mhurhangee/ep-ind-claims huggingface dataset:
A memory device, comprising: a substrate; a lower conductive line disposed above the substrate and extending in a first direction and an upper conductive line disposed above the lower conductive line and extending in a second direction crossing the first direction; and a memory cell stack between the lower and upper conductive lines, the memory cell stack comprising: a storage element; and a lateral plateau region between the storage element and the lower conductive line such that a width of the memory cell stack immediately below the lateral plateau region to the lower conductive line is greater than a width of the memory cell stack immediately above the lateral plateau region to the upper conductive line, wherein the memory cell stack further comprises a middle electrode between the storage element and a selector element, and characterized in that the lateral plateau region is between the storage element and the middle electrode, wherein the lateral plateau region is wider than the storage element in the first direction and in the second direction. a substrate; a lower conductive line disposed above the substrate and extending in a first direction and an upper conductive line disposed above the lower conductive line and extending in a second direction crossing the first direction; and a memory cell stack between the lower and upper conductive lines, the memory cell stack comprising: a storage element; and a lateral plateau region between the storage element and the lower conductive line such that a width of the memory cell stack immediately below the lateral plateau region to the lower conductive line is greater than a width of the memory cell stack immediately above the lateral plateau region to the upper conductive line, wherein the memory cell stack further comprises a middle electrode between the storage element and a selector element, and characterized in that the lateral plateau region is between the storage element and the middle electrode, wherein the lateral plateau region is wider than the storage element in the first direction and in the second direction. a storage element; and a lateral plateau region between the storage element and the lower conductive line such that a width of the memory cell stack immediately below the lateral plateau region to the lower conductive line is greater than a width of the memory cell stack immediately above the lateral plateau region to the upper conductive line, wherein the memory cell stack further comprises a middle electrode between the storage element and a selector element, and characterized in that the lateral plateau region is between the storage element and the middle electrode, wherein the lateral plateau region is wider than the storage element in the first direction and in the second direction.
A tarpaulin board assembly having at least one tarpaulin board (30, 32) and at least two holders, wherein the at least tarpaulin board (30, 32) can be received between two adjacent posts of a tarpaulin structure of a commercial vehicle in the holders which are fastened in each case on adjacent posts and face one other, characterized in that two holders (34, 36) each have a pin bracket and a pocket for receiving an end portion (100, 102, 138) of a tarpaulin board (30, 32) formed as a one-piece hollow profile or that at least one holder has a pin bracket as well as a pocket and at least one holder has a u-profile and at least one pin bracket for receiving an end portion (100, 102, 138) of a tarpaulin board (30, 32) that is formed as a one-piece hollow profile, wherein in both end portions (100, 102, 138) of the at least one tarpaulin board (30, 32) there is provided a recess in which in each case one pin of a pin bracket can be inserted at least in sections in a positive-locking manner so as to achieve, regardless of a tarpaulin, a positive-locking connection of the posts with respect to mechanical forces that act substantially parallel to a cargo bed of the commercial vehicle.
A surfactant comprising a grafted rosin ester which is a rosin ester grafted with a capped polyalkylene glycol, wherein the capped polyalkylene glycol is a polyalkylene glycol end-capped by an alkyl ether.
A method of manufacturing a stent, in which a) the stent is cut out of a tubular material; b) the stent is widened up to its expanded state, characterized in that c) the shape of the cells (18, 18a, 18b) of the stent is changed and fixed in the expanded state. a) the stent is cut out of a tubular material; b) the stent is widened up to its expanded state, c) the shape of the cells (18, 18a, 18b) of the stent is changed and fixed in the expanded state.
(amended) A method for producing a corrosion-resistant, high-hardness alloy composition, comprising: subjecting an ingot of an alloy, comprising 15.5% by weight to 16.5% by weight of Cr, 7.5% by weight to 15.5% by weight of Mo, 0% by weight to 30% by weight of Co, 4.5% by weight to 15% by weight of Fe and 0.5% by weight to 4.0% by weight of Cu, with the remainder consisting of Ni and unavoidably included elements, to homogenization treatment for 4 hours to 24 hours at 1100°C to 1300°C, followed by subjecting to cold processing at a compression rate of 30% to 60% and then to aging treatment for 0.5 hours to 3 hours over a temperature range of 300°C to 600°C.
Lighting module comprising an elliptical collector suitable for reflecting, in the direction of an optical element, a beam issuing from a light source arranged in the vicinity of the first focus of said collector, and further comprising a shield mounted on the path of said light beam and one edge of which, referred to as the cutoff edge, is arranged in the vicinity of the second focus of said collector so as to form a cutoff in said light beam, characterised in that the light source, the collector and the shield are mounted on an active surface of a support that comprises a referencing wall that extends projecting from said active surface, and means for pressing the shield against said active surface of the support that are suitable for pushing the front face of said shield, which comprises said cutoff edge, against said referencing wall.
