mhurhangee/ep-ind-claims huggingface dataset:
A light emitting device, comprising: a first conductivity type semiconductor layer; a plurality of light emitting cells (102, 103,104) separated on the first conductivity type semiconductor layer, wherein each of the light emitting cells comprises an active layer (120,122,124) and a second conductivity type semiconductor layer (130, 132, 134) on each of the active layers (120,122,124); phosphor layers (142,144) on at least two of the light emitting cells (102, 103,104); a first electrode disposed on the first conductivity type semiconductor layer; a plurality of second electrodes (150A, 152A, 154A) disposed on the light emitting cells (102, 103,104), wherein the phosphor layers comprise a first phosphor layer on the second conductivity type semiconductor layer of the second light emitting cell, and a second phosphor layer on the second conductivity type semiconductor layer of the third light emitting cell, characterized in that the light emitting device further comprises an insulation layer formed on the first conductivity type semiconductor layer and around the plurality of light emitting cells (102, 103, 104), wherein the first phosphor layer and the second phosphor layer include a transparent resin layer thereunder, wherein the plurality of second electrodes (150A, 152A, 154A) have first ends (151, 153, 155) disposed on the respective light emitting cells (102, 103, 104) and second ends disposed on the insulation layer, wherein the first ends (151, 153, 155) are electrically connected to the second conductivity type semiconductor layers (130, 132, 134) of the plurality of light emitting cells (102, 103, 104), respectively, and the second ends have bonding pads disposed on the insulating layer, and wherein the insulating layer is disposed between the plurality of second electrodes (150A, 152A, 154A) and the first conductivity type semiconductor layer, and between the plurality of light emitting cells (102, 103, 104) and second electrode lines connecting the first ends (151, 153, 155) and the second ends, respectively. a first conductivity type semiconductor layer; a plurality of light emitting cells (102, 103,104) separated on the first conductivity type semiconductor layer, wherein each of the light emitting cells comprises an active layer (120,122,124) and a second conductivity type semiconductor layer (130, 132, 134) on each of the active layers (120,122,124); phosphor layers (142,144) on at least two of the light emitting cells (102, 103,104); a first electrode disposed on the first conductivity type semiconductor layer; a plurality of second electrodes (150A, 152A, 154A) disposed on the light emitting cells (102, 103,104), wherein the phosphor layers comprise a first phosphor layer on the second conductivity type semiconductor layer of the second light emitting cell, and a second phosphor layer on the second conductivity type semiconductor layer of the third light emitting cell,
Fixing device having a panel edge and nut clamp engaging on the edge of the panel, the panel edge being conformed for approval on an axis of commitment of the nut clamp with a U-shaped nut clip of the type having a first and a second branch (11, 12) connected by a base, a platelet made by cutting in at least that first branch connected to that branch near its free end and bearing a threaded screw drum axial aligned e with a hole housed in that second branch, the panel edge comprising a cheek straddled by the said nut clip and having an opening arranged so as to be axially aligned with the said tarauded drum and the said hole after the nut clip has been installed, the said cheek having a first face 25) and a second face intended to co-slide with the said platelet and the second branch of the nut clip respectively when it is installed; characterized that the edge of the panel has an initial torque of lateral pilasters (27A, 27B) protruding from the first face of the cheek and extending parallel to the axis of commitment of the nut clamp by being separated from each other by a distance slightly greater than the width of the platelet 4) but less than that of that second branch. with a U-shaped nut clip of the type having a first and a second branch (11, 12) connected by a base, a platelet made by cutting in at least that first branch connected to that branch near its free end and bearing a threaded screw drum axial aligned e with a hole housed in that second branch, the panel edge comprising a cheek straddled by the said nut clip and having an opening arranged so as to be axially aligned with the said tarauded drum and the said hole after the nut clip has been installed, the said cheek having a first face 25) and a second face intended to co-slide with the said platelet and the second branch of the nut clip respectively when it is installed; characterized that the edge of the panel has an initial torque of lateral pilasters (27A, 27B) protruding from the first face of the cheek and extending parallel to the axis of commitment of the nut clamp by being separated from each other by a distance slightly greater than the width of the platelet 4) but less than that of that second branch.
