mhurhangee/ep-ind-claims huggingface dataset:
An energy harvesting device, comprising: an insulated container, configured to be transitioned between an expanded configuration and a compressed configuration, comprising: a deformable outer membrane comprising an outer surface and an inner surface, the outer surface being in contact with an external environment; an inner membrane, spaced apart from the deformable outer membrane, comprising an outer surface and an inner surface; a cavity spaced between the deformable outer membrane and the inner membrane; an outer heat exchanger coupled to the deformable outer membrane, comprising an outer surface exposed to the external environment, and an inner surface exposed to the cavity; a thermoelectric generator, the thermoelectric generator comprising an outer surface exposed to the cavity through the inner membrane, and an inner surface (1518, thermally-coupled to an inner heat exchanger; a phase-change material membrane, at least a portion of the phase-change material membrane coupled to the inner heat exchanger, and encapsulating a mass of phase-change material, wherein a primary axis of conduction through the inner heat exchanger, the thermoelectric generator, and the outer heat exchanger has a first thermal conductivity when the insulated container is in the expanded configuration, and wherein the primary axis of conduction has a second thermal conductivity, greater than the first thermal conductivity, when the insulated container is in the compressed configuration. a deformable outer membrane comprising an outer surface and an inner surface, the outer surface being in contact with an external environment; an inner membrane, spaced apart from the deformable outer membrane, comprising an outer surface and an inner surface; a cavity spaced between the deformable outer membrane and the inner membrane; an outer heat exchanger coupled to the deformable outer membrane, comprising an outer surface exposed to the external environment, and an inner surface exposed to the cavity; a thermoelectric generator, the thermoelectric generator comprising an outer surface exposed to the cavity through the inner membrane, and an inner surface (1518, thermally-coupled to an inner heat exchanger; a phase-change material membrane, at least a portion of the phase-change material membrane coupled to the inner heat exchanger, and encapsulating a mass of phase-change material, wherein a primary axis of conduction through the inner heat exchanger, the thermoelectric generator, and the outer heat exchanger has a first thermal conductivity when the insulated container is in the expanded configuration, and wherein the primary axis of conduction has a second thermal conductivity, greater than the first thermal conductivity, when the insulated container is in the compressed configuration.
A mobile terminal, comprising: a body having a front surface and a rear surface and the body accommodating a battery; a display unit (151, 251, 851) formed on the front surface of the body; a frame (204, 304, 404, 504, 604e, 604f, 704, 804) disposed between the front surface and the rear surface, and configured to support the display unit; and a bone conduction sound output device (261, 361, 461, 561, 661, 761, 861) configured to transmit sound using bone conduction vibrations, and connected to the frame so as to transmit the vibration to the display unit, characterized in that the frame includes: a base portion which forms at least part of the frame; a mounting portion spaced from the base portion, and configured to mount the bone conduction sound output device thereon; and bridge portions connecting the base portion and the mounting portion to each other so as to transmit the vibration from the mounting portion to the base portion, wherein the display unit includes: a window disposed on the front surface of the body; and a display accommodated in the frame so as to face the window, and overlapping the bone conduction sound output device in a thickness direction of the body. a body having a front surface and a rear surface and the body accommodating a battery; a display unit (151, 251, 851) formed on the front surface of the body; a frame (204, 304, 404, 504, 604e, 604f, 704, 804) disposed between the front surface and the rear surface, and configured to support the display unit; and a bone conduction sound output device (261, 361, 461, 561, 661, 761, 861) configured to transmit sound using bone conduction vibrations, and connected to the frame so as to transmit the vibration to the display unit, characterized in that the frame includes: a base portion which forms at least part of the frame; a mounting portion spaced from the base portion, and configured to mount the bone conduction sound output device thereon; and bridge portions connecting the base portion and the mounting portion to each other so as to transmit the vibration from the mounting portion to the base portion, a base portion which forms at least part of the frame; a mounting portion spaced from the base portion, and configured to mount the bone conduction sound output device thereon; and bridge portions connecting the base portion and the mounting portion to each other so as to transmit the vibration from the mounting portion to the base portion, wherein the display unit includes: a window disposed on the front surface of the body; and a display accommodated in the frame so as to face the window, and overlapping the bone conduction sound output device in a thickness direction of the body. a window disposed on the front surface of the body; and a display accommodated in the frame so as to face the window, and overlapping the bone conduction sound output device in a thickness direction of the body.
