mhurhangee/ep-ind-claims huggingface dataset:
A method for releasing mission critical data, MCData, communication among a first MCData user equipment, UE, a second MCData UE (102b, 102c) and a MCData server, the method comprising: determining, by the MCData server, whether to release a MCData communication, based on a release condition; transmitting, by the MCData server, a MCData release intent request message to the first MCData UE; determining whether a MCData request for extension is received within a predetermined time from the first MCData UE; determining, by the MCData server, whether to accept the MCData request for extension based on one or more policies, in response to receiving the MCData request for extension from the first MCData UE; transmitting, by the MCData server, a MCData response message based on the determination on whether to accept the MCData request for extension to the first MCData UE; and releasing the MCData communication when the MCData server did not accept the request for extension. determining, by the MCData server, whether to release a MCData communication, based on a release condition; transmitting, by the MCData server, a MCData release intent request message to the first MCData UE; determining whether a MCData request for extension is received within a predetermined time from the first MCData UE; determining, by the MCData server, whether to accept the MCData request for extension based on one or more policies, in response to receiving the MCData request for extension from the first MCData UE; transmitting, by the MCData server, a MCData response message based on the determination on whether to accept the MCData request for extension to the first MCData UE; and releasing the MCData communication when the MCData server did not accept the request for extension.
A service download acceleration method, wherein, a content delivery network, CDN, system transmitting a network acceleration and/or quality assurance policy request of a user to a network service control device according to a maintained service state of the user and current resource usage of the user; when receiving the network acceleration and/or quality assurance policy request of the user, the network service control device applying to a policy control system for a corresponding network acceleration and/or quality assurance policy; and the policy control system issuing the network acceleration and/or quality assurance policy for the user to the network service control device; wherein, the CDN system maintains the following service states of the user: an on state; a normal download state; a content acceleration download state; a network acceleration download state; a content and network joint acceleration download state; and an off state; wherein, the CDN system, according to the maintained service state of the user, transmits the network acceleration and/or quality assurance policy request to the network service control device when the service state of the user is the normal download state, or is the content acceleration download state. an on state; a normal download state; a content acceleration download state; a network acceleration download state; a content and network joint acceleration download state; and an off state; wherein, the CDN system, according to the maintained service state of the user, transmits the network acceleration and/or quality assurance policy request to the network service control device when the service state of the user is the normal download state, or is the content acceleration download state.
A method for inhibiting oxygen and moisture penetration of a device, which device comprises a substrate and one or more inner layers, said method comprising the steps of: depositing by sputtering a low liquidus temperature inorganic material over the one or more inner layers located on top of the substrate of said device; and heat treating said LLT inorganic material that is deposited over said one or more inner layers to form a pore-free barrier layer; said deposition step and heat treatment step taking place in a vacuum or in an inert atmosphere to maintain an oxygen and water free environment; characterized in that the LLT inorganic material is a tin fluorophosphate material. depositing by sputtering a low liquidus temperature inorganic material over the one or more inner layers located on top of the substrate of said device; and heat treating said LLT inorganic material that is deposited over said one or more inner layers to form a pore-free barrier layer; said deposition step and heat treatment step taking place in a vacuum or in an inert atmosphere to maintain an oxygen and water free environment; characterized in that the LLT inorganic material is a tin fluorophosphate material.
