mhurhangee/patent-ind-claim-en huggingface dataset:
An insert nut (1; 125, 126) made of a metal, which is configured to be inserted into a substrate made of a resin, the insert nut (1; 125, 126) comprising: an internal thread portion ; a recess-and-protrusion-shaped portion formed on an outer surface of the insert nut (1; 125, 126), the recess-and-protrusion-shaped portion including a plurality of ridges and a plurality of roots formed alternately in a circumferential direction; and a flange portion protruding from the outer surface of the insert nut , characterized in that the internal thread portion is to be fastened with a screw of M3, the flange portion is provided on an upstream end of the insert nut in an insertion direction of the screw , and the outer diameter of the flange portion is 7.2 mm up to 12 mm. an internal thread portion ; a recess-and-protrusion-shaped portion formed on an outer surface of the insert nut (1; 125, 126), the recess-and-protrusion-shaped portion including a plurality of ridges and a plurality of roots formed alternately in a circumferential direction; and a flange portion protruding from the outer surface of the insert nut , characterized in that the internal thread portion is to be fastened with a screw of M3, the flange portion is provided on an upstream end of the insert nut in an insertion direction of the screw , and the outer diameter of the flange portion is 7.2 mm up to 12 mm.
A radiator for a lamp, comprising a heat-radiating baseplate configured for fixing a heat source, and heat-radiating side plates connected to the heat-radiating baseplate , wherein each of the heat-radiating side plates is provided with a plurality of heat-exchanging through grooves running through the heat-radiating side plates ; wherein the heat-radiating side plates are arranged on two sides of the heat-radiating baseplate ; and each of the heat-radiating side plates is provided with a plurality of heat-radiating fins ; wherein the heat-radiating fins are integrally formed on the heat-radiating side plates by a punching method, and after being punched, the heat-radiating side plates are configured with torn portions caused by punching and through-groove portions in a one-to-one correspondence with the torn portions; and the torn portions form the heat-radiating fins , and the through-groove portions form the heat-exchanging through grooves ; and characterized in that the heat-radiating baseplate is integrally provided with two reflectors arranged symmetrically at the left and right of the heat-radiating baseplate and the two reflectors both extend forward and backward; and the heat-radiating baseplate and the two reflectors constitute a lamp housing of the lamp and form a light source cavity for the lamp; an inner surface of each of the two reflectors is provided with a fixing slot configured to fix a lamp shade.
An adaptive template image to be registered to a PET or a SPECT image during a standard image registration method, comprising: a template image model wherein the values for each voxel in the adaptive template image vary according to one or more control parameters, and the adaptive template image is altered during the image registration process; wherein the variability of values for each voxel ranges from a value corresponding to the normal level of uptake of an imaging agent to an abnormal level of uptake of the imaging agent; and wherein the value of the voxels are defined by the equation: I i template = I i 0 + I i slope x wherein I i template is the value of the voxel i in the adaptive template image, I i 0 represents a value corresponding to a normal level of uptake of an imaging agent within that voxel, I i slope corresponds to the maximum additional amount of uptake of the imaging agent corresponding to an abnormal (high) level of uptake of the imaging agent in that voxel with respect to a control parameter x. a template image model wherein the values for each voxel in the adaptive template image vary according to one or more control parameters, and the adaptive template image is altered during the image registration process; wherein the variability of values for each voxel ranges from a value corresponding to the normal level of uptake of an imaging agent to an abnormal level of uptake of the imaging agent; and wherein the value of the voxels are defined by the equation: I i template = I i 0 + I i slope x wherein I i template is the value of the voxel i in the adaptive template image, I i 0 represents a value corresponding to a normal level of uptake of an imaging agent within that voxel, I i slope corresponds to the maximum additional amount of uptake of the imaging agent corresponding to an abnormal (high) level of uptake of the imaging agent in that voxel with respect to a control parameter x.
A method of a first base station in a wireless communication system, the method comprising: identifying resource allocation information of the first base station and a second base station ; and transmitting, to the second base station, the resource allocation information, wherein the first base station is an Evolved Universal Terrestrial Radio Access, E-UTRA, base station and the second base station is a 5 th generation, 5G, base station, and wherein the resource allocation information includes information on a reference signal resource associated with the first base station, information on a synchronization signal resource associated with the first base station, information on resources which are not available for the second base station, and information on a start symbol of a resource for the second base station. identifying resource allocation information of the first base station and a second base station ; and transmitting, to the second base station, the resource allocation information, wherein the first base station is an Evolved Universal Terrestrial Radio Access, E-UTRA, base station and the second base station is a 5 th generation, 5G, base station, and wherein the resource allocation information includes information on a reference signal resource associated with the first base station, information on a synchronization signal resource associated with the first base station, information on resources which are not available for the second base station, and information on a start symbol of a resource for the second base station.
