mhurhangee/ep-ind-claims huggingface dataset:
A communication system comprising: a first set of transducers (205a,205b,205c); a second set of transducers; a first signal processing device configured to produce a signal for transmission by at least some of the transducers in the first set to at least some of the transducers in the second set; a second signal processing device configured to process signals received from at least some of the transducers in the second set in order to select a best said signal that is used for further processing, wherein the first set of transducers comprises a first subset comprising at least one said transducer, and a second subset comprising at least one said transducer, and wherein the at least one transducer in the first subset transmits on a first channel having an associated first frequency, and the at least one transducer in the second subset transmits on a second channel having a second, different associated frequency, wherein the first signal processing device is configured to produce the signal so that the signal is transmitted on the first channel by the first subset of transducers in the first set, and transmitted on the second channel by the second subset of transducers in the first set, characterised in that the first subset and the second subset of said transducers in the first set are arranged in an interleaved manner. a first set of transducers (205a,205b,205c); a second set of transducers; a first signal processing device configured to produce a signal for transmission by at least some of the transducers in the first set to at least some of the transducers in the second set; a second signal processing device configured to process signals received from at least some of the transducers in the second set in order to select a best said signal that is used for further processing, wherein the first set of transducers comprises a first subset comprising at least one said transducer, and a second subset comprising at least one said transducer, and wherein the at least one transducer in the first subset transmits on a first channel having an associated first frequency, and the at least one transducer in the second subset transmits on a second channel having a second, different associated frequency, wherein the first signal processing device is configured to produce the signal so that the signal is transmitted on the first channel by the first subset of transducers in the first set, and transmitted on the second channel by the second subset of transducers in the first set, characterised in that the first subset and the second subset of said transducers in the first set are arranged in an interleaved manner.
A passive tracking device comprising: a first antenna that transmits response signals in a first frequency band; a second antenna that receives energizing signals in a second frequency band; an energy harvest module that receives an energizing signal from a remote device via the second antenna and converts the energizing signal from RF electrical energy to DC electrical energy that energizes the passive tracking device; a transmission module that modulates a response signal for transmission in the first frequency band and outputs the modulated response signal to the first antenna for transmission in accordance with a communication protocol, the response signal including a message indicating a device identifier of the passive tracking device, wherein the transmission module includes a bulk acoustic wave reference oscillator (404, 1000) that produces an output frequency, the bulk acoustic wave reference oscillator including a bulk acoustic wave delay reference, and wherein the transmission module modulates the response signal such that the response signal has a carrier frequency based on the output frequency of the bulk acoustic wave reference oscillator. a first antenna that transmits response signals in a first frequency band; a second antenna that receives energizing signals in a second frequency band; an energy harvest module that receives an energizing signal from a remote device via the second antenna and converts the energizing signal from RF electrical energy to DC electrical energy that energizes the passive tracking device; a transmission module that modulates a response signal for transmission in the first frequency band and outputs the modulated response signal to the first antenna for transmission in accordance with a communication protocol, the response signal including a message indicating a device identifier of the passive tracking device, wherein the transmission module includes a bulk acoustic wave reference oscillator (404, 1000) that produces an output frequency, the bulk acoustic wave reference oscillator including a bulk acoustic wave delay reference, and wherein the transmission module modulates the response signal such that the response signal has a carrier frequency based on the output frequency of the bulk acoustic wave reference oscillator.
