mhurhangee/patent-ind-claim-en huggingface dataset:
Method for controlling a function of an application system (A1, A2, A3) of a means of transportation comprising the following steps: - sensorily detecting an activation signal generated by the user by a signal detection unit , - sensorily detecting a pointing gesture , which is performed three-dimensionally in space by a user and is sensed by means of a sensor ; - automatically assigning a spatial position on and/or within the means of transportation that is addressed by the pointing gesture , wherein the spatial position addressed by the pointing gesture is segmented on the basis of predefined 2D or 3D spatial segments (11-14, 31, 33, 41-43, 51, 53) in the form of seating positions (11-14) and is detected as a seating position (11-14) and, in response thereto - controlling the function in the form of an optimization of acoustic settings, specifically balance and/or fader, in accordance with the addressed spatial position , wherein the application system (A1, A2, A3) of the means of transportation - comprises an audio and/or entertainment system (A1). - sensorily detecting an activation signal generated by the user by a signal detection unit , - sensorily detecting a pointing gesture , which is performed three-dimensionally in space by a user and is sensed by means of a sensor ; - automatically assigning a spatial position on and/or within the means of transportation that is addressed by the pointing gesture , wherein the spatial position addressed by the pointing gesture is segmented on the basis of predefined 2D or 3D spatial segments (11-14, 31, 33, 41-43, 51, 53) in the form of seating positions (11-14) and is detected as a seating position (11-14) and, in response thereto - controlling the function in the form of an optimization of acoustic settings, specifically balance and/or fader, in accordance with the addressed spatial position , wherein the application system (A1, A2, A3) of the means of transportation - comprises an audio and/or entertainment system (A1).
An engine noise control system comprising: a broadband noise and vibration sensor configured to directly pick up engine noise from an engine of a vehicle and to generate a sense signal representative of the engine noise; an active noise control filter configured to generate a filtered sense signal from the sense signal; a loudspeaker configured to convert the filtered sense signal from the active noise control filter into anti-noise and to radiate the anti-noise to a listening position in an interior of the vehicle; wherein the filtered sense signal is configured so that the anti-noise reduces the engine noise at the listening position; characterized in that the engine noise control system further comprises an engine exhaust mount, and in that the broadband noise and vibration sensor is fastened to the engine exhaust mount. a broadband noise and vibration sensor configured to directly pick up engine noise from an engine of a vehicle and to generate a sense signal representative of the engine noise; an active noise control filter configured to generate a filtered sense signal from the sense signal; a loudspeaker configured to convert the filtered sense signal from the active noise control filter into anti-noise and to radiate the anti-noise to a listening position in an interior of the vehicle; wherein the filtered sense signal is configured so that the anti-noise reduces the engine noise at the listening position; characterized in that the engine noise control system further comprises an engine exhaust mount, and in that the broadband noise and vibration sensor is fastened to the engine exhaust mount.
A method of controlling a wind turbine comprising a tower supporting a rotor comprising a plurality of pitch-adjustable rotor blades , the method comprising: obtaining a movement signal indicative of a lateral movement of the tower; determining a pitch modulation signal, based on the movement signal, for actuating a rotor blade to produce a desired horizontal force (F x ) component to counteract the lateral movement of the tower; characterized in that the method further comprises: determining a radial force component (F radial ) acting on a rotor blade; determining a phase offset parameter for the rotor blade based on the radial force component; and, transforming the pitch modulation signal into a pitch reference offset signal (θ 1 , θ 2 , θ 3 ) for the rotor blade based on the phase offset parameter. obtaining a movement signal indicative of a lateral movement of the tower; determining a pitch modulation signal, based on the movement signal, for actuating a rotor blade to produce a desired horizontal force (F x ) component to counteract the lateral movement of the tower; characterized in that the method further comprises: determining a radial force component (F radial ) acting on a rotor blade; determining a phase offset parameter for the rotor blade based on the radial force component; and, transforming the pitch modulation signal into a pitch reference offset signal (θ 1 , θ 2 , θ 3 ) for the rotor blade based on the phase offset parameter. determining a radial force component (F radial ) acting on a rotor blade; determining a phase offset parameter for the rotor blade based on the radial force component; and, transforming the pitch modulation signal into a pitch reference offset signal (θ 1 , θ 2 , θ 3 ) for the rotor blade based on the phase offset parameter.
