mhurhangee/patent-ind-claim-en huggingface dataset:
Supporting system for flat face cartridge quick couplings , for connecting a utility to the hydraulic system of operating machines, said system comprising a bracket , provided with at least one seat configured as a passing hole extending through said bracket , and at least one body having an end thereof comprising an abutment surface , wherein said end can be inserted in said at least one seat of said bracket and the other end of said at least one body is configured to accommodate said flat face cartridge quick couplings , said at least one body further comprising two threaded holes diametrically opposed, characterised in that said at least one seat is shaped in a manner corresponding to said abutment surface , such that said seat and said abutment surface provide means for the fixed orientation of the body in the respective seat so that, when the end of said body is inserted in said seat , said body can no longer rotate with respect to said bracket . wherein said end can be inserted in said at least one seat of said bracket and the other end of said at least one body is configured to accommodate said flat face cartridge quick couplings , said at least one body further comprising two threaded holes diametrically opposed, characterised in that said at least one seat is shaped in a manner corresponding to said abutment surface , such that said seat and said abutment surface provide means for the fixed orientation of the body in the respective seat so that, when the end of said body is inserted in said seat , said body can no longer rotate with respect to said bracket .
A method for determining a status of a network device, comprising: obtaining , by a warning analysis device, a plurality of pieces of target key performance indicator, KPI, data of the network device within preset duration; obtaining , by the warning analysis device, a plurality of pieces of feature information, wherein each piece of feature information indicates a calculation manner of processing the plurality of pieces of target KPI to calculate an element of a feature vector, wherein the element of the feature vector corresponds to the feature information; processing , by the warning analysis device, the plurality of pieces of target KPI data by each of the plurality of pieces of feature information, to generate the element corresponding to each piece of feature information,; forming , by the warning analysis device, the feature vector by combining the generated elements corresponding to each piece of feature information into the feature vector; analyzing, by the warning analysis device, the feature vector based on a warning analysis model, and determining a probability of each status of the network device; and determining, by the warning analysis device, the status of the network device based on the probability of each status of the network device. obtaining , by a warning analysis device, a plurality of pieces of target key performance indicator, KPI, data of the network device within preset duration; obtaining , by the warning analysis device, a plurality of pieces of feature information, wherein each piece of feature information indicates a calculation manner of processing the plurality of pieces of target KPI to calculate an element of a feature vector, wherein the element of the feature vector corresponds to the feature information; processing , by the warning analysis device, the plurality of pieces of target KPI data by each of the plurality of pieces of feature information, to generate the element corresponding to each piece of feature information,; forming , by the warning analysis device, the feature vector by combining the generated elements corresponding to each piece of feature information into the feature vector; analyzing, by the warning analysis device, the feature vector based on a warning analysis model, and determining a probability of each status of the network device; and determining, by the warning analysis device, the status of the network device based on the probability of each status of the network device.
Free cooling unit comprising: - a first inlet port ; - a first outlet port ; - a second inlet port ; - a second outlet port ; - a heat exchanger , configured to allow a heat exchange between a first fluid and a second fluid; - a first pumping assembly configured to pump the first fluid through a first hydraulic circuit from the first inlet port of the unit to a first outlet port of the unit ; - a second pumping assembly configured to pump the second fluid through a second hydraulic circuit from the second inlet port of the unit to the second outlet port of the unit , and - a control module configured to control the functioning of the unit , characterised by further comprising a diverter assembly arranged between the first pumping assembly and the heat exchanger and configured to switch between a first state in which the first fluid is directed through the heat exchanger before reaching the first outlet port and a second state in which the first fluid is directly directed to the first outlet port , and in that the control module is configured to switch the diverter assembly in the first state when an external ambient temperature is lower than a temperature of the second fluid entering the unit through the second inlet port reduced by a predetermined value and for switching the diverter assembly in the second state when the external ambient temperature is greater than or equal to the temperature of the second fluid entering the unit through the second inlet port reduced by the predetermined value. - a first inlet port ; - a first outlet port ; - a second inlet port ; - a second outlet port ; - a heat exchanger , configured to allow a heat exchange between a first fluid and a second fluid; - a first pumping assembly configured to pump the first fluid through a first hydraulic circuit from the first inlet port of the unit to a first outlet port of the unit ; - a second pumping assembly configured to pump the second fluid through a second hydraulic circuit from the second inlet port of the unit to the second outlet port of the unit , and - a control module configured to control the functioning of the unit , characterised by further comprising a diverter assembly arranged between the first pumping assembly and the heat exchanger and configured to switch between a first state in which the first fluid is directed through the heat exchanger before reaching the first outlet port and a second state in which the first fluid is directly directed to the first outlet port , and in that the control module is configured to switch the diverter assembly in the first state when an external ambient temperature is lower than a temperature of the second fluid entering the unit through the second inlet port reduced by a predetermined value and for switching the diverter assembly in the second state when the external ambient temperature is greater than or equal to the temperature of the second fluid entering the unit through the second inlet port reduced by the predetermined value.
