mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for deploying services by jumping from a first page to be jumped from to a second page, the second page being a jump page to be jumped to and being configured to provide a first service, the second page including a native page of a client application configured to provide the first service, the first and second pages being configured for display by the client application, wherein the first service is being provided by the client application and wherein the native page is independently executable based on local code of the client application, wherein the method comprises: obtaining, by the client application, a page identifier of the first page; searching, by the client application, a page routing table for a corresponding jump route based on the obtained page identifier, wherein the jump route comprises a mapping relationship between the page identifier and the second page, the mapping relationship linking the first page to the second page; jumping to the second page based on the identified jump route; periodically sending, by the client application, a first query request to a server, wherein the first query request is used to trigger the server to deliver a latest jump route that is based on the obtained page identifier, the latest jump route comprising a mapping relationship between the obtained page identifier and a third page, the third page being a latest jump page configured to provide a second service, wherein the second service is provided by the client application; receiving the latest jump route delivered by the server; and updating the corresponding jump route in the page routing table based on the received latest jump route. obtaining, by the client application, a page identifier of the first page; searching, by the client application, a page routing table for a corresponding jump route based on the obtained page identifier, wherein the jump route comprises a mapping relationship between the page identifier and the second page, the mapping relationship linking the first page to the second page; jumping to the second page based on the identified jump route; periodically sending, by the client application, a first query request to a server, wherein the first query request is used to trigger the server to deliver a latest jump route that is based on the obtained page identifier, the latest jump route comprising a mapping relationship between the obtained page identifier and a third page, the third page being a latest jump page configured to provide a second service, wherein the second service is provided by the client application; receiving the latest jump route delivered by the server; and updating the corresponding jump route in the page routing table based on the received latest jump route.
A combination laundry washer-dryer, comprising: - a duct conveying a moist air stream from a bottom of a tub which is adapted to contain laundry during drying, said bottom extending in a first direction of extension (X-X), said duct having one section extending in a second direction of extension (Y-Y) which is transverse to said first direction of extension (X-X), - a tank having a preset volume, which extends in said second direction of extension (Y-Y) and is located within said duct with the moist air stream flowing therethrough, said tank being closed at a bottom end and open at a top end thereof, - a connection located at said bottom end of said tank for introducing mains water into the volume of said tank, characterized in that it comprises: - an electric fan placed in said duct for drawing in the moist air stream proximate to the outlet of said duct, toward the environment outside the machine, - a first temperature sensor located in said tank and - a second temperature sensor located in the duct at the electric fan for drawing the moist air stream; - said first sensor being configured to detect the temperature of water in said tank and said second sensor being configured to detect the temperature of the air stream proximate to the outlet, - a solenoid valve in fluid communication with said connection for opening and closing water filling into the tank as a function of temperature detected by the first and second temperature sensor. - a duct conveying a moist air stream from a bottom of a tub which is adapted to contain laundry during drying, said bottom extending in a first direction of extension (X-X), said duct having one section extending in a second direction of extension (Y-Y) which is transverse to said first direction of extension (X-X), - a tank having a preset volume, which extends in said second direction of extension (Y-Y) and is located within said duct with the moist air stream flowing therethrough, said tank being closed at a bottom end and open at a top end thereof, - a connection located at said bottom end of said tank for introducing mains water into the volume of said tank, - an electric fan placed in said duct for drawing in the moist air stream proximate to the outlet of said duct, toward the environment outside the machine, - a first temperature sensor located in said tank and - a second temperature sensor located in the duct at the electric fan for drawing the moist air stream; - said first sensor being configured to detect the temperature of water in said tank and said second sensor being configured to detect the temperature of the air stream proximate to the outlet, - a solenoid valve in fluid communication with said connection for opening and closing water filling into the tank as a function of temperature detected by the first and second temperature sensor.
