mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device , comprising: a rotary input module ; a display ; a memory; and at least one processor configured to be operatively coupled to the memory; wherein the at least one processor is configured to: detect a rotary input via the rotary input module; display, in the display , a part of a first scrollable list and a part of a second scrollable list , the first scrollable list corresponding to a part of a plurality of objects, the second scrollable list corresponding to a remaining part of the plurality of objects; and simultaneously scroll, based on the rotary input, the first scrollable list and the second scrollable list . a rotary input module ; a display ; a memory; and at least one processor configured to be operatively coupled to the memory; wherein the at least one processor is configured to: detect a rotary input via the rotary input module; display, in the display , a part of a first scrollable list and a part of a second scrollable list , the first scrollable list corresponding to a part of a plurality of objects, the second scrollable list corresponding to a remaining part of the plurality of objects; and simultaneously scroll, based on the rotary input, the first scrollable list and the second scrollable list . detect a rotary input via the rotary input module; display, in the display , a part of a first scrollable list and a part of a second scrollable list , the first scrollable list corresponding to a part of a plurality of objects, the second scrollable list corresponding to a remaining part of the plurality of objects; and simultaneously scroll, based on the rotary input, the first scrollable list and the second scrollable list .
Method for recording magnetic resonance data for determining at least one parameter map describing a material parameter in the scanning region with a magnetic resonance apparatus , wherein the scanning area has a plurality of slices and, for recording the magnetic resonance data, a slice-specific preparation pulse is used at least partially, wherein magnetic resonance data is scanned after different waiting times following the preparation pulse, characterised in that for recording magnetic resonance data of different waiting times from at least two slices, an overall pulse determined by overlaying the slice-specific preparation pulses for the individual slices is output and the magnetic resonance data of the slices is read out with a readout sequence after the respective waiting times , wherein slice-specific preparation pulses of different flip angles are overlaid to form the overall pulse .
An amusement ride vehicle comprising: a body having a forward end, a rearward end, an underside and opposite sides and at least one of recesses and protrusions on a perimeter surface of body, the at least one of recesses and protrusions defining fluid impact surfaces, the fluid impact surfaces being at an angle to an intended direction of motion of the vehicle to affect motion of the vehicle when the fluid impact surfaces are impacted by a fluid, wherein the at least one of recesses and protrusions comprise a plurality of recesses or a plurality of protrusions , characterised in that the plurality of recesses or the plurality of protrusions are spaced along the opposite sides of the vehicle body.
A timepiece movement comprising : - a main frame serving as a support for a driving source as well as for at least one base geartrain arranged to be driven by said driving source ; - at least one flying bridge cantilever-mounted on an element of said main frame and extending in superposition thereto, wherein said flying bridge carries at least one functional element (13; 9) kinematically linked to said base geartrain via a flying geartrain comprising a plurality of toothed organs , characterized in that said functional element as well as at least some elements of said flying geartrain are entirely supported on said flying bridge , said toothed organs being mounted on the side of said flying bridge which faces the main frame , and in that said functional element is a display member . - a main frame serving as a support for a driving source as well as for at least one base geartrain arranged to be driven by said driving source ; - at least one flying bridge cantilever-mounted on an element of said main frame and extending in superposition thereto, wherein said flying bridge carries at least one functional element (13; 9) kinematically linked to said base geartrain via a flying geartrain comprising a plurality of toothed organs , characterized in that said functional element as well as at least some elements of said flying geartrain are entirely supported on said flying bridge , said toothed organs being mounted on the side of said flying bridge which faces the main frame , and in that said functional element is a display member . wherein said flying bridge carries at least one functional element (13; 9) kinematically linked to said base geartrain via a flying geartrain comprising a plurality of toothed organs , characterized in that said functional element as well as at least some elements of said flying geartrain are entirely supported on said flying bridge , said toothed organs being mounted on the side of said flying bridge which faces the main frame , and in that said functional element is a display member .
