mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing of at least one packet segment of a soft-magnetic component of an electric machine, comprising the steps: - continuous manufacturing of a tape-shaped soft-magnetic film with an amorphous and/or nanocrystalline microstructure made of an iron alloy, in particular a FeSiB alloy, by means of a casting process; - continuous manufacturing of a tape-shaped film composite by continuous material-bonding of the film composite with at least one further correspondingly manufactured film , and - manufacturing of the packet segment using the film composite , characterized in that, the method comprises the further steps: - continuous longitudinal separating of the film composite at at least one point of a cross-section of the film composite ; - continuous longitudinal separating of at least one correspondingly manufactured further film composite at at least one point of a cross-section of the further film composite , wherein the film composite is cut lengthwise in respect of a cross-sectional width (B) at a different point than the further film composite ; and - continuous manufacturing of an at least two-layer tape-shaped multicomponent composite by continuous material-bonding of the longitudinally separated film composites with each other. - continuous manufacturing of a tape-shaped soft-magnetic film with an amorphous and/or nanocrystalline microstructure made of an iron alloy, in particular a FeSiB alloy, by means of a casting process; - continuous manufacturing of a tape-shaped film composite by continuous material-bonding of the film composite with at least one further correspondingly manufactured film , and - manufacturing of the packet segment using the film composite , - continuous longitudinal separating of the film composite at at least one point of a cross-section of the film composite ; - continuous longitudinal separating of at least one correspondingly manufactured further film composite at at least one point of a cross-section of the further film composite , wherein the film composite is cut lengthwise in respect of a cross-sectional width (B) at a different point than the further film composite ; and - continuous manufacturing of an at least two-layer tape-shaped multicomponent composite by continuous material-bonding of the longitudinally separated film composites with each other.
Metal cord rubberized in situ by a rubber composition , characterized in that the rubber composition comprises an organic polysulphide, and a vulcanization system comprising at least one sulphur-donating agent other than the organic polysulphide.
A mobile device comprising - a data processing facility , - a touch control facility arranged to provide a touch input signal (St) to the data processing facility, the touch control facility defining a touch control plane, - a motion state sensor facility arranged to generate a shock indication signal (Sj) comprising separate components (Sjx, Sjy, Sjz) indicative of a magnitude of a third or higher derivative of a position of the mobile device for each of three orthogonal axes (x, y, z), - a mode control facility arranged to select one of a plurality of mutually different operational modes (M1, M2), at least comprising a normal operation mode (M1), wherein the touch input signal is used as control signal for controlling operation of the mobile device, and a shock touch protection mode (M2), wherein the touch input signal is inhibited; wherein the mode control facility is arranged to select an operational mode in dependence on the magnitudes indicated by the shock indication signal (Sjx, Sjy, Sjz), the mobile device further comprising a comparator arranged to compare said magnitudes indicated by the shock indication signal (Sjx, Sjy, Sjz) with respective shock threshold values (Jtx, Jty, Jtz) corresponding to the three orthogonal axes (x, y, z) provided by a threshold indicating device , and provide a mode control signal (Sms) indicative of a result of this comparison, wherein upon indication by the mode control signal (Sms) that the magnitude of a shock indication signal component (Sjx, Sjy, Sjz) is greater than a respective shock threshold value (Jtx, Jty, Jtz), the mobile device assumes the shock touch protection mode (M2); wherein a first axis (z) of the three orthogonal axes (x, y, z) is perpendicular to the touch control plane and the threshold value (Jtz) for this first axis (z) of the three orthogonal axes (x, y, z) is higher than the threshold values (Jtx, Jty) for the other two axes (x, y) of the three orthogonal axes (x, y, z). - a data processing facility , - a touch control facility arranged to provide a touch input signal (St) to the data processing facility, the touch control facility defining a touch control plane, - a motion state sensor facility arranged to generate a shock indication signal (Sj) comprising separate components (Sjx, Sjy, Sjz) indicative of a magnitude of a third or higher derivative of a position of the mobile device for each of three orthogonal axes (x, y, z), - a mode control facility arranged to select one of a plurality of mutually different operational modes (M1, M2), at least comprising a normal operation mode (M1),
A method of manufacturing a battery with a substrate current collector, wherein the method comprises: forming elongate and aligned electrically conductive structures on the substrate face with upstanding walls; wherein the walls are formed with a first electrode layer covering said walls, and a solid state electrolyte layer provided on the first electrode layer; and wherein a second electrode is formed by covering the electrolyte layer; and forming a top current collector layer in electrical contact with the second electrode, characterized in that the second electrode is shielded from the conductive structure by an insulator covering a part of said conductive structure adjacent an end side thereof to prevent an ion transport path between the first and second electrode thereby mitigating stress build up near the end side of the conductive structure.
