mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic actuator (2; 2'), in particular for an electrical switching device, said electromagnetic actuator comprising: - an armature carrying at least one coil; - a ferromagnetic yoke configured to channel a magnetic flux created by the coil; - a ferromagnetic moving part which cooperates with the yoke to form a magnetic circuit, the moving part being configured to move relative to the armature under the action of the magnetic field generated by the coil; the actuator (2; 2') further comprising an auxiliary magnetic circuit (20; 20') made of electrically conductive material, to allow the circulation of induced currents in the auxiliary magnetic circuit (20; 20') when a magnetic field is generated by the coil; characterised in that the magnetic circuit is at least partly formed by an assembly of laminated metal plates. - an armature carrying at least one coil; - a ferromagnetic yoke configured to channel a magnetic flux created by the coil; - a ferromagnetic moving part which cooperates with the yoke to form a magnetic circuit, the moving part being configured to move relative to the armature under the action of the magnetic field generated by the coil; the actuator (2; 2') further comprising an auxiliary magnetic circuit (20; 20') made of electrically conductive material, to allow the circulation of induced currents in the auxiliary magnetic circuit (20; 20') when a magnetic field is generated by the coil; characterised in that the magnetic circuit is at least partly formed by an assembly of laminated metal plates.
Microwave cooking device, - having a cooking chamber that is defined by a cooking chamber wall, - having a cooking device light, - having an opening in the cooking chamber wall, in which the cooking device light is held, - having a shield in the area of the opening, which prevents microwaves from exiting the cooking chamber via the opening, wherein - the cooking device light has an LED light source and a light guide rod, which feeds the light emitted from the LED light source into the cooking chamber, - the cooking device light has a holding plate that is provided with a recess in which the light guide rod of the cooking device light sits, - the holding plate holds a sleeve component that surrounds the light guide rod, - the holding plate is arranged so as to cover the opening on the cooking chamber wall, characterised in that the sleeve component is formed as a separate component, and has a support flange and a splayed fastening base and the holding plate forms a receiving slot, through which the fastening base of the sleeve component is passed and engages behind a side of the holding plate that faces away from the support flange. - having a cooking chamber that is defined by a cooking chamber wall, - having a cooking device light, - having an opening in the cooking chamber wall, in which the cooking device light is held, - having a shield in the area of the opening, which prevents microwaves from exiting the cooking chamber via the opening, wherein - the cooking device light has an LED light source and a light guide rod, which feeds the light emitted from the LED light source into the cooking chamber, - the cooking device light has a holding plate that is provided with a recess in which the light guide rod of the cooking device light sits, - the holding plate holds a sleeve component that surrounds the light guide rod, - the holding plate is arranged so as to cover the opening on the cooking chamber wall, characterised in that the sleeve component is formed as a separate component, and has a support flange and a splayed fastening base and the holding plate forms a receiving slot, through which the fastening base of the sleeve component is passed and engages behind a side of the holding plate that faces away from the support flange.
A motor control device generating a voltage command value from a current command value and performing feedback control using a detection current flowing in a motor, the motor control device comprising: a correction control unit configured to set a d-axis current command value and a q-axis current command value to 0 when the motor is rotated at a constant velocity; a current control unit configured to generate integral values of d-axis current deflection between the d-axis current command value and the detection current of the d-axis and/or integral values of q-axis current deflection between the q-axis current command value and the detection current of the q-axis; and an integral value measurement unit configured to measure the generated integral values, wherein the correction control unit is configured to adjust a correction value at a rotation position of the motor by performing adjustment so that the measured integral value becomes a value within a range determined in advance; wherein the integral value measurement unit is configured to measure each of the integral values at a time of the generated correction value for the adjustment, and wherein the correction control unit is configured to generate at least two correction values for the adjustment, calculate an approximate formula based on the integral value of each of the corrections values for the adjustment measured by the integral value measurement unit, and calculate the correction value at the rotation position of the motor using the calculated calculation formula. a correction control unit configured to set a d-axis current command value and a q-axis current command value to 0 when the motor is rotated at a constant velocity; a current control unit configured to generate integral values of d-axis current deflection between the d-axis current command value and the detection current of the d-axis and/or integral values of q-axis current deflection between the q-axis current command value and the detection current of the q-axis; and an integral value measurement unit configured to measure the generated integral values, wherein the correction control unit is configured to adjust a correction value at a rotation position of the motor by performing adjustment so that the measured integral value becomes a value within a range determined in advance; wherein the integral value measurement unit is configured to measure each of the integral values at a time of the generated correction value for the adjustment, and wherein the correction control unit is configured to generate at least two correction values for the adjustment, calculate an approximate formula based on the integral value of each of the corrections values for the adjustment measured by the integral value measurement unit, and calculate the correction value at the rotation position of the motor using the calculated calculation formula.
