mhurhangee/ep-ind-claims huggingface dataset:
An optical product comprising a composite coating, deposited on a substrate, that includes at least one bilayer (20, 20', 20") having a first layer (25, 25', 25") and a second layer (30, 30', 30"), each provided with a binding group component which together form a complementary binding group pair, the at least one bilayer comprising a pigment blend that includes: one or more pigments that when mixed and formed into at least one layer (25, 25', 25", 30, 30', 30") of the bilayer (20, 20', 20") selectively block visible light in a wavelength range of interest, wherein the wavelength range of interest is from 500nm to 600nm or is from 600nm to 650nm characterized in that the at least one bilayer (20, 20', 20") includes at least two pigments that, when mixed together and formed into at least one layer (25, 25', 25", 30, 30', 30") of the bilayer (20, 20', 20"), exhibit a color reflection value that is less than about 2.5, the resulting optical product selectively blocks visible light in the wavelength range of interest, while exhibiting a color reflection value that is less than about 2.5, wherein the color reflection value is calculated from the formula sqrt[(a*) 2 + (b*) 2], a and b being determined as in the 1976 CIE L*a*b* Color Space. one or more pigments that when mixed and formed into at least one layer (25, 25', 25", 30, 30', 30") of the bilayer (20, 20', 20") selectively block visible light in a wavelength range of interest, wherein the wavelength range of interest is from 500nm to 600nm or is from 600nm to 650nm characterized in that the at least one bilayer (20, 20', 20") includes at least two pigments that, when mixed together and formed into at least one layer (25, 25', 25", 30, 30', 30") of the bilayer (20, 20', 20"), exhibit a color reflection value that is less than about 2.5, the resulting optical product selectively blocks visible light in the wavelength range of interest, while exhibiting a color reflection value that is less than about 2.5, wherein the color reflection value is calculated from the formula sqrt[(a*) 2 + (b*) 2], a and b being determined as in the 1976 CIE L*a*b* Color Space.
A semiconductor structure, comprising: multiple first active regions that are separate from one another and located in a substrate; connection pads, each connection pad connecting ends of adjacent first active regions; magnetic tunnel junctions, each magnetic tunnel junction being connected with a respective connection pad; wherein the first active regions are in an elongated shape and extend in a first direction, and the connection pads are in an elongated shape and extend in a second direction, wherein there is a first included angle (α) between the first direction and the second direction; first word lines, passing through the first active regions; wherein each first active region is divided into two ends and a middle part by two first word lines; and selection lines, each selection line being connected with middle parts of respective first active regions, characterised in that the first word lines extend in a third direction. multiple first active regions that are separate from one another and located in a substrate; connection pads, each connection pad connecting ends of adjacent first active regions; magnetic tunnel junctions, each magnetic tunnel junction being connected with a respective connection pad; wherein the first active regions are in an elongated shape and extend in a first direction, and the connection pads are in an elongated shape and extend in a second direction, wherein there is a first included angle (α) between the first direction and the second direction; first word lines, passing through the first active regions; wherein each first active region is divided into two ends and a middle part by two first word lines; and selection lines, each selection line being connected with middle parts of respective first active regions,
A method comprising: allocating a first portion of a memory-mapped file to a virtual address for a first process; allocating a second portion of the memory-mapped file to the virtual address for a second process based on the second process being a child of the first process, wherein the first portion of the memory-mapped file and the second portion of the memory-mapped file are mapped to a first offset and a second offset, respectively, of a file that backs the memory-mapped file, and wherein the first portion of the memory-mapped file is non-overlapping with the second portion of the memory-mapped file; and writing contents of the first and second portions (706, 708) of the memory-mapped file to corresponding first and second portions of the file that backs the memory-mapped file. allocating a first portion of a memory-mapped file to a virtual address for a first process; allocating a second portion of the memory-mapped file to the virtual address for a second process based on the second process being a child of the first process, wherein the first portion of the memory-mapped file and the second portion of the memory-mapped file are mapped to a first offset and a second offset, respectively, of a file that backs the memory-mapped file, and wherein the first portion of the memory-mapped file is non-overlapping with the second portion of the memory-mapped file; and writing contents of the first and second portions (706, 708) of the memory-mapped file to corresponding first and second portions of the file that backs the memory-mapped file.
