mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method, comprising: obtaining, by one or more computing devices, a request for navigational directions to a target destination; determining, by the one or more computing devices, an outbound journey route from an initial location to the target destination, wherein the outbound journey route includes an estimated outbound journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; determining, by the one or more computing devices, a return journey route from the target destination to a return destination, wherein the return journey route includes an estimated return journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; comparing, by the one or more computing devices, the estimated outbound journey time to the estimated return journey time; and generating, by the one or more computing devices, a notification regarding the return journey route when comparing the estimated outbound journey time to the estimated return journey time results in a determination that the estimated return journey time is greater than the estimated outbound journey time. obtaining, by one or more computing devices, a request for navigational directions to a target destination; determining, by the one or more computing devices, an outbound journey route from an initial location to the target destination, wherein the outbound journey route includes an estimated outbound journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; determining, by the one or more computing devices, a return journey route from the target destination to a return destination, wherein the return journey route includes an estimated return journey time determined at least in part from one or more of current traffic conditions or historical traffic conditions; comparing, by the one or more computing devices, the estimated outbound journey time to the estimated return journey time; and generating, by the one or more computing devices, a notification regarding the return journey route when comparing the estimated outbound journey time to the estimated return journey time results in a determination that the estimated return journey time is greater than the estimated outbound journey time.
A radio-frequency identification RFID tag, comprising: an integrated circuit IC; an antenna electrically coupled to the IC, the antenna configured to receive RF power from received wireless RF signals; an energy storage device coupled to the IC; and a power manager configured to receive the RF power received by the antenna; the power manager further configured to: operate the IC with the received RF power if the received RF power meets or exceeds an operational threshold power for the IC; and characterized to store excess energy derived from excess received RF power in the energy storage device if the received RF power exceeds the operational threshold power for the IC; access the stored excess energy in the energy storage device to provide power to operate the IC if the received RF power from the antenna is less than the operational threshold power for the IC and when the RFID tag is not receiving wireless RF signals from a RFID reader. an integrated circuit IC; an antenna electrically coupled to the IC, the antenna configured to receive RF power from received wireless RF signals; an energy storage device coupled to the IC; and a power manager configured to receive the RF power received by the antenna; the power manager further configured to: operate the IC with the received RF power if the received RF power meets or exceeds an operational threshold power for the IC; and characterized to store excess energy derived from excess received RF power in the energy storage device if the received RF power exceeds the operational threshold power for the IC; access the stored excess energy in the energy storage device to provide power to operate the IC if the received RF power from the antenna is less than the operational threshold power for the IC and when the RFID tag is not receiving wireless RF signals from a RFID reader. operate the IC with the received RF power if the received RF power meets or exceeds an operational threshold power for the IC; and characterized to store excess energy derived from excess received RF power in the energy storage device if the received RF power exceeds the operational threshold power for the IC; access the stored excess energy in the energy storage device to provide power to operate the IC if the received RF power from the antenna is less than the operational threshold power for the IC and when the RFID tag is not receiving wireless RF signals from a RFID reader.
Electrode arrangement for measuring electric voltages and currents in the human body and for electro-simulation of the human body, comprising - an electrode array with a flexible carrier, wherein a number of electrodes are arranged in a grid on the same side of the carrier and wherein slots are arranged between the individual electrodes starting from the outer edge of the carrier, and - an elastic intermediate layer that has one recess for each electrode, wherein each recess defines a cavity to be filled with an electrically conductive gel, characterised by a retaining layer arranged between the elastic intermediate layer and the electrodes of the electrode array, - wherein the retaining layer has a smaller cross-sectional area than the intermediate elastic layer, and - wherein the retention layer has contact openings, wherein the contact openings have a smaller cross-sectional area than the recesses of the intermediate layer and wherein the contact openings, in particular when the electrode arrangement is arranged on the body surface of a test subject, correspond to the recesses in such a way that an electrically conductive connection can be produced between the electrodes and the cavities, in particular between the electrodes and an electrically conductive gel present in the cavities. - an electrode array with a flexible carrier, wherein a number of electrodes are arranged in a grid on the same side of the carrier and wherein slots are arranged between the individual electrodes starting from the outer edge of the carrier, and - an elastic intermediate layer that has one recess for each electrode, wherein each recess defines a cavity to be filled with an electrically conductive gel, characterised by a retaining layer arranged between the elastic intermediate layer and the electrodes of the electrode array, characterised by a retaining layer arranged between the elastic intermediate layer and the electrodes of the electrode array, - wherein the retaining layer has a smaller cross-sectional area than the intermediate elastic layer, and - wherein the retention layer has contact openings, wherein the contact openings have a smaller cross-sectional area than the recesses of the intermediate layer and wherein the contact openings, in particular when the electrode arrangement is arranged on the body surface of a test subject, correspond to the recesses in such a way that an electrically conductive connection can be produced between the electrodes and the cavities, in particular between the electrodes and an electrically conductive gel present in the cavities. wherein the contact openings have a smaller cross-sectional area than the recesses of the intermediate layer and wherein the contact openings, in particular when the electrode arrangement is arranged on the body surface of a test subject, correspond to the recesses in such a way that an electrically conductive connection can be produced between the electrodes and the cavities, in particular between the electrodes and an electrically conductive gel present in the cavities.
