mhurhangee/ep-ind-claims huggingface dataset:
Parking brake valve assembly for an electronically controllable pneumatic brake system of a vehicle, in particular a commercial vehicle, comprising: a first compressed air path receiving a first or second supply pressure (pV, pV1, pV2) and having a first monostable valve unit for providing a first parking brake pressure, a second compressed air path receiving the first or the second supply pressure (pV, pV1, pV2) and having a second monostable valve unit for providing a second parking brake pressure, and a first shuttle valve having a first shuttle valve connection (10.1) with the first compressed air path and receiving the first parking brake pressure, a second shuttle valve connection (10.2) with the second compressed air path and receiving the second parking brake pressure, and a third shuttle valve connection (10.3) which can be connected to a spring-loaded brake cylinder (220a, 220b, 220c, 220d), wherein the first shuttle valve outputs the higher of the first parking brake pressure and the second parking brake pressure at the third shuttle valve connection (10.3), characterized in that the first monostable valve unit is switched by a first electronic control unit and the second monostable valve unit is switched by a second electronic control unit. a first compressed air path receiving a first or second supply pressure (pV, pV1, pV2) and having a first monostable valve unit for providing a first parking brake pressure, a second compressed air path receiving the first or the second supply pressure (pV, pV1, pV2) and having a second monostable valve unit for providing a second parking brake pressure, and a first shuttle valve having a first shuttle valve connection (10.1) with the first compressed air path and receiving the first parking brake pressure, a second shuttle valve connection (10.2) with the second compressed air path and receiving the second parking brake pressure, and a third shuttle valve connection (10.3) which can be connected to a spring-loaded brake cylinder (220a, 220b, 220c, 220d), wherein the first shuttle valve outputs the higher of the first parking brake pressure and the second parking brake pressure at the third shuttle valve connection (10.3), characterized in that the first monostable valve unit is switched by a first electronic control unit and the second monostable valve unit is switched by a second electronic control unit.
Method for repairing a rotor of a multi-stage axial compressor of a gas turbine, by replacing a given number of last bladed discs (14 N-2, 14 N-1, 14 N) with new bladed discs (14 N-2 ", 14 N-1 ", 14 N "), wherein each of said last bladed discs (14 N-2, 14 N-1, 14 N) comprises a hub having a central bore and is mounted by interference fit on a shaft of the rotor which is rotatable about an axis of rotation (x), wherein the method comprises the steps of: a) cutting the shaft at a section plane perpendicular to the axis of rotation (x) of the shaft so as to separate a portion of the shaft on which the bladed discs (14 N-2, 14 N-1, 14 N) to be replaced are mounted from a remaining portion of the shaft; b) providing, for each bladed disc (14 N-2, 14 N-1, 14 N) to be replaced, one respective new bladed disc (14 N-2 ", 14 N-1 ", 14 N ") having a respective hub (16") with a solid cross-section characterised in that the method further comprises the steps of: c) providing a new end portion (12") of the shaft with a solid cross-section; and d) clamping the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") between said remaining portion of the shaft and said new end portion of the shaft, and securing the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") to said remaining portion of the shaft by anchor bolts (28, 30). a) cutting the shaft at a section plane perpendicular to the axis of rotation (x) of the shaft so as to separate a portion of the shaft on which the bladed discs (14 N-2, 14 N-1, 14 N) to be replaced are mounted from a remaining portion of the shaft; b) providing, for each bladed disc (14 N-2, 14 N-1, 14 N) to be replaced, one respective new bladed disc (14 N-2 ", 14 N-1 ", 14 N ") having a respective hub (16") with a solid cross-section characterised in that the method further comprises the steps of: c) providing a new end portion (12") of the shaft with a solid cross-section; and d) clamping the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") between said remaining portion of the shaft and said new end portion of the shaft, and securing the new bladed discs (14 N-2 ", 14 N-1 ", 14 N ") to said remaining portion of the shaft by anchor bolts (28, 30).
A cleaner, comprising: a main body; a dust collection unit coupled with a part of the main body, and including a rotating shaft installing part; a connection rotating shaft rotatably provided at the rotating shaft installing part and configured to be movable along the rotating shaft installing part; a connection member configured to connect the dust collection unit to the main body, and rotatably installed in the dust collection unit with the connection rotating shaft being a centre of rotation of the connection member; and an insertion part provided at the main body and configured to receive at least a part of the connection member. a main body; a dust collection unit coupled with a part of the main body, and including a rotating shaft installing part; a connection rotating shaft rotatably provided at the rotating shaft installing part and configured to be movable along the rotating shaft installing part; a connection member configured to connect the dust collection unit to the main body, and rotatably installed in the dust collection unit with the connection rotating shaft being a centre of rotation of the connection member; and an insertion part provided at the main body and configured to receive at least a part of the connection member.
