mhurhangee/ep-ind-claims huggingface dataset:
A rotational input device comprising: an insulating substrate; a sensor element disposed on the insulating substrate; and a magnetic substance spaced close to the sensor element, the sensor element including a detection mechanism configured to detect orientations of magnetic field lines around the sensor element and having a sensor element parallel surface facing the magnetic substance, the magnetic substance having a bottom surface that is located adjacent to the sensor element so as to face the sensor element parallel surface characterized in that the magnetic substance includes two ridges that protrude from the bottom surface toward the sensor element and extend parallel to each other, the two ridges each having a ridge parallel surface located adjacent to the sensor element such that the ridge parallel surface is substantially parallel to the sensor element parallel surface, the ridge parallel surface having a substantially rectangular shape in plan view, the magnetic substance being magnetized in a magnetization direction identical to a longitudinal direction of the ridges. an insulating substrate; a sensor element disposed on the insulating substrate; and a magnetic substance spaced close to the sensor element, the sensor element including a detection mechanism configured to detect orientations of magnetic field lines around the sensor element and having a sensor element parallel surface facing the magnetic substance, the magnetic substance having a bottom surface that is located adjacent to the sensor element so as to face the sensor element parallel surface characterized in that the magnetic substance includes two ridges that protrude from the bottom surface toward the sensor element and extend parallel to each other, the two ridges each having a ridge parallel surface located adjacent to the sensor element such that the ridge parallel surface is substantially parallel to the sensor element parallel surface, the ridge parallel surface having a substantially rectangular shape in plan view, the magnetic substance being magnetized in a magnetization direction identical to a longitudinal direction of the ridges.
An anchoring device for fastening orthodontic wires or orthodontic appliances for orthodontic corrective treatment, being composed of an anchor screw that can be screwed into the given jaw, the respective wire or the respective orthodontic appliance being able to be applied to and removably be fastened to said anchor screw, preferably in the area of the head portion of the anchor screw, the anchoring device having a coupling element that is provided at an end of the respective wire or of the respective orthodontic appliance, characterised in that the coupling element can be introduced into a frontal recess in the head portion of the anchor screw, the coupling element being pivotable in all directions, freely rotatable and lockable therein, the frontal recess in the head portion of the anchor screw having a ball-shaped part in the bottom of said anchor screw, said ball-shaped part tapering off, above the centre of the ball, into a cone-shaped part of the recess that extends from the front of the head portion, and the coupling element, which is essentially cylindrical, also having a corresponding ball-shaped part at its free end, in that the ball-shaped part of the coupling element has at least one slot that passes through said ball-shaped part radially and that divides the ball-shaped part of the coupling element into segments, and in that the coupling element has a coaxial threaded hole essentially extending over the entire length of the same and tapering off into a cone-shaped part at its end oriented towards the ball-shaped part of the coupling element, a threaded pin being able to be screwed into the threaded hole, said threaded pin, with its end that is realised so as to be cone-shaped, coming to rest in the ball-shaped part of the threaded hole when the threaded pin is being twisted in one direction and gripping the segments of the ball-shaped part of the coupling element in the ball-shaped part of the frontal recess in the head portion.
A system comprising: a system rotor that rotates about a system axis of rotation; a system stator that is stationary with respect to the system rotor; at least one conductive contact channel (210, 212) disposed on one of the system rotor and the system stator; characterized in that the system further comprises at least one capsule slip ring, CSR, coupled to the other of the system rotor and the system stator, the at least one CSR including a CSR stator circumscribing a CSR rotor, the at least one CSR having a conductive annular element rigidly coupled to and rotating with the CSR rotor, the conductive annular element in mechanical contact with the at least one conductive contact channel (210, 212) such that the at least one CSR forms an electrical rotary joint between the system rotor and the system stator. a system rotor that rotates about a system axis of rotation; a system stator that is stationary with respect to the system rotor; at least one conductive contact channel (210, 212) disposed on one of the system rotor and the system stator; characterized in that the system further comprises at least one capsule slip ring, CSR, coupled to the other of the system rotor and the system stator, the at least one CSR including a CSR stator circumscribing a CSR rotor, the at least one CSR having a conductive annular element rigidly coupled to and rotating with the CSR rotor, the conductive annular element in mechanical contact with the at least one conductive contact channel (210, 212) such that the at least one CSR forms an electrical rotary joint between the system rotor and the system stator.
