mhurhangee/ep-ind-claims huggingface dataset:
A lubricant deterioration sensor (137a, 137b, 139a, 139b, 237, 239) for detecting deterioration of lubricant (131 a) of a machine body in a state where the lubricant deterioration sensor (137a, 137b, 139a, 139b, 237, 239) is mounted in the machine body, the lubricant deterioration sensor (137a, 137b, 139a, 139b, 237, 239) comprising: a light emitting element configured to emit light; a color light reception element configured to detect color of received light; a gap forming member forming an oil gap into which the lubricant (131 a) enters; a supporting member supporting the light emitting element, the color light reception element and the gap forming member; and a fixing member configured to be fixed to the machine body, wherein the gap forming member is configured to transmit the light emitted from the light emitting element, the oil gap is disposed on an optical path from the light emitting element to the color light reception element, the fixing member includes a contact portion that is configured to contact with the machine body on an outer side of the contact portion, and the lubricant deterioration sensor being characterized in that the supporting member is disposed on an inner side of the contact portion so as to be separated from the contact portion by a gap so that at least a part of the optical path is disposed on the inner side of the contact portion. a light emitting element configured to emit light; a color light reception element configured to detect color of received light; a gap forming member forming an oil gap into which the lubricant (131 a) enters; a supporting member supporting the light emitting element, the color light reception element and the gap forming member; and a fixing member configured to be fixed to the machine body, wherein the gap forming member is configured to transmit the light emitted from the light emitting element, the oil gap is disposed on an optical path from the light emitting element to the color light reception element, the fixing member includes a contact portion that is configured to contact with the machine body on an outer side of the contact portion, and the lubricant deterioration sensor being characterized in that the supporting member is disposed on an inner side of the contact portion so as to be separated from the contact portion by a gap so that at least a part of the optical path is disposed on the inner side of the contact portion.
A substrate for an optoelectronic device, with a fabric of monofilaments, and/or a polymer having fibres, which is designed for purposes of realising and/or supporting an electrode layer, wherein the fibres have a fibre diameter between 20μm and 100μm, in particular between 30μm and 80μm, and the fabric is provided with a coating having a transparent, electrically non-conducting polymer material, such that the fibres are at least partially surrounded by the polymer material, characterised in that, the fabric has mesh sizes that realise an open surface area of 70 to 85%, and the coating is applied such that the substrate on a first, uncoated surface side is electrically conducting, and on a second, coated surface side is electrically non-conducting.
A method for measuring mechanical strength of a pressurized gas storage tank for a vehicle, said method comprising at least the following steps: • Providing a pressurized gas storage tank for a vehicle having at least one opening; • Assembling a first coupling means to an expandable element; • Stretching the expandable element in the lengthwise direction by at least one translational movement of a first stretching means with respect to the first coupling means; • Introducing the expandable element into the pressurized gas storage tank for a vehicle via the at least one opening; • Connecting the expandable element to a pipe for a liquid; • Filling the expandable element with liquid; • Exerting a pressure, P int., on all the interior walls of the pressurized gas storage tank for a vehicle by means of the expandable element filled with liquid; • Measuring a possible deformation of the pressurized gas storage tank for a vehicle; • Emptying the liquid contained in the expandable element; • Removing the expandable element from the pressurized gas storage tank for a vehicle via the at least one opening. • Providing a pressurized gas storage tank for a vehicle having at least one opening; • Assembling a first coupling means to an expandable element; • Stretching the expandable element in the lengthwise direction by at least one translational movement of a first stretching means with respect to the first coupling means; • Introducing the expandable element into the pressurized gas storage tank for a vehicle via the at least one opening; • Connecting the expandable element to a pipe for a liquid; • Filling the expandable element with liquid; • Exerting a pressure, P int., on all the interior walls of the pressurized gas storage tank for a vehicle by means of the expandable element filled with liquid; • Measuring a possible deformation of the pressurized gas storage tank for a vehicle; • Emptying the liquid contained in the expandable element; • Removing the expandable element from the pressurized gas storage tank for a vehicle via the at least one opening.
An electronic device comprising: a transparent cover; a light source adjacent to the transparent cover, the light source being configured to inject light into the transparent cover, the transparent cover being configured to guide the light to an interaction between the light and a fingerprint ridge at the transparent cover; a filter of a fingerprint sensor disposed along the transparent cover, the filter being configured to only allow a cone of light rays scattered by the interaction to pass through the filter; and a detector configured to generate a signal indicative of the scattered light allowed through the filter. a transparent cover; a light source adjacent to the transparent cover, the light source being configured to inject light into the transparent cover, the transparent cover being configured to guide the light to an interaction between the light and a fingerprint ridge at the transparent cover; a filter of a fingerprint sensor disposed along the transparent cover, the filter being configured to only allow a cone of light rays scattered by the interaction to pass through the filter; and a detector configured to generate a signal indicative of the scattered light allowed through the filter.