A container-handling vehicle for picking up storage containers from a three-dimensional grid of an underlying storage system, comprising - a first set of wheels arranged at opposite sides of a vehicle body, for moving the vehicle along a first direction on the grid; - a second set of wheels arranged at opposite sides of the vehicle body, for moving the vehicle along a second direction on the grid, the second direction being perpendicular to the first direction; and - the first set of wheels displaceable in a vertical direction between a first position, wherein the first set of wheels allow movement of the vehicle along the first direction, and a second position, wherein the second set of wheels allow movement of the vehicle along the second direction, characterized in that the vehicle body surrounds a cavity within which at least a first lifting device and a second lifting device are positioned adjacent to each other, the first lifting device and the second lifting device is connected to at least one first rotatable lifting shaft and at least one second rotatable lifting shaft, respectively, the lifting shafts are arranged at an upper level within the vehicle and each lifting device is connected to the corresponding lifting shaft via a set of lifting bands and is independently controlled and arranged to lift a storage container from the grid and into the cavity, such that a bottom of the storage container is at a level above the lowest level of the second set of wheels. - a first set of wheels arranged at opposite sides of a vehicle body, for moving the vehicle along a first direction on the grid; - a second set of wheels arranged at opposite sides of the vehicle body, for moving the vehicle along a second direction on the grid, the second direction being perpendicular to the first direction; and - the first set of wheels displaceable in a vertical direction between a first position, wherein the first set of wheels allow movement of the vehicle along the first direction, and a second position, wherein the second set of wheels allow movement of the vehicle along the second direction, characterized in that
Device (10, 12) for the metered filling of a container with a filling material - comprising a receiving unit for receiving a container, - comprising a filling unit, a defined quantity of the filling material being able to be removed from a material store (20, 20.2) and transferred into the container by means of said filling unit, - wherein the filling unit comprises at least one metering chamber (32, 64, 66), - wherein the at least one metering chamber (32, 64, 66) is displaceably mounted so that the metering chamber (32, 64, 66) is present alternately in a first position (36, 68) and in a second position (38, 70), - wherein in the first position (36, 38) the metering chamber (32, 64, 66) is in contact with a material store (20, 20.2) so that filling material is able to be filled into the metering chamber (32, 64, 66) from the material store (20, 20.2), - wherein in the second position (38, 70) the metering chamber (32, 64, 66) is arranged above the container so that the filling material located in the metering chamber (32, 64, 66) is able to be emptied into the container, - characterized in that - the material store is designed as a separate container (20, 20.2), - a fastening unit (26, 26.2) is present for detachably fastening the material store (20, 20.2). - comprising a receiving unit for receiving a container, - comprising a filling unit, a defined quantity of the filling material being able to be removed from a material store (20, 20.2) and transferred into the container by means of said filling unit, - wherein the filling unit comprises at least one metering chamber (32, 64, 66), - wherein the at least one metering chamber (32, 64, 66) is displaceably mounted so that the metering chamber (32, 64, 66) is present alternately in a first position (36, 68) and in a second position (38, 70), - wherein in the first position (36, 38) the metering chamber (32, 64, 66) is in contact with a material store (20, 20.2) so that filling material is able to be filled into the metering chamber (32, 64, 66) from the material store (20, 20.2), - wherein in the second position (38, 70) the metering chamber (32, 64, 66) is arranged above the container so that the filling material located in the metering chamber (32, 64, 66) is able to be emptied into the container, - characterized in that - the material store is designed as a separate container (20, 20.2), - a fastening unit (26, 26.2) is present for detachably fastening the material store (20, 20.2).
Device for automated control of the currents in an electroplating bath with - at least one cathode to be coated in the electroplating bath, - m ≥ 2 separate controllable anodes in the electroplating bath, - m ≥ 2 separate rectifiers for controlling the anodes, - n ≥ 2 contactless or galvanically isolated current density sensors in the electroplating bath, wherein the current density sensors are configured to detect ion currents through an aperture of each current density sensor and to generate measurement signals i 1, i 2,..., i n proportional to the ion currents, - a current density measuring unit for excitation of the current density sensors and processing of the measuring signals i 1, i 2,..., i n supplying them to the central evaluation and control unit, - a central evaluation and control unit for evaluating the values of the measurement signals i 1, i 2,..., i n and controlling the anode drive unit by means of the drive signals s 1, s 2,..., s m, - an anode drive unit for individual and separate excitation of the rectifiers, wherein - the current density sensors are spatially embedded positioned between cathode and anodes in the electroplating bath by a grid frame with several grid rods, and - a control loop by the current density measuring unit, the central evaluation and control unit and the anode control unit for excitation of the rectifiers is formed. - at least one cathode to be coated in the electroplating bath, - m ≥ 2 separate controllable anodes in the electroplating bath, - m ≥ 2 separate rectifiers for controlling the anodes, - n ≥ 2 contactless or galvanically isolated current density sensors in the electroplating bath, wherein the current density sensors are configured to detect ion currents through an aperture of each current density sensor and to generate measurement signals i 1, i 2,..., i n proportional to the ion currents, - a current density measuring unit for excitation of the current density sensors and processing of the measuring signals i 1, i 2,..., i n supplying them to the central evaluation and control unit, - a central evaluation and control unit for evaluating the values of the measurement signals i 1, i 2,..., i n and controlling the anode drive unit by means of the drive signals s 1, s 2,..., s m, - an anode drive unit for individual and separate excitation of the rectifiers, wherein - the current density sensors are spatially embedded positioned between cathode and anodes in the electroplating bath by a grid frame with several grid rods, and - a control loop by the current density measuring unit, the central evaluation and control unit and the anode control unit for excitation of the rectifiers is formed.
