mhurhangee/ep-ind-claims huggingface dataset:
Agricultural trailed implement, in particular rear-mounted mower, for an agricultural tractor vehicle, which trailed implement is couplable to the rear of the tractor vehicle and is movable by the tractor vehicle, wherein the trailed implement has at least one trailed implement unit which is shiftable between a working position and a first and a second transport position in such a manner that the respective trailed implement unit is pivotable out of the working position, in which it extends substantially in the horizontal direction and protrudes laterally in relation to the tractor vehicle, upwards by approximately 90°, preferably by more than 90°, about a first pivot axis extending in or approximately in the direction of travel into a first transport position in which said trailed implement unit extends substantially in a vertical or vertically diagonal direction, wherein the respective trailed implement unit is additionally shiftable in such a manner that the respective trailed implement unit is pivotable about a second pivot axis, characterized in that the respective trailed implement unit has a boom which is fastened to a basic frame of the trailed implement and is shiftable about the first pivot axis relative to the basic frame between the working position and the transport positions, wherein a working cylinder for shifting the boom between the working position and the transport positions is coupled at one end to the boom and at the other end to the basic frame, and wherein a first part of the boom together with a second part of same is shiftable about the first pivot axis relative to the basic frame and the second part of the boom is additionally shiftable about the second pivot axis relative to the first part such that the trailed implement unit is pivoted rearwards or forwards with respect to the direction of travel in the second transport position.
A microchannel heat exchanger (24, 28) comprising: a pair of spaced manifold structures (30, 34) each having a manifold wall, and a plurality of heat transfer tubes (32, 132, 232, 332, 432, 60, 70, 80, 90) extending between said manifold structures in generally parallel relationship with each other and being in fluid communication with said manifold structures, each of said heat transfer tubes having a plurality of parallel channels (44, 46) spaced from each other, and said heat transfer tubes being inserted in openings (40, 54, 64) in said manifold structures, said heat transfer tubes being secured to said manifold structures by an initially fluent and then solidifying securing material (42, 52), characterised in that said openings are formed in said manifold structures by deforming the material of said manifold wall of said manifold structures outwardly away from an internal passage in said manifold structures such that edges of said heat transfer tubes just slightly extend inwardly of said manifold wall and are positioned away from the edges of said openings to minimize the likelihood of said securing material at least partially blocking any of said plurality of channels. a pair of spaced manifold structures (30, 34) each having a manifold wall, and a plurality of heat transfer tubes (32, 132, 232, 332, 432, 60, 70, 80, 90) extending between said manifold structures in generally parallel relationship with each other and being in fluid communication with said manifold structures, each of said heat transfer tubes having a plurality of parallel channels (44, 46) spaced from each other, and said heat transfer tubes being inserted in openings (40, 54, 64) in said manifold structures, said heat transfer tubes being secured to said manifold structures by an initially fluent and then solidifying securing material (42, 52), characterised in that said openings are formed in said manifold structures by deforming the material of said manifold wall of said manifold structures outwardly away from an internal passage in said manifold structures such that edges of said heat transfer tubes just slightly extend inwardly of said manifold wall and are positioned away from the edges of said openings to minimize the likelihood of said securing material at least partially blocking any of said plurality of channels.
A deuterium-enriched compound of Formula XI: or a stereoisomer or pharmaceutically acceptable salt form thereof; wherein: R 1 through R 17 are independently hydrogen or D; and Z is hydrogen or D, provided that the abundance of deuterium in Z is at least 50%. R 1 through R 17 are independently hydrogen or D; and Z is hydrogen or D, provided that the abundance of deuterium in Z is at least 50%.
