mhurhangee/ep-ind-claims huggingface dataset:
A tangential on-board injector for a gas turbine engine, the tangential on-board injector comprising: a body (212, 312) having an entrance and an exit, the body (212, 312) having a curved shape and defining an air passageway (214, 314, 514a, 514b, 514c) between the entrance and the exit, wherein an airflow flows through the body (212, 312) from the entrance to the exit; and an inlet extension (220, 320, 520a, 520b, 520c) connected to the entrance of the body (212, 312), the inlet extension (220, 320, 520a, 520b, 520c) extending from the body (212, 312) and having an inlet (222, 322, 522a, 522b, 522c) configured to force air to change direction when entering the inlet (222, 322, 522a, 522b, 522c) of the inlet extension (220, 320, 520a, 520b, 520c); characterized in that the inlet extension (220, 320, 520a, 520b, 520c) extends at an angle relative to the passageway (214, 314, 514a, 514b, 514c) of the body (212, 312) such that the inlet extension (220, 320, 520a, 520b, 520c) forces the airflow to turn at least 90° prior to entering the passageway (214, 314, 514a, 514b, 514c) of the body (212, 312). a body (212, 312) having an entrance and an exit, the body (212, 312) having a curved shape and defining an air passageway (214, 314, 514a, 514b, 514c) between the entrance and the exit, wherein an airflow flows through the body (212, 312) from the entrance to the exit; and an inlet extension (220, 320, 520a, 520b, 520c) connected to the entrance of the body (212, 312), the inlet extension (220, 320, 520a, 520b, 520c) extending from the body (212, 312) and having an inlet (222, 322, 522a, 522b, 522c) configured to force air to change direction when entering the inlet (222, 322, 522a, 522b, 522c) of the inlet extension (220, 320, 520a, 520b, 520c); characterized in that the inlet extension (220, 320, 520a, 520b, 520c) extends at an angle relative to the passageway (214, 314, 514a, 514b, 514c) of the body (212, 312) such that the inlet extension (220, 320, 520a, 520b, 520c) forces the airflow to turn at least 90° prior to entering the passageway (214, 314, 514a, 514b, 514c) of the body (212, 312).
A system for attaching a wall panel, comprising: a wall panel, having a back and a tab extending from the back; and a lock strip, moveably attached to a wall frame member, having a three-position locking slot, including a receiving portion configured to receive the tab; a locking portion configured to lock the tab with respect to the frame member; and a release portion configured to release the tab; the wall panel being removably attachable to the frame member by inserting the tab into the receiving portion and linearly moving the lock strip to a locking position to lock the tab in the locking portion, a wall panel, having a back and a tab extending from the back; and a lock strip, moveably attached to a wall frame member, having a three-position locking slot, including a receiving portion configured to receive the tab; a locking portion configured to lock the tab with respect to the frame member; and a release portion configured to release the tab; a receiving portion configured to receive the tab; a locking portion configured to lock the tab with respect to the frame member; and a release portion configured to release the tab; the wall panel being removably attachable to the frame member by inserting the tab into the receiving portion and linearly moving the lock strip to a locking position to lock the tab in the locking portion,
A printer configured to print on a printing medium having an RFID, the printer comprising: a communication unit configured to communicate with the RFID; and a search unit configured to move the communication unit to a position with respect to the RFID to search for a position communicable with the RFID, wherein the search unit determines communication success/failure between the RFID and the communication unit at a plurality of positions with respect to the RFID, and on the basis of a region (S, T, U) including a plurality of positions determined as the communication being successful, identifying a communication position between the RFID and the communication unit, characterized in that the search unit performing said identifying a communication position between the RFID and the communication unit, by identifying a particular position among the plurality of positions determined as the communication being successful, on the basis of a weighting, wherein the weight of a particular position increases with an increasing number of positions adjacent to the particular position determined as the communication being successful. a communication unit configured to communicate with the RFID; and a search unit configured to move the communication unit to a position with respect to the RFID to search for a position communicable with the RFID, wherein the search unit determines communication success/failure between the RFID and the communication unit at a plurality of positions with respect to the RFID, and on the basis of a region (S, T, U) including a plurality of positions determined as the communication being successful, identifying a communication position between the RFID and the communication unit, characterized in that the search unit performing said identifying a communication position between the RFID and the communication unit, by identifying a particular position among the plurality of positions determined as the communication being successful, on the basis of a weighting, wherein the weight of a particular position increases with an increasing number of positions adjacent to the particular position determined as the communication being successful.