A method for transmitting beacon services to a User Equipment, further referred to as UE, roaming in an area covered by several Radio Access Technologies, further referred to as RAT's, said area comprising a plurality of geographical zones, each geographical zone comprising at least one network base station using several frequencies and at least one RAT among said plurality of RAT's, said UE having various RAT capabilities and preferences and supporting several frequencies, said method comprising the steps of: periodically transmitting to the UE at least a beacon message M comprising information about the RAT's and the frequencies deployed in each zone of said area, and data indicating at least a validity period of said RAT's and said frequencies information, defining in said area n specific sub- zones Zi, i= 1 to n, n being an integer; defining the beacon message M as a set of successive sub-messages Mi, i=1 to n, each sub-message Mi carrying information about a specific RAT and/or a specific frequency deployed in a specific sub-zone Zi of said area, the validity period Vi of said specific information, and an identifier IDi of said sub-message Mi; including in each sub-message Mi, i=1 to n, the identifier of the sub-messages Mi, i=1 to n, carrying information previously updated; broadcasting said set of sub-messages Mi in said area; retrieving by the UE the identifiers of sub-messages Mi carrying updated information; and reading by said UE only the sub-messages Mi corresponding to the retrieved identifiers. periodically transmitting to the UE at least a beacon message M comprising information about the RAT's and the frequencies deployed in each zone of said area, and data indicating at least a validity period of said RAT's and said frequencies information, defining in said area n specific sub- zones Zi, i= 1 to n, n being an integer; defining the beacon message M as a set of successive sub-messages Mi, i=1 to n, each sub-message Mi carrying information about a specific RAT and/or a specific frequency deployed in a specific sub-zone Zi of said area, the validity period Vi of said specific information, and an identifier IDi of said sub-message Mi; including in each sub-message Mi, i=1 to n, the identifier of the sub-messages Mi, i=1 to n, carrying information previously updated; broadcasting said set of sub-messages Mi in said area; retrieving by the UE the identifiers of sub-messages Mi carrying updated information; and reading by said UE only the sub-messages Mi corresponding to the retrieved identifiers.
A process for preparing human relaxin-2 having the following amino acid sequence: A chain: pGlu-Leu-Tyr-Ser-Ala-Leu-Ala-Asn-Lys-Cys-Cys-His-Val-Gly-Cys-Thr-Lys-Arg-Ser-Leu-Ala-Arg-Phe-Cys B chain: Asp-Ser-Trp-Met-Glu-Glu-Val-Ile-Lys-Leu-Cys-Gly-Arg-Glu-Leu-Val-Arg-Ala-Gln-Ile-Ala-Ile-Cys-Gly-Met-Ser-Thr-Trp-Ser; comprising the following steps: providing the amino acids necessary for the synthesis of the A and B chains with usual protective groups, wherein the cysteines are employed as trityl-protected amino acids (L-Cys(Trt)-OH); effecting a chromatographic purification of the individual chains A and B after the solid state synthesis; followed by the simultaneous folding and combination of the individual chains A and B in ammonium hydrogencarbonate buffer at pH 7.9 to 8.4; addition of cystine and cysteine as a redox pair at a concentration of 2 mg cystine and 2 mg cysteine per mg of peptide employed (A + B chains) and subsequent purification of the relaxin-2 formed. A chain: pGlu-Leu-Tyr-Ser-Ala-Leu-Ala-Asn-Lys-Cys-Cys-His-Val-Gly-Cys-Thr-Lys-Arg-Ser-Leu-Ala-Arg-Phe-Cys pGlu-Leu-Tyr-Ser-Ala-Leu-Ala-Asn-Lys-Cys-Cys-His-Val-Gly-Cys-Thr-Lys-Arg-Ser-Leu-Ala-Arg-Phe-Cys B chain: Asp-Ser-Trp-Met-Glu-Glu-Val-Ile-Lys-Leu-Cys-Gly-Arg-Glu-Leu-Val-Arg-Ala-Gln-Ile-Ala-Ile-Cys-Gly-Met-Ser-Thr-Trp-Ser; Asp-Ser-Trp-Met-Glu-Glu-Val-Ile-Lys-Leu-Cys-Gly-Arg-Glu-Leu-Val-Arg-Ala-Gln-Ile-Ala-Ile-Cys-Gly-Met-Ser-Thr-Trp-Ser; providing the amino acids necessary for the synthesis of the A and B chains with usual protective groups, wherein the cysteines are employed as trityl-protected amino acids (L-Cys(Trt)-OH); effecting a chromatographic purification of the individual chains A and B after the solid state synthesis; followed by the simultaneous folding and combination of the individual chains A and B in ammonium hydrogencarbonate buffer at pH 7.9 to 8.4; addition of cystine and cysteine as a redox pair at a concentration of 2 mg cystine and 2 mg cysteine per mg of peptide employed (A + B chains) and subsequent purification of the relaxin-2 formed.
