mhurhangee/ep-ind-claims huggingface dataset:
Method for managing a right of access to a service for a communicating device, said method comprising: - authentication (E3, F2) of a security element of an electric power supply module by a security element of the device, at the end of which authentication said security elements are associated, said authentication being triggered by a detection of a start of delivery of electric power to said device in order to supply electric power to said device; - configuration (E5, F5) of the security element of the device by the security element of the power supply module, the security element of the device, once configured, having a valid right of access to a service, allowing the device to access the service, and said access right remaining valid for as long as said device is supplied with power by said electric power supply module; characterized in that the method comprises invalidation, by the security element of the power supply module, of the access right possessed by the security element of the device upon detection of remaining electric power that is below a threshold. - authentication (E3, F2) of a security element of an electric power supply module by a security element of the device, at the end of which authentication said security elements are associated, said authentication being triggered by a detection of a start of delivery of electric power to said device in order to supply electric power to said device; - configuration (E5, F5) of the security element of the device by the security element of the power supply module, the security element of the device, once configured, having a valid right of access to a service, allowing the device to access the service, and said access right remaining valid for as long as said device is supplied with power by said electric power supply module; characterized in that the method comprises invalidation, by the security element of the power supply module, of the access right possessed by the security element of the device upon detection of remaining electric power that is below a threshold.
A base station transceiver (100; 100a; 100b; 100c) of a mobile communication system, the base station transceiver (100; 100a; 100b; 100c) being configured to provide wireless services to one or more mobile transceivers of the communication system, the base station transceiver further comprising an apparatus, the apparatus comprising a transmission module configured to transmit a common signal, a transmission power of the common signal influencing a service coverage area of the base station transceiver (100; 100a; 100b; 100c); and a control module configured to control the transmission module, adjust the transmission power for the common signal dynamically during service provision of the base station transceiver (100; 100a; 100b; 100c), wherein the control module is further configured to broadcast information related to a power setting for the transmission of the common signal which is different from an actual power setting for the transmission of the common signal after adjusting the transmission power of the common signal. control the transmission module, adjust the transmission power for the common signal dynamically during service provision of the base station transceiver (100; 100a; 100b; 100c), wherein the control module is further configured to broadcast information related to a power setting for the transmission of the common signal which is different from an actual power setting for the transmission of the common signal after adjusting the transmission power of the common signal.
A sensorless controlling apparatus for controlling a brushless motor having a rotor having a permanent magnet and a stator having stator coils of a plurality of phases for generating a rotating magnetic field to rotate the rotor based on a vector control by calculating an angle of the rotor using a d-axis current, the sensorless controlling apparatus comprising: a speed calculator that is configured to calculate speed ω of the rotor; an angle controller that is configured to calculate a correction angle Δθ based on a current value i d of the d-axis current I d; and an angle calculator that is configured to calculate an angle θ k+1 of the rotor at a predetermined time interval T s from time n by using the correction angle Δθ calculated by the angle controller, the rotor speed ω calculated by the speed calculator, the predetermined time interval T s, and a rotor angle θ k which has been calculated by the angle calculator at a predetermined time n-T s and which is a rotor angle at time n, characterized in that: the angle controller is configured to calculate the correction angle Δθ based on the current value i d of the d-axis current I d by computing the following expression: Δθ = C P × E + C I × F where E represents deviation between the current value i d of the d-axis current I d and a predetermined command value d*, C P represents a first constant, F represents an accumulated value of the deviation, and C I represents a second constant. a speed calculator that is configured to calculate speed ω of the rotor; an angle controller that is configured to calculate a correction angle Δθ based on a current value i d of the d-axis current I d; and an angle calculator that is configured to calculate an angle θ k+1 of the rotor at a predetermined time interval T s from time n by using the correction angle Δθ calculated by the angle controller, the rotor speed ω calculated by the speed calculator, the predetermined time interval T s, and a rotor angle θ k which has been calculated by the angle calculator at a predetermined time n-T s and which is a rotor angle at time n, characterized in that: the angle controller is configured to calculate the correction angle Δθ based on the current value i d of the d-axis current I d by computing the following expression: Δθ = C P × E + C I × F where E represents deviation between the current value i d of the d-axis current I d and a predetermined command value d*, C P represents a first constant, F represents an accumulated value of the deviation, and C I represents a second constant. the angle controller is configured to calculate the correction angle Δθ based on the current value i d of the d-axis current I d by computing the following expression: Δθ = C P × E + C I × F where E represents deviation between the current value i d of the d-axis current I d and a predetermined command value d*, C P represents a first constant, F represents an accumulated value of the deviation, and C I represents a second constant.
