mhurhangee/ep-ind-claims huggingface dataset:
A printhead (204, 1022), comprising a plurality of drop generators disposed in a first array and a second array, wherein: the drop generators in the first array are spaced one dot pitch apart perpendicular to a motion of a print medium, and alternate between a high drop weight drop generator and a low drop weight drop generator; the drop generators in the second array are spaced one dot pitch apart perpendicular to the motion of the print medium and alternate between an LDW drop generator and an HDW drop generator; and each drop generator in the first array is in a line of the motion of the print medium with a corresponding drop generator in the second array, wherein each HDW drop generator in the first array is in a line of the motion of the print medium with an LDW drop generator in the second array, and each LDW drop generator in the first array is in a line of the motion of the print medium with an HDW drop generator in the second array; wherein the printhead is characterised in that: the LDW drop generators comprise a nozzle (402, 404) with a circular bore and the HDW drop generators comprise a nozzle (402, 404) with a non-circular bore. the drop generators in the first array are spaced one dot pitch apart perpendicular to a motion of a print medium, and alternate between a high drop weight drop generator and a low drop weight drop generator; the drop generators in the second array are spaced one dot pitch apart perpendicular to the motion of the print medium and alternate between an LDW drop generator and an HDW drop generator; and each drop generator in the first array is in a line of the motion of the print medium with a corresponding drop generator in the second array, wherein each HDW drop generator in the first array is in a line of the motion of the print medium with an LDW drop generator in the second array, and each LDW drop generator in the first array is in a line of the motion of the print medium with an HDW drop generator in the second array; wherein the printhead is characterised in that: the LDW drop generators comprise a nozzle (402, 404) with a circular bore and the HDW drop generators comprise a nozzle (402, 404) with a non-circular bore.
A weaving loom for producing a woven material with an incorporated cover thread, comprising - a shed forming device for forming a shed from warp threads with at least an upper shed and a lower shed, - a weft-insertion device for inserting weft-threads, - a reed for stopping of inserted weft-threads, - a laying device for at least one cover thread, characterized in that the loom further comprises a warp-laying device with a plurality of warp-laying elements arranged adjacent to each other for laying additional warp threads, wherein the warp-laying device comprises a driving device for dipping in the warp-laying elements for the additional warp threads from a starting position through the upper shed to the lower shed or through the lower shed to the upper shed, and wherein the warp-laying device is positioned so that the weft-insertion device crosses the additional warp threads, and wherein the laying device comprises at least one cover thread guide which, in the starting position of the warp-laying device, is movable transversely to the warp threads by means of a transverse moving means. - a shed forming device for forming a shed from warp threads with at least an upper shed and a lower shed, - a weft-insertion device for inserting weft-threads, - a reed for stopping of inserted weft-threads, - a laying device for at least one cover thread, the loom further comprises a warp-laying device with a plurality of warp-laying elements arranged adjacent to each other for laying additional warp threads, wherein the warp-laying device comprises a driving device for dipping in the warp-laying elements for the additional warp threads from a starting position through the upper shed to the lower shed or through the lower shed to the upper shed, and wherein the warp-laying device is positioned so that the weft-insertion device crosses the additional warp threads, and wherein the laying device comprises at least one cover thread guide which, in the starting position of the warp-laying device, is movable transversely to the warp threads by means of a transverse moving means.
A construction machine comprising: a vehicle body; work equipment having a boom attached tiltably to the vehicle body, an arm attached tiltably to the boom, and a bucket attached tiltably to the arm; a control lever device configured to operate the boom, the arm, and the bucket; a design surface information storage unit configured to store three-dimensional target shape as a plurality of design surfaces; a work equipment position acquisition unit configured to estimate the work equipment position; and a work equipment velocity vector acquisition unit configured to estimate the velocity vector of the work equipment on the basis of an operation amount of the control lever device; characterized in that the construction machine comprises: a target surface acquisition unit configured to acquire a principal target surface from the design surfaces stored in the design surface information storage unit on the basis of the work equipment position and on the basis of the velocity vector of the work equipment, the target surface acquisition unit further acquiring an estimated target surface that is potentially the next principal target surface on the basis of the design surfaces, and wherein the target surface acquisition unit includes an estimated target surface calculation unit configured to determine the design surface in which a cross-point with the velocity vector of the work equipment exists in the plane as an estimated target surface out of the plurality of design surfaces. a vehicle body; work equipment having a boom attached tiltably to the vehicle body, an arm attached tiltably to the boom, and a bucket attached tiltably to the arm; a control lever device configured to operate the boom, the arm, and the bucket; a design surface information storage unit configured to store three-dimensional target shape as a plurality of design surfaces; a target surface acquisition unit configured to acquire a principal target surface from the design surfaces stored in the design surface information storage unit on the basis of the work equipment position and on the basis of the velocity vector of the work equipment, the target surface acquisition unit further acquiring an estimated target surface that is potentially the next principal target surface on the basis of the design surfaces, and wherein the target surface acquisition unit includes an estimated target surface calculation unit configured to determine the design surface in which a cross-point with the velocity vector of the work equipment exists in the plane as an estimated target surface out of the plurality of design surfaces.
