mhurhangee/ep-ind-claims huggingface dataset:
A heating cooker comprising: a casing having a heating chamber formed therein so as to open on a front surface; an electric chamber provided below the heating chamber; a door mounted on the front surface of the casing; a screeng provided on a front surface of the door; an operating panel provided on the door so as to be juxtaposed with the screen; a display portion and an operating portion both provided on the operating panel; the operating panel being supported on the door by a support plate disposed on a rear surface side of the display portion and the operating portion; the operating panel having an end edge in a widthwise direction that extends along an outer edge of the door in the widthwise direction, the operating panel also having another end edge that overlaps with the heating chamber as viewed from front, and a flow channel being formed along the support plate so as to extend vertically, the flow channel having a flow channel lower opening formed on a lower side thereof and a flow channel upper opening formed on an upper side thereof so that heat is transferred from the heating chamber to increase a temperature of a gas inside the flow channel to thereby create an ascending current in the flow channel. a casing having a heating chamber formed therein so as to open on a front surface; an electric chamber provided below the heating chamber; a door mounted on the front surface of the casing; a screeng provided on a front surface of the door; an operating panel provided on the door so as to be juxtaposed with the screen; a display portion and an operating portion both provided on the operating panel; the operating panel being supported on the door by a support plate disposed on a rear surface side of the display portion and the operating portion; the operating panel having an end edge in a widthwise direction that extends along an outer edge of the door in the widthwise direction, the operating panel also having another end edge that overlaps with the heating chamber as viewed from front, and a flow channel being formed along the support plate so as to extend vertically, the flow channel having a flow channel lower opening formed on a lower side thereof and a flow channel upper opening formed on an upper side thereof so that heat is transferred from the heating chamber to increase a temperature of a gas inside the flow channel to thereby create an ascending current in the flow channel.
A white light emitting LED-module, comprising: - at least two blue LEDs, - a red LED, mounted onto a substrate and a color conversion means, wherein the color conversion means is applied to the first and to a second blue LED of the at least two blue LEDs, characterized in that the dominant wavelength of the first blue LED is between 451nm and 457nm, preferably between 452.5nm and 455nm, and the dominant wavelength of the red LED is between 610nm and 620nm, preferably between 612nm and 618nm, more preferably between 615nm and 617.5nm, and in that the color point of the second color converted blue LED is located within or on the borderline of the rectangular area defined by the corner points of x=0.395, y=0.490; x=0.395, y=0.520; x=0.415, y=0.525; and x=0.415, y=0.555 on the 1931 CIE Chromaticity Diagram. - at least two blue LEDs, - a red LED, mounted onto a substrate and a color conversion means,
A mobile cleaning machine comprising: a chassis; a communications module configured to communicate with a device remote from the mobile cleaning machine; a sensor operable to sense one or more characteristics of the mobile cleaning machine; and a controller including a processor and memory, wherein the processor is programmed to perform instructions stored in the memory, the instructions including receiving the one or more characteristics of the mobile cleaning machine sensed by the sensor, characterized in that the instructions include receiving a non-mobile cleaning machine data set from the remote device, and transmitting, via the communications module, at least one of the one or more characteristics of the mobile cleaning machine and the non-mobile cleaning machine data set to a central location. a chassis; a communications module configured to communicate with a device remote from the mobile cleaning machine; a sensor operable to sense one or more characteristics of the mobile cleaning machine; and a controller including a processor and memory, wherein the processor is programmed to perform instructions stored in the memory, the instructions including receiving the one or more characteristics of the mobile cleaning machine sensed by the sensor, characterized in that the instructions include receiving a non-mobile cleaning machine data set from the remote device, and transmitting, via the communications module, at least one of the one or more characteristics of the mobile cleaning machine and the non-mobile cleaning machine data set to a central location. receiving the one or more characteristics of the mobile cleaning machine sensed by the sensor, characterized in that the instructions include receiving a non-mobile cleaning machine data set from the remote device, and transmitting, via the communications module, at least one of the one or more characteristics of the mobile cleaning machine and the non-mobile cleaning machine data set to a central location.