A method for manufacturing a heat exchanger comprising: stacking a plurality of parting sheets, a plurality of lengthwise closure bars, and a plurality of widthwise closure bars to form a rectangular first heat exchanger section with at least one widthwise passage extending between a pair of the widthwise closure bars and at least one lengthwise passage extending between a pair of the lengthwise closure bars; brazing the rectangular first heat exchanger section together at a first temperature; cutting a first side and a second side of the rectangular first heat exchanger section to give the first heat exchanger section a tapered-trapezoid profile; stacking a second plurality of parting sheets, a second plurality of lengthwise closure bars, and a second plurality of widthwise closure bars to form a second heat exchanger section with at least one widthwise passage extending between a pair of the second plurality of widthwise closure bars and at least one lengthwise passage extending between a pair of the second plurality of lengthwise closure bars; brazing the second heat exchanger section together at the first temperature; and brazing an end of the second heat exchanger section to the first or second side of the first heat exchanger section at a second temperature, wherein the second temperature is lower than the first temperature. stacking a plurality of parting sheets, a plurality of lengthwise closure bars, and a plurality of widthwise closure bars to form a rectangular first heat exchanger section with at least one widthwise passage extending between a pair of the widthwise closure bars and at least one lengthwise passage extending between a pair of the lengthwise closure bars; brazing the rectangular first heat exchanger section together at a first temperature; cutting a first side and a second side of the rectangular first heat exchanger section to give the first heat exchanger section a tapered-trapezoid profile; stacking a second plurality of parting sheets, a second plurality of lengthwise closure bars, and a second plurality of widthwise closure bars to form a second heat exchanger section with at least one widthwise passage extending between a pair of the second plurality of widthwise closure bars and at least one lengthwise passage extending between a pair of the second plurality of lengthwise closure bars; brazing the second heat exchanger section together at the first temperature; and brazing an end of the second heat exchanger section to the first or second side of the first heat exchanger section at a second temperature, wherein the second temperature is lower than the first temperature.
A prepackaged medical device comprising: a medical device comprising a needle assembly, a tube holder, and a length of tubing (20, 21) extending between the needle assembly and the tube holder; and a tray supporting the medical device, characterized in that said tray comprises: a tray body defining a first contoured portion supporting and maintaining positioning of the needle assembly and a second contoured portion having a recess extending from a bottom wall of the tray body for accepting-and maintaining positioning of the tube holder, the first and second contoured portions formed in spaced relation with respect to each other to allow sequential removal of first the needle assembly, second the tubing, and third the tube holder, and wherein the tray body comprises the bottom wall and a plurality of posts upstanding from the bottom wall in the first contoured portion wherein at least two opposing posts are positioned to engage and maintain the needle assembly in a defined orientation until removal of the needle assembly; and a removable lid enclosing the medical device. a medical device comprising a needle assembly, a tube holder, and a length of tubing (20, 21) extending between the needle assembly and the tube holder; and a tray supporting the medical device, characterized in that said tray comprises: a tray body defining a first contoured portion supporting and maintaining positioning of the needle assembly and a second contoured portion having a recess extending from a bottom wall of the tray body for accepting-and maintaining positioning of the tube holder, the first and second contoured portions formed in spaced relation with respect to each other to allow sequential removal of first the needle assembly, second the tubing, and third the tube holder, and wherein the tray body comprises the bottom wall and a plurality of posts upstanding from the bottom wall in the first contoured portion wherein at least two opposing posts are positioned to engage and maintain the needle assembly in a defined orientation until removal of the needle assembly; and a removable lid enclosing the medical device. a tray body defining a first contoured portion supporting and maintaining positioning of the needle assembly and a second contoured portion having a recess extending from a bottom wall of the tray body for accepting-and maintaining positioning of the tube holder, the first and second contoured portions formed in spaced relation with respect to each other to allow sequential removal of first the needle assembly, second the tubing, and third the tube holder, and wherein the tray body comprises the bottom wall and a plurality of posts upstanding from the bottom wall in the first contoured portion wherein at least two opposing posts are positioned to engage and maintain the needle assembly in a defined orientation until removal of the needle assembly; and a removable lid enclosing the medical device.
