mhurhangee/ep-ind-claims huggingface dataset:
A can end for a two-piece beverage container, the can end comprising: a public side opposite a product side; a cured coating on the product side of the can end forming a substantially continuous thin layer thereon; a circumferential curl centered about a longitudinal axis; a circumferential chuckwall extending downwardly from the curl; a circumferential U-shaped countersink located downwardly from the chuckwall, the countersink having an annular bead defining a lowermost vertical extent of the can end; a center panel located radially inwardly from the countersink and centered about the longitudinal axis, and a circumferential second coating forming an annular layer on the product side of the circumferential curl and the cured coating, the second coating providing a layer on one or more fractures in the cured coating, characterized in that the center panel comprises a means for providing an opening in the can end and in that the second coating extends from the curl downwardly on the chuckwall towards the countersink and terminates at a height on the can end greater than a lowermost vertical extent of the can end. a public side opposite a product side; a cured coating on the product side of the can end forming a substantially continuous thin layer thereon; a circumferential curl centered about a longitudinal axis; a circumferential chuckwall extending downwardly from the curl; a circumferential U-shaped countersink located downwardly from the chuckwall, the countersink having an annular bead defining a lowermost vertical extent of the can end; a center panel located radially inwardly from the countersink and centered about the longitudinal axis, and a circumferential second coating forming an annular layer on the product side of the circumferential curl and the cured coating, the second coating providing a layer on one or more fractures in the cured coating, characterized in that the center panel comprises a means for providing an opening in the can end and in that the second coating extends from the curl downwardly on the chuckwall towards the countersink and terminates at a height on the can end greater than a lowermost vertical extent of the can end.
An apparatus for detecting a fall of a user, the apparatus comprising: first and second pressure sensors (210, 220) configured to obtain first and second data values of atmosphere pressure and intended to be worn on the body of the user; and a processor configured to derive, from the first and second data values of atmosphere pressure, a third data value of atmosphere pressure for determining whether a fall occurs or not; wherein the first and second pressure sensors (210, 220) are configured in a way such that preset orientations of the first and second pressure sensors (210, 220) are opposite to each other. first and second pressure sensors (210, 220) configured to obtain first and second data values of atmosphere pressure and intended to be worn on the body of the user; and a processor configured to derive, from the first and second data values of atmosphere pressure, a third data value of atmosphere pressure for determining whether a fall occurs or not; wherein the first and second pressure sensors (210, 220) are configured in a way such that preset orientations of the first and second pressure sensors (210, 220) are opposite to each other.
An antimicrobial formulation for use in a method of treating, preventing or inhibiting the formation of a bacterial biofilm, wherein the formulation is topically administered to the skin and comprises: a chelating agent or salts thereof; a transport enhancer which is methylsulfonylmethane; and an acceptable vehicle or base for such formulation; wherein the chelating agent and the transport enhancer are present in a proportion effective to bring about a significant reduction in bacterial and/or fungal biofilm on a surface to which it is applied, and wherein the percentage of chelator in the formulation is about 0.1% to 15% and the percentage of transport enhancer in the formulation is about 0.1% to 40% by weight, respectively. a chelating agent or salts thereof; a transport enhancer which is methylsulfonylmethane; and an acceptable vehicle or base for such formulation; wherein the chelating agent and the transport enhancer are present in a proportion effective to bring about a significant reduction in bacterial and/or fungal biofilm on a surface to which it is applied, and wherein the percentage of chelator in the formulation is about 0.1% to 15% and the percentage of transport enhancer in the formulation is about 0.1% to 40% by weight, respectively.
An additive supply device comprising: an adding valve configured to inject an additive into an exhaust passage of an internal combustion engine; and an electronic control unit configured to control the injection of the additive from the adding valve, the electronic control unit being configured to execute a cooling injection control for injecting the additive from the adding valve after the internal combustion engine is commanded to stop such that a quantity of the injection of the additive during the cooling injection control is larger when a temperature of exhaust gas in the exhaust passage in an event of the stop command for the internal combustion engine is higher than a predetermined temperature than when the temperature is lower than the predetermined temperature, characterised by the electronic control unit being further configured to execute the cooling injection control when the stop command for the internal combustion engine is made and a traveling speed of a vehicle in which the internal combustion engine is mounted is lower than a threshold exceeding "0". an adding valve configured to inject an additive into an exhaust passage of an internal combustion engine; and an electronic control unit configured to control the injection of the additive from the adding valve, the electronic control unit being configured to execute a cooling injection control for injecting the additive from the adding valve after the internal combustion engine is commanded to stop such that a quantity of the injection of the additive during the cooling injection control is larger when a temperature of exhaust gas in the exhaust passage in an event of the stop command for the internal combustion engine is higher than a predetermined temperature than when the temperature is lower than the predetermined temperature, characterised by the electronic control unit being further configured to execute the cooling injection control when the stop command for the internal combustion engine is made and a traveling speed of a vehicle in which the internal combustion engine is mounted is lower than a threshold exceeding "0".
