mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operation for a power transmitter of an inductive power transfer system comprising the power transmitter and a power receiver , the inductive power transfer system supporting communication from power receiver to the power transmitter , the method comprising the power transmitter: generating a wireless power signal for a power receiver when in the power transfer phase; receiving a first message comprising a standby power signal requirement for the power signal during a standby phase; and providing the power signal in accordance with the standby power signal requirement during a standby phase, characterized in that the first message indicates a maximum duration of an interval in the standby phase in which no power signal is provided by the power transmitter . generating a wireless power signal for a power receiver when in the power transfer phase; receiving a first message comprising a standby power signal requirement for the power signal during a standby phase; and providing the power signal in accordance with the standby power signal requirement during a standby phase,
A combination therapy, comprising (i) a viral vector comprising a transgene encoding for a protein of interest, and (ii) an extracellular vesicle (EV)-based vector comprising the transgene in the form of mRNA, circular RNA (circRNA), mini-circle, plasmid DNA (pDNA) or a linear DNA polynucleotide for use in medicine, wherein the EV-based vector is produced from a cell source, such as a cell line, that is allogenic in nature to the patient to be treated, and wherein the transgene is initially administered using the viral vector and subsequently administered using the EV- based vector; further wherein the viral vector is an adeno-associated virus (AVV)-based vector.
Method of tufting a fabric, in particular carpet, by using a tufting machine having a needle bar shiftable in a needle bar longitudinal direction (L), a plurality of needles being provided on the needle bar following each other in the needle bar longitudinal direction (L), each needle being individually selectable for carrying out a stitch and thereby generating a pile on a backing fabric movable in a working direction (W) of the tufting machine, the method comprising generating a plurality of rows (R1-R13) of piles extending substantially in the working direction (W) and lines (L1-L3) of piles extending substantially in the needle bar longitudinal direction (L) and substantially perpendicular with respect to the working direction (W), each intersection of the rows (R1-13) of piles and the lines (L1-L3) of piles defining a pile location (PL) where a pile is or can be generated on the backing fabric, the method being characterized by comprising the steps of: providing such a yarn threading on the needle bar that consecutive groups (G) of needles following each other in the needle bar longitudinal direction (L) and comprising the same predetermined number of needles are generated, the needles of each group (G) having yarns of different properties threaded therethrough, the number of yarns of different properties associated with each group (G) being less than the number of needles within each group (G), such that, within each group (G), at least two needles have yarns of the same property threaded therethrough, at at least one pile location (PL), generating at least two piles by different needles by positioning a first needle having a yarn threaded therethrough at this pile location (PL) and penetrating the backing fabric with the first needle for generating a first pile, and, after having generated the first pile, positioning a second needle having a yarn threaded therethrough at this pile location (PL) and penetrating the backing fabric with the second needle for generating a second pile. providing such a yarn threading on the needle bar that consecutive groups (G) of needles following each other in the needle bar longitudinal direction (L) and comprising the same predetermined number of needles are generated, the needles of each group (G) having yarns of different properties threaded therethrough, the number of yarns of different properties associated with each group (G) being less than the number of needles within each group (G), such that, within each group (G), at least two needles have yarns of the same property threaded therethrough, at at least one pile location (PL), generating at least two piles by different needles by positioning a first needle having a yarn threaded therethrough at this pile location (PL) and penetrating the backing fabric with the first needle for generating a first pile, and, after having generated the first pile, positioning a second needle having a yarn threaded therethrough at this pile location (PL) and penetrating the backing fabric with the second needle for generating a second pile.
An ultrasonic system for machining processing, comprising a tool , a sonotrode and a piezoelectric exciter , in which both transverse waves and combined longitudinal-transverse waves or torsional waves are superimposed on one another in a cantilevered part of the sonotrode, wherein an oscillation frequency of more than 120 kHz is present on the tool and characterized in that between the piezoelectric exciter and the sonotrode , the system comprises a fixation surface as a coupling surface , which is joined without a screw connection either thermally or by means of a form fit, or formed as a monolithic structure without a screw connection. an oscillation frequency of more than 120 kHz is present on the tool and characterized in that between the piezoelectric exciter and the sonotrode , the system comprises a fixation surface as a coupling surface , which is joined without a screw connection either thermally or by means of a form fit, or formed as a monolithic structure without a screw connection.
