mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining a deviation of an actual shape from an intended shape of an optical surface of an optical element , comprising the following steps: - generating an input wave , - arranging a diffractive optical element in the beam path of the input wave and converting the input wave into at least three separate output waves by interaction with the diffractive optical element, wherein one of the output waves is a measurement wave , adapted to the intended shape of the optical surface, with a non-spherical wavefront, and at least two further ones of the output waves are calibration waves (58, 60y +1 , 60y +1 ; 70, 72, 74), - determining calibration corrections of the diffractive optical element by means of each one of the at least two calibration waves, - arranging the optical surface in the beam path of the adapted wave and measuring the wavefront of the adapted measurement wave after interaction with the optical surface, wherein the wavefront of the adapted measurement wave is measured with the diffractive optical element being oriented in respect of the input wave the same as during the determining of the calibration corrections, and - correcting the measured wavefront by means of the determined calibration corrections. - generating an input wave , - arranging a diffractive optical element in the beam path of the input wave and converting the input wave into at least three separate output waves by interaction with the diffractive optical element, wherein one of the output waves is a measurement wave , adapted to the intended shape of the optical surface, with a non-spherical wavefront, and at least two further ones of the output waves are calibration waves (58, 60y +1 , 60y +1 ; 70, 72, 74), - determining calibration corrections of the diffractive optical element by means of each one of the at least two calibration waves, - arranging the optical surface in the beam path of the adapted wave and measuring the wavefront of the adapted measurement wave after interaction with the optical surface, wherein the wavefront of the adapted measurement wave is measured with the diffractive optical element being oriented in respect of the input wave the same as during the determining of the calibration corrections, and - correcting the measured wavefront by means of the determined calibration corrections.
Vehicle having reproduction means for displaying at least one parameter of the vehicle, wherein the reproduction means are configured to represent the current parameter value on the reproduction means in the form of numbers or numerical words, wherein there are provided allocation means which are configured to allocate to the number or numerical word, on the basis of the value of the number or numerical word, the size of the number or numerical word and wherein the reproduction means are configured to represent the number or numerical word on the reproduction means with the allocated size on the reproduction means, characterized in that the allocation means is configured to take into consideration the value or amount of the current parameter when allocating the size of the number or numerical word, wherein the size of the number or the numerical word increases with the size of the parameter.
A portable apparatus for clamping workpieces to be processed, for example pipes or profiles to be shortened by means of a hand-held circular saw, comprising a lower clamping section and an upper clamping section which are movable relative to one another between a clamping position and a release position, wherein the relative movement of the two clamping sections is compulsorily guided by a mechanical connection between the two clamping sections , characterized in that the upper clamping section is configured for the support and straight-line guidance of a portable hand-held electric tool with which a workpiece is processed that is clamped in the clamping position between the two clamping sections using the inherent weight of the electric tool . comprising a lower clamping section and an upper clamping section which are movable relative to one another between a clamping position and a release position, wherein the relative movement of the two clamping sections is compulsorily guided by a mechanical connection between the two clamping sections , characterized in that the upper clamping section is configured for the support and straight-line guidance of a portable hand-held electric tool with which a workpiece is processed that is clamped in the clamping position between the two clamping sections using the inherent weight of the electric tool .