A method for automatically adjusting the position of an implement of a lift assembly for a work vehicle, the lift assembly comprising a pair of loader arms coupled to the implement, characterized in that the method comprises: monitoring, with a computing device, at least one of a fluid pressure or a flow rate of hydraulic fluid indicative of or associated with a flow of hydraulic fluid supplied to or within a cylinder for controlling the movement of the implement; determining, with the computing device, a speed control signal for the implement as a function of the at least one of a fluid pressure or a flow rate of hydraulic fluid, the speed control signal being associated with an implement speed at which the implement is to be moved in order to maintain the implement at a fixed orientation relative to a given reference point; generating, with the computing device, a valve command signal based at least in part on the speed control signal; and transmitting, with the computing device, the valve command signal to a valve associated with the implement in order to maintain the implement at the fixed orientation as the loader arms are being moved. monitoring, with a computing device, at least one of a fluid pressure or a flow rate of hydraulic fluid indicative of or associated with a flow of hydraulic fluid supplied to or within a cylinder for controlling the movement of the implement; determining, with the computing device, a speed control signal for the implement as a function of the at least one of a fluid pressure or a flow rate of hydraulic fluid, the speed control signal being associated with an implement speed at which the implement is to be moved in order to maintain the implement at a fixed orientation relative to a given reference point; generating, with the computing device, a valve command signal based at least in part on the speed control signal; and transmitting, with the computing device, the valve command signal to a valve associated with the implement in order to maintain the implement at the fixed orientation as the loader arms are being moved.
Dishwasher, in particular household dishwasher, having a dishwasher cavity for cleaning dishes, glasses, cutlery or similar items to be washed and having at least one heat pump, wherein the dishwasher has an air duct cavity through which at least at times air can be conducted from the dishwasher cavity and can then be returned into the dishwasher cavity, and further has a water duct cavity positioned adjacent to the air duct cavity and has a contact thereto, wherein at least one evaporator is assigned to the water duct cavity, through which evaporator heat transfer medium can be conducted, wherein water in the water duct cavity and/or air in the air duct cavity can be thermally influenced as a result, characterised in that the water duct cavity and the air duct cavity are designed as a combined, flat double tank, the cavities (13, 17) of which are separated from one another by a partition wall to which pipe sections of the evaporator are assigned such that they are held without a gap to the partition wall, and the water duct cavity has a fresh-water connection and can be refilled with fresh water multiple times during a wash cycle, wherein this fresh water can be discharged to the dishwasher cavity after passing through the water duct cavity.
Access control system for computers, consisting of a user input apparatus, such as a keyboard and a mouse, and also a reader and an electronic identification which can be read by the reader and has a user ID, wherein, after reading the user ID and inputting a PIN, the computer is unlocked after checking the user ID and the PIN in the event of authorization, characterized in that an electronic presence tag worn by the user contains a UHF transceiver, an LF receiver and a controller, and the reader contains a UHF transceiver, an LF transmitter and a controller, in that the LF transmitter repeatedly sends an item of wake-up information followed by its own location information and a user ID and, when the wake-up information is received by an LF receiver of the electronic presence tag, its UHF transceiver is changed from a quiescent state to an operating state and carries out a presence dialogue with the UHF transceiver of the reader by transmitting back the location information and user ID also received by the LF receiver, in that the presence dialogue is repeated at intervals of time and, when the presence of the user is successfully checked, the computer is unlocked or is kept unlocked until the next check of the presence, wherein the transmission power of the LF transmitter, in conjunction with its antenna gain, and the input sensitivity of the LF receiver, in conjunction with its antenna gain, are such that the range of the LF transmission path is between 80 cm and 2.5 m, in that the electromagnetic field generated by the LF transmitter has an omnidirectional characteristic, and in that the antenna arrangement of the LF receiver likewise has an omnidirectional characteristic.
