mhurhangee/ep-ind-claims huggingface dataset:
A saddle-type vehicle including a head pipe mounted on a front portion of a vehicle frame, a front wheel supported on said head pipe by a front wheel suspension device, a seat disposed behind said head pipe for a rider to sit thereon, a pair of left and right knee grip members (19L, 19R) disposed between said head pipe and said seat for being sandwiched by the knees of the rider, an upper cowl disposed in covering relation to a portion of the vehicle frame in front of said knee grip members (19L, 19R), an engine disposed below said knee grip members (19L, 19R), a radiator disposed between said front wheel and said engine, and a pair of left and right radiator shrouds (23L, 23R) disposed laterally in transverse directions of the vehicle for guiding ram air to said radiator, wherein said upper cowl includes a left and right pair of slanted surfaces (43, 44) disposed above said radiator and extending rearwardly in covering relation to said front wheel suspension device; said radiator shrouds (23L, 23R) have respective upper extensions (38L, 38R) extending upwardly of an upper end of said radiator; said upper cowl includes a pair of left and right ridges projecting most outwardly in the transverse directions of the vehicle, a pair of left and right front slanted surfaces extending from the ridges in a forward direction of the vehicle and directed toward the center of the vehicle in the transverse direction thereof, and a pair of left and right rear slanted surfaces extending from the ridges in a rearward direction of the vehicle and directed toward the center of the vehicle in the transverse direction thereof; said upper extensions (38L, 38R) of said radiator shrouds (23L, 23R) having respective upper portions overlapping said front slanted surfaces of said upper cowl as viewed in side elevation and disposed outwardly of said front slanted surfaces in the transverse directions of the vehicle with gaps defined between said upper portions and said front slanted surfaces, as viewed in front elevation, characterized in that said pair of rear slanted surfaces are inclined downwardly from said ridges to said knee grip members (19L, 19R) and overlap said knee grip members (19L, 19R) as viewed in side elevation; and each of said ridges extends to a position which is lower than the upper end of said radiator and which is superposed on an upper portion of said engine as viewed in side elevation.
A power supply apparatus for a home appliance, comprising: a power line to supply alternating current power from an AC power source; first and second rectifiers (30, 40), each of the first and second rectifiers (30, 40) configured to rectify the AC power supplied through the power line whereby the first rectifier is configured to be connected to a motor; a main relay connected to an input of the first rectifier to switch the AC power to the first rectifier; a switching mode power supply (SMPS) connected to an output of the second rectifier to generate a direct current voltage for driving the home appliance based on a rectified voltage from the second rectifier; a load switch connected to an output of the SMPS to switch the DC voltage from the SMPS; and a back electromotive force protection diode connected between a smoothing capacitor of the first rectifier and a smoothing capacitor of the second rectifier to bypass a back electromotive force generated in the motor connected to the first rectifier, wherein the main relay is connected between the AC power source and the first rectifier and is operated by the DC voltage generated by the SMPS, and the main relay and the load switch are configured to be turned on/off in response to a home appliance operation signal or a home appliance operation stop signal, and the SMPS is configured to supply main power for an operation of the home appliance or standby power for a standby mode of the home appliance in response to the home appliance operation signal or home appliance operation stop signal. a power line to supply alternating current power from an AC power source; first and second rectifiers (30, 40), each of the first and second rectifiers (30, 40) configured to rectify the AC power supplied through the power line whereby the first rectifier is configured to be connected to a motor; a main relay connected to an input of the first rectifier to switch the AC power to the first rectifier; a switching mode power supply (SMPS) connected to an output of the second rectifier to generate a direct current voltage for driving the home appliance based on a rectified voltage from the second rectifier; a load switch connected to an output of the SMPS to switch the DC voltage from the SMPS; and a back electromotive force protection diode connected between a smoothing capacitor of the first rectifier and a smoothing capacitor of the second rectifier to bypass a back electromotive force generated in the motor connected to the first rectifier, wherein the main relay is connected between the AC power source and the first rectifier and is operated by the DC voltage generated by the SMPS, and the main relay and the load switch are configured to be turned on/off in response to a home appliance operation signal or a home appliance operation stop signal, and the SMPS is configured to supply main power for an operation of the home appliance or standby power for a standby mode of the home appliance in response to the home appliance operation signal or home appliance operation stop signal.
