mhurhangee/ep-ind-claims huggingface dataset:
A cooled component comprising a wall having a first surface and a second surface, the wall having a plurality of effusion cooling apertures extending there-through from the first surface to the second surface, the effusion cooling apertures being arranged at an angle (α1) to the second surface, each aperture having an inlet in the first surface and an outlet in the second surface, each effusion cooling aperture having a metering portion and a diffusing portion arranged in flow series from the inlet to the outlet, each metering portion being elongate and having a width and length, the width of each metering portion being greater than the length of the metering portion, each diffusing portion increasing in dimension in the length from the metering portion to the outlet, each outlet having a quadrilateral shape in the plane of the second surface of the wall, each inlet having an elongate shape in the plane of the first surface of the wall and the inlet in the first surface of the wall being arranged substantially diagonally with respect to the outlet in the second surface of the wall.
Planar sensor structure configured for measuring electrical coupling in order to detect the presence or movement of objects in the proximity of the sensor, which comprises: at least one planar sensor element and a first conductor connected to it, characterized in that a second conductor is connected to the aforementioned sensor element such that the first conductor and the second conductor together with the aforementioned sensor element form a loop that is configured for sending an excitation used in reading an escort memory tag, or a second conductor is connected to the aforementioned first conductor such that the first conductor and the second conductor form a loop that is configured for sending an excitation used in reading an escort memory tag, wherein the loop is formed in such a way that at least one sensor element remains inside the loop. at least one planar sensor element and a first conductor connected to it, characterized in that a second conductor is connected to the aforementioned sensor element such that the first conductor and the second conductor together with the aforementioned sensor element form a loop that is configured for sending an excitation used in reading an escort memory tag, or a second conductor is connected to the aforementioned first conductor such that the first conductor and the second conductor form a loop that is configured for sending an excitation used in reading an escort memory tag, wherein the loop is formed in such a way that at least one sensor element remains inside the loop.
A liquid blow molding device that blow molds a synthetic resin-made preform into a container having a predetermined shape, by supplying a pressurized liquid into the preform, comprising: a supply block including a supply path for the liquid; a blow nozzle that is configured to engage to a mouth of the preform; a pressurized liquid supply unit that is connected to the supply path and that is configured to supply the pressurized liquid to the blow nozzle via the supply path; an annular-shaped sealing surface that is provided in a portion of the supply block that is located between an inner circumferential surface defining the supply path and the outlet and that surrounds an entire circumference of the outlet; and a sealing body that is disposed inside the supply path and that is displaceable between a closing position and an opening position, wherein, in the closing position, the sealing body abuts against the sealing surface to close the outlet, and in the opening position, the sealing body is spaced from the sealing surface to open the outlet characterized in that the blow nozzle is detachably attached to the supply block in a manner such that the blow nozzle communicates with an outlet of the supply path. a supply block including a supply path for the liquid; a blow nozzle that is configured to engage to a mouth of the preform; a pressurized liquid supply unit that is connected to the supply path and that is configured to supply the pressurized liquid to the blow nozzle via the supply path; an annular-shaped sealing surface that is provided in a portion of the supply block that is located between an inner circumferential surface defining the supply path and the outlet and that surrounds an entire circumference of the outlet; and a sealing body that is disposed inside the supply path and that is displaceable between a closing position and an opening position, wherein, in the closing position, the sealing body abuts against the sealing surface to close the outlet, and in the opening position, the sealing body is spaced from the sealing surface to open the outlet characterized in that the blow nozzle is detachably attached to the supply block in a manner such that the blow nozzle communicates with an outlet of the supply path.
A process for the treatment of industrial alkaline streams comprising sulfide and carbonate, comprising the steps of: a) providing an industrial alkaline stream comprising sulfide and carbonate, b) supplying the industrial alkaline stream to a bioreactor comprising sulfide oxidizing bacteria and removing sulfide from the industrial alkaline stream by subjecting said stream to sulfide oxidizing bacteria in the presence of oxygen, and supplying a pH adjustment agent to the bioreactor to maintain a pH in the range 8 to 11, to oxidize the sulfide to elemental sulfur, c) withdrawing from the bioreactor a treated industrial alkaline stream comprising elemental sulfur, wherein a portion of the sulfide oxidizing bacteria is removed from the bioreactor and mixed with the industrial alkaline stream prior to supplying the industrial alkaline stream to the bioreactor in step b), wherein the industrial alkaline stream has a carbonate concentration in the range of at least 50 g/L, wherein the pH adjustment agent is selected from carbon dioxide, sour gas, hydrochloric acid, nitric acid and phosphoric acid, and wherein oxygen is supplied to the bioreactor by a molecular-oxygen comprising gas. a) providing an industrial alkaline stream comprising sulfide and carbonate, b) supplying the industrial alkaline stream to a bioreactor comprising sulfide oxidizing bacteria and removing sulfide from the industrial alkaline stream by subjecting said stream to sulfide oxidizing bacteria in the presence of oxygen, and supplying a pH adjustment agent to the bioreactor to maintain a pH in the range 8 to 11, to oxidize the sulfide to elemental sulfur, c) withdrawing from the bioreactor a treated industrial alkaline stream comprising elemental sulfur, wherein a portion of the sulfide oxidizing bacteria is removed from the bioreactor and mixed with the industrial alkaline stream prior to supplying the industrial alkaline stream to the bioreactor in step b), wherein the industrial alkaline stream has a carbonate concentration in the range of at least 50 g/L, wherein the pH adjustment agent is selected from carbon dioxide, sour gas, hydrochloric acid, nitric acid and phosphoric acid, and wherein oxygen is supplied to the bioreactor by a molecular-oxygen comprising gas. wherein a portion of the sulfide oxidizing bacteria is removed from the bioreactor and mixed with the industrial alkaline stream prior to supplying the industrial alkaline stream to the bioreactor in step b), wherein the industrial alkaline stream has a carbonate concentration in the range of at least 50 g/L, wherein the pH adjustment agent is selected from carbon dioxide, sour gas, hydrochloric acid, nitric acid and phosphoric acid, and wherein oxygen is supplied to the bioreactor by a molecular-oxygen comprising gas.