A gas engine with a mixing unit for mixing at least two gas components, which are supplied to one or more combustion chambers of the gas engine, in particular for mixing fuel gas and charge air, and with at least two compressors (4, 4'), via which the two gas components are separately compressed before being supplied to the mixing unit, characterized in that both compressors (4, 4') are driven by a turbine (3, 3') arranged in the exhaust gas line of the gas engine.
A marine boiler comprising an exhaust gas recirculation system, comprising: a crude oil tank, a scrubber, a path for discharging exhaust gas burned in said boiler, a first path that branches from said path and makes the burned exhaust gas flow through the scrubber to the crude oil tank as inert gas; a second path that makes VOC gas generated from the crude oil tank flow inside a furnace or through a burner that is an ignition device of the boiler; a third path that connects a portion of the first path closer to a downstream side than the scrubber with the second path; and a control device adapted to make the inert gas flow through the third path, and to supply the inert gas into the furnace or to the burner of the boiler in a case where a generation amount of the VOC gas from the crude oil tank is not more than a predetermined value at which treatment of the VOC gas is not needed. a crude oil tank, a scrubber, a path for discharging exhaust gas burned in said boiler, a first path that branches from said path and makes the burned exhaust gas flow through the scrubber to the crude oil tank as inert gas; a second path that makes VOC gas generated from the crude oil tank flow inside a furnace or through a burner that is an ignition device of the boiler; a third path that connects a portion of the first path closer to a downstream side than the scrubber with the second path; and a control device adapted to make the inert gas flow through the third path, and to supply the inert gas into the furnace or to the burner of the boiler in a case where a generation amount of the VOC gas from the crude oil tank is not more than a predetermined value at which treatment of the VOC gas is not needed.
A conduit device (10;110;210;410) comprising: a hollow generally cylindrical body (15:115;215) having an interior bore (16;116) and an exterior surface (17; 117) comprising a tissue-growth promoting material adapted to promote growth of tissue on the exterior surface, characterised in that: the conduit device is adapted for placement within a wall of a heart; and the interior bore includes a valve (20;120;320;420) therein, the interior bore and the valve being adapted for engagement with an inflow tube of a heart pump therethrough. a hollow generally cylindrical body (15:115;215) having an interior bore (16;116) and an exterior surface (17; 117) comprising a tissue-growth promoting material adapted to promote growth of tissue on the exterior surface, characterised in that: the conduit device is adapted for placement within a wall of a heart; and the interior bore includes a valve (20;120;320;420) therein, the interior bore and the valve being adapted for engagement with an inflow tube of a heart pump therethrough. the conduit device is adapted for placement within a wall of a heart; and the interior bore includes a valve (20;120;320;420) therein, the interior bore and the valve being adapted for engagement with an inflow tube of a heart pump therethrough.
A control system for a vehicle, characterized by comprising: a first module adapted to estimate a magnitude of a wheel disturbance (66, 68) based on a wheel velocity, and to reduce the magnitude of the wheel disturbance (66, 68) based on an effect of any non-wheel disturbance; and a second module adapted to generate a disturbance status based on the magnitude of the wheel disturbance (66, 68). a first module adapted to estimate a magnitude of a wheel disturbance (66, 68) based on a wheel velocity, and to reduce the magnitude of the wheel disturbance (66, 68) based on an effect of any non-wheel disturbance; and a second module adapted to generate a disturbance status based on the magnitude of the wheel disturbance (66, 68).
A bioreactor including: a rigid-walled vessel for containing a biological medium, the vessel having a lid; a probe passing through an aperture in the lid and having a sensing end inside the vessel and a remote end outside the vessel, the sensing end having plural electrodes for immersion in the biological medium, and the remote end being configured for coupling to external devices and transmission thereto of electrical or electromagnetic measurements made by the electrodes; wherein one of the lid and the probe (200, 230, 250) has one or more resiliently deformable mechanisms (207, 240) and the other of the lid and the probe has one or more respective complementary surfaces (206, 236), the resiliently deformable mechanisms and the complementary surfaces being configured such that, on insertion of the probe through the aperture to assemble the probe to the lid, the one or more resiliently deformable mechanisms are first deformed on sliding against the one or more complementary surfaces and then resile when the probe reaches a predetermined insertion position relative to the lid to secure the probe to the lid; and wherein one of the lid and the probe (200, 230, 250) carries a sealing element which seals the probe to the lid when the probe is secured at the predetermined position; characterised in that the probe and the aperture are keyed such that the probe can adopt only one angular orientation around the insertion direction of the probe when the probe is located at the predetermined position. a rigid-walled vessel for containing a biological medium, the vessel having a lid; a probe passing through an aperture in the lid and having a sensing end inside the vessel and a remote end outside the vessel, the sensing end having plural electrodes for immersion in the biological medium, and the remote end being configured for coupling to external devices and transmission thereto of electrical or electromagnetic measurements made by the electrodes; wherein one of the lid and the probe (200, 230, 250) has one or more resiliently deformable mechanisms (207, 240) and the other of the lid and the probe has one or more respective complementary surfaces (206, 236), the resiliently deformable mechanisms and the complementary surfaces being configured such that, on insertion of the probe through the aperture to assemble the probe to the lid, the one or more resiliently deformable mechanisms are first deformed on sliding against the one or more complementary surfaces and then resile when the probe reaches a predetermined insertion position relative to the lid to secure the probe to the lid; and wherein one of the lid and the probe (200, 230, 250) carries a sealing element which seals the probe to the lid when the probe is secured at the predetermined position; characterised in that the probe and the aperture are keyed such that the probe can adopt only one angular orientation around the insertion direction of the probe when the probe is located at the predetermined position.