An electronic device for the location of a firearm, comprising: - a processing module; - a storage module operatively associated with said processing module; - a detection module of a shot fired from a firearm operatively associated with said processing module, - a count module for the shots provided in the firearm magazine operatively connected to the processing module; - a transmit/receive module, operatively associated with the processing module, to allow the processing module to transmit/receive information representative of the position of the electronic device, wherein said transmit/receive module comprises a cellular device arranged to establish a communication in a cellular system, of the type belonging to the group GSM, UMTS, HSDPA, through at least one radio base station of the cellular system; wherein said processing module is configured to transmit by means of the transmit/receive module information representative of a shot fired from the firearm; said electronic device being characterized by the fact that said detection module comprises an acceleration sensor suitable to generate an electric signal after a mechanical stress, acting on the electronic device, caused by an actual shot or a false shot for example, has been experienced by the electronic device; wherein the processing module is arranged to receive the electric signal generated by the detection module and compare the intensity and frequency of the electric signal to the reference values stored in the storage module representative of the at least two different stress causes, such as an actual shot and a false shot. - a processing module; - a storage module operatively associated with said processing module; - a detection module of a shot fired from a firearm operatively associated with said processing module, - a count module for the shots provided in the firearm magazine operatively connected to the processing module; - a transmit/receive module, operatively associated with the processing module, to allow the processing module to transmit/receive information representative of the position of the electronic device, wherein said transmit/receive module comprises a cellular device arranged to establish a communication in a cellular system, of the type belonging to the group GSM, UMTS, HSDPA, through at least one radio base station of the cellular system;
Device for operating wind farm grid systems, in particular networking between the farm management system (farm master) and individual wind turbines, WKAs, of a wind farm by means of a central network for the purpose of data transmission in both directions, the data transmission taking place according to the OSI layer model from a physical layer 1 to a layer 2, characterised in that the wind farm grid system is configured as a ring with a central ring line and at least one farm ring line, wherein the farm management system (30, 31) is connected to a coupling module, which produces the connection to the central ring line, and the at least one farm ring line is connected by a further coupling module to the central ring line, and in that a wind farm protocol, WPP, with a WPP real-time driver controls both the data traffic on a central ring line and on a farm ring line and also the data traffic between the WKA and the farm ring line, wherein the WPP real-time driver is configured to bridge the IP layer, namely the layer 3 of the OSI model, and the UDP/TCP layer, namely the layer 4 of the OSI model, and the RPC layer, namely the layer 5 of the OSI model, and to produce a direct connection between the layer 2 and a WPP application layer.
A drive system for a vehicle, the drive system comprising: a rotatable housing having a first fluid chamber and a second fluid chamber, the first fluid chamber being in communication with the second fluid chamber; a first pump disposed in the housing for displacement of fluid in the first chamber, the first pump being coupled to an input shaft; a second pump disposed in the housing for displacement of fluid in the second chamber, the second pump being coupled to an output shaft; a body having a third fluid chamber wherein the third fluid chamber is in communication with the second fluid chamber; and a third pump disposed in the body for displacement of fluid in the third fluid chamber wherein the third pump is drivingly coupled to the housing. a rotatable housing having a first fluid chamber and a second fluid chamber, the first fluid chamber being in communication with the second fluid chamber; a first pump disposed in the housing for displacement of fluid in the first chamber, the first pump being coupled to an input shaft; a second pump disposed in the housing for displacement of fluid in the second chamber, the second pump being coupled to an output shaft; a body having a third fluid chamber wherein the third fluid chamber is in communication with the second fluid chamber; and a third pump disposed in the body for displacement of fluid in the third fluid chamber wherein the third pump is drivingly coupled to the housing.
A passive Q-switch pulse laser device comprising: a laser medium disposed between a pair of reflection means (12A, 12B) forming an optical resonator, the laser medium being configured to emit emission light when excited by specific excitation light; and a saturable absorber disposed on an optical axis of the optical resonator and on a downstream side of the laser medium between the pair of reflection means (12A, 12B), the saturable absorber having a transmittance configured to increase by absorption of the emission light, at least one of the pair of reflection means being a polarizing element, said polarizing element being a photonic crystal polarizing element including a photonic crystal, said polarizing element having different reflectances with respect to the respective pieces of emission light in polarization directions orthogonal to each other, characterized in that said photonic crystal comprises a plurality of layers each having a thickness substantially the same as the wavelength of the emission light. a laser medium disposed between a pair of reflection means (12A, 12B) forming an optical resonator, the laser medium being configured to emit emission light when excited by specific excitation light; and a saturable absorber disposed on an optical axis of the optical resonator and on a downstream side of the laser medium between the pair of reflection means (12A, 12B), the saturable absorber having a transmittance configured to increase by absorption of the emission light, at least one of the pair of reflection means being a polarizing element, said polarizing element being a photonic crystal polarizing element including a photonic crystal, said polarizing element having different reflectances with respect to the respective pieces of emission light in polarization directions orthogonal to each other, characterized in that said photonic crystal comprises a plurality of layers each having a thickness substantially the same as the wavelength of the emission light.