An apparatus, comprising: a camera mounting beam coupled to a camera, the camera mounting beam including an elongated element having a first surface and a second surface; a first center mount coupled to the elongated element of the camera mounting beam at the second surface at a first position along the elongated element, wherein the first center mount comprises an elastomeric material , and wherein the first center mount couples the elongated element fixing a lateral position of the elongated element on a vehicle ; and one or more end mounts coupled to the elongated element at the second surface at one or more slots along the elongated element of the camera mounting beam , wherein the center mount and the one or more end mounts are structured to couple the vehicle to the apparatus at a center attachment device of the apparatus and one or more end attachment devices of the apparatus, wherein each the one or more end mounts comprise an elastomeric material on said end attachment devices, and wherein the one or more end mounts couple the elongated element of the camera mounting beam to the vehicle and accommodates lateral expansion or contraction of the elongated element, wherein the one or more end mounts each include one of the end attachment devices that slides in a slot in the elongated element., a camera mounting beam coupled to a camera, the camera mounting beam including an elongated element having a first surface and a second surface; a first center mount coupled to the elongated element of the camera mounting beam at the second surface at a first position along the elongated element, wherein the first center mount comprises an elastomeric material , and wherein the first center mount couples the elongated element fixing a lateral position of the elongated element on a vehicle ; and one or more end mounts coupled to the elongated element at the second surface at one or more slots along the elongated element of the camera mounting beam , wherein the center mount and the one or more end mounts are structured to couple the vehicle to the apparatus at a center attachment device of the apparatus and one or more end attachment devices of the apparatus, wherein each the one or more end mounts comprise an elastomeric material on said end attachment devices, and wherein the one or more end mounts couple the elongated element of the camera mounting beam to the vehicle and accommodates lateral expansion or contraction of the elongated element, wherein the one or more end mounts each include one of the end attachment devices that slides in a slot in the elongated element.,
Device for, in particular continuous, gravimetric dosing and portioning of individual dough portions from a dough mass , comprising: - a dough receiving device which is configured to receive a dough mass to be portioned into individual dough portions , the dough receiving device comprising a dough receiving chamber with a dough receiving volume defined by a plurality of wall elements , - a portioning device which is configured for, in particular continuous, portioning of individual dough portions from a dough mass received in the dough receiving chamber , at least one wall element of the dough receiving chamber , in particular relative to at least one further wall element of the dough receiving chamber , being mounted movably in at least one degree of freedom of movement, the dough receiving volume being variable by movements of the at least one wall element mounted movably in at least one degree of freedom of movement. characterized by a control device which is configured for, in particular continuous, control of the movements of the at least one wall element mounted movably in at least one degree of freedom of movement as a function of at least one predeterminable or predetermined target variable, wherein the target variable is a constant filling level (F) of the dough mass received in the dough receiving chamber . - a dough receiving device which is configured to receive a dough mass to be portioned into individual dough portions , the dough receiving device comprising a dough receiving chamber with a dough receiving volume defined by a plurality of wall elements , - a portioning device which is configured for, in particular continuous, portioning of individual dough portions from a dough mass received in the dough receiving chamber , at least one wall element of the dough receiving chamber , in particular relative to at least one further wall element of the dough receiving chamber , being mounted movably in at least one degree of freedom of movement, the dough receiving volume being variable by movements of the at least one wall element mounted movably in at least one degree of freedom of movement. characterized by a control device which is configured for, in particular continuous, control of the movements of the at least one wall element mounted movably in at least one degree of freedom of movement as a function of at least one predeterminable or predetermined target variable, wherein the target variable is a constant filling level (F) of the dough mass received in the dough receiving chamber .
