mhurhangee/ep-ind-claims huggingface dataset:
A mobile terminal, comprising a wireless charging receiving apparatus, a metal rear housing, and three components; the wireless charging receiving apparatus is disposed inside the mobile terminal and close to the metal rear housing, wherein the wireless charging receiving apparatus comprises two interconnected coils (701;702), the two coils are located in a same plane and are connected in series, and winding directions of the two coils are opposite, so that directions of magnetic fluxes generated by the two coils on the metal rear housing are opposite; and wherein the three components are a camera flash, a fingerprint recognition apparatus, and a camera, the two coils separately surround two components of the camera flash, the fingerprint recognition apparatus, and the camera on the metal rear housing, wherein a distance between the two components is smaller than distances between other two components of the three components, so that the two coils generate electromagnetic induction with a magnetic field generated by a wireless charging transmitting apparatus that charges the mobile terminal. the wireless charging receiving apparatus is disposed inside the mobile terminal and close to the metal rear housing, wherein the wireless charging receiving apparatus comprises two interconnected coils (701;702), the two coils are located in a same plane and are connected in series, and winding directions of the two coils are opposite, so that directions of magnetic fluxes generated by the two coils on the metal rear housing are opposite; and wherein the three components are a camera flash, a fingerprint recognition apparatus, and a camera, the two coils separately surround two components of the camera flash, the fingerprint recognition apparatus, and the camera on the metal rear housing, wherein a distance between the two components is smaller than distances between other two components of the three components, so that the two coils generate electromagnetic induction with a magnetic field generated by a wireless charging transmitting apparatus that charges the mobile terminal.
A curvable grid tee (10, 30, 40) for suspending drywall capable of being configured vertically into convex or concave shapes comprising a series of identical web segments (11, 41) joined end-to-end, the segments (11, 41) being formed of sheet metal into a tee shaped cross section, the sheet metal of a segment being folded such that each segment (11, 41) has a vertical double layer stem (13, 42) with the stem layers joined at a common fold at upper edges thereof, the sheet metal at lower edges of each layer of the stem (13, 42) being bent outwardly to form a flange (14, 43), a junction between adjacent segments (11, 41) permitting such adjacent segments (11, 41) to be angularly displaced relative to one another in a vertical plane such that the flanges (14, 43) are capable of supporting a drywall panel in a curved plane, characterised in that the stems (13, 42) of adjacent segments (11, 41) overlap when the segments (11, 41) are angularly displaced with the tee (10, 30, 40) in convex and concave shapes whereby the segments (11, 41) can be locked in the angularly displaced position with a screw fastener with the tee (10, 30, 40) in the convex or concave shape.
An aerosol composition for hair, comprising: 2 to 7% by mass of an oil absorbing powder having an oil absorption of 0.45 to 0.75 ml/g; 0.1 to 0.6% by mass of a polyol; 3 to 33% by mass of a lower alcohol; and 65 to 94% by mass of a hydrocarbon having 3 to 5 carbon atoms which has a vapor pressure of 0.05 to 0.35 MPa at a temperature of 20°C; and containing no surfactant, wherein the lower alcohol has 2 to 3 carbon atoms and wherein the oil absorption is measured according to the description and wherein, when the oil absorbing powder is a mixture, the oil absorption of the mixture is 0.45 to 0.75 ml/g.
