mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: receiving, by a network device, one or more packets, wherein the network device includes a first routing component, a second routing component, a first forwarding component, a second forwarding component, and a physical interface card concentrator with multiple physical interface cards; providing, by the first routing component and to the physical interface card concentrator, a signal indicating that the second forwarding component is to be an active forwarding component, wherein the active forwarding component is configured to forward traffic to the physical interface card concentrator; causing, by the physical interface card concentrator and based on the signal, an active data path for each of the multiple physical interface cards to be simultaneously switched from being between the first forwarding component and the multiple physical interface cards to being between the second forwarding component and the multiple physical interface cards; providing, by the first routing component, the one or more packets to the second forwarding component; providing, by the second forwarding component, the one or more packets to the multiple physical interface cards of the physical interface card concentrator via the active data path; and forwarding, by the multiple physical interface cards, the one or more packets toward one or more destinations associated with the one or more packets. receiving, by a network device, one or more packets, wherein the network device includes a first routing component, a second routing component, a first forwarding component, a second forwarding component, and a physical interface card concentrator with multiple physical interface cards; providing, by the first routing component and to the physical interface card concentrator, a signal indicating that the second forwarding component is to be an active forwarding component, wherein the active forwarding component is configured to forward traffic to the physical interface card concentrator; causing, by the physical interface card concentrator and based on the signal, an active data path for each of the multiple physical interface cards to be simultaneously switched from being between the first forwarding component and the multiple physical interface cards to being between the second forwarding component and the multiple physical interface cards; providing, by the first routing component, the one or more packets to the second forwarding component; providing, by the second forwarding component, the one or more packets to the multiple physical interface cards of the physical interface card concentrator via the active data path; and forwarding, by the multiple physical interface cards, the one or more packets toward one or more destinations associated with the one or more packets.
A position pointer, comprising: a pen-shaped housing; an alternating current, AC, signal generation circuit provided in the pen-shaped housing, wherein the AC signal generating circuit generates an AC signal; a first electrode disposed at a given axial position of the pen-shaped housing and configured to transmit the AC signal to a sensor of a position detector; at least three second electrodes (6A, 7A, 8A) that are electrically isolated from each other and disposed surrounding the given axial position of the housing at a tip portion of the housing; and a control circuit which is configured to perform control to supply the AC signal generated by the AC signal generation circuit to the first electrode, to sequentially set each of the at least three second electrodes (6A, 7A, 8A) to a given potential, and to generate and transmit to the sensor, for each second electrode (6A, 7A, 8A) that is set to the given potential, identification information identifying the second electrode that is set to the given potential. a pen-shaped housing; an alternating current, AC, signal generation circuit provided in the pen-shaped housing, wherein the AC signal generating circuit generates an AC signal; a first electrode disposed at a given axial position of the pen-shaped housing and configured to transmit the AC signal to a sensor of a position detector; at least three second electrodes (6A, 7A, 8A) that are electrically isolated from each other and disposed surrounding the given axial position of the housing at a tip portion of the housing; and a control circuit which is configured to perform control to supply the AC signal generated by the AC signal generation circuit to the first electrode, to sequentially set each of the at least three second electrodes (6A, 7A, 8A) to a given potential, and to generate and transmit to the sensor, for each second electrode (6A, 7A, 8A) that is set to the given potential, identification information identifying the second electrode that is set to the given potential.
A method performed by a terminal configured with a coverage enhancement, CE, mode in a wireless communication system, the method comprising: receiving, from a base station, downlink control information, DCI, comprising uplink subcarrier allocation information; determining allocated three subcarriers according to the uplink subcarrier allocation information; wherein the received DCI comprises information for indicating whether to use 2 or 3 subcarriers within the allocated three subcarriers for transmitting uplink data; in case that said information in the received DCI indicates to use two subcarriers within the allocated three subcarriers, selecting two consecutive subcarriers within the allocated three consecutive subcarriers for transmitting an uplink data based on a value of a cell identity mod 2; and transmitting, to the base station, the uplink data using the selected two consecutive subcarriers. receiving, from a base station, downlink control information, DCI, comprising uplink subcarrier allocation information; determining allocated three subcarriers according to the uplink subcarrier allocation information; wherein the received DCI comprises information for indicating whether to use 2 or 3 subcarriers within the allocated three subcarriers for transmitting uplink data; in case that said information in the received DCI indicates to use two subcarriers within the allocated three subcarriers, selecting two consecutive subcarriers within the allocated three consecutive subcarriers for transmitting an uplink data based on a value of a cell identity mod 2; and transmitting, to the base station, the uplink data using the selected two consecutive subcarriers.
