mhurhangee/ep-ind-claims huggingface dataset:
A bypass turbomachine for an aircraft, the turbomachine comprising a ducted fan and a gas generator, the fan being configured to generate a primary flow of air in a primary duct inside the gas generator and a secondary flow in a secondary duct extending around the gas generator and inside a fan casing, the fan comprising variable pitch vanes which are able to adopt a reverse thrust position driving a flow of a reverse flow of air in the secondary duct, the gas generator being connected to the fan casing by a stator vane assembly which passes through the secondary duct, the gas generator comprising two annular casings (14, 17), outer and inner respectively, extending around each other, the outer casing at least partially internally delimiting the secondary duct and being connected to the stator vane assembly, and the inner casing at least partially externally delimiting the primary duct, the turbomachine further comprising first openings for letting in air from the reverse flow being located on the outer casing, and second openings for letting this air out being located on the inner casing, at least one portion of said first openings being located in a plane perpendicular to a longitudinal axis of the turbomachine passing through an area located in the middle of said vane assembly along an axial direction, and flaps (31, 32) being provided at the level of said first and second openings and being movable between positions of closure and of release of these openings, said flaps (31, 32) being pivotally movable, having a scooping function and being configured to extend at least partially into said secondary duct when in the release position so that the radially outer ends (31', 32') of the flaps (31, 32) are located at a radial dimension (h) in the secondary duct, said bypass turbomachine being characterised in that the radial dimension (h) is between 20 and 30% of the total radial dimension of said duct, said dimensions being measured from the outer casing in line with these radially outer ends (31', 32').
A system for treating an occluded vessel, comprising: an orienting device including an elongate shaft having an outer wall defining a central lumen, an orienting element that is coupled to the elongate shaft, and a first aperture defined by the outer wall; and a re-entry device (180; 280; 380; 480; 580; 680) disposed within the central lumen; wherein the re-entry device (180; 280; 380; 480; 580; 680) comprises: a shaft (240; 340; 440; 540); a tip member (242; 342; 442; 542; 642) fixed to the shaft (240; 340; 440; 540); a probe (146; 246; 346; 446; 546; 646) extending distally beyond the tip member (242; 342; 442; 542; 642); and a coil (248; 348; 548) extending between the tip member (242; 342; 442; 542; 642) and a tapered segment (252; 352; 552) of the shaft (240; 340; 440; 540). an orienting device including an elongate shaft having an outer wall defining a central lumen, an orienting element that is coupled to the elongate shaft, and a first aperture defined by the outer wall; and a re-entry device (180; 280; 380; 480; 580; 680) disposed within the central lumen; wherein the re-entry device (180; 280; 380; 480; 580; 680) comprises: a shaft (240; 340; 440; 540); a tip member (242; 342; 442; 542; 642) fixed to the shaft (240; 340; 440; 540); a probe (146; 246; 346; 446; 546; 646) extending distally beyond the tip member (242; 342; 442; 542; 642); and a coil (248; 348; 548) extending between the tip member (242; 342; 442; 542; 642) and a tapered segment (252; 352; 552) of the shaft (240; 340; 440; 540). a shaft (240; 340; 440; 540); a tip member (242; 342; 442; 542; 642) fixed to the shaft (240; 340; 440; 540); a probe (146; 246; 346; 446; 546; 646) extending distally beyond the tip member (242; 342; 442; 542; 642); and a coil (248; 348; 548) extending between the tip member (242; 342; 442; 542; 642) and a tapered segment (252; 352; 552) of the shaft (240; 340; 440; 540).
A method for making a heterogeneous alkane dehydrogenation catalyst consisting of a combination of both aluminium oxide and gallium oxide dispersed as an active layer on an alumina support or a silica-modified alumina support, the method comprising the steps of: i) loading precursors of gallium oxide and aluminium oxide simultaneously or sequentially onto an alumina support or a silica-modified alumina support; and ii) following completion of the gallium oxide and aluminium oxide precursor loading, calcining the loaded support at a temperature of from at least 400°C to below 1100°C.
An injectable formulation of fosnetupitant, liquid or lyophilized, comprising: a) fosnetupitant or a pharmaceutically acceptable salt thereof; b) optionally palonosetron or a pharmaceutically acceptable salt thereof; c) sodium hydroxide; d) disodium edetate; e) optionally hydrochloric acid; and f) mannitol. a) fosnetupitant or a pharmaceutically acceptable salt thereof; b) optionally palonosetron or a pharmaceutically acceptable salt thereof; c) sodium hydroxide; d) disodium edetate; e) optionally hydrochloric acid; and f) mannitol.
