mhurhangee/patent-ind-claim-en huggingface dataset:
A folding storage cabinet , comprising: a frame ; a back plate located at an opposite side of the frame , a bottom portion of one of the frame and the back plate formed with at least one bottom pivot part , a top portion of other one of the frame and the back plate formed with at least one top pivot part ; two folding side plates , each located between the frame and the back plate , pivotally connected to the back plate and the frame , such that the two folding side plates are foldable in a flat manner; a bottom plate , one side of the bottom plate formed with at least one bottom plate pivot part , and the bottom plate being pivotally connected to the at least one bottom pivot part through the at least one bottom plate pivot part ; characterized in that , a top plate , comprising: a cover plate , one side of the cover plate formed with at least one first cover plate pivot part , two other opposite sides each formed with at least one second cover plate pivot part , and the at least one first cover plate pivot part pivotally connected to the at least one top pivot part ; and two wing plates , one side of each of the two wing plates corresponding to the two second cover plate pivot parts of the cover plate and formed with at least one wing plate pivot part , and the at least one wing plate pivot part pivotally connected to the at least one second cover plate pivot part to allow the two wing plates to be folded towards the cover plate , such that the top plate is foldable through the at least one first cover plate pivot part and the at least one top pivot part to the other one of the frame and the back plate .
An alarm information processing method, comprising: receiving , by a virtualized network function manager, VNFM, virtual machine, VM, alarm information reported by a virtualized infrastructure manager, VIM, wherein the VM alarm information comprises a third object identity; generating , by the VNFM, a first alarm message according to the VM alarm information, wherein the first alarm message comprises first alarm association information, and the first alarm association information comprises a first object identity, and the first object identity is a virtualized network function, VNF, identity; and sending , by the VNFM, the first alarm message to an element management system, EMS, wherein the first alarm association information is for the EMS performing correlation analysis on the first alarm message and a second alarm message that is reported by a VNF, the second alarm message comprises second alarm association information, and the second alarm association information comprises a second object identity, and the second object identity is the identity of the VNF reporting the second alarm message. receiving , by a virtualized network function manager, VNFM, virtual machine, VM, alarm information reported by a virtualized infrastructure manager, VIM, wherein the VM alarm information comprises a third object identity; generating , by the VNFM, a first alarm message according to the VM alarm information, wherein the first alarm message comprises first alarm association information, and the first alarm association information comprises a first object identity, and the first object identity is a virtualized network function, VNF, identity; and sending , by the VNFM, the first alarm message to an element management system, EMS, wherein the first alarm association information is for the EMS performing correlation analysis on the first alarm message and a second alarm message that is reported by a VNF, the second alarm message comprises second alarm association information, and the second alarm association information comprises a second object identity, and the second object identity is the identity of the VNF reporting the second alarm message.
A multistage exhaust turbocharger for an internal combustion engine including a high-pressure stage turbocharger having a high-pressure turbine drivable by exhaust gas exhausted from an exhaust manifold of the engine and a low-pressure stage turbocharger having a low-pressure turbine drivable by exhaust gas flowed out from the high-pressure turbine after driving the high-pressure turbine, the turbochargers being arranged sequentially in the flow path of the exhaust gas of the engine , a low-pressure compressor of the low-pressure stage turbocharger configured to pressurize supply air for the engine, an air supply channel configured to supply the pressurized air to a high-pressure compressor of the high-pressure stage turbocharger to be further pressurized by the high-pressure compressor , a compressor bypass valve device being provided which allows a part of the supply air to bypass the high-pressure compressor via a compressor bypass channel , a high-pressure compressor cover of the high-pressure stage turbocharger being composed such that it has a compressor inlet passage , a bypass inlet passage , a switching aperture between both the passages to be opened and closed by a compressor bypass valve of the compressor bypass valve device , and a bypass outlet pipe part connecting to the bypass inlet passage to introduce bypass air passed through the aperture opened by the compressor bypass valve to the compressor bypass channel which is to be connected to the bypass outlet pipe part , characterized in that said compressor bypass valve device is composed as a bypass valve unit including said compressor bypass valve and an actuator for moving said compressor bypass valve to open and close said switching aperture , attached to a case , the case being attached detachable on said high-pressure compressor cover , and in that said bypass outlet pipe part formed integral with the high-pressure compressor cover is formed to extend in a direction perpendicular to the rotation axis (M) of the high-pressure compressor adjacent said case attached detachable on said high-pressure compressor cover .