A method of reconstructing image data from x-ray data measured with an imaging system comprising at least one photon-counting detector, wherein the method comprises the steps of: - obtaining a representation of data measured by said photon-counting detector; - generating first image data based on a projection based first functional using a first algorithm, said projection based first functional being dependent on said representation of data; - updating, based on a second functional that includes a model of at least one physical effect not included in said projection based first functional, said first image data to obtain second image data, wherein the step of updating said first image data comprises performing a series expansion of the optimum of said first functional when at least one term from said second functional has been added to said first functional, said series expansion being done with respect to at least one parameter determining the magnitude of at least one particular term from said second functional and computing, based on said series expansion, an update of said first image data to thereby obtain second image data. - obtaining a representation of data measured by said photon-counting detector; - generating first image data based on a projection based first functional using a first algorithm, said projection based first functional being dependent on said representation of data; - updating, based on a second functional that includes a model of at least one physical effect not included in said projection based first functional, said first image data to obtain second image data,
Dosing system for flowable washing or cleaning agents, in particular for being positioned inside a dishwasher by a user, comprising a dosing device and comprising at least one cartridge, the cartridge having at least one cartridge chamber which contains a flowable washing or cleaning agent, the cartridge being designed such that it can be detachably coupled to a connection portion of a housing of the dosing device, the cartridge being coupled to the housing of the dosing device, at least one energy source and an electronic control unit being arranged in the housing of the dosing device, characterized in that the control unit comprises a reset switch or is connected thereto, the control unit being set in terms of circuit technology such that actuating the reset switch in the control unit leads to a reset control signal, the reset switch being designed to be self-resetting, being actuated by means of the coupling of the cartridge to the dosing device and being opened upon detachment of the cartridge and resetting itself, an actuating element for a reset switch of the dosing device being arranged on the cartridge and/or being designed such that the actuating element becomes ineffective, in particular breaks off, when the cartridge is detached from the dosing device such that, when the cartridge is coupled again, the reset switch can no longer be actuated by the actuating element.
Light module for a motor vehicle headlamp having a projection device, the projection device being formed from a multiplicity of micro-optical systems arranged in a matrix-like manner, each micro-optical system having a micro-entry optical system, a micro-exit optical system assigned to the micro-entry optical system and a micro-aperture, a micro-exit optic associated with the micro-entry optic and a micro-aperture, wherein all the micro-entry optics form an entry optic, all the micro-exit optics form an exit optic and the micro-apertures form an aperture device, wherein the aperture device is arranged in a plane substantially orthogonal to the main radiation direction of the projection device and the entrance optics, the exit optics and the aperture device are arranged in planes substantially parallel to each other, the whole of the micro-optical systems being divided into at least two micro-optical system groups (G1, G2, G3), the micro-apertures of the micro-optical systems of each micro-optical system group (G1, G2, G3) being illuminated by light of at least one light wavelength (λG1, λG2, λG3) from a predetermined light wavelength range, and the predetermined light wavelength ranges are different for different micro-optical system groups (G1, G2, G3), wherein the light module has a light source, wherein the projection device is arranged downstream of the light source in the light emission direction and projects light generated by the light source into an area in front of the light module in the form of a light distribution having a cut-off line, wherein the light distribution is formed from a plurality of overlapping partial light distributions each having a partial light-dark boundary and each partial light distribution is formed by exactly one micro-optical system group, characterized in that each partial light-dark boundary has a color fringe of a predetermined color and different partial light-dark boundaries have color fringes of different colors, each color corresponding to a light wavelength (λG1, λG2, λG3) from a predetermined light wavelength range, preferably a predetermined light wavelength (λG1, λG2, λG3).
Burst element for a potentially explosive system, composed of a frame or a base surrounding an opening which is connected to the potentially explosive system, and a flat sealing element (2, 3) connected to the frame which closes the opening, and has at least one rated point of tearing, the sealing element having a Velcro fastener as rated point of tearing, fastened to the circumferential edges or the supporting edges (4, 17), the fastener enabling the opening to the outside at a predetermined overpressure, characterized in that the sealing element (2, 3) is composed of several element segments and that one or more diagonal separating sheets are provided within the frame or the base, having contact edges on which the sealing element segments are fixed.