A power semiconductor device comprising: a power semiconductor circuit section; a plurality of smoothing capacitors; a positive electrode conductor portion and a negative electrode conductor portion connecting the power semiconductor circuit section and the plurality of smoothing capacitors; and a sealing material that seals the power semiconductor circuit section, the plurality of smoothing capacitors, the positive electrode conductor portion, and the negative electrode conductor portion, wherein the plurality of smoothing capacitors form a capacitor circuit section sandwiched between the positive electrode conductor portion and the negative electrode conductor portion, the power semiconductor circuit section has a first exposure surface exposed from the sealing material and a second exposure surface that is exposed from the sealing material and provided on a side opposite to the first exposure surface, a plane with which the first exposure surface overlaps is defined as a first plane, and a plane with which the second exposure surface overlaps is defined as a second plane, the capacitor circuit section is formed so as to fit in a space between the first plane and the second plane, and the positive electrode conductor portion or the negative electrode conductor portion forms a concave portion to accommodate a part of each of the plurality of smoothing capacitors. a power semiconductor circuit section; a plurality of smoothing capacitors; a positive electrode conductor portion and a negative electrode conductor portion connecting the power semiconductor circuit section and the plurality of smoothing capacitors; and a sealing material that seals the power semiconductor circuit section, the plurality of smoothing capacitors, the positive electrode conductor portion, and the negative electrode conductor portion, wherein the plurality of smoothing capacitors form a capacitor circuit section sandwiched between the positive electrode conductor portion and the negative electrode conductor portion, the power semiconductor circuit section has a first exposure surface exposed from the sealing material and a second exposure surface that is exposed from the sealing material and provided on a side opposite to the first exposure surface, a plane with which the first exposure surface overlaps is defined as a first plane, and a plane with which the second exposure surface overlaps is defined as a second plane, the capacitor circuit section is formed so as to fit in a space between the first plane and the second plane, and the positive electrode conductor portion or the negative electrode conductor portion forms a concave portion to accommodate a part of each of the plurality of smoothing capacitors.
A neurostimulation device comprising at least three stimulation electrodes configured to deliver an electrical stimulus to neural tissue; characterised by a control unit configured to deliver a first stimulus phase in which a first stimulus electrode delivers a supra-threshold stimulus component, returned by at least two other of the stimulation electrodes, the control unit further configured to deliver at least a second stimulus phase in which at least two of the stimulus electrodes deliver a sub-threshold stimulus component, returned by the first stimulus electrode. at least three stimulation electrodes configured to deliver an electrical stimulus to neural tissue; characterised by a control unit configured to deliver a first stimulus phase in which a first stimulus electrode delivers a supra-threshold stimulus component, returned by at least two other of the stimulation electrodes, the control unit further configured to deliver at least a second stimulus phase in which at least two of the stimulus electrodes deliver a sub-threshold stimulus component, returned by the first stimulus electrode.
A method comprising: receiving, by a wireless device from a base station , at least one message comprising configuration parameters of a plurality of cells grouped into a plurality of physical uplink control channel, PUCCH, groups; and transmitting a first sounding reference signal, SRS, via a first cell of a first PUCCH group in parallel with transmission of a first data packet via a second cell of a second PUCCH group; and dropping a configured transmission of a second SRS on the first cell when a second data packet is transmitted via a third cell of the first PUCCH group in parallel with the configured transmission of the second SRS; and wherein the plurality of cells are in the same timing advance group. receiving, by a wireless device from a base station , at least one message comprising configuration parameters of a plurality of cells grouped into a plurality of physical uplink control channel, PUCCH, groups; and transmitting a first sounding reference signal, SRS, via a first cell of a first PUCCH group in parallel with transmission of a first data packet via a second cell of a second PUCCH group; and dropping a configured transmission of a second SRS on the first cell when a second data packet is transmitted via a third cell of the first PUCCH group in parallel with the configured transmission of the second SRS; and wherein the plurality of cells are in the same timing advance group.
A lithium-ion secondary battery comprising a positive electrode plate, a negative electrode plate, a separator, and an electrolyte, wherein the negative electrode plate, comprises: a negative electrode current collector and a negative active material layer disposed on at least one surface of the negative electrode current collector, wherein the negative active material layer comprises a graphite material, wherein the graphite material in the negative active material is one or both of artificial graphite and natural graphite; and wherein a diffraction peak intensity ratio r of crystal surface and crystal surface of the negative electrode plate, a porosity s of the negative electrode plate, and a resistivity t of the negative electrode plate satisfy Formula : 0.05 ≤ 100 × s r × t ≤ 10 in Formula , t has a unit of Ω•m; wherein the diffraction peak intensity ratio r of crystal surface and crystal surface of the negative electrode plate is from 1 to 50; wherein the negative active material layer has a compact density of 1.5 g/cm 3 to 1.75 g/cm 3 , measured according to the description; wherein the positive electrode plate comprises a manganese-containing positive active material; wherein the negative electrode plate has a porosity s of 10% to 60%, measured according to the description; and wherein the negative electrode plate has a resistivity t of 5 Ω•m to 100 Ω•m, measured according to the description. wherein the diffraction peak intensity ratio r of crystal surface and crystal surface of the negative electrode plate is from 1 to 50; wherein the negative active material layer has a compact density of 1.5 g/cm 3 to 1.75 g/cm 3 , measured according to the description; wherein the positive electrode plate comprises a manganese-containing positive active material; wherein the negative electrode plate has a porosity s of 10% to 60%, measured according to the description; and wherein the negative electrode plate has a resistivity t of 5 Ω•m to 100 Ω•m, measured according to the description.