A wear measuring method in which an image of a lower surface of a trolley wire in contact with a pantograph (5, 50) installed on the roof of a train is captured with a wear measuring camera (2, 2a), and image processing is performed on the captured image of the lower surface of the trolley wire to measure a wear width of the trolley wire, characterized in that the wear measuring camera (2, 2a) is installed on the roof of the train and the wear measuring method comprises the step of finding the actual wear width by correcting the wear width in accordance with a tilt angle of the trolley wire tilted by an upper surface of the pantograph (5, 50).
A method of processing a substrate having a front side comprising an electrical circuit and a rear side comprising an exposed zone that faces the electrical circuit, the substrate comprising an electrically insulating layer disposed between the electrical circuit at the front side and the rear side, the method comprising: - an electrochemical treatment step in which an electrical potential is laterally applied at least to the exposed zone on the rear side of the substrate, while the exposed zone is in contact with a chemically reactive substance, the electrical potential causing a lateral flow of electrical current at least in the exposed zone, the lateral flow of electrical current and the chemically reactive substance altering the substrate starting from the exposed zone on the rear side inwardly toward the front side. - an electrochemical treatment step in which an electrical potential is laterally applied at least to the exposed zone on the rear side of the substrate, while the exposed zone is in contact with a chemically reactive substance, the electrical potential causing a lateral flow of electrical current at least in the exposed zone, the lateral flow of electrical current and the chemically reactive substance altering the substrate starting from the exposed zone on the rear side inwardly toward the front side.
A collapsible lighting device comprising: (a) a main body; (b) a telescoping member adjustable to a position within said main body; (c) a lamp head positioned at a first end of said telescoping member, said lamp head having sockets for illuminating elements: (d) an electrical connection to provide a connection between said lamp head and a power source; and (e) a collar surrounding said main body, said collar being adjustable to a first collar position relative to said main body when said portable lighting device is in a deployed position, and to a second collar position relative to said main body wherein said collar is adjustable to a position to substantially enclose exterior side surfaces of said lamp head when said collapsible lighting device is in a collapsed position. (a) a main body; (b) a telescoping member adjustable to a position within said main body; (c) a lamp head positioned at a first end of said telescoping member, said lamp head having sockets for illuminating elements: (d) an electrical connection to provide a connection between said lamp head and a power source; and (e) a collar surrounding said main body, said collar being adjustable to a first collar position relative to said main body when said portable lighting device is in a deployed position, and to a second collar position relative to said main body wherein said collar is adjustable to a position to substantially enclose exterior side surfaces of said lamp head when said collapsible lighting device is in a collapsed position.
Walkway installation, comprising a base intended to be fastened to a support construction, such as to the deck of a ship, a base bridge part that is connected with the base at one end so it can be rotated around an upright base axis of rotation, a main bridge part on the other end of the base bridge part as well as a hinge construction between the base bridge part and the main bridge part, wherein the hinge construction comprises an upright main axis of rotation and an auxiliary axis of rotation aligned transversely to this upright main axis of rotation as well as transversely to the main bridge part, characterised in that the base bridge part can rotate around only the upright base axis of rotation.
