mhurhangee/ep-ind-claims huggingface dataset:
A server comprising: a processor; and memory storing computer readable instructions that, when executed by the processor configure the server to: determine that the server is in maintenance mode; create a user group of users with permission to use one or more installed applications or one or more virtual desktops hosted on the server while receiving maintenance; determine that one or more client devices of the users of the user group are connected to the one or more installed applications, or the one or more virtual desktops hosted on the server; create (408, 412) a temporary directory containing duplicates of the one or more applications or one or more virtual desktops that the one or more client devices are connected to; disconnect (410, 414) the one or more client devices from the one or more installed applications or one or more virtual desktops; and connect the one or more client devices to the duplicates of the one or more applications or one or more virtual desktops. a processor; and memory storing computer readable instructions that, when executed by the processor configure the server to: determine that the server is in maintenance mode; create a user group of users with permission to use one or more installed applications or one or more virtual desktops hosted on the server while receiving maintenance; determine that one or more client devices of the users of the user group are connected to the one or more installed applications, or the one or more virtual desktops hosted on the server; create (408, 412) a temporary directory containing duplicates of the one or more applications or one or more virtual desktops that the one or more client devices are connected to; disconnect (410, 414) the one or more client devices from the one or more installed applications or one or more virtual desktops; and connect the one or more client devices to the duplicates of the one or more applications or one or more virtual desktops. determine that the server is in maintenance mode; create a user group of users with permission to use one or more installed applications or one or more virtual desktops hosted on the server while receiving maintenance; determine that one or more client devices of the users of the user group are connected to the one or more installed applications, or the one or more virtual desktops hosted on the server; create (408, 412) a temporary directory containing duplicates of the one or more applications or one or more virtual desktops that the one or more client devices are connected to; disconnect (410, 414) the one or more client devices from the one or more installed applications or one or more virtual desktops; and connect the one or more client devices to the duplicates of the one or more applications or one or more virtual desktops.
A method comprising: identifying a state of a magnet position sensor, wherein the state of the magnetic position sensor is dependent upon a position of a first magnet that provides mechanical actuation of a switch; wherein the first magnet is disposed in a movable arm that sheers across a fixed arm when moved, and wherein a second magnet is disposed in the fixed arm, the first magnet having a first magnetic field that projects out from the movable arm and the second magnet having a second magnetic field that projects out from the fixed arm; and wherein the first and second magnetic fields are substantially directed toward each other and repel each other, and wherein sheering the movable arm across the fixed arm requires application of a force to the movable arm sufficient to overcome the magnetic repulsion of the first and second magnetic fields; and triggering a system mode based on the identified state of the magnet position sensor, a first system mode activating a normal power mode corresponding to a structure being occupied and a second system mode activating a low power mode corresponding to the structure being unoccupied, wherein the mechanical actuation is an over-center movement of the movable arm, and wherein the movable arm is connected to the fixed arm at a pivot point. identifying a state of a magnet position sensor, wherein the state of the magnetic position sensor is dependent upon a position of a first magnet that provides mechanical actuation of a switch; wherein the first magnet is disposed in a movable arm that sheers across a fixed arm when moved, and wherein a second magnet is disposed in the fixed arm, the first magnet having a first magnetic field that projects out from the movable arm and the second magnet having a second magnetic field that projects out from the fixed arm; and wherein the first and second magnetic fields are substantially directed toward each other and repel each other, and wherein sheering the movable arm across the fixed arm requires application of a force to the movable arm sufficient to overcome the magnetic repulsion of the first and second magnetic fields; and triggering a system mode based on the identified state of the magnet position sensor, a first system mode activating a normal power mode corresponding to a structure being occupied and a second system mode activating a low power mode corresponding to the structure being unoccupied,
Actuating circuit for actuating an ultrasonic transducer (503, 601), having an input for a supply voltage (Ub), an input for receiving an actuating pulse, and an output for outputting voltage pulses (608, 802) to the ultrasonic transducer (503, 601), wherein the actuating circuit has a first circuit block for generating a first voltage and a second circuit block for generating a second voltage, which circuit blocks are coupled to one another, during operation of the circuit arrangement to supply power to the ultrasonic transducer (503, 601) in accordance with the received actuating pulse alternately by means of the first circuit block and by means of the second circuit block in such a way that the mean value of the voltage pulses output to the ultrasonic transducer (503, 601) over time is always kept at the value of half of the supply voltage (Ub/2), wherein a push-pull stage having a first transistor and a second transistor, which transistors can be actuated by means of the input for receiving an actuating pulse, wherein the first transistor is coupled to the first circuit block and the second transistor is coupled to the second circuit block and wherein the output of the push-pull stage is coupled to the output for outputting voltage pulses to the ultrasonic transducer (503, 601), wherein, to actuate the push-pull stage, a pulse generator, in particular a square-wave signal generator, an enveloping circuit, and a microcontroller are provided to control the actuating circuit, wherein the enveloping circuit has an RC element having a capacitor and one or more resistors for charging the capacitor, so that the actuating circuit is configured to actuate the ultrasonic transducer (503, 601) using voltage pulses whose envelope is determined by the charging curve of the capacitor and whose mean value over time is always kept at the value of half of the supply voltage (Ub/2).