A work vehicle comprising: a travel body; a work body rotatably supported by the travel body; a cabin supported by the work body; a first camera and a second camera mounted in the travel body; an operation unit that is disposed in an interior space of the cabin, causes the travel body to travel, and receives an operation of an operator for running the work body; a display disposed in the interior space of the cabin; a first controller mounted in the travel body; and a second controller mounted in the work body, wherein the first controller executes a first composition process for composition of a first video imaged by the first camera and a second video imaged by the second camera and generating composite video data indicating a composite video, and a transmission process for transmitting, to the second controller, the composite video data generated in the first composition process, and wherein the second controller executes a reception process for receiving the composite video data from the first controller, and a display process for displaying, on the display, the composite video indicated by the composite video data received in the reception process. a travel body; a work body rotatably supported by the travel body; a cabin supported by the work body; a first camera and a second camera mounted in the travel body; an operation unit that is disposed in an interior space of the cabin, causes the travel body to travel, and receives an operation of an operator for running the work body; a display disposed in the interior space of the cabin; a first controller mounted in the travel body; and a second controller mounted in the work body, wherein the first controller executes a first composition process for composition of a first video imaged by the first camera and a second video imaged by the second camera and generating composite video data indicating a composite video, and a transmission process for transmitting, to the second controller, the composite video data generated in the first composition process, and wherein the second controller executes a reception process for receiving the composite video data from the first controller, and a display process for displaying, on the display, the composite video indicated by the composite video data received in the reception process.
A method for handling flat and/or strip material , which is wound on supply rolls , in which method: - at least one adhesive marking is connected to an outer free end region and at least partially to an outer layer of the flat and/or strip material of a supply roll , which outer layer is adjacent to the outer free end region , - the supply roll is placed on a holding mandrel , - the position of the adhesive marking is optically detected, - the outer free end region is aligned in dependence of the optical recognition, and - hereinafter, the outer free end region is being gripped and being pulled off the supply roll , whereby a suction and/or gripping device is gripping the outer free end region by means of negative pressure and is guiding the outer free end region in a direction away from the supply roll , and wherein following this the outer free end region is being connected to a flat and/or strip material which is already running within a packaging machine, characterized in that when the outer free end region is being pulled off, the adhesive marking gets separated at a perforation , as a result of which separation a part of the adhesive marking remains on the outer free end region and a further part of the adhesive marking remains on the outer layer of the supply roll adjacent to the outer free end region . - at least one adhesive marking is connected to an outer free end region and at least partially to an outer layer of the flat and/or strip material of a supply roll , which outer layer is adjacent to the outer free end region , - the supply roll is placed on a holding mandrel , - the position of the adhesive marking is optically detected, - the outer free end region is aligned in dependence of the optical recognition, and - hereinafter, the outer free end region is being gripped and being pulled off the supply roll , whereby a suction and/or gripping device is gripping the outer free end region by means of negative pressure and is guiding the outer free end region in a direction away from the supply roll , and wherein following this the outer free end region is being connected to a flat and/or strip material which is already running within a packaging machine, characterized in that
A light diffusion cover for an LED luminaire which comprises a light diffuser comprising a thermoplastic resin and transparent particles added thereto, characterized in that the light diffuser has a total light transmittance in a range of 50 to 85%, the light diffuser has a wavelength selectivity in a rectilinear light ratio in a range of 1.5 to 5.0, as obtained by following formulas - : wavelength selectivity in rectilinear light ratio = rectilinear light ratio of 550 -nm light / rectilinear light ratio of 450 -nm light rectilinear light ratio of 550 -nm light = rectilinear light transmittance for 550 -nm light / total transmittance for 550 -nm light rectilinear light ratio of 450 -nm light = rectilinear light transmittance for 450 -nm light / total transmittance for 450 -nm light the rectilinear light transmittance is measured according to the method disclosed in the passage of the description titled "Measurement of the rectilinear light transmittance", the thermoplastic resin is a polycarbonate resin or an acrylic resin, the light diffuser satisfies an inequality: 0.01 μm < D × |np - nm| < 0.1 μm wherein D is a volume-average particle size (μm) of the transparent particles, np is a refractive index of the transparent particles, and nm is a refractive index of the thermoplastic resin, and the light diffusion cover for an LED luminaire has a cylindrical shape, a part-cylindrical shape, or a shape of a light bulb.
Plate element for a heat exchanger, which is an at least two-layered arrangement , having a layer , by means of which enthalpy can be transferred between two fluid flows separated by the plate element , and at least one perforated layer , characterized in that the plate element is designed as a laminate arrangement , in that the layer intended to transfer the enthalpy between the two fluid flows separated by the plate element is designed as a membrane layer , in that the at least one perforated layer is designed as a support layer made from a perforated and deformable material, and in that by means of the at least one support layer the plate element can be given a predeterminable mechanical strength and a spatial structure and this can be maintained.
