mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor unit for a folding blade wind turbine , said turbine comprising at least two blades rotatable with respect to each other between an open position and a folded position, wherein, in said open position, said at least two blades are arranged angularly spaced from each other in order to be able to be affected by the wind to bring the rotor body into rotation about a rotor axis (R), and wherein, in said folded position, said at least two blades are arranged angularly close to each other; said rotor unit comprising: - a rotor body arranged to rotate about the rotor axis (R), said rotor body being connectable to an electric generator in order to generate electric energy by the rotation of the rotor body about said rotor axis (R); - at least two blade folding structures connected to the rotor body and each comprising a blade fastening portion suitable for fastening an end portion of each blade of said at least two blades to a respective blade folding structure ; characterized in that : - said at least two blade folding structures are pivotally connected to each other about a single hinge axis (P); - the hinge axis (P) is tilted with respect to the rotor axis (R) according to a preset tilt angle (b). - a rotor body arranged to rotate about the rotor axis (R), said rotor body being connectable to an electric generator in order to generate electric energy by the rotation of the rotor body about said rotor axis (R); - at least two blade folding structures connected to the rotor body and each comprising a blade fastening portion suitable for fastening an end portion of each blade of said at least two blades to a respective blade folding structure ; - said at least two blade folding structures are pivotally connected to each other about a single hinge axis (P); - the hinge axis (P) is tilted with respect to the rotor axis (R) according to a preset tilt angle (b).
Electrical terminal block , with a terminal housing , with at least two conductor terminal elements arranged therein and with two current bars , wherein the current bars each have a connecting section , a first resilient contact section and a second resilient contact section , wherein the connecting sections are each assigned to a conductor terminal element , the first contact sections together forming a first contact region and the second contact sections together forming a second contact region for receiving and contacting the plug of a test plug or a isolating plug, wherein the first contact sections contact each other when no plug is inserted, so that the two conductor terminal elements are electrically connected to one another via the two current bars , and the second contact sections are spaced apart from one another when no plug is inserted, wherein the second contact region of the current bars is arranged in front of the first contact region of the current bars in the insertion direction of the plug , and wherein the two current bars each consist of two individual metal strips which are electrically conductively connected to one another, wherein the two connecting sections are each designed on a first metal strip and the contact sections together are each formed by a second metal strip , characterized in that the first metal strips have a stepped area with at least two steps at their end facing away from the connecting section , that the two second metal strips are fastened to two mutually opposite steps of the stepped area of the first metal strips and that at least one first step and one second step are provided on the stepped area and that the first step is arranged behind the second step in the insertion direction (E) of the plug .
A method of determining an acquisition guidance path of a vehicle , the method comprising: defining a desired guidance path for travel by the vehicle ; determining a first acquisition factor of the acquisition guidance path between the vehicle 812) and the desired guidance path ; determining a second acquisition factor; and calculating the acquisition guidance path based on the first acquisition factor and the second acquisition factor to control travel of the vehicle to the desired guidance path , characterized in that the second acquisition factor defines a ratio between a heading error and a lateral error of the acquisition guidance path. defining a desired guidance path for travel by the vehicle ; determining a first acquisition factor of the acquisition guidance path between the vehicle 812) and the desired guidance path ; determining a second acquisition factor; and calculating the acquisition guidance path based on the first acquisition factor and the second acquisition factor to control travel of the vehicle to the desired guidance path , characterized in that the second acquisition factor defines a ratio between a heading error and a lateral error of the acquisition guidance path.
A system for selecting a ride mode of a vehicle , the system comprising: a first switch , disposed on the vehicle in proximity to a rider for generating a first input signal to switch the vehicle to one of a first mode and a second mode from an idle mode as the ride mode of the vehicle ; a second switch , disposed on the vehicle in proximity to the rider for generating a second input signal to switch between the first mode and the second mode; and a control unit , the control unit is communicably coupled to the first switch and the second switch , the control unit is configured to select the ride mode to be one of the idle mode, the first mode, and the second mode, based on a combination of one or more vehicle parameters, the first signal, and the second signal in real-time, characterized in that the control unit is configured to prohibit the switching from the second mode to the first mode on receiving the second input signal when the throttle input value is greater than a second throttle threshold and/or the vehicle speed is greater than a threshold speed. a first switch , disposed on the vehicle in proximity to a rider for generating a first input signal to switch the vehicle to one of a first mode and a second mode from an idle mode as the ride mode of the vehicle ; a second switch , disposed on the vehicle in proximity to the rider for generating a second input signal to switch between the first mode and the second mode; and a control unit , the control unit is communicably coupled to the first switch and the second switch , the control unit is configured to select the ride mode to be one of the idle mode, the first mode, and the second mode, based on a combination of one or more vehicle parameters, the first signal, and the second signal in real-time, characterized in that the control unit is configured to prohibit the switching from the second mode to the first mode on receiving the second input signal when the throttle input value is greater than a second throttle threshold and/or the vehicle speed is greater than a threshold speed.