A battery mounting structure in a saddle-type electric vehicle which comprises a twin-tube frame having a pair of left and right main frames extending rearwardly from a head pipe, a propulsive battery including a plurality of battery modules (17a through 17j), and a motor which is energized by electric power supplied from said propulsive battery, wherein each of said battery modules (17a through 17j) is in the form of a quadrangular prism having long sides and short sides as viewed in plan and vertical sides longer than said long sides, said twin-tube frame includes a bulging region in which each of said main frames bulges outwardly from said head pipe as viewed in plan and a narrow region in which the distance between said main frames is reduced, said battery modules (17a through 17j) include battery modules whose long sides extend along transverse directions of the vehicle in said bulging region and battery modules whose long sides extend along longitudinal directions of the vehicle in said narrow region, characterized in that said narrow region is formed distant from said head pipe behind said bulging region, said battery module positioned closest to said head pipe is arranged such that its long sides extend along a transverse direction of the vehicle as viewed in plan, two motors are arranged in a central portion of the vehicle, and said battery mounting structure further comprises a battery case housing said propulsive battery therein and a vehicle body cover covering outside said battery case to serve as part of the appearance of the vehicle, wherein the battery module positioned in a front end portion of said bulging region, among the battery modules (17a through 17g) disposed in the bulging region, has a height smaller than the battery modules (17b through 17g) positioned therebehind. each of said battery modules (17a through 17j) is in the form of a quadrangular prism having long sides and short sides as viewed in plan and vertical sides longer than said long sides, said twin-tube frame includes a bulging region in which each of said main frames bulges outwardly from said head pipe as viewed in plan and a narrow region in which the distance between said main frames is reduced, said battery modules (17a through 17j) include battery modules whose long sides extend along transverse directions of the vehicle in said bulging region and battery modules whose long sides extend along longitudinal directions of the vehicle in said narrow region, characterized in that
Sock with a foot part and with an upper, in particular for use in sports activities, the foot part having a toe area, a heel area and, situated between toe area and heel area, a tread area, the sock having at least one pad in some regions, characterized in that - the pads are formed by absorption pads (21, 22) between which a web is provided, the absorption pads (21, 22) each being arranged laterally with respect to the instep and extending from the toe area across the instep of the foot part as far as the lower area of the upper of the sock, and - the pads are formed by spacer pads (26, 27) between which a web is provided, the spacer pad beginning at the heel area and ending at the web, which is formed between the spacer pads (26, 27). - the pads are formed by absorption pads (21, 22) between which a web is provided, the absorption pads (21, 22) each being arranged laterally with respect to the instep and extending from the toe area across the instep of the foot part as far as the lower area of the upper of the sock, and - the pads are formed by spacer pads (26, 27) between which a web is provided, the spacer pad beginning at the heel area and ending at the web, which is formed between the spacer pads (26, 27).
An impact power tool, comprising a tool body, a hammer actuating member (119, 145) that is disposed in a tip end region of the tool body and performs a predetermined hammering operation on a workpiece by reciprocating in its axial direction, a striker that performs a striking movement on the hammer actuating member (119, 145) by reciprocating in the longitudinal direction of the tool body, a weight to which a reaction force is transmitted from the hammer actuating member (119, 145) in a reaction force transmitting position in which the weight is placed in direct contact with the hammer actuating member (119, 145) or in which the weight is placed in contact with the hammer actuating member (119, 145) via an intervening member made of hard metal when the hammer actuating member (119, 145) performs a hammering operation on the workpiece, and an elastic element that biases the weight to the reaction force transmitting position and elastically deforms when the weight is caused to move rearward from the reaction force transmitting position by the reaction force transmitted to the weight and pushes the elastic element, thereby absorbing the reaction force, wherein the resonance frequency defined under the assumption that the weight and the elastic element are models of a spring mass system is set over half of the frequency of striking which is performed on the hammer actuating member (119, 145) by the striker, and characterised in that the mass of the weight is selected from about 40% to about 200% of the mass of the striker. a tool body, a hammer actuating member (119, 145) that is disposed in a tip end region of the tool body and performs a predetermined hammering operation on a workpiece by reciprocating in its axial direction, a striker that performs a striking movement on the hammer actuating member (119, 145) by reciprocating in the longitudinal direction of the tool body, a weight to which a reaction force is transmitted from the hammer actuating member (119, 145) in a reaction force transmitting position in which the weight is placed in direct contact with the hammer actuating member (119, 145) or in which the weight is placed in contact with the hammer actuating member (119, 145) via an intervening member made of hard metal when the hammer actuating member (119, 145) performs a hammering operation on the workpiece, and an elastic element that biases the weight to the reaction force transmitting position and elastically deforms when the weight is caused to move rearward from the reaction force transmitting position by the reaction force transmitted to the weight and pushes the elastic element, thereby absorbing the reaction force,
PrP-derived peptide fragment with SEQ ID NO: 1 for use in the treatment of Aβ amyloidogenesis-related pathologies and/or Aβ-related toxicity, in particular of Alzheimer disease.
Ring for retaining balls of a ball transmission joint, adapted to be mounted on one end of a bellows for protecting the transmission joint, characterised in that said retaining ring includes: • a deformable annular portion, of constant diameter, adapted to receive a collar for clamping said bellows on said transmission joint, and • a retaining flange extending into the retaining ring, so as to form a stop for retaining the balls of the transmission joint, preventing the axial exit of said balls out of the transmission joint. • a deformable annular portion, of constant diameter, adapted to receive a collar for clamping said bellows on said transmission joint, and • a retaining flange extending into the retaining ring, so as to form a stop for retaining the balls of the transmission joint, preventing the axial exit of said balls out of the transmission joint.