Drive train for an agricultural working vehicle , comprising a drive engine , a power-shift transmission , and a vehicle axle which is driven via the drive engine and the power-shift transmission , a rear-mounted transmission with at least two transmission ratios which is arranged between the power-shift transmission and the vehicle axle , it being possible for a first transmission ratio to be selected via a first shifting element which is arranged on a main shaft of the rear-mounted transmission , and for a second transmission ratio to be selected via a second shifting element which is arranged on a countershaft of the rear-mounted transmission , and a group transmission , which is arranged between the rear-mounted transmission and the vehicle axle , of countershaft design with a main shaft and a countershaft , a fixed gear being arranged on the main shaft of the group transmission , and a fixed gear being arranged on a shaft of the rear-mounted transmission , which shaft can be connected via the second shifting element to the countershaft of the rear-mounted transmission and is arranged coaxially with respect to the countershaft of the rear-mounted transmission , the abovementioned fixed gears forming an output-side spur gear stage of the rear-mounted transmission , and, moreover, the fixed gear which is arranged on the main shaft of the group transmission forming, together with an idler gear which is arranged on the countershaft of the group transmission , one of a plurality of shifting groups of the group transmission .
Aircraft or spacecraft having a structural component with a battery arrangement integrated therein, the battery arrangement comprising: at least one battery ; and two supporting, integrally bonded, multi-layered laminates , between which the at least one battery is held on both sides via battery holders , wherein each multi-layered laminate has a cooling plate layer and a current collector layer , wherein the at least one battery is coupled electrically to the current collector layer , wherein the cooling plate layer is manufactured integrally with a multiplicity of fluid ducts from a metal material. at least one battery ; and two supporting, integrally bonded, multi-layered laminates , between which the at least one battery is held on both sides via battery holders , wherein each multi-layered laminate has a cooling plate layer and a current collector layer , wherein the at least one battery is coupled electrically to the current collector layer , wherein the cooling plate layer is manufactured integrally with a multiplicity of fluid ducts from a metal material.
Triblock polymer of formula B-A-B in which the symbol A represents a "central" block which is a statistical copolymer comprising units of a 1,3-diene and more than 50 mol% of ethylene units, and the symbols B each represent an "end" block which is a polyethylene with a melting point of greater than 90°C and a number-average molar mass of greater than or equal to 2000 g/mol and less than or equal to 10 000 g/mol, the content of the ethylene units in the central block being expressed as a molar percentage relative to the number of moles of monomer units constituting the central block.
A system for verifying turbojet engine parts, the turbojet engine being accommodated in a nacelle compartment delimited by a nacelle wall and including at least one part equipped with an RFID tag , the verification system being characterized in that it comprises: ▪ an inner antenna accommodated in the nacelle compartment , the inner antenna being arranged to allow the exchange of radiofrequency signals with the RFID tag , ▪ an interface device located at least partially inside the nacelle compartment and including an access point located outside the nacelle compartment, the interface device being arranged to be able to be connected to an interrogator device arranged to communicate with the RFID tag, and ▪ a transmission line connecting the interface device to the inner antenna . ▪ an inner antenna accommodated in the nacelle compartment , the inner antenna being arranged to allow the exchange of radiofrequency signals with the RFID tag , ▪ an interface device located at least partially inside the nacelle compartment and including an access point located outside the nacelle compartment, the interface device being arranged to be able to be connected to an interrogator device arranged to communicate with the RFID tag, and ▪ a transmission line connecting the interface device to the inner antenna .
A synergistic combination comprising an antibody specific for CD19 wherein said antibody comprises an HCDR1 region of sequence SYVMH (SEQ ID NO: 1), an HCDR2 region of sequence NPYNDG (SEQ ID NO: 2), an HCDR3 region of sequence GTYYYGTRVFDY (SEQ ID NO: 3), an LCDR1 region of sequence RSSKSLQNVNGNTYLY (SEQ ID NO: 4), an LCDR2 region of sequence RMSNLNS (SEQ ID NO: 5), and an LCDR3 region of sequence MQHLEYPIT (SEQ ID NO: 6) and Ibrutinib for use in the treatment of non-Hodgkin's lymphoma, chronic lymphocytic leukemia and/or acute lymphoblastic leukemia.
A marking system characterized in that it comprises: - a plurality of micro-percussion marking machines each equipped with a respective wireless link device , - a computer network infrastructure designed to generate a wireless connection area, in which said marking machines can be positioned so that their respective wireless link devices cooperate with said infrastructure so as to establish a respective wireless connection between each of said marking machines and said network , - a centralized marking management device connected to said network infrastructure and intended, via said network and said wireless connections , to supply said marking machines with first information and/or to receive second information from said marking machines . - a plurality of micro-percussion marking machines each equipped with a respective wireless link device , - a computer network infrastructure designed to generate a wireless connection area, in which said marking machines can be positioned so that their respective wireless link devices cooperate with said infrastructure so as to establish a respective wireless connection between each of said marking machines and said network , - a centralized marking management device connected to said network infrastructure and intended, via said network and said wireless connections , to supply said marking machines with first information and/or to receive second information from said marking machines .
