mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for reporting impact of an abnormal operating condition in a distributed computing environment, comprising: - detecting an abnormal operating condition event in the distributed computing environment, where the abnormal operating condition event describes an operating condition in the distributed environment that is abnormal, wherein the abnormal operating condition is localized within a topology model and has a defined temporal extent; - identifying location of the abnormal operating condition event in the distributed computing environment; characterized by : - identifying computer transactions that overlap temporally with the abnormal operating condition event and that are at least partially executed on the location of the abnormal operating condition event, where the computer transactions are executed in the distributed computing environment; - extracting user discrimination data from the identified computer transactions, where the user discrimination data groups computer transactions executed by the same user; and - from the identified computer transactions and the user discrimination data, quantifying a number of users affected by the abnormal operating condition. - detecting an abnormal operating condition event in the distributed computing environment, where the abnormal operating condition event describes an operating condition in the distributed environment that is abnormal, wherein the abnormal operating condition is localized within a topology model and has a defined temporal extent; - identifying location of the abnormal operating condition event in the distributed computing environment; - identifying computer transactions that overlap temporally with the abnormal operating condition event and that are at least partially executed on the location of the abnormal operating condition event, where the computer transactions are executed in the distributed computing environment; - extracting user discrimination data from the identified computer transactions, where the user discrimination data groups computer transactions executed by the same user; and - from the identified computer transactions and the user discrimination data, quantifying a number of users affected by the abnormal operating condition.
A method of reducing a border of an electronic device, the method comprising: providing a display unit of the electronic device, the display unit having a display active area disposed between an encapsulation layer and a substrate such that the encapsulation layer encloses the display active area between a surface of the encapsulation layer and a surface of the substrate (206, 608, 708, 8o8A); cutting a section of the display unit at one edge of the display unit such that a portion of the encapsulation layer and a portion of the substrate are removed from the display unit while no display active area is removed; and sealing the cut section of the display unit , characterized in that the sealing comprises: placing a transparent cover over the display unit such that the encapsulation layer is disposed between the transparent cover and the display active area , and applying a sealant to cover an opening between the transparent cover and the substrate along the edge of the cut section of the display unit . providing a display unit of the electronic device, the display unit having a display active area disposed between an encapsulation layer and a substrate such that the encapsulation layer encloses the display active area between a surface of the encapsulation layer and a surface of the substrate (206, 608, 708, 8o8A); cutting a section of the display unit at one edge of the display unit such that a portion of the encapsulation layer and a portion of the substrate are removed from the display unit while no display active area is removed; and sealing the cut section of the display unit , characterized in that the sealing comprises: placing a transparent cover over the display unit such that the encapsulation layer is disposed between the transparent cover and the display active area , and applying a sealant to cover an opening between the transparent cover and the substrate along the edge of the cut section of the display unit . placing a transparent cover over the display unit such that the encapsulation layer is disposed between the transparent cover and the display active area , and applying a sealant to cover an opening between the transparent cover and the substrate along the edge of the cut section of the display unit .
Boundary layer suction system configured for being adapted to a surface able to be exposed to the circulation of a fluid, the system comprising a portion of said surface , said surface being a wind tunnel wall and having a front face which is exposed to the circulating fluid and a rear face, characterised in that said system is mounted on a fairing on the surface and in that the system further comprises: - a bifurcation element configured for bifurcating a mass of fluid flowing along the front face of the surface , said bifurcation element comprising an aerofoil-shaped cross-section such that the fluid is bifurcated into a first and a second flow, the first flow being movable between the bifurcation element and the surface , - a slot located on the portion of the surface and downstream the leading edge of the bifurcation element , the slot communicating the front and the rear faces of the portion of the surface , wherein the wall of the bifurcation element closer to the front face of the surface exposed to the flow extends until the end of the slot for guiding the mass of fluid towards the slot , - means for providing a pressure difference between the front and the rear faces of the surface around the slot such that a suction of the boundary layer is performed through the slot by said pressure difference. - a bifurcation element configured for bifurcating a mass of fluid flowing along the front face of the surface , said bifurcation element comprising an aerofoil-shaped cross-section such that the fluid is bifurcated into a first and a second flow, the first flow being movable between the bifurcation element and the surface , - a slot located on the portion of the surface and downstream the leading edge of the bifurcation element , the slot communicating the front and the rear faces of the portion of the surface , wherein the wall of the bifurcation element closer to the front face of the surface exposed to the flow extends until the end of the slot for guiding the mass of fluid towards the slot , - means for providing a pressure difference between the front and the rear faces of the surface around the slot such that a suction of the boundary layer is performed through the slot by said pressure difference.