An energy saving process for making whole grain flour, comprising continuously and repeatedly performing the following steps: - providing a cleaned whole cereal grain kernel including endosperm, germ and bran components; - spraying the cleaned whole cereal grain with a water containing a solute to uniformly wet the grain kernel surface, said solute being a salt or a sugar; - preconditioning the wet grain kernel to effect a moisture adsorption to within a predetermined range; - blanching the moisturized preconditioned grain kernel in an atmosphere of saturated steam to at least partially gelatinize and denature the grain kernel components and to hydrate with steam condensate the blanched grain kernel; - conditioning the blanched and hydrated grain kernel to stabilize the grain kernel to a desired moisture content; - milling the conditioned grain kernel by to yield a bimodal mixture of a coarse-grind material and a fine-grind material; - hot-air drying the milled material, and cooling the material; - screening and classifying the cooled material to separate and recover a fine milled material of size from 63 microns to under 355 microns (under 45 US mesh to 230 US mesh) as a whole grain flour, and to separate a coarse milled material of greater than 355 microns (45 US mesh). - providing a cleaned whole cereal grain kernel including endosperm, germ and bran components; - spraying the cleaned whole cereal grain with a water containing a solute to uniformly wet the grain kernel surface, said solute being a salt or a sugar; - preconditioning the wet grain kernel to effect a moisture adsorption to within a predetermined range; - blanching the moisturized preconditioned grain kernel in an atmosphere of saturated steam to at least partially gelatinize and denature the grain kernel components and to hydrate with steam condensate the blanched grain kernel; - conditioning the blanched and hydrated grain kernel to stabilize the grain kernel to a desired moisture content; - milling the conditioned grain kernel by to yield a bimodal mixture of a coarse-grind material and a fine-grind material; - hot-air drying the milled material, and cooling the material; - screening and classifying the cooled material to separate and recover a fine milled material of size from 63 microns to under 355 microns (under 45 US mesh to 230 US mesh) as a whole grain flour, and to separate a coarse milled material of greater than 355 microns (45 US mesh).
Current collector having at least one sliding contact for making electrical contact with a conductor profile of a conductor rail and at least one antenna for engagement in a longitudinal slot of the conductor profile running in a longitudinal direction (L) of the conductor rail , wherein the sliding contact and the antenna can be moved together by means of a feed device of the current collector in a feed direction (Z) towards the conductor profile , wherein the antenna is mounted on the current collector to be movable in feed direction (Z) with respect to the sliding contact , characterised in that at least one compensating element , which presses the antenna in feed direction (Z) towards the conductor rail , is provided between sliding contact and antenna , wherein the antenna is arranged in an antenna holder movable with respect to the sliding contact in feed direction (Z), and wherein at least one spacer element is arranged on the antenna holder for sliding or rolling on the conductor profile .
A nitrided part or soft nitrided part made of a steel material comprising, by mass%, C: 0.05 to 0.3%, Si: 0.05 to 1.5%, Mn: 0.2 to 1.5%, P: 0.025% or less, S: 0.003 to 0.05%, Cr: 0.5 to 2.0%, Al: 0.01 to 0.05%, and N: 0.003 to 0.025% optionally further comprising: Mo: 0.01 to less than 0.50%, V: 0.01 to less than 0.50%, Cu: 0.01 to 0.50%, and/or Ni: 0.01 to 0.50%, and having a balance of Fe and impurities, wherein, the surface layer comprises a compound layer containing iron, nitrogen, and carbon and a nitrogen diffusion layer positioned below the compound layer, said compound layer consists of an ε single phase, said ε single phase has a thickness of 8 to 30 μm and a Vicker's hardness of 680HV or more, and said ε single phase has a volume ratio of pores of less than 10%, wherein the wear depth after application of surface pressure being 1600 MPa of repeated 2x10 6 cycles is 15 μm or less and wherein a maximum surface pressure at the fatigue limit is 1800 MPa or more, wherein the number of tests reached 10 7 without pitting occurring in the small roller test piece is defined as the fatigue limit, wherein the wear depth and the fatigue limit are determined as indicated in the description. C: 0.05 to 0.3%, Si: 0.05 to 1.5%, Mn: 0.2 to 1.5%, P: 0.025% or less, S: 0.003 to 0.05%, Cr: 0.5 to 2.0%, Al: 0.01 to 0.05%, and N: 0.003 to 0.025% Mo: 0.01 to less than 0.50%, V: 0.01 to less than 0.50%, Cu: 0.01 to 0.50%, and/or Ni: 0.01 to 0.50%, and having a balance of Fe and impurities, wherein, the surface layer comprises a compound layer containing iron, nitrogen, and carbon and a nitrogen diffusion layer positioned below the compound layer, said compound layer consists of an ε single phase, said ε single phase has a thickness of 8 to 30 μm and a Vicker's hardness of 680HV or more, and said ε single phase has a volume ratio of pores of less than 10%, having a balance of Fe and impurities, wherein, the surface layer comprises a compound layer containing iron, nitrogen, and carbon and a nitrogen diffusion layer positioned below the compound layer, said compound layer consists of an ε single phase, said ε single phase has a thickness of 8 to 30 μm and a Vicker's hardness of 680HV or more, and said ε single phase has a volume ratio of pores of less than 10%, wherein the wear depth after application of surface pressure being 1600 MPa of repeated 2x10 6 cycles is 15 μm or less and wherein a maximum surface pressure at the fatigue limit is 1800 MPa or more, wherein the number of tests reached 10 7 without pitting occurring in the small roller test piece is defined as the fatigue limit, wherein the wear depth and the fatigue limit are determined as indicated in the description.