A computer-implemented method for determining the relative position between a first camera and a second camera , wherein the first camera is a thermal camera which captures a thermal image of a hybrid phantom , the second camera emits light onto the hybrid phantom and analyzes the reflected light, thus generating a 3D point cloud representing points on the surface of the hybrid phantom , and the hybrid phantom has a planar surface comprising a background surface and a plurality of marker surfaces , wherein the background surface has one of a first property and a second property, each marker surface has the other one of the first property and the second property, the first property involves having a high thermal emissivity of 0.8 or higher and the second property involves having a low thermal emissivity of 0.2 or less, and wherein one of the first property and the second property further involves being diffuse reflective for the light emitted by the second camera , thus reflecting light emitted by the second camera back to the second camera and the other one of the first property and the second property further involves being specular reflective for wavelengths used by the second camera , the method comprising the steps of - capturing a thermal image of the hybrid phantom using the first camera , - identifying an edge of each of the plurality of marker surfaces in the thermal image, - identifying the locations of the plurality of marker surfaces from the identified edges, thus generating thermal marker locations, - capturing a 3D point cloud of the phantom using the second camera , avoiding relative positions between the hybrid phantom and the second camera for which a specular reflective surface reflects light emitted by the second camera back to the second camera , - identifying the locations of the plurality of marker surfaces from the 3D point cloud, thus generating 3D marker locations, and - determining the relative position between the first camera and the second camera from the thermal marker locations and the 3D marker locations. - capturing a thermal image of the hybrid phantom using the first camera , - identifying an edge of each of the plurality of marker surfaces in the thermal image, - identifying the locations of the plurality of marker surfaces from the identified edges, thus generating thermal marker locations, - capturing a 3D point cloud of the phantom using the second camera , avoiding relative positions between the hybrid phantom and the second camera for which a specular reflective surface reflects light emitted by the second camera back to the second camera , - identifying the locations of the plurality of marker surfaces from the 3D point cloud, thus generating 3D marker locations, and - determining the relative position between the first camera and the second camera from the thermal marker locations and the 3D marker locations.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a timing advance, TA, command that includes a timing value for calculating a timing offset to be applied to adjust a timing of an uplink transmission, wherein the timing value includes a first set of bits used to calculate an unadjusted timing offset using a first granularity and a second set of bits used to calculate the timing offset by adjusting the unadjusted timing offset using a second granularity that is finer than the first granularity; determining a numerology to be used to calculate the timing offset from the timing value; calculating the timing offset using the timing value and the numerology, wherein the timing value corresponds to different timing offsets for different numerologies, and transmitting the uplink transmission, wherein the timing of the uplink transmission is adjusted using the timing offset. receiving a timing advance, TA, command that includes a timing value for calculating a timing offset to be applied to adjust a timing of an uplink transmission, wherein the timing value includes a first set of bits used to calculate an unadjusted timing offset using a first granularity and a second set of bits used to calculate the timing offset by adjusting the unadjusted timing offset using a second granularity that is finer than the first granularity; determining a numerology to be used to calculate the timing offset from the timing value; calculating the timing offset using the timing value and the numerology, wherein the timing value corresponds to different timing offsets for different numerologies, and transmitting the uplink transmission, wherein the timing of the uplink transmission is adjusted using the timing offset.
A high-efficiency rolling process for high-strength and high-ductility magnesium alloy sheets, wherein billets are rolled in a rough rolling step and a high-efficiency hot rolling step, and wherein rolling reduction in each pass of the rough rolling is 10∼30%, and in the high-efficiency hot rolling step rolling speed in each rolling pass is 10∼50 m/min, rolling reduction in each rolling pass is 40∼90%, the billets are preheated 1∼15 min before rolling in each rolling pass, and the temperature of the preheating before rolling and a temperature of rolling in each rolling pass are controlled to be 250∼450 °C.
A pipe joint comprising: a cylindrical nozzle side member with a shutoff valve , in said cylindrical nozzle side member being formed a passage ; and a cylindrical filling apparatus side member with a shutoff valve , in said cylindrical filling apparatus side member being formed a passage , wherein when the nozzle side member and the filling apparatus side member are connected with each other, central axes of the passages of the nozzle side member and the filling apparatus side member do not form a same straight line, and the central axes of the passages are offset without intersecting, and the shutoff valves of the both members open to communicate the passages of the both members with each other, characterized in that , when the nozzle side member is separated from the filling apparatus side member , the shutoff valves of the both members close. a cylindrical nozzle side member with a shutoff valve , in said cylindrical nozzle side member being formed a passage ; and a cylindrical filling apparatus side member with a shutoff valve , in said cylindrical filling apparatus side member being formed a passage , wherein when the nozzle side member and the filling apparatus side member are connected with each other, central axes of the passages of the nozzle side member and the filling apparatus side member do not form a same straight line, and the central axes of the passages are offset without intersecting, and the shutoff valves of the both members open to communicate the passages of the both members with each other, characterized in that , when the nozzle side member is separated from the filling apparatus side member , the shutoff valves of the both members close.
