mhurhangee/ep-ind-claims huggingface dataset:
A fuel supply and combustion chamber system for use within a power tool, comprising: a gaseous fuel supply containing a supply of gaseous fuel; portioning valve means, fluidically connected to said gaseous fuel supply, for dispensing a predetermined amount of said gaseous fuel from said gaseous fuel supply; and a jet pump having a first end portion fluidically connected to said portioning valve means, and a second end portion adapted to be fluidically connected to a combustion chamber of a power tool, for conveying said predetermined amount of said gaseous fuel, dispensed by said portioning valve means, into the combustion chamber, wherein said portioning valve means comprises: a metering valve; and a pulse controller operatively connected to said metering valve for controlling said metering valve in order to permit said metering valve to dispense said predetermined amount of said gaseous fuel from said gaseous fuel supply. a gaseous fuel supply containing a supply of gaseous fuel; portioning valve means, fluidically connected to said gaseous fuel supply, for dispensing a predetermined amount of said gaseous fuel from said gaseous fuel supply; and a jet pump having a first end portion fluidically connected to said portioning valve means, and a second end portion adapted to be fluidically connected to a combustion chamber of a power tool, for conveying said predetermined amount of said gaseous fuel, dispensed by said portioning valve means, into the combustion chamber, wherein said portioning valve means comprises: a metering valve; and a pulse controller operatively connected to said metering valve for controlling said metering valve in order to permit said metering valve to dispense said predetermined amount of said gaseous fuel from said gaseous fuel supply. a metering valve; and a pulse controller operatively connected to said metering valve for controlling said metering valve in order to permit said metering valve to dispense said predetermined amount of said gaseous fuel from said gaseous fuel supply.
A method of accepting or rejecting a curved surface of a body under evaluation, comprising: defining a desired surface profile for at least a portion of a desired surface; determining a surface profile for at least a portion of the surface under evaluation; determining the curvature of the surface under evaluation at a plurality of locations on said surface profile, determining higher and lower curvature tolerance profiles based upon the desired surface profile, the region between the higher and lower curvature tolerance boundaries defining a range of acceptable curvature values; and, comparing the surface profile to the higher and lower tolerance profiles and rejecting the surface under evaluation if any of the determined curvature values are outside of the range of acceptable curvature values for said locations. defining a desired surface profile for at least a portion of a desired surface; determining a surface profile for at least a portion of the surface under evaluation; determining the curvature of the surface under evaluation at a plurality of locations on said surface profile, determining higher and lower curvature tolerance profiles based upon the desired surface profile, the region between the higher and lower curvature tolerance boundaries defining a range of acceptable curvature values; and, comparing the surface profile to the higher and lower tolerance profiles and rejecting the surface under evaluation if any of the determined curvature values are outside of the range of acceptable curvature values for said locations.
A manufacturing method for a point-controlled LED light string, comprising the following steps of: A. manufacturing a batch of LED lights each with a unique address code which is written in a control chip of each of the LED lights, randomly selecting the LED lights with an address code random method, and connecting the LED lights in series or in parallel on a power bus to form a light string, whereby a connecting sequence of the LED lights in the light string is independent of the address codes; B. manufacturing a DC power supply controller having a power output interface and a plurality of address registers and the address registers being arranged in a consecutive manner, and connecting the light string with the power output interface, the power output interface being used to provide DC power and output a control signal, the control signal capable of controlling the LED lights to illuminate; and characterised by: C. using an address code collecting tool to collect address codes of the LED lights starting from a first LED light and according to the connecting sequence of the LED lights in the light string, entering the address codes into a storage device, and writing the address codes from the storage device into the address registers of the DC power supply controller in a stack mode, and addresses of the address registers being arranged consecutively and sequentially, and associating the address registers one to one with corresponding LED lights. A. manufacturing a batch of LED lights each with a unique address code which is written in a control chip of each of the LED lights, randomly selecting the LED lights with an address code random method, and connecting the LED lights in series or in parallel on a power bus to form a light string, whereby a connecting sequence of the LED lights in the light string is independent of the address codes; B. manufacturing a DC power supply controller having a power output interface and a plurality of address registers and the address registers being arranged in a consecutive manner, and connecting the light string with the power output interface, the power output interface being used to provide DC power and output a control signal, the control signal capable of controlling the LED lights to illuminate; and characterised by: C. using an address code collecting tool to collect address codes of the LED lights starting from a first LED light and according to the connecting sequence of the LED lights in the light string, entering the address codes into a storage device, and writing the address codes from the storage device into the address registers of the DC power supply controller in a stack mode, and addresses of the address registers being arranged consecutively and sequentially, and associating the address registers one to one with corresponding LED lights.