Use of a particle having a particle size in the range of from 10 nm to 1000 μm, wherein the particle comprises a polymer shell and a core; wherein the core comprises a phase change active, which is a material having a thermal phase transition temperature in the range 24 to 39°C to provide freshness longevity to the wearer of treated garments, wherein the particle is a component of a composition comprising a perfume.
An input/output IO circuit powered by an input/output IO supply voltage (102, 202, 402, 502, 702), the IO circuit comprising: a supply detector cell (100, 200, 750) configured to detect a core supply voltage (104, 204, 404, 504, 704) and generate a supply detect signal (116, 216, 766); a driver circuit (400, 500, 705) connected to a PAD (422, 522, 722) and configured to receive the supply detect signal (116, 216, 766); and a failsafe circuit (525, 725) configured to receive the PAD voltage, wherein the failsafe circuit (525, 725) is configured to control a leakage current from the PAD (422, 522, 722) through deactivation of a final driver circuit of the driver circuit (400, 500, 705) when the IO supply voltage (102, 202, 402, 502, 702) is below a trip-point and the PAD is at the high logic level; and wherein the supply detector cell (100, 200, 750) is configured to control the leakage current from the PAD (422, 522, 722) through deactivation of the final driver circuit when the IO supply voltage (102, 202, 402, 502, 702) is above a trip-point and the PAD is at the high logic level. a supply detector cell (100, 200, 750) configured to detect a core supply voltage (104, 204, 404, 504, 704) and generate a supply detect signal (116, 216, 766); a driver circuit (400, 500, 705) connected to a PAD (422, 522, 722) and configured to receive the supply detect signal (116, 216, 766); and a failsafe circuit (525, 725) configured to receive the PAD voltage, wherein the failsafe circuit (525, 725) is configured to control a leakage current from the PAD (422, 522, 722) through deactivation of a final driver circuit of the driver circuit (400, 500, 705) when the IO supply voltage (102, 202, 402, 502, 702) is below a trip-point and the PAD is at the high logic level; and wherein the supply detector cell (100, 200, 750) is configured to control the leakage current from the PAD (422, 522, 722) through deactivation of the final driver circuit when the IO supply voltage (102, 202, 402, 502, 702) is above a trip-point and the PAD is at the high logic level.
A vehicle wash system disposed in a vehicle wash facility, comprising: a plurality of vehicle wash components (20, 22, 24, 26, 28, 30, 32, 34) disposed adjacent a vehicle treatment area (190, 192, 194, 196); a plurality of lights (52, 72, 84, 114, 126, 130) disposed in the vehicle wash facility, each of the lights (52, 72, 84, 114, 126, 130) having at least a first state; a controller in communication with each of the plurality of lights (52, 72, 84, 114, 126, 130) characterized in that the controller is configured to enable the first state of the plurality of lights (52, 72, 84, 114, 126, 130) when no vehicles are present in the vehicle wash facility; and wherein in the first state, the plurality of lights (52, 72, 84, 114, 126, 130) are configured to emit light in a preprogrammed pattern of different colors. a plurality of vehicle wash components (20, 22, 24, 26, 28, 30, 32, 34) disposed adjacent a vehicle treatment area (190, 192, 194, 196); a plurality of lights (52, 72, 84, 114, 126, 130) disposed in the vehicle wash facility, each of the lights (52, 72, 84, 114, 126, 130) having at least a first state; a controller in communication with each of the plurality of lights (52, 72, 84, 114, 126, 130) characterized in that the controller is configured to enable the first state of the plurality of lights (52, 72, 84, 114, 126, 130) when no vehicles are present in the vehicle wash facility; and wherein in the first state, the plurality of lights (52, 72, 84, 114, 126, 130) are configured to emit light in a preprogrammed pattern of different colors.
