mhurhangee/patent-ind-claim-en huggingface dataset:
A seal for a spherical bearing , comprising an outer ring and an inner ring , the seal comprising: an annular body portion having an arcuate cross section extending between a first axial end and a second axial end , the second axial end being positioned radially outward from the first axial end ; characterized in that a first retaining ring positioned at the first axial end ; a scraper seal extending radially inward from the second axial end ; the scraper seal being stiffer and harder than the first axial end , the annular body portion and the second axial end , integral with the first axial end , the annular body portion and the second axial end which are made from an elastomeric material and is configured to scrape debris off of the spherical exterior surface of the inner ring ; ; and the scraper seal comprises a biasing feature configured such that when the seal is assembled into a bearing a force is applied to the scraper seal that urges the second axial end radially outward to secure the second axial end in a radially inward facing groove of the outer ring . an annular body portion having an arcuate cross section extending between a first axial end and a second axial end , the second axial end being positioned radially outward from the first axial end ; characterized in that a first retaining ring positioned at the first axial end ; a scraper seal extending radially inward from the second axial end ; the scraper seal being stiffer and harder than the first axial end , the annular body portion and the second axial end , integral with the first axial end , the annular body portion and the second axial end which are made from an elastomeric material and is configured to scrape debris off of the spherical exterior surface of the inner ring ; ; and the scraper seal comprises a biasing feature configured such that when the seal is assembled into a bearing a force is applied to the scraper seal that urges the second axial end radially outward to secure the second axial end in a radially inward facing groove of the outer ring .
A method comprising: receiving, by a tokenization engine , data to be protected which is provided by at least one data provider and obtained by or on behalf of one or more data controllers; determining a data controller ID respectively associated with each respective data controller and a data provider ID associated with the at least one data provider; generating, by the tokenization engine , a corresponding token for each combination of the one or more data controller IDs, the at least one data provider ID, and the data to be protected, wherein the tokenization engine generates a different token for a same data to be protected if associated with either a different data controller ID or a different data provider ID, wherein the token is a reference that maps back to the data to be protected; storing the data to be protected in a data vault in combination with the corresponding token, the one or more data controller IDs and the at least one data provider ID , wherein the data to be protected is accessible from the data vault when the corresponding token is presented; and upon receipt of a request by the data provider to delete the data to be protected, the request specifying a specific data controller of the one or more data controllers, selectively deleting or invalidating a subset of the one or more generated tokens in the data vault corresponding to tokens generated for the data controller ID associated with the specific data controller. receiving, by a tokenization engine , data to be protected which is provided by at least one data provider and obtained by or on behalf of one or more data controllers; determining a data controller ID respectively associated with each respective data controller and a data provider ID associated with the at least one data provider; generating, by the tokenization engine , a corresponding token for each combination of the one or more data controller IDs, the at least one data provider ID, and the data to be protected, wherein the tokenization engine generates a different token for a same data to be protected if associated with either a different data controller ID or a different data provider ID, wherein the token is a reference that maps back to the data to be protected; storing the data to be protected in a data vault in combination with the corresponding token, the one or more data controller IDs and the at least one data provider ID , wherein the data to be protected is accessible from the data vault when the corresponding token is presented; and upon receipt of a request by the data provider to delete the data to be protected, the request specifying a specific data controller of the one or more data controllers, selectively deleting or invalidating a subset of the one or more generated tokens in the data vault corresponding to tokens generated for the data controller ID associated with the specific data controller.