Garment (1, 1b) covering the waist and extending longitudinally over at least part of the lower limbs of a user, the garment comprising: - an inner part close to the body, - a looser outer part at least partially covering the inner part, the outer part being connected to the inner part such that, over at least an adjustment region (Zg, Zd), the outer part is separate from the inner part, the at least one adjustment region (Zg, Zd) extending from the waist of the user to the hips for a peripheral distance of greater than four centimetres and less than one quarter of the waist measurement, characterized in that the outer part comprises an adaptable portion (21g, 21d) defined by a sector (Sg, Sd), the adaptable portion comprising an adjustment means by means of which it is possible to adjust the length of the sector (Sg, Sd) at the waist, the adjustment means comprising at least one elastic strip incorporated in the fabric of the outer part. - an inner part close to the body, - a looser outer part at least partially covering the inner part, the outer part being connected to the inner part such that, over at least an adjustment region (Zg, Zd), the outer part is separate from the inner part, the at least one adjustment region (Zg, Zd) extending from the waist of the user to the hips for a peripheral distance of greater than four centimetres and less than one quarter of the waist measurement,
A method of video decoding performed in a video decoder, the method comprising: receiving a bit stream including bins of syntax elements, the syntax elements corresponding to coefficients of a region of a transform skipped block in a coded picture, the syntax elements including a first flag indicating whether an absolute coefficient level of one of the coefficients is greater than a first threshold value, and a second flag indicating whether the absolute coefficient level of the one of the coefficients is greater than a second threshold value, the second threshold value being greater than the first threshold value; characterized in that the method further comprises: determining a number of the bins of the second flag that are context coded based on coded information of the coefficients; performing context modeling to determine a context model for each of the number of the bins of the second flag; and decoding the number of the bins of the second flag based on the determined context models wherein the coded information of the coefficients includes a number of the first flag in a current coefficient group, CG, including the coefficients, a number the first flag in a previous CG, whether a current block corresponding to the transform skipped block is intra coded or inter coded, a size of the transform skipped block, a width of the transformed skipped block, a height of the transformed skipped block, or an aspect ratio of the transformed skipped block. determining a number of the bins of the second flag that are context coded based on coded information of the coefficients; performing context modeling to determine a context model for each of the number of the bins of the second flag; and decoding the number of the bins of the second flag based on the determined context models wherein the coded information of the coefficients includes a number of the first flag in a current coefficient group, CG, including the coefficients, a number the first flag in a previous CG, whether a current block corresponding to the transform skipped block is intra coded or inter coded, a size of the transform skipped block, a width of the transformed skipped block, a height of the transformed skipped block, or an aspect ratio of the transformed skipped block.
A backlight unit, comprising: a light guide plate including a front surface, a rear surface opposite to the front surface, and a side surface connecting the front surface and the rear surface; a frame including a plate covering the rear surface of the light guide plate, a first side portion extending forward from a side of the plate and covering the side surface of the light guide plate, and a second side portion extending forward from the side of the plate, the second side portion being spaced apart from the first side portion and covering the side surface of the light guide plate; a reflection sheet positioned on the frame and positioned on a rear surface of the light guide plate; a housing coupled to the side of the plate and covering a gap between the first side portion and the second side portion; a substrate positioned on the housing and facing the side surface of the light guide plate; a light assembly coupled to the substrate, wherein the housing is exposed to an exterior of the frame, and wherein the light guide plate includes a protruded portion that protrudes from the side surface of the light guide plate and is positioned in the gap between the first side portion and the second side portion, characterised by a dam pad located on the substrate, wherein the light assembly is separated from the reflection sheet and the light guide plate by the dam pad. a light guide plate including a front surface, a rear surface opposite to the front surface, and a side surface connecting the front surface and the rear surface; a frame including a plate covering the rear surface of the light guide plate, a first side portion extending forward from a side of the plate and covering the side surface of the light guide plate, and a second side portion extending forward from the side of the plate, the second side portion being spaced apart from the first side portion and covering the side surface of the light guide plate; a reflection sheet positioned on the frame and positioned on a rear surface of the light guide plate; a housing coupled to the side of the plate and covering a gap between the first side portion and the second side portion; a substrate positioned on the housing and facing the side surface of the light guide plate; a light assembly coupled to the substrate, wherein the housing is exposed to an exterior of the frame, and wherein the light guide plate includes a protruded portion that protrudes from the side surface of the light guide plate and is positioned in the gap between the first side portion and the second side portion, characterised by a dam pad located on the substrate, wherein the light assembly is separated from the reflection sheet and the light guide plate by the dam pad.