A leveling motor, comprising: a housing; a shaft axially moving in the housing and having on an outer circumference thereof a threaded portion; a threaded pipe provided on an outer circumference of the shaft, and having on an inner circumference thereof a grooved portion that corresponds to the threaded portion; and an elastic member supplying an upward elastic force to the shaft, the threaded pipe being rotated by interaction between a magnet and a coil provided on the outer circumference of the threaded pipe; the threaded portion axially coming into close contact with the grooved portion by the elastic force of the elastic member; the elastic member comprising a coil spring, connected at an upper end thereof to a lower end of the shaft and connected at a lower end thereof to a bottom of the housing, characterized in that a protrusion protrudes upwards from the bottom of the housing in the coil spring to prevent the coil spring from moving leftwards or rightwards, and a connector having a spherical or an elliptical cross-section is disposed between the coil spring and the shaft, thereby minimizing a contact area between the lower end of the shaft and the connector. a housing; a shaft axially moving in the housing and having on an outer circumference thereof a threaded portion; a threaded pipe provided on an outer circumference of the shaft, and having on an inner circumference thereof a grooved portion that corresponds to the threaded portion; and an elastic member supplying an upward elastic force to the shaft, the threaded pipe being rotated by interaction between a magnet and a coil provided on the outer circumference of the threaded pipe; the threaded portion axially coming into close contact with the grooved portion by the elastic force of the elastic member; the elastic member comprising a coil spring, connected at an upper end thereof to a lower end of the shaft and connected at a lower end thereof to a bottom of the housing, characterized in that a protrusion protrudes upwards from the bottom of the housing in the coil spring to prevent the coil spring from moving leftwards or rightwards, and a connector having a spherical or an elliptical cross-section is disposed between the coil spring and the shaft, thereby minimizing a contact area between the lower end of the shaft and the connector.
A metal adsorption acrylic fiber comprising an acrylonitrile based polymer containing at least 85 mass% of a component unit derived from acrylonitrile, wherein the acrylonitrile based polymer is a copolymer of acrylonitrile and sodium methallylsulfonate, presenting a BET specific surface area from 80 to 500 m 2 /g, where BET is measured in a wet condition as specified in the description, and wherein a strontium adsorption rate is 85% or more when the strontium adsorption rate is measured by the following measurement method: <A method of measuring a strontium adsorption rate (a strontium 0.1 ppm measurement method)> To a 1000 mL capacity fluorine resin container, added is 5 g of the metal adsorption acrylic fiber which has been vacuum dried, and then 500 mL of an immersion liquid at 20°C is added to the container to start immersion of the metal adsorption acrylic fiber, the immersion liquid comprising an aqueous solution of strontium carbonate with a concentration of 0.1 ppm. The temperature of the immersion liquid is maintained at 20°C, and the content in the container is agitated 24 hours after the immersion started, and then the immersion liquid is collected as a test liquid. The test liquid is introduced into an inductively-coupled plasma mass spectrometer, and quantitative analysis is performed for strontium to obtain the concentration of strontium C1 (ppm) in the test liquid. Apart from this, 500 mL of the immersion liquid at 20°C alone is added to another container to give a reference liquid, and quantitative analysis is performed for strontium as in the test liquid to obtain the concentration of strontium C2 (ppm) in the reference liquid. The strontium adsorption rate of the metal adsorption acrylic fiber is computed by the following equation: Strontium adsorption rate % = C2 − C1 / C2 × 100
An avionics data server comprising: a first interface communicating with one or more avionics buses conveying avionics data related to the safe operation of an aircraft; and a second interface communicating with at least one portable electronic device having an electronic display; wherein the avionics data server includes a processor executing a program stored in non-transient medium to: generate an image frame at the avionics data server from the avionics data, the image frame displayable to provide information related to a safe operation of the aircraft; determine a signature at the avionics data server, the signature providing a representation of data of the image frame; forward the image frame from the avionics data server via the second interface to the portable electronic device; receive a confirming signature from the portable electronic device to the avionics data server, the confirming signature providing a representation of the image frame as received by the portable electronic device; and compare the confirming signature to the signature at the avionics data server and, when they do not match, forwarding a fail-image frame to the portable electronic device, the fail-image frame displayable to provide information indicating an unreliability of displayed information on the portable electronic device. a first interface communicating with one or more avionics buses conveying avionics data related to the safe operation of an aircraft; and a second interface communicating with at least one portable electronic device having an electronic display; generate an image frame at the avionics data server from the avionics data, the image frame displayable to provide information related to a safe operation of the aircraft; determine a signature at the avionics data server, the signature providing a representation of data of the image frame; forward the image frame from the avionics data server via the second interface to the portable electronic device; receive a confirming signature from the portable electronic device to the avionics data server, the confirming signature providing a representation of the image frame as received by the portable electronic device; and compare the confirming signature to the signature at the avionics data server and, when they do not match, forwarding a fail-image frame to the portable electronic device, the fail-image frame displayable to provide information indicating an unreliability of displayed information on the portable electronic device.
A method for operating a brewery, wherein brewing residues produced therein, comprising spent grains and alkaline carbohydrate-containing waste water, undergo biomass conversion by proteolysis with separation of protein hydrolysate in a first converter stage, by acidification, and in particular ion exchange, with separation of mineral fertiliser in a second converter stage and by biogas fermentation to obtain biogas with simultaneous treatment of the waste water in a third converter stage, and wherein the biogas is at least proportionally combusted to supply the brewery with electricity and/or heat.
