mhurhangee/patent-ind-claim-en huggingface dataset:
Clamping device (CD) for fixing workpieces during machining, comprising a fastening device (FD) into which holding means for arranging the clamping device (CD) can engage on a working surface, and a base body (BB), the base body (BB) having at least one depression (DP) on a side surface (SS) which is formed along a longitudinal direction between opposite end faces of the side face and surrounds a receiving space (RS) in the two opposite side walls and a base, wehrein the receiving space (RS) can be closed by two projections (PR) of a holding device (HD) extending in parallel with one another and protruding beyond the receiving space transversely to the longitudinal direction such that the projections form a free space (FS) extending along the longitudinal direction, such that the free space (FS) and the receiving space (RS) form a T-groove in which a workpiece can be fixed, wherein the base body (BB) is made of concrete, characterized in that the holding device (HD) is designed as a carrier plate in which the free space (FS) is recessed as an opening (OP) extending in the longitudinal direction, wherein the projections (PR) are formed along the opening (OP) and the projections (PR) are spaced apart from one another by the opening (OP), wherein the carrier plate is arranged on the side face (SS) such that the free space (FS) extends in the longitudinal direction above the depression (DP), wherein the free space (FS) is narrower transversely to the longitudinal direction than the depression (DP) transversely to the longitudinal direction.
A method for transmitting a buffer status report, performed by a terminal comprising a plurality of subscriber identification modules, SIMs, for connecting to a same operator network, comprising: determining (S1) whether a first SIM in the plurality of SIMs has a first physical uplink shared channel resource for transmitting a first buffer status report in response to that the first SIM transmits the first buffer status report to a base station; querying (S2), in the plurality of SIMs, a second SIM having a second physical uplink shared channel resource for transmitting a second buffer status report to the base station in response to that the first SIM does not have the first physical uplink shared channel resource; and transmitting (S3) the first buffer status report and an association relationship between the first buffer status report and the first SIM to the base station on the second physical uplink shared channel resource through the second SIM. determining (S1) whether a first SIM in the plurality of SIMs has a first physical uplink shared channel resource for transmitting a first buffer status report in response to that the first SIM transmits the first buffer status report to a base station; querying (S2), in the plurality of SIMs, a second SIM having a second physical uplink shared channel resource for transmitting a second buffer status report to the base station in response to that the first SIM does not have the first physical uplink shared channel resource; and transmitting (S3) the first buffer status report and an association relationship between the first buffer status report and the first SIM to the base station on the second physical uplink shared channel resource through the second SIM.
A sampling device for measuring a time resolved analog signal from a detector, the sampling device comprising: a detector module for measuring a fluorescence lifetime or photon migration signal response from a sample in response to illumination with light from a light source, the detector module generating the analog signal; sampling clock generation means for generating a sampling clock from a pulsed or modulated reference signal derived from the light of the light source; an analog to digital converter for sampling the analog signal received from the detector module and converting the analog signal into a digital signal, a sampling rate of the analog to digital converter being clocked using the sampling clock at a rate faster than an operating frequency of the light source; a logic circuit coupled to the analog to digital converter for performing a Fourier transform of the digital signal for analyzing the digital signal from the analog to digital converter in a frequency domain to generate and continuously transfer processed time resolved digital data signals for the sample; and a memory device for buffering the processed time resolved digital data signals generated by the logic circuit, the memory device being connected to a computer to further analyze and store the processed time resolved digital data signals. a detector module for measuring a fluorescence lifetime or photon migration signal response from a sample in response to illumination with light from a light source, the detector module generating the analog signal; sampling clock generation means for generating a sampling clock from a pulsed or modulated reference signal derived from the light of the light source; an analog to digital converter for sampling the analog signal received from the detector module and converting the analog signal into a digital signal, a sampling rate of the analog to digital converter being clocked using the sampling clock at a rate faster than an operating frequency of the light source; a logic circuit coupled to the analog to digital converter for performing a Fourier transform of the digital signal for analyzing the digital signal from the analog to digital converter in a frequency domain to generate and continuously transfer processed time resolved digital data signals for the sample; and a memory device for buffering the processed time resolved digital data signals generated by the logic circuit, the memory device being connected to a computer to further analyze and store the processed time resolved digital data signals.