A method for wireless communication at a user equipment, UE, comprising: receiving a discontinuous reception cycle configuration that indicates a plurality of discontinuous reception cycles arranged to be spaced within a discontinuous reception period, the plurality of discontinuous reception cycles having a plurality of ON-durations during which the UE is to wake up from a sleep mode to monitor for transmissions of wireless communications having a traffic periodicity, wherein the plurality of ON-durations include an offset ON-duration; determining , based at least in part on the discontinuous reception cycle configuration, a plurality of start times comprising respective start times for the ON-durations, wherein a period between consecutive ON-durations has a duration different from a period defined between the offset ON-duration and an ON-duration arranged adjacent to the offset ON-duration; and wherein the respective periods between the consecutive ON-durations, the respective start times of the ON-durations, and the period defined between the offset ON-duration and the ON-duration arranged adjacent to the offset ON-duration are configured based on the traffic periodicity; and initiating a wakeup procedure for the UE at each of the plurality of start times based at least in part on the determining. receiving a discontinuous reception cycle configuration that indicates a plurality of discontinuous reception cycles arranged to be spaced within a discontinuous reception period, the plurality of discontinuous reception cycles having a plurality of ON-durations during which the UE is to wake up from a sleep mode to monitor for transmissions of wireless communications having a traffic periodicity, wherein the plurality of ON-durations include an offset ON-duration; determining , based at least in part on the discontinuous reception cycle configuration, a plurality of start times comprising respective start times for the ON-durations, wherein a period between consecutive ON-durations has a duration different from a period defined between the offset ON-duration and an ON-duration arranged adjacent to the offset ON-duration; and wherein the respective periods between the consecutive ON-durations, the respective start times of the ON-durations, and the period defined between the offset ON-duration and the ON-duration arranged adjacent to the offset ON-duration are configured based on the traffic periodicity; and initiating a wakeup procedure for the UE at each of the plurality of start times based at least in part on the determining.
A covering for an architectural opening, comprising: a rotatable roller ; a shade suspended from the roller and wrappable about the roller; and an assembly associated with the roller comprising a biasing element associated with the roller and a retention element associated with the biasing element , characterized in that the biasing element is configured to selectively rotate the roller in an extension direction, the biasing element being preloaded with a resilient force and remaining in a preloaded state until the shade reaches a predetermined extended position; and in that the retention element is configured to release the preload at the predetermined extended position such that the assembly rotates the roller a supplemental amount in the extension direction when the shade reaches the predetermined extended position. a rotatable roller ; a shade suspended from the roller and wrappable about the roller; and an assembly associated with the roller comprising a biasing element associated with the roller and a retention element associated with the biasing element , characterized in that the biasing element is configured to selectively rotate the roller in an extension direction, the biasing element being preloaded with a resilient force and remaining in a preloaded state until the shade reaches a predetermined extended position; and in that the retention element is configured to release the preload at the predetermined extended position such that the assembly rotates the roller a supplemental amount in the extension direction when the shade reaches the predetermined extended position. a biasing element associated with the roller and a retention element associated with the biasing element , characterized in that the biasing element is configured to selectively rotate the roller in an extension direction, the biasing element being preloaded with a resilient force and remaining in a preloaded state until the shade reaches a predetermined extended position; and in that the retention element is configured to release the preload at the predetermined extended position such that the assembly rotates the roller a supplemental amount in the extension direction when the shade reaches the predetermined extended position.