A safety valve, comprising: a first valve port that is formed in a gas flow channel in a hollow main body; a first valve body that opens and closes the first valve port; a first valve body biasing member that biases the first valve body in a direction to close the first valve port; an attracting part that is provided movably in directions in which the first valve body opens and closes the first valve port, and attracts the first valve body by electromagnetic force against biasing force of the first valve body biasing member; an electric drive mechanism that drives the attracting part to move, the electric drive mechanism being a motor; a second valve port that is located along the gas flow channel at a position upstream of the first valve port, and is shaped to surround the first valve port; a second valve body that is provided on the attracting part, and opens and closes the second valve port by a movement of the attracting part characterized in that the safety valve further comprises a shaft which is movable upward and downward by the motor, and a bracket is coupled to the lower end of the shaft in all states of the safety valve, and the attracting part, which is a solenoid, is coupled to the bracket in all states of the safety valve, so that, when the shaft moves upward or downward, the attracting part moves upward and downward in association with the shaft. a first valve port that is formed in a gas flow channel in a hollow main body; a first valve body that opens and closes the first valve port; a first valve body biasing member that biases the first valve body in a direction to close the first valve port; an attracting part that is provided movably in directions in which the first valve body opens and closes the first valve port, and attracts the first valve body by electromagnetic force against biasing force of the first valve body biasing member; an electric drive mechanism that drives the attracting part to move, the electric drive mechanism being a motor; a second valve port that is located along the gas flow channel at a position upstream of the first valve port, and is shaped to surround the first valve port; a second valve body that is provided on the attracting part, and opens and closes the second valve port by a movement of the attracting part characterized in that the safety valve further comprises a shaft which is movable upward and downward by the motor, and a bracket is coupled to the lower end of the shaft in all states of the safety valve, and the attracting part, which is a solenoid, is coupled to the bracket in all states of the safety valve, so that, when the shaft moves upward or downward, the attracting part moves upward and downward in association with the shaft.
A dopant gas generating device for supplying the dopant gas to an ion mobility spectrometry instrument, comprising: a doping container; an air inlet pipe having an inlet end connecting with an upstream side of a carrier gas passage and an outlet end connecting with the doping container; an air outlet pipe having an entrance end connecting with the doping container and an exit end connecting with a downstream side of the carrier gas passage; a dopant gas generating unit for releasing dopant gas, wherein the dopant gas generating unit is disposed within the doping container, characterized in that said dopant gas generating unit comprises: a bottle body; dopant disposed within said bottle body; said bottle body comprises an upper opening allowing the dopant gas to escape from the bottle body; and the outlet end of the air inlet pipe extends to a bottom portion of the doping container, and the entrance end of the air outlet pipe extends out of an upper portion of the doping container so as to be connected with the downstream side of the carrier gas passage. a doping container; an air inlet pipe having an inlet end connecting with an upstream side of a carrier gas passage and an outlet end connecting with the doping container; an air outlet pipe having an entrance end connecting with the doping container and an exit end connecting with a downstream side of the carrier gas passage; a dopant gas generating unit for releasing dopant gas, wherein the dopant gas generating unit is disposed within the doping container, characterized in that said dopant gas generating unit comprises: a bottle body; dopant disposed within said bottle body; said bottle body comprises an upper opening allowing the dopant gas to escape from the bottle body; and the outlet end of the air inlet pipe extends to a bottom portion of the doping container, and the entrance end of the air outlet pipe extends out of an upper portion of the doping container so as to be connected with the downstream side of the carrier gas passage. a bottle body; dopant disposed within said bottle body; said bottle body comprises an upper opening allowing the dopant gas to escape from the bottle body; and the outlet end of the air inlet pipe extends to a bottom portion of the doping container, and the entrance end of the air outlet pipe extends out of an upper portion of the doping container so as to be connected with the downstream side of the carrier gas passage.
An industrial two-layer fabric comprising: an upper side fabric comprising upper side warps and upper side wefts, each of the upper side warps forms an upper side warp design; and a lower side fabric comprising lower side warps and lower side wefts; characterized in that the upper side warps comprise a first warp set (1, 3, 5,...) and a second warp set (2, 4, 6,...), the first warp set contains two adjacent upper side warps and a first one of the lower side warps, the two adjacent upper side warps are woven with the same upper side wefts, the first one of the lower side warps functions as a warp binding yarn and is woven with an upper side weft and a lower side weft thereby binding the upper side fabric and the lower side fabric, the second warp set contains one of the upper side warps, and the first warp set and the second warp set are placed alternately; wherein, at a position where the warp binding yarn passes above one of the upper side wefts, the warp binding yarn is placed between the two adjacent upper side warps of the first warp set, the two adjacent upper side warps at the position pass below the same one of the upper side wefts, whereby the two adjacent upper side warps and the warp binding yarn of the first warp set form the upper side warp design. an upper side fabric comprising upper side warps and upper side wefts, each of the upper side warps forms an upper side warp design; and a lower side fabric comprising lower side warps and lower side wefts; characterized in that the upper side warps comprise a first warp set (1, 3, 5,...) and a second warp set (2, 4, 6,...), the first warp set contains two adjacent upper side warps and a first one of the lower side warps, the two adjacent upper side warps are woven with the same upper side wefts, the first one of the lower side warps functions as a warp binding yarn and is woven with an upper side weft and a lower side weft thereby binding the upper side fabric and the lower side fabric, the second warp set contains one of the upper side warps, and the first warp set and the second warp set are placed alternately; wherein, at a position where the warp binding yarn passes above one of the upper side wefts, the warp binding yarn is placed between the two adjacent upper side warps of the first warp set, the two adjacent upper side warps at the position pass below the same one of the upper side wefts, whereby the two adjacent upper side warps and the warp binding yarn of the first warp set form the upper side warp design.