A method for a User Equipment, UE, , the method comprising: - obtaining parameters for a data transmission, the parameters including at least a number of layers, a number of allocated resource blocks, a modulation order and a code rate; - determining an effective number of resource elements, the effective number of resource elements representing a number of resource elements which are exclusively used for carrying user data; - determining a transmission data block size, TDBS, based on the obtained parameters and the determined effective number of resource elements, by calculating: N PRB ⋅ N RE ⋅ v ⋅ Q m ⋅ r where N PRB is the number of allocated resource blocks, N RE is the number of effective resource elements, v is the number of layers, Q m is the modulation order and r is the code rate; and - performing one of transmitting and receiving data based on the determined transmission data block size. - obtaining parameters for a data transmission, the parameters including at least a number of layers, a number of allocated resource blocks, a modulation order and a code rate; - determining an effective number of resource elements, the effective number of resource elements representing a number of resource elements which are exclusively used for carrying user data; - determining a transmission data block size, TDBS, based on the obtained parameters and the determined effective number of resource elements, by calculating: N PRB ⋅ N RE ⋅ v ⋅ Q m ⋅ r where N PRB is the number of allocated resource blocks, N RE is the number of effective resource elements, v is the number of layers, Q m is the modulation order and r is the code rate; and - performing one of transmitting and receiving data based on the determined transmission data block size.
An electromagnetic actuating device with at least two electromagnetic actuator units, wherein each actuator unit has a coil and a plunger , which plunger is movable axially relative to the coil via an energization of the coil , wherein the actuator unit is arranged in a housing , wherein the plunger is arranged approximately coaxially with the coil , wherein a plunger guide associated with the plunger is provided, in which plunger guide the plunger is mounted in a sliding manner, characterized in that each plunger is mounted in a sliding manner in a separate plunger guide and the plunger guides are movable relative to one another.
A neural interface array , comprising: an optical waveguide having one or more optical apertures ; a thin film electrode array associated with the optical waveguide , the thin film electrode array comprising a plurality of electrodes, one or more optical ports and one or more fluidic ports ; and a fluid delivery channel attached to at least one of the optical waveguide and the thin film electrode array having one or more fluidic apertures ; wherein the optical waveguide , the fluid delivery channel , and the thin film electrode array are combined such that the one or more optical apertures are optically coupled with the one or more optical ports , and the one or more fluidic apertures are fluidically coupled with the one or more fluidic ports . an optical waveguide having one or more optical apertures ; a thin film electrode array associated with the optical waveguide , the thin film electrode array comprising a plurality of electrodes, one or more optical ports and one or more fluidic ports ; and a fluid delivery channel attached to at least one of the optical waveguide and the thin film electrode array having one or more fluidic apertures ; wherein the optical waveguide , the fluid delivery channel , and the thin film electrode array are combined such that the one or more optical apertures are optically coupled with the one or more optical ports , and the one or more fluidic apertures are fluidically coupled with the one or more fluidic ports .
A method for manufacturing an insulator for a spark plug, the method including a molding process (S4) of forming a cylindrical molded product having an axial hole that extends in a direction of an axial line (CO), by means of injection molding using a mold that has a columnar cavity (CV) therein, and a bar-shaped member disposed in the cavity and extending in the direction of the axial line, wherein the molding process includes an injection step (S3) of injecting a material containing a ceramic, in the injection step, the material is injected into the cavity from a plurality of injection openings (OPPA, OPB) that are opened at an inner circumferential surface (IS1, IS2, IS3, IS4), of the mold, that forms the cavity, and the plurality of injection openings include two or more injection openings located at different positions in the direction of the axial line, characterized in that at least one of the plurality of injection openings is located at a position, in the direction of the axial line, where the cavity has a maximum inner diameter. the molding process includes an injection step (S3) of injecting a material containing a ceramic, in the injection step, the material is injected into the cavity from a plurality of injection openings (OPPA, OPB) that are opened at an inner circumferential surface (IS1, IS2, IS3, IS4), of the mold, that forms the cavity, and the plurality of injection openings include two or more injection openings located at different positions in the direction of the axial line,
Method for producing a blade assembly having at least one hollow airfoil for a gas turbine, characterized in that at least two radially spaced profile cross sections (A, B, C) of the airfoil are configured (S20) on the basis of a predetermined desired torsion of the airfoil and the airfoil is produced (S30) on the basis of the configured profile cross sections by means of an additive manufacturing process, and in that the profile cross sections of the airfoil are configured and produced, on the basis of the predetermined desired torsion, so as to have different outerwall thicknesses (s12) and/or macroscopic inner structures, in particular struts of different numbers, wall thicknesses and/or shapes.
