mhurhangee/ep-ind-claims huggingface dataset:
A power receiving device comprising: a power receiving unit configured to receive electric power contactlessly from a power transmitting unit having a power transmitting coil, in a state in which the power receiving unit faces the power transmitting unit; and a shield provided at a first side of the power receiving unit which is opposite to a second side of the power receiving unit facing the power transmitting unit such that the power receiving unit is posed between the shield and the power transmitting unit, characterized by the power receiving unit including a core unit having a plate-like shape and including a side surface, an upper surface and a lower surface, and a power receiving coil helically wound around a coil winding axis to surround the upper and lower surface of the core unit, the shield including a first shield disposed on a side of one end of the power receiving unit in an axial direction of the coil winding axis, and a second shield disposed on a side of another end of the power receiving unit in the axial direction of the coil winding axis, no shield being provided at least at a location directly above a center portion in the direction of the coil winding axis of the power receiving unit, wherein the location includes opposite end sides in a direction perpendicular to the coil winding axis, and the first shield and the second shield are separated in rectangles, respectively. a power receiving unit configured to receive electric power contactlessly from a power transmitting unit having a power transmitting coil, in a state in which the power receiving unit faces the power transmitting unit; and a shield provided at a first side of the power receiving unit which is opposite to a second side of the power receiving unit facing the power transmitting unit such that the power receiving unit is posed between the shield and the power transmitting unit, characterized by the power receiving unit including a core unit having a plate-like shape and including a side surface, an upper surface and a lower surface, and a power receiving coil helically wound around a coil winding axis to surround the upper and lower surface of the core unit, the shield including a first shield disposed on a side of one end of the power receiving unit in an axial direction of the coil winding axis, and a second shield disposed on a side of another end of the power receiving unit in the axial direction of the coil winding axis, no shield being provided at least at a location directly above a center portion in the direction of the coil winding axis of the power receiving unit, wherein the location includes opposite end sides in a direction perpendicular to the coil winding axis, and the first shield and the second shield are separated in rectangles, respectively.
A rotorcraft comprising a rotor system (24a, 24b) capable of operating in an overdrive mode in which the rotor system rotates at an increased rate of rotation, a full power mode in which the rotor system rotates at a median rate of rotation, and a low power mode in which the rotor system rotates at a reduced rate of rotation, the rotorcraft comprising: a hub of the rotor system having a hub central axis; a rotor blade of the rotor system coupled to the hub, wherein the rotor blade is articulated relative to the hub central axis to allow the rotor blade to flap; a flapping measurement system operable to provide a blade flapping measurement; a processing system in communication with the flapping measurement system and operable to perform a correction process to alter the flapping measurement dependent on a measurement of a variable, the variable being rotor RPM or rotor torque; and wherein the result of the measurement of the selected variable is different in the overdrive mode, the full power mode, and the low power mode. a hub of the rotor system having a hub central axis; a rotor blade of the rotor system coupled to the hub, wherein the rotor blade is articulated relative to the hub central axis to allow the rotor blade to flap; a flapping measurement system operable to provide a blade flapping measurement; a processing system in communication with the flapping measurement system and operable to perform a correction process to alter the flapping measurement dependent on a measurement of a variable, the variable being rotor RPM or rotor torque; and wherein the result of the measurement of the selected variable is different in the overdrive mode, the full power mode, and the low power mode.
A member surface treatment method for treating a surface (10a, 12a) of a member (10, 12) containing a crystallizable thermoplastic resin by a dry treatment, the crystallizable thermoplastic resin being a polyolefin resin, characterized in that the dry treatment is performed to satisfy conditions X and Y: (Condition X) γ d /γ d0 is not less than 1.0 and less than 1.4; and (Condition Y) γ p /γ p0 is not less than 1.2 and less than 40, where γ d0 is a non-polar component of surface free energy of the surface before the dry treatment, γ d is a non-polar component of surface free energy of the surface after the dry treatment, γ p0 is a polar component of surface free energy of the surface before the dry treatment, and γ p is a polar component of surface free energy of the surface after the dry treatment, wherein the non-polar component of surface free energy and the polar component of surface free energy are determined as described in (Condition X) γ d /γ d0 is not less than 1.0 and less than 1.4; and (Condition Y) γ p /γ p0 is not less than 1.2 and less than 40,
Method for testing bottles or the like containers made of a translucent material, for example, glass or a glass-like plastic, e.g. PET, and filled with a bulk material and with a mechanically closed container closure, wherein the container closures in each case comprise an originality security ring, which with the container closed and is held thereon in an interlocking and/or force-fit (positive or negative fit) manner in such a way that the opening of the container is possible only by separating and/or destroying the originality security ring, wherein the containers, after being filled and closed, are tested by at least one optoelectronic sensor system for intactness of their originality security ring, and wherein the originality security ring, for the imaging detection process, is illuminated by at least one light beam from at least one light source, preferably with a powerfully concentrated light beam, characterised in that the illumination of the originality security element ring takes place from the interior of the respective container.