Device for the ultrasonic testing of a workpiece, with at least one elongate linear probe (1, 2) and a control unit for actuating the linear probe (1, 2), which unit has a plurality of oscillator elements that are arranged in a row along the longitudinal direction of the linear probe (1, 2) and can be activated individually and/or in groups by the control unit while emitting ultrasound or for detecting ultrasound and, as a result, form at least one active zone of the linear probe (1, 2), wherein the at least one active zone can be moved along the longitudinal direction of the linear probe (1, 2) by means of activation of the individual oscillator elements by the control unit, characterized in that the linear probe (1, 2) has a leading sawtooth profile, the saw teeth of which are provided as lead wedges of the oscillator elements.
A driving motor for electric vehicles, comprising: a rotor having a field coil wound thereon; and a stator having an armature coil wound thereon, and having a predetermined motor limit temperature, wherein the driving motor comprises a motor control unit (200, 230) configured to perform a temperature based control to reduce a current value input to one selected from between the stator and the rotor, which has a higher temperature than the other, and to input the reduced current value, characterized in that the motor control unit (200, 230) is configured to determine a first difference between a temperature of the stator and a limit temperature of the motor, and a second difference between a temperature of the rotor and the limit temperature of the motor, and wherein the motor control unit (200, 230) is configured to perform a maximum torque based control, instead of the temperature based control, of inputting field current (If) and armature current (Ia) to the respective rotor and stator based on a maximum torque value and a maximum field current value for the motor, i) when both the first difference and the second difference are not within a predetermined deviation, or ii) when a difference between the temperature of the stator and the temperature of the rotor is within another predetermined deviation. a rotor having a field coil wound thereon; and a stator having an armature coil wound thereon, and having a predetermined motor limit temperature, wherein the driving motor comprises a motor control unit (200, 230) configured to perform a temperature based control to reduce a current value input to one selected from between the stator and the rotor, which has a higher temperature than the other, and to input the reduced current value, characterized in that the motor control unit (200, 230) is configured to determine a first difference between a temperature of the stator and a limit temperature of the motor, and a second difference between a temperature of the rotor and the limit temperature of the motor, and wherein the motor control unit (200, 230) is configured to perform a maximum torque based control, instead of the temperature based control, of inputting field current (If) and armature current (Ia) to the respective rotor and stator based on a maximum torque value and a maximum field current value for the motor, i) when both the first difference and the second difference are not within a predetermined deviation, or ii) when a difference between the temperature of the stator and the temperature of the rotor is within another predetermined deviation.
A pneumatic tire including pieces of a polyurethane foam in the internal cavity, wherein the polyurethane foam is obtained by using a composition for forming the polyurethane foam comprising a diol component and a diisocyanate component, wherein the diol component is a mixture of polypropylene oxide and a polycaprolactone diol.
A circuit for impedance transforming comprising: a first port and a second port; a tapped transformer comprising a first winding and a second winding; wherein the first winding comprises a first terminal, a second terminal and a number of taps (Tp11, Tp12,...) connected at different positions on the first winding between the first and second terminals, and the second winding comprises a first terminal, a second terminal and a number of taps (Tp21, Tp22...) connected at different positions on the second winding between the first and second terminals; a first programmable capacitor connected between the first and second terminals of the first winding; a first set of switches connected between the number of taps on the first winding and a terminal of the first port; a second programmable capacitor connected between the first and second terminals of the second winding; and a second set of switches connected between the number of taps on the second winding and a terminal of the second port; and wherein the circuit is configured to transform impedance between a first circuit connected to the first port and a second circuit connected to the second port by selectively connecting the first circuit to one of the taps on the first winding via the first set of switches and selectively connecting the second circuit to one of the taps on the second windings via the second set of switches. a first port and a second port; a tapped transformer comprising a first winding and a second winding; wherein the first winding comprises a first terminal, a second terminal and a number of taps (Tp11, Tp12,...) connected at different positions on the first winding between the first and second terminals, and the second winding comprises a first terminal, a second terminal and a number of taps (Tp21, Tp22...) connected at different positions on the second winding between the first and second terminals; a first programmable capacitor connected between the first and second terminals of the first winding; a first set of switches connected between the number of taps on the first winding and a terminal of the first port; a second programmable capacitor connected between the first and second terminals of the second winding; and a second set of switches connected between the number of taps on the second winding and a terminal of the second port; and wherein the circuit is configured to transform impedance between a first circuit connected to the first port and a second circuit connected to the second port by selectively connecting the first circuit to one of the taps on the first winding via the first set of switches and selectively connecting the second circuit to one of the taps on the second windings via the second set of switches.