A method comprising: depositing an environmental barrier coating on a ceramic or ceramic matrix composite substrate to form an as-deposited EBC; heat treating the as-deposited EBC following the deposition of the as-deposited EBC on the substrate to form a heat treated EBC having a first porosity; subsequently depositing an abradable coating on the heat treated EBC to form an as-deposited abradable coating; and subsequently heat treating the as-deposited abradable coating to form a heat treated abradable coating having a second porosity that is greater than the first porosity of the heat treated EBC; wherein heat treating the as-deposited EBC includes heating the as-deposited EBC at a first controlled rate, wherein heat treating the as-deposited abradable coating includes heating the as-deposited abradable coating at a second controlled rate that is less than the first controlled rate, and wherein the EBC and abradable coating each includes at least one of rare earth monosilicate or RE disilicate. depositing an environmental barrier coating on a ceramic or ceramic matrix composite substrate to form an as-deposited EBC; heat treating the as-deposited EBC following the deposition of the as-deposited EBC on the substrate to form a heat treated EBC having a first porosity; subsequently depositing an abradable coating on the heat treated EBC to form an as-deposited abradable coating; and subsequently heat treating the as-deposited abradable coating to form a heat treated abradable coating having a second porosity that is greater than the first porosity of the heat treated EBC; wherein heat treating the as-deposited EBC includes heating the as-deposited EBC at a first controlled rate, wherein heat treating the as-deposited abradable coating includes heating the as-deposited abradable coating at a second controlled rate that is less than the first controlled rate, and wherein the EBC and abradable coating each includes at least one of rare earth monosilicate or RE disilicate.
A computer-implemented method comprising: receiving text corresponding to a user query; classifying the text using a hierarchical representation of commands to determine: a first score representing a likelihood that the text corresponds to a first category of commands, a second score representing a likelihood that the text corresponds to a first command within the first category, and a third score representing a likelihood that the text corresponds to a second command not within the first category, wherein the hierarchical representation of commands includes a root node for commands, and wherein the classifying determines the first score prior to determining the second score or the third score; determining, using the first score, the second score and the third score, that the text corresponds to the first command; classifying the text using a hierarchical representation of entity types to determine a fourth score corresponding to a first category of entities, wherein the hierarchical representation of entity types includes a root node for entity types; identifying, using the first category of entities and a knowledge base, a first entity within the first category of entities; and causing a command to be executed using the first command and the first entity. receiving text corresponding to a user query; classifying the text using a hierarchical representation of commands to determine: a first score representing a likelihood that the text corresponds to a first category of commands, a second score representing a likelihood that the text corresponds to a first command within the first category, and a third score representing a likelihood that the text corresponds to a second command not within the first category, wherein the hierarchical representation of commands includes a root node for commands, and wherein the classifying determines the first score prior to determining the second score or the third score; a first score representing a likelihood that the text corresponds to a first category of commands, a second score representing a likelihood that the text corresponds to a first command within the first category, and a third score representing a likelihood that the text corresponds to a second command not within the first category, wherein the hierarchical representation of commands includes a root node for commands, and wherein the classifying determines the first score prior to determining the second score or the third score; determining, using the first score, the second score and the third score, that the text corresponds to the first command; classifying the text using a hierarchical representation of entity types to determine a fourth score corresponding to a first category of entities, wherein the hierarchical representation of entity types includes a root node for entity types; identifying, using the first category of entities and a knowledge base, a first entity within the first category of entities; and causing a command to be executed using the first command and the first entity.
A sterile container comprising at least one hollow fiber filter module, especially dialyzer, which is accommodated in a hermetically sealed holding volume of a primary package and includes a blood compartment delimited by a blood inlet opening and a blood outlet opening, characterized in that in the primary package a plurality of hollow fiber filter modules is arranged and the sterile barrier of the blood compartment of each hollow fiber filter module inside the primary package is implemented by caps which close the blood inlet opening and the blood outlet opening of the respective hollow fiber filter module.
A fluororubber tube formed from a rubber composition characterized by comprising a fluororubber, and not less than 3.8 parts by mass and not greater than 4.1 parts by mass of a polyol crosslinking agent and not less than 3 parts by mass and not greater than 7 parts by mass of a carbon black based on 100 parts by mass of the fluororubber, wherein the polyol crosslinking agent is a mixture of a bisphenol and an accelerating agent for accelerating a crosslinking reaction of the fluororubber with the bisphenol.