A method for transmitting a control signal in a wireless communication system, the method performed by a mobile terminal and comprising: receiving a simultaneous transmission indicator indicating whether the mobile terminal is configured to support a transmission of a first control signal and a second control signal on an uplink control channel in one subframe; and transmitting the first control signal and a third control signal in a subframe if the mobile terminal is configured to support the transmission of the first control signal and the second control signal on the uplink control channel in one subframe, wherein the first control signal, the second control signal and the third control signal are different from each other, and wherein the first control signal includes a sounding reference signal, SRS, the second control signal includes a hybrid automatic repeat request, HARQ, acknowledgment/not-acknowledgment, ACK/NACK, and the third control signal includes a scheduling request, SR. receiving a simultaneous transmission indicator indicating whether the mobile terminal is configured to support a transmission of a first control signal and a second control signal on an uplink control channel in one subframe; and transmitting the first control signal and a third control signal in a subframe if the mobile terminal is configured to support the transmission of the first control signal and the second control signal on the uplink control channel in one subframe, wherein the first control signal, the second control signal and the third control signal are different from each other, and wherein the first control signal includes a sounding reference signal, SRS, the second control signal includes a hybrid automatic repeat request, HARQ, acknowledgment/not-acknowledgment, ACK/NACK, and the third control signal includes a scheduling request, SR.
A method for turbine fault or component degradation detection comprising: measuring the power output from a plurality of renewable energy turbines (22,24,26) in an array, performing a comparison of the measured power output from a target turbine with a predicted value for the target turbine, wherein the predicted value is the result of a calculation based on the measured power output from a plurality of other turbines (22,24,26) from the array and a predictive model which includes a weighting assigned to each of the plurality of other turbines (22,24,26) based on the strength of correlation of their historical data with historical data from the target turbine, determining a performance change for the target turbine based on the comparison; and outputting an alert signal indicative of a fault or component degradation if a performance change is determined; characterised in that a separate predictive model is provided for each of a plurality of defined wind directions, and the method selects the predictive model that corresponds to the wind direction experienced by the target turbine. measuring the power output from a plurality of renewable energy turbines (22,24,26) in an array, performing a comparison of the measured power output from a target turbine with a predicted value for the target turbine, wherein the predicted value is the result of a calculation based on the measured power output from a plurality of other turbines (22,24,26) from the array and a predictive model which includes a weighting assigned to each of the plurality of other turbines (22,24,26) based on the strength of correlation of their historical data with historical data from the target turbine, determining a performance change for the target turbine based on the comparison; and outputting an alert signal indicative of a fault or component degradation if a performance change is determined; characterised in that a separate predictive model is provided for each of a plurality of defined wind directions, and the method selects the predictive model that corresponds to the wind direction experienced by the target turbine.