An electric operating machine comprising a motor and a power circuit driving said motor by the electric power supplied from a battery, said power circuit comprising: a voltage conversion part adapted to convert an input voltage entered in accordance with a voltage of said battery to generate an output voltage and outputting said generated output voltage to said motor, a voltage control part adapted to provide a voltage detection signal in accordance with the output voltage of the voltage conversion part to the voltage conversion part, and a voltage detection part adapted to output a voltage lowering signal when a voltage value of the output voltage of said battery does not satisfy a given criterion, said power circuit is structured so that a voltage value of said output voltage of said voltage conversion part is changeable, and characterized in that: said voltage conversion part is adapted to convert the output voltage of the battery in accordance with the voltage detection signal to generate a target output voltage, the target output voltage being the input voltage to said motor and higher than the output voltage of the battery, said voltage conversion part lowers a voltage value of a new output voltage being generated when said voltage detection part outputs the voltage lowering signal, the voltage value of the new output voltage being lower than that of the target output voltage. a voltage conversion part adapted to convert an input voltage entered in accordance with a voltage of said battery to generate an output voltage and outputting said generated output voltage to said motor, a voltage control part adapted to provide a voltage detection signal in accordance with the output voltage of the voltage conversion part to the voltage conversion part, and a voltage detection part adapted to output a voltage lowering signal when a voltage value of the output voltage of said battery does not satisfy a given criterion, said power circuit is structured so that a voltage value of said output voltage of said voltage conversion part is changeable, and characterized in that: said voltage conversion part is adapted to convert the output voltage of the battery in accordance with the voltage detection signal to generate a target output voltage, the target output voltage being the input voltage to said motor and higher than the output voltage of the battery, said voltage conversion part lowers a voltage value of a new output voltage being generated when said voltage detection part outputs the voltage lowering signal, the voltage value of the new output voltage being lower than that of the target output voltage. said voltage conversion part is adapted to convert the output voltage of the battery in accordance with the voltage detection signal to generate a target output voltage, the target output voltage being the input voltage to said motor and higher than the output voltage of the battery, said voltage conversion part lowers a voltage value of a new output voltage being generated when said voltage detection part outputs the voltage lowering signal, the voltage value of the new output voltage being lower than that of the target output voltage.
A processor-implemented method for configuring a mobile device (100, 900) which communicates by wireless signals, comprising: activating the mobile device to transmit a wireless signal to an electronic appliance (104, 106, 108, 110, 112) comprising a display device; receiving from the electronic appliance a wireless signal comprising first image data corresponding to an image displayed on the display device and control information for controlling the electronic appliance; capturing at least a first image of the electronic appliance and the image displayed on the display device using an image sensor; providing reference image data based on the captured first image; determining (416, 418) if the first image data matches the reference image data; and if the first image data matches the reference image data, configuring a user interface of the mobile device for remote control of the electronic appliance (104, 106, 108, 110, 112) using the control information. activating the mobile device to transmit a wireless signal to an electronic appliance (104, 106, 108, 110, 112) comprising a display device; receiving from the electronic appliance a wireless signal comprising first image data corresponding to an image displayed on the display device and control information for controlling the electronic appliance; capturing at least a first image of the electronic appliance and the image displayed on the display device using an image sensor; providing reference image data based on the captured first image; determining (416, 418) if the first image data matches the reference image data; and if the first image data matches the reference image data, configuring a user interface of the mobile device for remote control of the electronic appliance (104, 106, 108, 110, 112) using the control information.
An exhaust gas purification method for purifying exhaust gas of a diesel engine mounted on a vehicle using a NOx occlusion reduction catalyst, comprising the steps of: when a NOx occlusion reduction catalyst has reached a rich reduction waiting state, opening an EGR valve and closing an intake throttle if a temperature of the NOx occlusion reduction catalyst is at or above a predetermined temperature and the vehicle is decelerating from a speed at or above a predetermined speed; and then when a predefined condition is satisfied by determining whether a predetermined time has elapsed after opening of the EGR valve and closing of the intake throttle, or by determining whether a mass air flow value of intake air of the diesel engine, which is obtained after opening of the EGR valve and closing of the intake throttle, has become equal to or smaller than a reference value after opening of the EGR valve and closing of the intake throttle, and when it is determined that the predetermined time has elapsed or the mass air flow value has become smaller than reference value, closing an exhaust throttle provided downstream of the NOx occlusion reduction catalyst, and supplying a reductant to the NOx occlusion reduction catalyst, wherein the predetermined temperature is 200°C and the predetermined speed is 20 km/h. when a NOx occlusion reduction catalyst has reached a rich reduction waiting state, opening an EGR valve and closing an intake throttle if a temperature of the NOx occlusion reduction catalyst is at or above a predetermined temperature and the vehicle is decelerating from a speed at or above a predetermined speed; and then when a predefined condition is satisfied by determining whether a predetermined time has elapsed after opening of the EGR valve and closing of the intake throttle, or by determining whether a mass air flow value of intake air of the diesel engine, which is obtained after opening of the EGR valve and closing of the intake throttle, has become equal to or smaller than a reference value after opening of the EGR valve and closing of the intake throttle, and when it is determined that the predetermined time has elapsed or the mass air flow value has become smaller than reference value, closing an exhaust throttle provided downstream of the NOx occlusion reduction catalyst, and supplying a reductant to the NOx occlusion reduction catalyst, wherein the predetermined temperature is 200°C and the predetermined speed is 20 km/h.