A method for enhancing conversational speech in a shared acoustic space, the method comprising: receiving, at a microphone in a first zone of the shared acoustic space, sound signals for reproduction by a loudspeaker in a second zone of the shared acoustic space; the method being further characterized by receiving, at an adaptive filter, the sound signals detected by the microphone in the first zone; receiving, at the adaptive filter, evaluation signals from a second microphone in the second zone, the evaluation signals corresponding to the sound signals; determining, based on the received evaluation signals, that the sound signals include a feedback signal; feedback filtering the sound signals to cancel at least one feedback signal; and sending the filtered sound signals to at least one loudspeaker in the second zone receiving, at a microphone in a first zone of the shared acoustic space, sound signals for reproduction by a loudspeaker in a second zone of the shared acoustic space; the method being further characterized by receiving, at an adaptive filter, the sound signals detected by the microphone in the first zone; receiving, at the adaptive filter, evaluation signals from a second microphone in the second zone, the evaluation signals corresponding to the sound signals; determining, based on the received evaluation signals, that the sound signals include a feedback signal; feedback filtering the sound signals to cancel at least one feedback signal; and sending the filtered sound signals to at least one loudspeaker in the second zone
Use of a grease composition for increasing the rolling fatigue life span of a rolling bearing, the grease composition being characterized by comprising: - a urea grease comprising: ∘ a lubricating base oil consisting of a diphenyl ether synthetic oil and ∘ a diurea thickening agent, or - a fluorine grease comprising: ∘ a lubricating base oil comprising a fluorinated synthetic oil and ∘ a polytetrafluoroethylene thickening agent; and a bismuth dithiocarbamate represented by the following general formula: wherein R 1 and R 2 are same as or different from each other and each individually represents a hydrogen atom, an alkyl group or an aryl group, wherein the bismuth dithiocarbamate is present in an amount of from 0,1 to 5% by weight based on the entire weight of the lubricating base oil and the thickening agent so as to provide no influence to sound characteristics of the rolling bearing and to improve a load carrying capacity of the grease composition. - a urea grease comprising: ∘ a lubricating base oil consisting of a diphenyl ether synthetic oil and ∘ a diurea thickening agent, ∘ a lubricating base oil consisting of a diphenyl ether synthetic oil and ∘ a diurea thickening agent, - a fluorine grease comprising: ∘ a lubricating base oil comprising a fluorinated synthetic oil and ∘ a polytetrafluoroethylene thickening agent; ∘ a lubricating base oil comprising a fluorinated synthetic oil and ∘ a polytetrafluoroethylene thickening agent;
Secure system-on-chip for processing data, this system-on-chip comprising at least a central processing unit, an input and an output channel, an encryption/decryption engine and a memory, said system-on-chip further comprising an autonomous supervision module which is preprogrammed with normal working conditions definitions, said supervision module comprising disabling means for disabling the input/output channels when the normal working conditions are no longer fulfilled, said supervision module further comprising first means for measuring a quantity of data outputted, second means for defining time windows during which input or output operations are allowed, third means for detecting the state of the central processing unit and their respective durations, said supervision module being configured to determine that normal conditions are no longer fulfilled based on the comparison of the preprogrammed normal working conditions definitions with data and state obtained by the first, second and third means.
An expansion valve comprising: a valve main body which includes a valve hole allowing an inlet port receiving a refrigerant to communicate with an outlet port discharging the refrigerant; a valve body which adjusts an amount of the refrigerant flowing through the valve hole; a power element which is attached to the valve main body and drives the valve body through a valve rod; a support member (100; 200; 500; 700; 800; 900) that supports the valve body; a coil spring which presses the valve body in a closing direction through the support member; an adjusting screw (120; 220; 420; 720; 820; 920) which is threaded into the valve main body and adjusts a pressing force of the coil spring; and a vibration damping member (140; 240; 340; 440; 540; 740; 840; 940) that is locked to the adjusting screw (120; 220; 420; 720; 820; 920), wherein the support member (100; 110; 200; 500; 700; 800; 900) includes a sliding portion (105; 111; 205; 505; 710; 805; 905) which contacts the vibration damping member (140; 150; 240; 340; 440; 540; 740; 840; 940) to be slidable in an opening/closing direction of the valve body, characterized in that the vibration damping member (140; 150; 240; 340; 440; 540; 740; 840; 940) and the sliding portion (105; 111; 205; 505; 710, 805, 905) are disposed inside the coil spring. a valve main body which includes a valve hole allowing an inlet port receiving a refrigerant to communicate with an outlet port discharging the refrigerant; a valve body which adjusts an amount of the refrigerant flowing through the valve hole; a power element which is attached to the valve main body and drives the valve body through a valve rod; a support member (100; 200; 500; 700; 800; 900) that supports the valve body; a coil spring which presses the valve body in a closing direction through the support member; an adjusting screw (120; 220; 420; 720; 820; 920) which is threaded into the valve main body and adjusts a pressing force of the coil spring; and a vibration damping member (140; 240; 340; 440; 540; 740; 840; 940) that is locked to the adjusting screw (120; 220; 420; 720; 820; 920), wherein the support member (100; 110; 200; 500; 700; 800; 900) includes a sliding portion (105; 111; 205; 505; 710; 805; 905) which contacts the vibration damping member (140; 150; 240; 340; 440; 540; 740; 840; 940) to be slidable in an opening/closing direction of the valve body, characterized in that the vibration damping member (140; 150; 240; 340; 440; 540; 740; 840; 940) and the sliding portion (105; 111; 205; 505; 710, 805, 905) are disposed inside the coil spring.