Device for changing operating settings of a technical facility , wherein the technical facility has a controller that is configured so as to control a multiplicity of functional units of the technical facility , based on at least a multiplicity of input parameters , by way of the operating settings, having: an input for receiving at least one input parameter of the multiplicity of input parameters , a simulation unit for simulating at least one functional unit of the multiplicity of functional units based on the at least one received input parameter, a changing unit for changing the operating settings and for providing changed operating settings to the simulation unit , wherein the simulation unit is configured so as to simulate a multiplicity of changed operating settings of the at least one functional unit in parallel, an evaluation unit for evaluating output parameters, based on the changed operating settings, of the at least one functional unit simulated by the simulation unit , wherein the evaluation unit is configured so as to evaluate output parameters of the functional unit based on the multiplicity of changed operating settings, and an output for providing the changed operating settings to the controller based on the evaluation. an input for receiving at least one input parameter of the multiplicity of input parameters , a simulation unit for simulating at least one functional unit of the multiplicity of functional units based on the at least one received input parameter, a changing unit for changing the operating settings and for providing changed operating settings to the simulation unit , wherein the simulation unit is configured so as to simulate a multiplicity of changed operating settings of the at least one functional unit in parallel, an evaluation unit for evaluating output parameters, based on the changed operating settings, of the at least one functional unit simulated by the simulation unit , wherein the evaluation unit is configured so as to evaluate output parameters of the functional unit based on the multiplicity of changed operating settings, and an output for providing the changed operating settings to the controller based on the evaluation.
A method for forming a three dimensional object comprising the steps of providing a carrier and an optically transparent member having a release film coating with a building surface, said carrier and said building surface defining a build region therebetween; filling said build region with a polymerizable liquid; irradiating said build region through said optically transparent member and said release film coating to form a solid polymer from said polymerizable liquid while concurrently advancing said carrier away from said build surface to form said three-dimensional object from said solid polymer.
A muffler for an engine, the muffler having an inner space (K) of a muffler body formed by two shells , the inner space (K) being divided into a plurality of chambers by a partition wall with a flange portion in tight contact with an inner surface of the shell , comprising: a reinforcing plate in rectangular shape at a position on an outer surface of each shell facing the flange portion of the partition wall , wherein a portion being a widthwise center of the reinforcing plate along a longitudinal direction of the reinforcing plate is welded to the flange portion across the shell at a plurality of places, and other portions located on both end sides of the reinforcing plate as viewed in the longitudinal direction of the reinforcing plate are welded to the outer surface of the shell , so that an unwelded portion is provided between the reinforcing plate and the outer surface of the shell . a reinforcing plate in rectangular shape at a position on an outer surface of each shell facing the flange portion of the partition wall , wherein a portion being a widthwise center of the reinforcing plate along a longitudinal direction of the reinforcing plate is welded to the flange portion across the shell at a plurality of places, and other portions located on both end sides of the reinforcing plate as viewed in the longitudinal direction of the reinforcing plate are welded to the outer surface of the shell , so that an unwelded portion is provided between the reinforcing plate and the outer surface of the shell .
A prostaglandin D2 production inhibitor for use in the prevention and/or treatment of sarcopenia.
A leakage detector for filter elements of a filter screen, comprising a plurality of filter elements consisting of a support wall with a circumferential plate frame , which elements are fastened together at the edges and form between them filter chambers with inlets flowing into same, which inlets are for the suspension to be filtered and bear impermeable membranes which can be moved forwards into the filter chamber by a means of pressure, and which membranes are tightly connected in the edge region, on one or both sides, to the filter element, wherein the means of pressure is supplied or discharged, via a bore of the means of pressure, arranged on the edge and flowing into the filter element, into which bore a flow sensor, through which the means of pressure has flowed, can be inserted, characterised in that the flow sensor has a damming body which is substantially cylindrical in cross-section and axially displaceable, which body is provided on its generated surface with at least one, preferably two or multiples thereof, flow channels extending away therefrom in axial direction, wherein the damming body has a magnet , via the magnetic field of which the position of the damming body is detected by a magnet sensor also arranged in the edge region or in the plate frame , and is provided as a signal for further processing.
A method of fastening a rivet element to a workpiece , in particular to a sheet metal part , which has a preshaped hole provided for the reception of a rivet section of the rivet element and which is made planar at least in the region around the preshaped hole , wherein, prior to the fastening process, the workpiece is positioned at a well-defined spacing (D) from a contact surface of a die by means of at least one movable and/or elastic spacer of the die for reshaping the rivet section so that a gap is formed between a wall of the hole and a punch of the die which is provided for the reshaping of the rivet section , and wherein the rivet section is introduced into the gap in the course of the fastening process and is reshaped by the punch in order to engage behind the workpiece in the region of the hole , characterized in that the workpiece is only moved toward the contact surface after the start of a reshaping of the rivet section .