A pet food implement, comprising a container having a side (215, 220) with graduated markings (230A, 230B); a selectively adjustable wall that defines an intermediate predetermined volume of the container; and a handle coupled to the wall to selectively adjust the wall along the side (215, 220) of the container to define the intermediate predetermined volume, the handle aligning the wall proximate one of the graduated markings (230A, 230B), characterized in that the container is configured to measure an amount of pet food based on a weight measurement of a pet and a weight management plan, the graduated markings (230A, 230B) correspond to weight measurements for pets ranging up to a maximum weight for a predetermined weight management plan; and the intermediate predetermined volume of the container corresponds to an amount of pet food suitable for a pet with a certain weight on the predetermined weight management plan. a container having a side (215, 220) with graduated markings (230A, 230B); a selectively adjustable wall that defines an intermediate predetermined volume of the container; and a handle coupled to the wall to selectively adjust the wall along the side (215, 220) of the container to define the intermediate predetermined volume, the handle aligning the wall proximate one of the graduated markings (230A, 230B), characterized in that the container is configured to measure an amount of pet food based on a weight measurement of a pet and a weight management plan, the graduated markings (230A, 230B) correspond to weight measurements for pets ranging up to a maximum weight for a predetermined weight management plan; and the intermediate predetermined volume of the container corresponds to an amount of pet food suitable for a pet with a certain weight on the predetermined weight management plan.
Gas burner for a domestic cooker, comprising - a bowl-shaped body surrounding or being associated with a gas injector, to let the gas enter in the burner, herein assembled in the bowl-shaped body central axis, included within, - a toothed crown, said toothed crown placed over or leaning on said crown body and having a plurality of flame ports and preferably extending to an external lateral surface, - an upper cap, which closes the burner top, having substantially the same diameter of the toothed crown to close the burner top, so that to identify a single lateral flame ports plane, - and a peripheral step formed on at least a part of the external surface of the toothed crown, characterised in that the gas injector is a horizontal mini-vertical Venturi inlet, and at least part of the peripheral step is crossed by a number of radial grooves, which are connected with corresponding flame ports of the toothed crown. - a bowl-shaped body surrounding or being associated with a gas injector, to let the gas enter in the burner, herein assembled in the bowl-shaped body central axis, included within, - a toothed crown, said toothed crown placed over or leaning on said crown body and having a plurality of flame ports and preferably extending to an external lateral surface, - an upper cap, which closes the burner top, having substantially the same diameter of the toothed crown to close the burner top, so that to identify a single lateral flame ports plane, - and a peripheral step formed on at least a part of the external surface of the toothed crown, characterised in that the gas injector is a horizontal mini-vertical Venturi inlet, and at least part of the peripheral step is crossed by a number of radial grooves, which are connected with corresponding flame ports of the toothed crown.
A method for seismic data processing, comprising: receiving seismic data for a region of interest, wherein the seismic data comprises a seismic wavefield and was acquired during a seismic survey; calculating a summation as a weighted sum of a particle motion velocity component of the seismic wavefield in a vertical direction and a pressure component of the seismic wavefield, wherein the summation comprises a weight for the particle motion velocity component and a weight for the pressure component; predicting an upgoing pressure component of the seismic wavefield for the region of interest based at least in part on a Generalized Matching Pursuit Technique model of an upgoing pressure component of the seismic wavefield; determining a two-component measurement vector based on the summation and the seismic wavefield; determining a two-component ghosting operator, i.e. a filter that includes ghost operators directed to the pressure component and particle motion velocity component in the vertical direction for the two-component measurement vector; using the summation to analyze an upgoing pressure component that corresponds to the summation with derived data based on a predicted upgoing pressure component; comparing the predicted upgoing pressure component to received seismic data that corresponds to the received summation; and updating the model based at least in part on the comparison. receiving seismic data for a region of interest, wherein the seismic data comprises a seismic wavefield and was acquired during a seismic survey; calculating a summation as a weighted sum of a particle motion velocity component of the seismic wavefield in a vertical direction and a pressure component of the seismic wavefield, wherein the summation comprises a weight for the particle motion velocity component and a weight for the pressure component; predicting an upgoing pressure component of the seismic wavefield for the region of interest based at least in part on a Generalized Matching Pursuit Technique model of an upgoing pressure component of the seismic wavefield; determining a two-component measurement vector based on the summation and the seismic wavefield; determining a two-component ghosting operator, i.e. a filter that includes ghost operators directed to the pressure component and particle motion velocity component in the vertical direction for the two-component measurement vector; using the summation to analyze an upgoing pressure component that corresponds to the summation with derived data based on a predicted upgoing pressure component; comparing the predicted upgoing pressure component to received seismic data that corresponds to the received summation; and updating the model based at least in part on the comparison.