A refrigerator (10, 10a, 10b, 10c) comprising: a machine room defined in one side of a storage compartment; a base defining a bottom surface of the machine room; a compressor (111, 115) seated on the base for compressing a refrigerant; a condenser for condensing the refrigerant compressed in the compressor (111, 115), the condenser being disposed on one side of the compressor (111, 115); a drain pan disposed on the base and adapted to store condensed water generated in the condenser; a fan assembly coupled to the base and adapted to generate an air flow within the machine room, wherein the fan assembly comprises a plurality of condensation fans (121, 122); and a control unit for applying an electrical signal to allow the plurality of condensation fans (121, 122) to control a duty value that defines a pulse value applied into the plurality of condensation fans (121, 122); characterized in that the compressor (111, 115) comprises a first compressor primarily for compressing the refrigerant and a second compressor for additionally compressing the refrigerant compressed in the first compressor, the fan assembly comprises a first condensation fan and a second condensation fan coupled to one side of the first condensation fan, the first compressor and the first condensation fan form a first row, and the second compressor and the second condensation fan form a second row, the refrigerator further comprises a rotation number detection unit (210, 220) for detecting a rotation number of each of the first and the second condensation fans (121, 122), and the control unit is configured to control the rotation number of each of the first and the second condensation fans (121, 122) such that the rotation numbers of the first and second condensation fans (121, 122) are identical to each other on the basis of the information with respect to the detected rotation number. a machine room defined in one side of a storage compartment; a base defining a bottom surface of the machine room; a compressor (111, 115) seated on the base for compressing a refrigerant; a condenser for condensing the refrigerant compressed in the compressor (111, 115), the condenser being disposed on one side of the compressor (111, 115); a drain pan disposed on the base and adapted to store condensed water generated in the condenser; a fan assembly coupled to the base and adapted to generate an air flow within the machine room, wherein the fan assembly comprises a plurality of condensation fans (121, 122); and a control unit for applying an electrical signal to allow the plurality of condensation fans (121, 122) to control a duty value that defines a pulse value applied into the plurality of condensation fans (121, 122);
A display adapted to be rolled up (100, 200), comprising: a display effect layer (78, 128) formed on a back plane substrate (64, 114) configured and dimensioned to be rolled up; and a front plane substrate (71, 121, 320) configured and dimensioned to be rolled up and being mounted on the display effect layer (78, 128); and a color filter (74, 124, 334) formed on a side of the front plane substrate (71, 121, 320) opposite the display effect layer (78, 128), said color filter (74, 124, 334) being in direct alignment with a pixel structure (66, 116) formed on the back plane substrate (64, 114); wherein the display effect layer (78, 128) has a thickness of 200 microns or less and the front plane substrate (71, 121, 320) has a thickness of about 25 microns or less such that aperture and parallax effects are controlled due to the proximity between the display effect layer (78, 128) and the color filter (74, 124, 334). a display effect layer (78, 128) formed on a back plane substrate (64, 114) configured and dimensioned to be rolled up; and a front plane substrate (71, 121, 320) configured and dimensioned to be rolled up and being mounted on the display effect layer (78, 128); and a color filter (74, 124, 334) formed on a side of the front plane substrate (71, 121, 320) opposite the display effect layer (78, 128), said color filter (74, 124, 334) being in direct alignment with a pixel structure (66, 116) formed on the back plane substrate (64, 114); wherein the display effect layer (78, 128) has a thickness of 200 microns or less and the front plane substrate (71, 121, 320) has a thickness of about 25 microns or less such that aperture and parallax effects are controlled due to the proximity between the display effect layer (78, 128) and the color filter (74, 124, 334).
A wearable device comprising: a first sensor for monitoring the thoracic breath of the patient; a second sensor for monitoring the abdominal breath of the patient; an embedded computing unit configured for receiving signals output by said first sensor and by said second sensor, said embedded computing unit further configured for detecting sleep apnea syndrome events based on said signals, characterised in said embedded computing unit comprising a counter adapted for counting the number of SAS event detected during each night or period of sleep, said embedded computing unit being further arranged for triggering an additional measure if the number of detected SAS events exceeds a threshold N or after a serious SAS event, corresponding to a SAS event exceeding a duration threshold, said additional measure being triggered by the computing unit only after said number N of SAS is detected during a period or after a SAS event exceeds said duration threshold. a first sensor for monitoring the thoracic breath of the patient; a second sensor for monitoring the abdominal breath of the patient; an embedded computing unit configured for receiving signals output by said first sensor and by said second sensor, said embedded computing unit further configured for detecting sleep apnea syndrome events based on said signals, characterised in said embedded computing unit comprising a counter adapted for counting the number of SAS event detected during each night or period of sleep, said embedded computing unit being further arranged for triggering an additional measure if the number of detected SAS events exceeds a threshold N or after a serious SAS event, corresponding to a SAS event exceeding a duration threshold, said additional measure being triggered by the computing unit only after said number N of SAS is detected during a period or after a SAS event exceeds said duration threshold.