An electrode substrate for a transparent light emitting device display comprising: a transparent substrate ; (M rows × N columns) light emitting device pad portions provided on the transparent substrate as a matrix; and a first common electrode wiring portion , a second common electrode wiring portion , and a signal electrode wiring portion which are provided on the transparent substrate and connected to the light emitting device pad portions , respectively, wherein each of the first common electrode wiring portion , the second common electrode wiring portion , and the signal electrode wiring portion comprises a metal mesh pattern , wherein the metal mesh pattern is provided in a region having an area of 80% or more compared with the entire area of the transparent substrate , and line resistance of the first common electrode wiring portion or the second common electrode wiring portion connected to the light emitting device pad portions constituting one row among the light emitting device pad portions satisfies Equation 1 below. R < 200 / N − 0.4 In Equation 1 above, R is line resistance (Ω) of the first common electrode wiring portion or the second common electrode wiring portion , and N and M are natural numbers of 1 or more. a transparent substrate ; (M rows × N columns) light emitting device pad portions provided on the transparent substrate as a matrix; and a first common electrode wiring portion , a second common electrode wiring portion , and a signal electrode wiring portion which are provided on the transparent substrate and connected to the light emitting device pad portions , respectively, wherein each of the first common electrode wiring portion , the second common electrode wiring portion , and the signal electrode wiring portion comprises a metal mesh pattern , wherein the metal mesh pattern is provided in a region having an area of 80% or more compared with the entire area of the transparent substrate , and line resistance of the first common electrode wiring portion or the second common electrode wiring portion connected to the light emitting device pad portions constituting one row among the light emitting device pad portions satisfies Equation 1 below. R < 200 / N − 0.4 In Equation 1 above, R is line resistance (Ω) of the first common electrode wiring portion or the second common electrode wiring portion , and N and M are natural numbers of 1 or more. R is line resistance (Ω) of the first common electrode wiring portion or the second common electrode wiring portion , and N and M are natural numbers of 1 or more.
A composition comprising a maleinized ester derivative made by the reaction of: (i) an unsaturated linear aliphatic carboxylic acid methyl ester, which is methyl 9-dodecenoate; and (ii) maleic anhydride; and (iii) a monohydric alcohol of 3 to 12 carbon atoms, or 3 to 10 atoms, or 5 to 10 carbon atoms, or 3 to 8 carbon atoms, or 5 carbon atoms; wherein the maleinized ester derivative comprises at least two proximal ester groups and another ester group, the proximal ester groups and the another ester group containing straight chain alkyl groups of 3 to 12 carbon atoms, or 3 to 8 carbon atoms, or 5 carbon atoms. (i) an unsaturated linear aliphatic carboxylic acid methyl ester, which is methyl 9-dodecenoate; and (ii) maleic anhydride; and (iii) a monohydric alcohol of 3 to 12 carbon atoms, or 3 to 10 atoms, or 5 to 10 carbon atoms, or 3 to 8 carbon atoms, or 5 carbon atoms;
A blockchain-based settlement method, comprising: receiving , by a first blockchain node, a first original call detail record sent by a first client, and synchronizing the first original call detail record to a blockchain, wherein the first client is a client of a settlement initiator, and the blockchain comprises the first blockchain node of the settlement initiator and a second blockchain node of a settlement participant; processing , by the first blockchain node, the first original call detail record according to a smart contract to obtain a first settlement result, and sending the first settlement result to the second blockchain node, wherein the smart contract is generated according to a settlement agreement; receiving , by the first blockchain node, a first confirmation message returned by the second blockchain node, wherein the first confirmation message carries a result obtained by performing reconciliation by the second blockchain node on the first settlement result according to the smart contract, wherein the first confirmation message carries information that the reconciliation on the first settlement result succeeds; if the first confirmation message is received: synchronizing , by the first blockchain node, the first settlement result to the blockchain; and sending , by the first blockchain node, bill data generated based on the first settlement result to the first client. receiving , by a first blockchain node, a first original call detail record sent by a first client, and synchronizing the first original call detail record to a blockchain, wherein the first client is a client of a settlement initiator, and the blockchain comprises the first blockchain node of the settlement initiator and a second blockchain node of a settlement participant; processing , by the first blockchain node, the first original call detail record according to a smart contract to obtain a first settlement result, and sending the first settlement result to the second blockchain node, wherein the smart contract is generated according to a settlement agreement; receiving , by the first blockchain node, a first confirmation message returned by the second blockchain node, wherein the first confirmation message carries a result obtained by performing reconciliation by the second blockchain node on the first settlement result according to the smart contract, wherein the first confirmation message carries information that the reconciliation on the first settlement result succeeds; if the first confirmation message is received: synchronizing , by the first blockchain node, the first settlement result to the blockchain; and sending , by the first blockchain node, bill data generated based on the first settlement result to the first client. synchronizing , by the first blockchain node, the first settlement result to the blockchain; and sending , by the first blockchain node, bill data generated based on the first settlement result to the first client.