A computer implemented information processing method for generating neural-network based analysis data, comprising: generating a plurality of feature maps from each of a plurality of input data in a model using a neural network, wherein the input data is image data and the model performs recognition processing of an object; a feature data generation step of generating feature data that numerically represents a feature of each feature map; and an analysis data generation step of generating analysis data based on the feature data of the plurality of the feature maps, wherein in the analysis data, the feature data of the plurality of the feature maps generated from the plurality of the input data is arranged in a predetermined hierarchy of the model that generates the plurality of the feature maps from one of the input data, and wherein the feature data of the plurality of the feature maps generated from the same input image data is arranged in a first direction of the analysis data, and the feature data of the feature maps corresponding to each other of the different input image data is arranged in a second direction orthogonal to the first direction. generating a plurality of feature maps from each of a plurality of input data in a model using a neural network, wherein the input data is image data and the model performs recognition processing of an object; a feature data generation step of generating feature data that numerically represents a feature of each feature map; and an analysis data generation step of generating analysis data based on the feature data of the plurality of the feature maps, wherein in the analysis data, the feature data of the plurality of the feature maps generated from the plurality of the input data is arranged in a predetermined hierarchy of the model that generates the plurality of the feature maps from one of the input data, and wherein the feature data of the plurality of the feature maps generated from the same input image data is arranged in a first direction of the analysis data, and the feature data of the feature maps corresponding to each other of the different input image data is arranged in a second direction orthogonal to the first direction.
A hot-type fluid measurement device comprising: a module that includes a passage section and a circuit chamber; a sensor element that is disposed in the passage section; and a circuit element that is disposed in the circuit chamber, wherein the circuit element includes a correction section that corrects a measurement error, ΔT error, in a flow rate information, Q, detected by the sensor element resulting from a temperature difference between a temperature of a fluid, Ta, and a temperature of the module, Tm, characterized in that, the correction section comprises a correction amount deriving section that derives a correction amount, Y1, for correcting the measurement error, ΔT error, in the flow rate information, Q, based on the flow rate information, Q, based on a temperature difference, X1, between the temperature of the fluid, Ta, and the temperature of the module, Tm, and further based on the temperature of the fluid, Ta. a module that includes a passage section and a circuit chamber; a sensor element that is disposed in the passage section; and a circuit element that is disposed in the circuit chamber, wherein the circuit element includes a correction section that corrects a measurement error, ΔT error, in a flow rate information, Q, detected by the sensor element resulting from a temperature difference between a temperature of a fluid, Ta, and a temperature of the module, Tm, characterized in that, the correction section comprises a correction amount deriving section that derives a correction amount, Y1, for correcting the measurement error, ΔT error, in the flow rate information, Q, based on the flow rate information, Q, based on a temperature difference, X1, between the temperature of the fluid, Ta, and the temperature of the module, Tm, and further based on the temperature of the fluid, Ta.
Volume counter for liquids having an arithmetic unit and a volume measuring device with a measuring space through which a medium can flow, and with at least one inflow and at least one outflow, as well as with a counter arrangement, characterized in that at least one sensor arrangement with at least one inclination sensor is provided, with which sensor arrangement the axial position or angular position of the volume counter with respect to and in relation to at least one predeterminable axis or direction is obtained and determined, and wherein - the at least one sensor arrangement is embodied in a modular fashion with at least one inclination sensor, wherein the at least one sensor arrangement is connected to the volume counter and integrated therein by means of at least one receptacle which is provided for this purpose; - the at least one sensor arrangement comprises at least two inclination sensors or comprises one inclination sensor which permits simultaneous determination of two or more angular positions, with the result that the angular positions of two axles which are respectively oriented perpendicularly with respect to one another or positioned perpendicularly one on the other can be determined, and the spatial alignment and orientation of the volume measuring device or of the counter arrangement as well as, in particular, of the rotational shaft of the measuring body can be determined. - the at least one sensor arrangement is embodied in a modular fashion with at least one inclination sensor, wherein the at least one sensor arrangement is connected to the volume counter and integrated therein by means of at least one receptacle which is provided for this purpose; - the at least one sensor arrangement comprises at least two inclination sensors or comprises one inclination sensor which permits simultaneous determination of two or more angular positions, with the result that the angular positions of two axles which are respectively oriented perpendicularly with respect to one another or positioned perpendicularly one on the other can be determined, and the spatial alignment and orientation of the volume measuring device or of the counter arrangement as well as, in particular, of the rotational shaft of the measuring body can be determined.