A computer-controlled method for selecting optimum operation performance criteria for a metal working process, said method comprising the steps of: retrieving process parameters from multiple sources relating to the metal working process, retrieving performance variables from different sources relating to the metal working process, comprising performance variable data from previous operations and performance variable data for subsequent operations, storing the process parameters and performance variables in a consolidated memory in association with a computer system, making the process parameters and performance variables available for application of optimization techniques to select optimum operation performance criteria, providing a process model that relates process parameters for the operation with performance variables for said operation, selecting at least one optimization technique and defining a function, said function comprising of process parameters, generating the function for optimization with respect to productivity by using acceptable tolerances of a product to be machined as a basis to define ranges for performance variables along with ranges for process parameters, and applying the at least one optimization technique to said function, whereby optimum operation performance criteria are determined for the process model including process parameters and performance variables to obtain a set of commands to be used for controlling the metal working process. retrieving process parameters from multiple sources relating to the metal working process, retrieving performance variables from different sources relating to the metal working process, comprising performance variable data from previous operations and performance variable data for subsequent operations, storing the process parameters and performance variables in a consolidated memory in association with a computer system, making the process parameters and performance variables available for application of optimization techniques to select optimum operation performance criteria, providing a process model that relates process parameters for the operation with performance variables for said operation, selecting at least one optimization technique and defining a function, said function comprising of process parameters, generating the function for optimization with respect to productivity by using acceptable tolerances of a product to be machined as a basis to define ranges for performance variables along with ranges for process parameters, and applying the at least one optimization technique to said function, whereby optimum operation performance criteria are determined for the process model including process parameters and performance variables to obtain a set of commands to be used for controlling the metal working process.
A method for controlling a ship maneuvering device, the ship maneuvering device comprising a pair of left and right engines (3A, 3B); rotation speed changing actuators (4A, 4B) independently changing engine rotation speeds of the pair of left and right engines (3A, 3B); a pair of left and right outdrive devices (10A, 10B) respectively connected to the pair of left and right engines (3A, 3B) and rotating screw propellers (15A, 15B) so as to propel a hull; forward/reverse switching clutches (16A, 16B) disposed between the engines (3A, 3B) and the screw propellers (15A, 15B); a pair of left and right steering actuators (17A, 17B) respectively independently rotating the pair of left and right outdrive devices (10A, 10B) laterally within a predetermined angle range (Θ I); an operation means setting a traveling direction of a ship; an operation amount detection means detecting the operation amount of the operation means; and a control device controlling the rotation speed changing actuators (4A, 4B), the forward/reverse switching clutches (16A, 16B), and the steering actuators (17A, 17B) so as to travel to a direction set by the operation means, the method comprising the step of calculating oblique sailing component propulsion power vectors (T Atrans, T Btrans) for oblique sailing of the pair of left and right outdrive devices (10A, 10B) respectively connected to the pair of left and right engines (3A, 3B) and rotating screw propellers (15A, 15B) so as to propel the hull and turning component propulsion power vectors (T Arot, T Brot) for the turning from operation amounts of an operation means setting a traveling direction of the ship, composing the oblique sailing component propulsion power vectors (T Atrans, T Btrans) and the turning component propulsion power vectors (T Arot, T Brot) of the left and right outdrive devices (10A, 10B) so as to calculate composition vectors (T A, T B), thereby calculating propulsion powers and directions of the left and right outdrive devices (10A, 10B), characterized in when the angle (β) of the composition vectors (T A, T B) is over the predetermined angle range (Θ I) of the outdrive devices (10A, 10B), the rotation angles (Θ A, Θ B) of the outdrive devices (10A, 10B) are fixed at a state of a predetermined limiting angle (α) and the engine rotation speeds (N A, N B) are reduced to a set rotation speed (N Set).