A textile comprising a woven or nonwoven textile backing and a flame retardant coating, characterized in that the flame retardant coating comprises: (i) nanoparticles of a mineral flame retardant which have an equivalent diameter of less than 950 nm and which are selected from the group consisting of aluminum monohydroxide (AlOOH), aluminum trihydroxide (Al(OH) 3 ) and a mixture thereof and (ii) poly(vinyl alcohol). (i) nanoparticles of a mineral flame retardant which have an equivalent diameter of less than 950 nm and which are selected from the group consisting of aluminum monohydroxide (AlOOH), aluminum trihydroxide (Al(OH) 3 ) and a mixture thereof and (ii) poly(vinyl alcohol).
A perovskite solar module, comprising: a substrate ; a transparent conductive oxide layer provided on at least a part of a surface of the substrate; an electron transport layer provided on at least a part of a surface of the transparent conductive oxide layer facing away from the substrate; a photoactive layer and a barrier layer that are formed on at least a part of a surface of the electron transport layer facing away from the transparent conductive oxide layer, wherein the barrier layer is provided in the photoactive layer; a hole transport layer provided on at least a part of a surface of the photoactive layer and a surface of the barrier layer facing away from the electron transport layer; and an electrode provided on at least a part of a surface of the hole transport layer facing away from the photoactive layer, characterized in that the electrode has a protrusion penetrating through the hole transport layer, the barrier layer, and the electron transport layer to be connected to the transparent conductive oxide layer, the protrusion in a cross-sectional view being surrounded by and directly adjacent to the barrier layer , and the protrusion being separated apart from the photoactive layer by the barrier layer. a substrate ; a transparent conductive oxide layer provided on at least a part of a surface of the substrate; an electron transport layer provided on at least a part of a surface of the transparent conductive oxide layer facing away from the substrate; a photoactive layer and a barrier layer that are formed on at least a part of a surface of the electron transport layer facing away from the transparent conductive oxide layer, wherein the barrier layer is provided in the photoactive layer; a hole transport layer provided on at least a part of a surface of the photoactive layer and a surface of the barrier layer facing away from the electron transport layer; and an electrode provided on at least a part of a surface of the hole transport layer facing away from the photoactive layer, characterized in that the electrode has a protrusion penetrating through the hole transport layer, the barrier layer, and the electron transport layer to be connected to the transparent conductive oxide layer, the protrusion in a cross-sectional view being surrounded by and directly adjacent to the barrier layer , and the protrusion being separated apart from the photoactive layer by the barrier layer.
A silicon carbide semiconductor device comprising: a silicon carbide substrate including a first layer of a first conductivity type, a second layer of a second conductivity type provided on said first layer, and a third layer provided on said second layer and doped with an impurity for providing said first conductivity type, said silicon carbide substrate having a trench (TR) formed through said third layer and said second layer to reach said first layer , said first layer having a concentration peak of an impurity of said first conductivity type in a position away from said trench (TR) in said first layer ; a gate insulating film covering said trench (TR); and a gate electrode provided on said gate insulating film , said gate electrode facing a surface of said second layer with said gate insulating film interposed therebetween, characterised in that : said second layer has a concentration peak of said impurity having said concentration peak in said first layer in a position away from said trench (TR) in said second layer . a silicon carbide substrate including a first layer of a first conductivity type, a second layer of a second conductivity type provided on said first layer, and a third layer provided on said second layer and doped with an impurity for providing said first conductivity type, said silicon carbide substrate having a trench (TR) formed through said third layer and said second layer to reach said first layer , said first layer having a concentration peak of an impurity of said first conductivity type in a position away from said trench (TR) in said first layer ; a gate insulating film covering said trench (TR); and a gate electrode provided on said gate insulating film , said gate electrode facing a surface of said second layer with said gate insulating film interposed therebetween, characterised in that : said second layer has a concentration peak of said impurity having said concentration peak in said first layer in a position away from said trench (TR) in said second layer .
An epicycloidal gear train comprising a central pinion , an outer crown and satellite pinions engaging the central pinion and the outer crown and each mounted freely rotatable on a satellite carrier , the gear train comprising a first lubrication oil circuit for the contact areas of the gear teeth of the satellite pinions with the central pinion and a second lubrication oil circuit for the axes of the satellite pinions , an annular cup being integral with the satellite carrier and open radially inward, characterized in that the cup is divided into a circumferential succession of first basins of the first oil circuit and second basinss of the second oil circuit, the first basins being fluidly separated from the second basins characterized in that the cup comprises two annular walls axially facing, the annular wall of which is furthest from a median radial plane of the gear train has openings opening into the second basins .