A method for proofing at least a selected part of a graphical data input file for output to an output device, the method comprising automatically adjusting, using a computer programmed to perform such adjusting, at least one graphics feature in the input file to compensate for a predetermined resolution limit, the method comprising the steps of: (a) automatically identifying, using the computer, in the selected part of the input file, one or more portions having an initial thickness less than the predetermined resolution limit; (b) automatically determining a set of optimal anisotropic offset parameters that when applied will bring the one or more portions above the predetermined resolution limit with a minimal total offset value; (c) automatically modifying with the computer the selected part of the input file so that the identified one or more portions have an adjusted thickness greater than the initial thickness, said modifying comprising applying an offset using the identified set of optimal anisotropic offset parameters; and (d) creating, using the computer, an output file comprising the at least one graphics feature having the adjusted thickness, wherein the step of applying an offset using the identified set of optimal anisotropic offset parameters comprises applying ellipses to the selected part of the input file, wherein each of the ellipses have a major offset distance in a major diameter direction, a minor offset distance (d) in a minor diameter direction that is perpendicular to the major diameter direction, and an angle (α) of the major diameter direction relative to a main direction, wherein D > d. (a) automatically identifying, using the computer, in the selected part of the input file, one or more portions having an initial thickness less than the predetermined resolution limit; (b) automatically determining a set of optimal anisotropic offset parameters that when applied will bring the one or more portions above the predetermined resolution limit with a minimal total offset value; (c) automatically modifying with the computer the selected part of the input file so that the identified one or more portions have an adjusted thickness greater than the initial thickness, said modifying comprising applying an offset using the identified set of optimal anisotropic offset parameters; and (d) creating, using the computer, an output file comprising the at least one graphics feature having the adjusted thickness,
A luggage securing device for a two-wheeled vehicle, in particular a bicycle or motorcycle, which includes a first securing element (3a, 3c), a holding element, a second securing element, and at least one tensioning element; the holding element is embodied so that it extends essentially in the vertical direction for accommodating luggage in the region of a rear-wheel luggage rack and is embodied to secure the luggage by means of the at least one tensioning element and is connected to the two-wheeled vehicle directly or indirectly by means of the first securing element and the second securing element, characterized in that the at least one tensioning element is guided inside the holding element.
A computer-implemented method of generating a reservoir property model, comprising: a. receiving, at a computer processor, a seismic inversion product volume and a seismic attribute volume representative of a subsurface volume of interest wherein the seismic inversion product volume and the seismic attribute volume are structured as a regular grid of cells; b. receiving, at the computer processor, well data from wells drilled in the subsurface volume of interest; c. identifying collocated cells in the seismic inversion product volume by comparing the seismic inversion product volume to the well data to match an equivalent seismic inversion property derived from the well data passing through that cell; d. creating attribute vectors from the seismic inversion product volume and the seismic attribute volume in each of the collocated cells and a range of neighboring cells; e. calculating a seismic inversion error magnitude property at the collocated cells from the difference between the seismic inversion product and the equivalent seismic inversion property derived from the well data; f. training a data analytics method with a preprocessor to predict the observed seismic inversion error magnitude property from the attribute vectors at all cells in the grid; g. verifying that the data analytics method accurately predicts the seismic inversion error magnitude using cross-validation; h. generating an inversion quality volume using the prediction of seismic inversion error magnitude to assess inversion quality in each cell; and i. generating the reservoir property model based on the inversion quality volume. a. receiving, at a computer processor, a seismic inversion product volume and a seismic attribute volume representative of a subsurface volume of interest wherein the seismic inversion product volume and the seismic attribute volume are structured as a regular grid of cells; b. receiving, at the computer processor, well data from wells drilled in the subsurface volume of interest; c. identifying collocated cells in the seismic inversion product volume by comparing the seismic inversion product volume to the well data to match an equivalent seismic inversion property derived from the well data passing through that cell; d. creating attribute vectors from the seismic inversion product volume and the seismic attribute volume in each of the collocated cells and a range of neighboring cells; e. calculating a seismic inversion error magnitude property at the collocated cells from the difference between the seismic inversion product and the equivalent seismic inversion property derived from the well data; f. training a data analytics method with a preprocessor to predict the observed seismic inversion error magnitude property from the attribute vectors at all cells in the grid; g. verifying that the data analytics method accurately predicts the seismic inversion error magnitude using cross-validation; h. generating an inversion quality volume using the prediction of seismic inversion error magnitude to assess inversion quality in each cell; and i. generating the reservoir property model based on the inversion quality volume.