An instrument , which is an intramedullary implant template for evaluating at least one of a size or an orientation of a prospective implant with respect to a bone, comprising: (a) a first assembly having a first radio-opaque portion providing a representation of a profile in an anatomical plane, of a first portion of an intramedullary implant or a canal in the bone within which the intramedullary implant is to be located; and (b) a second assembly having a second radio-opaque portion providing a representation of a profile in the anatomical plane, of a second portion of the intramedullary implant or canal within which the intramedullary implant is to be located and further having a third radio-opaque portion comprising a peg and a ring circumscribing the peg upon planar alignment of the implant template to the anatomical plane, the third radio-opaque portion providing by fluoroscopic indication an alignment feature of the instrument. (a) a first assembly having a first radio-opaque portion providing a representation of a profile in an anatomical plane, of a first portion of an intramedullary implant or a canal in the bone within which the intramedullary implant is to be located; and (b) a second assembly having a second radio-opaque portion providing a representation of a profile in the anatomical plane, of a second portion of the intramedullary implant or canal within which the intramedullary implant is to be located and further having a third radio-opaque portion comprising a peg and a ring circumscribing the peg upon planar alignment of the implant template to the anatomical plane, the third radio-opaque portion providing by fluoroscopic indication an alignment feature of the instrument.
An image sensing device comprising: a first image sensor for capturing a luminance image ; a second image sensor for capturing a first chrominance image ; a third image sensor for capturing a second chrominance image ; and an image processing module for combining the luminance image , the first chrominance image , and the second chrominance image , to form a composite image ; the first image sensor being positioned between the second and third image sensors; characterised by: the image processing module being configured to generate a first stereo disparity map from the first and second chrominance images; and the image processing module being further configured to align the first and second chrominance images by using the stereo disparity map to generate a geometric distortion of at least one of the first and second chrominance images . a first image sensor for capturing a luminance image ; a second image sensor for capturing a first chrominance image ; a third image sensor for capturing a second chrominance image ; and an image processing module for combining the luminance image , the first chrominance image , and the second chrominance image , to form a composite image ; the first image sensor being positioned between the second and third image sensors; characterised by: the image processing module being configured to generate a first stereo disparity map from the first and second chrominance images; and the image processing module being further configured to align the first and second chrominance images by using the stereo disparity map to generate a geometric distortion of at least one of the first and second chrominance images . the image processing module being configured to generate a first stereo disparity map from the first and second chrominance images; and the image processing module being further configured to align the first and second chrominance images by using the stereo disparity map to generate a geometric distortion of at least one of the first and second chrominance images .
A computer-implemented method for determining neighbor tier relationships between cells in a wireless telecommunications network, the method comprising: establishing a plurality of cell points, each cell point representing a cell of a plurality of cells in the wireless telecommunications network; forming a plurality of triangles, the vertices of each triangle of the plurality of triangles corresponding to respective cell points of the plurality of cell points; removing edges from a portion of the plurality of triangles; determining neighbor tier relationships between the plurality of cells using remaining triangle edges between the plurality of cell points; storing the neighbor tier relationships in a first memory; and using the neighbor tier relationships for handovers between the plurality of cells. establishing a plurality of cell points, each cell point representing a cell of a plurality of cells in the wireless telecommunications network; forming a plurality of triangles, the vertices of each triangle of the plurality of triangles corresponding to respective cell points of the plurality of cell points; removing edges from a portion of the plurality of triangles; determining neighbor tier relationships between the plurality of cells using remaining triangle edges between the plurality of cell points; storing the neighbor tier relationships in a first memory; and using the neighbor tier relationships for handovers between the plurality of cells.
