mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a hybrid magnet , comprising at least the following method steps: A) producing a hard magnetic layer from a hard magnetic material , B) producing a soft magnetic layer from a soft magnetic material , and C) producing a spacer layer from a magnetically passive material , wherein, by respectively multiple applications of the method steps A), B) and C), a hybrid magnet having a layer structure is shaped; wherein method step A) comprises at least the following partial step: A1) providing a hard magnetic powder having hard magnetic particles made from the hard magnetic material , wherein method step B) comprises at least the following partial step: B1) providing a soft magnetic powder having soft magnetic particles made from the soft magnetic material , wherein method step C) comprises at least the following partial step: C1) applying at least one coating made from the magnetically passive material on at least one of the hard magnetic particles or the soft magnetic particles ; wherein step C) is performed in each case once after every performance of method step A) and in each case once after each performance of method step B). A) producing a hard magnetic layer from a hard magnetic material , B) producing a soft magnetic layer from a soft magnetic material , and C) producing a spacer layer from a magnetically passive material , wherein, by respectively multiple applications of the method steps A), B) and C), a hybrid magnet having a layer structure is shaped; wherein method step A) comprises at least the following partial step: A1) providing a hard magnetic powder having hard magnetic particles made from the hard magnetic material , wherein method step B) comprises at least the following partial step: B1) providing a soft magnetic powder having soft magnetic particles made from the soft magnetic material , wherein method step C) comprises at least the following partial step: C1) applying at least one coating made from the magnetically passive material on at least one of the hard magnetic particles or the soft magnetic particles ; wherein step C) is performed in each case once after every performance of method step A) and in each case once after each performance of method step B).
An improved built-in capacitor motor structure comprising: a housing including a front cover and a rear cover ; a stator portion received in the housing including a core frame , the core frame is provided with an annular insulating frame body which is provided in a circle around the inside of the core frame a rotor portion received in the stator portion , an insulating member having an accommodating space and having an open side, a capacitor being assembled inside the accommodating space characterized in that : a plurality of circularly arranged docking units extends from the periphery of a side of the insulating frame body ; a plurality of corresponding docking units is provided at one of the side edges of the insulating member ; and the plurality of corresponding docking units are engaged with the docking units of the insulating frame body , respectively, to connect the insulating member on the insulating frame body , such that the capacitor is provided inside the housing . a housing including a front cover and a rear cover ; a stator portion received in the housing including a core frame , the core frame is provided with an annular insulating frame body which is provided in a circle around the inside of the core frame a rotor portion received in the stator portion , an insulating member having an accommodating space and having an open side, a capacitor being assembled inside the accommodating space characterized in that : a plurality of circularly arranged docking units extends from the periphery of a side of the insulating frame body ; a plurality of corresponding docking units is provided at one of the side edges of the insulating member ; and the plurality of corresponding docking units are engaged with the docking units of the insulating frame body , respectively, to connect the insulating member on the insulating frame body , such that the capacitor is provided inside the housing . a plurality of circularly arranged docking units extends from the periphery of a side of the insulating frame body ; a plurality of corresponding docking units is provided at one of the side edges of the insulating member ; and the plurality of corresponding docking units are engaged with the docking units of the insulating frame body , respectively, to connect the insulating member on the insulating frame body , such that the capacitor is provided inside the housing .