An ejector unit comprising: an ejector rod ; a crosshead to which the ejector rod is attached; a ball screw nut which is attached to the crosshead ; and a ball screw shaft which is screwed to the ball screw nut , wherein the ejector rod attached to the crosshead is moved forward or rearward by the ball screw nut and the ball screw shaft , wherein the ball screw nut includes a flange portion which constitutes an attachment portion between the crosshead and the ball screw nut , wherein the crosshead includes a flange attachment region (A) which is a region to which the flange portion is attached and an inner region of an outer edge of the attached flange portion , characterised in that the ejector rod is attached to the flange attachment region (A). an ejector rod ; a crosshead to which the ejector rod is attached; a ball screw nut which is attached to the crosshead ; and a ball screw shaft which is screwed to the ball screw nut , wherein the ejector rod attached to the crosshead is moved forward or rearward by the ball screw nut and the ball screw shaft , wherein the ball screw nut includes a flange portion which constitutes an attachment portion between the crosshead and the ball screw nut , wherein the crosshead includes a flange attachment region (A) which is a region to which the flange portion is attached and an inner region of an outer edge of the attached flange portion , characterised in that the ejector rod is attached to the flange attachment region (A).
A tire comprising a tire frame that is formed of a resinous material and has a circular form, the resinous material comprising: a thermoplastic polyamide-based elastomer; silica; and a silane coupling agent that has a functional group, the functional group comprising at least one selected from the group consisting of a nitrogen atom, a carboxyl group, an acid anhydride, and a ureido group, and the tire satisfying at least one of the following conditions (i) and (ii): (i) the resinous material further including non-resinous components other than the silica and the silane coupling agent, and a content of a resin component, which includes the thermoplastic polyamide-based elastomer, in the resinous material being 50% by mass or greater with respect to a total amount of the resinous material; or (ii) a content of the thermoplastic polyamide-based elastomer in the resinous material being 50% by mass or greater with respect to a total amount of the resinous material. a thermoplastic polyamide-based elastomer; silica; and a silane coupling agent that has a functional group, the functional group comprising at least one selected from the group consisting of a nitrogen atom, a carboxyl group, an acid anhydride, and a ureido group, and the tire satisfying at least one of the following conditions (i) and (ii): (i) the resinous material further including non-resinous components other than the silica and the silane coupling agent, and a content of a resin component, which includes the thermoplastic polyamide-based elastomer, in the resinous material being 50% by mass or greater with respect to a total amount of the resinous material; or (ii) a content of the thermoplastic polyamide-based elastomer in the resinous material being 50% by mass or greater with respect to a total amount of the resinous material. (i) the resinous material further including non-resinous components other than the silica and the silane coupling agent, and a content of a resin component, which includes the thermoplastic polyamide-based elastomer, in the resinous material being 50% by mass or greater with respect to a total amount of the resinous material; or (ii) a content of the thermoplastic polyamide-based elastomer in the resinous material being 50% by mass or greater with respect to a total amount of the resinous material.
A quartz crystal microbalance, QCM, sensor apparatus comprising: a sensor holder having a compartment for receiving a QCM sensor , said compartment having a substantially planar extension; a first temperature sensor and a second temperature sensor arranged separated from each other along a line transverse to said planar extension; and a controller configured to determine a temperature difference (ΔT) between the two sensors, and to operate the QCM sensor apparatus based on this temperature difference. a sensor holder having a compartment for receiving a QCM sensor , said compartment having a substantially planar extension; a first temperature sensor and a second temperature sensor arranged separated from each other along a line transverse to said planar extension; and a controller configured to determine a temperature difference (ΔT) between the two sensors, and to operate the QCM sensor apparatus based on this temperature difference.
A processing system comprising: a first imaging system configured to capture a first image based on a terahertz wave from an inspection target ; a second imaging system configured to capture a second image of the inspection target based on an electromagnetic wave of a wavelength different from the terahertz wave; a control unit configured to control the first imaging system; and a processor configured to process the second image, wherein the control unit controls the first imaging system based on a result of the processing performed by the processor for the second image, characterized in that the processor detects an inspection region from the second image, selects a region in the first image corresponding to the inspection region by comparing the first image and the second image, and performs image processing for the first image for the region corresponding to the inspection region detected from the second image and wherein the terahertz wave has a frequency range of 30 GHz to 30 THz. a first imaging system configured to capture a first image based on a terahertz wave from an inspection target ; a second imaging system configured to capture a second image of the inspection target based on an electromagnetic wave of a wavelength different from the terahertz wave; a control unit configured to control the first imaging system; and a processor configured to process the second image, wherein the control unit controls the first imaging system based on a result of the processing performed by the processor for the second image, characterized in that the processor detects an inspection region from the second image, selects a region in the first image corresponding to the inspection region by comparing the first image and the second image, and performs image processing for the first image for the region corresponding to the inspection region detected from the second image and wherein the terahertz wave has a frequency range of 30 GHz to 30 THz.