A film comprising: a base film; a polymer layer consisting essentially of EVOH-based polymer, PVOH-based polymer, or blends thereof, said polymer layer being coextruded with the base film or applied as a coating layer to the base film; a metal oxide layer on the polymer layer, wherein the metal oxide layer has an optical density of equal to or less than 0.5 and a thickness of from 0.1 nm through 100 nm; and one or more overcoatings on the metal oxide layer; wherein the film has a total thickness of 5 μm to 50 μm; characterised in that at least one of the one or more overcoatings is functionalized and has a seal strength of at least 400 g/25mm at 150°C as measured by the procedure ASTM F88. a base film; a polymer layer consisting essentially of EVOH-based polymer, PVOH-based polymer, or blends thereof, said polymer layer being coextruded with the base film or applied as a coating layer to the base film; a metal oxide layer on the polymer layer, wherein the metal oxide layer has an optical density of equal to or less than 0.5 and a thickness of from 0.1 nm through 100 nm; and one or more overcoatings on the metal oxide layer; wherein the film has a total thickness of 5 μm to 50 μm; characterised in that at least one of the one or more overcoatings is functionalized and has a seal strength of at least 400 g/25mm at 150°C as measured by the procedure ASTM F88.
A method, comprising: collecting values of one or more parameters of one or more clients that are communicatively connected to a server; constructing a model based on the collected values of the one or more parameters to thereby model as a function of time the probability that the values of the one or more parameters of the one or more clients will change by an amount that is considered significant; receiving, from one of the clients, an update of the values of the one or more parameters of said one of the clients; responsive to receiving said update, using the model to calculate a timing for the next update of the values from said one of the clients wherein the model calculates the timing based on a history of changes to the parameter values for the client; and characterized in that the method further comprises a step of: sending the calculated timing for the next update to said one of the clients; and said one of the clients sending the next update of the values according to the calculated timing; wherein the server operates according to a stateless protocol such that the server is unaware of previous updates of the values of the parameters at the client; wherein the update of the values is received from said one of the clients with information about the history of changes to the parameter values, which is used to calculate the timing for the next update. collecting values of one or more parameters of one or more clients that are communicatively connected to a server; constructing a model based on the collected values of the one or more parameters to thereby model as a function of time the probability that the values of the one or more parameters of the one or more clients will change by an amount that is considered significant; receiving, from one of the clients, an update of the values of the one or more parameters of said one of the clients; responsive to receiving said update, using the model to calculate a timing for the next update of the values from said one of the clients wherein the model calculates the timing based on a history of changes to the parameter values for the client; and characterized in that the method further comprises a step of: sending the calculated timing for the next update to said one of the clients; and said one of the clients sending the next update of the values according to the calculated timing; sending the calculated timing for the next update to said one of the clients; and said one of the clients sending the next update of the values according to the calculated timing; wherein the server operates according to a stateless protocol such that the server is unaware of previous updates of the values of the parameters at the client; wherein the update of the values is received from said one of the clients with information about the history of changes to the parameter values, which is used to calculate the timing for the next update.
A method for manufacturing an ID transmitter for a motor vehicle, wherein the ID transmitter has a housing for protection from environmental influences, wherein housing shell elements (10a, 10b) having a bonding area (20a, 20b) made of a thermoplastic material are provided, the housing shell elements (10a, 10b) are arranged and fixed in an initial position in workpiece seatings of workpiece holders (30a, 30b), surfaces of the bonding areas (20a, 20b) of the housing shell elements (10a, 10b) are exposed to a heated fluid, so that at least near-surface portions of the bonding areas (20a, 20b) are plasticized, wherein the heated fluid is passed to the surfaces of the bonding areas (20a, 20b) is passed via a fluid conducting device, the housing shell elements (10a, 10b) are brought together in defined manner with their bonding areas (20a, 20b) by the workpiece holders (30a, 30b) so that the plasticized bonding areas (20a, 20b) are pressed against one another and the housing of the ID transmitter is formed from the housing shell elements (10a, 10b), the housing shell elements (10a, 10b) are held together for a time period X, during which the bonding areas (20a, 20b) cool down, and the workpiece holders (30a, 30b) are moved back at least part of the way to the starting position and the ID transmitter is removed, wherein the fluid conducting device comprises a plurality of fluid conducting nozzles arranged in the manner of a matrix, wherein the bonding areas (20a, 20b) only exposed to heated fluid via those fluid nozzles of the plurality of fluid conducting nozzles arranged in the manner of a matrix that correspond to the bonding areas (20a, 20b).