An occupant restraint device (100,200,300,400) comprising: right and left airbags (130a,130b) stored inside right and left sides of a seat back of a vehicle seat, the right and left airbags (130a,130b) being expanded and deployed on right and left sides of an occupant sitting in the vehicle seat, respectively; right and left tension cloths (140a,140b,442a,442b,444a,444b) connected to outer surfaces of the right and left airbags (130a,130b), respectively; characterized in that a lower tension cloth disposed inside a seat cushion of the vehicle seat, the lower tension cloth being continuously connected between a lower part of the right tension cloth (140b,444a,444b) and a lower part of the left tension cloth (140a,442a,442b), wherein the lower tension cloth is movable in right and left directions with respect to the occupant sitting in the vehicle seat, and when the right and left airbags (130a,130b) are expanded and deployed, the right tension cloth (140b,444a,444b), the left tension cloth (140a,442a,442b), and the lower tension cloth are configured to push the expanded and deployed right and left airbags toward the occupant. right and left airbags (130a,130b) stored inside right and left sides of a seat back of a vehicle seat, the right and left airbags (130a,130b) being expanded and deployed on right and left sides of an occupant sitting in the vehicle seat, respectively; right and left tension cloths (140a,140b,442a,442b,444a,444b) connected to outer surfaces of the right and left airbags (130a,130b), respectively; characterized in that a lower tension cloth disposed inside a seat cushion of the vehicle seat, the lower tension cloth being continuously connected between a lower part of the right tension cloth (140b,444a,444b) and a lower part of the left tension cloth (140a,442a,442b), wherein the lower tension cloth is movable in right and left directions with respect to the occupant sitting in the vehicle seat, and when the right and left airbags (130a,130b) are expanded and deployed, the right tension cloth (140b,444a,444b), the left tension cloth (140a,442a,442b), and the lower tension cloth are configured to push the expanded and deployed right and left airbags toward the occupant.
A light emitting device, comprising: a light source configured to emit a primary light; a first phosphor that absorbs the primary light and converts the primary light into a first wavelength-converted light having a wavelength longer than that of the primary light; and a second phosphor that absorbs the primary light and converts the primary light into a second wavelength-converted light having a wavelength longer than that of the primary light, wherein the first wavelength-converted light is a fluorescence having a light component over an entire wavelength range of 700 nm or more to 800 nm or less; the second wavelength-converted light is a fluorescence having a peak where a fluorescence intensity shows a maximum value in a wavelength range of 380 nm or more to less than 700 nm; the first wavelength-converted light has a 1/10 afterglow time longer than that of the second wavelength-converted light; and the primary light is a continuous pulsed light. a light source configured to emit a primary light; a first phosphor that absorbs the primary light and converts the primary light into a first wavelength-converted light having a wavelength longer than that of the primary light; and a second phosphor that absorbs the primary light and converts the primary light into a second wavelength-converted light having a wavelength longer than that of the primary light, wherein the first wavelength-converted light is a fluorescence having a light component over an entire wavelength range of 700 nm or more to 800 nm or less; the second wavelength-converted light is a fluorescence having a peak where a fluorescence intensity shows a maximum value in a wavelength range of 380 nm or more to less than 700 nm; the first wavelength-converted light has a 1/10 afterglow time longer than that of the second wavelength-converted light; and the primary light is a continuous pulsed light.
A method for the spatially resolved detection of the environment by means of a laser scanner which is attached to a carrier, in particular to a vehicle, moving relative to its environment on the ground; which in so doing scans the environment in at least two scanning planes which extend inclined with respect to one another; and which also carries out a predefined work application, wherein the laser scanner is attached to the carrier such that at least two scanning planes of the laser scanner which extend inclined with respect to one another are directed toward the ground and the scanning planes each generate a ground signal recognizable as such; and wherein an additional function check of the laser scanner, in which the ground is used as a reference, is carried out by the laser scanner simultaneously with the work application in that a repeat check is made whether the ground signals generated by the scanning planes which extend inclined with respect to one another satisfy a condition expected for an undisturbed state of the laser scanner and in that a measure, in particular a safety measure, is initiated if this is not the case.
A method for inspecting filled containers, wherein the liquid located in the container is illuminated with a first radiation device and the radiation scattered and/or reflected by the liquid located in the container is recorded at least partially by a first image-recording device, wherein the radiation passes along a first image-recording path from the first radiation device to the image-recording device and the image-recording device records a spatially resolved image of the radiation striking it and with a further radiation device, which radiates radiation along a second image-recording path onto the container and the radiation reflected and/or thrown back by the container is recorded in order to distinguish particles located within the liquid and specific for the liquid from foreign objects located in the liquid, characterized in that the two images taken along the two different image-recording paths are compared with one another, wherein a location which is visible in several images is assigned to a category "gas bubbles and/or product-specific particles" and a location which is visible in one image and not in another one is assigned to a category "broken glass", wherein the two radiation devices (2, 6) are arranged at different positions and illuminate the container or its content from different directions, and only one image-recording device is provided to record the two images, wherein these images are taken from the same direction and the image-recording device is arranged underneath the container.