A method for manufacturing a composite article comprising of steps of: - providing at least one sheet comprising a composite material, wherein the composite material comprises cellulosic fibers and a composite agent, wherein the composite agent is polyfurfuryl alcohol; - perforating the at least one sheet to form one or more recesses in the at least one sheet; - pressing the at least one sheet in a pressing tool such that bending of the at least one sheet occurs at the location of the one or more recesses, to form the composite article. - providing at least one sheet comprising a composite material, wherein the composite material comprises cellulosic fibers and a composite agent, wherein the composite agent is polyfurfuryl alcohol; - perforating the at least one sheet to form one or more recesses in the at least one sheet; - pressing the at least one sheet in a pressing tool such that bending of the at least one sheet occurs at the location of the one or more recesses, to form the composite article.
A C-arm structure for X-ray imaging, comprising: - a C-arm; - a movable C-arm support; - an X-ray source; and - an X-ray detector (3 8); wherein the C-arm comprises a first end and a second end, wherein the X-ray source is mounted to the first end and the detector is mounted to the second end; wherein the C-arm is mounted to the C-arm support such that the X-ray source and the detector are movable around an object of interest on respective source and detector trajectories which are dual axis rotation trajectories based on a simultaneous propeller and roll movement of the C-arm; wherein the X-ray source comprises at least a first focal spot and a second focal spot spaced apart from each other with a focal spot distance in an offset direction, which offset direction is aligned with the source trajectory. - a C-arm; - a movable C-arm support; - an X-ray source; and - an X-ray detector (3 8);
A wearable computing device for displaying a graphical user interface, the wearable computing device comprising: a camera to generate a captured image; an image analysis module to analyze the captured image to generate image location metric data for one or more prospective locations on the graphical user interface at which to place a graphical element, the image location metric data indicative of one or more image characteristics of the corresponding prospective location; and a placement module to (i) determine appropriateness data for each prospective location based on the corresponding image location metric data, the appropriateness data indicative of a relative suitability of the corresponding location for display of the graphical element; (ii) select one of the prospective locations based on the appropriateness data; and (iii) display the graphical element on the graphical user interface at the selected prospective location; characterized in that the wearable computing device further comprises a depth analysis module to (i) generate a depth map based on the captured image, (ii) determine a foreground layer and a background layer of the captured image based on the generated depth map, and (iii) identify an image layer of focus based on a gaze direction of a user of the wearable computing device; wherein to determine the appropriateness data for each prospective location comprises to determine the appropriateness data for each prospective location based on the corresponding image location metric data and the image layer of focus. a camera to generate a captured image; an image analysis module to analyze the captured image to generate image location metric data for one or more prospective locations on the graphical user interface at which to place a graphical element, the image location metric data indicative of one or more image characteristics of the corresponding prospective location; and a placement module to (i) determine appropriateness data for each prospective location based on the corresponding image location metric data, the appropriateness data indicative of a relative suitability of the corresponding location for display of the graphical element; (ii) select one of the prospective locations based on the appropriateness data; and (iii) display the graphical element on the graphical user interface at the selected prospective location; characterized in that the wearable computing device further comprises a depth analysis module to (i) generate a depth map based on the captured image, (ii) determine a foreground layer and a background layer of the captured image based on the generated depth map, and (iii) identify an image layer of focus based on a gaze direction of a user of the wearable computing device; wherein to determine the appropriateness data for each prospective location comprises to determine the appropriateness data for each prospective location based on the corresponding image location metric data and the image layer of focus.