A crude or unrefined microbial oil that has a triglyceride content of at least 90% and a peroxide value of less than 2.5, and which comprises at least 40% arachidonic acid.
Mold filling machine with one or more mold filling stations for forming preforms into containers and filling the containers in a mold of the mold filling station, wherein a filling valve is arranged in the mold filling station, via which product can be filled into the container, wherein the filling valve can be isolated from the environment and can be cleaned in isolation, wherein the mold comprises two mold halves (433, 434) and a bottom, characterized in that the mold halves and the bottom are made movable such that the mold halves can be moved apart and the bottom can be moved between and through the moved-apart mold halves towards the filling valve and can enclose the filling valve.
A method performed by a network node for mobility management, the method comprising: obtaining data samples for modeling a wireless network environment that comprises a plurality of cells; building a machine learning model of the wireless network using the obtained data samples, wherein the machine learning model is trained to determine a sequence of handovers for a wireless device among the plurality of cells for the wireless device to traverse from a source cell to a destination cell, wherein the machine learning model comprises a reinforcement learning, RL, model, wherein using the RL model, an agent interacts with the wireless network environment by choosing actions based on current state of the wireless network environment, the actions including performing handover; receiving mobility information for a wireless device, wherein the mobility information is used as a state of the RL model; determining, using the machine learning model, one or more handover operations for the wireless device based on the mobility information; and transmitting the one or more handover operations to the wireless device. obtaining data samples for modeling a wireless network environment that comprises a plurality of cells; building a machine learning model of the wireless network using the obtained data samples, wherein the machine learning model is trained to determine a sequence of handovers for a wireless device among the plurality of cells for the wireless device to traverse from a source cell to a destination cell, wherein the machine learning model comprises a reinforcement learning, RL, model, wherein using the RL model, an agent interacts with the wireless network environment by choosing actions based on current state of the wireless network environment, the actions including performing handover; receiving mobility information for a wireless device, wherein the mobility information is used as a state of the RL model; determining, using the machine learning model, one or more handover operations for the wireless device based on the mobility information; and transmitting the one or more handover operations to the wireless device.
A seat assembly comprising: a seat structure configured for receiving a passenger seated thereon; a base structure for supporting the seat structure on a surface; a swivel mechanism between the seat structure and the base structure for permitting pivoting of the seat structure relative to the base structure; a swivel stop connected to the seat structure to pivot with the seat structure; and a plate connected to the base structure and arranged to be contacted by the swivel stop after the seat structure pivots through a predetermined swivel limit angle to thereby prevent further swiveling of the seat structure; the plate and swivel stop are configured so that the swivel stop contacts an inboard edge of the plate to prevent further pivoting or rotation of the swivel stop; and wherein the inboard edge of said plate includes one section recessed relative to another section, wherein the swivel stop contacts the one section and the another section at different swivel angles. a seat structure configured for receiving a passenger seated thereon; a base structure for supporting the seat structure on a surface; a swivel mechanism between the seat structure and the base structure for permitting pivoting of the seat structure relative to the base structure; a swivel stop connected to the seat structure to pivot with the seat structure; and a plate connected to the base structure and arranged to be contacted by the swivel stop after the seat structure pivots through a predetermined swivel limit angle to thereby prevent further swiveling of the seat structure; the plate and swivel stop are configured so that the swivel stop contacts an inboard edge of the plate to prevent further pivoting or rotation of the swivel stop; and wherein the inboard edge of said plate includes one section recessed relative to another section, wherein the swivel stop contacts the one section and the another section at different swivel angles.