A pen needle , comprising: a hub having a distal end, and a proximal end for attachment to a delivery device;an axially displaceable indicator sleeve positioned in the hub ; a needle coupled to said hub and having a distal end extending from said distal end of said hub ; and a distal needle shield coupled to said hub and slidable between a first extended position to cover said distal end of said needle and a retracted position to expose said distal end of said needle for injecting a substance into a patient, and a second extended position to cover said distal end of said needle, wherein the distal needle shield couples to the indicator sleeve when axially moved to the retracted position, wherein said distal needle shield is rotatable by axial movement relative to said hub from a first angular position in which said distal needle shield slides in said hub from said first extended position to said retracted position to a second angular position, and where said distal needle shield in the second angular position slides axially to the second extended position to a locked position, wherein the indicator sleeve is carried by the distal needle shield to the second extended position where the indicator sleeve is only visible through the transparent or translucent distal needle shield when the distal needle shield moves to the second extended position. a hub having a distal end, and a proximal end for attachment to a delivery device;an axially displaceable indicator sleeve positioned in the hub ; a needle coupled to said hub and having a distal end extending from said distal end of said hub ; and a distal needle shield coupled to said hub and slidable between a first extended position to cover said distal end of said needle and a retracted position to expose said distal end of said needle for injecting a substance into a patient, and a second extended position to cover said distal end of said needle, wherein the distal needle shield couples to the indicator sleeve when axially moved to the retracted position, wherein said distal needle shield is rotatable by axial movement relative to said hub from a first angular position in which said distal needle shield slides in said hub from said first extended position to said retracted position to a second angular position, and where said distal needle shield in the second angular position slides axially to the second extended position to a locked position, wherein the indicator sleeve is carried by the distal needle shield to the second extended position where the indicator sleeve is only visible through the transparent or translucent distal needle shield when the distal needle shield moves to the second extended position.
An insulating thermally conductive resin composition, comprising: a matrix resin ; insulators which are dispersed in the matrix resin and have electrical insulation; and a thermally conductive phase which has a higher thermal conductivity than the matrix resin , thermally connects the insulators , and is composed of an organic substance, wherein the organic substance constituting the thermally conductive phase has a thermal conductivity of not less than 0.3 W/(m·K), wherein the matrix resin has a phase-separated structure including: a first resin phase in which a first resin continues three-dimensionally; and a second resin phase different from the first resin phase and formed of a second resin, and the first resin phase is composed of one of thermosetting resin and thermoplastic resin while the second resin phase is composed of the other one of thermosetting resin and thermoplastic resin, and wherein the insulators and the thermally conductive phase are unevenly distributed in the first resin phase . a matrix resin ; insulators which are dispersed in the matrix resin and have electrical insulation; and a thermally conductive phase which has a higher thermal conductivity than the matrix resin , thermally connects the insulators , and is composed of an organic substance, wherein the organic substance constituting the thermally conductive phase has a thermal conductivity of not less than 0.3 W/(m·K), wherein the matrix resin has a phase-separated structure including: a first resin phase in which a first resin continues three-dimensionally; and a second resin phase different from the first resin phase and formed of a second resin, and the first resin phase is composed of one of thermosetting resin and thermoplastic resin while the second resin phase is composed of the other one of thermosetting resin and thermoplastic resin, and wherein the insulators and the thermally conductive phase are unevenly distributed in the first resin phase .
A composition for removing soils, labels and other adhesive material from a hard surface, comprising: an aqueous or non-aqueous basic organic solvent and an amidine solvent; and at least one surfactant; wherein the composition contains caustic in an amount from 0 wt-% to 2 wt-%, and wherein the composition has a pH between 10 and 14. an aqueous or non-aqueous basic organic solvent and an amidine solvent; and at least one surfactant; wherein the composition contains caustic in an amount from 0 wt-% to 2 wt-%, and wherein the composition has a pH between 10 and 14.
