mhurhangee/ep-ind-claims huggingface dataset:
A control device for the orientation of the fan blades of a turboprop including at least one set (24a, 24b) of fan blades having adjustable orientation, said set being attached in rotation to a rotating ring (28a, 28b) mechanically linked to a rotor (22a, 22b) of a turbine, characterized in that each blade of the set is coupled, for control of its orientation, to a blade root support mounted pivotably on the rotating ring by means of a conical gear train consisting of a first gear wheel attached to the blade root support and centered on an axis radial to the rotating ring and of a second gear wheel attached to the rotating ring, centered on an axis tangential to said rotating ring, and bearing a counterweight that is eccentric with respect to its axis of rotation, the device also including a cylinder (30a, 30b) centered on the axis of rotation of the rotating ring, attached in rotation to the turbine rotor and the rod (32a, 32b) whereof is connected to each counterweight through connecting arms so as to impart synchronous angular motion to the set of counterweights about the axis of rotation of their respective gear wheel, each connecting arm having a radial link (56a, 56b) having one end connected to the corresponding counterweight and the other end connected to a arm of a bellcrank (58a, 58b) the other arm whereof is connected to the cylinder rod.
Device for measuring the deformation of a fuel element of a pressurised water reactor, which comprises a plurality of control rod guide tubes, having a probe which can be inserted into the interior of a control rod guide tube and can be moved in the direction of the longitudinal axis of the control rod guide tube, said probe having at least one reference axis and being supported in at least one section of the control rod guide tube on its internal wall in such a way that the orientation of the at least one reference axis uniquely depends on the orientation of the longitudinal axis of the control rod guide tube in this section, and having a measuring device (9, 54) arranged in the probe for determining the orientation of the at least one reference axis in this section of the control rod guide tube relative to the orientation of this or another reference axis of the probe in another section, characterised in that an inclinometer is provided as the measuring device for determining the inclination of the central axis of the probe against the vertical direction.
A high strength hot rolled steel sheet with excellent toughness, which consists of, in terms of mass%, C: 0.04 to 0.12%, Si: 0.5 to 1.2%, Mn: 1.0 to 1.8%, P: not more than 0.03%, S: not more than 0.0030%, A1: 0.005 to 0.20%, N: not more than 0.005% and Ti: 0.03 to 0.13%, optionally Ni: 0.01 to 0.50%, and optionally one, or two or more selected from Nb: 0.005 to 0.10%, V: 0.002 to 0.50%, Mo: 0.02 to 0.50%, Cr: 0.03 to 0.50%, B: 0.0002 to 0.0050%, Cu: 0.01 to 0.50%, Ca: 0.0005 to 0.0050% and REM: 0.0005 to 0.0100%, and the balance being Fe and inevitable impurities, contains a bainite phase at an area fraction exceeding 95%, the bainite phase having an average grain diameter of not more than 3 μm, has a difference ΔHv1 of not more than 50 between a Vickers hardness value at 50 μm from the surface and a Vickers hardness value at 1/4 of a sheet thickness, has a difference ΔHv2 of not more than 40 between the Vickers hardness value at 1/4 of the sheet thickness and a Vickers hardness value at 1/2 of the sheet thickness, the sheet thickness being not less than 4.0 mm and not more than 12 mm, and has a tensile strength of not less than 780 MPa, wherein the differences ΔHv1 and ΔHv2 are in the direction of the sheet thickness.
A wiring module mountable on a power storage element group with a plurality of power storage elements, comprising: an insulating protector made of insulating synthetic resin; and a plurality of wires routed in the insulating protector, wherein: the insulating protector includes a wire routing section in which the plurality of wires are routed, the wire routing section includes a placement wall having a placement surface on which the plurality of wires are placed, the placement wall is formed with a projecting section projecting from the placement surface and a wire mounting section having the plurality of wires mounted thereon via a flexible hinge section is formed on the tip of the projecting section; the plurality of wires are mounted on the wire mounting section with the wire mounting section oriented to extend in a direction parallel to the placement surface; and the wire mounting section is oriented to extend in a direction making an angle of 85 to 95 degrees with the placement surface by bending the hinge section after the plurality of wires are mounted on the wire mounting section. an insulating protector made of insulating synthetic resin; and a plurality of wires routed in the insulating protector, wherein: the insulating protector includes a wire routing section in which the plurality of wires are routed, the wire routing section includes a placement wall having a placement surface on which the plurality of wires are placed, the placement wall is formed with a projecting section projecting from the placement surface and a wire mounting section having the plurality of wires mounted thereon via a flexible hinge section is formed on the tip of the projecting section; the plurality of wires are mounted on the wire mounting section with the wire mounting section oriented to extend in a direction parallel to the placement surface; and the wire mounting section is oriented to extend in a direction making an angle of 85 to 95 degrees with the placement surface by bending the hinge section after the plurality of wires are mounted on the wire mounting section. the insulating protector includes a wire routing section in which the plurality of wires are routed, the wire routing section includes a placement wall having a placement surface on which the plurality of wires are placed, the placement wall is formed with a projecting section projecting from the placement surface and a wire mounting section having the plurality of wires mounted thereon via a flexible hinge section is formed on the tip of the projecting section; the plurality of wires are mounted on the wire mounting section with the wire mounting section oriented to extend in a direction parallel to the placement surface; and the wire mounting section is oriented to extend in a direction making an angle of 85 to 95 degrees with the placement surface by bending the hinge section after the plurality of wires are mounted on the wire mounting section.