A spinal implant comprising: a first rod and a second rod threadingly received in a sleeve mounted in a housing, wherein a threaded connection between said sleeve and said first rod is opposite in direction to a threaded connection between said sleeve and said second rod, wherein said first and second rods (201, 202) each have mounting structure at distal ends thereof for attaching to spinal structure; and an actuating motor operative to rotate said sleeve through a gear system (204, 205), wherein rotating said sleeve in one direction causes said first and second rods (201, 202) to move apart whereas rotating said sleeve in an opposite direction causes said first and second rods (201, 202) to move towards each other, characterised in that said first rod and said second rod are rollinearly threadingly received in said sleeve, and said sleeve is journaled in bearings in said housing. a first rod and a second rod threadingly received in a sleeve mounted in a housing, wherein a threaded connection between said sleeve and said first rod is opposite in direction to a threaded connection between said sleeve and said second rod, wherein said first and second rods (201, 202) each have mounting structure at distal ends thereof for attaching to spinal structure; and an actuating motor operative to rotate said sleeve through a gear system (204, 205), wherein rotating said sleeve in one direction causes said first and second rods (201, 202) to move apart whereas rotating said sleeve in an opposite direction causes said first and second rods (201, 202) to move towards each other, characterised in that said first rod and said second rod are rollinearly threadingly received in said sleeve, and said sleeve is journaled in bearings in said housing.
A method of selecting a communication resource for transmitting data from a transmitter to a receiver (104, 108, 112) from a set of communication resources comprising a plurality of channels, each channel having an associated plurality of transmission rates, the method comprising: storing in a memory a weighting factor for each combination of channel and transmission rate in the set of communication resources; monitoring performance of a first data transmission on a selected channel at a first transmission rate; generating, using one or more processors, an inferred performance for other transmission rates on the selected channel from the performance of the first transmission rate; updating each weighting factor in accordance with the performance on the selected channel at the first transmission rate and the inferred performance for the other transmission rates on the selected channel; selecting a channel and transmission rate combination for subsequent data transmission in dependence on the weighting factors; wherein each weighting factor comprises a channel switching cost factor which is arranged to tend towards zero as the number of times a channel is successively selected increases, such that when a channel has been successively selected for a predefined period of time, the switching cost factor does not affect the weighting factor. storing in a memory a weighting factor for each combination of channel and transmission rate in the set of communication resources; monitoring performance of a first data transmission on a selected channel at a first transmission rate; generating, using one or more processors, an inferred performance for other transmission rates on the selected channel from the performance of the first transmission rate; updating each weighting factor in accordance with the performance on the selected channel at the first transmission rate and the inferred performance for the other transmission rates on the selected channel; selecting a channel and transmission rate combination for subsequent data transmission in dependence on the weighting factors; wherein each weighting factor comprises a channel switching cost factor which is arranged to tend towards zero as the number of times a channel is successively selected increases, such that when a channel has been successively selected for a predefined period of time, the switching cost factor does not affect the weighting factor.
Method for producing a preliminary material for a machining tool, in particular a preliminary material for a saw blade, a saw band, a cutting line, a punching knife or a blade, wherein a first sheet-like base is arranged with one of its edges along an edge of a second sheet-like base; the first and second bases (10, 13) are welded to one another along the edges (11, 12), and the first and second bases (10, 13) are separated again substantially along the welded connection thus created, characterized in that the edges of the bases (10, 13) are welded to one another while supplying at least a first particulate cutting-edge material (19, 19a).