Sound insulation for a roller shutter box which, in the installation position in masonry of a building, has a front side directed towards the surroundings U, a rear side directed towards the building interior I, a lower side directed towards the window shaded by the roller shutter of the roller shutter box , an upper side directed away from the window , two side walls arranged perpendicular to the sides and an interior space between the front side , upper side , rear side , lower side and side walls , wherein the sound insulation is suitable to completely enclose the upper side , rear side , lower side and side walls to the building interior I, wherein the sound insulation comprises a sound insulation shell , characterized in that the sound insulation comprises a sound insulation material inside the sound insulation shell .
A method for controlling a transformer , the method comprising: specifying , in one or more control devices , an initial operating limit for one or more windings of the transformer ; monitoring , via one or more sensors , at least one electrical condition of the one or more windings of the transformer ; receiving , by the one or more control devices , a signal indicative of the at least one electrical condition of the one or more windings of the transformer ; and increasing , by the one or more control devices , the initial operating limit based on a linear or polynomial function and by a specified gain if the at least one electrical condition drops below a predetermined threshold, and varying the specified gain based on the at least one electrical condition of the one or more windings of the transformer . specifying , in one or more control devices , an initial operating limit for one or more windings of the transformer ; monitoring , via one or more sensors , at least one electrical condition of the one or more windings of the transformer ; receiving , by the one or more control devices , a signal indicative of the at least one electrical condition of the one or more windings of the transformer ; and increasing , by the one or more control devices , the initial operating limit based on a linear or polynomial function and by a specified gain if the at least one electrical condition drops below a predetermined threshold, and varying the specified gain based on the at least one electrical condition of the one or more windings of the transformer .
A turboengine blading member , the blading member comprising at least one platform member and at least one airfoil member , the airfoil member comprising an airfoil extending along a spanwidth from a first end to a second end, and a connector post being attached to at least one of the first and second ends of the airfoil, wherein the airfoil extends along the spanwidth direction from the connector post, the platform member comprising a first face and a second face , and a receiver through opening extending from the first face to the second face, wherein the connector post is received within the receiver through opening, each of the connector post and the receiver through opening exhibiting a circumferential wall, and a joint gap (51; 52) being formed between said walls, wherein each of the connector post and the receiver through opening comprises a retainer flute provided on the circumferential wall and extending along at least a part of the circumferential extent, wherein for each retainer flute provided on the circumferential wall of one of the connector post and the receiver through opening a corresponding retainer flute is provided on the circumferential wall of the other one of the connector post and the receiver through opening, within each pair of corresponding retainer flutes the retainer flutes being arranged juxtaposed each other with the open sides facing each other such as to jointly form a joint retainer cavity, characterized in that a first retainer member is provided in one of the corresponding retainer flutes, a second retainer member is provided in the other one of the corresponding retainer flutes, and the first and second retainer members are bonded to each other to provide a common retainer member extending into both corresponding retainer flutes , thereby retaining the connector post within the receiver through opening and interlocking the airfoil member and the platform member.
A photodetector comprising: a graphene film ; a first arrangement of quantum dots of a first band-gap energy located in contact with the graphene film as a first monolayer; a second arrangement of quantum dots of a second band-gap energy located in contact with the graphene film as a second monolayer; and an output voltage probe connected to the graphene film between the first arrangement of quantum dots and the second arrangement of quantum dots, wherein the output voltage probe is configured to provide an output voltage dependent upon the first arrangement of quantum dots and the second arrangement of quantum dots when an input voltage is applied across ends of the graphene film. a graphene film ; a first arrangement of quantum dots of a first band-gap energy located in contact with the graphene film as a first monolayer; a second arrangement of quantum dots of a second band-gap energy located in contact with the graphene film as a second monolayer; and an output voltage probe connected to the graphene film between the first arrangement of quantum dots and the second arrangement of quantum dots, wherein the output voltage probe is configured to provide an output voltage dependent upon the first arrangement of quantum dots and the second arrangement of quantum dots when an input voltage is applied across ends of the graphene film.