A lens for a linear light source comprising a top and a bottom, the bottom comprising an incident surface , and a first supporting surface and a second supporting surface respectively at each side of the incident surface , and the top comprising an emergent surface , wherein the top further comprises a total internally reflective surface , wherein in a cross section, the lens is asymmetrical, and the total internally reflective surface is directly joined with the second supporting surface , such that, one part of light from the linear light source incidents into the incident surface and emerges after refracted by the emergent surface , and the other part of light incidents into the incident surface and reflected by the total internally reflective surface and then emerges after refracted by the emergent surface , wherein, in the cross section, the total internally reflective surface is formed to be inclined with respect to an optical axis (Y) of the linear light source, and wherein an internal angle between a tangential direction of the total internally reflective surface and the second supporting surface is bigger than 90°, characterized in that : the emergent surface is directly joined with the first supporting surface .
SALVAGE SUIT FOR SHIPWRECKS WITH HIGH FUNCTIONALITY AND INSULATION, which, having the capacity of containing the body of a person or user in its inner cavity , gives thermal and hydrological protection, forming a flotation unit that: - defines a receptacle according to the anatomic form of a person, but with the sufficient width to allow, such as a floating mini-cabin, that the person moves within said receptacle , - includes a structure of isolating walls both in the body and in the headpiece part, as well as in the trouser legs and arms, - said structure of insulating walls has an outer cover of protection, characterized in that : - it has an access opening to the inner receptacle and a facial opening that are independent, - around said facial opening , the structure of insulating walls has a hood , - both openings, access and facial , are surrounded by an unfoldable sleeve that is projected from the structure of insulating walls , - the outer cover of protection includes a headpiece cover that covers the hood and a body cover and - said headpiece cover and said body cover are separated by a frame passage through which the mentioned unfoldable sleeve is capable of unfolding, until forming an environmental protection over said headpiece hood and over said access opening . - defines a receptacle according to the anatomic form of a person, but with the sufficient width to allow, such as a floating mini-cabin, that the person moves within said receptacle , - includes a structure of isolating walls both in the body and in the headpiece part, as well as in the trouser legs and arms, - said structure of insulating walls has an outer cover of protection, characterized in that : - it has an access opening to the inner receptacle and a facial opening that are independent, - around said facial opening , the structure of insulating walls has a hood , - both openings, access and facial , are surrounded by an unfoldable sleeve that is projected from the structure of insulating walls , - the outer cover of protection includes a headpiece cover that covers the hood and a body cover and - said headpiece cover and said body cover are separated by a frame passage through which the mentioned unfoldable sleeve is capable of unfolding, until forming an environmental protection over said headpiece hood and over said access opening . - it has an access opening to the inner receptacle and a facial opening that are independent, - around said facial opening , the structure of insulating walls has a hood , - both openings, access and facial , are surrounded by an unfoldable sleeve that is projected from the structure of insulating walls , - the outer cover of protection includes a headpiece cover that covers the hood and a body cover and - said headpiece cover and said body cover are separated by a frame passage through which the mentioned unfoldable sleeve is capable of unfolding, until forming an environmental protection over said headpiece hood and over said access opening .
A semiconductor optical sensor , comprising: a substrate integrating a plurality of photodetector areas ; and a CMOS layer stack arranged on the substrate and including a number of dielectric and conductive layers; further comprising UV conversion regions arranged above a number of first photodetector areas and configured to convert UV light radiation into visible light radiation towards said first photodetector active areas , said first photodetector areas being thereby designed to define first photodetection units for UV light detection, wherein the first photodetector areas are alternated to a number of second photodetector areas , integrated in the substrate and designed to define second photodetection units for visible light detection, the first and second photodetection units forming an array of photodetection units of the optical sensor , jointly defining a single image detection area sensitive to both UV and visible light radiation, characterized by further comprising filter regions , arranged above said second photodetector areas and made of a material transparent to visible light radiation and opaque to UV light radiation. a substrate integrating a plurality of photodetector areas ; and a CMOS layer stack arranged on the substrate and including a number of dielectric and conductive layers; further comprising UV conversion regions arranged above a number of first photodetector areas and configured to convert UV light radiation into visible light radiation towards said first photodetector active areas , said first photodetector areas being thereby designed to define first photodetection units for UV light detection, wherein the first photodetector areas are alternated to a number of second photodetector areas , integrated in the substrate and designed to define second photodetection units for visible light detection, the first and second photodetection units forming an array of photodetection units of the optical sensor , jointly defining a single image detection area sensitive to both UV and visible light radiation, characterized by further comprising filter regions , arranged above said second photodetector areas and made of a material transparent to visible light radiation and opaque to UV light radiation.