Front cap for a rail vehicle car, wherein - the front cap comprises a main member having a roof portion, a front portion and two side portions (23, 24) - at least one front member is adjoining the main member, and - the front member adjoins side edges (51, 52) of the side portions (23, 24) and adjoins at least one front edge of the front portion between the side edges (51, 52), - a first side portion of the main member and the front member form a first lower edge adjoining at least a first cover member, and - a second side portion of the main member and the front member form a second lower edge adjoined by at least one second cover member, - characterised in that - the front member is removably attached to the main member, - the first cover member is removably attached to the first lower edge, and - the second cover member is removably attached to the second lower edge. - the front cap comprises a main member having a roof portion, a front portion and two side portions (23, 24) - at least one front member is adjoining the main member, and - the front member adjoins side edges (51, 52) of the side portions (23, 24) and adjoins at least one front edge of the front portion between the side edges (51, 52), - a first side portion of the main member and the front member form a first lower edge adjoining at least a first cover member, and - a second side portion of the main member and the front member form a second lower edge adjoined by at least one second cover member, - characterised in that - the front member is removably attached to the main member, - the first cover member is removably attached to the first lower edge, and - the second cover member is removably attached to the second lower edge.
Method for monitoring a vehicle which is in an autonomous operating mode and in a parking space, - wherein it is checked whether there are one or more persons located in the passenger compartment of the vehicle, - wherein one or more actions are carried out as a function of the checking, - wherein the one or more actions are carried out if one or more persons are located in the passenger compartment of the vehicle, - characterized in that by means of a vehicle-external monitoring system the passenger compartment of the vehicle is monitored for the presence of one or more persons, - wherein the one or more actions comprise the fact that a stop command, indicating that the vehicle should stop, is sent to the vehicle via a communication network. - wherein it is checked whether there are one or more persons located in the passenger compartment of the vehicle, - wherein one or more actions are carried out as a function of the checking, - wherein the one or more actions are carried out if one or more persons are located in the passenger compartment of the vehicle, - characterized in that by means of a vehicle-external monitoring system the passenger compartment of the vehicle is monitored for the presence of one or more persons, - wherein the one or more actions comprise the fact that a stop command, indicating that the vehicle should stop, is sent to the vehicle via a communication network.
A ski locking device for securing a pair of snow skis, each snow ski being equipped with a snow brake, the ski locking device comprising: a housing having a rear portion; a lockable closure member connected to the housing; the housing and the lockable closure member being configured such that, when the ski locking device is in a closed position locking a pair of skis, with a slide surface of the first ski facing a slide surface of the second ski: (i) the rear portion of the housing faces a first edge of the first ski and a second edge of the second ski; (ii) the lockable closure member encloses the snow brakes at a crossing point of the snow brakes. a housing having a rear portion; a lockable closure member connected to the housing; the housing and the lockable closure member being configured such that, when the ski locking device is in a closed position locking a pair of skis, with a slide surface of the first ski facing a slide surface of the second ski: (i) the rear portion of the housing faces a first edge of the first ski and a second edge of the second ski; (ii) the lockable closure member encloses the snow brakes at a crossing point of the snow brakes. (i) the rear portion of the housing faces a first edge of the first ski and a second edge of the second ski; (ii) the lockable closure member encloses the snow brakes at a crossing point of the snow brakes.
Cooling system for an induction hob comprising an air blower for generating an airflow according to a first direction, and a heat-sink device (50, 120) through which air blown by the air blower is conveyed, the cooling system further comprises airflow deflecting means (80,150) cooperating with said heat-sink device (50, 120) for deflecting at least a portion of said airflow from said first direction to a second direction which significantly deviates from said first direction, characterized in that said airflow deflecting means (80, 150) comprises openings in a common base (70,140) of said heat-sink device(50,120).
An ultrasonic surgical instrument, comprising: (a) a first modular assembly, such as a handle assembly, including at least one operator input feature; (b) an ultrasonic transducer supported by the first modular assembly; (c) a second modular assembly, such as a shaft assembly, configured to be removably coupled with the first modular assembly, wherein the second modular assembly further includes at least a portion of an end effector extending distally from a distal end portion of the second modular assembly; and (d) a mechanical lockout assembly configured to switch or move between at least an unlocked configuration and a locked configuration, wherein in the locked configuration, the first modular assembly and the second modular assembly are partially coupled together such that the operator is physically prevented from activating the instrument using the operator input feature, and wherein in the unlocked configuration, the first modular assembly and the second modular assembly are completely coupled together and the operator is able to activate the instrument using the operator input feature. (a) a first modular assembly, such as a handle assembly, including at least one operator input feature; (b) an ultrasonic transducer supported by the first modular assembly; (c) a second modular assembly, such as a shaft assembly, configured to be removably coupled with the first modular assembly, wherein the second modular assembly further includes at least a portion of an end effector extending distally from a distal end portion of the second modular assembly; and (d) a mechanical lockout assembly configured to switch or move between at least an unlocked configuration and a locked configuration, wherein in the locked configuration, the first modular assembly and the second modular assembly are partially coupled together such that the operator is physically prevented from activating the instrument using the operator input feature, and wherein in the unlocked configuration, the first modular assembly and the second modular assembly are completely coupled together and the operator is able to activate the instrument using the operator input feature.