A method for repairing a damaged gas turbine blade, comprising the steps of furnishing the damaged gas turbine blade which has previously been in service and which is made of a base metal; removing any damaged material from a damaged blade tip of the damaged gas turbine blade; and weld repairing the damaged blade tip with a nickel-base superalloy repair alloy that is more resistant to oxidation than is the base metal in the operating environment of the gas turbine blade to form a tip-repaired gas turbine blade having a repaired blade tip, wherein the repair alloy has a composition different from the base metal; the method not including any step of coating a lateral surface of the repaired blade tip with a non-ceramic coating after the step of weld repairing, characterised in that the method further comprises an additional step, after the step of weld repairing, of heat treating the tip-repaired gas turbine blade at a temperature from about 1010°C (1850°F) to about 1121°C (2050°F) and for a time of from about 1 hour to about 8 hours, followed by an ageing heat treatment at a temperature of from about 816°C (1500°F) to about 927°C (1700°F) and for a time of from about 2 hours to about 16 hours.
A printing target rotation mechanism, comprising: a first rotation shaft extending in a first direction; a second rotation shaft aligned with the first rotation shaft in a second direction crossing the first direction, the second rotation shaft supporting, together with the first rotation shaft, a printing target having an outer circumferential shape that is at least partially cylindrical; a frame supporting at least one of the first rotation shaft and the second rotation shaft such that the at least one rotation shaft (81, 82) is rotatable; characterized by a rack provided on a support table movable in the second direction with respect to the frame, the rack extending in the second direction; and a pinion provided around the at least one rotation shaft and rotatable together with the at least one rotation shaft (81, 82), the pinion being in mesh with the rack. a first rotation shaft extending in a first direction; a second rotation shaft aligned with the first rotation shaft in a second direction crossing the first direction, the second rotation shaft supporting, together with the first rotation shaft, a printing target having an outer circumferential shape that is at least partially cylindrical; a frame supporting at least one of the first rotation shaft and the second rotation shaft such that the at least one rotation shaft (81, 82) is rotatable; characterized by a rack provided on a support table movable in the second direction with respect to the frame, the rack extending in the second direction; and a pinion provided around the at least one rotation shaft and rotatable together with the at least one rotation shaft (81, 82), the pinion being in mesh with the rack.
Method for operating a network arrangement having a plurality of network systems (100, 200, 300), which are communicatively coupled to each other, wherein data belonging to a first class is transmitted in at least one specified time slot identical for all network systems (100, 200, 300), and at least one network system (100, 200, 300), which during the specified time slot receives data belonging to other classes, at least temporarily sends or forwards only data belonging to the first class, further comprising: in at least one network system (100, 200, 300), checking/monitoring whether data belonging to the first class is being synchronously received from an adjacent network system (100, 200, 300), and if data belonging to the first class does not synchronously arrive from a single adjacent network system (100, 200, 300), classifying the adjacent network system (100, 200, 300) as faulty.
An indoor unit of an air conditioning apparatus comprising: an indoor unit casing that has an air inlet and an air outlet whose edge on the air inlet side bulges toward the air inlet side; an airflow direction adjusting member that covers at least part of the air outlet and whose edge on the air inlet side bulges toward the air inlet side; wherein the indoor unit has a structure in which, because of the air outlet alone, because of the airflow direction adjusting member alone, or as a result of the air outlet and the airflow direction adjusting member working cooperatively, the direction of airflows blown out from the neighborhoods of lengthwise direction end portions of the air outlet is directed more downward than the direction of an airflow blown out from a lengthwise direction center of the air outlet, and the indoor unit is a ceiling-embedded type; and characterized in that: the air outlet is formed in such a way that an angle of inclination (θ21), of an inside wall surface of the air outlet in the neighborhoods of the lengthwise direction end portions is steeper than an angle of inclination (θ11) of an inside wall surface of the air outlet in the lengthwise direction center. an indoor unit casing that has an air inlet and an air outlet whose edge on the air inlet side bulges toward the air inlet side; an airflow direction adjusting member that covers at least part of the air outlet and whose edge on the air inlet side bulges toward the air inlet side; wherein the indoor unit has a structure in which, because of the air outlet alone, because of the airflow direction adjusting member alone, or as a result of the air outlet and the airflow direction adjusting member working cooperatively, the direction of airflows blown out from the neighborhoods of lengthwise direction end portions of the air outlet is directed more downward than the direction of an airflow blown out from a lengthwise direction center of the air outlet, and the indoor unit is a ceiling-embedded type; and characterized in that: the air outlet is formed in such a way that an angle of inclination (θ21), of an inside wall surface of the air outlet in the neighborhoods of the lengthwise direction end portions is steeper than an angle of inclination (θ11) of an inside wall surface of the air outlet in the lengthwise direction center.