A method implemented by a service function forwarder, SFF, comprising: receiving, by a receiver of the SFF, a service chain packet comprising a loop prevention field, the loop prevention field comprising a plurality of bits indicating whether an error has occurred during packet transmission; and determining, by a processor of the SFF, whether to forward the service chain packet based on a value in the loop prevention field being less than a predefined parameter, the predefined parameter based on a number of bits ( n) in the loop prevention field. receiving, by a receiver of the SFF, a service chain packet comprising a loop prevention field, the loop prevention field comprising a plurality of bits indicating whether an error has occurred during packet transmission; and determining, by a processor of the SFF, whether to forward the service chain packet based on a value in the loop prevention field being less than a predefined parameter, the predefined parameter based on a number of bits ( n) in the loop prevention field.
A tool configured to remove non-line-of-sight material from an internal passage of an additively manufactured component; the tool comprises a flexible section and is characterised by a head that extends from the flexible section, an abrasive material on the head; an exciter within the head configured to cause the head to vibrate; and a lubrication passage through the flexible section to excrete a lubricant from the head.
An information management apparatus comprising: stroke data acquiring means for acquiring stroke data that is data of a trajectory, which is detected by detecting means capable of detecting the trajectory of approaching writing means, and that includes data of the trajectory of the writing means corresponding to schedule information written on a paper medium; image data generating means for generating image data for the trajectory based on the stroke data acquired by the stroke data acquiring means; text data generating means for generating text data, which is data of text, from the stroke data acquired by the stroke data acquiring means; and schedule registering means for registering the schedule information identified from the text data generated by the text data generating means and the image data generated by the image data generating means in schedule management means for performing schedule management characterized in that: the schedule information includes date information that is information of a date, and wherein the information management apparatus further comprises: notifying means for notifying a user when the date represented by the date information identified from the text data generated by the text data generating means is further ahead in time than a specific timing. stroke data acquiring means for acquiring stroke data that is data of a trajectory, which is detected by detecting means capable of detecting the trajectory of approaching writing means, and that includes data of the trajectory of the writing means corresponding to schedule information written on a paper medium; image data generating means for generating image data for the trajectory based on the stroke data acquired by the stroke data acquiring means; text data generating means for generating text data, which is data of text, from the stroke data acquired by the stroke data acquiring means; and schedule registering means for registering the schedule information identified from the text data generated by the text data generating means and the image data generated by the image data generating means in schedule management means for performing schedule management characterized in that: the schedule information includes date information that is information of a date, and wherein the information management apparatus further comprises: notifying means for notifying a user when the date represented by the date information identified from the text data generated by the text data generating means is further ahead in time than a specific timing. the schedule information includes date information that is information of a date, and wherein the information management apparatus further comprises: notifying means for notifying a user when the date represented by the date information identified from the text data generated by the text data generating means is further ahead in time than a specific timing.
A propulsion channel (2, 19) for an aircraft comprising: - at least a first doubly-fed polyphase asynchronous rotating electric machine to be mechanically coupled to a turbomachine, - at least a second polyphase rotating electric machine electrically coupled to the first asynchronous rotating electric machine, and - a pilot and storage module configured to pilot the first doubly-fed polyphase asynchronous rotating electric machine, said module being connected, on the one hand, to the first doubly-fed polyphase asynchronous rotating electric machine and, on the other hand, to said at least second polyphase rotating electric machine, said at least second polyphase rotating electric machine comprising a permanent magnet polyphase synchronous rotating electric machine, characterized in that a stator of the first asynchronous rotating electric machine comprises a first stator winding generating the electric power feeding the second rotating electric machine and a second distinct stator winding connected to the module for magnetising and piloting the magnetic flux of a rotor of the first doubly-fed polyphase asynchronous rotating electric machine so as to control frequency and amplitude of the electric power signal from the first rotating electric machine. - at least a first doubly-fed polyphase asynchronous rotating electric machine to be mechanically coupled to a turbomachine, - at least a second polyphase rotating electric machine electrically coupled to the first asynchronous rotating electric machine, and - a pilot and storage module configured to pilot the first doubly-fed polyphase asynchronous rotating electric machine,
A retainer assembly for a head harness in the region of a patient interface, wherein at least four retainer assemblies (19, 19', 20, 20') are provided, and wherein at least two retainer assemblies (19, 19', 20, 20') are designed differently with markings and/or codes and can accordingly be clearly assigned, wherein the retainer assembly has a plurality of retaining elements (5, 5', 6, 6', 6a, 6a', 8, 9, 10, 12, 12', 14, 14', 15, 16, 17, 18) that serve to connect the head harness with the patient interface at at least four contact points, and wherein the marking is provided by an equivalent color of the corresponding harness clip and/or adapter and/or holder (5, 6, 6a) components, and wherein the retainer assemblies (19, 19', 20, 20') are designed differently for the top and bottom halves of the patient interface as code, characterized in that the inner and outer side of the head harness are designed in different colors, and wherein two alternative, spatially adjacent top harness holders (6, 6', 6a, 6a') that are designed differently are provided for a top harness strap (12, 12').