A polarizer comprising: a substrate transparent to light having a target wavelength in the deep ultraviolet range; and a periodic structure including a plurality of structural elements at predetermined intervals on the substrate, wherein the polarizer is configured so that the deep ultraviolet light of the target wavelength incident thereon and having a particular polarization dependent on the periodic structure passes between the structural elements on the substrate, characterized in that the periodic structure is composed of chromium oxide. a substrate transparent to light having a target wavelength in the deep ultraviolet range; and a periodic structure including a plurality of structural elements at predetermined intervals on the substrate, wherein the polarizer is configured so that the deep ultraviolet light of the target wavelength incident thereon and having a particular polarization dependent on the periodic structure passes between the structural elements on the substrate, characterized in that the periodic structure is composed of chromium oxide.
A robotic module of driving a catheter or a guide (15"), or a catheter and a guide (15"), comprising an assembly of drive members (24, 24', 24", 24′′′) structured and arranged so as to be able to be controlled: - in a first mode of operation, so as to make the guide (15") and/or the catheter advance in translation; - in a second mode of operation, so as to make the guide (15") and/or the catheter rotate around itself; the assembly of drive members (24, 24', 24", 24′′′) being also structured and arranged so as to be able to be controlled: - in a third mode of operation, so as to simultaneously make the guide (15") and/or the catheter advance in translation while making it rotate around itself characterized in that: - in the third mode of operation, the assembly of drive members (24, 24', 24", 24"') simultaneously makes the guide (15") and/or the catheter advance in translation according to the variations of the command from a man machine interface and rotates the guide (15") and/or the catheter automatically around itself alternately in one direction and then in the other direction, the frequency of alternating rotation being proportional to the speed of translation. - in a first mode of operation, so as to make the guide (15") and/or the catheter advance in translation; - in a second mode of operation, so as to make the guide (15") and/or the catheter rotate around itself; - in a third mode of operation, so as to simultaneously make the guide (15") and/or the catheter advance in translation while making it rotate around itself characterized in that: - in the third mode of operation, the assembly of drive members (24, 24', 24", 24"') simultaneously makes the guide (15") and/or the catheter advance in translation according to the variations of the command from a man machine interface and rotates the guide (15") and/or the catheter automatically around itself alternately in one direction and then in the other direction, the frequency of alternating rotation being proportional to the speed of translation.
Infeed installation for a forming machine, for infeeding an elongate workpiece, in particular a wire or a tube, from a workpiece reserve to a forming installation of the forming machine, comprising at least one infeed roller pair (112, 114) which has two infeed rollers which are disposed so as to have mutually parallel rotation axes and so as to be drivable in a mutually counter-rotating manner, and which by way of profiled circumferential faces delimit an infeed nip for guiding through the workpiece, wherein each of the infeed rollers by means of a roller tensioning system is fastened in a rotationally fixed and replaceable manner to one end of an associated infeed shaft, wherein the roller tensioning system has a tensioning screw (500, 600) which in relation to the rotation axis of the infeed roller is centred and which has a threaded portion (520, 620) and a head portion (510, 610) which in relation to the threaded portion is wider, characterized in that a clearance (530, 630) which is open towards the head side and which has a non-round entrainment profile for introducing a tensioning tool is configured in the tensioning screw, and in that a spacer disc (700, 1000, 1100) is provided, which in the fitted state of the infeed roller is disposed by way of at least one internal portion between the head portion of the tensioning screw and a lateral face of the infeed roller that faces the head portion, wherein the spacer disc (700, 1000, 1100) has a through opening for guiding through the threaded portion, wherein the through opening on one side transitions into a radially continuous lateral opening of which the clear width is larger than an external diameter of the threaded portion and smaller than a maximum diameter of the head portion, wherein the infeed shaft has a shaft collar and, adjoining thereto, an end-side appendix for plug-fitting an infeed roller, and the infeed roller has a central through bore of which the internal diameter is larger than an external diameter of the appendix, wherein an external diameter of the head portion is smaller than the internal diameter of the through bore.