A spectrally encoded endoscopy probe (120; 420; 620; and/or 720) for color imaging comprising: a light guiding component (112; 122; 124; and/or 524) for guiding illumination light; a light focusing component ; and a grating component (126; or 626); wherein the spectrally encoded endoscopy probe (120; 420; 620; and/or 720) is configured such that a set of light beams of multiple wavelengths are diffracted by the grating component (126; or 626) in multiple or different orders at substantially a same angle; wherein the set of light beams includes at least 3 light beams; wherein each light beam among the set of light beams is associated with a different wavelength; characterised by : wherein a ratio A over B of a diffraction order A among the different orders and a diffraction order B among the different orders is smaller than 2; wherein the grating component diffracts light of a first wavelength associated with the diffraction order A at the same angle as the grating component (126; or 626) diffracts light of a second wavelength associated with the diffraction order B; and wherein the first wavelength is less than the second wavelength. a light guiding component (112; 122; 124; and/or 524) for guiding illumination light; a light focusing component ; and a grating component (126; or 626); wherein the spectrally encoded endoscopy probe (120; 420; 620; and/or 720) is configured such that a set of light beams of multiple wavelengths are diffracted by the grating component (126; or 626) in multiple or different orders at substantially a same angle; wherein the set of light beams includes at least 3 light beams; wherein each light beam among the set of light beams is associated with a different wavelength; characterised by : wherein a ratio A over B of a diffraction order A among the different orders and a diffraction order B among the different orders is smaller than 2; wherein the grating component diffracts light of a first wavelength associated with the diffraction order A at the same angle as the grating component (126; or 626) diffracts light of a second wavelength associated with the diffraction order B; and wherein the first wavelength is less than the second wavelength. wherein a ratio A over B of a diffraction order A among the different orders and a diffraction order B among the different orders is smaller than 2; wherein the grating component diffracts light of a first wavelength associated with the diffraction order A at the same angle as the grating component (126; or 626) diffracts light of a second wavelength associated with the diffraction order B; and wherein the first wavelength is less than the second wavelength.
A structure of connection among a circuit body , a bus bar and an electronic element , the connection structure comprising: a circuit body configured by a flexible board on which a wiring pattern is provided; a bus bar attached to a mounting surface of the circuit body ; and an electronic element attached to the mounting surface so as to connect the bus bar and the wiring pattern , wherein the bus bar has a connection piece projecting from a bus bar body and extending along the mounting surface toward the main line disposed on the circuit body ; wherein the connection piece is fixed to the mounting surface so that a restricted area (R) using the stiffness of the connection piece and which restricts deformation of the mounting surface is formed in a periphery of the connection piece ; and wherein the electronic element is arranged in the restricted area (R) and is fixed to the mounting surface; characterized in that the connection piece of the bus bar has a first portion extending in a direction along the mounting surface and a pair of second portions extending in a direction intersecting with the first portion and along the mounting surface; and wherein the first portion and the pair of second portions are fixed to the mounting surface so that the restricted area (R) is formed in a part sandwiched between the pair of second portions . a circuit body configured by a flexible board on which a wiring pattern is provided; a bus bar attached to a mounting surface of the circuit body ; and an electronic element attached to the mounting surface so as to connect the bus bar and the wiring pattern , wherein the bus bar has a connection piece projecting from a bus bar body and extending along the mounting surface toward the main line disposed on the circuit body ; wherein the connection piece is fixed to the mounting surface so that a restricted area (R) using the stiffness of the connection piece and which restricts deformation of the mounting surface is formed in a periphery of the connection piece ; and wherein the electronic element is arranged in the restricted area (R) and is fixed to the mounting surface; characterized in that the connection piece of the bus bar has a first portion extending in a direction along the mounting surface and a pair of second portions extending in a direction intersecting with the first portion and along the mounting surface; and wherein the first portion and the pair of second portions are fixed to the mounting surface so that the restricted area (R) is formed in a part sandwiched between the pair of second portions .