A compound of the Formula: or a pharmaceutically acceptable salt thereof, wherein R 2 is (C 1 -C 3)alkyl, hydroxy(C 1 -C 3)alkyl, halo(C 1 -C 3)alkyl, benzyl, (C 1 -C 3)alkoxy(C 1 -C 3)alkyl, tetrahydropyranyl, or -CH 2 -tetrahydropyranyl; R 3 and R 4 are each independently hydrogen or methyl; Cy 1 is phenyl or pyridyl, each substituted with (C 1 -C 3)alkylsulfonyl; and Cy 2 is hydrogen, halo(C 1 -C 3)alkyl, cyclohexyl, or tetrahydropyranyl, wherein the cyclohexyl and tetrahydropyranyl are each optionally substituted with one or more groups selected from halo(C 1 -C 3)alkyl and C 1 -C 3 (alkoxy). R 2 is (C 1 -C 3)alkyl, hydroxy(C 1 -C 3)alkyl, halo(C 1 -C 3)alkyl, benzyl, (C 1 -C 3)alkoxy(C 1 -C 3)alkyl, tetrahydropyranyl, or -CH 2 -tetrahydropyranyl; R 3 and R 4 are each independently hydrogen or methyl; Cy 1 is phenyl or pyridyl, each substituted with (C 1 -C 3)alkylsulfonyl; and Cy 2 is hydrogen, halo(C 1 -C 3)alkyl, cyclohexyl, or tetrahydropyranyl, wherein the cyclohexyl and tetrahydropyranyl are each optionally substituted with one or more groups selected from halo(C 1 -C 3)alkyl and C 1 -C 3 (alkoxy).
Smart rear-view mirror for a motor vehicle, comprising a rear-view mirror shell provided with a main opening at a front face, the main opening being closed off by a mirror that is at least partially transparent, the mirror having a front face oriented towards the outside of said shell and at least partially reflecting ambient light, the rear-view mirror shell enclosing a video display device comprising: - a matrix constituted of elements of which the transmittance varies in a controlled manner over time; and - a light source that is able to illuminate the matrix in order to form an image backlighting a rear face of the mirror, such that the image is visible at the front face of the mirror; - a circuit board; and - a thermal radiator arranged at a rear face of the circuit board; the smart rear-view mirror having a secondary opening at the rear-view mirror shell, the secondary opening having edges at least partially surrounding the thermal radiator, so as to promote dissipation to the outside of said shell of the heat emitted by the thermal radiator, the thermal radiator having a base and fins extending perpendicular or substantially perpendicular to the base, the secondary opening surrounding at least one fin of the thermal radiator, the tip of at least one fin being flush with the outer surface of the rear-view mirror shell, characterized in that the rear-view mirror shell has at least one slot near the secondary opening, of which the width is equal to or less than 1 mm, in that the at least one slot is parallel or substantially parallel to a fin of the thermal radiator, and in that the at least one slot extends over a wall that is adjacent to the front face of the rear-view mirror shell. - a matrix constituted of elements of which the transmittance varies in a controlled manner over time; and - a light source that is able to illuminate the matrix in order to form an image backlighting a rear face of the mirror, such that the image is visible at the front face of the mirror; - a circuit board; and - a thermal radiator arranged at a rear face of the circuit board;
An optical module comprising: optical components including a light source; a pedestal on which the optical components are mounted; a cover which is combined to the pedestal to seal the optical components; and an emitting window disposed in the cover to take light from the light source to outside, wherein the pedestal and the cover are sealed with an O ring and a liquid seal material, characterised in that the pedestal includes a step to dispose the O ring and a groove in which the liquid seal material is applied on an outer peripheral side of the step and in which the cover is fitted, the step has the O ring on the inner peripheral side of the groove to which the liquid seal material is applied, the O ring is compressed in the radial direction of the O ring with the cover and the pedestal to airtightly seal the inside of the cover from the outside of the cover, the inside of the cover is sealed to make it possible to prevent outgas generated from the liquid seal material from entering the inside of the cover, and the sealing is performed such that a compression direction of the O ring and a compression direction of the liquid seal material are almost perpendicular to each other, and the thickness of the liquid seal material can be adjusted independently of the thickness of the O ring. optical components including a light source; a pedestal on which the optical components are mounted; a cover which is combined to the pedestal to seal the optical components; and an emitting window disposed in the cover to take light from the light source to outside, wherein the pedestal and the cover are sealed with an O ring and a liquid seal material, characterised in that the pedestal includes a step to dispose the O ring and a groove in which the liquid seal material is applied on an outer peripheral side of the step and in which the cover is fitted, the step has the O ring on the inner peripheral side of the groove to which the liquid seal material is applied, the O ring is compressed in the radial direction of the O ring with the cover and the pedestal to airtightly seal the inside of the cover from the outside of the cover, the inside of the cover is sealed to make it possible to prevent outgas generated from the liquid seal material from entering the inside of the cover, and the sealing is performed such that a compression direction of the O ring and a compression direction of the liquid seal material are almost perpendicular to each other, and the thickness of the liquid seal material can be adjusted independently of the thickness of the O ring.