A transport assembly comprising: a box portion that comprises a box surface, a box front, a box back, and a pair of box sides, wherein the box front, the box back, and the box sides each extend from the box surface, wherein a gap extends between the box front and each of the box sides; and a drawer portion that comprises a drawer surface, a drawer front, and a pair of drawer sides, wherein the drawer front and the drawer sides each extend from the drawer surface, wherein a gap extends between the drawer front and each of the drawer sides, wherein the box portion and the drawer portion can be arranged such that an inner surface of the drawer front faces an outer surface of the box front and an inner surface of each box side faces an outer surface of a corresponding drawer side, characterised in that the drawer surface and drawer sides define an open back portion that faces the drawer front. a box portion that comprises a box surface, a box front, a box back, and a pair of box sides, wherein the box front, the box back, and the box sides each extend from the box surface, wherein a gap extends between the box front and each of the box sides; and a drawer portion that comprises a drawer surface, a drawer front, and a pair of drawer sides, wherein the drawer front and the drawer sides each extend from the drawer surface, wherein a gap extends between the drawer front and each of the drawer sides, wherein the box portion and the drawer portion can be arranged such that an inner surface of the drawer front faces an outer surface of the box front and an inner surface of each box side faces an outer surface of a corresponding drawer side, characterised in that the drawer surface and drawer sides define an open back portion that faces the drawer front. an inner surface of the drawer front faces an outer surface of the box front and an inner surface of each box side faces an outer surface of a corresponding drawer side, characterised in that the drawer surface and drawer sides define an open back portion that faces the drawer front.
Dental prosthesis of the type comprising a dental implant, a post and core and a crown, said implant being suited to be fixed to a bone and said post and core being suited to be fixed to said implant by means of a screw can pass through the inside of said post and core, said post and core comprising a portion to be inserted into said implant and another portion protruding from said implant, wherein said post and core serves as a connection element between said implant and said crown, a separation area being provided between the area where the crown is housed in the post and core and the area where the post and core is housed in the implant, the diameter of said portion protruding from said implant converging from said implant towards said crown, without increases, characterized in that said post and core is provided with an ascending microscopic thread that starts from the part of said portion protruding from the implant that is closest to the implant itself.