A sink incorporating dishwasher functionalities, the sink comprising a basin and a cover allowing to fluidly seal said basin from a top thereof; characterized in that at least one portion of walls of said basin , extending along two peripheral directions, is double walled, having an outer wall and an inner wall , such as to define an inner chamber there between, said inner chamber being controllably fluidly coupled to a pressurized fluid source and having chamber apertures on said inner wall; and wherein during a washing cycle, said cover seals said basin and fluid jets are ejected via said chamber apertures into said basin .
A method for producing a silicon nitride sintered body, the method comprising: a step of molding a raw material powder containing silicon nitride and an oxide-based sintering aid to obtain a molded body, and a step of firing the molded body at a firing temperature of 1,860°C to 2,100°C for 6 to 20 hours, the temperature increase rate to the firing temperature being 1.0 °C/hour to 10.0°C/hour, wherein an α-conversion rate of the silicon nitride contained in the raw material powder is 5 mass% to 20 mass%, wherein a content of the oxide-based sintering aid in the raw material powder is 4.0 mass % to 8.0 mass%, wherein the silicon nitride sintered body has a fracture toughness K IC of greater than 8 MPa·m 1/2 , and wherein the fracture toughness K IC is measured through an SEPB method according to JIS R 1607:2015. a step of molding a raw material powder containing silicon nitride and an oxide-based sintering aid to obtain a molded body, and a step of firing the molded body at a firing temperature of 1,860°C to 2,100°C for 6 to 20 hours, the temperature increase rate to the firing temperature being 1.0 °C/hour to 10.0°C/hour, wherein an α-conversion rate of the silicon nitride contained in the raw material powder is 5 mass% to 20 mass%, wherein a content of the oxide-based sintering aid in the raw material powder is 4.0 mass % to 8.0 mass%, wherein the silicon nitride sintered body has a fracture toughness K IC of greater than 8 MPa·m 1/2 , and wherein the fracture toughness K IC is measured through an SEPB method according to JIS R 1607:2015.
Shock-absorbing device for a staff of a wheel set of a timepiece arranged on a support , wherein said support is provided with an at least partially through slot for a pivot element cooperating with a pivot shank of the staff of the wheel set to be inserted therein, said device additionally comprising a spring means comprising at least a first blade and a second blade spaced from one another extending from the support, characterised in that only the first blade is in contact with said pivot element and exerts a prestress, and in that said first blade and the second blade have different stiffness, the first blade being less stiff than the second blade.
A system information scheduling method, comprising: determining (S110), by a user equipment, that a second broadcast channel (BCH2) which is different from a first broadcast channel (BCH1) exists; acquiring, by the user equipment from system information on the first broadcast channel (BCH1), first scheduling information corresponding to second scheduling information, wherein the first scheduling information comprises at least one of a sending location and sending period of the second scheduling information on the second broadcast channel (BCH2), or agreeing, by the user equipment, with a radio network controller on at least one of a sending location and sending period for sending the second scheduling information on the second broadcast channel (BCH2); acquiring (S111), by user equipment according to the at least one of the sending location and sending period of the second scheduling information, the second scheduling information, wherein the second scheduling information is carried in a scheduling block (SB3) borne on the second broadcast channel (BCH2); and acquiring (S112), by the user equipment, content of the scheduling block (SB3), and receiving, according to the content of the scheduling block (SB3), a specific system information block (SIBx, SIBy,SIBz) that is sent on the second broadcast channel (BCH2). determining (S110), by a user equipment, that a second broadcast channel (BCH2) which is different from a first broadcast channel (BCH1) exists; acquiring, by the user equipment from system information on the first broadcast channel (BCH1), first scheduling information corresponding to second scheduling information, wherein the first scheduling information comprises at least one of a sending location and sending period of the second scheduling information on the second broadcast channel (BCH2), or agreeing, by the user equipment, with a radio network controller on at least one of a sending location and sending period for sending the second scheduling information on the second broadcast channel (BCH2); acquiring (S111), by user equipment according to the at least one of the sending location and sending period of the second scheduling information, the second scheduling information, wherein the second scheduling information is carried in a scheduling block (SB3) borne on the second broadcast channel (BCH2); and acquiring (S112), by the user equipment, content of the scheduling block (SB3), and receiving, according to the content of the scheduling block (SB3), a specific system information block (SIBx, SIBy,SIBz) that is sent on the second broadcast channel (BCH2).