A headlamp unit for attachment to a vehicle body of a leaning vehicle, the headlamp unit comprising: a headlamp module including a headlamp LED; a sub-lamp module including a sub-lamp LED, which is different from the headlamp LED; an electric power supply module configured to supply electric power to the headlamp module and/or the sub-lamp module; a connector module configured to electrically connect the electric power supply module to the headlamp module and/or the sub-lamp module; and a non-waterproof cover module having a non-waterproof structure, the headlamp unit having an integrated structure composed of at least the headlamp module, the sub-lamp module, the electric power supply module, and the non-waterproof cover module, wherein in the integrated structure, the headlamp module, the sub-lamp module, the electric power supply module, and the connector module each have a waterproof structure, and the non-waterproof cover module is configured to cover at least a portion of the headlamp module and at least a portion of the sub-lamp module. a headlamp module including a headlamp LED; a sub-lamp module including a sub-lamp LED, which is different from the headlamp LED; an electric power supply module configured to supply electric power to the headlamp module and/or the sub-lamp module; a connector module configured to electrically connect the electric power supply module to the headlamp module and/or the sub-lamp module; and a non-waterproof cover module having a non-waterproof structure, the headlamp unit having an integrated structure composed of at least the headlamp module, the sub-lamp module, the electric power supply module, and the non-waterproof cover module, wherein in the integrated structure, the headlamp module, the sub-lamp module, the electric power supply module, and the connector module each have a waterproof structure, and the non-waterproof cover module is configured to cover at least a portion of the headlamp module and at least a portion of the sub-lamp module.
A silicone composition comprising: an organopolysiloxane having at least two alkenyl groups each bonded to a silicon atom in a molecule, and having no or at least one aryl group in a molecule; an organohydrogenpolysiloxane having at least three hydrogen atoms each bonded to a silicon atom in a molecule and having an aryl group in such a number that a percentage (%) of the total number of the aryl groups relative to the total number of hydrogen atoms and groups each bonded to a silicon atom (hereinafter referred to as "percentage of the aryl group") is at least 8%, in an amount such that a ratio of the number of SiH groups in component to the number of alkenyl groups in component is between 0.5 and 10; and a catalytic amount of a catalyst based on a platinum group metal; with a proviso that [said percentage (%) of the aryl group in component] - [a percentage (%) of the total number of the aryl groups relative to the total number of groups each bonded to a silicon atom in component] ≥ 8. an organopolysiloxane having at least two alkenyl groups each bonded to a silicon atom in a molecule, and having no or at least one aryl group in a molecule; an organohydrogenpolysiloxane having at least three hydrogen atoms each bonded to a silicon atom in a molecule and having an aryl group in such a number that a percentage (%) of the total number of the aryl groups relative to the total number of hydrogen atoms and groups each bonded to a silicon atom (hereinafter referred to as "percentage of the aryl group") is at least 8%, in an amount such that a ratio of the number of SiH groups in component to the number of alkenyl groups in component is between 0.5 and 10; and a catalytic amount of a catalyst based on a platinum group metal;
A lighting system for generating a dynamically variable flash intensity pattern, comprising: a controller (10, 10a) configured to generate a plurality of PWM driving control signals; and a light source comprised of a plurality of independent lighting elements in an array and configured to receive the plurality of PWM driving control signals and emit light from each of the plurality of independent lighting elements based on a corresponding one of the plurality of PWM driving control signals such that each of the independent lighting elements in the array is independently controlled, producing the dynamically variable flash intensity pattern, wherein intensity of the light emitted from each of the plurality of independent lighting elements ramps up and ramps down repeatedly with a first period based on a respective one of the plurality of PWM driving control signals; wherein for each of the plurality of PWM driving control signals a plurality of intensity values of the corresponding one of the plurality of independent lighting elements of the light source is generated, computed by the controller (10, 10a), wherein for each of the plurality of the PWM driving control signals each of the plurality of intensity values corresponds to a respective plurality of time points; and wherein the controller (10, 10a) further comprises a pulse width modulation driver configured to generate the plurality of PWM driving control signals based on the corresponding plurality of intensity values. a controller (10, 10a) configured to generate a plurality of PWM driving control signals; and a light source comprised of a plurality of independent