A method of performing a biometric operation, the method comprising: receiving a job request to perform a biometric operation, the job request including input data, identifying a database to be used in the performance of the biometric operation in association with a database plug-in, and specifying a function to be performed in association with a biometric operations plug-in; restructuring the biometric operation as a plurality of tasks, the job request further specifying a biometric operations plug-in function to be performed across a number of entries in the database, the number of entries in the database being a subset of the entries in the database; assigning the number of entries in the database to each of the one or more tasks; generating an independent worker process (58-1; 58-2) for each different core (54-1; 54-2) of a multi-core processor; assigning each task of the plurality of tasks to one of the worker processes; distributing the plurality of tasks among the worker processes, the worker processes acquiring their functionality from the database plug-in and biometric operations plug-ins, respectively; collecting results produced by each worker process assigned one of the plurality of tasks; and reporting a result of the biometric operation based on the collected results. receiving a job request to perform a biometric operation, the job request including input data, identifying a database to be used in the performance of the biometric operation in association with a database plug-in, and specifying a function to be performed in association with a biometric operations plug-in; restructuring the biometric operation as a plurality of tasks, the job request further specifying a biometric operations plug-in function to be performed across a number of entries in the database, the number of entries in the database being a subset of the entries in the database; assigning the number of entries in the database to each of the one or more tasks; generating an independent worker process (58-1; 58-2) for each different core (54-1; 54-2) of a multi-core processor; assigning each task of the plurality of tasks to one of the worker processes; distributing the plurality of tasks among the worker processes, the worker processes acquiring their functionality from the database plug-in and biometric operations plug-ins, respectively; collecting results produced by each worker process assigned one of the plurality of tasks; and reporting a result of the biometric operation based on the collected results.
A method comprising: determining, by one or more processors, a plurality of locations of a mobile device, each location having a corresponding timestamp indicating a time the location was determined, the plurality of locations being ordered sequentially based on each corresponding timestamp; obtaining, by the one or more processors, data showing that one or more acts were performed on, or detected by, the mobile device at the locations; reducing, based on the data, a first time threshold for recognizing a location cluster from the locations into a second time threshold for recognizing the location cluster from the locations; determining that a set of consecutive locations in the ordered locations form the location cluster upon determining that a time difference between at least two locations among the set of locations is longer than the second time threshold; and storing a location representing the location cluster as a location of interest to the user. determining, by one or more processors, a plurality of locations of a mobile device, each location having a corresponding timestamp indicating a time the location was determined, the plurality of locations being ordered sequentially based on each corresponding timestamp; obtaining, by the one or more processors, data showing that one or more acts were performed on, or detected by, the mobile device at the locations; reducing, based on the data, a first time threshold for recognizing a location cluster from the locations into a second time threshold for recognizing the location cluster from the locations; determining that a set of consecutive locations in the ordered locations form the location cluster upon determining that a time difference between at least two locations among the set of locations is longer than the second time threshold; and storing a location representing the location cluster as a location of interest to the user.
A face mask, comprising: an outer casing having an opening; a filter member for mounting inside the outer casing, wherein a mask cavity is defined between the filter member and the face of a user when face mask is worn by the user; and a fan module, wherein: the filter member comprises a first connector part; the fan module comprises a second connector part, for connection to the first connector part thereby to fix the fan module to the filter member, and a third connector part; and the outer casing comprises a fourth connector part, for connection to the third connector part thereby to fix the outer casing to fan module, with the fan module projecting through the opening. an outer casing having an opening; a filter member for mounting inside the outer casing, wherein a mask cavity is defined between the filter member and the face of a user when face mask is worn by the user; and a fan module, wherein: the filter member comprises a first connector part; the fan module comprises a second connector part, for connection to the first connector part thereby to fix the fan module to the filter member, and a third connector part; and the outer casing comprises a fourth connector part, for connection to the third connector part thereby to fix the outer casing to fan module, with the fan module projecting through the opening. the filter member comprises a first connector part; the fan module comprises a second connector part, for connection to the first connector part thereby to fix the fan module to the filter member, and a third connector part; and the outer casing comprises a fourth connector part, for connection to the third connector part thereby to fix the outer casing to fan module, with the fan module projecting through the opening.