A cardiac patch for use in regenerative medicine and/or myocardium regeneration, characterized in that it comprises a three-dimensional terry fabric with a porous structure, made of biocompatible and/or biodegradable material, as the scaffold material.
A method for improving the interplay of a light source display with a camera recording the image displayed by the light source display, the method comprising the steps of: (i) receiving a light source display input signal; (ii) receiving one or more values representing a programmable off-set relative to the operation of said camera having a shutter and corresponding shutter time; and (iii) applying said light source display input signal to said light source display, based on said one or more programmable off-set values, characterized in that said one or more programmable off-set values are automatically optimally determined in relation to the start and length of the camera shutter opening time and/or the start and length of the camera shutter opening time are automatically determined, by means of applying the following steps: (a) displaying an image; (b) changing said one or more programmable off-set values and/or the start and length of the shutter opening time; (c) analyzing the recording of said image on said camera in accordance with step (iii) above for each of the one or more programmable off-set values and/or the start and length during said changing thereof in (b); and (d) using this analyzing for determining suitable programmable off-set values and/or start and length of the camera shutter opening time.
A cross traffic detection system for a vehicle, the system comprising: a camera arrangement with at least one camera; a data storage device; and a controller; wherein the system is configured for capturing, by means of the camera arrangement, an image sequence comprising consecutive images of an environment of the vehicle; wherein the system is configured for storing the images of the image sequence in the data storage device; wherein the controller is configured for determining in at least two of the images an image section, in which a light cone emitted by an illumination device of a road user moving in a transverse direction with respect to a moving direction of the vehicle is captured; wherein the road user is a traffic participant; and wherein the illumination device is a spotlight, a head lamp, a head light or a reflector; wherein the image section refers to a subset of image data of the image, in which a representation and/or projection of the light cone is comprised; wherein the light cone refers to a region of the camera's field of view, which region is illuminated by the illumination device; and wherein the controller is configured to determine a reflection of the light cone on a road surface in the at least two image sections, and wherein the controller is configured to determine whether the vehicle and the road user moving in the transverse direction with respect to a moving direction of the vehicle approach each other by comparing the determined image sections in the consecutive images and taking into account the determined reflections. a camera arrangement with at least one camera; a data storage device; and a controller; wherein the system is configured for capturing, by means of the camera arrangement, an image sequence comprising consecutive images of an environment of the vehicle; wherein the system is configured for storing the images of the image sequence in the data storage device; wherein the controller is configured for determining in at least two of the images an image section, in which a light cone emitted by an illumination device of a road user moving in a transverse direction with respect to a moving direction of the vehicle is captured; wherein the road user is a traffic participant; and wherein the illumination device is a spotlight, a head lamp, a head light or a reflector; wherein the image section refers to a subset of image data of the image, in which a representation and/or projection of the light cone is comprised; wherein the light cone refers to a region of the camera's field of view, which region is illuminated by the illumination device; and wherein the controller is configured to determine a reflection of the light cone on a road surface in the at least two image sections, and wherein the controller is configured to determine whether the vehicle and the road user moving in the transverse direction with respect to a moving direction of the vehicle approach each other by comparing the determined image sections in the consecutive images and taking into account the determined reflections.
Volume-compressible capacitative flat flexible sensor mat for measuring pressure or pressure distributions and/or for measuring or detecting deformations on flexible flat supports, wherein the sensor mat comprises at least two electrodes, between which the electrical capacity can be measured, and the sensor mat is a flat elastomer mat composed of two stacked elastomer layers being arranged perpendicularly to the sensor mat, such that (i) a first elastomer layer comprises an uneven profile having protrusions and/or depressions on the area face/surface facing the second elastomer layer, wherein the profile is covered with a laterally flexible electrode layer or the first elastomer layer is completely formed as an electrically conductive layer, characterized in that (ii) the second elastomer layer has an uneven profile which has protrusions and/or depressions on the area face/surface facing the first elastomer layer and which is partly complementary to the profile of the first elastomer layer, whereas its other area face/surface looking away from the first elastomer layer is covered with a laterally flexible electrode layer, wherein (iii) at least one void, into which the elastomer material can evade upon pressing the sensor mat, is present between the elastomer layers in the portions between the protrusions and/or depressions in a relaxed state of the sensor mat. (i) a first elastomer layer comprises an uneven profile having protrusions and/or depressions on the area face/surface facing the second elastomer layer, wherein the profile is covered with a laterally flexible electrode layer or the first elastomer layer is completely formed as an electrically conductive layer, characterized in that (ii) the second elastomer layer has an uneven profile which has protrusions and/or depressions on the area face/surface facing the first elastomer layer and which is partly complementary to the profile of the first elastomer layer, whereas its other area face/surface looking away from the first elastomer layer is covered with a laterally flexible electrode layer, wherein (iii) at least one void, into which the elastomer material can evade upon pressing the sensor mat, is present between the elastomer layers in the portions between the protrusions and/or depressions in a relaxed state of the sensor mat.