A process comprising reacting formylbutadiene of formula B wherein R 1 is hydrogen, methyl, or ethyl; R 2 is hydrogen, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; R 3 is hydrogen, methyl, or ethyl; with a diene of formula C wherein R 4 , R 5 , R 6 , R 7 , R 8 and R 9 are independently selected from hydrogen, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; resulting in compounds of formulae (Ia) and (Ib) characterized in that in the presence of a methylenation catalyst and formalin the formylbutadiene of formula B is prepared in situ from an α,β-unsaturated aldehyde of formula A R 1 is hydrogen, methyl, or ethyl; R 2 is hydrogen, C 1 -C 6 alkyl, or C 2 -C 6 alkenyl; R 3 is hydrogen, methyl, or ethyl;
An apparatus, comprising: a plurality of compute units of an artificial neural network configured to store weight values (W 1 , W 2 , W 3 ) for the artificial neural network, wherein a first of the plurality of compute units is configured to: receive input data from a unified buffer shared among the plurality of compute units, and perform operations on the input data; characterized in that the first of the plurality of compute units is further configured to: shift at least a portion of the input data to a second of the plurality of compute units without transferring the at least a portion of the input data through the unified buffer; and a local data link configured to transfer the at least a portion of the input data between the first of the plurality of compute units and the second of the plurality of compute units, wherein the local data link is not coupled to the unified buffer nor to a unified data bus. a plurality of compute units of an artificial neural network configured to store weight values (W 1 , W 2 , W 3 ) for the artificial neural network, wherein a first of the plurality of compute units is configured to: receive input data from a unified buffer shared among the plurality of compute units, and perform operations on the input data; characterized in that the first of the plurality of compute units is further configured to: shift at least a portion of the input data to a second of the plurality of compute units without transferring the at least a portion of the input data through the unified buffer; and receive input data from a unified buffer shared among the plurality of compute units, and perform operations on the input data; characterized in that the first of the plurality of compute units is further configured to: shift at least a portion of the input data to a second of the plurality of compute units without transferring the at least a portion of the input data through the unified buffer; and a local data link configured to transfer the at least a portion of the input data between the first of the plurality of compute units and the second of the plurality of compute units, wherein the local data link is not coupled to the unified buffer nor to a unified data bus.
Process for the preparation of complexes of 68 Ga by a complexing reaction between a chelator-functionalized molecule and 68 Ga is carried out in a buffered aqueous solution having a pH range of 3.0-4.5 characterized in that said complexing reaction is carried out in the presence of a compound capable of sequestering metal cations added at the beginning of the complexing reaction, said sequestering agent being chosen in the group consisting of: crown ethers, 1,10-phenantroline and 2,2'-Bipyridine .
An operation device , comprising: a magnetic sensor disposed on a first board ; and a trigger button used for operation input by a user, characterized in that the trigger button is in a rotatable manner mounted to a rotating shaft , relative to a second board for the trigger button and has a helical torsion coil spring which is wound around the rotating shaft and inserted with one end into a spring supporting portion of said trigger button and inserted with another end into a spring fixing portion provided to the second board , in such a manner that a portion of the spring which extends from the rotating shaft to the spring supporting portion is operated in a direction toward the magnetic sensor along with an operation performed on the trigger button by the user, wherein the spring is formed of a non-magnetic material that comprises phosphor bronze. a magnetic sensor disposed on a first board ; and a trigger button used for operation input by a user, characterized in that the trigger button is in a rotatable manner mounted to a rotating shaft , relative to a second board for the trigger button and has a helical torsion coil spring which is wound around the rotating shaft and inserted with one end into a spring supporting portion of said trigger button and inserted with another end into a spring fixing portion provided to the second board , in such a manner that a portion of the spring which extends from the rotating shaft to the spring supporting portion is operated in a direction toward the magnetic sensor along with an operation performed on the trigger button by the user, wherein the spring is formed of a non-magnetic material that comprises phosphor bronze.