A cylindrical device with an annular cross-section for sampling body fluid, said device comprising a main body that defines a capillary channel, wherein: said capillary channel is dimensioned to draw a body fluid into said capillary channel by capillary action; said body fluid defines a meniscus when said body fluid is drawn into said capillary channel; characterized in that said capillary channel has an angled counterbore to bias said meniscus in a radially asymmetric manner toward a testing element in spatial communication with said fluid when said body fluid is drawn into said capillary channel. said capillary channel is dimensioned to draw a body fluid into said capillary channel by capillary action; said body fluid defines a meniscus when said body fluid is drawn into said capillary channel; characterized in that said capillary channel has an angled counterbore to bias said meniscus in a radially asymmetric manner toward a testing element in spatial communication with said fluid when said body fluid is drawn into said capillary channel.
A dual layer packaging material for compressible items comprising an inner layer and a separate outer layer, the separate outer layer is a non-expandable material layer, characterized in that; the inner layer is an expandable transparent material layer comprising at least one of a nylon material and a knit material.
A computer-implemented method for transferring medical data from a handheld medical recording device to a host computer, comprising: - accessing an account using a web browser on a patient computer, where the account resides on the host computer and is associated with a patient; - downloading a data transfer component from the host computer via network to the patient computer; and - installing the data transfer component on the patient computer; wherein, following the installation of the data transfer component on the patient computer, a device-to-account association process is completed, the device-to-account association process comprising: - establishing, by the data transfer component, an association between the patient account at the host computer and the handheld medical recording device; and - receiving, by the data transfer component, an authentication token from the host computer, wherein the authentication token is a randomly generated cryptographic key; the method further comprising: - receiving, by the data transfer component, medical data from the handheld medical recording device being associated with the patient; - sending, by the data transfer component, the medical data, along with the authentication token, over the network to the host computer; and - associating, at the host computer, the medical data with the patient account, where the association is made using the authentication token received with the medical data, wherein the data transfer component transfers data without requiring a user to enter their login credentials following completion of the device-to-account association process. - accessing an account using a web browser on a patient computer, where the account resides on the host computer and is associated with a patient; - downloading a data transfer component from the host computer via network to the patient computer; and - installing the data transfer component on the patient computer; - establishing, by the data transfer component, an association between the patient account at the host computer and the handheld medical recording device; and - receiving, by the data transfer component, an authentication token from the host computer, wherein the authentication token is a randomly generated cryptographic key; - receiving, by the data transfer component, medical data from the handheld medical recording device being associated with the patient; - sending, by the data transfer component, the medical data, along with the authentication token, over the network to the host computer; and - associating, at the host computer, the medical data with the patient account, where the association is made using the authentication token received with the medical data,
Agent for dyeing keratinic fibers, containing at least one dye intermediate product at least one fatty acid glyceryl ester and at least one cationic surfactant of formula wherein the radicals R 1 to R 4 independently stand for a C 1 to C 4 alkyl chain or a C 10 to C 30 alkyl chain, with the condition that at least one and a maximum of two of the radicals R 1 to R 4 stand for a C 12 to C 30 alkyl chain, and X stands for a physiologically acceptable anion, wherein the agent contains the fatty acid glyceryl esters in quantities of 0.1 to 10% by weight, and the agent further contains at least one completely or partially hydrogenated vegetable oil. at least one dye intermediate product at least one fatty acid glyceryl ester and at least one cationic surfactant of formula
A method comprising: receiving, by a user device, a touch event originating from a touch panel; comparing, by the user device, a timing of the touch event and a timing of a display refresh event; determining, by the user device, whether to adjust a time during which a next scan of the touch panel begins based on the comparing; calculating, by the user device, a time value that indicates when the next scan begins based on determining to adjust the time; and adjusting, by the user device, the time during which the next scan begins based on the time value, wherein the determining comprises: calculating a time difference between the timing of the touch event and the timing of the display refresh event; comparing the time difference to a timing window that indicates a timing range; determining whether the time difference falls outside of the timing window; and adjusting the time during which the next scan begins based on determining that the time difference falls outside of the timing window. receiving, by a user device, a touch event originating from a touch panel; comparing, by the user device, a timing of the touch event and a timing of a display refresh event; determining, by the user device, whether to adjust a time during which a next scan of the touch panel begins based on the comparing; calculating, by the user device, a time value that indicates when the next scan begins based on determining to adjust the time; and adjusting, by the user device, the time during which the next scan begins based on the time value, wherein the determining comprises: calculating a time difference between the timing of the touch event and the timing of the display refresh event; comparing the time difference to a timing window that indicates a timing range; determining whether the time difference falls outside of the timing window; and adjusting the time during which the next scan begins based on determining that the time difference falls outside of the timing window. calculating a time difference between the timing of the touch event and the timing of the display refresh event; comparing the time difference to a timing window that indicates a timing range; determining whether the time difference falls outside of the timing window; and adjusting the time during which the next scan begins based on determining that the time difference falls outside of the timing window.