Drain fitting for a flushing cistern, comprising a housing with a housing wall which has a surface on the outside, and a valve body , movably mounted in the housing , with a float , wherein the valve body can be moved along a centre axis (M) from an inoperative position to a flushing position and from the flushing position to the inoperative position, wherein the float can be moved along the centre axis (M) inside a float chamber , which is delimited by the housing , and works hydraulically in conjunction with the float chamber , wherein the float chamber comprises at least one control passage for controlling a first flushing quantity, by means of which, as soon as a flushing water level (S) surrounding the drain fitting has dropped to the height of the control passage , air can enter the float chamber from regions outside the float chamber in such a way that the pressure ratios between the float chamber and the regions outside the float chamber can be balanced, wherein with balance of the pressure ratios the float can be moved from the flushing position to the inoperative position, wherein the drain fitting further comprises a control unit with a closing weight , which is adjustable in its height position, for controlling a second flushing quantity, wherein the closing weight , during initiation of the second flushing quantity, effects a closing force upon the valve body , and wherein the closing weight is movably arranged outside the housing laterally to the surface and relative to said surface , wherein the drain fitting also comprises a fluidically or electrically operable actuator by means of which the valve body can be lifted from the inoperative position into the flushing position, and wherein the actuator is arranged laterally to the surface and, as seen with regard to the centre axis (M), opposite the closing weight which is arranged outside the housing .
A fluid delivery method for delivering a liquid sample to a flow cell including a taper section that includes a first inner wall and a second inner wall opposing the first inner wall , the first inner wall being inclined to the second inner wall so that a distance between the first inner wall and the second inner wall at a downstream side of the taper section is shorter than a distance between the first inner wall and the second inner wall at an upstream side of the taper section , a sample flow path provided upstream of the taper section and formed with a first bottom face connected to and in the same plane as the second inner wall , a sheath fluid flow path provided upstream of the taper section and formed with a top face connected to the first inner wall , and a measurement flow path provided downstream of the taper section and formed with a second bottom face connected to the second inner wall , the fluid delivery method comprising: sample introduction by delivering the liquid sample into the sample flow path along the first bottom face until the liquid sample reaches the measurement flow path ; and subsequent sample pressing by delivering the sheath fluid into the sheath fluid flow path after the liquid sample reaches the measurement flow path and at a fluid delivery pressure greater than the fluid delivery pressure of the liquid sample , whereby the liquid sample and the sheath fluid flow on the second bottom face so that the second bottom face , the liquid sample and the sheath fluid are arranged in this order. a sample flow path provided upstream of the taper section and formed with a first bottom face connected to and in the same plane as the second inner wall , a sheath fluid flow path provided upstream of the taper section and formed with a top face connected to the first inner wall , and a measurement flow path provided downstream of the taper section and formed with a second bottom face connected to the second inner wall , the fluid delivery method comprising: sample introduction by delivering the liquid sample into the sample flow path along the first bottom face until the liquid sample reaches the measurement flow path ; and subsequent sample pressing by delivering the sheath fluid into the sheath fluid flow path after the liquid sample reaches the measurement flow path and at a fluid delivery pressure greater than the fluid delivery pressure of the liquid sample , sample introduction by delivering the liquid sample into the sample flow path along the first bottom face until the liquid sample reaches the measurement flow path ; and subsequent sample pressing by delivering the sheath fluid into the sheath fluid flow path after the liquid sample reaches the measurement flow path and at a fluid delivery pressure greater than the fluid delivery pressure of the liquid sample , whereby the liquid sample and the sheath fluid flow on the second bottom face so that the second bottom face , the liquid sample and the sheath fluid are arranged in this order.
A manufacturing device for manufacturing objects layer by layer, comprising - at least one transfer platform , - at least one printing unit for applying at least one layer of the object , in particular line by line, to a transfer platform surface of the transfer platform , wherein the layer extends in a first direction (x) and in a second direction (y), and - a construction platform formed to receive the layer from the transfer platform , so that the object is produced layer by layer in a third direction (z), characterized in that - the at least one printing unit is an extruder. - at least one transfer platform , - at least one printing unit for applying at least one layer of the object , in particular line by line, to a transfer platform surface of the transfer platform , wherein the layer extends in a first direction (x) and in a second direction (y), and - a construction platform formed to receive the layer from the transfer platform , so that the object is produced layer by layer in a third direction (z), characterized in that - the at least one printing unit is an extruder.