A method of analyzing sensor information to identify an abnormal vehicle behavior, comprising: determining whether a mobile device is inside a vehicle; monitoring via a processor a plurality of sensors in close proximity to the vehicle to collect sensor information; in response to determining that the mobile device is inside the vehicle, activating a monitoring and analysis system to collect and analyze the sensor information from the plurality of sensors, the information from the plurality of sensors including information from a mobile device sensor and from one or more of a closely-integrated vehicle sensor and a loosely-integrated vehicle sensor; analyzing the collected sensor information to generate an analysis result by comparing the information from the mobile device sensor with the information from the one or more of the closely-integrated vehicle sensor and the loosely-integrated vehicle sensor, wherein the analyzing comprises: applying a generated behavior vector to a machine learning classifier model to generate the analysis result, wherein the generated behavior vector is based on the collected sensor information; and using the generated analysis result to determine whether a behavior of the vehicle is abnormal. determining whether a mobile device is inside a vehicle; monitoring via a processor a plurality of sensors in close proximity to the vehicle to collect sensor information; in response to determining that the mobile device is inside the vehicle, activating a monitoring and analysis system to collect and analyze the sensor information from the plurality of sensors, the information from the plurality of sensors including information from a mobile device sensor and from one or more of a closely-integrated vehicle sensor and a loosely-integrated vehicle sensor; analyzing the collected sensor information to generate an analysis result by comparing the information from the mobile device sensor with the information from the one or more of the closely-integrated vehicle sensor and the loosely-integrated vehicle sensor, wherein the analyzing comprises: applying a generated behavior vector to a machine learning classifier model to generate the analysis result, wherein the generated behavior vector is based on the collected sensor information; and
A high-density fiber ribbon, comprising: a) a plurality of small diameter optical fibers arranged in one or more rows, wherein each small diameter optical fiber comprises: i) a glass section with a diameter d4; ii) a non-glass coating section that surrounds the glass section and having a diameter dC and that defines an outer surface; iii) a mode-field diameter at a wavelength of 1310 nm of between 8.6 and 9.5 microns; iv) a fiber cutoff wavelength less than 1260 nm; and v) a bend loss for a single turn of the small diameter fiber around a mandrel with a 15 mm diameter of less than 0.1 dB at a wavelength of 1550 nm; wherein the ratio dC/d4 is an integer value to within 10 percent, the diameter d4 is smaller than 105 microns, and the diameter dC is smaller than 205 microns; b) a matrix layer encapsulating the plurality of small diameter optical fibers; and c) an attenuation per each of the small diameter optical fibers as encapsulated in the matrix layer of less than 0.5 dB/km at a wavelength of 1310 nm and less than about 0.4 dB/km at a wavelength of 1550 nm. a) a plurality of small diameter optical fibers arranged in one or more rows, wherein each small diameter optical fiber comprises: i) a glass section with a diameter d4; ii) a non-glass coating section that surrounds the glass section and having a diameter dC and that defines an outer surface; iii) a mode-field diameter at a wavelength of 1310 nm of between 8.6 and 9.5 microns; iv) a fiber cutoff wavelength less than 1260 nm; and v) a bend loss for a single turn of the small diameter fiber around a mandrel with a 15 mm diameter of less than 0.1 dB at a wavelength of 1550 nm; wherein the ratio dC/d4 is an integer value to within 10 percent, the diameter d4 is smaller than 105 microns, and the diameter dC is smaller than 205 microns; i) a glass section with a diameter d4; ii) a non-glass coating section that surrounds the glass section and having a diameter dC and that defines an outer surface; iii) a mode-field diameter at a wavelength of 1310 nm of between 8.6 and 9.5 microns; iv) a fiber cutoff wavelength less than 1260 nm; and v) a bend loss for a single turn of the small diameter fiber around a mandrel with a 15 mm diameter of less than 0.1 dB at a wavelength of 1550 nm; wherein the ratio dC/d4 is an integer value to within 10 percent, the diameter d4 is smaller than 105 microns, and the diameter dC is smaller than 205 microns; b) a matrix layer encapsulating the plurality of small diameter optical fibers; and c) an attenuation per each of the small diameter optical fibers as encapsulated in the matrix layer of less than 0.5 dB/km at a wavelength of 1310 nm and less than about 0.4 dB/km at a wavelength of 1550 nm.