Rotary suspension stop for a vehicle suspension strut, the rotary suspension stop comprising: - a bearing defining a reference axis and an upward axial direction of the rotary stop, - a lower support forming a bearing surface turned axially opposite the upward axial direction to bear against an upper turn of a helical spring, and an annular shrink-fitting surface (38, 40) turned radially in a radial reference direction, - a cover forming, with the lower support, an annular volume for the bearing, the cover comprising an annular skirt (46, 48) extending axially facing and at a distance from the shrink-fitting surface (38, 40), - a seal (56, 72) mounted on the shrink-fitting surface (38, 40) of the lower support, which seal has a body (58, 74) and at least one annular sealing lip (64, 80) projecting from the body (58, 74) in the radial reference direction, toward the annular skirt (46, 48), characterized in that the seal (56, 72) has at least a first set of one or more first elastic shrink-fit lips (60, 76) projecting from the body (58, 74) toward the shrink-fitting surface (38, 40) and shrinking on the shrink-fitting surface (38, 40). - a bearing defining a reference axis and an upward axial direction of the rotary stop, - a lower support forming a bearing surface turned axially opposite the upward axial direction to bear against an upper turn of a helical spring, and an annular shrink-fitting surface (38, 40) turned radially in a radial reference direction, - a cover forming, with the lower support, an annular volume for the bearing, the cover comprising an annular skirt (46, 48) extending axially facing and at a distance from the shrink-fitting surface (38, 40), - a seal (56, 72) mounted on the shrink-fitting surface (38, 40) of the lower support, which seal has a body (58, 74) and at least one annular sealing lip (64, 80) projecting from the body (58, 74) in the radial reference direction, toward the annular skirt (46, 48),
A cell unit comprising: a cell structure having a lamination of an anode electrode layer, an electrolyte layer, and a cathode electrode layer in this order; a metal support plate disposed on one side surface of the cell structure; and a frame holding an outer peripheral part of the support plate, wherein a coefficient of thermal expansion of the support plate is greater than a coefficient of thermal expansion of the cell structure, characterized in that the frame includes a displacement guide at least on one side surface of the frame, the displacement guide has a coefficient of thermal expansion that is different from a coefficient of thermal expansion of the frame and the displacement guide makes the frame curve so that the cell structure is concaved in accompany with thermal expansion, and a displacement amount of the frame having the displacement guide at the time of thermal expansion is equal to or less than a displacement amount of the support plate having the cell structure at the time of thermal expansion. a cell structure having a lamination of an anode electrode layer, an electrolyte layer, and a cathode electrode layer in this order; a metal support plate disposed on one side surface of the cell structure; and a frame holding an outer peripheral part of the support plate, wherein a coefficient of thermal expansion of the support plate is greater than a coefficient of thermal expansion of the cell structure, characterized in that the frame includes a displacement guide at least on one side surface of the frame, the displacement guide has a coefficient of thermal expansion that is different from a coefficient of thermal expansion of the frame and the displacement guide makes the frame curve so that the cell structure is concaved in accompany with thermal expansion, and a displacement amount of the frame having the displacement guide at the time of thermal expansion is equal to or less than a displacement amount of the support plate having the cell structure at the time of thermal expansion.
An organic white light-emitting device, comprising: (a) a substrate; (b) an anode and a cathode spaced from each other; (c) a light-emitting layer including a yellow dopant for emitting yellow light; and (d) first and second blue light-emitting layers (236, 237); each blue light-emitting layer having at least one different material than the other blue light-emitting layer, wherein the first blue light-emitting layer is in direct contact with the yellow light-emitting layer and the second blue light-emitting layer is over the first blue light-emitting layer, further wherein the first blue light-emitting layer materials includes an anthracene derivative host material and a blue dopant, wherein the blue dopant is a bis(azinyl)azene boron complex compound according to formula K: wherein: A and A' represent independent azine ring systems corresponding to 6-membered aromatic ring systems containing at least one nitrogen; (X a) n and (X b) m represent one or more independently selected substituents and include acyclic substituents or are joined to form a ring fused to A or A'; m and n are independently 0 to 4; Z a and Z b are independently selected substituents; 1, 2, 3, 4, 1', 2', 3', and 4' are independently selected as either carbon or nitrogen atoms; and provided that X a, X b, Z a, and Z b, 1, 2, 3, 4, 1', 2', 3', and 4' are selected to provide blue luminescence. (a) a substrate; (b) an anode and a cathode spaced from each other; (c) a light-emitting layer including a yellow dopant for emitting yellow light; and (d) first and second blue light-emitting layers (236, 237); each blue light-emitting layer having at least one different material than the other blue light-emitting layer, A and A' represent independent azine ring systems corresponding to 6-membered aromatic ring systems containing at least one nitrogen; (X a) n and (X b) m represent one or more independently selected substituents and include acyclic substituents or are joined to form a ring fused to A or A'; m and n are independently 0 to 4; Z a and Z b are independently selected substituents; 1, 2, 3, 4, 1', 2', 3', and 4' are independently selected as either carbon or nitrogen atoms; and provided that X a, X b, Z a, and Z b, 1, 2, 3, 4, 1', 2', 3', and 4' are selected to provide blue luminescence.