A fuel supply system for an internal combustion engine, comprising: a plurality of fuel injection pumps, each fuel injection pump being configured to pressurize fuel and provide the pressurized fuel to an associated fuel injector; a low-pressure fuel supply line fluidly connected to the plurality of fuel injection pumps and configured to provide fuel from a fuel supply tank to the plurality of fuel injection pumps; a low-pressure fuel return line fluidly connected to the plurality of fuel injection pumps and configured to return remaining fuel from the plurality of fuel injection pumps to the fuel supply tank; a first fuel cut-off valve disposed in the low-pressure fuel supply line and configured to stop a flow of fuel from the fuel supply tank to the plurality of fuel injection pumps; and a purge gas supply line fluidly connected to the low-pressure fuel supply line and configured to purge the low-pressure fuel supply line and the low-pressure fuel return line. a plurality of fuel injection pumps, each fuel injection pump being configured to pressurize fuel and provide the pressurized fuel to an associated fuel injector; a low-pressure fuel supply line fluidly connected to the plurality of fuel injection pumps and configured to provide fuel from a fuel supply tank to the plurality of fuel injection pumps; a low-pressure fuel return line fluidly connected to the plurality of fuel injection pumps and configured to return remaining fuel from the plurality of fuel injection pumps to the fuel supply tank; a first fuel cut-off valve disposed in the low-pressure fuel supply line and configured to stop a flow of fuel from the fuel supply tank to the plurality of fuel injection pumps; and a purge gas supply line fluidly connected to the low-pressure fuel supply line and configured to purge the low-pressure fuel supply line and the low-pressure fuel return line.
A printer configured to perform printing on a tablet having a groove-shaped dividing line for dividing the tablet on at least one face out of a face facing one side and a face facing the other side, comprising: a conveying device that conveys a tablet; a first printing device capable of performing printing on a face facing one side in an orthogonal direction to a conveyance direction of the tablet while being conveyed; a second printing device capable of performing printing on a face facing the other side in the orthogonal direction of the tablet while being conveyed, an aligning section that supplies a plurality of tablets to the conveying device in a state where the plurality of tablets are aligned in the conveyance direction, characterised in that the conveying device comprises a dividing line direction aligning section that is disposed at an upstream side of the first printing device and the second printing device and that aligns a direction of the dividing line of each of the tablets in a predetermined direction.
A method of controlling a pressure ratio for a compressing system, comprising: introducing a quantity of liquid into an input stream to create a multiphase input stream; compressing the multiphase input stream with a centrifugal compressor to create a discharge stream; measuring a parameter of the discharge stream, wherein the discharge parameter corresponds to a pressure ratio for the centrifugal compressor; altering the pressure ratio by changing the quantity of liquid introduced into the input stream based on the parameter, characterised in that altering the pressure ratio includes increasing the pressure ratio of the centrifugal compressor by increasing the quantity of liquid introduced into the input stream when the parameter exceeds a first predetermined point such that the pressure ratio is above and/or on the left side of a surge line without causing surge or pulsating backflow through the centrifugal compressor, and when the parameter exceeds a second predetermined point, decreasing the pressure ratio by decreasing the quantity of liquid introduced. introducing a quantity of liquid into an input stream to create a multiphase input stream; compressing the multiphase input stream with a centrifugal compressor to create a discharge stream; measuring a parameter of the discharge stream, wherein the discharge parameter corresponds to a pressure ratio for the centrifugal compressor; altering the pressure ratio by changing the quantity of liquid introduced into the input stream based on the parameter, characterised in that altering the pressure ratio includes increasing the pressure ratio of the centrifugal compressor by increasing the quantity of liquid introduced into the input stream when the parameter exceeds a first predetermined point such that the pressure ratio is above and/or on the left side of a surge line without causing surge or pulsating backflow through the centrifugal compressor, and when the parameter exceeds a second predetermined point, decreasing the pressure ratio by decreasing the quantity of liquid introduced.