A voice switching method, wherein before a resource for performing voice switching is prepared, by a target base station, for a terminal. the method comprises: receiving from a target mobile switching center, MSC, by an Internet Protocol multimedia subsystem, IMS, which stores a voice switching capability of the terminal and which stores current call state information of the terminal, whereby the call state information includes one of pre-ringing and during ringing, a query request that is used to query whether the terminal currently has the voice switching capability from a first communications network to a locally used second communications network wherein the query request carries a terminal identifier, wherein the voice switching capability includes voice switching before ringing or voice switching during ringing; determining, by the IMS the, voice switching capability of the terminal and the current call state information of the terminal by using the terminal identifier carried in the query request; matching, by the IMS, the current call state information of the terminal with the voice switching capability of the terminal; sending, by the IMS, a notification message that indicates that the terminal does not have the voice switching capability to the target MSC if the current call state information of the terminal does not match the voice switching capability of the terminal. receiving from a target mobile switching center, MSC, by an Internet Protocol multimedia subsystem, IMS, which stores a voice switching capability of the terminal and which stores current call state information of the terminal, whereby the call state information includes one of pre-ringing and during ringing, a query request that is used to query whether the terminal currently has the voice switching capability from a first communications network to a locally used second communications network wherein the query request carries a terminal identifier, wherein the voice switching capability includes voice switching before ringing or voice switching during ringing; determining, by the IMS the, voice switching capability of the terminal and the current call state information of the terminal by using the terminal identifier carried in the query request; matching, by the IMS, the current call state information of the terminal with the voice switching capability of the terminal; sending, by the IMS, a notification message that indicates that the terminal does not have the voice switching capability to the target MSC if the current call state information of the terminal does not match the voice switching capability of the terminal.
A kit comprising: a dental article having a surface for bonding the article to a tooth structure and a compressible material bonded to the surface of the article, the compressible material comprising a porous material having a hardenable dental composition at least partially within the pores thereof; and instructions for using the kit. a dental article having a surface for bonding the article to a tooth structure and a compressible material bonded to the surface of the article, the compressible material comprising a porous material having a hardenable dental composition at least partially within the pores thereof; and instructions for using the kit.
A combine harvester comprising a distribution device for distributing a crop material issuing from the combine harvester on the field surface, characterised in that arranged downstream of the distribution device is at least one guide element (33, 34, 71, 72 with which the direction of movement of the crop material issuing from the distribution device is variable at least in a vertical direction.
A method for producing n-propyl acetate, comprising: an extraction process of subjecting a raw material liquid containing allyl acetate and water to an extraction operation using water as an extraction solvent and separating the extract into an oily phase containing allyl acetate as a main component and an aqueous phase containing water as a main component; a first distillation process of distilling the oily phase to obtain distillate containing allyl acetate as a main component; an oil-water separation process of separating the distillate into an oily phase and an aqueous phase; a second distillation process of distilling the oily phase to obtain a distillate containing allyl acetate as a main component; and a hydrogenation process of subjecting the distillate to a hydrogenation reaction. an extraction process of subjecting a raw material liquid containing allyl acetate and water to an extraction operation using water as an extraction solvent and separating the extract into an oily phase containing allyl acetate as a main component and an aqueous phase containing water as a main component; a first distillation process of distilling the oily phase to obtain distillate containing allyl acetate as a main component; an oil-water separation process of separating the distillate into an oily phase and an aqueous phase; a second distillation process of distilling the oily phase to obtain a distillate containing allyl acetate as a main component; and a hydrogenation process of subjecting the distillate to a hydrogenation reaction.
A vehicle seat comprising: a slide mechanism comprising an inner-side slide rail fixed to a floor of an interior of a vehicle and an outer-side slide rail fixed to a wall portion of the interior of the vehicle; a seat cushion provided to be slidable in a front-rear direction of the vehicle by the slide mechanism; and a biasing unit for applying a biasing force for flipping up the seat cushion toward the wall portion, characterized in that the outer-side slide rail comprises: a first slide rail fixed to the wall portion at a same position as the seat cushion in a vertical direction; and a second slide rail fixed to a portion of the wall portion located deeper in the interior than the first slide rail, at a position below the seat cushion. a slide mechanism comprising an inner-side slide rail fixed to a floor of an interior of a vehicle and an outer-side slide rail fixed to a wall portion of the interior of the vehicle; a seat cushion provided to be slidable in a front-rear direction of the vehicle by the slide mechanism; and a biasing unit for applying a biasing force for flipping up the seat cushion toward the wall portion, characterized in that the outer-side slide rail comprises: a first slide rail fixed to the wall portion at a same position as the seat cushion in a vertical direction; and a second slide rail fixed to a portion of the wall portion located deeper in the interior than the first slide rail, at a position below the seat cushion. a first slide rail fixed to the wall portion at a same position as the seat cushion in a vertical direction; and a second slide rail fixed to a portion of the wall portion located deeper in the interior than the first slide rail, at a position below the seat cushion.