An ellipsometer apparatus for performing metrology of a semiconductor sample, comprising: one or more bright light sources for providing an illumination beam at a plurality of wavelengths that are selectable within a range from a vacuum ultraviolet wavelength to an infrared wavelength; illumination optics for directing the illumination beam towards a sample at a plurality of selectable ranges of angles of incidence and/or azimuth angle and a plurality of polarization states to provide spectroscopic ellipsometry metrology, wherein the illumination optics comprise at least one apodizer for controlling a spot size of an illumination spot of the illumination beam on the sample at each of the selectable sets of AOI's and/or AZ's; collection optics for directing an output beam, which is emanating from the sample in response to the illumination beam, at each of the selectable sets of AOI's and/or AZ's and polarization states towards a detector; the detector for generating an output signal or image based on the output beam; and a controller for characterizing a feature of the sample or detecting defects based on the output signal or image as a function of wavelength, AOI and/or AZ, and/or polarization state; characterized in that the illumination optics comprises a scanning mirror for scanning the illumination beam on the sample at each of the selectable sets of AOI's or AZ's and the collection optics comprises an AOI/AZ selector for resolving the selected sets of AOI's or AZ's one at a time. one or more bright light sources for providing an illumination beam at a plurality of wavelengths that are selectable within a range from a vacuum ultraviolet wavelength to an infrared wavelength; illumination optics for directing the illumination beam towards a sample at a plurality of selectable ranges of angles of incidence and/or azimuth angle and a plurality of polarization states to provide spectroscopic ellipsometry metrology, wherein the illumination optics comprise at least one apodizer for controlling a spot size of an illumination spot of the illumination beam on the sample at each of the selectable sets of AOI's and/or AZ's; collection optics for directing an output beam, which is emanating from the sample in response to the illumination beam, at each of the selectable sets of AOI's and/or AZ's and polarization states towards a detector; the detector for generating an output signal or image based on the output beam; and a controller for characterizing a feature of the sample or detecting defects based on the output signal or image as a function of wavelength, AOI and/or AZ, and/or polarization state; characterized in that the illumination optics comprises a scanning mirror for scanning the illumination beam on the sample at each of the selectable sets of AOI's or AZ's and the collection optics comprises an AOI/AZ selector for resolving the selected sets of AOI's or AZ's one at a time.
Device for measuring muscular force and/or energy applied on two handles by a user, comprising: a first handle; a second handle; two beams built-in as cantilevers from a central support, each constituting a bending load cell; one or more sensors (9A, 9B) for transducing the strain of each of said beams; two force transmission shafts (4A, 4B), wherein one of the ends of each said shaft is rotatably coupled (7A, 7B) to each of the non-fixed ends of said beams and the other end of each said shaft is coupled to the first handle; wherein said central support is jointly coupled to the second handle or wherein said central support is the second handle. a first handle; a second handle; two beams built-in as cantilevers from a central support, each constituting a bending load cell; one or more sensors (9A, 9B) for transducing the strain of each of said beams; two force transmission shafts (4A, 4B), wherein one of the ends of each said shaft is rotatably coupled (7A, 7B) to each of the non-fixed ends of said beams and the other end of each said shaft is coupled to the first handle; wherein said central support is jointly coupled to the second handle or wherein said central support is the second handle.