A device, comprising: an elongated catheter; an expandable balloon associated with the catheter; and a plurality of circumferentially spaced flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514) extending longitudinally along a surface of the expandable balloon, each flexible circuit (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514) including at least one electrode (194; 222; 518; 524; 530; 536; 3102, 3104), wherein the flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514) are adhesively secured to the expandable balloon and include a plurality of openings extending through the flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514), such openings configured to increase flexibility of the flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514). an elongated catheter; an expandable balloon associated with the catheter; and a plurality of circumferentially spaced flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514) extending longitudinally along a surface of the expandable balloon, each flexible circuit (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514) including at least one electrode (194; 222; 518; 524; 530; 536; 3102, 3104), wherein the flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514) are adhesively secured to the expandable balloon and include a plurality of openings extending through the flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514), such openings configured to increase flexibility of the flexible circuits (140a-d; 200; 300; 304; 310; 314; 400; 404; 412; 500; 506; 510; 514).
A flow control valve in which a needle-shaped valve element is fitted into a valve hole provided in a partition wall partitioning a flow path at an intermediate portion, and the valve element is configured to move in an axial direction of the valve element to control a flow rate of a fluid passing between an outer side surface of the valve element and an inner side surface of the valve hole, the flow control valve comprising: a tapered inner side surface that is included in the inner side surface of the valve hole; a tapered outer side surface that is included in the outer side surface of the valve element, faces the tapered inner side surface from inside, and is inclined along the tapered inner side surface; and abutting portions (27B, 32) that are disposed on the larger-diameter side relative to the tapered outer side surface of the valve element and the tapered inner side surface of the valve hole, and abut on each other to bring the flow control valve into a valve closed state, wherein there is a gap between the tapered outer side surface and the tapered inner side surface in the valve closed state, characterised in that the tapered inner side surface facing the tapered outer side surface of the valve element substantially in parallel is provided on the inner side surface of the valve hole. a tapered inner side surface that is included in the inner side surface of the valve hole; a tapered outer side surface that is included in the outer side surface of the valve element, faces the tapered inner side surface from inside, and is inclined along the tapered inner side surface; and abutting portions (27B, 32) that are disposed on the larger-diameter side relative to the tapered outer side surface of the valve element and the tapered inner side surface of the valve hole, and abut on each other to bring the flow control valve into a valve closed state, wherein there is a gap between the tapered outer side surface and the tapered inner side surface in the valve closed state, characterised in that the tapered inner side surface facing the tapered outer side surface of the valve element substantially in parallel is provided on the inner side surface of the valve hole.
A flat-type non-aqueous electrolyte secondary battery comprising: a power generating element comprising a positive electrode obtained by forming a positive electrode active material layer on a surface of a positive electrode current collector, a negative electrode obtained by forming a negative electrode active material layer on a surface of a negative electrode current collector, and a separator, wherein the negative electrode active material layer comprises an aqueous binder, a highly porous layer having a porosity that is higher than that of the separator is provided between the negative electrode active material layer and the separator, the porosity of the highly porous layer being from 50 to 90%, a ratio of a thickness of the highly porous layer to a thickness of the negative electrode active material layer is from 0.01 to 0.4, and a ratio of a battery area to rated capacity is 5 cm 2 /Ah or more, the battery area representing the maximum value of projected area of the battery including an outer casing of the battery, and the rated capacity is 3 Ah or more. a power generating element comprising a positive electrode obtained by forming a positive electrode active material layer on a surface of a positive electrode current collector, a negative electrode obtained by forming a negative electrode active material layer on a surface of a negative electrode current collector, and a separator, wherein the negative electrode active material layer comprises an aqueous binder, a highly porous layer having a porosity that is higher than that of the separator is provided between the negative electrode active material layer and the separator, the porosity of the highly porous layer being from 50 to 90%, a ratio of a thickness of the highly porous layer to a thickness of the negative electrode active material layer is from 0.01 to 0.4, and a ratio of a battery area to rated capacity is 5 cm 2 /Ah or more, the battery area representing the maximum value of projected area of the battery including an outer casing of the battery, and the rated capacity is 3 Ah or more.