A fundus photographing apparatus, comprising: an illuminating optical system for illuminating a fundus of an examinee's eye; a focus target presenting unit for projecting a focus target for focusing to the fundus via an objective lens; a photographing element for photographing the fundus to obtain a fundus image and detect the focus target; a diaphragm arranged at a position substantially conjugate with a pupil of the examinee's eye with the objective lens interposed therebetween; a focusing lens that is moved along an optical axis to focus on the fundus; and a controlling device for moving the focusing lens along the optical axis based on a result of detection of the focus target by the photographing element with a position of the focusing lens where a first distance from the diaphragm to the fundus is substantially equal to a second distance from an image of the diaphragm to the fundus image as a reference position of the focusing lens, characterized in that the reference position of the focusing lens is determined based on the following equation: g D = g a D = L 2 4 - f ⋅ L f - L 2 wherein L is a distance from the diaphragm to the fundus image, f is a focus length of the focusing lens, g is the first distance, and g a is the second distance. an illuminating optical system for illuminating a fundus of an examinee's eye; a focus target presenting unit for projecting a focus target for focusing to the fundus via an objective lens; a photographing element for photographing the fundus to obtain a fundus image and detect the focus target; a diaphragm arranged at a position substantially conjugate with a pupil of the examinee's eye with the objective lens interposed therebetween; a focusing lens that is moved along an optical axis to focus on the fundus; and a controlling device for moving the focusing lens along the optical axis based on a result of detection of the focus target by the photographing element with a position of the focusing lens where a first distance from the diaphragm to the fundus is substantially equal to a second distance from an image of the diaphragm to the fundus image as a reference position of the focusing lens, characterized in that the reference position of the focusing lens is determined based on the following equation: g D = g a D = L 2 4 - f ⋅ L f - L 2 wherein L is a distance from the diaphragm to the fundus image, f is a focus length of the focusing lens, g is the first distance, and g a is the second distance.
A polyaxial bone anchor assembly having a shank having a body integral with an upwardly extending upper capture structure, a receiver having a base with a pair of integral opposed upstanding arms extending upwardly from the base to form a cradle and to define a channel between the arms, a cavity communicating with the channel, a retainer having a non-expanded configuration and an expanded configuration, and a compression or pressure insert; the polyaxial bone anchor assembly being characterized in that: a) the receiver cavity has an upper chamber and lower chamber (96, 99) having a smaller diameter than a diameter of the upper chamber; b) the retainer being smaller in diameter than the cavity upper chamber in the non-expanded configuration, the retainer being configured to be pushed to the upper chamber during assembly when the shank upper capture structure is uploaded into the receiver cavity, and the retainer being configured to expand thereafter to the expanded configuration in the upper chamber, so as to receive the shank upper capture structure therethrough and capture the shank capture structure by returning to the non-expanded configuration in the lower chamber. a) the receiver cavity has an upper chamber and lower chamber (96, 99) having a smaller diameter than a diameter of the upper chamber; b) the retainer being smaller in diameter than the cavity upper chamber in the non-expanded configuration, the retainer being configured to be pushed to the upper chamber during assembly when the shank upper capture structure is uploaded into the receiver cavity, and the retainer being configured to expand thereafter to the expanded configuration in the upper chamber, so as to receive the shank upper capture structure therethrough and capture the shank capture structure by returning to the non-expanded configuration in the lower chamber.