Method for washing and separating pieces of a plastics material - coming from containers, bottles, films of plastics - from contaminating material, comprising the steps of: a. supplying the pieces of plastics material with the contaminating material and a washing fluid in a washing container; b. driving a blade stirrer rotating in said washing container, for generating in the washing fluid a turbulent stirring action to achieve a first separation, through mechanical action, of the contaminating material from the plastics material, c. removing from said washing container a quantity of washing fluid containing plastics material and contaminant to send said quantity to a centrifugal separating unit provided with a rotor, and d. subjecting said quantity, by said rotor, to a centrifugal mechanical action to achieve a second separation, through mechanical action, of contaminating material from said plastics material, and to separate a first fraction consisting of washing fluid and contaminants, from a second fraction comprising substantially plastics material, and e. returning inside said washing container said second fraction to subject said plastics material to a further turbulent stirring action such as to further separate any possible contaminant still sticking to the plastics, and f. evacuating said first fraction of washing fluid and contaminants to subject said first fraction of washing fluid and contaminants to a filtering treatment. and f'. periodically evacuating from said washing container a fraction of heavy contaminants to be eliminated that settle on a bottom of said washing container. a. supplying the pieces of plastics material with the contaminating material and a washing fluid in a washing container; b. driving a blade stirrer rotating in said washing container, for generating in the washing fluid a turbulent stirring action to achieve a first separation, through mechanical action, of the contaminating material from the plastics material, c. removing from said washing container a quantity of washing fluid containing plastics material and contaminant to send said quantity to a centrifugal separating unit provided with a rotor, and d. subjecting said quantity, by said rotor, to a centrifugal mechanical action to achieve a second separation, through mechanical action, of contaminating material from said plastics material, and to separate a first fraction consisting of washing fluid and contaminants, from a second fraction comprising substantially plastics material, and e. returning inside said washing container said second fraction to subject said plastics material to a further turbulent stirring action such as to further separate any possible contaminant still sticking to the plastics, and f. evacuating said first fraction of washing fluid and contaminants to subject said first fraction of washing fluid and contaminants to a filtering treatment. and f'. periodically evacuating from said washing container a fraction of heavy contaminants to be eliminated that settle on a bottom of said washing container.
A processor-implemented method comprising: receiving, by one or more hardware processors, a wideband signal associated with a wideband acoustic signal captured by a sensor array of an aerial drone at a measurement position of a plurality of different measurement locations; splitting, by the one or more hardware processors, the wideband signal into multiple narrow sub-bands and for each sub-band dividing the signal search space into a grid of predefined cell size; measuring, by the one or more hardware processors, power in each of the cells by forming a beam to each of the cells from a measurement position corresponding to each of the multiple narrow sub-bands; performing, by the one or more hardware processors, intra-band and inter measurement fusion of the measured power at each of the cells,wherein performing intra-band and inter measurement fusion of the measured power at each of the cells, comprises: fusing the measured power of each of the cells at a measurement position across the multiple narrow sub-bands; and fusing the measured power of each of the cells across the measurement positions upon fusing the measured power of each of the cells at the measurement position across the multiple narrow sub-bands; and identifying, by the one or more hardware processors, geo-location of an acoustic source corresponding to the wideband acoustic signal upon performing intra-band and inter measurement fusion of the measured power. receiving, by one or more hardware processors, a wideband signal associated with a wideband acoustic signal captured by a sensor array of an aerial drone at a measurement position of a plurality of different measurement locations; splitting, by the one or more hardware processors, the wideband signal into multiple narrow sub-bands and for each sub-band dividing the signal search space into a grid of predefined cell size; measuring, by the one or more hardware processors, power in each of the cells by forming a beam to each of the cells from a measurement position corresponding to each of the multiple narrow sub-bands; performing, by the one or more hardware processors, intra-band and inter measurement fusion of the measured power at each of the cells,wherein performing intra-band and inter measurement fusion of the measured power at each of the cells, comprises: fusing the measured power of each of the cells at a measurement position across the multiple narrow sub-bands; and fusing the measured power of each of the cells across the measurement positions upon fusing the measured power of each of the cells at the measurement position across the multiple narrow sub-bands; and fusing the measured power of each of the cells at a measurement position across the multiple narrow sub-bands; and fusing the measured power of each of the cells across the measurement positions upon fusing the measured power of each of the cells at the measurement position across the multiple narrow sub-bands; and identifying, by the one or more hardware processors, geo-location of an acoustic source corresponding to the wideband acoustic signal upon performing intra-band and inter measurement fusion of the measured power.
A stereoscopic imaging system, comprising: an X-ray source configured to emit a plurality of x-ray fanbeams; at least three linear detector arrays (120, 130, 140), wherein each linear detector array is arranged at a preset angle with respect to the x-ray source, and configured to detect a strength value of a respective one of the x-ray fanbeams penetrating an object under inspection and form a respective transmission image, when the object moves along a direction intersecting with the x-ray fanbeams; and a reconstruction apparatus configured to use any two of the formed transmission images as a binocular image, calculate depth information of the object on the transmission images, superpose and fuse the calculated depth information to obtain 3-Dimensional information, and perform 3D reconstruction. an X-ray source configured to emit a plurality of x-ray fanbeams; at least three linear detector arrays (120, 130, 140), wherein each linear detector array is arranged at a preset angle with respect to the x-ray source, and configured to detect a strength value of a respective one of the x-ray fanbeams penetrating an object under inspection and form a respective transmission image, when the object moves along a direction intersecting with the x-ray fanbeams; and a reconstruction apparatus configured to use any two of the formed transmission images as a binocular image, calculate depth information of the object on the transmission images, superpose and fuse the calculated depth information to obtain 3-Dimensional information, and perform 3D reconstruction.