RF transmission circuitry comprising: an integrated circuit comprising an impedance matching measuring circuit , the impedance matching measuring circuit comprising: an artificial transmission line arranged as a lumped element model of a transmission line comprising a plurality of inductors connected in series with a plurality of nodes such that there is a node located on either side of each inductor and a capacitor connected to each node; a first detector circuit connected to receive a first voltage such that a measurement of a peak-to-peak voltage at a first node of the plurality of nodes is enabled, the first detector adapted to provide a first detected voltage; a second detector circuit connected to receive a second voltage such that a measurement of a peak-to-peak voltage at a second node of the plurality of nodes is enabled, the second detector adapted to provide a second detected voltage; an antenna tuner circuit ; and a controller configured to receive the first and second detected voltages; determine a required tuner control setting in order for the peak-to-peak voltages of the nodes to become equal using the first and second detected voltages; and provide the determined tuner control setting to the antenna tuner circuit . an artificial transmission line arranged as a lumped element model of a transmission line comprising a plurality of inductors connected in series with a plurality of nodes such that there is a node located on either side of each inductor and a capacitor connected to each node; a first detector circuit connected to receive a first voltage such that a measurement of a peak-to-peak voltage at a first node of the plurality of nodes is enabled, the first detector adapted to provide a first detected voltage; a second detector circuit connected to receive a second voltage such that a measurement of a peak-to-peak voltage at a second node of the plurality of nodes is enabled, the second detector adapted to provide a second detected voltage; an antenna tuner circuit ; and a controller configured to receive the first and second detected voltages; determine a required tuner control setting in order for the peak-to-peak voltages of the nodes to become equal using the first and second detected voltages; and provide the determined tuner control setting to the antenna tuner circuit .
A network element for supporting communications between a subscriber unit and a core network , wherein the network element comprises: a transceiver , memory and a signal processor operably coupled to the transceiver and memory , wherein the signal processor is arranged to: receive a first update request message from the subscriber unit ; wherein the signal processor is configured to: forward the first update request message to the core network; receive from the core network a first update response message; extract and store in memory at least a part of the first update response message content; forward the first update response message to the subscriber unit; receive at least one second update request from the subscriber unit;create at least one second update response message using the at least part of the stored content ; and respond directly to the subscriber unit by sending the at least one second update response message; wherein the signal processor is arranged to use a time period between receiving the second update request message and sending the at least one second update response message to set up subscriber unit measurements in order to receive at least one measurement report from the subscriber unit . a transceiver , memory and a signal processor operably coupled to the transceiver and memory , wherein the signal processor is arranged to: receive a first update request message from the subscriber unit ; receive a first update request message from the subscriber unit ; wherein the signal processor is configured to: forward the first update request message to the core network; receive from the core network a first update response message; extract and store in memory at least a part of the first update response message content; forward the first update response message to the subscriber unit; receive at least one second update request from the subscriber unit;create at least one second update response message using the at least part of the stored content ; and respond directly to the subscriber unit by sending the at least one second update response message; forward the first update request message to the core network; receive from the core network a first update response message; extract and store in memory at least a part of the first update response message content; forward the first update response message to the subscriber unit; receive at least one second update request from the subscriber unit;create at least one second update response message using the at least part of the stored content ; and respond directly to the subscriber unit by sending the at least one second update response message; wherein the signal processor is arranged to use a time period between receiving the second update request message and sending the at least one second update response message to set up subscriber unit measurements in order to receive at least one measurement report from the subscriber unit .
Electric heating unit comprising at least one fin intended to have a fluid passing through it and at least one tube accommodating one or more electrical heating elements , said tube having two large walls and two lateral walls , said fin being fastened to one and/or the other of the large walls of the tube, said heating elements being held in said tube by compression between said large walls by virtue of an operation of deforming the lateral walls towards the interior of the tube , the electric heating unit being characterized in that the lateral walls have an external face and an internal face , the external faces of the lateral walls of the tube having a shape that is curved towards the interior of the tube and a central groove so as to make it easier for said tube to deform in the event of lateral compression.