A method for updating a plurality of vehicles , each vehicle including an onboard server , a first electronic apparatus and at least one second electronic apparatus , the onboard server comprising a first memory and a radiofrequency communication module and each of the first apparatus and of the second apparatus comprising a controller and a second memory storing a set of initial data, each onboard server being connected to each of the first apparatus and of the second apparatus mounted in the same vehicle with a local internal communication network (R1) to the vehicle , the method being characterized in that it includes the following steps: - transfer of update data, through an extended radiofrequency communication network (R2), from at least one server on the ground towards the onboard servers of the vehicles of said plurality, the updating data including modified data intended to be stored in memory by at least one of the first apparatus and of the second apparatus of each relevant vehicle , - storing updating data in the first memory of each vehicle , - when the updating data have been stored in the first memory of each vehicle , the emitting through the extended network (R2), by a server on the ground , an updating command intended for the onboard server of each vehicle , and - transmitting , for each onboard server having received the updating command, modified data to at least one of the first apparatus and of the second apparatus through the corresponding local network (R1), the modified data replacing, in the second memory of said apparatus , the initial data. - transfer of update data, through an extended radiofrequency communication network (R2), from at least one server on the ground towards the onboard servers of the vehicles of said plurality, the updating data including modified data intended to be stored in memory by at least one of the first apparatus and of the second apparatus of each relevant vehicle , - storing updating data in the first memory of each vehicle , - when the updating data have been stored in the first memory of each vehicle , the emitting through the extended network (R2), by a server on the ground , an updating command intended for the onboard server of each vehicle , and - transmitting , for each onboard server having received the updating command, modified data to at least one of the first apparatus and of the second apparatus through the corresponding local network (R1), the modified data replacing, in the second memory of said apparatus , the initial data.
Polymer, comprising a repeat unit A having a general formula selected from one of the following general formulae (I-a), (I-b), (I-c), (I-d), (I-e) and (I-f): wherein R 1 is an optionally substituted organic residue that comprises at least one cationic moiety having at least one positive charge; R 2 is an optionally substituted organic residue; R3 and R4 are selected independently of each other from H and an optionally substituted organic residue; X 1 and X 2 are selected independently of each other from O and S; Y 1 and Y 2 are selected independently of each other from O, S, NH, NR 5 and PR 5 , wherein R 5 is C 1 to C12 alkyl; Y 3 is selected from O and S; and n is from 2 to 4500. R 1 is an optionally substituted organic residue that comprises at least one cationic moiety having at least one positive charge; R 2 is an optionally substituted organic residue; R3 and R4 are selected independently of each other from H and an optionally substituted organic residue; X 1 and X 2 are selected independently of each other from O and S; Y 1 and Y 2 are selected independently of each other from O, S, NH, NR 5 and PR 5 , wherein R 5 is C 1 to C12 alkyl; Y 3 is selected from O and S; and n is from 2 to 4500.
A method for regulating expression of a target endogenous gene in growing plants comprising: topically applying onto the surface of said growing plants: (a) at least one non-transcribable double-stranded RNA comprising a sequence essentially identical to, or essentially complementary to, a sequence of 18 or more contiguous nucleotides in either said target endogenous gene or messenger RNA transcribed from said target endogenous gene; and (b) an effective amount of a chemical transferring agent, wherein said chemical transferring agent permits said at least one non-transcribable double-stranded RNA to permeate the interior of said growing plants, wherein said chemical transferring agent is an organosilicone surfactant, and whereby said at least one non-transcribable double-stranded RNA regulates the expression of said target endogenous gene. (a) at least one non-transcribable double-stranded RNA comprising a sequence essentially identical to, or essentially complementary to, a sequence of 18 or more contiguous nucleotides in either said target endogenous gene or messenger RNA transcribed from said target endogenous gene; and (b) an effective amount of a chemical transferring agent, wherein said chemical transferring agent permits said at least one non-transcribable double-stranded RNA to permeate the interior of said growing plants, wherein said chemical transferring agent is an organosilicone surfactant, and whereby said at least one non-transcribable double-stranded RNA regulates the expression of said target endogenous gene.