A display device, having a plurality of pixels, comprising: a first substrate formed with at least one metal pattern thereon; a second substrate disposed opposite to the first substrate such that the at least one metal pattern is disposed between the first substrate and the second substrate; and a polarizer provided on an outer side of the second substrate far away from the first substrate, wherein an area of an overlapping region between the metal pattern and a pixel display zone is less than an area of the pixel display zone, the pixel display zone being defined for each pixel as a zone of the pixel for emitting light, wherein the polarizer comprises a light absorption layer fully covering the at least one metal pattern, wherein an area of an overlapping region between the light absorption layer of the polarizer and the pixel display zone is less than the area of the pixel display zone, wherein the metal pattern is partly overlapped with the pixel display zone, or completely overlapped with the pixel display zone, and wherein the light absorption layer is made of polyvinyl alcohol. a first substrate formed with at least one metal pattern thereon; a second substrate disposed opposite to the first substrate such that the at least one metal pattern is disposed between the first substrate and the second substrate; and a polarizer provided on an outer side of the second substrate far away from the first substrate, wherein an area of an overlapping region between the metal pattern and a pixel display zone is less than an area of the pixel display zone, the pixel display zone being defined for each pixel as a zone of the pixel for emitting light, wherein the polarizer comprises a light absorption layer fully covering the at least one metal pattern, wherein an area of an overlapping region between the light absorption layer of the polarizer and the pixel display zone is less than the area of the pixel display zone, wherein the metal pattern is partly overlapped with the pixel display zone, or completely overlapped with the pixel display zone, and wherein the light absorption layer is made of polyvinyl alcohol.
LED driver comprising - an LED converter for supplying an LED module, wherein the LED module can be connected to the LED driver; - a read-out converter for reading out information from the LED module which has a coding resistor (Rparam), wherein the read-out converter has a primary side and a secondary side; - a transformer which is a potential-isolating component; - a control unit which is arranged on the primary side of the read-out converter and is connected to the transformer; - an evaluation unit which is arranged on the secondary side of the read-out converter and is connected to the transformer; - two terminals (LED+, LED-) for connecting and supplying the LED module, which terminals are arranged on the secondary side of the read-out converter; and - a further terminal (LEDparam) for connecting the coding resistor (Rparam) of the connectable LED module to the evaluation unit, which is arranged on the secondary side of the read-out converter; - wherein the LED driver is designed to apply a defined voltage to the coding resistor (Rparam) between one of the two terminals (LED+, LED-) and the further terminal (LEDparam) by means of the control unit; and - the evaluation unit is designed to process a signal applied to the further terminal (LEDparam) when the defined voltage is applied to the coding resistor (Rparam) and to transmit the processed signal to the control unit by means of the transformer. - an LED converter for supplying an LED module, wherein the LED module can be connected to the LED driver; - a read-out converter for reading out information from the LED module which has a coding resistor (Rparam), wherein the read-out converter has a primary side and a secondary side; - a transformer which is a potential-isolating component; - a control unit which is arranged on the primary side of the read-out converter and is connected to the transformer; - an evaluation unit which is arranged on the secondary side of the read-out converter and is connected to the transformer; - two terminals (LED+, LED-) for connecting and supplying the LED module, which terminals are arranged on the secondary side of the read-out converter; and - a further terminal (LEDparam) for connecting the coding resistor (Rparam) of the connectable LED module to the evaluation unit, which is arranged on the secondary side of the read-out converter; - wherein the LED driver is designed to apply a defined voltage to the coding resistor (Rparam) between one of the two terminals (LED+, LED-) and the further terminal (LEDparam) by means of the control unit; and - the evaluation unit is designed to process a signal applied to the further terminal (LEDparam) when the defined voltage is applied to the coding resistor (Rparam) and to transmit the processed signal to the control unit by means of the transformer.