Telescopic sight adapter for mounting an attachment on a telescopic sight having an adapter housing (15, 16) and a fixing device arranged on the adapter housing (15, 16) to connect the adapter housing (15, 16) to the telescopic sight, characterised in that the fixing device has a shaft mounted to be rotatable in the adapter housing (14, 15) with a support surface rotatable between a release position and a locking position for positive support on the telescopic sight.
Retaining device (3, 4) for coupling an encoder unit of a rotary encoder to an electric machine, wherein the retaining device (3, 4) is formed from a retaining ring and an end shield, wherein the retaining ring has first coupling elements for mechanically coupling the retaining ring to the end shield, wherein the end shield has guide grooves for receiving an encoder module of the encoder unit, wherein the retaining ring is embodied to clamp the encoder module and press it against the end shield, wherein the first coupling elements that are provided in the retaining ring are embodied as holes so as to receive first fastening screws in order to mechanically fasten the retaining ring to the end shield, wherein at least one shielding element for shielding against external interference fields is integrally formed on the retaining ring. wherein the retaining device (3, 4) is formed from a retaining ring and an end shield, wherein the retaining ring has first coupling elements for mechanically coupling the retaining ring to the end shield, wherein the end shield has guide grooves for receiving an encoder module of the encoder unit, wherein the retaining ring is embodied to clamp the encoder module and press it against the end shield, wherein the first coupling elements that are provided in the retaining ring are embodied as holes so as to receive first fastening screws in order to mechanically fasten the retaining ring to the end shield, wherein at least one shielding element for shielding against external interference fields is integrally formed on the retaining ring.
A method of making a fibrous part, comprising: forming a porous structure with an annular geometry; forming an entrance channel (108, 208) defined by a surface of the porous structure and extending in a radial direction from an inner diameter of the porous structure only partially across the surface; and forming an exit channel (106, 206) defined by the surface and extending in the radial direction from an outer diameter of the porous structure only partially across the surface, and wherein the forming the entrance channel (108, 208) comprises pressing the entrance channel into the surface of the porous structure; and further comprising densifying the porous structure using a pressure gradient chemical vapor infiltration process, wherein a pressure gradient is created between an inner volume radially inward of the inner diameter and an outer volume radially outward of the outer diameter. forming a porous structure with an annular geometry; forming an entrance channel (108, 208) defined by a surface of the porous structure and extending in a radial direction from an inner diameter of the porous structure only partially across the surface; and forming an exit channel (106, 206) defined by the surface and extending in the radial direction from an outer diameter of the porous structure only partially across the surface, and wherein the forming the entrance channel (108, 208) comprises pressing the entrance channel into the surface of the porous structure; and further comprising densifying the porous structure using a pressure gradient chemical vapor infiltration process, wherein a pressure gradient is created between an inner volume radially inward of the inner diameter and an outer volume radially outward of the outer diameter.
A device for treating gases, comprising a) a gas inlet for a flow of the gas to be treated, b) a gas-permeable solid support surface-charged with hydrogen peroxide and/or peracids, wherein said support includes a ceramic, a woven fabric, a knitted fabric, a crocheted fabric, a laid web, a non-woven fabric, and/or a fleece, c) a flowing machine for conveying the gas flow from the gas inlet through the support into d) an irradiation chamber with a UV-C light source. a) a gas inlet for a flow of the gas to be treated, b) a gas-permeable solid support surface-charged with hydrogen peroxide and/or peracids, wherein said support includes a ceramic, a woven fabric, a knitted fabric, a crocheted fabric, a laid web, a non-woven fabric, and/or a fleece, c) a flowing machine for conveying the gas flow from the gas inlet through the support into d) an irradiation chamber with a UV-C light source.