A tank system comprising: a tank that contains liquefied carbon dioxide therein; a loading pipe extending in a vertical direction, having a lower end that is open into the tank , and through which liquefied carbon dioxide that is supplied from an outside of the tank is fed from the lower end into the tank ; and a pipe pressure resistance part that is provided close to the lower end with respect to a pipe top portion that is located at a highest position in the loading pipe , and generating a pressure loss in the liquefied carbon dioxide flowing through the loading pipe , characterized in that the pipe pressure resistance part generates a pressure loss that is determined such that a value obtained by subtracting a pressure corresponding to a height difference between a liquid level of the liquefied carbon dioxide in the tank and the pipe top portion from a value obtained by adding the pressure loss that is generated by the pipe pressure resistance part to a tank operating pressure exceeds a setting pressure lower limit value obtained by adding a safety margin value to a triple point pressure value of the liquefied carbon dioxide. a tank that contains liquefied carbon dioxide therein; a loading pipe extending in a vertical direction, having a lower end that is open into the tank , and through which liquefied carbon dioxide that is supplied from an outside of the tank is fed from the lower end into the tank ; and a pipe pressure resistance part that is provided close to the lower end with respect to a pipe top portion that is located at a highest position in the loading pipe , and generating a pressure loss in the liquefied carbon dioxide flowing through the loading pipe , characterized in that the pipe pressure resistance part generates a pressure loss that is determined such that a value obtained by subtracting a pressure corresponding to a height difference between a liquid level of the liquefied carbon dioxide in the tank and the pipe top portion from a value obtained by adding the pressure loss that is generated by the pipe pressure resistance part to a tank operating pressure exceeds a setting pressure lower limit value obtained by adding a safety margin value to a triple point pressure value of the liquefied carbon dioxide.
Method for working a first component and a second component for a heater for a motor vehicle, comprising: - providing the first component , which comprises a thermally sprayed electrically conductive layer and a stack of layers having at least a heating conductor layer and an insulating layer, wherein the electrically conductive layer serves as a contact pad for the electrical and/or mechanical contacting of a heating conductor layer of the stack of layers , - providing the second component , which has a longitudinally extended strip of copper, which at least in a first region has a thickness transversely to the longitudinal direction of more than 0.1 millimeter, - arranging the strip and the layer one on top of the other, so that the first region of the strip and the layer have a contact region in common with one another, - emitting a laser beam onto the contact region and thereby: - forming a welded connection , which connects the strip and the layer to one another. - providing the first component , which comprises a thermally sprayed electrically conductive layer and a stack of layers having at least a heating conductor layer and an insulating layer, wherein the electrically conductive layer serves as a contact pad for the electrical and/or mechanical contacting of a heating conductor layer of the stack of layers , - providing the second component , which has a longitudinally extended strip of copper, which at least in a first region has a thickness transversely to the longitudinal direction of more than 0.1 millimeter, - arranging the strip and the layer one on top of the other, so that the first region of the strip and the layer have a contact region in common with one another, - emitting a laser beam onto the contact region and thereby: - forming a welded connection , which connects the strip and the layer to one another. - forming a welded connection , which connects the strip and the layer to one another.
A method for selecting antennas in an RFID reader comprising: determining that at least one external antenna and an internal antenna are communicatively connected to the RFID reader , wherein the internal antenna is within a housing of the RFID reader , and wherein the at least one external antenna is external to the RFID reader ; alternately selecting the at least one external antenna and the internal antenna after each time interval associated with a read operation, wherein the at least one external antenna and the internal antenna are alternately selected based on the determination that the at least one external antenna and the internal antenna are communicatively connected to the RFID reader ; and performing the read operation based on the alternately selected at least one external antenna and internal antenna . determining that at least one external antenna and an internal antenna are communicatively connected to the RFID reader , wherein the internal antenna is within a housing of the RFID reader , and wherein the at least one external antenna is external to the RFID reader ; wherein the internal antenna is within a housing of the RFID reader , and wherein the at least one external antenna is external to the RFID reader ; alternately selecting the at least one external antenna and the internal antenna after each time interval associated with a read operation, wherein the at least one external antenna and the internal antenna are alternately selected based on the determination that the at least one external antenna and the internal antenna are communicatively connected to the RFID reader ; and performing the read operation based on the alternately selected at least one external antenna and internal antenna .