An X-ray Talbot interferometer comprising: an X-ray diffraction grating capable of diffracting x-ray radiation from an X-ray source to form an interference pattern; an X-ray shield grating capable of partially blocking the X-ray radiation forming the interference pattern, and an X-ray detector capable of detecting X-ray radiation from the X-ray shield grating, wherein the X-ray shield grating includes: a silicon substrate having a plurality of recessed portions, each having a bottom and a side wall; silicide layers, one each disposed in the recessed portions and in contact with the bottoms of the recessed portions; and a metal structure including metal portions, one each disposed in the recessed portions. an X-ray diffraction grating capable of diffracting x-ray radiation from an X-ray source to form an interference pattern; an X-ray shield grating capable of partially blocking the X-ray radiation forming the interference pattern, and an X-ray detector capable of detecting X-ray radiation from the X-ray shield grating, wherein the X-ray shield grating includes: a silicon substrate having a plurality of recessed portions, each having a bottom and a side wall; silicide layers, one each disposed in the recessed portions and in contact with the bottoms of the recessed portions; and a metal structure including metal portions, one each disposed in the recessed portions. a silicon substrate having a plurality of recessed portions, each having a bottom and a side wall; silicide layers, one each disposed in the recessed portions and in contact with the bottoms of the recessed portions; and a metal structure including metal portions, one each disposed in the recessed portions.
A machine-implemented method for personalizing a kiosk computing device, comprising: receiving, by an authentication server configured to control a plurality of kiosk computing devices through a network, from a mobile device, a plurality of data packets associated with a display tag and an account identifier, wherein the display tag identifies one of said kiosk computing devices and includes a network address of the authentication server and wherein the account identifier identifies an account associated with the mobile device; identifying, by the authentication server, the one of said kiosk computing devices based on the plurality of data packets; identifying, by the authentication server, an account associated with the mobile device utilizing an account identifier associated with the plurality of data packets; and transmitting, in response to said receiving, by the authentication server, instructions to the one of said kiosk computing devices, to cause the one of said kiosk computing devices to activate an account-specific mode, wherein the account-specific mode is associated with an account associated with the mobile device and said one of said kiosk computing devices is the one that is identified by the display tag. receiving, by an authentication server configured to control a plurality of kiosk computing devices through a network, from a mobile device, a plurality of data packets associated with a display tag and an account identifier, wherein the display tag identifies one of said kiosk computing devices and includes a network address of the authentication server and wherein the account identifier identifies an account associated with the mobile device; identifying, by the authentication server, the one of said kiosk computing devices based on the plurality of data packets; identifying, by the authentication server, an account associated with the mobile device utilizing an account identifier associated with the plurality of data packets; and transmitting, in response to said receiving, by the authentication server, instructions to the one of said kiosk computing devices, to cause the one of said kiosk computing devices to activate an account-specific mode, wherein the account-specific mode is associated with an account associated with the mobile device and said one of said kiosk computing devices is the one that is identified by the display tag.
A dehumidifying apparatus for a dryer comprising: a case; a drum disposed inside the case and for receiving objects to be dried therein; and a hot air supplying unit for supplying hot air into the drum and drying the objects to be dried, the dehumidifying apparatus, comprising: a heat exchanger for heat exchanging between a discharged air flowing from the drum and a refrigerant; and an injection nozzle portion disposed between the hot air supplying unit and the heat exchanger so as to inject a certain material, wherein the injection nozzle portion is installed above the heat exchanger and inject a jet downwardly along a front of the heat exchanger thereby removing foreign substances on the heat exchanger. a heat exchanger for heat exchanging between a discharged air flowing from the drum and a refrigerant; and an injection nozzle portion disposed between the hot air supplying unit and the heat exchanger so as to inject a certain material, wherein the injection nozzle portion is installed above the heat exchanger and inject a jet downwardly along a front of the heat exchanger thereby removing foreign substances on the heat exchanger.
A curable resin composition comprising 100 parts by mass of an epoxy resin, 1 to 100 parts by mass of polymer fine particles, and 1 to 100 parts by mass of a blocked urethane, wherein the polymer fine particles have a core-shell structure of a core layer and a shell layer, the core layer comprises diene rubber, the shell layer comprises at least a hydroxyl group, and the content of the hydroxyl group of the polymer fine particles is 0.01 to 0.8 mmol/g.