A partially implantable hearing aid comprising an external audio signal unit adapted to be worn at least in part in a user's ear canal and an implantable unit, the external unit comprising audio signal processing means adapted for producing processed audio signals from input audio signals and means (18, 20) adapted for transmitting the processed audio signals via an optical link through an ear drum to an optical receiver (42, 62, 64) of the implantable unit, the implantable unit comprising an actuator adapted for stimulating the user's hearing, a power receiving means (30, 128) and a driver unit for transforming the received audio signals into an input signal to the actuator, characterized by external means for transmitting power transcutaneously to the implantable unit via an inductive link, wherein the actuator is a cochlear electrode, and wherein the optical receiver comprises a photo diode, a light collecting means adapted to be located in the middle ear for collecting light received from the external audio signal unit and an optical fiber for passing light from the light collecting means to the photo diode.
A winding device for the continuous production of edible wafer rolls provided on the inside with a substance such as an edible cream, - wherein the winding device includes a rolling mandrel that extends along a main axis, - wherein the rolling mandrel includes a supported section and a protruding section having a free end, - wherein the rolling mandrel at its protruding section is delimited by a cylindrical winding wall transverse to the main axis, - wherein the cylindrical winding wall has an exterior winding surface that is configured for contacting and rolling up a warm, plastically deformbable wafer strip, and via which heat transport takes place during operation, in particular by the contact of the wafer strip, - wherein a substance channel is provided inside the cylindrical winding wall, extending along the main axis, for introducing a substance into the interior of a continuous sleeve-shaped hollow body or the wafer rolls, wherein the substance channel exits the rolling mandrel in the area of the free end, wherein the substance channel is delimited by a substance channel wall, characterized in that at least one temperature control channel for conducting a temperature control medium, in particular a temperature control fluid, inside the cylindrical winding wall is provided, wherein the temperature control channel extends from the supported section of the rolling mandrel into the protruding section of the rolling mandrel and back into the supported section of the rolling mandrel. - wherein the winding device includes a rolling mandrel that extends along a main axis, - wherein the rolling mandrel includes a supported section and a protruding section having a free end, - wherein the rolling mandrel at its protruding section is delimited by a cylindrical winding wall transverse to the main axis, - wherein the cylindrical winding wall has an exterior winding surface that is configured for contacting and rolling up a warm, plastically deformbable wafer strip, and via which heat transport takes place during operation, in particular by the contact of the wafer strip, - wherein a substance channel is provided inside the cylindrical winding wall, extending along the main axis, for introducing a substance into the interior of a continuous sleeve-shaped hollow body or the wafer rolls, wherein the substance channel exits the rolling mandrel in the area of the free end, wherein the substance channel is delimited by a substance channel wall, characterized in that at least one temperature control channel for conducting a temperature control medium, in particular a temperature control fluid, inside the cylindrical winding wall is provided, wherein the temperature control channel extends from the supported section of the rolling mandrel into the protruding section of the rolling mandrel and back into the supported section of the rolling mandrel.
A fitting for a thrust reverser link arm comprising: a base plate configured to be fastened to a proximal surface of an inner fixed structure; a first wall extending orthogonally from the base plate; a pin extending orthogonally from the first wall; a second wall extending orthogonally from the base plate; a removable member; a first column located between the first wall and the second wall; and a second column located between the first wall and the second wall; characterised in that the removable member is attached to the second wall and the first column via a first fastener, the removable member located between the second wall and the first column, and wherein the removable member is attached to the second wall and the second column via a second fastener, the removable member located between the second wall and the second column. a base plate configured to be fastened to a proximal surface of an inner fixed structure; a first wall extending orthogonally from the base plate; a pin extending orthogonally from the first wall; a second wall extending orthogonally from the base plate; a removable member; a first column located between the first wall and the second wall; and a second column located between the first wall and the second wall; characterised in that the removable member is attached to the second wall and the first column via a first fastener, the removable member located between the second wall and the first column, and wherein the removable member is attached to the second wall and the second column via a second fastener, the removable member located between the second wall and the second column.