A fan assembly comprising a first fan blade; a first fairing platform mounted on and supported from a first surface of the first fan blade and an abutting second fairing platform mounted on and supported from a second surface of the first fan blade, wherein the first fairing platform interfaces with the abutting second fairing platform near a trailing edge of the blade, and characterised in that a clip is disposed aft of the first fairing platform and the adjacent fairing platform and connecting the first fairing platform to the adjacent fairing platform. a first fan blade; a first fairing platform mounted on and supported from a first surface of the first fan blade and an abutting second fairing platform mounted on and supported from a second surface of the first fan blade, wherein the first fairing platform interfaces with the abutting second fairing platform near a trailing edge of the blade, and characterised in that a clip is disposed aft of the first fairing platform and the adjacent fairing platform and connecting the first fairing platform to the adjacent fairing platform.
An exhaust purification system for an internal combustion engine in which an exhaust purification catalyst is arranged in an engine exhaust passage and a hydrocarbon feed value is arranged upstream of the exhaust purification catalyst in the engine exhaust passage, a precious metal catalyst is carried on an exhaust gas flow surface of the exhaust purification catalyst and a basic exhaust gas flow surface part is formed around the precious metal catalyst, said exhaust purification catalyst has the property of reducing the NO X which is contained in the exhaust gas when making the concentration of hydrocarbons which flow into the exhaust purification catalyst vibrate by within a predetermined range of amplitude and within a predetermined range of period and has the property of being increased in amount of storage of NO X which is contained in the exhaust gas if making the vibration period of the hydrocarbon concentration longer than said predetermined range, NO X which is contained in the exhaust gas is removed by injecting hydrocarbons from the hydrocarbon feed valve by a predetermined period as a first NO X removal method, a particulate filter for trapping particulate matter in the exhaust gas is further arranged inside the engine exhaust passage, the exhaust purification system further comprises means configured such that, when performing the first NO X removal method while raising the temperature of the particulate filter so as to remove the particulate matter which was trapped on the particulate filter in temperature elevation control, the hydrocarbon injection for the first NO X removal method is performed by said predetermined period and by a preset injection pressure and, during the time period when the hydrocarbon injection for the first NO X removal method is not performed, the hydrocarbon injection for the temperature elevation control is performed by an injection pressure which is set lower than said preset injection pressure, wherein the injection pressure of the hydrocarbon feed valve rises the longer the elapsed time from the previous hydrocarbon injection and is maintained at the maximum pressure when it is reached at the maximum pressure, the rate of rise of the injection pressure falls the longer the elapsed time from the previous hydrocarbon injection, and the hydrocarbon injection for temperature elevation control is performed each time the injection pressure of the hydrocarbon feed valve reaches the injection pressure which is set lower than said set injection pressure.
Method for producing a hardened steel component with a coating of zinc or a zinc alloy, wherein a blank is stamped from a sheet coated with the zinc or zinc alloy, the stamped blank is heated to a temperature ≥Ac 3 and kept at this temperature for a predefined time where appropriate, in order to allow austenite formation, after which the heated blank is moved into a forming tool, formed in said forming tool and cooled in said forming tool at a speed that lies above the critical hardening speed, and thereby hardened, wherein the steel material is adjusted in a conversion-delayed manner, such that with a forming temperature which lies within the range of 600°C to 800°C, in particular 730°C to 782°C, and is below the peritectic temperature of the iron/zinc graph, quench-hardening takes place through conversion of the austenite into martensite, wherein a steel material having the following analysis is used (all figures in % by mass): Carbon 0.08-0.6 Manganese (Mn) 0.8-3.0 Aluminium (Al) 0.01-0.07 Silicon (Si) 0.01-0.5 Chromium (Cr) 0.02-0.6 Titanium (Ti) 0.01-0.05 Nitrogen 0.003-0.1 Boron 0.0005-0.06 Phosphor <0.01 Sulphur <0.01 Molybdenum (Mo) < 1 Residual iron and smelting-related impurities.