A battery pack comprising : a master BMS ; and a first slave battery management system (100, 200,..., 600), BMS, which, when an error has occurred in a first battery module (150, 250,... 650), determines whether or not the error is critical, where the first slave BMS is configured to communicate with the master BMS in a time segment corresponding to an Identification (ID) of the first slave BMS, change the ID based on whether or not the error is critical, then output information on the error to the master BMS in a time segment corresponding to the changed ID. a master BMS ; and a first slave battery management system (100, 200,..., 600), BMS, which, when an error has occurred in a first battery module (150, 250,... 650), determines whether or not the error is critical, where the first slave BMS is configured to communicate with the master BMS in a time segment corresponding to an Identification (ID) of the first slave BMS, change the ID based on whether or not the error is critical, then output information on the error to the master BMS in a time segment corresponding to the changed ID.
A computer-implemented method comprising: receiving, by an integrated camera solution of a computer system that is operating in a low image quality mode and that includes (i) the integrated camera solution , and (ii) a computer that includes one or more general purpose processing cores (CPU(s) 205) or image signal processors (ISP 202), image data, wherein the integrated camera solution comprises memory, processing intelligence hardware, and an image sensor being stacked and/or abutted, and wherein the image data is received in response to incident light that is received by the image sensor; determining, by the integrated camera solution of the computer system that is operating in a low image quality mode, that the image data includes a particular looked-for feature and, in response, transitioning the computer system to a high quality image mode to receive image data at a higher quality; compressing, by the integrated camera solution of the computer system that is operating in the high quality image mode, one part of a region of interest within the image data corresponding to the particular looked-for feature at a different compression ratio than another part of the region of interest; and processing, by the computer of the computer system that is operating in the high quality image mode, the compressed image data forwarded by the integrated camera solution. . receiving, by an integrated camera solution of a computer system that is operating in a low image quality mode and that includes (i) the integrated camera solution , and (ii) a computer that includes one or more general purpose processing cores (CPU(s) 205) or image signal processors (ISP 202), image data, wherein the integrated camera solution comprises memory, processing intelligence hardware, and an image sensor being stacked and/or abutted, and wherein the image data is received in response to incident light that is received by the image sensor; determining, by the integrated camera solution of the computer system that is operating in a low image quality mode, that the image data includes a particular looked-for feature and, in response, transitioning the computer system to a high quality image mode to receive image data at a higher quality; compressing, by the integrated camera solution of the computer system that is operating in the high quality image mode, one part of a region of interest within the image data corresponding to the particular looked-for feature at a different compression ratio than another part of the region of interest; and processing, by the computer of the computer system that is operating in the high quality image mode, the compressed image data forwarded by the integrated camera solution. .
Drainage channel having a channel body which has two longitudinally extending channel walls connected to one another by means of a channel base , wherein these channel walls are each provided at their upper edge with a respective frame for supporting a channel cover engaging over the channel body , wherein the frames in each case form a folded edge along the upper edge, characterized in that these folded edges are each adjoined by an inner cheek and a bearing surface projecting perpendicularly therefrom, wherein a U-shaped support profile which engages under the bearing surface and whose first U-flank is connected to the bearing surface and merges into the latter and whose second U flank rests against the channel wall is integrally formed on the frames beneath the bearing surface , wherein both the channel body and the frames are in each case produced as folded sheet metal blanks and the frames are in each case formed as an attaching frame and are connected to the channel body in such a way that in each case an upper edge of the channel wall engages positively and non-positively in each case in one folded edge of the frame .