Motor group comprising a plurality of motor modules, each comprising a plate arranged for securing said module to a timepiece movement, characterized in that each of said motor modules comprises motor means arranged for driving at least one display wheel set (6, 8), at least one of said motor modules whereof comprises a display mechanism which includes a centre pipe fixed on said plate, said centre pipe comprising at least one main bore or a main guide bearing surface for receiving and guiding in rotation, about a main axis, a said display wheel set (6, 8) internal or external to said centre pipe, said display mechanism including at least one axial stop arranged to limit to a predetermined value the axial play in the direction of said main axis between said centre pipe and said display wheel set (6, 8), and characterized in that said at least one axial stop is an added axial stop (71, 79, 76, 98), which is either captively mounted between said centre pipe and said display wheel set (6, 8), or secured to said display wheel set (6, 8), and comprises a retaining ring (76, 98) housed both inside an outer groove (21, 22) comprised in said centre pipe and inside an inner groove (61, 82) comprised in said wheel set (6, 8).
A method for managing calls in an IMS network, the method comprising: - receiving a notification at a server from the IMS network that a user subscribed to the server is identified as a destination device of a CS call, - directing, by the server, the call to the destination device as a CS call, - receiving at the server through an IP interface at least one decision selected by the user from a set of decisions provided by a device client running in the destination device, - releasing the destination device from the CS call before taking an action by the server based on the selected decision. - receiving a notification at a server from the IMS network that a user subscribed to the server is identified as a destination device of a CS call, - directing, by the server, the call to the destination device as a CS call, - receiving at the server through an IP interface at least one decision selected by the user from a set of decisions provided by a device client running in the destination device, - releasing the destination device from the CS call before taking an action by the server based on the selected decision.
A method for sending a long training sequence in a wireless local area network which supports Orthogonal Frequency Division Multiple Access, OFDMA, technology, by an access point or a station, wherein the method comprises: selecting a long training sequence according to a bandwidth, wherein the long training sequence is a 2x mode long training sequence; and sending a sub-sequence segment of the long training sequence according to a location and a size of an allocated resource unit, RU, wherein the sub-sequence segment at a corresponding location of the long training sequence is carried on subcarriers at the corresponding location, wherein the allocated RU is in the bandwidth and comprises consecutive subcarriers, wherein, when the bandwidth is 80-MHz, the 2x mode long training sequence includes values on subcarriers with indexes -500:2:500, and the values on subcarriers with indexes -500:2:500 are selecting a long training sequence according to a bandwidth, wherein the long training sequence is a 2x mode long training sequence; and sending a sub-sequence segment of the long training sequence according to a location and a size of an allocated resource unit, RU, wherein the sub-sequence segment at a corresponding location of the long training sequence is carried on subcarriers at the corresponding location, wherein the allocated RU is in the bandwidth and comprises consecutive subcarriers, wherein, when the bandwidth is 80-MHz, the 2x mode long training sequence includes values on subcarriers with indexes -500:2:500, and the values on subcarriers with indexes -500:2:500 are
A controller, for a dimmable LED lighting circuit comprising an arrangement of at least one LED of a first type connected in series with at least one LED of a second type, the controller comprising a control circuit, a bypass circuit and a further bypass circuit and being operable for controlling a current, the current being separable into a first part and a second part, and being further separable into a further first part (I A) and a further second part, wherein the controller is configured to direct the first part through the at least one LED of the second type and direct the second part through the bypass circuit, wherein the controller is configured to direct the further first part through the at least one LED of the first type and direct the further second part through the further bypass circuit, wherein the control circuit is configured to adjust at least one of (a) the ratio between the first part and the second part, and (b) the ratio between the further first part and the further second part, in dependence on a dimming level of the LED lighting circuit; characterised in that the control circuit is operable to measure the first part and the second part, and comprises: a first pair of transistors (Q1A, Q1B) arranged as a first error amplifier operable to adjust the ratio between the first part and the second part over a first range of dimming levels, and a second pair of transistors (Q1B, Q2A) arranged as a second error amplifier and operable to adjust the ratio between the first part and the second part over a second range of dimming levels, wherein the first and second error amplifiers having a one transistor (Q1B) in common. a first pair of transistors (Q1A, Q1B) arranged as a first error amplifier operable to adjust the ratio between the first part and the second part over a first range of dimming levels, and a second pair of transistors (Q1B, Q2A) arranged as a second error amplifier and operable to adjust the ratio between the first part and the second part over a second range of dimming levels, wherein the first and second error amplifiers having a one transistor (Q1B) in common.