A method of transmitting a multicast signal and a unicast signal simultaneously for a network of a wireless communication system, the method comprising the steps of: transmitting, by the network, the multicast signal to at least one first communication device in the wireless communication system during a time interval via at least one first antenna of the network; transmitting, by the network, the unicast signal to another communication device in the wireless communication system during the time interval via at least one second antenna of the network; and reducing, by the network, interference caused by at least one of the multicast signal and the unicast signal, when transmitting the multicast signal and the unicast signal; wherein a priority of reducing the interference caused by the multicast signal to the another communication device is higher than a priority of reducing the interference caused by the unicast signal to the at least one first communication device; wherein the network transmits the multicast signal and the unicast signal by using a MIMO technique with a MIMO configuration; wherein the network transmits the unicast signal according to a measurement feedback transmitted by the another communication device. transmitting, by the network, the multicast signal to at least one first communication device in the wireless communication system during a time interval via at least one first antenna of the network; transmitting, by the network, the unicast signal to another communication device in the wireless communication system during the time interval via at least one second antenna of the network; and reducing, by the network, interference caused by at least one of the multicast signal and the unicast signal, when transmitting the multicast signal and the unicast signal; wherein a priority of reducing the interference caused by the multicast signal to the another communication device is higher than a priority of reducing the interference caused by the unicast signal to the at least one first communication device; wherein the network transmits the multicast signal and the unicast signal by using a MIMO technique with a MIMO configuration; wherein the network transmits the unicast signal according to a measurement feedback transmitted by the another communication device.
An active implantable medical device comprising: - a cardiac therapy circuit comprising a module for detecting first potentials and generating myocardial stimulation, defibrillation and/or resynchronization pulses; - a peripheral therapy circuit comprising a module for detecting second potentials and generating peripheral stimulation pulses; - at least one first connection terminal, adapted and designed to receive a detection/stimulation lead (16, 22) that is implantable in or on the heart; and - at least one second connection terminal, adapted and designed to receive a detection/stimulation lead that is implantable on or close to a peripheral organ located at a distance from the heart, wherein each of said first and second connection terminals is adapted to equally receive one or the other of said leads (16, 22; 12), and comprising means for verifying the respective connection configuration of said leads to said terminals, the means being adapted to: a) collect a signal from said first connection terminal and analyze (102-106; 404; 416) the collected signal to reveal the presence of a cardiac signal, b) collect a signal from said second connection terminal and analyze (110-114; 418-426) the collected signal to reveal the presence of a cardiac signal, characterized in that the means are adapted: c) if criterion a) is verified and criterion b) is not verified, to issue, as a response, an activation order (210; 428) to the cardiac therapy circuit and the peripheral therapy circuit, and d) if criterion a) is not verified or criterion b) is verified, to issue, as a response, an inhibition order (206; 410) to the cardiac therapy circuit and the peripheral therapy circuit. - a cardiac therapy circuit comprising a module for detecting first potentials and generating myocardial stimulation, defibrillation and/or resynchronization pulses; - a peripheral therapy circuit comprising a module for detecting second potentials and generating peripheral stimulation pulses; - at least one first connection terminal, adapted and designed to receive a detection/stimulation lead (16, 22) that is implantable in or on the heart; and - at least one second connection terminal, adapted and designed to receive a detection/stimulation lead that is implantable on or close to a peripheral organ located at a distance from the heart, a) collect a signal from said first connection terminal and analyze (102-106; 404; 416) the collected signal to reveal the presence of a cardiac signal, b) collect a signal from said second connection terminal and analyze (110-114; 418-426) the collected signal to reveal the presence of a cardiac signal, c) if criterion a) is verified and criterion b) is not verified, to issue, as a response, an activation order (210; 428) to the cardiac therapy circuit and the peripheral therapy circuit, and d) if criterion a) is not verified or criterion b) is verified, to issue, as a response, an inhibition order (206; 410) to the cardiac therapy circuit and the peripheral therapy circuit.
A method for operating a base station to support network entry of a mobile station in a communication system, the method comprising: transmitting, to the mobile station, downlink control channels comprising random access configuration over each of a plurality of downlink, DL, transmission beams; receiving, from the mobile station, an initial random access signal based on the random access configuration and comprising information indicating a best DL transmission beam from among the plurality of DL transmission beams over each of a plurality of uplink, UL, transmission beams; and transmitting over the best DL transmission beam to the mobile station, a random access acknowledge signal in response to the initial random access signal. transmitting, to the mobile station, downlink control channels comprising random access configuration over each of a plurality of downlink, DL, transmission beams; receiving, from the mobile station, an initial random access signal based on the random access configuration and comprising information indicating a best DL transmission beam from among the plurality of DL transmission beams over each of a plurality of uplink, UL, transmission beams; and transmitting over the best DL transmission beam to the mobile station, a random access acknowledge signal in response to the initial random access signal.