A holding unit held by a device main body, the holding unit comprising: at least one discharge unit configured to discharge liquid; an accommodating unit including an attachment portion to which the at least one discharge unit is attached, the accommodating unit being configured to accommodate the at least one discharge unit; a facing portion having a facing surface facing the attachment portion; a blowing unit configured to blow a gas toward the facing surface so that the gas reaches the discharge unit; at least one changing unit configured to change, to a direction toward the attachment portion, a flow direction of the gas blown toward the facing surface, wherein the at least one discharge unit includes a first discharge unit and a second discharge unit, the first discharge and the second discharge unit being attached to the attachment portion side by side with each other, and characterized in that the at least one changing unit is disposed extending across the first discharge unit and the second discharge unit when the attachment portion is viewed in plan view. at least one discharge unit configured to discharge liquid; an accommodating unit including an attachment portion to which the at least one discharge unit is attached, the accommodating unit being configured to accommodate the at least one discharge unit; a facing portion having a facing surface facing the attachment portion; a blowing unit configured to blow a gas toward the facing surface so that the gas reaches the discharge unit; at least one changing unit configured to change, to a direction toward the attachment portion, a flow direction of the gas blown toward the facing surface, wherein the at least one discharge unit includes a first discharge unit and a second discharge unit, the first discharge and the second discharge unit being attached to the attachment portion side by side with each other, and characterized in that the at least one changing unit is disposed extending across the first discharge unit and the second discharge unit when the attachment portion is viewed in plan view.
A planar heating element comprising: a sheet-like electrical insulating substrate, a sheet-like polymer resistor placed on the electrical insulating substrate, at least one pair of electrodes that includes thin metal wires covered with conductive cover layers, that is placed along a sheet-like surface of the polymer resistor, and that supplies electricity to the polymer resistor, and sheet-like insulating cover material that is bonded to the electrical insulating substrate through hot melt so as to cover the electrodes and the polymer resistor, the insulating cover material facing to the electrical insulating substrate, the electrodes and the polymer resistor being placed between the insulating cover material and the electrical insulating substrate, characterised in that the sectional shape of the outer surface of the conductive cover layers in the electrodes is that of an ellipse in general with its major axis extending in a direction along the sheet-like surface of the electrical insulating substrate, and in that the hot melt is adhered directly to the elliptical outer surface of the conductive cover layers. a sheet-like electrical insulating substrate, a sheet-like polymer resistor placed on the electrical insulating substrate, at least one pair of electrodes that includes thin metal wires covered with conductive cover layers, that is placed along a sheet-like surface of the polymer resistor, and that supplies electricity to the polymer resistor, and sheet-like insulating cover material that is bonded to the electrical insulating substrate through hot melt so as to cover the electrodes and the polymer resistor, the insulating cover material facing to the electrical insulating substrate, the electrodes and the polymer resistor being placed between the insulating cover material and the electrical insulating substrate, characterised in that the sectional shape of the outer surface of the conductive cover layers in the electrodes is that of an ellipse in general with its major axis extending in a direction along the sheet-like surface of the electrical insulating substrate, and in that the hot melt is adhered directly to the elliptical outer surface of the conductive cover layers.
Process for building tyres for vehicle wheels, comprising forming at least one reinforcement annular structure of a tyre being processed by means of: arranging a forming drum externally carrying a deposition surface ("S1"), wherein the forming drum has cavities alternated with solid portions at said deposition surface ("S1"); arranging an application member supported in thrust relation towards the deposition surface ("S1"); longitudinally guiding a continuous elongated element towards a point of application ("P") between the deposition surface ("S1") and a work surface presented by the application member; winding the continuous elongated element circumferentially around the deposition surface ("S1") in order to form circumferential coils ("C") that are axially side-by-side each other; wherein, during winding, the work surface of the application member is operating in abutment relation against at least one of the coils ("C") previously formed by the continuous elongated element, during the forming of at least one part of the reinforcement annular structure. arranging a forming drum externally carrying a deposition surface ("S1"), wherein the forming drum has cavities alternated with solid portions at said deposition surface ("S1"); arranging an application member supported in thrust relation towards the deposition surface ("S1"); longitudinally guiding a continuous elongated element towards a point of application ("P") between the deposition surface ("S1") and a work surface presented by the application member; winding the continuous elongated element circumferentially around the deposition surface ("S1") in order to form circumferential coils ("C") that are axially side-by-side each other; wherein, during winding, the work surface of the application member is operating in abutment relation against at least one of the coils ("C") previously formed by the continuous elongated element, during the forming of at least one part of the reinforcement annular structure.