An aerated food product which comprises between 40wt% and 95wt% of at least one edible plant paste and which has an overrun ranging from 7% to 150%, wherein the edible plant paste is not a dry particulate or powder composition.
A method for manufacturing an electronic module having a contact device such that the module can be embedded at least partly in a data carrier body of a portable data carrier and in doing so contacts an electric component (30, 32) of the portable data carrier, comprising the step of: - providing a carrier layer as well as at least one electrically conductive layer; characterized by the steps of: - forming the contact device by applying the at least one electrically conductive layer onto the carrier layer by laminating using a lamination plate (100, 100'), - arranging an integrated circuit on the carrier layer; - connecting the integrated circuit with the contact device, further characterized in that the lamination plate has at least one depression, into which the electrically conductive layer is pressed upon lamination, thereby at least one elevation in the electrically conductive layer being forming such that upon embedding the module in the data carrier body the contact device and the electrical component (30, 32) of the data carrier body can be contacted via the at least one elevation. - providing a carrier layer as well as at least one electrically conductive layer; - forming the contact device by applying the at least one electrically conductive layer onto the carrier layer by laminating using a lamination plate (100, 100'), - arranging an integrated circuit on the carrier layer; - connecting the integrated circuit with the contact device,
A rotary cutting blade material for a rotary cutting blade attachable to a shank, the rotary cutting blade material having an attaching structure forming portion that is to serve as an attaching portion to the shank, a cutting structure forming portion that is to serve as a cutting blade, and a joint portion, the cutting structure forming portion having a core portion and a surface portion provided on the attaching structure forming portion with the joint portion being interposed, the surface portion covering at least a part of a surface of the core portion, the attaching structure forming portion including a hard material including a hard component and one or two or more of iron, cobalt and nickel, the hard material having a Young's modulus of not more than 350 GPa at a temperature of 25°C measured by a tensile test, the core portion including a cemented carbide material, the cemented carbide material consisting of tungsten carbide and cobalt, a content of tungsten carbide being not less than 75 % by mass and not higher than 98 % by mass with respect to a total mass of tungsten carbide and cobalt, the surface portion consisting of CBN (cubic boron nitride) and unavoidable impurity, the hard component of the attaching structure forming portion consisting of W (tungsten), a content of W in the hard material of the attaching structure forming portion being not lower than 90% by mass with the respect to a total mass of the hard material, and a total content of iron, nickel and cobalt in the hard material of the attaching structure forming portion being not higher than 10% by mass with the respect to the total mass of the hard material, at least a part of the joint portion being one or two or more of iron, cobalt and nickel.
A method of selecting a data rate of a multicarrier communication channel, the method comprising: calculating a respective signal-to-noise ratio for each subcarrier of a plurality of subcarriers of the multicarrier communication channel from channel state information and a transmit power level; predicting packet error ratios (PERs) from the SNRs for each of a plurality of data rates; estimating a throughput for each of the data rates from the predicted PERs; and selecting one of the data rates based on the estimated throughputs, wherein selecting one of the data rates comprises selecting a combination of one of a plurality of modulations and one of a plurality of code rates associated with a highest of the estimated throughputs. calculating a respective signal-to-noise ratio for each subcarrier of a plurality of subcarriers of the multicarrier communication channel from channel state information and a transmit power level; predicting packet error ratios (PERs) from the SNRs for each of a plurality of data rates; estimating a throughput for each of the data rates from the predicted PERs; and selecting one of the data rates based on the estimated throughputs,