4-Amino- N- [(1 S)-1-(4-chlorophenyl)-3-hydroxy-propyl]-1-(7 H -pyrrolo[2,3-d]pyrimidin-4-yl)piperidine-4-carboxamide for use in the treatment of cancer in a patient identified by: (a) determining, in a sample which is representative of the cancer and was previously isolated from the patient, whether the genetic status of an upstream component of the PI3K pathway is wild type or mutant; (b) determining whether the MAP3K1 gene in the sample is wild type or mutant; and (c) determining whether the MAP2K4 gene in the sample is wild type or mutant; and wherein: (i) the genetic status of the upstream component of the PI3K pathway was determined to be mutant; (ii) the MAP3K1 gene was determined to be wild type; and (iii) the MAP2K4 gene was determined to be wild type; wherein the upstream component of the PI3K pathway is selected from PIK3CA, PIK3CB, PIK3CD, PIK3CG, AKT1, AKT2, AKT3, PTEN, PDK1, SGK, INPP4B, INPP5D, PIK3R1, and PIK3R2. (a) determining, in a sample which is representative of the cancer and was previously isolated from the patient, whether the genetic status of an upstream component of the PI3K pathway is wild type or mutant; (b) determining whether the MAP3K1 gene in the sample is wild type or mutant; and (c) determining whether the MAP2K4 gene in the sample is wild type or mutant; and wherein: (i) the genetic status of the upstream component of the PI3K pathway was determined to be mutant; (ii) the MAP3K1 gene was determined to be wild type; and (iii) the MAP2K4 gene was determined to be wild type; (i) the genetic status of the upstream component of the PI3K pathway was determined to be mutant; (ii) the MAP3K1 gene was determined to be wild type; and (iii) the MAP2K4 gene was determined to be wild type;
A system to position a tool tip of a tool, comprising: a base coupled to the tool; a computing device comprising one or more processors; a sensor communicatively coupled to the computing device; a motor controlled by the computing device; characterized in that the computing device configured to: identify, via the sensor, a first value of a parameter indicative of an amount of force exerted by a portion of the base towards a working surface, wherein the working surface is a surface of a workpiece; instruct the motor to extend the tool tip towards the working surface; identify, via the sensor with the tool tip in contact with the working surface, a second value of the parameter; compare the first value of the parameter with the second value of the parameter to identify a difference between the first value and the second value; and determine a z-axis position of the tool tip relative to the working surface based on the difference between the first value and the second value being greater than a threshold. a base coupled to the tool; a computing device comprising one or more processors; a sensor communicatively coupled to the computing device; a motor controlled by the computing device; characterized in that the computing device configured to: identify, via the sensor, a first value of a parameter indicative of an amount of force exerted by a portion of the base towards a working surface, wherein the working surface is a surface of a workpiece; instruct the motor to extend the tool tip towards the working surface; identify, via the sensor with the tool tip in contact with the working surface, a second value of the parameter; compare the first value of the parameter with the second value of the parameter to identify a difference between the first value and the second value; and determine a z-axis position of the tool tip relative to the working surface based on the difference between the first value and the second value being greater than a threshold. identify, via the sensor, a first value of a parameter indicative of an amount of force exerted by a portion of the base towards a working surface, wherein the working surface is a surface of a workpiece; instruct the motor to extend the tool tip towards the working surface; identify, via the sensor with the tool tip in contact with the working surface, a second value of the parameter; compare the first value of the parameter with the second value of the parameter to identify a difference between the first value and the second value; and determine a z-axis position of the tool tip relative to the working surface based on the difference between the first value and the second value being greater than a threshold.