A method of performing an eye-scan in a receiver , comprising: generating digital samples from an analog signal input to the receiver based on a sampling clock, the sampling clock phase-shifted with respect to a reference clock based on a phase interpolator, PI, code; equalizing the digital samples based on first equalization parameters of a plurality of equalization parameters of the receiver ; adapting the plurality of equalization parameters and performing clock recovery based on the digital samples to generate the PI code; performing a plurality of cycles of locking the plurality of equalization parameters, suspending phase detection in the clock recovery, offsetting the PI code by different amounts across the plurality of cycles, collecting an output of the receiver , resuming the phase detection in the clock recovery, and unlocking the equalization parameters to perform the eye scan. generating digital samples from an analog signal input to the receiver based on a sampling clock, the sampling clock phase-shifted with respect to a reference clock based on a phase interpolator, PI, code; equalizing the digital samples based on first equalization parameters of a plurality of equalization parameters of the receiver ; adapting the plurality of equalization parameters and performing clock recovery based on the digital samples to generate the PI code; performing a plurality of cycles of locking the plurality of equalization parameters, suspending phase detection in the clock recovery, offsetting the PI code by different amounts across the plurality of cycles, collecting an output of the receiver , resuming the phase detection in the clock recovery, and unlocking the equalization parameters to perform the eye scan.
A diagnosis control method for an air conditioner comprising: receiving a test run command or a self-diagnosis command for diagnosis of the air conditioner; performing a first test run to diagnose an assembly state of the air conditioner; performing a second test run to diagnose refrigerant circulation of the air conditioner; performing a determination including diagnosing a state of the air conditioner based on operation results of the first test run and the second test run; and displaying the diagnosis result through a display device provided at an indoor unit of the air conditioner, characterised in that the second test run is also for diagnosing an amount of refrigerant in the air conditioner and in that the performing the determination further comprises determining, if a difference (Teva_in)-(Teva_in+1) between an inlet temperature Teva_in of an indoor heat exchanger of an indoor unit before a compressor of an outdoor unit is operated and an inlet temperature Teva_in+1 of the indoor heat exchanger of the indoor unit after the compressor of the outdoor unit is operated is less than a predetermined reference value, that the refrigerant is not normally circulated. receiving a test run command or a self-diagnosis command for diagnosis of the air conditioner; performing a first test run to diagnose an assembly state of the air conditioner; performing a second test run to diagnose refrigerant circulation of the air conditioner; performing a determination including diagnosing a state of the air conditioner based on operation results of the first test run and the second test run; and displaying the diagnosis result through a display device provided at an indoor unit of the air conditioner, characterised in that the second test run is also for diagnosing an amount of refrigerant in the air conditioner and in that the performing the determination further comprises determining, if a difference (Teva_in)-(Teva_in+1) between an inlet temperature Teva_in of an indoor heat exchanger of an indoor unit before a compressor of an outdoor unit is operated and an inlet temperature Teva_in+1 of the indoor heat exchanger of the indoor unit after the compressor of the outdoor unit is operated is less than a predetermined reference value, that the refrigerant is not normally circulated.
Connector device for a fluid system for medical purposes, with a main housing which has a fluid flow chamber that forms channel portions leading in different directions towards two open attachments, wherein the attachments are provided for connection to in each case a fluid line or a fluid reservoir, and also with an attachment port which opens into the fluid flow chamber and is provided with a closure arrangement and which comprises a connecting portion for connection to an attachment part, wherein the fluid flow chamber has a dimensionally stable flow-guiding wall which is arranged rigidly between the two channel portions in the fluid flow chamber, characterized in that the flow-guiding wall protrudes freely with a front edge towards the attachment port in such a way that the closure arrangement, in an open position, interacts with the front edge of the flow-guiding wall in order to obtain a flow of fluid from the attachment port at least largely to only one channel portion , in that , as part of the closure arrangement, a movable actuating body for opening a flexible closure membrane in accordance with a connection to a Luer attachment part is mounted in the attachment port , in that the flow-guiding wall protrudes in the direction of the attachment port in such a way that the actuating body and/or the flexible closure membrane , in the open position of the closure arrangement, are in contact with partial areas of the flow-guiding wall in such a way that a flow of fluid delivered into the attachment port from the Luer attachment part flows at least largely into the channel portion , and in that the actuating body and/or the flexible closure membrane , in the open position of the closure arrangement, are positioned on or next to at least a partial area of the flow-guiding wall .