A method comprising: determining, for one or more base stations capable of providing radio frequency communication with a plurality of user equipment , one or more estimates of bandwidth for one or more classes of quality of service to be implemented in the one or more base stations for one or more services provided to the plurality of user equipment by the one or more base stations ; determining one or more expiration times for corresponding ones of the one or more estimates of bandwidth for the one or more classes of quality of service to be implemented in the one or more base stations ; and communicating toward one or more mobile backhaul nodes one or more indications of the one or more estimates of the bandwidth for the one or more classes of quality of service to be implemented in the one or more base stations and one or more indications of the one or more expiration times, characterised in that the determining the one or more expiration times further comprises setting the one or more expiration times as being a timestamp and a delta for corresponding ones of the one or more estimates of bandwidth for the one or more classes of quality of service to be implemented in the one or more base stations , wherein the delta has a minimum value of an estimate of packet roundtrip time from an apparatus to the one or more mobile backhaul nodes . determining, for one or more base stations capable of providing radio frequency communication with a plurality of user equipment , one or more estimates of bandwidth for one or more classes of quality of service to be implemented in the one or more base stations for one or more services provided to the plurality of user equipment by the one or more base stations ; determining one or more expiration times for corresponding ones of the one or more estimates of bandwidth for the one or more classes of quality of service to be implemented in the one or more base stations ; and communicating toward one or more mobile backhaul nodes one or more indications of the one or more estimates of the bandwidth for the one or more classes of quality of service to be implemented in the one or more base stations and one or more indications of the one or more expiration times, characterised in that the determining the one or more expiration times further comprises setting the one or more expiration times as being a timestamp and a delta for corresponding ones of the one or more estimates of bandwidth for the one or more classes of quality of service to be implemented in the one or more base stations , wherein the delta has a minimum value of an estimate of packet roundtrip time from an apparatus to the one or more mobile backhaul nodes .
A blind detection method, applied to a User Equipment, UE, comprising: receiving a target signal transmitted from a network device; and wherein the method is characterized by comprising: based on the target signal, performing blind detection on Physical Downlink Control Channel, PDCCH, or maintaining a sleep state when detecting the PDCCH; wherein the target signal comprises a target sequence; wherein the target sequence comprises: a sequence, which is generated by modulating at least two of the maximum linear feedback shift register sequence, Gold sequence and Zadoff-Chu, ZC, sequence; the target sequence is a sequence associated with a cell Identifier, ID. receiving a target signal transmitted from a network device; and wherein the method is characterized by comprising: based on the target signal, performing blind detection on Physical Downlink Control Channel, PDCCH, or maintaining a sleep state when detecting the PDCCH; wherein the target signal comprises a target sequence; wherein the target sequence comprises: a sequence, which is generated by modulating at least two of the maximum linear feedback shift register sequence, Gold sequence and Zadoff-Chu, ZC, sequence; the target sequence is a sequence associated with a cell Identifier, ID. based on the target signal, performing blind detection on Physical Downlink Control Channel, PDCCH, or maintaining a sleep state when detecting the PDCCH; wherein the target signal comprises a target sequence; wherein the target sequence comprises: a sequence, which is generated by modulating at least two of the maximum linear feedback shift register sequence, Gold sequence and Zadoff-Chu, ZC, sequence; the target sequence is a sequence associated with a cell Identifier, ID.
A method for feeding back channel state information, comprising: obtaining , by a terminal, one first-dimension downlink reference signal resource, S second-dimension downlink reference signal resources, and a first correspondence relationship, configured by a network device, wherein the first correspondence relationship comprises a correspondence relationship between the S second-dimension downlink reference signal resources and N first-dimension beam-forming weights, and both S and N are integers greater than 1; measuring , by the terminal, a first-dimension downlink reference signal according to the first-dimension downlink reference signal resource to obtain a first-dimension Pre-coding matrix Indicator, PMI, wherein the first-dimension PMI indicates one of the N first-dimension beam-forming weights; selecting , by the terminal, one of the S second-dimension downlink reference signal resources for measuring a second-dimension downlink reference signal, according to the obtained first-dimension PMI and the first correspondence relationship; and measuring , by the terminal, the second-dimension downlink reference signal, and feeding back channel state information, according to the selected resource for measuring the second-dimension downlink reference signal, wherein the second-dimension downlink reference signal transmitted over the selected second-dimension downlink reference signal resource is transmitted after being beam-formed using the first-dimension beam-forming weight corresponding to the resource. obtaining , by a terminal, one first-dimension downlink reference signal resource, S second-dimension downlink reference signal resources, and a first correspondence relationship, configured by a network device, wherein the first correspondence relationship comprises a correspondence relationship between the S second-dimension downlink reference signal resources and N first-dimension beam-forming weights, and both S and N are integers greater than 1; measuring , by the terminal, a first-dimension downlink reference signal according to the first-dimension downlink reference signal resource to obtain a first-dimension Pre-coding matrix Indicator, PMI, wherein the first-dimension PMI indicates one of the N first-dimension beam-forming weights; selecting , by the terminal, one of the S second-dimension downlink reference signal resources for measuring a second-dimension downlink reference signal, according to the obtained first-dimension PMI and the first correspondence relationship; and measuring , by the terminal, the second-dimension downlink reference signal, and feeding back channel state information, according to the selected resource for measuring the second-dimension downlink reference signal, wherein the second-dimension downlink reference signal transmitted over the selected second-dimension downlink reference signal resource is transmitted after being beam-formed using the first-dimension beam-forming weight corresponding to the resource.