An electronic device, comprising: a body; a display in front of the body; a speaker assembly disposed inside the body of the electronic device, the speaker assembly including: a speaker unit comprising a magnet; a frame in which the speaker unit is disposed; a casing having an internal space including a resonant region, wherein the casing includes a side comprising a recessed portion corresponding to the magnet, and the magnet is disposed at the recessed portion of the casing and exposed to the outside of the casing, characterized in that the magnet includes a first long side, a second long side opposite the first long side, a first short side connected with the first long side and the second long side between the first long side and the second long side, and a second short side connected with the first long side and the second long side opposite the first short side, and wherein the first long side and the second long side of the magnet are externally exposed from the speaker assembly to the outside of the speaker assembly at the recessed portion of the casing such that a distance between the first long side and the second long side of the magnet is substantially the same as a thickness of the casing. a body; a display in front of the body; a speaker assembly disposed inside the body of the electronic device, the speaker assembly including: a speaker unit comprising a magnet; a frame in which the speaker unit is disposed; a casing having an internal space including a resonant region, wherein the casing includes a side comprising a recessed portion corresponding to the magnet, and the magnet is disposed at the recessed portion of the casing and exposed to the outside of the casing, a speaker unit comprising a magnet; a frame in which the speaker unit is disposed; a casing having an internal space including a resonant region, wherein the casing includes a side comprising a recessed portion corresponding to the magnet, and the magnet is disposed at the recessed portion of the casing and exposed to the outside of the casing, characterized in that the magnet includes a first long side, a second long side opposite the first long side, a first short side connected with the first long side and the second long side between the first long side and the second long side, and a second short side connected with the first long side and the second long side opposite the first short side, and wherein the first long side and the second long side of the magnet are externally exposed from the speaker assembly to the outside of the speaker assembly at the recessed portion of the casing such that a distance between the first long side and the second long side of the magnet is substantially the same as a thickness of the casing.
Aircraft comprising a ventilation system for an electronic bay integrated into the aircraft, the electronic bay comprising at least one cabinet (51 to 55), the aircraft having a cockpit, the ventilation system comprising a blowing circuit and an extraction circuit, the extraction circuit comprising connection sleeves arranged between the cabinets, at least one air transmission conduct (E1, E2, E5) integrated into at least one cabinet (51 to 55), and a final air extraction tube outside the cockpit, the air transmission conduct(s) (E1, E2, E5) each limiting a parallelepiped extraction space by two parallel main walls, one of which consists in a wall forming at least in part a wall of the cabinet(s) (51 to 55), the blowing circuit comprising at least one strut assembly (31, 32) integrated into a floor of the aircraft and air distribution means (33, 34, 34', 35, 45 to 48) arranged between the cabinet(s) (51 to 55) and the strut assembly or assemblies (31, 32), the strut assembly or assemblies (31, 32) serving as a walking floor of the cockpit of the aircraft.
A method of converting carbon dioxide produced during an industrial process to methane comprising: contacting a culture comprising hydrogenotrophic methanogenic archaea with H 2 gas and an output gas from an industrial process comprising CO 2 gas and 0.1% to 32% air by volume in a bioreactor; wherein the redox potential in the bioreactor is maintained at -100 mV or less with the H 2 gas; and wherein the hydrogenotrophic methanogenic archaea converts the H 2 gas and the CO 2 gas to methane, wherein the culture comprises a microorganism of the Methanococci class, Methanomicrobia class, or the Methanobacteria class. contacting a culture comprising hydrogenotrophic methanogenic archaea with H 2 gas and an output gas from an industrial process comprising CO 2 gas and 0.1% to 32% air by volume in a bioreactor; wherein the redox potential in the bioreactor is maintained at -100 mV or less with the H 2 gas; and wherein the hydrogenotrophic methanogenic archaea converts the H 2 gas and the CO 2 gas to methane, wherein the culture comprises a microorganism of the Methanococci class, Methanomicrobia class, or the Methanobacteria class.