A floor cleaner, comprising: a cleaning roller for floor cleaning; a water channel that is configured to cover the cleaning roller with an airtight seal; a clean water tank that is configured to store clean water; a clean water supply system, wherein the clean water tank, the clean water supply system and the water channel are in communication with each other, and wherein the clean water supply system is configured to allow clean water in the clean water tank to flow to the water channel; and a wastewater tank for recovery and storage of wastewater used to clean the cleaning roller, wherein: the wastewater tank comprises an air extraction opening, characterized in that the wastewater tank comprises a splash-proof member configured to define an accommodation chamber and a first buffer chamber within wastewater tank, the splash-proof member is disposed between the accommodation chamber and the air extraction opening, the first buffer chamber comprises a first air vent through which gas flows between the accommodation chamber and the air extraction opening, and the first air vent is offset from the air extraction opening such that gas flows through the air extraction opening in a first direction and flows through the first air vent in a second direction different than the first direction. a cleaning roller for floor cleaning; a water channel that is configured to cover the cleaning roller with an airtight seal; a clean water tank that is configured to store clean water; a clean water supply system, wherein the clean water tank, the clean water supply system and the water channel are in communication with each other, and wherein the clean water supply system is configured to allow clean water in the clean water tank to flow to the water channel; and a wastewater tank for recovery and storage of wastewater used to clean the cleaning roller, wherein: the wastewater tank comprises an air extraction opening, characterized in that the wastewater tank comprises a splash-proof member configured to define an accommodation chamber and a first buffer chamber within wastewater tank, the splash-proof member is disposed between the accommodation chamber and the air extraction opening, the first buffer chamber comprises a first air vent through which gas flows between the accommodation chamber and the air extraction opening, and the first air vent is offset from the air extraction opening such that gas flows through the air extraction opening in a first direction and flows through the first air vent in a second direction different than the first direction. the splash-proof member is disposed between the accommodation chamber and the air extraction opening, the first buffer chamber comprises a first air vent through which gas flows between the accommodation chamber and the air extraction opening, and the first air vent is offset from the air extraction opening such that gas flows through the air extraction opening in a first direction and flows through the first air vent in a second direction different than the first direction.
A paper-made container comprising: a container main body consisting of a barrel portion and a bottom plate portion, and an expanded insulating layer consisting of an expanded portion, wherein the expanded insulating layer is formed by heating a thermoplastic resin layer, characterized in that an expansion-inhibited portion is provided on the side of the outer surface of the barrel portion, wherein the expanded insulating layer is formed by heating a thermoplastic resin layer, and the ratio of the thickness of the expansion-inhibited portion to the thickness of the expanded portion which is not subjected to expansion inhibition is 25% or less, wherein the thermoplastic resin layer has an expansion inhibiting ink-coated portion, wherein the expansion inhibiting ink-coated portion contains a resin having a glass transition point of 30°C or higher in the amount of 90% by mass or more in the dry state, and wherein the resin is at least one selected from the group consisting of an acryl-based resin, a cellulose-based resin obtained by esterification of cellulose with carboxylic acid, a vinyl chloride-vinyl acetate copolymer, a vinyl chloride-vinyl acetate-maleic acid copolymer, a UV-curable resin, and a urethane resin, wherein ribs are formed of the expanded portions, and the expansion-inhibited portions are between the expanded portions, wherein the expansion-inhibited portions between the ribs have a dot shape, a linear or lattice shape, or a shape formed by a combination thereof. a container main body consisting of a barrel portion and a bottom plate portion, and an expanded insulating layer consisting of an expanded portion, wherein the expanded insulating layer is formed by heating a thermoplastic resin layer, characterized in that an expansion-inhibited portion is provided on the side of the outer surface of the barrel portion, wherein the expanded insulating layer is formed by heating a thermoplastic resin layer, and the ratio of the thickness of the expansion-inhibited portion to the thickness of the expanded portion which is not subjected to expansion inhibition is 25% or less, wherein the thermoplastic resin layer has an expansion inhibiting ink-coated portion, wherein the expansion inhibiting ink-coated portion contains a resin having a glass transition point of 30°C or higher in the amount of 90% by mass or more in the dry state, and wherein the resin is at least one selected from the group consisting of an acryl-based resin, a cellulose-based resin obtained by esterification of cellulose with carboxylic acid, a vinyl chloride-vinyl acetate copolymer, a vinyl chloride-vinyl acetate-maleic acid copolymer, a UV-curable resin, and a urethane resin, wherein ribs are formed of the expanded portions, and the expansion-inhibited portions are between the expanded portions, wherein the expansion-inhibited portions between the ribs have a dot shape, a linear or lattice shape, or a shape formed by a combination thereof.