A grinding wheel comprising: a metal bond matrix structure; a plurality of primary abrasive diamond particles within the matrix structure and having a primary particle size; and a plurality of secondary abrasive particles within the matrix structure and having a secondary particle size that is less than or equal to the primary particle size, wherein one of the primary abrasive diamond particles and secondary abrasive particles comprises resin bond diamond particles, characterized in that, either the plurality of primary abrasive diamond particles comprises resin bond diamond particles and the plurality of secondary abrasive particles comprises metal bond diamond particles, or the plurality of secondary abrasive particles comprises resin bond diamond particles and the plurality of primary abrasive diamond particles comprises metal bond diamond particles. a metal bond matrix structure; a plurality of primary abrasive diamond particles within the matrix structure and having a primary particle size; and a plurality of secondary abrasive particles within the matrix structure and having a secondary particle size that is less than or equal to the primary particle size, wherein one of the primary abrasive diamond particles and secondary abrasive particles comprises resin bond diamond particles, characterized in that, either the plurality of primary abrasive diamond particles comprises resin bond diamond particles and the plurality of secondary abrasive particles comprises metal bond diamond particles, or the plurality of secondary abrasive particles comprises resin bond diamond particles and the plurality of primary abrasive diamond particles comprises metal bond diamond particles.
A detection system designed to be fitted to a motor vehicle, the detection system having at least one optical sensor delimited by at least one optical surface of which the shape and orientation define a detection field of the optical sensor, and at least one cleaning device for this optical surface, in which the cleaning device has a delivery manifold for delivering at least one cleaning and/or drying fluid, said delivery manifold being movable, relative to the optical surface, between a first or idle position in which it does not deliver any fluid and a second position called end deployed, characterized in that the delivery manifold is outside the detection field of the optical sensor in all of the positions of the delivery manifold between the first and second positions.
An electrically driven working vehicle comprising: an engine; a generator motor connected mechanically to the engine; a generator inverter for controlling the amount of power generated by the generator motor; a traveling motor for driving a vehicle body, an electrical storage device connected electrically to the generator inverter and to the traveling motor; a forward/reverse switching device for switching the traveling direction of the vehicle body; a voltage detection device for detecting the voltage of the electrical storage device; a speed detection device for detecting a speed signal of the traveling motor, and a control device (100, 100b) for receiving the voltage of the electrical storage device detected by the voltage detection device and the speed signal detected by the speed detection device, characterized in that the control device (100, 100b) further outputting to the generator inverter an instruction to increase the amount of power generated by the generator motor when the voltage of the electrical storage device is equal to or lower than a maximum voltage level and the speed signal of the traveling motor given upon switching of the forward/reverse switching device is equal to or lower than a predetermined speed that is higher than zero. an engine; a generator motor connected mechanically to the engine; a generator inverter for controlling the amount of power generated by the generator motor; a traveling motor for driving a vehicle body, an electrical storage device connected electrically to the generator inverter and to the traveling motor; a forward/reverse switching device for switching the traveling direction of the vehicle body; a voltage detection device for detecting the voltage of the electrical storage device; a speed detection device for detecting a speed signal of the traveling motor, and a control device (100, 100b) for receiving the voltage of the electrical storage device detected by the voltage detection device and the speed signal detected by the speed detection device, characterized in that the control device (100, 100b) further outputting to the generator inverter an instruction to increase the amount of power generated by the generator motor when the voltage of the electrical storage device is equal to or lower than a maximum voltage level and the speed signal of the traveling motor given upon switching of the forward/reverse switching device is equal to or lower than a predetermined speed that is higher than zero.
Drive unit for a linear compressor having a frame and an oscillating body connected to the frame by at least one diaphragm spring and a coil spring and guided to allow linear reciprocating motion with respect to the frame, wherein the coil spring extends around a straight line, along which the centre of gravity of the oscillating body can move in a reciprocating motion, and the diaphragm spring comprises a plurality of bent arms, one end of each arm being fixed to the frame and another end to the oscillating body, characterised in that the straight line is part of an axis of symmetry of the diaphragm spring.
A composition for use in the treatment or prevention of a parasitic infestation in an animal comprising fipronil in a first veterinarily acceptable carrier; and amitraz in a second veterinarily acceptable carrier; and optionally at least one crystallization inhibitor, wherein the fipronil and first veterinarily acceptable carrier are compartmentalized together, and not in fluid communication with, the amitraz and the second veterinarily acceptable carrier, and wherein the first and second veterinarily acceptable carriers are different.