A system, comprising: a rigid plate configured to be placed on the body of a patient, the rigid plate including a plurality of unique imaging fiducials ; an electromagnetic position sensor configured to provide position information of the rigid plate in a first coordinate system; a plurality of body surface electrodes coupled to the rigid plate, each body surface electrode configured to be placed on the thorax of the patient and further configured to measure cardiac electrical activity information of the patient in a second coordinate system; and a control unit configured to receive an image scan of the patient, the image scan including the rigid plate and the plurality of body surface electrodes, receive the cardiac electrical activity information from the plurality of body surface electrodes in the second coordinate system, receive position information of the rigid plate from the electromagnetic position sensor in the first coordinate system, use the position information of the rigid plate in the first coordinate system to construct a transformation matrix and use the transformation matrix to transform the cardiac electrical activity information received from the plurality of body surface electrodes from the second coordinate system into the first coordinate system. a rigid plate configured to be placed on the body of a patient, the rigid plate including a plurality of unique imaging fiducials ; an electromagnetic position sensor configured to provide position information of the rigid plate in a first coordinate system; a plurality of body surface electrodes coupled to the rigid plate, each body surface electrode configured to be placed on the thorax of the patient and further configured to measure cardiac electrical activity information of the patient in a second coordinate system; and a control unit configured to receive an image scan of the patient, the image scan including the rigid plate and the plurality of body surface electrodes, receive the cardiac electrical activity information from the plurality of body surface electrodes in the second coordinate system, receive position information of the rigid plate from the electromagnetic position sensor in the first coordinate system, use the position information of the rigid plate in the first coordinate system to construct a transformation matrix and use the transformation matrix to transform the cardiac electrical activity information received from the plurality of body surface electrodes from the second coordinate system into the first coordinate system.
A method for use in a wireless transmit/receive unit, WTRU, for capillary network device registration and triggering, the method comprising: receiving , by the WTRU, a first registration message from the capillary network device, wherein the WTRU acts as a gateway for communication between the capillary network device and a wireless communication network; assigning, by the WTRU, a capillary network device identifier, CNDID to the capillary network device; transmitting , by the WTRU, to the capillary network device, one or more fields of the assigned capillary network device identifier, CNDID ; establishing a connection with the wireless communication network; transmitting , by the WTRU, a second registration message associated with the capillary network device to a machine type communications, MTC, server via a cellular radio access network, RAN, of the wireless communication network, wherein the second registration message includes the CNDID of the capillary network device; and wherein the method is characterized by the steps of receiving, by the WTRU, a first trigger message including an application identifier, ID , that identifies an application on the capillary network device from a machine type communications-interworking function, MTC-IWF, via the cellular RAN; and transmitting, by the WTRU, a second trigger message to the capillary network device associated with the application ID , and wherein the WTRU maintains a mapping between application IDs and CNDIDs . receiving , by the WTRU, a first registration message from the capillary network device, wherein the WTRU acts as a gateway for communication between the capillary network device and a wireless communication network; assigning, by the WTRU, a capillary network device identifier, CNDID to the capillary network device; transmitting , by the WTRU, to the capillary network device, one or more fields of the assigned capillary network device identifier, CNDID ; establishing a connection with the wireless communication network; transmitting , by the WTRU, a second registration message associated with the capillary network device to a machine type communications, MTC, server via a cellular radio access network, RAN, of the wireless communication network, wherein the second registration message includes the CNDID of the capillary network device; and wherein the method is characterized by the steps of receiving, by the WTRU, a first trigger message including an application identifier, ID , that identifies an application on the capillary network device from a machine type communications-interworking function, MTC-IWF, via the cellular RAN; and transmitting, by the WTRU, a second trigger message to the capillary network device associated with the application ID , and wherein the WTRU maintains a mapping between application IDs and CNDIDs .
A fire-resistive cable system comprising an electrical cable housed in a fiberglass-reinforced thermosetting resin conduit, wherein the electrical cable comprises a conductor and has one couple of mica tapes surrounding the conductor, the couple of mica tapes being formed of a first mica tape and a second mica tape wound around the first mica tape, each of the first and the second mica tape including a mica layer attached to a backing layer, and the mica layer of the first mica tape faces and contacts the mica layer of the second mica tape; and wherein the fiberglass-reinforced thermosetting resin conduit is made of a material comprising fibers of a glass selected from E-glass and E-CR-glass, and a resin.