lighting elements in an array and configured to receive the plurality of PWM driving control signals and emit light from each of the plurality of independent lighting elements based on a corresponding one of the plurality of PWM driving control signals such that each of the independent lighting elements in the array is independently controlled, producing the dynamically variable flash intensity pattern, wherein intensity of the light emitted from each of the plurality of independent lighting elements ramps up and ramps down repeatedly with a first period based on a respective one of the plurality of PWM driving control signals; wherein for each of the plurality of PWM driving control signals a plurality of intensity values of the corresponding one of the plurality of independent lighting elements of the light source is generated, computed by the controller (10, 10a), wherein for each of the plurality of the PWM driving control signals each of the plurality of intensity values corresponds to a respective plurality of time points; and wherein the controller (10, 10a) further comprises a pulse width modulation driver configured to generate the plurality of PWM driving control signals based on the corresponding plurality of intensity values.
A method performed by a wireless device for handling communication of the wireless device in a wireless communication network, wherein a radio network node in the wireless communication network provides radio coverage over a cell, the method comprising: - receiving from the radio network node, when the wireless device is in a first state, a beam configuration indicating which beam or beams of the cell the wireless device is allowed to select during a state transition from a sleeping state to an active state, or initial access; - receiving from the radio network node a rejection indication rejecting the initial access with additional information on how to access the cell again using another beam and/or another random access channel, RACH, resource; and - performing an initial access to the cell or a state transition taking the beam configuration and the rejection indication into account; and wherein the beam configuration is received as: configuration information in system information; during rejection of the initial access; or as a response to a random access request. - receiving from the radio network node, when the wireless device is in a first state, a beam configuration indicating which beam or beams of the cell the wireless device is allowed to select during a state transition from a sleeping state to an active state, or initial access; - receiving from the radio network node a rejection indication rejecting the initial access with additional information on how to access the cell again using another beam and/or another random access channel, RACH, resource; and - performing an initial access to the cell or a state transition taking the beam configuration and the rejection indication into account; and
A communication device (10, 10A, 10B, 10C) comprising: a selection unit (11C1, 11C2) which selects, in accordance with a communication distance to another communication device (10, 10A, 10B, 10C), a mode out of a plurality of modes, which respectively define different numbers of channels (CH1-CH4) in a defined frequency band used for a communication with the other communication device (10, 10A, 10B, 10C) via a wired medium and a channel (CH1-CH4) in the selected mode; and a signal processing unit (11B1, 11B2) which processes input data according to the selected mode and the selected channel (CH1-CH4) to generate communication frames for the communication, wherein, the plurality of modes include a first mode defining at least one first channel and a second mode defining at least one second channel, a frequency band of the first channel is different from a frequency band of the second channel, a number of subcarriers in the first channel is the same as a number of subcarriers in the second channel, and a number of the first channel(s) into which the defined frequency band is divided in the first mode is different from a number of the second channel(s) into which the defined frequency band is divided in the second mode. a selection unit (11C1, 11C2) which selects, in accordance with a communication distance to another communication device (10, 10A, 10B, 10C), a mode out of a plurality of modes, which respectively define different numbers of channels (CH1-CH4) in a defined frequency band used for a communication with the other communication device (10, 10A, 10B, 10C) via a wired medium and a channel (CH1-CH4) in the selected mode; and a signal processing unit (11B1, 11B2) which processes input data according to the selected mode and the selected channel (CH1-CH4) to generate communication frames for the communication, wherein, the plurality of modes include a first mode defining at least one first channel and a second mode defining at least one second channel, a frequency band of the first channel is different from a frequency band of the second channel, a number of subcarriers in the first channel is the same as a number of subcarriers in the second channel, and a number of the first channel(s) into which the defined frequency band is divided in the first mode is different from a number of the second channel(s) into which the defined frequency band is divided in the second mode.