An integrated dilation and feed circuit comprising: an asymmetric dilation layer comprising a pair of dilation circuit signal paths; an asymmetric reactive combiner layer comprising a pair of reactive combiner circuits, said asymmetric reactive combiner circuit layer disposed over said asymmetric dilation layer such that said pair of reactive combiner circuits are coupled to respective ones of said pair of dilation circuit signal paths; a symmetric feed layer having a plurality of feed circuits symmetrically disposed thereon, said symmetric feed layer disposed over said asymmetric reactive combiner layer such that each of said symmetrically disposed plurality of feed circuits are coupled to one of said pair of asymmetric, reactive combiner circuits, wherein said symmetric feed layer is configured to be both physically and electrically symmetric; and a symmetric slot layer having a like plurality of slots symmetrically disposed thereon, said symmetric slot layer disposed over said symmetric feed layer such that each of said plurality of feed circuits intersect a respective one of said plurality of slots, wherein said symmetric slot layer is configured to be both physically and electrically symmetric. an asymmetric dilation layer comprising a pair of dilation circuit signal paths; an asymmetric reactive combiner layer comprising a pair of reactive combiner circuits, said asymmetric reactive combiner circuit layer disposed over said asymmetric dilation layer such that said pair of reactive combiner circuits are coupled to respective ones of said pair of dilation circuit signal paths; a symmetric feed layer having a plurality of feed circuits symmetrically disposed thereon, said symmetric feed layer disposed over said asymmetric reactive combiner layer such that each of said symmetrically disposed plurality of feed circuits are coupled to one of said pair of asymmetric, reactive combiner circuits, wherein said symmetric feed layer is configured to be both physically and electrically symmetric; and a symmetric slot layer having a like plurality of slots symmetrically disposed thereon, said symmetric slot layer disposed over said symmetric feed layer such that each of said plurality of feed circuits intersect a respective one of said plurality of slots, wherein said symmetric slot layer is configured to be both physically and electrically symmetric.
A human monoclonal IgG antibody that binds specifically to human tissue factor pathway inhibitor, wherein the antibody comprises: a) a human heavy chain comprising: i. a CDR 1 region with the amino acid sequence of FTFRSYGMD (corresponding to residues 27 to 35 of SEQ ID NO: 1 with a S35D substitution); ii. a CDR2 region with the amino acid sequence of SIRGSRSSTYYADSVKG (corresponding to residues 50 to 66 of SEQ ID NO: 1 with a S55R substitution); iii. a CDR3 region with the amino acid sequence of LYRYWFDY (corresponding to residues 99 to 106 of SEQ ID NO: 1 with a K99L substitution); and b) a human light chain comprising: i. a CDR1 region with the amino acid sequence of SGDNLRNYYAH (corresponding to residues 23 to 33 of SEQ ID NO: 2); ii. a CDR2 region with the amino acid sequence of FYDVNRPS (corresponding to residues 48 to 55 of SEQ ID NO: 2 with a Y48F and a N51V substitution); iii. a CDR3 region with the amino acid sequence of QSWWDGVPV (corresponding to residues 88 to 96 of SEQ ID NO: 2 with a D91W substitution). a) a human heavy chain comprising: i. a CDR 1 region with the amino acid sequence of FTFRSYGMD (corresponding to residues 27 to 35 of SEQ ID NO: 1 with a S35D substitution); ii. a CDR2 region with the amino acid sequence of SIRGSRSSTYYADSVKG (corresponding to residues 50 to 66 of SEQ ID NO: 1 with a S55R substitution); iii. a CDR3 region with the amino acid sequence of LYRYWFDY (corresponding to residues 99 to 106 of SEQ ID NO: 1 with a K99L substitution); and i. a CDR 1 region with the amino acid sequence of FTFRSYGMD (corresponding to residues 27 to 35 of SEQ ID NO: 1 with a S35D substitution); ii. a CDR2 region with the amino acid sequence of SIRGSRSSTYYADSVKG (corresponding to residues 50 to 66 of SEQ ID NO: 1 with a S55R substitution); iii. a CDR3 region with the amino acid sequence of LYRYWFDY (corresponding to residues 99 to 106 of SEQ ID NO: 1 with a K99L substitution); and b) a human light chain comprising: i. a CDR1 region with the amino acid sequence of SGDNLRNYYAH (corresponding to residues 23 to 33 of SEQ ID NO: 2); ii. a CDR2 region with the amino acid sequence of FYDVNRPS (corresponding to residues 48 to 55 of SEQ ID NO: 2 with a Y48F and a N51V substitution); iii. a CDR3 region with the amino acid sequence of QSWWDGVPV (corresponding to residues 88 to 96 of SEQ ID NO: 2 with a D91W substitution). i. a CDR1 region with the amino acid sequence of SGDNLRNYYAH (corresponding to residues 23 to 33 of SEQ ID NO: 2); ii. a CDR2 region with the amino acid sequence of FYDVNRPS (corresponding to residues 48 to 55 of SEQ ID NO: 2 with a Y48F and a N51V substitution); iii. a CDR3 region with the amino acid sequence of QSWWDGVPV (corresponding to residues 88 to 96 of SEQ ID NO: 2 with a D91W substitution).