A composite material component comprising a core impregnated by and embedded within a matrix material to define a main portion and a radially outwardly extending bead encircling the main portion, the bead being separated from the main portion by a reduced thickness neck, characterized in that the neck is structurally weaker than the bead.
Valve assembly comprising a valve closure member, a valve seat and at least one orifice, the valve closure member being movable relative to the valve seat for sealing and unsealing the orifice, the valve closure member comprising a valve body and an elastomeric seal, wherein - the valve body extends along a longitudinal axis (M B) from a first longitudinal end toward a second longitudinal end, - the valve body has a front surface at its second longitudinal end comprising an annular recess being concentric to the longitudinal axis (M B), said recess having an annular bottom having a concavely curved cross-section, - the elastomeric seal has an annular surface with a convexly curved cross-sectional shape by means of which the elastomeric seal is secured to the annular bottom, and - a front surface of the elastomeric seal, facing away from the valve body, has a concavely curved cross-sectional shape, wherein, by means of the concavely curved front surface, the elastomeric seal forms two circular circumferential sealing edges of different diameter, which extend concentrically to the longitudinal axis (M B) and project axially beyond the front surface of the valve body, for establishing a double seal to the valve seat, and the at least one orifice is positioned radially between the two sealing edges in top view along the longitudinal axis, characterized in that the elastomeric seal contains rubber, and wherein the elastomeric seal is vulcanized to the annular bottom of the recess with its convexly shaped annular surface, and wherein the elastomeric seal has a uniform thickness along its cross-sectional extension. - the valve body extends along a longitudinal axis (M B) from a first longitudinal end toward a second longitudinal end, - the valve body has a front surface at its second longitudinal end comprising an annular recess being concentric to the longitudinal axis (M B), said recess having an annular bottom having a concavely curved cross-section, - the elastomeric seal has an annular surface with a convexly curved cross-sectional shape by means of which the elastomeric seal is secured to the annular bottom, and - a front surface of the elastomeric seal, facing away from the valve body, has a concavely curved cross-sectional shape,
A transfection complex comprising a lipid aggregate composition comprising at least one cationic lipid, a peptide having the structure: A-L-B, wherein; A is a membrane penetrating peptide, L is a linker peptide; and B is a cationic polypeptide, and a cargo molecule complexed with the peptide, wherein the cationic lipid, the peptide and the cargo molecule are present in the transfection complex in non-covalent association, and wherein peptide A-L-B is a peptide sequence selected from any one of SEQ ID NO.89-99 and 103. A is a membrane penetrating peptide, L is a linker peptide; and B is a cationic polypeptide, and wherein the cationic lipid, the peptide and the cargo molecule are present in the transfection complex in non-covalent association, and wherein peptide A-L-B is a peptide sequence selected from any one of SEQ ID NO.89-99 and 103.
An internal olefin sulfonate composition comprising an internal olefin sulfonate having 16 carbon atoms and an internal olefin sulfonate having 14 carbon atoms, wherein a content mass ratio of the component to the component, (A/B), is from 10/90 to 70/30, and a content of the internal olefin sulfonate having 18 or more carbon atoms is 5% by mass or less, and wherein the content of the internal olefin sulfonate in which a sulfonate group is present at a C-2 position in the internal olefin sulfonate having 16 and 14 carbon atoms is 25% by mass or less. an internal olefin sulfonate having 16 carbon atoms and an internal olefin sulfonate having 14 carbon atoms, wherein a content mass ratio of the component to the component, (A/B), is from 10/90 to 70/30, and a content of the internal olefin sulfonate having 18 or more carbon atoms is 5% by mass or less, and wherein the content of the internal olefin sulfonate in which a sulfonate group is present at a C-2 position in the internal olefin sulfonate having 16 and 14 carbon atoms is 25% by mass or less. wherein a content mass ratio of the component to the component, (A/B), is from 10/90 to 70/30, and a content of the internal olefin sulfonate having 18 or more carbon atoms is 5% by mass or less, and wherein the content of the internal olefin sulfonate in which a sulfonate group is present at a C-2 position in the internal olefin sulfonate having 16 and 14 carbon atoms is 25% by mass or less.