Method for producing a hologram as a security feature, comprising the steps: provision of a hologram master, arrangement of a holographic recording material in front of the hologram master, transillumination of the holographic recording material with coherent light (8, 11), such that at least a part of the coherent light (8, 11) is reflected at the hologram master or is reflctively diffracted, and interfers with the coherent light (8, 11) transilluminating the holographic recording material, in order to expose the hologram into the holographic recording material, wherein the hologram master is provided in such a way that this coherent (8, 11) light, at every point, diffracts reflectively or reflects coherent (8, 11) different spectral colours, and the coherent light is monochromatically produced, and the holographic recording material is exposed along at least one marked out direction in accordance with a predetermined colour pattern, such that a hologram is produced with areas of different spectral colours adjoining one another, wherein each of the areas is exposed in each case with monochromatic light, and each of the exposed areas exhibits exactly one of the different spectral colours, characterised in that the coherent light (8, 11) is modulated by way of a spatial light modulator before the transillumination of the holographic recording material in order to introduce an individualising pattern in the hologram. provision of a hologram master, arrangement of a holographic recording material in front of the hologram master, transillumination of the holographic recording material with coherent light (8, 11), such that at least a part of the coherent light (8, 11) is reflected at the hologram master or is reflctively diffracted, and interfers with the coherent light (8, 11) transilluminating the holographic recording material, in order to expose the hologram into the holographic recording material, wherein the hologram master is provided in such a way that this coherent (8, 11) light, at every point, diffracts reflectively or reflects coherent (8, 11) different spectral colours, and the coherent light is monochromatically produced, and the holographic recording material is exposed along at least one marked out direction in accordance with a predetermined colour pattern, such that a hologram is produced with areas of different spectral colours adjoining one another, wherein each of the areas is exposed in each case with monochromatic light, and each of the exposed areas exhibits exactly one of the different spectral colours, characterised in that the coherent light (8, 11) is modulated by way of a spatial light modulator before the transillumination of the holographic recording material in order to introduce an individualising pattern in the hologram.
A method for calibrating a detector (20; 120) of a damping assembly (31; 131) in a vehicle, the damping assembly (31; 131) comprising a damper (13; 113) for connecting a transmission shaft (12; 112) of a transmission system (1; 101) of the vehicle to a driving shaft (4; 104), wherein the method comprises the step of applying different torques at the damping assembly (31; 131) by generating losses at different working conditions of the transmission system (1; 101), so that said damper (13; 113) can be compared to a damper of a reference vehicle for each of said different working conditions, and characterized in that said damper (13; 113) is compared to the damper of the reference vehicle by determining the difference (Δφ i) between a phase angle value (φ i) measured by the detector (20; 120) and a phase angle value (φ ei) of the damper of the reference vehicle, for each of said different working conditions.
A contrast agent for magnetic resonance imaging, in which the contrast agent comprises: a matrix a plurality of magnetic nanoparticles embedded in the matrix, wherein each magnetic nanoparticle comprises a core covered at least in part with a layer of metal, wherein the core and the layer of metal are comprised of different materials, wherein the matrix and the core comprise a ferromagnetic material, wherein the core comprises a transition metal, wherein the layer of metal comprises an antiferromagnetic material, and wherein the matrix material comprises a rare earth metal; and one or more pharmaceutically acceptable carriers. a matrix a plurality of magnetic nanoparticles embedded in the matrix, wherein each magnetic nanoparticle comprises a core covered at least in part with a layer of metal, wherein the core and the layer of metal are comprised of different materials, wherein the matrix and the core comprise a ferromagnetic material, wherein the core comprises a transition metal, wherein the layer of metal comprises an antiferromagnetic material, and wherein the matrix material comprises a rare earth metal; and one or more pharmaceutically acceptable carriers.
A method for treating phytoplankton by non-traditional biomanipulation, characterized by specifically comprising: introducing filter-feeding fishes into an area where the to-be-treated phytoplankton is located; carrying out premagnetisation on a water body entering the area; and arranging an electromagnetic type magnetisation reactor in a direction perpendicular to water flow in the area to carry out intermittent magnetisation on the water body, wherein the magnetic field intensity is 50mT to 2,000mT, an intermittent period is 3h to 240h, and the one-time magnetisation time is 5min to 300min. introducing filter-feeding fishes into an area where the to-be-treated phytoplankton is located; carrying out premagnetisation on a water body entering the area; and arranging an electromagnetic type magnetisation reactor in a direction perpendicular to water flow in the area to carry out intermittent magnetisation on the water body, wherein the magnetic field intensity is 50mT to 2,000mT, an intermittent period is 3h to 240h, and the one-time magnetisation time is 5min to 300min.