A frequency drift compensation system for a radio receiver for processing of a radio signal comprising a radio frequency spectrum, the radio receiver having a cumulative frequency response, the frequency drift compensation system comprising: a pilot signal injector circuit that is configured to add one or more local pilot signals to an intermediate frequency signal to obtain a composite signal, the intermediate signal being a down-converted and filtered signal received by the receiver and the one or more pilot signals being located spectrally on a lower slope and/or on an upper slope of the cumulative frequency response; and a drift frequency compensator that is configured to measure a power level or levels of the one or more pilot signals in order to measure a frequency drift of the cumulative frequency response, wherein the drift frequency compensator is further configured to adjust a local oscillator frequency of the radio receiver to compensate for the frequency drift. a pilot signal injector circuit that is configured to add one or more local pilot signals to an intermediate frequency signal to obtain a composite signal, the intermediate signal being a down-converted and filtered signal received by the receiver and the one or more pilot signals being located spectrally on a lower slope and/or on an upper slope of the cumulative frequency response; and a drift frequency compensator that is configured to measure a power level or levels of the one or more pilot signals in order to measure a frequency drift of the cumulative frequency response, wherein the drift frequency compensator is further configured to adjust a local oscillator frequency of the radio receiver to compensate for the frequency drift.
Method for calibration of a network analyser with reference to an error model with the following method steps: • Determination of a matrix with measured scattering parameters ( S m) of different calibration standards and with associated actual scattering parameters ( S a) of the calibration standards and • Definition of system errors ( T̃ i) for calibration of the network analyser by solving a linear equation system with the determined matrix, characterised in that to solve the linear equation system, a first and a second system error ( k, p) are each selected freely and using a reciprocal and transmission-affected calibration standard the defined system errors are weighted with the freely selected first system error ( T̃ i) or with a correct second system error ( p kor ( k)) dependent on the first system error ( k). • Determination of a matrix with measured scattering parameters ( S m) of different calibration standards and with associated actual scattering parameters ( S a) of the calibration standards and • Definition of system errors ( T̃ i) for calibration of the network analyser by solving a linear equation system with the determined matrix,
A method for communication via a different protocol, the method comprising: receiving, from a first antenna (122, 422) of a protocol translation device (120, 420) by a translator circuit (130, 430) of the protocol translation device (120, 420), a signal conforming to a first wireless protocol, the first antenna (122, 422) being configured to communicate with a first apparatus having a battery compartment housing the protocol translation device (120, 420) and a battery (140, 440) that powers both the protocol translation device (120, 420) and the first apparatus; translating, by the translator circuit (130, 430), the signal into a translated signal conforming to a second wireless protocol; and providing, by the translator circuit (130, 430), the translated signal to a second antenna (124, 424) of the protocol translation device (120, 420), the second antenna (124, 424) being configured to communicate with a second apparatus. receiving, from a first antenna (122, 422) of a protocol translation device (120, 420) by a translator circuit (130, 430) of the protocol translation device (120, 420), a signal conforming to a first wireless protocol, the first antenna (122, 422) being configured to communicate with a first apparatus having a battery compartment housing the protocol translation device (120, 420) and a battery (140, 440) that powers both the protocol translation device (120, 420) and the first apparatus; translating, by the translator circuit (130, 430), the signal into a translated signal conforming to a second wireless protocol; and providing, by the translator circuit (130, 430), the translated signal to a second antenna (124, 424) of the protocol translation device (120, 420), the second antenna (124, 424) being configured to communicate with a second apparatus.
A method for video decoding, comprising: determining whether one or more of the reference pictures associated with an inter-mode coded block involved in an operation of an inter-mode coding tool are long-term reference pictures; and constraining the operation of an inter-mode coding tool on the inter-mode coded block based on the determination, wherein in the case that the inter-mode coding tool comprises Bi-Directional Optical Flow, BDOF, and the inter-mode coded block is a bi-directional prediction block, constraining the operation of the inter-mode coding tool on the inter-mode coded block based on the determination comprises: prohibiting the performance of the BDOF when determining that one reference picture of the bi-directional prediction block is a long-term reference picture and the other reference picture of the bi-directional prediction block is not a long-term reference picture. determining whether one or more of the reference pictures associated with an inter-mode coded block involved in an operation of an inter-mode coding tool are long-term reference pictures; and constraining the operation of an inter-mode coding tool on the inter-mode coded block based on the determination, wherein in the case that the inter-mode coding tool comprises Bi-Directional Optical Flow, BDOF, and the inter-mode coded block is a bi-directional prediction block, constraining the operation of the inter-mode coding tool on the inter-mode coded block based on the determination comprises: prohibiting the performance of the BDOF when determining that one reference picture of the bi-directional prediction block is a long-term reference picture and the other reference picture of the bi-directional prediction block is not a long-term reference picture.