A vibratory flow meter comprising an emitter-sensor assembly for measuring a spatiotemporal relationship between two positions of a vibratory flow tube of the vibratory flow meter , comprising: an emitter substantially rigidly coupled to a first position of the vibratory flow tube to move with the first position , the emitter configured to emit electro-magnetic radiation towards a second position of the vibratory flow tube ; and a sensor substantially rigidly coupled to the first position of the vibratory flow tube to move with the first position , the sensor configured to receive the electro-magnetic radiation reflected from a reflective surface that is rigidly coupled to the second position of the vibratory flow tube , wherein the sensor is a position sensor detector configured to detect the position of the electro-magnetic radiation on a sensing area of a two-axis position sensitive detector or on an array of photo-sensitive diodes with a gridded coordinate system. an emitter substantially rigidly coupled to a first position of the vibratory flow tube to move with the first position , the emitter configured to emit electro-magnetic radiation towards a second position of the vibratory flow tube ; and a sensor substantially rigidly coupled to the first position of the vibratory flow tube to move with the first position , the sensor configured to receive the electro-magnetic radiation reflected from a reflective surface that is rigidly coupled to the second position of the vibratory flow tube , wherein the sensor is a position sensor detector configured to detect the position of the electro-magnetic radiation on a sensing area of a two-axis position sensitive detector or on an array of photo-sensitive diodes with a gridded coordinate system.
A fall protection system for securely coupling a user to a support structure, the fall protection system comprising: a mast arranged to be vertically mounted in a state of use, having a top end and a base end ; a user connection assembly ; and a tether connector ; wherein the mast comprises a structure connection portion , at which the mast is arranged to be removably connected to the support structure , and an energy absorbing deformation portion positioned closer to the top end than the structure connection portion thereby the mast is arranged to absorb energy by bending in the energy absorbing deformation portion, wherein the fall protection system is rearrangeable between an inactive state and a ready-to-use state, wherein, in the ready-to-use state: the user connection assembly protrudes from the mast substantially radially of the mast, and has a proximal end , connected with the mast at the top end, and a distal end ; the tether connector is arranged at the user connection assembly, and the energy absorbing deformation portion is arranged to deform when exerted to a bending force caused by a falling user tethered to the tether connector, the energy absorbing deformation portion thereby absorbing energy and reducing the force exerted to the mast at its structure connection portion. a mast arranged to be vertically mounted in a state of use, having a top end and a base end ; a user connection assembly ; and a tether connector ; wherein the mast comprises a structure connection portion , at which the mast is arranged to be removably connected to the support structure , and an energy absorbing deformation portion positioned closer to the top end than the structure connection portion thereby the mast is arranged to absorb energy by bending in the energy absorbing deformation portion, wherein the fall protection system is rearrangeable between an inactive state and a ready-to-use state, wherein, in the ready-to-use state: the user connection assembly protrudes from the mast substantially radially of the mast, and has a proximal end , connected with the mast at the top end, and a distal end ; the tether connector is arranged at the user connection assembly, and the energy absorbing deformation portion is arranged to deform when exerted to a bending force caused by a falling user tethered to the tether connector, the energy absorbing deformation portion thereby absorbing energy and reducing the force exerted to the mast at its structure connection portion. the user connection assembly protrudes from the mast substantially radially of the mast, and has a proximal end , connected with the mast at the top end, and a distal end ; the tether connector is arranged at the user connection assembly, and the energy absorbing deformation portion is arranged to deform when exerted to a bending force caused by a falling user tethered to the tether connector, the energy absorbing deformation portion thereby absorbing energy and reducing the force exerted to the mast at its structure connection portion.
A beamforming apparatus chracterized by: a spatial smoothing unit configured to transform received signals into a transformed space with a transform function composed of low-frequency components, calculate transformed signals by a spatial smoothing operation employing the transform function in the transformed space, and estimate an averaged spatial covariance matrix; a weight calculation unit configured to calculate weights of the transformed signals from the averaged spatial covariance matrix estimated by the spatial smoothing operation; and a synthesis unit configured to generate a beam signal based on the transformed signals and the weights of the transformed signals. a spatial smoothing unit configured to transform received signals into a transformed space with a transform function composed of low-frequency components, calculate transformed signals by a spatial smoothing operation employing the transform function in the transformed space, and estimate an averaged spatial covariance matrix; a weight calculation unit configured to calculate weights of the transformed signals from the averaged spatial covariance matrix estimated by the spatial smoothing operation; and a synthesis unit configured to generate a beam signal based on the transformed signals and the weights of the transformed signals.