Drive device, having at least one motor (M1-M6) and at least one further drive component from the group of a gearing, a torque converter, a clutch and/or a brake (B1-B6), and having a control device designed to automatically actuate the at least one motor (M1-M6), wherein the at least one motor (M1-M6) and/or the at least one further drive component have/has a control means which changes the torque transmission, characterized in that the control means comprises at least one lamp (21.1) and a material (21.2) which influences the torque transmission and comprises at least one light-stabilized dynamic material (LSDM), wherein the control means is configured to change the torque transmission through actuation of the lamp (21.1), which radiates onto the light-stabilized dynamic material (LSDM).
A method for scanning a color barcode, the method comprising: receiving, at a computing device, a raw image from a scanner, the raw image including a plurality of pixels and each pixel including four channels; extracting, by the computing device, channel information from each of the four channels for each of the plurality of pixels; creating, by the computing device, a composite image using the channel information from each of the plurality of pixels of the raw image, the composite image consisting of four sub-images, wherein creating the composite image includes: grouping corresponding channel information from each of the plurality of pixels to create each of the four sub-images, wherein each channel corresponds to a respective sub-image; and repositioning each of the four groupings of channel information so that each of the four groupings forms the respective sub-image of the composite image in a respective quadrant of the composite image; and extracting product information from the composite image. receiving, at a computing device, a raw image from a scanner, the raw image including a plurality of pixels and each pixel including four channels; extracting, by the computing device, channel information from each of the four channels for each of the plurality of pixels; creating, by the computing device, a composite image using the channel information from each of the plurality of pixels of the raw image, the composite image consisting of four sub-images, wherein creating the composite image includes: grouping corresponding channel information from each of the plurality of pixels to create each of the four sub-images, wherein each channel corresponds to a respective sub-image; and repositioning each of the four groupings of channel information so that each of the four groupings forms the respective sub-image of the composite image in a respective quadrant of the composite image; and grouping corresponding channel information from each of the plurality of pixels to create each of the four sub-images, wherein each channel corresponds to a respective sub-image; and repositioning each of the four groupings of channel information so that each of the four groupings forms the respective sub-image of the composite image in a respective quadrant of the composite image; and extracting product information from the composite image.
A method of washing an electrode , the electrode including first and second sides and peripheral edges, the method comprising: a) substantially enclosing a washing section and maintaining the washing section at a negative pressure relative to ambient pressure; b) providing a mechanism for sealing an entrance and an exit at which the electrode is allowed to pass edgewise respectively into and out of the washing section; c) providing a plurality of wash nozzles adjacent to a path at opposing sides thereof; d) conveying the electrode edgewise along the path, preferably by supporting a bottom peripheral edge; e) directing wash sprays from the nozzles to impinge the first and second sides of the electrode as the electrode is conveyed along the path, preferably generally perpendicularly to the path; and f) subjecting the electrode to an airflow to dry the electrode by conveying the electrode edgewise through an elongate passage of a drying system , wherein the drying system is located at the exit of the enclosure and includes a pair of plenums extending generally vertically on opposing sides of the path of the electrode , each of the plenums including vertically extending longitudinal slots for drawing air alongside surfaces of the electrode , the plenums connected to an exhaust system for venting the air, and wherein the elongate passage is sized to allow the electrode to be conveyed edgewise therebetween and wherein the drying system further includes a sealing mechanism for minimizing airflow around the electrode thereby maintaining the enclosure roughly sealed relative to the drying system. a) substantially enclosing a washing section and maintaining the washing section at a negative pressure relative to ambient pressure; b) providing a mechanism for sealing an entrance and an exit at which the electrode is allowed to pass edgewise respectively into and out of the washing section; c) providing a plurality of wash nozzles adjacent to a path at opposing sides thereof; d) conveying the electrode edgewise along the path, preferably by supporting a bottom peripheral edge; e) directing wash sprays from the nozzles to impinge the first and second sides of the electrode as the electrode is conveyed along the path, preferably generally perpendicularly to the path; and f) subjecting the electrode to an airflow to dry the electrode by conveying the electrode edgewise through an elongate passage of a drying system , wherein the drying system is located at the exit of the enclosure and includes a pair of plenums extending generally vertically on opposing sides of the path of the electrode , each of the plenums including vertically extending longitudinal slots for drawing air alongside surfaces of the electrode , the plenums connected to an exhaust system for venting the air, and
A process for the purification of repaglinide comprising solubilising repaglinide in an aqueous solvent, and treating repaglinide with hydrogen peroxide.