A method for detecting an anomaly among successive events, wherein the events are related to microservice applications and the method is executed by at least one processor of an apparatus for detecting an anomaly among successive events, the method comprising: logging(S202) each new event by producing a pair of an event property and an associated property value; grouping(S204) the pairs with the same event properties into a current time series; retrieving(S206), from the current time series, signal features indicative of a change pattern of the property values, contextual features indicative of a context where each of the same event properties has been occurred, and temporal features indicative of a time correlation among the property values, combining(S208) the signal features, the contextual features, and the temporal features into a feature vector, checking(S210) whether the feature vector of the current time series corresponds to a pre-stored baseline model, the baseline model being obtained based on an unsupervised machine learning algorithm using the feature vectors of multiple past time series comprising the same event properties as the current time series; associating(S212) the current time series with the anomaly if there is a lack of correspondence between the feature vector and the baseline model. logging(S202) each new event by producing a pair of an event property and an associated property value; grouping(S204) the pairs with the same event properties into a current time series; retrieving(S206), from the current time series, signal features indicative of a change pattern of the property values, contextual features indicative of a context where each of the same event properties has been occurred, and temporal features indicative of a time correlation among the property values, combining(S208) the signal features, the contextual features, and the temporal features into a feature vector, checking(S210) whether the feature vector of the current time series corresponds to a pre-stored baseline model, the baseline model being obtained based on an unsupervised machine learning algorithm using the feature vectors of multiple past time series comprising the same event properties as the current time series; associating(S212) the current time series with the anomaly if there is a lack of correspondence between the feature vector and the baseline model.
Titanium alloy with predictable properties containing: 0.1 - 3.0 Aluminum 0.3 - 3.0 Iron 0.1 - 1.0 Chromium 0.05 - 1.0 Nickel 0.02 - 0.3 Silicon 0.02 - 0.2 Nitrogen 0.05 - 0.5 Oxygen 0.02 - 0.1 Carbon balance Titanium, wherein the alloying elements include both impurities which are constituents of the low-grade sponge and separately introduced alloying additions, wherein weight percentages of alloying elements are interrelated, and the composition is selected based upon the predictable percentage elongation, δ, using Σ eq . str . of strength equivalents of molybdenum Mo eq . str . and aluminum Al eq . str . , Σ eq . str . = 27.63 − δ Σ eq . str . = 1.11 Al eq ⁢ . str ⁢ . + 0.92 Mo eq . str . , wherein chemical elements vary within Σ eq . str . depending on chemical composition and available charge materials, wherein the molybdenum and aluminum strength equivalents are defined by the following ratios, Al eq . str . = Al + 20 ⋅ O + 33 ⋅ N + 12 ⋅ C + 3.3 ⋅ Si , wt . % Mo eq . str . . = Cr / 0.8 + Fe / 0.7 + Ni , wt . % , wherein alloys have the following values of Σ eq . str . , 5 to 10 for alloys that are used for welded assemblies, 10 to 18 for alloys that are used for flat rolled products, 18 to 22 for alloys that are used for structural applications. 0.1 - 3.0 Aluminum 0.3 - 3.0 Iron 0.1 - 1.0 Chromium 0.05 - 1.0 Nickel 0.02 - 0.3 Silicon 0.02 - 0.2 Nitrogen 0.05 - 0.5 Oxygen 0.02 - 0.1 Carbon balance Titanium,
A remote unit for a distributed antenna system , the remote unit comprising: a frequency combiner comprising: input ports for receiving signals at different frequencies from a head-end unit ; at least one output port configured for outputting the signals to one or more user equipment devices; and a combiner component communicatively coupled between the input ports and the at least one output port , the combiner component having adjustable tuning elements , each adjustable tuning element being configured to adjust a signal-processing parameter of the frequency combiner based on differences in power level between input signals to the frequency combiner and output signals from the frequency combiner , so as to adjust the differences to a minimum. wherein the remote unit is configured to provide wireless communication from the head-end unit to the one or more user equipment devices. input ports for receiving signals at different frequencies from a head-end unit ; at least one output port configured for outputting the signals to one or more user equipment devices; and a combiner component communicatively coupled between the input ports and the at least one output port , the combiner component having adjustable tuning elements , each adjustable tuning element being configured to adjust a signal-processing parameter of the frequency combiner based on differences in power level between input signals to the frequency combiner and output signals from the frequency combiner , so as to adjust the differences to a minimum. wherein the remote unit is configured to provide wireless communication from the head-end unit to the one or more user equipment devices.
An antenna unit to communicate a wireless communication signal, comprising: an antenna element connected to a ground ; wherein the antenna element comprises first and second antenna elements which are operable independently to have different electric fields or electric fields of different phases, a plurality of feeding units connected to the first and second antenna elements , characterised by a switching unit configured to supply power concurrently to each of the antenna elements. an antenna element connected to a ground ; wherein the antenna element comprises first and second antenna elements which are operable independently to have different electric fields or electric fields of different phases, a plurality of feeding units connected to the first and second antenna elements , characterised by a switching unit configured to supply power concurrently to each of the antenna elements.