A method performed by a policy control function, PCF, entity in a communication system, the method comprising: receiving, from an application function, AF, entity, a first message including information for selecting a user plane function, UPF, entity for traffic routing of a terminal and information on a spatial condition associated with a location of the terminal; transmitting, to a session management function, SMF, entity, a second message to subscribe to receive information associated with the location of the terminal indicating that the terminal entered or left a specific area, the specific area being determined by the PCF entity based on the spatial condition, wherein the second message comprises information on the specific area; receiving, from the SMF entity, a third message including the information associated with the location of the terminal; and transmitting, to the SMF entity, a fourth message based on the information associated with the location of the terminal included in the third message, the fourth message including the information for selecting the UPF entity for traffic routing of the terminal. receiving, from an application function, AF, entity, a first message including information for selecting a user plane function, UPF, entity for traffic routing of a terminal and information on a spatial condition associated with a location of the terminal; transmitting, to a session management function, SMF, entity, a second message to subscribe to receive information associated with the location of the terminal indicating that the terminal entered or left a specific area, the specific area being determined by the PCF entity based on the spatial condition, wherein the second message comprises information on the specific area; receiving, from the SMF entity, a third message including the information associated with the location of the terminal; and transmitting, to the SMF entity, a fourth message based on the information associated with the location of the terminal included in the third message, the fourth message including the information for selecting the UPF entity for traffic routing of the terminal.
A photosensitive resin composition comprising a silicone-modified polybenzoxazole resin comprising repeating units having the formula and repeating units having the formula, and a photoacid generator which is decomposed to generate an acid upon exposure to radiation of wavelength 190 to 500 nm, wherein R 1 to R 4 are each independently a C 1 -C 8 monovalent hydrocarbon group which may contain a glycidyl, acryloyl or methacryloyl moiety, m and n are each independently an integer of 0 to 300, R 5 is a straight, branched or cyclic C 1 -C 8 alkylene group or phenylene group, a and b are positive numbers in the range: 0 < a < 1, 0 < b < 1, and a+b = 1, and X 1 is a divalent linker having the following formula: wherein X 2 is a single bond or divalent organic group, R 11 is each independently hydrogen or a C 1 -C 8 monovalent hydrocarbon group in which some hydrogen may be substituted by halogen, R 12 is each independently a straight, branched or cyclic C 1 -C 8 alkylene group in which any methylene moiety may be substituted by an ether bond or phenylene moiety, R 13 is each independently a hydroxyl or glycidyloxy group, R 14 is each independently a C 1 -C 8 monovalent hydrocarbon group in which some hydrogen may be substituted by halogen, p and q are each independently an integer of 0 to 4, and r and s are each independently an integer of 0 to 3.
A main apparatus, comprising: a transmission unit that is configured to transmit an audio signal via wireless communication and is capable of being switched on/off by the main apparatus; a Wi-Fi communication circuit configured to communicate to/from a terminal apparatus, receive a request to switch the transmission unit on, and transmit to the terminal apparatus, when a request to switch the transmission unit on is received by the Wi-Fi communication circuit, sink device related information, which is information on sink device (600, 700, 800) capable of receiving a signal transmitted from the transmission unit, the sink device related information being acquired before the reception of the request to switch the transmission unit on; and a detection unit configured to detect, when the sink device related information does not contain information on sink device (600, 700, 800), sink device (600, 700, 800) in response to a command transmitted to the main apparatus; a storage unit configured to store the sink device related information on sink device (600, 700, 800) detected by the detection unit; and a control unit configured to control operations of the transmission unit, the Wi-Fi communication circuit and the detection unit. a transmission unit that is configured to transmit an audio signal via wireless communication and is capable of being switched on/off by the main apparatus; a Wi-Fi communication circuit configured to communicate to/from a terminal apparatus, receive a request to switch the transmission unit on, and transmit to the terminal apparatus, when a request to switch the transmission unit on is received by the Wi-Fi communication circuit, sink device related information, which is information on sink device (600, 700, 800) capable of receiving a signal transmitted from the transmission unit, the sink device related information being acquired before the reception of the request to switch the transmission unit on; and communicate to/from a terminal apparatus, receive a request to switch the transmission unit on, and transmit to the terminal apparatus, when a request to switch the transmission unit on is received by the Wi-Fi communication circuit, sink device related information, which is information on sink device (600, 700, 800) capable of receiving a signal transmitted from the transmission unit, the sink device related information being acquired before the reception of the request to switch the transmission unit on; and a detection unit configured to detect, when the sink device related information does not contain information on sink device (600, 700, 800), sink device (600, 700, 800) in response to a command transmitted to the main apparatus; a storage unit configured to store the sink device related information on sink device (600, 700, 800) detected by the detection unit; and a control unit configured to control operations of the transmission unit, the Wi-Fi communication circuit and the detection unit.