Method for producing pure and/or substituted lithium titanium phosphates with the general composition Li 1+x+y M x Ti 2-x (PO 4 ) 3-y (SiO 4 ) y , with M = Al, Ga, In, Sc, V, Cr, Mn, Co, Fe, Y, La - Lu and 0 ≤ x ≤ 0.5 and 0 ≤ y ≤ 0.5, in which production is by a sol-gel process, in which first a sol is produced from the initial materials, this is converted into a gel and a corresponding powder, comprising pure or substituted lithium titanium phosphate, is obtained by drying the gel and pre-sintering, characterised in that in a part step of the production process - titanium(IV) isopropoxide is added to water, in which precipitations of titanium hydroxide oxide form, - the system is cooled to temperatures below 10° C and - the precipitations are dissolved again by adding nitric acid, in which an aqueous TiO 2+ nitrate solution forms, - polycarboxylic acid is then added to the aqueous TiO 2+ nitrate solution, through which a stable aqueous TiO 2+ nitrate solution also forms at room temperature, and - phosphate ions are then added to the stable aqueous TiO 2+ nitrate solution to form the gel. - titanium(IV) isopropoxide is added to water, in which precipitations of titanium hydroxide oxide form, - the system is cooled to temperatures below 10° C and - the precipitations are dissolved again by adding nitric acid, in which an aqueous TiO 2+ nitrate solution forms, - polycarboxylic acid is then added to the aqueous TiO 2+ nitrate solution, through which a stable aqueous TiO 2+ nitrate solution also forms at room temperature, and - phosphate ions are then added to the stable aqueous TiO 2+ nitrate solution to form the gel.
A Raster Image Processing (RIP) module , RIP module, comprising: an object detection module configured to receive at least one input file , detect objects in said at least one input file and create at least one image comprising a predefined number of stripes along the edges of said detected objects; an edge processing module configured to receive said at least one image and process said at least one image by changing the gray level of each one of said objects' stripes according to an edge processing table defining the relation between the distance from said object's edge and the gray level percentage to be printed; and a dithering module configured to receive said at least one processed image, dither said at least one processed image according to said at least one image's gray levels and output a printing ready file. an object detection module configured to receive at least one input file , detect objects in said at least one input file and create at least one image comprising a predefined number of stripes along the edges of said detected objects; an edge processing module configured to receive said at least one image and process said at least one image by changing the gray level of each one of said objects' stripes according to an edge processing table defining the relation between the distance from said object's edge and the gray level percentage to be printed; and a dithering module configured to receive said at least one processed image, dither said at least one processed image according to said at least one image's gray levels and output a printing ready file.
A method of calibrating a spectrometer (SM) for charged particles comprising the following steps: A. generating a monochromatic incident charged particle beam (FP) having a first energy E 1 ; B. generating an incident laser beam (FL) having a second energy E 2 ; C. illuminating a surface (SE) of a sample (Ech) with the incident laser beam (FL) to generate an evanescent electromagnetic field (EV) in a region (R) in the vicinity of said surface; D. spatially and temporally superimposing the incident laser beam and the incident charged particle beam in said region in order to couple them via said evanescent electromagnetic field, generating a charged particle beam known as an output beam (FS) having a spectrum comprising a plurality of distinct energy peaks spectrally separated by a value equal to the second energy E 2 ; E. measuring, using the spectrometer, all or part of the spectrum of the output beam, then determining a variation in energy ΔE of at least two of the distinct energy peaks with respect to the first energy E 1 ; F. determining a value of the scale factor S and a value of the offset O specific to said measurement of the spectrum of the output beam by the spectrometer from the energy variations ΔE . A. generating a monochromatic incident charged particle beam (FP) having a first energy E 1 ; B. generating an incident laser beam (FL) having a second energy E 2 ; C. illuminating a surface (SE) of a sample (Ech) with the incident laser beam (FL) to generate an evanescent electromagnetic field (EV) in a region (R) in the vicinity of said surface; D. spatially and temporally superimposing the incident laser beam and the incident charged particle beam in said region in order to couple them via said evanescent electromagnetic field, generating a charged particle beam known as an output beam (FS) having a spectrum comprising a plurality of distinct energy peaks spectrally separated by a value equal to the second energy E 2 ; E. measuring, using the spectrometer, all or part of the spectrum of the output beam, then determining a variation in energy ΔE of at least two of the distinct energy peaks with respect to the first energy E 1 ; F. determining a value of the scale factor S and a value of the offset O specific to said measurement of the spectrum of the output beam by the spectrometer from the energy variations ΔE .