A system for use with a dialysis apparatus, the system comprising: a container (82, 102) having an inlet and at least one gas outlet, the container configured to contain a salt concentrate, a hydrochamber disposed upstream of the container and fluidly coupled to the inlet of the container, a first hydraulic line (20b, 56) fluidly coupling the hydrochamber to the container inlet, and an inlet control valve disposed in the first hydraulic line to selectively control flow of fluid from the hydrochamber to the container, the system configured such that fluid can be advanced through the hydrochamber, via the first hydraulic line and into the container to prepare a salt solution using the salt concentrate in the container and the fluid advanced into the container (82, 102), characterized in that the system further comprises: a second hydraulic line fluidly coupling the gas outlet of the container to the hydrochamber, and a gas outlet control valve disposed in said second hydraulic line to provide selective gas flow through the second hydraulic line, wherein the gas outlet control valve is configured to vent gases from the container to the second hydraulic line, thereby fluidly coupling the container to the hydrochamber such that gases in the container (82, 102) are passed to the hydrochamber. a container (82, 102) having an inlet and at least one gas outlet, the container configured to contain a salt concentrate, a hydrochamber disposed upstream of the container and fluidly coupled to the inlet of the container, a first hydraulic line (20b, 56) fluidly coupling the hydrochamber to the container inlet, and an inlet control valve disposed in the first hydraulic line to selectively control flow of fluid from the hydrochamber to the container, the system configured such that fluid can be advanced through the hydrochamber, via the first hydraulic line and into the container to prepare a salt solution using the salt concentrate in the container and the fluid advanced into the container (82, 102), characterized in that the system further comprises: a second hydraulic line fluidly coupling the gas outlet of the container to the hydrochamber, and a gas outlet control valve disposed in said second hydraulic line to provide selective gas flow through the second hydraulic line, wherein the gas outlet control valve is configured to vent gases from the container to the second hydraulic line, thereby fluidly coupling the container to the hydrochamber such that gases in the container (82, 102) are passed to the hydrochamber. a second hydraulic line fluidly coupling the gas outlet of the container to the hydrochamber, and a gas outlet control valve disposed in said second hydraulic line to provide selective gas flow through the second hydraulic line, wherein the gas outlet control valve is configured to vent gases from the container to the second hydraulic line, thereby fluidly coupling the container to the hydrochamber such that gases in the container (82, 102) are passed to the hydrochamber.
A method of performing a spectroscopy process on a fixed biological sample wherein the biological sample is a cytological sample, the method comprising the steps of: (i) treating the fixed biological material to cause oxidation of haemoglobin present in the fixed biological material, and (ii) performing spectroscopy on the treated fixed biological sample. (i) treating the fixed biological material to cause oxidation of haemoglobin present in the fixed biological material, and (ii) performing spectroscopy on the treated fixed biological sample.
Set of a first and a second preparation for use in an endodontic treatment method, the first preparation comprising an oxidising agent, the second preparation comprising silver antibacterial nanoparticles encapsulated in mesoporous shells to slow their oxidation by the oxidising agent, said first and second preparations being intended to be mixed before or during said endodontic treatment to form an endodontic irrigation solution and to activate the antibacterial effect of the nanoparticles by allowing the oxidising agent to oxidise the nanoparticles.
A method for controlling image capturing, comprising: measuring (101; 202) a speed of an object; determining (102; 204) line frequency for image capturing according to the speed of the object; and controlling (103; 704; 806; 904) a line scan camera to perform image capturing on the object with the line frequency, characterized in that, wherein the step of determining line frequency for image capturing according to the speed of the object comprises: determining (703; 805) the line frequency for image capturing according to a calculated number of pixels V P that the object travels across per unit time on an imaging plane of an image capturing module by capturing at least two images of the object in motion. measuring (101; 202) a speed of an object; determining (102; 204) line frequency for image capturing according to the speed of the object; and controlling (103; 704; 806; 904) a line scan camera to perform image capturing on the object with the line frequency, characterized in that, wherein the step of determining line frequency for image capturing according to the speed of the object comprises: determining (703; 805) the line frequency for image capturing according to a calculated number of pixels V P that the object travels across per unit time on an imaging plane of an image capturing module by capturing at least two images of the object in motion.