A method for provisioning an enrollee device to a Wi-Fi network by a configurator , the method comprising the enrollee device : transmitting a Device Provisioning Protocol, DPP, Configuration Request frame to the configurator , the DPP Configuration Request frame including an indication of band support of the enrollee device ; receiving a DPP Configuration Response frame including: an indication of a Wi-Fi network that the enrollee device should attempt to join; and a sendConnStatus attribute; attempting to join the Wi-Fi network; and transmitting a DPP Status Query Result frame to the configurator , the DPP Status Query Result frame including a DPP Connection Status object indicating a result of the attempt to join the Wi-Fi network. transmitting a Device Provisioning Protocol, DPP, Configuration Request frame to the configurator , the DPP Configuration Request frame including an indication of band support of the enrollee device ; receiving a DPP Configuration Response frame including: an indication of a Wi-Fi network that the enrollee device should attempt to join; and a sendConnStatus attribute; an indication of a Wi-Fi network that the enrollee device should attempt to join; and a sendConnStatus attribute; attempting to join the Wi-Fi network; and transmitting a DPP Status Query Result frame to the configurator , the DPP Status Query Result frame including a DPP Connection Status object indicating a result of the attempt to join the Wi-Fi network.
A height adjustment arrangement for an operating table , said arrangement comprising - a first rack bar which is attachable to a base of the operating table immovably relative to the base , - a lifting element which is movable relative to the first rack bar linearly in a longitudinal direction of the first rack bar , - a second rack bar which is attachable to a table top of the operating table and movable relative to the lifting element linearly in a longitudinal direction of the first rack bar , - an actuator which is adapted to drive the lifting element linearly relative to the first rack bar in a longitudinal direction of the first rack bar , and - at least three gear wheels which are connected rotatably to the lifting element and engaged to operate with tooth systems of the first rack bar and the second rack bar , such that the linear motion of the lifting element relative to the first rack bar displaces the second rack bar linearly relative to the lifting element in such a way that, as the lifting element is being operated, the motion direction of the second rack bar is the same as that of the lifting element , wherein of said at least three gear wheels the first gear wheel is engaged directly with a tooth system of the first rack bar , the second gear wheel is engaged directly with a tooth system of the second rack bar , and the third gear wheel is adapted to impart rotary motion of the first gear wheel to the second gearwheel , characterized in that the lifting element is an elongated object whose longitudinal axis is co-directional with the longitudinal direction of the first rack bar . - a first rack bar which is attachable to a base of the operating table immovably relative to the base , - a lifting element which is movable relative to the first rack bar linearly in a longitudinal direction of the first rack bar , - a second rack bar which is attachable to a table top of the operating table and movable relative to the lifting element linearly in a longitudinal direction of the first rack bar , - an actuator which is adapted to drive the lifting element linearly relative to the first rack bar in a longitudinal direction of the first rack bar , and - at least three gear wheels which are connected rotatably to the lifting element and engaged to operate with tooth systems of the first rack bar and the second rack bar , such that the linear motion of the lifting element relative to the first rack bar displaces the second rack bar linearly relative to the lifting element in such a way that, as the lifting element is being operated, the motion direction of the second rack bar is the same as that of the lifting element ,
Signal correction method for correcting a measured signal having the following steps: a) processing a digital representation of a first signal (S 1 ) at a first measurement input , b) processing a digital representation of a second signal (S 2 ) at a second measurement input corresponding to the first signal (S 1 ) convoluted with a transfer function (H), c) determining the transfer function (H) for correcting the measured signal, d) applying a signal to be measured (S) to the second measurement input yielding a digital representation of a third signal (S 3 ) at the second measurement input , e) applying a signal causing interference (I) to the first measurement input yielding a digital representation of the signal causing interference (I), and f) correcting the digital representation of the third signal (S 3 ) by using a convolution of the digital representation of the signal causing interference (I) and the transfer function (H) to obtain the corrected measured signal (C). a) processing a digital representation of a first signal (S 1 ) at a first measurement input , b) processing a digital representation of a second signal (S 2 ) at a second measurement input corresponding to the first signal (S 1 ) convoluted with a transfer function (H), c) determining the transfer function (H) for correcting the measured signal, d) applying a signal to be measured (S) to the second measurement input yielding a digital representation of a third signal (S 3 ) at the second measurement input , e) applying a signal causing interference (I) to the first measurement input yielding a digital representation of the signal causing interference (I), and f) correcting the digital representation of the third signal (S 3 ) by using a convolution of the digital representation of the signal causing interference (I) and the transfer function (H) to obtain the corrected measured signal (C).