A frame (20, 200) for a car of a passenger/freight elevator, comprising a pair of uprights (21, 22) disposed parallel to each other and extending in a transport direction of the passenger/freight elevator, wherein each upright (21, 22) is coupled to a support (23, 24), wherein each support (23, 24) comprises a first part and a second part integrally connected thereto, which parts lie at an angle relative to each other, wherein the first part runs parallel to the upright and is coupled to the upright in a direction transversely of the transport direction and wherein the second parts of the supports extend in a plane for the purpose of supporting a bottom part of the passenger/freight elevator; wherein the uprights (21, 22) each take a substantially at least partially hollow form characterised in that the first part of each support is at least partially received in the associated upright.
A method for measuring time of arrival of a signal received by a locator node from a transmitter, the method being performed by a processor of a locator node and comprising: (a) determining an initial time of arrival value for the received signal and channel impulse response for a radio channel between the transmitter and receiver; (b) determining a time correction from the channel impulse response; and (c) from the initial time of arrival value and the time correction, determining an improved time of arrival value of the received signal; characterised in that: the determination of a time correction from the channel impulse response is based on: a first value associated with a first peak of the channel impulse response, and a second value associated with a leading edge of the first value; and determining the time correction comprises: (i) determining a ratio of the second value to the first value; (ii) determining a location, which corresponds to the ratio, on a leading edge of a largest peak of an ideal channel impulse response with no multipath present; and (iii) determining the time correction as a time delay from the location to the largest peak of the ideal channel impulse response. (a) determining an initial time of arrival value for the received signal and channel impulse response for a radio channel between the transmitter and receiver; (b) determining a time correction from the channel impulse response; and (c) from the initial time of arrival value and the time correction, determining an improved time of arrival value of the received signal; the determination of a time correction from the channel impulse response is based on: a first value associated with a first peak of the channel impulse response, and a second value associated with a leading edge of the first value; and determining the time correction comprises: (i) determining a ratio of the second value to the first value; (ii) determining a location, which corresponds to the ratio, on a leading edge of a largest peak of an ideal channel impulse response with no multipath present; and (iii) determining the time correction as a time delay from the location to the largest peak of the ideal channel impulse response. (i) determining a ratio of the second value to the first value; (ii) determining a location, which corresponds to the ratio, on a leading edge of a largest peak of an ideal channel impulse response with no multipath present; and (iii) determining the time correction as a time delay from the location to the largest peak of the ideal channel impulse response.
A method of operating an air-gas mixture burning appliance that comprises an air-gas mixing unit, a burning unit that is arranged downstream of the air-gas mixing unit, a flame detector, and a gas supply unit that is arranged upstream of the air-gas mixing unit, the gas supply unit comprising a first gas flow channel with a gas flow restrictor, a second gas flow channel that is hydraulically parallel to the first gas flow channel and comprises a first gas valve, and a second gas valve that is arranged upstream of the first and second gas flow channels (170, 180), the method comprising: closing the first gas valve, opening the second gas valve, with the gas flow restrictor, restricting flow of gas through the first gas flow channel to the air-gas mixing unit, with the air-gas mixing unit, mixing air with the gas from the first gas flow channel to form a combustible air-gas mixture, igniting the combustible air-gas mixture in the burning unit, with the flame detector, sensing for presence of a flame in the burning unit, and in response to failing to sense the flame in the burning unit, maintaining the first gas valve in the closed position. closing the first gas valve, opening the second gas valve, with the gas flow restrictor, restricting flow of gas through the first gas flow channel to the air-gas mixing unit, with the air-gas mixing unit, mixing air with the gas from the first gas flow channel to form a combustible air-gas mixture, igniting the combustible air-gas mixture in the burning unit, with the flame detector, sensing for presence of a flame in the burning unit, and in response to failing to sense the flame in the burning unit, maintaining the first gas valve in the closed position.