A method comprising receiving seismic data representing a reflection amplitude image of a subsurface geologic region of interest and applying a migration operator to the seismic data to derive a first migrated depth image for the subsurface geologic region of interest, characterized by: modeling the seismic data as being a result of applying an adjoint of the migration operator to a reflectivity model, wherein the reflectivity model is a function of an elastic model of the subsurface geologic region of interest; applying (156, 158, 160) at least one impulse response to the reflectivity model to produce a second migrated depth image based at least in part on an estimate of the elastic model, wherein the at least one impulse response represents effects of applied imaging and processing in migrating the seismic data to derive the first migrated depth image; and determining (162, 164 and 166) the elastic model, wherein determining the elastic model comprises comparing the first and second migrated depth images and selectively revising the estimate of the elastic model based at least in part on a result of the comparison. modeling the seismic data as being a result of applying an adjoint of the migration operator to a reflectivity model, wherein the reflectivity model is a function of an elastic model of the subsurface geologic region of interest; applying (156, 158, 160) at least one impulse response to the reflectivity model to produce a second migrated depth image based at least in part on an estimate of the elastic model, wherein the at least one impulse response represents effects of applied imaging and processing in migrating the seismic data to derive the first migrated depth image; and determining (162, 164 and 166) the elastic model, wherein determining the elastic model comprises comparing the first and second migrated depth images and selectively revising the estimate of the elastic model based at least in part on a result of the comparison. applying (156, 158, 160) at least one impulse response to the reflectivity model to produce a second migrated depth image based at least in part on an estimate of the elastic model, wherein the at least one impulse response represents effects of applied imaging and processing in migrating the seismic data to derive the first migrated depth image; and determining (162, 164 and 166) the elastic model, wherein determining the elastic model comprises comparing the first and second migrated depth images and selectively revising the estimate of the elastic model based at least in part on a result of the comparison.
A method of producing at least one hydrocarbon product, the method including; i. producing a gaseous substrate comprising CO in a steam reforming process, wherein the steam reforming process comprises a steam reforming step, a water gas shift step and a pressure swing adsorption step; ii. providing the substrate comprising CO to a bioreactor containing a culture of one or more micro-organisms; iii. fermenting the culture in the bioreactor to produce one or more hydrocarbon products; and iv. passing at least a portion of a gas stream exiting the bioreactor to: i. a pressure swing adsorption module and recovering hydrogen from the exit gas stream, or ii. a reverse water gas shift reactor, and reacting the exit gas stream to provide a gaseous substrate comprising CO. i. producing a gaseous substrate comprising CO in a steam reforming process, wherein the steam reforming process comprises a steam reforming step, a water gas shift step and a pressure swing adsorption step; ii. providing the substrate comprising CO to a bioreactor containing a culture of one or more micro-organisms; iii. fermenting the culture in the bioreactor to produce one or more hydrocarbon products; and iv. passing at least a portion of a gas stream exiting the bioreactor to: i. a pressure swing adsorption module and recovering hydrogen from the exit gas stream, or ii. a reverse water gas shift reactor, and reacting the exit gas stream to provide a gaseous substrate comprising CO. i. a pressure swing adsorption module and recovering hydrogen from the exit gas stream, or ii. a reverse water gas shift reactor, and reacting the exit gas stream to provide a gaseous substrate comprising CO.