A control system for controlling a household electrical appliance, the control system for controlling the household electrical appliance comprising: a mobile terminal sending a control signal for controlling the household electrical appliance; and a communication device connected to the household electrical appliance, receiving the control signal from the mobile terminal, and sending the received control signal to the household electrical appliance, characterized in that the mobile terminal is adapted to send a request signal to the communication device when a user performs a control for sending the request signal, the request signal is a signal for requesting the communication device to send an information about an operational status of the household electrical appliance after receiving the control signal from the mobile terminal, the communication device is, after receiving the request signal from the mobile terminal, adapted to obtain and send the information about the operational status of the household electrical appliance after receiving the control signal, the mobile terminal further is adapted to inform the user of the information about the operational status of the household electrical appliance after receiving the control signal sent from the communication device, and the mobile terminal yet further is adapted to inform the user of a notice about a transmission completion of the control signal to the household electrical appliance and simultaneously suggest the user to perform the control for sending the request signal. a mobile terminal sending a control signal for controlling the household electrical appliance; and a communication device connected to the household electrical appliance, receiving the control signal from the mobile terminal, and sending the received control signal to the household electrical appliance, characterized in that the mobile terminal is adapted to send a request signal to the communication device when a user performs a control for sending the request signal, the request signal is a signal for requesting the communication device to send an information about an operational status of the household electrical appliance after receiving the control signal from the mobile terminal, the communication device is, after receiving the request signal from the mobile terminal, adapted to obtain and send the information about the operational status of the household electrical appliance after receiving the control signal, the mobile terminal further is adapted to inform the user of the information about the operational status of the household electrical appliance after receiving the control signal sent from the communication device, and the mobile terminal yet further is adapted to inform the user of a notice about a transmission completion of the control signal to the household electrical appliance and simultaneously suggest the user to perform the control for sending the request signal.
A method for identifying a cell unit and/or determining a culture condition, comprising the steps of: (a) providing one or more cell units each comprising one or more cells and exposing the cell units to desired culture conditions; (b) microencapsulating the cell unit(s) obtained in step (a) together with one or more first labels; (c) exposing the microencapsulated cell unit(s) obtained in step (b) to desired culture conditions; (d) repeating the microencapsulation of step (b) together with a second label; and (e) detecting the first label and the second label, wherein the first and second labels are different. (a) providing one or more cell units each comprising one or more cells and exposing the cell units to desired culture conditions; (b) microencapsulating the cell unit(s) obtained in step (a) together with one or more first labels; (c) exposing the microencapsulated cell unit(s) obtained in step (b) to desired culture conditions; (d) repeating the microencapsulation of step (b) together with a second label; and (e) detecting the first label and the second label,
A cleaning head (1, 1A, 1B) onto which a cleaning sheet for wiping a surface to be cleaned is attached and which is moved on the surface to be cleaned in a predetermined direction for wiping the surface to be cleaned, the cleaning head (1, 1A, 1B) comprising: a first member (11, 11A, 11B) arranged on a side facing the surface to be cleaned; and a second member (12, 12A, 12B) arranged to abut on the first member (11, 11A, 11B) at least partially on an opposite side of the surface to be cleaned, wherein a surface of the first member (11, 11A, 11B) on the side facing the surface to be cleaned is formed in a plane shape, wherein the second member (12, 12A, 12B) is a member relatively more rigid than the first member (11, 11A, 11B), characterized in that the second member (12, 12A, 12B) has a protrusion part (122, 122A, 122B) on an upstream side of an edge of a part abutting on the first member (11, 11A, 11B) in a moving direction of the cleaning head (1, 1A, 1B), the protrusion part (122, 122A, 122B) protruding toward the side of the first member (11, 11A, 11B) more than the edge in the moving direction of the cleaning head (1, 1A, 1B), and and wherein the first member (11, 11A, 11B) has a recess part (112, 112A) which fits the protrusion part (122, 122A, 122B) on an upstream side of an edge of a part abutting on the second member (12, 12A, 12B) in the moving direction of the cleaning head (1, 1A, 1B). a first member (11, 11A, 11B) arranged on a side facing the surface to be cleaned; and a second member (12, 12A, 12B) arranged to abut on the first member (11, 11A, 11B) at least partially on an opposite side of the surface to be cleaned, wherein a surface of the first member (11, 11A, 11B) on the side facing the surface to be cleaned is formed in a plane shape, wherein the second member (12, 12A, 12B) is a member relatively more rigid than the first member (11, 11A, 11B), characterized in that the second member (12, 12A, 12B) has a protrusion part (122, 122A, 122B) on an upstream side of an edge of a part abutting on the first member (11, 11A, 11B) in a moving direction of the cleaning head (1, 1A, 1B), the protrusion part (122, 122A, 122B) protruding toward the side of the first member (11, 11A, 11B) more than the edge in the moving direction of the cleaning head (1, 1A, 1B), and and wherein the first member (11, 11A, 11B) has a recess part (112, 112A) which fits the protrusion part (122, 122A, 122B) on an upstream side of an edge of a part abutting on the second member (12, 12A, 12B) in the moving direction of the cleaning head (1, 1A, 1B).