An apparatus, comprising a plurality of semiconductor dice (110a-110d), wherein: at least some of the plurality of semiconductor dice are stacked and coupled by vias (120a-120c; 302, 304); and at least one of the plurality of semiconductor dice includes a plurality of drivers corresponding to a single via of the plurality of vias, wherein the plurality of drivers are selectable to operate individually or in parallel to drive a signal through the single via; wherein one driver of the plurality of drivers is configured to be always enabled when in operation, and an additional driver of the plurality of drivers is configured to be optionally selected, wherein the plurality of drivers are configured such that multiple of said drivers are selected when needed to drive said signal in large number of semiconductor dice in the stack of said semiconductor dice, and configured such that fewer of said drivers are selected when needed to drive said signal in smaller number of semiconductor dice in the stack of said semiconductor dice. at least some of the plurality of semiconductor dice are stacked and coupled by vias (120a-120c; 302, 304); and at least one of the plurality of semiconductor dice includes a plurality of drivers corresponding to a single via of the plurality of vias, wherein the plurality of drivers are selectable to operate individually or in parallel to drive a signal through the single via; wherein one driver of the plurality of drivers is configured to be always enabled when in operation, and an additional driver of the plurality of drivers is configured to be optionally selected, wherein the plurality of drivers are configured such that multiple of said drivers are selected when needed to drive said signal in large number of semiconductor dice in the stack of said semiconductor dice, and configured such that fewer of said drivers are selected when needed to drive said signal in smaller number of semiconductor dice in the stack of said semiconductor dice.
An apparatus comprising: an elongated strip to extend into a volume containing a liquid; a series of heaters supported by the strip along the strip , each of the heaters at a different depth within the volume ; and a series of temperature sensors supported by the strip along the strip , each of the temperature sensors at a different depth within the volume, wherein the temperature sensors output signals indicative of dissipation of heat from the heaters to indicate a level of the liquid within the volume , wherein the heaters and temperatures sensors are arranged in an array of stacks spaced along the length of the strip , characterised in that each stack in the series of stacks is supported by the same surface of the strip, each respective stack in the series of stacks comprising a respective heater and a respective temperature sensor that are one over another above the same surface of the strip in a direction perpendicular to the surface of the strip. an elongated strip to extend into a volume containing a liquid; a series of heaters supported by the strip along the strip , each of the heaters at a different depth within the volume ; and a series of temperature sensors supported by the strip along the strip , each of the temperature sensors at a different depth within the volume, wherein the temperature sensors output signals indicative of dissipation of heat from the heaters to indicate a level of the liquid within the volume , wherein the heaters and temperatures sensors are arranged in an array of stacks spaced along the length of the strip , characterised in that each stack in the series of stacks is supported by the same surface of the strip, each respective stack in the series of stacks comprising a respective heater and a respective temperature sensor that are one over another above the same surface of the strip in a direction perpendicular to the surface of the strip.
A liquid pharmaceutical composition which is ready for injection to a patient which consists essentially of - non-lyophilized interleukin-2 having a specific activity of 8 to 18 MIU/mg of protein and present at a concentration of 0.1 to 12 million IU/mL, - a buffering agent, - an anionic surfactant selected from C 8 -C 20 alkylsulfate salts, lauroyl sarcosinate salts, cholate salts, deoxycholate salts and combinations thereof at a concentration of 0.05 to 5.0 mg/ml, and - an optional excipient preferably selected from antioxidants, osmolarity adjusting agents and preservatives, - in water and wherein the weight ratio of the surfactant to interleukin-2 is from 0.1 to 3.0 and the composition is devoid of mannitol. - non-lyophilized interleukin-2 having a specific activity of 8 to 18 MIU/mg of protein and present at a concentration of 0.1 to 12 million IU/mL, - a buffering agent, - an anionic surfactant selected from C 8 -C 20 alkylsulfate salts, lauroyl sarcosinate salts, cholate salts, deoxycholate salts and combinations thereof at a concentration of 0.05 to 5.0 mg/ml, and - an optional excipient preferably selected from antioxidants, osmolarity adjusting agents and preservatives, - in water
A light modulation film comprising: a polymer film substrate ; a light modulation layer whose state is reversibly changed between a transparent state by hydrogenation and a reflective state by dehydrogenation, and a catalyst layer that promotes hydrogenation and dehydrogenation in the light modulation layer, in this order on the polymer film substrate, wherein the light modulation layer is a thin-film that includes a metal or a hydride or a oxide of the metal, the metal is selected from the group consisting of a rare earth metal, an alloy of a rare earth metal and magnesium, an alloy of an alkaline earth metal and magnesium, and an alloy of a transition metal and magnesium, and characterized in that in a thickness-direction distribution of an element concentration as measured by X-ray electron spectroscopy while etching the light modulation layer from a catalyst layer-side toward a polymer film substrate-side, the light