mhurhangee/patent-ind-claim-en huggingface dataset:
Method for pendulum welding at least one workpiece by means of a welding tool, the pendulum by a robot arm of an industrial robot is moved automatically relative to the workpiece along a programmed path and thereby to produce a weld seam on the workpiece , comprising the steps in recurring order: - Performing a programmed motion by the robot arm along the programmed path (S1), - Performing a pendulum motion of the welding tool in synchronism with the advance movement (S2), characterized by the steps: - Braking of the forward movement according to a first braking profile with in a pendulum period (P1) up to a standstill (S) before the pendulum movement has reached its next reversal point (U) (S3) - Determining a residual deflection value (R), which by a first position (S') is at a standstill and a second position (U') at the next inversion point is defined in part of the pendulum movement (S4), - Braking in the feed movement in a subsequent pendulum period (P2) having a function of the residual deflection value (R) from a previous pendulum period delayed braking movement (S5). - Performing a programmed motion by the robot arm along the programmed path (S1), - Performing a pendulum motion of the welding tool in synchronism with the advance movement (S2), characterized by the steps: - Braking of the forward movement according to a first braking profile with in a pendulum period (P1) up to a standstill (S) before the pendulum movement has reached its next reversal point (U) (S3) - Determining a residual deflection value (R), which by a first position (S') is at a standstill and a second position (U') at the next inversion point is defined in part of the pendulum movement (S4), - Braking in the feed movement in a subsequent pendulum period (P2) having a function of the residual deflection value (R) from a previous pendulum period delayed braking movement (S5). - Braking of the forward movement according to a first braking profile with in a pendulum period (P1) up to a standstill (S) before the pendulum movement has reached its next reversal point (U) (S3) - Determining a residual deflection value (R), which by a first position (S') is at a standstill and a second position (U') at the next inversion point is defined in part of the pendulum movement (S4), - Braking in the feed movement in a subsequent pendulum period (P2) having a function of the residual deflection value (R) from a previous pendulum period delayed braking movement (S5).
Lens with a fixed focal length, consisting of five lens-element groups, wherein three (G1, G3, G5) are mounted in a stationary manner and two (G2, G4) are mounted in a displaceable manner along an optical axis, characterized in that a) a first front lens-element group (G1) as viewed from an object side with negative refractive power is arranged in a stationary manner, b) a second lens-element group as a focusing front group (G2) is arranged in a displaceable manner, c) a third lens-element group with positive or negative refractive power and containing a stationary iris diaphragm (AP), the aperture of which is adjustable, as a central group (G3) is arranged in a stationary manner, d) a fourth lens-element group as a focusing back group (G4) is arranged in a displaceable manner and e) a fifth back lens-element group (G5) with negative refractive power is arranged in a stationary manner relative to an imaging plane (IM) in a lens barrel and both the focusing front group (G2) and the focusing back group (G4) are movable jointly relative to one another and to the lens-element groups (G1, G3, G5) arranged in a stationary manner in order to focus the lens on objects at different object distances. a) a first front lens-element group (G1) as viewed from an object side with negative refractive power is arranged in a stationary manner, b) a second lens-element group as a focusing front group (G2) is arranged in a displaceable manner, c) a third lens-element group with positive or negative refractive power and containing a stationary iris diaphragm (AP), the aperture of which is adjustable, as a central group (G3) is arranged in a stationary manner, d) a fourth lens-element group as a focusing back group (G4) is arranged in a displaceable manner and e) a fifth back lens-element group (G5) with negative refractive power is arranged in a stationary manner
A method for automatic left ventricular (LV) inner border detection, the method comprising: performing image mapping on an echocardiogram including segmenting the echocardiogram simultaneously with pixel mapping using piece-wise histogram equalization, to produce a multi-level image map having three intensity levels; wherein the piece-wise histogram equalization comprises determining a central axis of the LV and dividing the LV appearing in the echocardiogram, based on entropy levels in the histogram, into a plurality of rectangular segments situated on lateral and septal sides of the central axis, converting the multi-level image map into a binary image, by attributing pixels of one or more darker levels of the image map to the LV cavity and pixels of one or more lighter levels of the image map to the myocardium; applying a radial filter to contours of the myocardium in the binary image, to extract an approximate inner border of the LV to separate the inner border from an outer border of the LV; and performing shape modeling on the approximate inner border, to determine the LV inner border. performing image mapping on an echocardiogram including segmenting the echocardiogram simultaneously with pixel mapping using piece-wise histogram equalization, to produce a multi-level image map having three intensity levels; wherein the piece-wise histogram equalization comprises determining a central axis of the LV and dividing the LV appearing in the echocardiogram, based on entropy levels in the histogram, into a plurality of rectangular segments situated on lateral and septal sides of the central axis, converting the multi-level image map into a binary image, by attributing pixels of one or more darker levels of the image map to the LV cavity and pixels of one or more lighter levels of the image map to the myocardium; applying a radial filter to contours of the myocardium in the binary image, to extract an approximate inner border of the LV to separate the inner border from an outer border of the LV; and performing shape modeling on the approximate inner border, to determine the LV inner border.