A lens, comprising a lens tube and an optical element mounted in the lens tube, wherein the lens tube has a top surface, and a conductive layer is disposed on a surface that is of the optical element and that faces a side on which the top surface is located; and the lens further comprises: an antistatic structure disposed on the top surface; and an electrostatic conducting wire disposed inside a tube wall or on an inner surface or an outer surface of the lens tube, wherein one end of the electrostatic conducting wire is electrically connected to the antistatic structure, and the other end is grounded; wherein the conductive layer comprises a detection line; the lens further comprises two conducting wires, wherein the two conducting wires are disposed inside the tube wall or on the inner surface or the outer surface of the lens tube, two ends of the detection line are respectively connected to an external positive terminal and an external negative terminal through the two conducting wires, and the negative terminal is grounded. an antistatic structure disposed on the top surface; and an electrostatic conducting wire disposed inside a tube wall or on an inner surface or an outer surface of the lens tube, wherein one end of the electrostatic conducting wire is electrically connected to the antistatic structure, and the other end is grounded; wherein the conductive layer comprises a detection line; the lens further comprises two conducting wires, wherein the two conducting wires are disposed inside the tube wall or on the inner surface or the outer surface of the lens tube, two ends of the detection line are respectively connected to an external positive terminal and an external negative terminal through the two conducting wires, and the negative terminal is grounded.
Multilayer film manufactured through co-extrusion, in particular packaging film, with a core layer made of a core layer mixture, a sealing layer made of a sealing layer mixture and a print layer made of a print layer mixture, wherein the core layer is arranged between the sealing layer and the print layer, wherein the core layer mixture contains at least one polyolefin and starch, preferably thermoplastic starch, and wherein the sealing layer mixture and the print layer mixture each contain respectively at least one polyolefin and starch, preferably thermoplastic starch, characterized in that the sealing layer mixture and/or the print layer mixture each contain at least one polypropylene, wherein the polypropylene contained in the sealing layer mixture and/or in the print layer mixture is a polypropylene random copolymer (PP-RC) and that the sealing layer mixture and/or the print layer mixture each contains a polyethylene as a polyolefin.
A biological sample test system, comprising: a remote sample delivery system comprising an aerial unmanned autonomous vehicle and a sample container securing mechanism secured to the aerial unmanned autonomous vehicle, configured to secure a container for a biological sample, the container including a sample identifier; a sample receiving station, configured to receive the container from the remote sample delivery system, wherein the remote sample delivery system is configured to automatically navigate to the sample receiving station upon the container being secured to the remote sample delivery system, and wherein the remote sample delivery system is configured to navigate to the sample receiving station based, at least in part, on the sample identifier; and a sample test track, comprising a pre-analytical test station and a plurality of test stations and a container conveyance system configured to sequentially deliver the container to individual ones of the plurality of test stations based, at least in part, on the sample identifier, wherein the sample receiving station is coupled to the pre-analytical test station, and wherein the sample receiving station includes a landing pad for the aerial unmanned autonomous vehicle. a remote sample delivery system comprising an aerial unmanned autonomous vehicle and a sample container securing mechanism secured to the aerial unmanned autonomous vehicle, configured to secure a container for a biological sample, the container including a sample identifier; a sample receiving station, configured to receive the container from the remote sample delivery system, wherein the remote sample delivery system is configured to automatically navigate to the sample receiving station upon the container being secured to the remote sample delivery system, and wherein the remote sample delivery system is configured to navigate to the sample receiving station based, at least in part, on the sample identifier; and a sample test track, comprising a pre-analytical test station and a plurality of test stations and a container conveyance system configured to sequentially deliver the container to individual ones of the plurality of test stations based, at least in part, on the sample identifier, wherein the sample receiving station is coupled to the pre-analytical test station, and wherein the sample receiving station includes a landing pad for the aerial unmanned autonomous vehicle.