modulation layer includes: a light modulation region whose oxygen content is less than 50 atom% on a catalyst layer side; and an oxidized region whose oxygen content is 50 atom% or more on the polymer film substrate side, the oxidized region and the light modulation region each have the same metal elements present in amounts of 5 atom% or more, and a thickness of the light modulation region is 10 nm or more, and the oxidized region has a thickness of 4 to 100 nm, wherein the thickness-direction distribution, the oxygen content of the light modulation layer and the thickness of the oxidized region and light modulation region are measured in accordance with the methods described in the description. wherein the light modulation layer is a thin-film that includes a metal or a hydride or a oxide of the metal, the metal is selected from the group consisting of a rare earth metal, an alloy of a rare earth metal and magnesium, an alloy of an alkaline earth metal and magnesium, and an alloy of a transition metal and magnesium, and characterized in that in a thickness-direction distribution of an element concentration as measured by X-ray electron spectroscopy while etching the light modulation layer from a catalyst layer-side toward a polymer film substrate-side, the light modulation layer includes: a light modulation region whose oxygen content is less than 50 atom% on a catalyst layer side; and an oxidized region whose oxygen content is 50 atom% or more on the polymer film substrate side, the oxidized region and the light modulation region each have the same metal elements present in amounts of 5 atom% or more, and a thickness of the light modulation region is 10 nm or more, and the oxidized region has a thickness of 4 to 100 nm, wherein the thickness-direction distribution, the oxygen content of the light modulation layer and the thickness of the oxidized region and light modulation region are measured in accordance with the methods described in the description.
Container for coating compositions such as paint, the container having a container opening for removing the coating composition, a peripheral side wall and a lid which can be fixed to the latter and can close the container opening in a sealing manner, and having a scraping screen with an at least substantially flat body and with a central scraping surface for scraping the coating composition from an application tool, wherein the scraping screen in a first transport position is or can be releasably fastened to the container or lid and wherein the scraping screen in a second working position with the container open is or can be positioned in an arrangement plugged onto the container side wall and at least partially exposes the container opening thus allowing the application tool to be introduced into the container while at least a partial region of the scraping screen or scraping surface protrudes upwards out of the container opening , the scraping screen having at least one or more receptacle(s) for the container side wall , which receptacle(s) open(s) into the peripheral edge thereof when the screen is plugged on the container side wall , the receptacle laterally delimiting a retaining projection towards the scraping surface and the retaining projection being arranged outside the container when the screen is plug-fitted, the retaining projection being fastened to the scraping screen with a fastening region, characterized in that the at least one or more retaining projections each have at least one connection to the body of the scraping screen at the level of the receptacle , which connection is provided in addition to the fastening region of the retaining projection on the scraping screen , in that the connection is designed to be severable, with the respective retaining projection being continuously fixed to the scraping screen, and in that , with an existing connection, the container edge cannot be pushed into the screen receptacle up to its target position in the working position, but this is made possible after the connection has been severed.
A method of wireless communication, comprising: time division multiplexing a reference signal, RS, and data of an SC-FDMA symbol in a single symbol, wherein the time division multiplexing is performed prior to discrete Fourier transform, DFT, spreading, or time division multiplexing a reference signal, RS, of an SC-FDMA symbol and data of the SC-FDMA symbol in two time consecutive symbols, wherein the RS is placed in a first symbol of the two time consecutive symbols and the data is placed in a second symbol of the two time consecutive symbols, the first and second symbols being portions of the SC-FDMA symbol; and adding a cyclic prefix, CP, to the single symbol using a portion of the RS and not the data or not from the end of the single symbol if the RS and data are multiplexed in a single symbol, or adding a CP to a first symbol of the two time consecutive symbols using a portion of the RS without adding a CP to the second symbol if the RS and data are multiplexed in two time consecutive symbols . time division multiplexing a reference signal, RS, and data of an SC-FDMA symbol in a single symbol, wherein the time division multiplexing is performed prior to discrete Fourier transform, DFT, spreading, or time division multiplexing a reference signal, RS, of an SC-FDMA symbol and data of the SC-FDMA symbol in two time consecutive symbols, wherein the RS is placed in a first symbol of the two time consecutive symbols and the data is placed in a second symbol of the two time consecutive symbols, the first and second symbols being portions of the SC-FDMA symbol; and adding a cyclic prefix, CP, to the single symbol using a portion of the RS and not the data or not from the end of the single symbol if the RS and data are multiplexed in a single symbol, or adding a CP to a first symbol of the two time consecutive symbols using a portion of the RS without adding a CP to the second symbol if the RS and data are multiplexed in two time consecutive symbols .