A male touch fastener product , comprising a resin surface ; an array of spaced-apart male touch fastener elements carried on the surface, each touch fastener element comprising a stem extending from the surface; and a head disposed at a distal end of the stem , and forming with the stem and the surface a contiguous mass of resin, the head extending laterally from the stem to a distal edge overhanging the surface; wherein the distal edge comprises multiple toes extending laterally outward and varying in shape and size about the edge, characterized by adjacent toes having facing, free-form resin surfaces defining crevices there between, the crevices being narrower than the adjacent toes . a resin surface ; an array of spaced-apart male touch fastener elements carried on the surface, each touch fastener element comprising a stem extending from the surface; and a head disposed at a distal end of the stem , and forming with the stem and the surface a contiguous mass of resin, the head extending laterally from the stem to a distal edge overhanging the surface; a stem extending from the surface; and a head disposed at a distal end of the stem , and forming with the stem and the surface a contiguous mass of resin, the head extending laterally from the stem to a distal edge overhanging the surface; wherein the distal edge comprises multiple toes extending laterally outward and varying in shape and size about the edge, characterized by adjacent toes having facing, free-form resin surfaces defining crevices there between, the crevices being narrower than the adjacent toes .
A method of verifying data entered by a computer user browsing web content over a computer network, comprising: the computer user using a browser to access a first web page from a requesting server provided by a requesting party; the computer user selecting a control presented by the first web page to request a further web page where the computer user is able to enter data that requires verification by a third party; the requester server redirecting the computer user's browser to a verifying server provided by a verifying party; the verifying server providing to the computer user's browser a second web page to fulfil the request for the further web page, wherein the second web page is presented as a foreground, lightbox window positioned over a backdrop frame and wherein the foreground window is provided with fields for entering the data and wherein the backdrop frame is provided as an iFrame by the requesting party; the computer user entering the data in the foreground window of the second web page; the verifying server verifying the data entered by the computer user; and the verifying server sending the requesting server a notification as to whether or not the verification was successful. the computer user using a browser to access a first web page from a requesting server provided by a requesting party; the computer user selecting a control presented by the first web page to request a further web page where the computer user is able to enter data that requires verification by a third party; the requester server redirecting the computer user's browser to a verifying server provided by a verifying party; the verifying server providing to the computer user's browser a second web page to fulfil the request for the further web page, wherein the second web page is presented as a foreground, lightbox window positioned over a backdrop frame and wherein the foreground window is provided with fields for entering the data and wherein the backdrop frame is provided as an iFrame by the requesting party; the computer user entering the data in the foreground window of the second web page; the verifying server verifying the data entered by the computer user; and the verifying server sending the requesting server a notification as to whether or not the verification was successful.