Circuit arrangement for controlling the brightness of at least one LED unit, comprising - an input for receiving a phase-cut operating voltage from a power supply, - a signal processor (14, 14'), connected with said input and adapted to provide a dimming signal for said at least one LED unit from said operating voltage, said signal processor (14, 14') being configured to operate at least in a noise suppression mode and a dimming mode and - a control device (15, 15'), connected with said signal processor (14, 14') and configured to set the mode of said signal processor (14, 14') in dependence of the variation in said operating voltage, characterized in that said control device (15, 15') is further adapted to determine said variation by comparing said operating voltage with a reference signal; and in that said reference signal corresponds to said dimming signal. - an input for receiving a phase-cut operating voltage from a power supply, - a signal processor (14, 14'), connected with said input and adapted to provide a dimming signal for said at least one LED unit from said operating voltage, said signal processor (14, 14') being configured to operate at least in a noise suppression mode and a dimming mode and - a control device (15, 15'), connected with said signal processor (14, 14') and configured to set the mode of said signal processor (14, 14') in dependence of the variation in said operating voltage,
Method for the 3-dimensional measurement of a sample with a measuring system comprising a laser scanning microscope having a 3-dimensional measuring space, the method comprising the steps of - creating, using a 3-dimensional virtual reality device of the measuring system, a 3-dimensional virtual space of the measuring space in a real space region that is spaced from the measuring space, - allowing for selecting, via a 3-dimensional input device, an operation in the real space region wherein the 3-dimensional virtual space is displayed, - providing a real-time bidirectional connection between the measuring space and the 3-dimensional virtual space, - performing the operation selected in the 3-dimensional virtual space in the measuring space, - measuring data with the laser scanning microscope in the measuring space, and - displaying in real-time in the 3-dimensional virtual space the data measured in the measuring space. - creating, using a 3-dimensional virtual reality device of the measuring system, a 3-dimensional virtual space of the measuring space in a real space region that is spaced from the measuring space, - allowing for selecting, via a 3-dimensional input device, an operation in the real space region wherein the 3-dimensional virtual space is displayed, - providing a real-time bidirectional connection between the measuring space and the 3-dimensional virtual space, - performing the operation selected in the 3-dimensional virtual space in the measuring space, - measuring data with the laser scanning microscope in the measuring space, and - displaying in real-time in the 3-dimensional virtual space the data measured in the measuring space.
A method of genetically distinguishing two or more mice from the same substrain from one another, comprising a. obtaining at least one DNA sample to be analysed, b. amplifying at least one short tandem repeat loci (STR loci) in the genome of said mice, wherein at least 1 chromosome is the target of said amplification, c. evaluating the amplified fragments to determine the alleles present at each amplified locus within the DNA sample, wherein the STR loci are characterized by a high mutation rate, wherein a high mutation rate herein is between 1 x 10 -1 and 1 x 10 -3, wherein the offspring generation shares on average an identical genome of at least 99.5%. a. obtaining at least one DNA sample to be analysed, b. amplifying at least one short tandem repeat loci (STR loci) in the genome of said mice, wherein at least 1 chromosome is the target of said amplification, c. evaluating the amplified fragments to determine the alleles present at each amplified locus within the DNA sample,