A radar system , comprising: a plurality of receive channels ; a first radar detector stage configured to detect, through said receive channels, at least one target using a detector threshold; a noise correlation determination unit configured to determine a noise correlation level indicative of noise correlation between the receive channels if the first radar detector stage has detected the target, wherein the noise correlation level is indicative of a type of noise affecting the radar system , wherein the type of noise is predominantly thermal noise if the noise correlation level is zero, and wherein the type of noise is predominantly phase noise if the noise correlation level has any other value greater than zero and lower than a maximum correlation level; a detector threshold adjustment unit configured to adjust the detector threshold in dependence on the noise correlation level determined by the noise correlation determination unit , wherein the detector threshold is only adjusted if the type of noise is predominantly phase noise; a second radar detector stage configured to detect the target using the adjusted detector threshold. a plurality of receive channels ; a first radar detector stage configured to detect, through said receive channels, at least one target using a detector threshold; a noise correlation determination unit configured to determine a noise correlation level indicative of noise correlation between the receive channels if the first radar detector stage has detected the target, wherein the noise correlation level is indicative of a type of noise affecting the radar system , wherein the type of noise is predominantly thermal noise if the noise correlation level is zero, and wherein the type of noise is predominantly phase noise if the noise correlation level has any other value greater than zero and lower than a maximum correlation level; a detector threshold adjustment unit configured to adjust the detector threshold in dependence on the noise correlation level determined by the noise correlation determination unit , wherein the detector threshold is only adjusted if the type of noise is predominantly phase noise; a second radar detector stage configured to detect the target using the adjusted detector threshold.
An electroless palladium/gold plating process for forming a palladium plating film directly on copper of an insulating base material with a surface on which the copper has been disposed and subsequently forming a gold plating film, by electroless plating treatments, comprising: a step of carrying out a copper surface electric potential adjusting treatment by immersing the insulation base material with a surface on which the copper has been disposed in a sulfur-containing aqueous solution containing one or more sulfur compounds selected from the group consisting of a thiosulfuric acid salt and a thiol; a step of carrying out an electroless palladium plating treatment on the insulating base material in which the surface electric potential of the copper has been adjusted to form a palladium plating film directly on the copper; and a step of carrying out an electroless gold plating treatment on the insulating base material in which the palladium plating film has been formed directly on the copper to form a gold plating film on the palladium plating film. a step of carrying out a copper surface electric potential adjusting treatment by immersing the insulation base material with a surface on which the copper has been disposed in a sulfur-containing aqueous solution containing one or more sulfur compounds selected from the group consisting of a thiosulfuric acid salt and a thiol; a step of carrying out an electroless palladium plating treatment on the insulating base material in which the surface electric potential of the copper has been adjusted to form a palladium plating film directly on the copper; and a step of carrying out an electroless gold plating treatment on the insulating base material in which the palladium plating film has been formed directly on the copper to form a gold plating film on the palladium plating film.
Plasma reactor for decomposing a hydrocarbon fluid which comprises the following: a reactor chamber which is enclosed by a reactor wall and which has at least one hydrocarbon fluid inlet and at least one outlet (15, 15-1, 15-2); a plasma burner having at least two elongated electrodes which each comprise a base part which is fixed to the reactor wall and a burner part which projects into the reactor chamber and has a free end ; wherein the outlet (15, 15-1, 15-2) is located at the other end of the reactor chamber opposite the plasma burner ; wherein the hydrocarbon fluid inlet opens out into the reactor chamber in such a manner that hydrocarbon fluid flowing out therefrom flows in a space between the reactor wall and the electrodes along at least one electrode to the free end of the burner part ; and wherein the distance between the hydrocarbon fluid inlet and the base part is smaller than the distance between the hydrocarbon fluid inlet and the free end . a reactor chamber which is enclosed by a reactor wall and which has at least one hydrocarbon fluid inlet and at least one outlet (15, 15-1, 15-2); a plasma burner having at least two elongated electrodes which each comprise a base part which is fixed to the reactor wall and a burner part which projects into the reactor chamber and has a free end ; wherein the outlet (15, 15-1, 15-2) is located at the other end of the reactor chamber opposite the plasma burner ; wherein the hydrocarbon fluid inlet opens out into the reactor chamber in such a manner that hydrocarbon fluid flowing out therefrom flows in a space between the reactor wall and the electrodes along at least one electrode to the free end of the burner part ; and wherein the distance between the hydrocarbon fluid inlet and the base part is smaller than the distance between the hydrocarbon fluid inlet and the free end .