Device for improving the reliability of a distribution device for distributing an overall braking command between an electrical braking command for an electrical braking means and an additional braking command for an additional braking means, characterized in that it comprises a detection module for detecting underbraking and able to estimate a difference between the overall braking command and the additional braking command and to check that a value dependent on the said difference is above an underbraking threshold, and a first emission means (20, 23) able to emit a first alarm (22, 25) when the said check proves negative.
Method for receiving and demodulating, by a receiving device, signals representing data frames coming from a transmitting device, said data frames being modulated by said transmitting device according to a modulation scheme selected from amongst a set of modulation schemes, said data frame signals including a preamble defined according to the modulation scheme according to which said data frame signals were modulated, said method including the following steps: - synchronizing said receiving device on a received data frame, - determining, from the preamble signals of said received data frame, the modulation scheme that was selected by said transmitting device for transmitting said data frame, and - demodulating the signals representing said received data frame by using the modulation scheme determined from the preamble of said received data frame, characterized in that the receiving device further performs the following steps: - determining, from the modulation scheme determined from the preamble of said received data frame, the frequency band corresponding to this modulation scheme, - selecting, from amongst a first predefined set of filters, a filter adapted to the determined frequency band corresponding to said modulation scheme, and - applying said selected filter to the signals representing said data frame for the data that follows said preamble prior to said step of demodulating the signals representing said received data frame. - synchronizing said receiving device on a received data frame, - determining, from the preamble signals of said received data frame, the modulation scheme that was selected by said transmitting device for transmitting said data frame, and - demodulating the signals representing said received data frame by using the modulation scheme determined from the preamble of said received data frame, - determining, from the modulation scheme determined from the preamble of said received data frame, the frequency band corresponding to this modulation scheme, - selecting, from amongst a first predefined set of filters, a filter adapted to the determined frequency band corresponding to said modulation scheme, and - applying said selected filter to the signals representing said data frame for the data that follows said preamble prior to said step of demodulating the signals representing said received data frame.
A method of coaxially bonding a polymeric tube to a prefabricated polycarbonate or acrylonitrile-butadiene-styrene copolymer tubular body, the method comprising: coextruding an outer tubular layer comprised of an ethylene copolymer functionalized with a conjugated vinyl moiety together with at least one inner tubular layer comprised of a thermoplastic elastomeric material to form a mating tube having an outer surface comprised of the functionalized ethylene copolymer, a central tubular passage having a longitudinal axis and opposing ends, treating the outer surface of the mating tube along a selected axial length of at least one of the ends with an alcohol or ketone or a UV or visible light curable containing material that causes the treated outer surface to adhere to the inner wall of the tubular body, inserting the treated end of the mating tube coaxially into a hollow central tubular passage of the prefabricated tubular body such that the outer surface of the treated end of the mating tube mates with the inner wall of the tubular body along the selected axial length to form a mated juncture, and curing or allowing the mated juncture to dry such that the treated outer surface bonds to the inner wall, wherein the outer layer of the mating tube is comprised of at least 18% by weight of the conjugated vinyl moiety. coextruding an outer tubular layer comprised of an ethylene copolymer functionalized with a conjugated vinyl moiety together with at least one inner tubular layer comprised of a thermoplastic elastomeric material to form a mating tube having an outer surface comprised of the functionalized ethylene copolymer, a central tubular passage having a longitudinal axis and opposing ends, treating the outer surface of the mating tube along a selected axial length of at least one of the ends with an alcohol or ketone or a UV or visible light curable containing material that causes the treated outer surface to adhere to the inner wall of the tubular body, inserting the treated end of the mating tube coaxially into a hollow central tubular passage of the prefabricated tubular body such that the outer surface of the treated end of the mating tube mates with the inner wall of the tubular body along the selected axial length to form a mated juncture, and curing or allowing the mated juncture to dry such that the treated outer surface bonds to the inner wall, wherein the outer layer of the mating tube is comprised of at least 18% by weight of the conjugated vinyl moiety.