A tire management system for a vehicle having at least two wheels, the system comprising: a plurality of wheels on each of which a respective air-inflatable tire is mounted having a tire cavity; a bidirectional pump on each of the plurality of wheels for selectively pumping air from each respective tire to atmosphere for deflating said tire and for pumping air from atmosphere into each respective tire cavity for inflating said tire; and a battery assembly mounted to each of the plurality of wheels for powering the respective bidirectional pump; wherein the battery assemblies each include a chargeable battery and a magnet. a plurality of wheels on each of which a respective air-inflatable tire is mounted having a tire cavity; a bidirectional pump on each of the plurality of wheels for selectively pumping air from each respective tire to atmosphere for deflating said tire and for pumping air from atmosphere into each respective tire cavity for inflating said tire; and a battery assembly mounted to each of the plurality of wheels for powering the respective bidirectional pump; wherein the battery assemblies each include a chargeable battery and a magnet.
An actuator array for generating sound, the actuator array comprising at least one actuator device, the at least one actuator device including: a single latching electrode; a flexure comprising one or more flexible elements peripheral to and integrally formed with a central portion, the central portion being configured to travel back and forth along a respective axis in response to an electrostatic force generable by applying a voltage between the single latching electrode and the flexure; an insulation layer separating the single latching electrode from the flexure. a single latching electrode; a flexure comprising one or more flexible elements peripheral to and integrally formed with a central portion, the central portion being configured to travel back and forth along a respective axis in response to an electrostatic force generable by applying a voltage between the single latching electrode and the flexure; an insulation layer separating the single latching electrode from the flexure.
A furnishing element shelf suitable to be positioned in a compartment of a furnishing element, wherein - said shelf comprises), an upper surface and a lower surface, and a shelf edge; and wherein - a sanitization assembly is connected to said shelf; and wherein - said sanitization assembly comprises a sanitization device; and - said sanitization device is a device capable of sanitizing the air crossing it, such as for example a photocatalytic device or ionizer or the like; - a containment element; wherein - said sanitization device is received in said containment element; and wherein - said containment element comprises a box-shaped, box-like containment body; - and wherein said box-like containment body comprises, an upper side surface, a lower side surface and edge side surfaces, at least one inlet opening for the air to be sanitized, and at least a first sanitized air outlet opening placed in said upper side containment body surface; characterized in that - said shelf comprises a rear shelf edge, adapted to be positioned in the rear part of said compartment of a furnishing element, and said sanitization assembly is connected with its edge side surface to said shelf by connecting to said rear shelf edge; and wherein - said box-like containment body has dimensions in the width and thickness thereof which are the same as those of said furnishing element shelf of said furnishing element; and wherein said box-like containment body can be assembled on said shelf, thus being continuous with said shelf, wherein the side shelf surfaces (12, 13, 14) substantially continue in said side containment body surfaces (9, 10, 11). - said shelf comprises), an upper surface and a lower surface, and a shelf edge; and wherein - a sanitization assembly is connected to said shelf; and wherein - said sanitization assembly comprises a sanitization device; and - said sanitization device is a device capable of sanitizing the air crossing it, such as for example a photocatalytic device or ionizer or the like; - a containment element; wherein - said sanitization device is received in said containment element; and wherein - said containment element comprises a box-shaped, box-like containment body; - and wherein said box-like containment body comprises, an upper side surface, a lower side surface and edge side surfaces, at least one inlet opening for the air to be sanitized, and at least a first sanitized air outlet opening placed in said upper side containment body surface; characterized in that - said shelf comprises a rear shelf edge, adapted to be positioned in the rear part of said compartment of a furnishing element, and said sanitization assembly is connected with its edge side surface to said shelf by connecting to said rear shelf edge; and wherein - said box-like containment body has dimensions in the width and thickness thereof which are the same as those of said furnishing element shelf of said furnishing element; and
A mobile device, the mobile device comprising a back cover which comprises a film that is disposed on the back cover and that affects an appearance of a back of the mobile device, wherein the appearance resulting from the film is changeable and wherein the film comprises two flexible conductive substrates (110A, 100B) with a charge storage layer, a solid state electrolyte layer, and an electrochromic polymer layer laminated between the two flexible conductive substrates (110A, 110B); and wherein the back cover further comprises electric connectors attached to the film and plugged into the mobile device to control the appearance of the film through the mobile device.