A device for use in printing, the device comprising: a first chamber for receiving a fluid; a first filter member in the first chamber , the first filter member separating the first chamber into a first part and a second part laterally adjacent to the first part , the first filter member comprising pores having an average size, the pores configured to filter the fluid passing from the first part to the second part , the first filter member further comprising an opening adjacent to a top of the first chamber for air to pass from the first part to the second part , the opening having a size at least 10 times larger than the average size of the pores; a first inlet in fluid communication with the first part ; and a first outlet in fluid communication with the second part , characterized in that : the opening is covered by a hydrophobic patch that is permeable to air and impermeable to the fluid. a first chamber for receiving a fluid; a first filter member in the first chamber , the first filter member separating the first chamber into a first part and a second part laterally adjacent to the first part , the first filter member comprising pores having an average size, the pores configured to filter the fluid passing from the first part to the second part , the first filter member further comprising an opening adjacent to a top of the first chamber for air to pass from the first part to the second part , the opening having a size at least 10 times larger than the average size of the pores; a first inlet in fluid communication with the first part ; and a first outlet in fluid communication with the second part , characterized in that : the opening is covered by a hydrophobic patch that is permeable to air and impermeable to the fluid.
Package for products of the tobacco industry, having an inner pack for receiving the pack content , and an outer pack for receiving the inner pack , wherein the inner pack is designed as a (tobacco) pouch which has a resealable opening , and wherein the opening is resealable by a resealable, strip-shaped closure means ; and wherein the inner pack in the region of lateral ends of the closure means has pouch corners ; and wherein the outer pack has a tray for at least partially receiving the inner pack , and that the tray has retaining elements for the pouch corners , which are specified to secure the pouch corners in a folded position in which the pouch corners bear on lateral walls of the tray , characterized in that the first retaining elements are deactivatable, specifically able to be transferred from a configuration in which they secure the pouch corners in the folded position, to a configuration in which they do not secure the pouch corners in the folded position, so as to transfer the pouch corners from the folded position to an open position in which the closure means for retrieving the pack content is to be opened in such a manner that the first retaining elements are able to be separated from the respective lateral walls , or are able to be folded out of the plane of the respective lateral walls .
Full cone spray nozzle comprising a body which has an inlet orifice and an outlet orifice , and which has, on the side of the inlet orifice, a fluid inlet zone, which provides a stirring chamber which has a substantially cylindrical peripheral wall , with an upstream wall and a downstream wall , the downstream wall having an adjacent ejection orifice and in direct fluidic communication with the outlet orifice of the nozzle, the outlet orifice having a substantially truncated cross-section and the ejection orifice having a mainly cylindrical cross-section and a flared portion on the side of the outlet orifice , the upstream wall being passed through by at least one fluid inlet channel which opens out along an axial direction into the stirring chamber with respect to said peripheral wall , and the peripheral wall being passed through by at least one other fluid inlet channel , which opens out into said stirring chamber along a tangential direction, said spray nozzle being characterised in that the upstream wall comprises at least one blind cavity arranged at a distance from said axial inlet channel and opens onto a face oriented towards the inside of the chamber, and in that the cavity is a peripheral groove surrounding said channel and having a straight, V-shaped cross-section.