A constant current LED power supply circuit with maximum output power limiting circuit including a single-stage constant voltage power supply circuit, a DC-DC constant current output circuit, and a maximum output power limiting circuit of constant current LED power supply being connected with the single-stage constant voltage power supply circuit and the DC-DC constant current output circuit in the constant current LED power supply, wherein the maximum output power limiting circuit of constant current LED power supply includes a voltage stabilizing source circuit for setting DC-DC output current and an output power limiting circuit, characterized in that, the output power limiting circuit includes a second diode and a third diode; the cathode of the second diode is used to respectively connect an output end of the DC-DC constant current output circuit and the voltage input end of LED lamp; the anode of the second diode is connected to the anode of the third diode, and the cathode of the third diode is connected to a first end of a first capacitor of the stabilizing source circuit.
A method for detecting marker for the diagnosis of early Alzheimer's disease or mild cognitive impairment with CDR (Clinic Dementia Rating) 0.5-1.0 comprising: detecting expression of miR-206 existing in olfactory tissue sample for the diagnosis of the early Alzheimer's disease or the mild cognitive impairment with distinguishing cognitive impairment from depression.
A transmission apparatus comprising: a resource for an active system path; a resource for a standby system path; a controller (16a;30,16b) configured to carry out processing to secure a resource for a standby system path in response to detection that an active system path of a plurality of active system paths is likely to have a failure; and a switch configured to connect a transmission path for a main signal to the resource for the active system path or the resource for the standby system path; wherein the controller (16a;30,16b) comprises a failure sign detector (161;32) that determines which active path is likely to have a failure, and wherein, the resource for the active system path is an active system communicator, the resource for the standby system path is a standby system communicator, the resource for the standby system path is shared among a plurality of active system paths, the number of resources for the active system paths is more than the number of resources for the standby system paths, the switch is configured to connect some of the active system paths and the resource for the standby system path, so that a duplicated main signal is transmitted to the standby system path from the active system path with the detected sign of failure, and the failure sign detector (161;32) is configured, upon detecting that the active system path is likely to have a failure, to execute a delay adjusting processing to adjust to zero a delay difference between the main signal transmitted through the active system path and the main signal transmitted through the standby system path. a resource for an active system path; a resource for a standby system path; a controller (16a;30,16b) configured to carry out processing to secure a resource for a standby system path in response to detection that an active system path of a plurality of active system paths is likely to have a failure; and a switch configured to connect a transmission path for a main signal to the resource for the active system path or the resource for the standby system path; wherein the controller (16a;30,16b) comprises a failure sign detector (161;32) that determines which active path is likely to have a failure, and wherein, the resource for the active system path is an active system communicator, the resource for the standby system path is a standby system communicator, the resource for the standby system path is shared among a plurality of active system paths, the number of resources for the active system paths is more than the number of resources for the standby system paths, the switch is configured to connect some of the active system paths and the resource for the standby system path, so that a duplicated main signal is transmitted to the standby system path from the active system path with the detected sign of failure, and the failure sign detector (161;32) is configured, upon detecting that the active system path is likely to have a failure, to execute a delay adjusting processing to adjust to zero a delay difference between the main signal transmitted through the active system path and the main signal transmitted through the standby system path.