A method of producing 1-{4-[1-(2,6-difluorobenzyl)-5-dimethylaminomethyl-3-(6-methoxypyridazin-3-yl)-2,4-dioxo-1,2,3,4-tetrahydrothieno[2,3-d]pyrimidin-6-yl]phenyl}-3-methoxyurea or a salt thereof, which comprises reacting 6-(4-aminophenyl)-1-(2,6-difluorobenzyl)-5-dimethylaminomethyl-3-(6-methoxypyridazin-3-yl)thieno[2,3-d]pyrimidine-2,4(1H,3H)-dione or salt thereof, 1,1'-carbonyldiimidazole or a salt thereof and methoxyamine or a salt thereof, wherein the 1,1'-carbonyldiimidazole or a salt thereof is used in an amount of 1.6 to 2.5 equivalents relative to 6-(4-aminophenyl)-1-(2,6-difluorobenzyl)-5-dimethylaminomethyl-3-(6-methoxypyridazin-3-yl)thieno[2,3-d]pyrimidine-2,4(1H,3H)-dione or a salt thereof, and the methoxyamine or a salt thereof is used in an amount of 1.0 to 1.5 equivalents relative to 1,1'-carbonyldiimidazole or a salt thereof.
A sheet detection device comprising: a first image sensor configured to acquire reflection image data of a sheet under transport on a transport path; a second image sensor configured to acquire transmission image data of the sheet under transport on the transport path; and a controller configured to detect the presence or absence of the sheet based on the reflection image data and the transmission image data, wherein the controller is further configured: to binarize the reflection image data and the transmission image data to generate binarized reflection image data and binarized transmission image data, respectively; to execute OR processing on the binarized reflection image data and the binarized transmission image data to generate OR-processed image data; to detect the external shape of the sheet based on the OR-processed image data; and to output outline information of an OR-processed image derived from the OR-processed image data. a first image sensor configured to acquire reflection image data of a sheet under transport on a transport path; a second image sensor configured to acquire transmission image data of the sheet under transport on the transport path; and a controller configured to detect the presence or absence of the sheet based on the reflection image data and the transmission image data, wherein the controller is further configured: to binarize the reflection image data and the transmission image data to generate binarized reflection image data and binarized transmission image data, respectively; to execute OR processing on the binarized reflection image data and the binarized transmission image data to generate OR-processed image data; to detect the external shape of the sheet based on the OR-processed image data; and to output outline information of an OR-processed image derived from the OR-processed image data. to binarize the reflection image data and the transmission image data to generate binarized reflection image data and binarized transmission image data, respectively; to execute OR processing on the binarized reflection image data and the binarized transmission image data to generate OR-processed image data; to detect the external shape of the sheet based on the OR-processed image data; and to output outline information of an OR-processed image derived from the OR-processed image data.
A circuit configured to detect the presence of an object in proximity to a first and a second electrode (314, 316) of a touch panel, including a drive unit for driving the first electrode with a plurality of drive signals, the second electrode for carrying resultant drive signals ensuing from the drive signals on the first electrode capacitively coupling to the second electrode, the second electrode coupled to a sense circuit configured to generate, for each drive signal, a response signal comprising a differentiated representation of the drive signal, the response signal having an amplitude responsive to the capacitive coupling between the first electrode and the second electrode, the circuit further including a peak detector configured to provide a peak detector output being the maximum voltage of the response signal, the peak detector comprising at least a capacitor and a diode, and wherein a resistor is disposed in the circuit between the sense circuit where the response signal is generated and the capacitor of the peak detector, the circuit further comprising a reset switch coupled to the capacitor of the peak detector, the reset switch configured to discharge the respective capacitor in response to a reset signal, wherein an increased number of pulses of 8 or more is used in a measurement cycle.