A system for optical analysis, the system comprising: an optical source , wherein the optical source is a laser or a laser diode, and a removable target waveguide device, comprising: at least one optical coupler , the at least one optical coupler configured to receive an optical excitation beam through free space from the optical source; at least one optical waveguide , the at least one optical waveguide comprising a first end; wherein the first end of the optical waveguide is configured to receive an optical excitation signal from the at least one optical coupler; at least one reaction region , the at least one reaction region optically coupled to the at least one waveguide; and at least one detector region , the at least one detector region configured to detect an optical emission signal from the at least one reaction region; characterised in that the optical excitation beam is a broadband, multi-longitudinal optical excitation beam. an optical source , wherein the optical source is a laser or a laser diode, and a removable target waveguide device, comprising: at least one optical coupler , the at least one optical coupler configured to receive an optical excitation beam through free space from the optical source; at least one optical waveguide , the at least one optical waveguide comprising a first end; wherein the first end of the optical waveguide is configured to receive an optical excitation signal from the at least one optical coupler; at least one reaction region , the at least one reaction region optically coupled to the at least one waveguide; and at least one detector region , the at least one detector region configured to detect an optical emission signal from the at least one reaction region; characterised in that the optical excitation beam is a broadband, multi-longitudinal optical excitation beam. at least one optical coupler , the at least one optical coupler configured to receive an optical excitation beam through free space from the optical source; at least one optical waveguide , the at least one optical waveguide comprising a first end; wherein the first end of the optical waveguide is configured to receive an optical excitation signal from the at least one optical coupler; at least one reaction region , the at least one reaction region optically coupled to the at least one waveguide; and at least one detector region , the at least one detector region configured to detect an optical emission signal from the at least one reaction region; characterised in that the optical excitation beam is a broadband, multi-longitudinal optical excitation beam.
A method, comprising: determining a position of a biopsy target in a selected image of a patient based on an image registration process with a reference image of the patient, wherein determining the position of the biopsy target in the selected image based on the image registration process with the reference image comprises: tagging the position of the biopsy target in the reference image with a marker, wherein the reference image is a low energy image used to generate a contrast-enhanced, dual energy image; and determining the position of the biopsy target in the selected image based on the position of the marker in the reference image, via the image registration process, wherein the image registration process comprises: selecting a plurality of control points in the reference image, calculating a local shift vector for each control point relative to a corresponding control point in the selected image, interpolating each pixel of the selected image based on each local shift vector to generate a motion vector field, and determining the position of the marker in the selected image based on the motion vector field; and displaying a graphical representation of the position of the biopsy target on the selected image. tagging the position of the biopsy target in the reference image with a marker, wherein the reference image is a low energy image used to generate a contrast-enhanced, dual energy image; and determining the position of the biopsy target in the selected image based on the position of the marker in the reference image, via the image registration process, wherein the image registration process comprises: selecting a plurality of control points in the reference image, calculating a local shift vector for each control point relative to a corresponding control point in the selected image, interpolating each pixel of the selected image based on each local shift vector to generate a motion vector field, and determining the position of the marker in the selected image based on the motion vector field; and displaying a graphical representation of the position of the biopsy target on the selected image. selecting a plurality of control points in the reference image, calculating a local shift vector for each control point relative to a corresponding control point in the selected image, interpolating each pixel of the selected image based on each local shift vector to generate a motion vector field, and determining the position of the marker in the selected image based on the motion vector field; and displaying a graphical representation of the position of the biopsy target on the selected image.
A control device of a machine, wherein the control device comprises a microprocessor which comprises at least a main processor core and at least one secondary processor core , wherein the control device is configured with a safety control program having a first program part and a second program part for monitoring a machine component of the machine which machine component can be driven by means of the control device , whose first program part is assigned only to the at least one main processor core and whose second program part is assigned only to the at least one secondary processor core , wherein the at least one secondary processor core is constructed as a graphics processor core, a vector processor core or a stream processor core and wherein both program parts of the safety control program, independently of one another, monitor the machine or the machine component.
Heating arrangement for bonding a protective shell to a wind turbine blade , comprising a heating blanket with a first portion and a second portion of a heatable structure , characterised in that the first portion and the second portion adjoin at a fold of the heating blanket , wherein the fold is curved equally or substantially equally to a curvature of an edge of the wind turbine blade or of a segment of an edge of the wind turbine blade , wherein the heating blanket is mountable to a surface of the wind turbine blade in such manner that the fold abuts the edge or the segment of the edge and that the first portion and the second portion each abuts the surface of the wind turbine blade .