System comprising a) a machine for preparing drinks using product capsules for a food drink, the machine being configured to accept a plurality of different types of capsules, the machine comprising:. a receptacle designed to receive a capsule,. an acquisition sensor configured to acquire at least one identification characteristic specific to each type of capsule accepted by the machine,. a control unit connected to said acquisition sensor for receiving said identification characteristic,. communication means configured to enable the control unit to be connected to the Internet network and transmit said at least one identification characteristic, b) at least one computer server connected to the Internet configured to receive said at least one identification characteristic transmitted by said communication means, said server comprising a set of reference information relating to a range of capsule types and processing means for identifying the type of capsule used on the basis of said at least one identification characteristic received and the set of reference information, characterised in that the identification characteristic comprises a colour characteristic of the capsule casing. a) a machine for preparing drinks using product capsules for a food drink, the machine being configured to accept a plurality of different types of capsules, the machine comprising:. a receptacle designed to receive a capsule,. an acquisition sensor configured to acquire at least one identification characteristic specific to each type of capsule accepted by the machine,. a control unit connected to said acquisition sensor for receiving said identification characteristic,. communication means configured to enable the control unit to be connected to the Internet network and transmit said at least one identification characteristic,. a receptacle designed to receive a capsule,. an acquisition sensor configured to acquire at least one identification characteristic specific to each type of capsule accepted by the machine,. a control unit connected to said acquisition sensor for receiving said identification characteristic,. communication means configured to enable the control unit to be connected to the Internet network and transmit said at least one identification characteristic, b) at least one computer server connected to the Internet configured to receive said at least one identification characteristic transmitted by said communication means, said server comprising a set of reference information relating to a range of capsule types and processing means for identifying the type of capsule used on the basis of said at least one identification characteristic received and the set of reference information, characterised in that the identification characteristic comprises a colour characteristic of the capsule casing.
An aircraft engine assembly comprising a dual flow turbomachine as well as an attachment pylon for the turbomachine for attaching the turbomachine to a wing element of the aircraft, the assembly including thrust load pick-up rod interconnecting the turbomachine to the pylon, the turbomachine having an inter-flow compartment accommodating at least one lubricant tank, characterised in that it has a lubricant supply path fluidly interconnected to the tank, said path passing through a hollow internal zone of at least one of both thrust load pick-up rods.
A disconnector operating device, comprising: a motor capable of positive rotation and negative rotation; a main shaft configured to rotate according to an output from the motor and driving a main contact of the connected disconnector; and a driven shaft configured to rotate with the rotation of the main shaft, wherein a Geneva driver with a driving roller and a main shaft stopper plate are provided on the main shaft; the driven shaft is provided with a Geneva wheel with a slot for the driving roller to enter and exit and a driven shaft stopper plate; the Geneva wheel is configured to rotate while the driving roller moves along the slot according to the rotation of the Geneva driver; characterised in that a stop surface of the main shaft stopper plate and a stop surface of the driven shaft stopper plate collide with each other at a predetermined rotation angle to stop the rotation of the Geneva driver and the Geneva wheel. a motor capable of positive rotation and negative rotation; a main shaft configured to rotate according to an output from the motor and driving a main contact of the connected disconnector; and a driven shaft configured to rotate with the rotation of the main shaft, wherein a Geneva driver with a driving roller and a main shaft stopper plate are provided on the main shaft; the driven shaft is provided with a Geneva wheel with a slot for the driving roller to enter and exit and a driven shaft stopper plate; the Geneva wheel is configured to rotate while the driving roller moves along the slot according to the rotation of the Geneva driver; characterised in that a stop surface of the main shaft stopper plate and a stop surface of the driven shaft stopper plate collide with each other at a predetermined rotation angle to stop the rotation of the Geneva driver and the Geneva wheel.
Process for the separation of 1,3-butanediol and 1,4-butanediol from a mixture thereof comprising a preliminary step of mixing the synthesis products containing 1,3-butanediol with the synthesis product containing 1,4-butanediol and the further steps of (a) removing from said mixture, by one or more distillation operations, i. the solvent ii. a heavy fraction iii. a light fraction iv. a fraction including 1,4-butanediol, wherein at least one of said fractions (iii) and (iv) comprises 1,3-butanediol; (b) subjecting at least one of said fractions (iii) and (iv) comprising 1,3-butanediol to further distillation. (a) removing from said mixture, by one or more distillation operations, i. the solvent ii. a heavy fraction iii. a light fraction iv. a fraction including 1,4-butanediol, wherein at least one of said fractions (iii) and (iv) comprises 1,3-butanediol; i. the solvent ii. a heavy fraction iii. a light fraction iv. a fraction including 1,4-butanediol, (b) subjecting at least one of said fractions (iii) and (iv) comprising 1,3-butanediol to further distillation.
A multilayered graphene dispersion wherein multilayered graphene is dispersed in a liquid phase containing an organic solvent and a liquefied gas, said liquefied gas being dimethyl ether, wherein the blending mass fraction of said dimethyl ether in the liquid phase in which the multilayered graphene is dispersed is 60 to 90%.