A computer-implemented method for performing a cryptographic operation by a computing device , the method comprising: receiving, at a protected application executing on the computing device from a trusted key custodian , a cryptographic key to be used in performing the cryptographic operation in response to future requests, the cryptographic key being received from the trusted key custodian in encrypted form, the computing device storing instructions of the protected application within a secure memory space , wherein the secure memory space is allocated and managed by a chip set of the computing device ; sending, by the protected application to a hardware security module, HSM , a request to decrypt the cryptographic key; receiving, by the protected application from the HSM , the cryptographic key as decrypted by the HSM ; generating, by the chip set , an encrypted key using the cryptographic key as decrypted by the HSM ; receiving, at a network interface of the computing device from a requesting device, a first request to perform the cryptographic operation on first data in the first request; retrieving, by the protected application using the chip set , the encrypted key from the secure memory space ; performing, by the protected application , the cryptographic operation on the first data using the encrypted key to obtain encrypted first data; and sending the encrypted first data to the requesting device, wherein the trusted key custodian is distinct from the computing device and the HSM is distinct from the computing device . receiving, at a protected application executing on the computing device from a trusted key custodian , a cryptographic key to be used in performing the cryptographic operation in response to future requests, the cryptographic key being received from the trusted key custodian in encrypted form, the computing device storing instructions of the protected application within a secure memory space , wherein the secure memory space is allocated and managed by a chip set of the computing device ; sending, by the protected application to a hardware security module, HSM , a request to decrypt the cryptographic key; receiving, by the protected application from the HSM , the cryptographic key as decrypted by the HSM ; generating, by the chip set , an encrypted key using the cryptographic key as decrypted by the HSM ; receiving, at a network interface of the computing device from a requesting device, a first request to perform the cryptographic operation on first data in the first request; retrieving, by the protected application using the chip set , the encrypted key from the secure memory space ; performing, by the protected application , the cryptographic operation on the first data using the encrypted key to obtain encrypted first data; and sending the encrypted first data to the requesting device, wherein the trusted key custodian is distinct from the computing device and the HSM is distinct from the computing device .
A light-emitting diode (LED) filament with a heat-dissipating structure, comprising: multiple LED chips ; multiple conductive carriers spaced apart from each other, each conductive carrier taking the form of a metal sheet, wherein each LED chip is commonly carried and supported by and is electrically connected to two of the multiple conductive carriers adjacent to the LED chip ; and a package layer being transparent, mounted on the multiple conductive carriers to cover the multiple LED chips with two lateral edge portions of each conductive carrier exposed from the package layer to form a flexible first LED string , and including a top package layer mounted on top surfaces of the multiple conductive carriers and covering the multiple LED chips , wherein each LED chip has a first length (L1), each conductive carrier has a second length(L2), and the second length is greater than the first length, such that a bonding strength between the multiple LED chips and the respective conductive carriers is provided to prevent the multiple LED chips from being separated from the respective conductive carriers when the first LED string is bent or folded; wherein each conductive carrier has a first width (W1), each package layer has a second width (W2), and the first width is greater than the second width, and heat generated by the multiple LED chips is dissipated out of the package layer through the multiple conductive carriers , characterized in that the package layer includes a bottom package layer mounted on bottom surfaces of the multiple conductive carriers . multiple LED chips ; multiple conductive carriers spaced apart from each other, each conductive carrier taking the form of a metal sheet, wherein each LED chip is commonly carried and supported by and is electrically connected to two of the multiple conductive carriers adjacent to the LED chip ; and a package layer being transparent, mounted on the multiple conductive carriers to cover the multiple LED chips with two lateral edge portions of each conductive carrier exposed from the package layer to form a flexible first LED string , and including a top package layer mounted on top surfaces of the multiple conductive carriers and covering the multiple LED chips , wherein each LED chip has a first length (L1), each conductive carrier has a second length(L2), and the second length is greater than the first length, such that a bonding strength between the multiple LED chips and the respective conductive carriers is provided to prevent the multiple LED chips from being separated from the respective conductive carriers when the first LED string is bent or folded; wherein each conductive carrier has a first width (W1), each package layer has a second width (W2), and the first width is greater than the second width, and heat generated by the multiple LED chips is dissipated out of the package layer through the multiple conductive carriers , characterized in that the package layer includes a bottom package layer mounted on bottom surfaces of the multiple conductive carriers .