Direct-current switching device for interrupting a direct electric current flowing along a medium- or high-voltage current path, comprising an electric circuit arrangement, which comprises a mechanical switching device that can be switched in the medium- or high-voltage current path, wherein the electric circuit arrangement, in order to force a current zero crossing in the mechanical switching device connected in the medium- or high-voltage current path, additionally has - an LC circuit with at least one inductive component (26, 28) and at least one capacitive component for forming a resonant circuit which is closed via the switching device, and - at least one switchable semiconductor component (38, 40, 60, 62) for generating an excitation frequency which excites the resonant circuit, wherein the at least one switchable semiconductor component (38, 40, 60, 62) is arranged in the electric circuit assembly in such a way that the semiconductor component constantly always lies outside of the medium- or high-voltage current path when the mechanical switching device is connected in said medium- or high-voltage current path, and wherein the at least one switchable semiconductor component (38, 40, 60, 62) is arranged in another part of the electrical circuit arrangement, which lies outside of the resonant circuit, characterized in that the other part of the electrical circuit arrangement comprises an excitation oscillator circuit coupled to the resonant circuit for exciting an oscillation of the resonant circuit, wherein the switchable semiconductor component (38, 40, 60, 62), or at least one of the switchable semiconductor components (38, 40, 60, 62), is arranged in this excitation oscillator circuit, and the at least one switchable semiconductor component (38, 40, 60, 62) and an LC-circuit of the excitation oscillator circuit are connected in a half-bridge circuit. - an LC circuit with at least one inductive component (26, 28) and at least one capacitive component for forming a resonant circuit which is closed via the switching device, and - at least one switchable semiconductor component (38, 40, 60, 62) for generating an excitation frequency which excites the resonant circuit, wherein
A binding element to which a boot or shoe fixing unit is attachable or attached so as to form a binding, in particular for connecting a boot or shoe to a sports device, in particular a ski, such as a cross country or touring ski, or a roller-ski, the sports device comprising a longitudinally extending body with a top surface, wherein: the said binding element in the form of a mounting plate is provided by a central longitudinal section and at least one side section (12a, 12b) positioned on one or both of the long sides of the longitudinal section, wherein further the central longitudinal section has a width which is approximately the same as the width of the top surface of the sports device, and the at least one side section (12a, 12b) has a width which is less than the thickness of the sports device to which the binding element is to be attached, and characterised in that flexible joints are provided between the central longitudinal section and each of the at least one side sections (12a, 12b), such that the at least one side section (12a, 12b) can be bent out of the plane of the central longitudinal section, wherein the central longitudinal section is adapted to be in contact with the top surface of the sports device and the at least one side section (12a, 12b) is adapted to be bent and brought into contact with the side of the sports device, by means of the flexible joints, to be attached thereto. the said binding element in the form of a mounting plate is provided by a central longitudinal section and at least one side section (12a, 12b) positioned on one or both of the long sides of the longitudinal section, wherein further the central longitudinal section has a width which is approximately the same as the width of the top surface of the sports device, and the at least one side section (12a, 12b) has a width which is less than the thickness of the sports device to which the binding element is to be attached, and characterised in that flexible joints are provided between the central longitudinal section and each of the at least one side sections (12a, 12b), such that the at least one side section (12a, 12b) can be bent out of the plane of the central longitudinal section, wherein the central longitudinal section is adapted to be in contact with the top surface of the sports device and the at least one side section (12a, 12b) is adapted to be bent and brought into contact with the side of the sports device, by means of the flexible joints, to be attached thereto.
A method comprising: determining a request, from one or more applications, for access to local data associated with a device, wherein the local data includes, at least in part, sensor data associated with the device; determining one or more privacy profile objects associated with the local data, the device, or a combination thereof, wherein the one or more privacy profile objects are separate from the one or more applications and generated by a trusted external organization, and wherein the one or more privacy profile objects are configured for a user to selectively grant the access of the local data to the one or more applications; causing processing of the one or more privacy profile objects to determine one or more privacy policies associated with the local data, the device, or a combination thereof; and causing, at least in part, enforcement of the one or more privacy policies for granting the access to the local data, wherein enforcement comprises: determining a granularity level for the local data based on the one or more privacy policies; wherein the granularity level represents a level of details according to which the local data is presented; transforming the local data according to the granularity level; and granting access to the transformed local data to the one or more applications. determining a request, from one or more applications, for access to local data associated with a device, wherein the local data includes, at least in part, sensor data associated with the device; determining one or more privacy profile objects associated with the local data, the device, or a combination thereof, wherein the one or more privacy profile objects are separate from the one or more applications and generated by a trusted external organization, and wherein the one or more privacy profile objects are configured for a user to selectively grant the access of the local data to the one or more applications; causing processing of the one or more privacy profile objects to determine one or more privacy policies associated with the local data, the device, or a combination thereof; and causing, at least in part, enforcement of the one or more privacy policies for granting the access to the local data, wherein enforcement comprises: determining a granularity level for the local data based on the one or more privacy policies; wherein the granularity level represents a level of details according to which the local data is presented; transforming the local data according to the granularity level; and granting access to the transformed local data to the one or more applications. determining a granularity level for the local data based on the one or more privacy policies; wherein the granularity level represents a level of details according to which the local data is presented; transforming the local data according to the granularity level; and granting access to the transformed local data to the one or more applications.
A running surface for a ski, in particular for a cross-country ski, having a running surface profile which is provided, in particular, in a central longitudinal portion of the running surface and has slideback prevention elements with sliding surfaces (10; 10a, 10b) which slope up counter to a sliding direction and transition into push-off flanks, wherein the slideback prevention elements comprise at least one first ramp element having a sliding surface convexly curved in longitudinal direction with a first radius of curvature and at least one second ramp element, characterised in that the second ramp element comprises a sliding surface convexly curved in longitudinal direction with a second radius of curvature which is larger than that of the first ramp element, and that the slideback prevention elements comprise the first ramp element and the second ramp element in the transverse direction of the running surface.