A bimodal positive electrode active material comprising a first lithium transition metal oxide and a second lithium transition metal oxide having an average particle diameter (D 50 ) smaller than that of the first lithium transition metal oxide, wherein the first lithium transition metal oxide has higher particle strength and smaller crystalline size than the second lithium transition metal oxide, and wherein the first lithium transition metal oxide and the second lithium transition metal oxide each independently have a composition represented by Formula 1: [Formula 1] Li x Ni a Co e M 1 c M 2 d O 2 wherein, in Formula 1, M 1 is at least one selected from manganese (Mn) and aluminum (Al), M 2 is at least one selected from tungsten (W), copper (Cu), iron (Fe), vanadium (V), chromium (Cr), titanium (Ti), zirconium (Zr), zinc (Zn), indium (In), tantalum (Ta), yttrium (Y), lanthanum (La), strontium (Sr), gallium (Ga), scandium (Sc), gadolinium (Gd), samarium (Sm), calcium (Ca), cerium (Ce), niobium (Nb), magnesium (Mg), boron (B), and molybdenum (Mo), and 0.9 ≤ x ≤ 1.2 , 0.7 ≤ a < 1.0 , 0 < b < 0.3 , 0 < c < 0.3 , and 0 ≤ d ≤ 0.1 . wherein the first lithium transition metal oxide has higher particle strength and smaller crystalline size than the second lithium transition metal oxide, and wherein the first lithium transition metal oxide and the second lithium transition metal oxide each independently have a composition represented by Formula 1: [Formula 1] Li x Ni a Co e M 1 c M 2 d O 2 wherein, in Formula 1, M 1 is at least one selected from manganese (Mn) and aluminum (Al), M 2 is at least one selected from tungsten (W), copper (Cu), iron (Fe), vanadium (V), chromium (Cr), titanium (Ti), zirconium (Zr), zinc (Zn), indium (In), tantalum (Ta), yttrium (Y), lanthanum (La), strontium (Sr), gallium (Ga), scandium (Sc), gadolinium (Gd), samarium (Sm), calcium (Ca), cerium (Ce), niobium (Nb), magnesium (Mg), boron (B), and molybdenum (Mo), and 0.9 ≤ x ≤ 1.2 , 0.7 ≤ a < 1.0 , 0 < b < 0.3 , 0 < c < 0.3 , and 0 ≤ d ≤ 0.1 .
A charge and discharge control method for a terminal, comprising: determining temperature parameters of at least one battery in the terminal, wherein the temperature parameters comprise a cumulative time TS for which the temperature of the at least one battery is greater than a first preset value, and a continuous time TN during which the temperature of the at least one battery is kept greater than a second preset value (S202); and performing charge and discharge control on the at least one battery in the terminal according to the temperature parameters (S204), characterized in that , performing charge and discharge control on the at least one battery in the terminal according to the temperature parameters (S204) comprises following operations, in response to determining that a respective one of the at least one battery has TS less than or equal to the first cumulative time threshold in the terminal, considering the respective one of the at least one battery as a battery of first type, and performing a charging or discharging operation using the battery of first type (S304); wherein, performing a charging or discharging operation using the battery of first type comprises, in response to determining that a respective battery of first type has TN less than or equal to a continuous time threshold, considering the respective battery of first type as a battery of second type, and performing a charging or discharging operation using the battery of second type (S402). determining temperature parameters of at least one battery in the terminal, wherein the temperature parameters comprise a cumulative time TS for which the temperature of the at least one battery is greater than a first preset value, and a continuous time TN during which the temperature of the at least one battery is kept greater than a second preset value (S202); and performing charge and discharge control on the at least one battery in the terminal according to the temperature parameters (S204), characterized in that , performing charge and discharge control on the at least one battery in the terminal according to the temperature parameters (S204) comprises following operations, in response to determining that a respective one of the at least one battery has TS less than or equal to the first cumulative time threshold in the terminal, considering the respective one of the at least one battery as a battery of first type, and performing a charging or discharging operation using the battery of first type (S304); wherein, performing a charging or discharging operation using the battery of first type comprises, in response to determining that a respective battery of first type has TN less than or equal to a continuous time threshold, considering the respective battery of first type as a battery of second type, and performing a charging or discharging operation using the battery of second type (S402).