Distributing and metering device for a roller mill, comprising: - a housing having at least one milling-material inlet and at least one milling-material outlet , - a feeding roller , which is arranged in the housing , for metering milling material into a milling gap of the roller mill through the milling-material outlet , which roller is rotatable about a feeding roller axis (SA), - a conveying shaft , which is arranged in the housing , for distributing milling material along the feeding roller , which shaft is rotatable about a conveying shaft axis (FA), wherein the conveying shaft axis (FA) is arranged substantially parallel to the feeding roller axis (SA), and - a first filling level sensor , which is arranged in the housing , for determining a first milling-material filling level of the housing , characterized in that the distributing and metering device further comprises - a second filling level sensor , which is arranged in the housing, for determining a second milling-material filling level of the housing , wherein - the milling-material inlet and the first filling level sensor are arranged at a first end, that is to say at a first third, of the feeding roller and of the conveying shaft , and - the second filling level sensor is arranged at a second end, that is to say at a last third, of the feeding roller and of the conveying shaft . - a housing having at least one milling-material inlet and at least one milling-material outlet , - a feeding roller , which is arranged in the housing , for metering milling material into a milling gap of the roller mill through the milling-material outlet , which roller is rotatable about a feeding roller axis (SA), - a conveying shaft , which is arranged in the housing , for distributing milling material along the feeding roller , which shaft is rotatable about a conveying shaft axis (FA), wherein the conveying shaft axis (FA) is arranged substantially parallel to the feeding roller axis (SA), and - a first filling level sensor , which is arranged in the housing , for determining a first milling-material filling level of the housing , characterized in that the distributing and metering device further comprises - a second filling level sensor , which is arranged in the housing, for determining a second milling-material filling level of the housing , wherein - the milling-material inlet and the first filling level sensor are arranged at a first end, that is to say at a first third, of the feeding roller and of the conveying shaft , and - the second filling level sensor is arranged at a second end, that is to say at a last third, of the feeding roller and of the conveying shaft .
Stator for an electric machine having slots for receiving the conductors that are used to generate a magnetic field, wherein at least two conductors that run parallel to one another, adjoin one another and are electrically insulated from one another by insulation means are provided in the slots, wherein two layers that adjoin one another in the radial direction are formed in a slot by at least two individual conductors that adjoin one another in the radial direction, characterized in that the insulation means are formed partly by an additional layer separator that is introduced between the conductors, in that , instead of an identical layer separator being inserted between all of the conductors, the use and/or characteristics of the layer separators are dependent on the respective maximum voltage potential between the conductors, which run parallel to one another and adjoin one another, in the slots, in that the layer separators consist of a separating film and are introduced whenever the maximum voltage potential between the conductors that adjoin one another exceeds a particular value, and in that the layer separators are arranged in a tangential direction between the conductors that adjoin one another in the radial direction.
Method for producing an operating reserve for regulating a grid frequency of a power grid operated at a nominal grid frequency in the event of a frequency deviation of the grid frequency from the nominal grid frequency, wherein a temporal progression of the frequency deviation is spectrally split into at least two different spectral ranges, wherein each of the spectral ranges is assigned to one of at least two different technical units for providing operating reserve, wherein, of the at least two technical units, a first technical unit assigned to a first spectral range has a first reaction speed and a first energy shifting capacity or storage capacity and a second technical unit assigned to a second spectral range has a second reaction speed and a second energy shifting capacity or storage capacity, wherein the first spectral range covers a slower frequency deviation than the second spectral range and wherein the first technical unit has a slower reaction speed and a higher energy shifting capacity or storage capacity than the second technical unit, wherein the required operating reserve is produced according to the spectral splitting of the temporal progression of the frequency deviation by means of the technical units individually or together, wherein a respective power share of the technical units in the operating reserve corresponds to the spectral share of that spectral range in the temporal progression of the frequency deviation which is assigned to the respective technical unit. wherein a temporal progression of the frequency deviation is spectrally split into at least two different spectral ranges, wherein each of the spectral ranges is assigned to one of at least two different technical units for providing operating reserve, wherein, of the at least two technical units, a first technical unit assigned to a first spectral range has a first reaction speed and a first energy shifting capacity or storage capacity and a second technical unit assigned to a second spectral range has a second reaction speed and a second energy shifting capacity or storage capacity, wherein the first spectral range covers a slower frequency deviation than the second spectral range and wherein the first technical unit has a slower reaction speed and a higher energy shifting capacity or storage capacity than the second technical unit, wherein the required operating reserve is produced according to the spectral splitting of the temporal progression of the frequency deviation by means of the technical units individually or together, wherein a respective power share of the technical units in the operating reserve corresponds to the spectral share of that spectral range in the temporal progression of the frequency deviation which is assigned to the respective technical unit.