A process for the production of a compound of the Formula or a pharmaceutically acceptable salt thereof: wherein R 1 is hydrogen or C 1-18 alkyl; which comprises: (a) reducing a compound of the Formula: wherein R 2 is an acyl group; and "----" represents an optional third bond by hydrogenation in the presence of a catalyst; to form a compound of the Formula: (b) deprotecting the compound of Formula to form a compound of Formula; and (c) optionally converting the compound of Formula to a pharmaceutically acceptable salt. (a) reducing a compound of the Formula: wherein R 2 is an acyl group; and "----" represents an optional third bond by hydrogenation in the presence of a catalyst; to form a compound of the Formula: (b) deprotecting the compound of Formula to form a compound of Formula; and (c) optionally converting the compound of Formula to a pharmaceutically acceptable salt.
A method for creating a restoration from a digital model of a patient's jaw provided with at least two implants and/or pillars, wherein the model is determined by means of an intraorally created scan, characterised in that a try-in part is produced from the model using CAD/CAM, the dimensional accuracy of the try-in part is checked and corrected if necessary in relation to at least two implants and/or pillars, the try-in part is scanned, and a digital model of the try-in part, corrected if necessary, is generated, which is used to create a restoration produced by means of CAD/CAM, wherein, in order to adapt the try-in part between at least two implants and/or pillars, a separation by means of a separating point occurs, which is connected by subsequent tension-free joining, preferably by casting or gluing.
An optical communication device comprising: a GPS receiver configured to receive and output a GPS signal from a satellite; a main controller configured to generate and output synchronization data based on the GPS signal; and an optical transceiver configured to generate an optical signal by superposing input payload data and the synchronization data, and to output the optical signal, wherein a first communication channel corresponding to the payload data and a second communication channel corresponding to the synchronization data are different communication channels, wherein the synchronization data includes quality information of the GPS signal including power of the GPS signal, and wherein the quality information is criteria for selecting one of a plurality of synchronization data generated by optical communication devices to generate a synchronization signal in an optical communication system. a GPS receiver configured to receive and output a GPS signal from a satellite; a main controller configured to generate and output synchronization data based on the GPS signal; and an optical transceiver configured to generate an optical signal by superposing input payload data and the synchronization data, and to output the optical signal, wherein a first communication channel corresponding to the payload data and a second communication channel corresponding to the synchronization data are different communication channels, wherein the synchronization data includes quality information of the GPS signal including power of the GPS signal, and wherein the quality information is criteria for selecting one of a plurality of synchronization data generated by optical communication devices to generate a synchronization signal in an optical communication system.
A network management node (151; 634), comprising: a processor circuit (220; 250; 620); a communication component arranged for execution by the processor circuit to receive service sustainability information (226; 526; 626) from a mobility management entity, MME, the service sustainability information describing a set of connective statuses for one or more mobile devices served by an eNodeB; and a determination component (522-3; 622-3) arranged for execution by the processor circuit to determine a non-sustainable idle device count for the eNodeB based on the service sustainability information (226; 526; 626), the non-sustainable idle device count comprising a number of idle mobile devices served by the eNodeB that are not registered with any alternate- standard mobile device interface node, to determine a non-sustainable idle device threshold based on an operator policy and to determine whether the eNodeB is to enter an energy- saving mode based on whether the non-sustainable idle device count is less than the non-sustainable idle device threshold. a processor circuit (220; 250; 620); a communication component arranged for execution by the processor circuit to receive service sustainability information (226; 526; 626) from a mobility management entity, MME, the service sustainability information describing a set of connective statuses for one or more mobile devices served by an eNodeB; and a determination component (522-3; 622-3) arranged for execution by the processor circuit to determine a non-sustainable idle device count for the eNodeB based on the service sustainability information (226; 526; 626), the non-sustainable idle device count comprising a number of idle mobile devices served by the eNodeB that are not registered with any alternate- standard mobile device interface node, to determine a non-sustainable idle device threshold based on an operator policy and to determine whether the eNodeB is to enter an energy- saving mode based on whether the non-sustainable idle device count is less than the non-sustainable idle device threshold.