A combustor connection structure comprising a transition piece of a combustor, and a first stage turbine nozzle of a turbine, wherein the transition piece has a transition piece outlet and a transition piece inlet, wherein a cross-sectional area Dout of the transition piece outlet is set within a range of 0.79 < Dout/Din < 0.9 relative to a cross-sectional area Din of the transition piece inlet, wherein the first stage turbine nozzle is connected to the transition piece outlet and has an outer shroud that forms an outer wall in the radial direction of the first stage turbine nozzle and an inner shroud that forms an inner wall in the radial direction of the first stage turbine nozzle, wherein an upstream opening of the first stage turbine nozzle has a size in a radial direction matched with a size in a radial direction of the transition piece outlet, wherein an upstream end of the outer shroud is placed opposite to an outer end of the transition piece outlet in the radial direction, and wherein a size Hin in the radial direction of the upstream opening of the first stage turbine nozzle is larger than a size Hout in the radial direction of an downstream opening of the first stage turbine nozzle such that the outer shroud is obliquely arranged so that the downstream opening is gradually widened towards the upstream opening and wherein the minimum value of Hin/Hout is X=1.18.
Electron beam machine, in particular a scanning electron microscope, comprising - a beam generator for generating an electron beam, - an objective lens for focusing the electron beam onto an object, - at least one detector for detecting electrons scattered back at the object or emitted by the object, wherein - the electron beam machine comprises at least one adjustable stop, - the position of the stop in the electron beam machine is adjustable, and wherein - the stop comprises at least one aperture for passing electrons which are scattered back at the object onto the detector, characterized in that - the stop is assigned to the detector and in that - the stop is configured such that a large portion of the electrons emitted by the object are masked, and so mainly electrons scattered back at the object pass through the stop and are subsequently detected by the detector. - a beam generator for generating an electron beam, - an objective lens for focusing the electron beam onto an object, - at least one detector for detecting electrons scattered back at the object or emitted by the object, - the electron beam machine comprises at least one adjustable stop, - the position of the stop in the electron beam machine is adjustable, and wherein - the stop comprises at least one aperture for passing electrons which are scattered back at the object onto the detector, - the stop is assigned to the detector and in that - the stop is configured such that a large portion of the electrons emitted by the object are masked, and so mainly electrons scattered back at the object pass through the stop and are subsequently detected by the detector.
A display device comprising: a user input interface configured to receive a signal corresponding to a movement of a remote control device of the display device; a wireless communication interface configured to receive image data from an external device and control data of the external device; a display configured to output a screen of the external device by using the received image data; and a controller configured to control the display to change a pointer display mode indicating whether the external device can or cannot be controlled through the remote control device based on the control data of the external device received while outputting the screen of the external device, wherein the control data includes information for determining whether the external device is able to be controlled by using the remote control device. a user input interface configured to receive a signal corresponding to a movement of a remote control device of the display device; a wireless communication interface configured to receive image data from an external device and control data of the external device; a display configured to output a screen of the external device by using the received image data; and a controller configured to control the display to change a pointer display mode indicating whether the external device can or cannot be controlled through the remote control device based on the control data of the external device received while outputting the screen of the external device, wherein the control data includes information for determining whether the external device is able to be controlled by using the remote control device.
A composition in the form of lyotropic liquid crystalline nanoparticles comprising glycerol monooleate, a salt of a C6-C12 fatty acid or its derivative with an aromatic substituent, an amphiphilic block copolymer with a chemical formula of H(OCH 2 CH 2) a (OCH(CH 3)CH 2) b (OCH 2 CH 2) a OH, wherein 2≤a≤150 and 15≤b≤70, and a bioactive macromolecule having peptide bonds.