A cell structure for use in a method of treatment of an inflammatory disease by trophic factor release, which includes biocompatible polymer blocks and cells and in which the plurality of biocompatible polymer blocks are disposed in gaps between the plurality of cells, and a size of one of the biocompatible polymer blocks is 20 μm to 200 μm, wherein the trophic factor comprises the cytokine TNF-stimulated gene 6 protein (TSG-6), and wherein the biocompatible polymer blocks are formed of a polypeptide.
A valve for a fluid delivery system, the valve comprising: a valve seat and a valve membrane , the valve seat comprising a fluid inlet , a fluid outlet , and a conical well comprising an inner surface forming a passage between the fluid inlet and outlet, and the valve membrane comprising a disk portion and a conical portion having a tip , wherein the disk portion comprises a ridge and groove ; the valve membrane being positioned within the valve seat with the conical portion extending through the passage of the conical well such that, in an undeformed position, the conical portion is spaced apart from the inner surface of the valve seat, thereby forming the passage such that a fluid may be conducted through the valve seat, and, in a deformed position, the conical portion is directed further into the conical well, thereby radially stretching the disk portion such that the tip of the valve membrane engages against a surface of the valve seat opposite the tip of the valve membrane and the conical portion engages against the inner surface forming the passage to resist fluid flow through the valve seat. a valve seat and a valve membrane , the valve seat comprising a fluid inlet , a fluid outlet , and a conical well comprising an inner surface forming a passage between the fluid inlet and outlet, and the valve membrane comprising a disk portion and a conical portion having a tip , wherein the disk portion comprises a ridge and groove ; the valve membrane being positioned within the valve seat with the conical portion extending through the passage of the conical well such that, in an undeformed position, the conical portion is spaced apart from the inner surface of the valve seat, thereby forming the passage such that a fluid may be conducted through the valve seat, and, in a deformed position, the conical portion is directed further into the conical well, thereby radially stretching the disk portion such that the tip of the valve membrane engages against a surface of the valve seat opposite the tip of the valve membrane and the conical portion engages against the inner surface forming the passage to resist fluid flow through the valve seat.
A method for determining an organ frequency of a periodically moving organ in a MRI examination, wherein the method comprises the following steps: - providing a plurality of MR images of an examining region including a periodically moving organ over a plurality of periodic cycles, wherein each MR image is a magnitude image and contains a plurality of pixels; - associating a pixel frequency to each of the plurality of pixels based on the plurality of MR images ; - determining a position of each pixel within the plurality of MR images ; - determining a biggest group of pixels based on the position of the pixels within the plurality of MR images and such that the pixels in the biggest group of pixels have substantially the same pixel frequency; - detecting the position of the periodically moving organ based on the biggest group of pixels; - determining an organ frequency of the periodically moving organ using a frequency estimation based on pixel signal variations of the pixels in the biggest group of pixels. - providing a plurality of MR images of an examining region including a periodically moving organ over a plurality of periodic cycles, wherein each MR image is a magnitude image and contains a plurality of pixels; - associating a pixel frequency to each of the plurality of pixels based on the plurality of MR images ; - determining a position of each pixel within the plurality of MR images ; - determining a biggest group of pixels based on the position of the pixels within the plurality of MR images and such that the pixels in the biggest group of pixels have substantially the same pixel frequency; - detecting the position of the periodically moving organ based on the biggest group of pixels; - determining an organ frequency of the periodically moving organ using a frequency estimation based on pixel signal variations of the pixels in the biggest group of pixels.
A method performed by a network node for handling communication in a wireless communication network, the method comprising - storing an indication of a reference signal and a timing information defining when the reference signal was transmitted from a first radio network node or another radio network node; - receiving , from a second radio network node , a time instant associated with a receiving event relating to reference signal detection at a wireless device and information related to the receiving event; - providing an identity of the first or the other radio network node based on the stored indication of the reference signal and the stored timing information mapping to the received time instant and received information related to the receiving event to the second radio network node . - storing an indication of a reference signal and a timing information defining when the reference signal was transmitted from a first radio network node or another radio network node; - receiving , from a second radio network node , a time instant associated with a receiving event relating to reference signal detection at a wireless device and information related to the receiving event; - providing an identity of the first or the other radio network node based on the stored indication of the reference signal and the stored timing information mapping to the received time instant and received information related to the receiving event to the second radio network node .