction tube is a conductor for providing the current to the electrode ; and a non-fiber optic optical waveguide having an outer surface, a proximal region and a distal region , wherein the optical waveguide surrounds at least a portion of the surgical instrument, and wherein the optical waveguide is configured to transmit light from the proximal region of the optical waveguide toward the distal region of the optical waveguide by total internal reflection.