A magnetic field generating device comprising: a superconducting coil formed by winding a superconductive wire material; and a protection circuit which is connected in parallel with the superconducting coil and attenuates a current flowing through the superconducting coil; wherein the magnetic field generating device further comprises an unseparated conductor plate which comprises an electric conductor and is placed such that the conductor plate is insulated from the superconducting coil and is adjacent to the superconducting coil in a winding axis direction of the superconducting coil, and one of main surfaces of the conductor plate faces the superconducting coil; wherein the unseparated conductor plate is formed of at least one material which is selected from the group consisting of oxygen-free copper, pure aluminum, pure gold, and pure silver and has a residual resistance ratio of 100 or more; wherein the unseparated conductor plate covers an entire surface of the superconducting coil when viewed from the winding axis direction of the superconducting coil; and wherein one said unseparated conductor plate is located on each of both sides of the superconducting coil in the winding axis direction of the superconducting coil. a superconducting coil formed by winding a superconductive wire material; and a protection circuit which is connected in parallel with the superconducting coil and attenuates a current flowing through the superconducting coil; wherein the magnetic field generating device further comprises an unseparated conductor plate which comprises an electric conductor and is placed such that the conductor plate is insulated from the superconducting coil and is adjacent to the superconducting coil in a winding axis direction of the superconducting coil, and one of main surfaces of the conductor plate faces the superconducting coil; wherein the unseparated conductor plate is formed of at least one material which is selected from the group consisting of oxygen-free copper, pure aluminum, pure gold, and pure silver and has a residual resistance ratio of 100 or more; wherein the unseparated conductor plate covers an entire surface of the superconducting coil when viewed from the winding axis direction of the superconducting coil; and wherein one said unseparated conductor plate is located on each of both sides of the superconducting coil in the winding axis direction of the superconducting coil.
A variable radio frequency band filter comprising: - a housing with a plurality of coupled cavities (12a, 12b); - a plurality of resonators (16a, 16b), wherein one resonator (16a, 16b) is arranged in each of the cavities (12a, 12b); - a tuning arrangement comprising a plurality of tuning structures (34a, 34b), i. wherein one of the tuning structures (34a, 34b) is arranged in each of the cavities (12a, 12b) and ii. wherein the tuning structures (34a, 34b) of multiple cavities (12a, 12b) among the plurality of cavities (12a, 12b) are mechanically connected such that the tuning structures (34a, 34b) may be shifted parallel to the facing cavity wall simultaneously in order to simultaneously vary the resonance frequencies of the cavities (12a, 12b) and iii. wherein each tuning structure (34a, 34b) includes at least one first metallic surface (42, 42') facing the resonator (16a, 16b) and at least one second metallic surface (44, 44') facing a wall of the cavity (12a, 12b), the first and second metallic surfaces (42, 42' 44, 44') being conductively connected, characterized in that the second metallic surface (44, 44') is arranged such that a small and uniform gap is formed between the second metallic surface (44, 44') and the wall in order to achieve a virtual grounding of the metallic surfaces (42, 42', 44,44') with a strong capacitive coupling between the second metallic surface and the facing cavity wall. - a housing with a plurality of coupled cavities (12a, 12b); - a plurality of resonators (16a, 16b), wherein one resonator (16a, 16b) is arranged in each of the cavities (12a, 12b); - a tuning arrangement comprising a plurality of tuning structures (34a, 34b), i. wherein one of the tuning structures (34a, 34b) is arranged in each of the cavities (12a, 12b) and ii. wherein the tuning structures (34a, 34b) of multiple cavities (12a, 12b) among the plurality of cavities (12a, 12b) are mechanically connected such that the tuning structures (34a, 34b) may be shifted parallel to the facing cavity wall simultaneously in order to simultaneously vary the resonance frequencies of the cavities (12a, 12b) and iii. wherein each tuning structure (34a, 34b) includes at least one first metallic surface (42, 42') facing the resonator (16a, 16b) and at least one second metallic surface (44, 44') facing a wall of the cavity (12a, 12b), the first and second metallic surfaces (42, 42' 44, 44') being conductively connected, i. wherein one of the tuning structures (34a, 34b) is arranged in each of the cavities (12a, 12b) and ii. wherein the tuning structures (34a, 34b) of multiple cavities (12a, 12b) among the plurality of cavities (12a, 12b) are mechanically connected such that the tuning structures (34a, 34b) may be shifted parallel to the facing cavity wall simultaneously in order to simultaneously vary the resonance frequencies of the cavities (12a, 12b) and iii. wherein each tuning structure (34a, 34b) includes at least one first metallic surface (42, 42') facing the resonator (16a, 16b) and at least one second metallic surface (44, 44') facing a wall of the cavity (12a, 12b), the first and second metallic surfaces (42, 42' 44, 44') being conductively connected,