A mirror device comprising: a mirror including a rotation shaft pivotably supported, a coupling shaft separated from the rotation shaft, and a reflecting surface that reflects display light; a coupling member including a first coupling portion coupled to the rotation shaft and a second coupling portion coupled to the coupling shaft, and configured to pivot integrally with the mirror; a motor that is connected to the coupling member via a gear and is configured to pivot the coupling member; and a first spring having one end side immovably fixed and the other end side coupled to the coupling member, and configured to apply force to the coupling member in one rotation direction. a mirror including a rotation shaft pivotably supported, a coupling shaft separated from the rotation shaft, and a reflecting surface that reflects display light; a coupling member including a first coupling portion coupled to the rotation shaft and a second coupling portion coupled to the coupling shaft, and configured to pivot integrally with the mirror; a motor that is connected to the coupling member via a gear and is configured to pivot the coupling member; and a first spring having one end side immovably fixed and the other end side coupled to the coupling member, and configured to apply force to the coupling member in one rotation direction.
Method for the application and/or renewal of a protection for a thermal barrier coating system of a heat engine, said thermal barrier coating system comprising a bond coat layer and a thermal barrier coating layer of porous structure, wherein the bond coat layer is located between and in contact with a base metal of a heat engine component and with the thermal barrier coating layer and bonds the thermal barrier coating layer to the base metal, wherein at least one substance is applied inside the engine as a liquid or carried by a liquid by means of spraying and/or by flowing it across a hot gas exposed surface of the barrier coating layer of the heat engine component mounted within the heat engine in the assembled state prior to the initial start-up of the engine and/or between two operation intervals and/or during a washing cycle of the thermal engine, wherein the substance covers and/or partly penetrates into the porous structure, and concomitantly or subsequently hardens to remain on the upper surface and/or within the pores of the thermal barrier coating layer, wherein for the application of the substance the washing equipment for the turbine washing of the engine is used.
A method of displaying a portrait on a display, comprising the steps of: if a photographing mode of the camera, at a time of photographing an image, is a character photographing mode, checking a numerical aperture of the photographed image using Exchangeable Image File Format, Exif, information of the photographed image; if the numerical aperture of the photographed image is less than a reference numerical aperture, determining that the photographed image is a character-photographed image; executing face detection from the photographed image if it is determined that the photographed image is the character-photographed image; setting a face-body area in the photographed image according to a result of the face detection; determining a magnification ratio for displaying the face-body area in consideration of the set face-body area and the resolution of the display; and magnifying and displaying the face-body area on the display according the magnification ratio. if a photographing mode of the camera, at a time of photographing an image, is a character photographing mode, checking a numerical aperture of the photographed image using Exchangeable Image File Format, Exif, information of the photographed image; if the numerical aperture of the photographed image is less than a reference numerical aperture, determining that the photographed image is a character-photographed image; executing face detection from the photographed image if it is determined that the photographed image is the character-photographed image; setting a face-body area in the photographed image according to a result of the face detection; determining a magnification ratio for displaying the face-body area in consideration of the set face-body area and the resolution of the display; and magnifying and displaying the face-body area on the display according the magnification ratio.
A fuel injection pump arrangement for a dual-fuel internal combustion engine, which fuel injection pump arrangement comprises - a pump body, - at least one fuel chamber that is arranged inside the pump body, - at least one reciprocating plunger that protrudes into the fuel chamber for pressurizing liquid fuel in the chamber, and - a plunger moving mechanism (5, 11) for establishing mechanical connection between the plunger and a rotating cam that drives the fuel injection pump, characterized in that the arrangement further comprises a hydraulic fluid chamber, a piston that is arranged in the hydraulic fluid chamber, and means for introducing hydraulic fluid into the hydraulic fluid chamber for moving the piston and the plunger away from the cam for breaking the mechanical connection between the plunger and the cam when the fuel injection pump is not used for pressurizing fuel. - a pump body, - at least one fuel chamber that is arranged inside the pump body, - at least one reciprocating plunger that protrudes into the fuel chamber for pressurizing liquid fuel in the chamber, and - a plunger moving mechanism (5, 11) for establishing mechanical connection between the plunger and a rotating cam that drives the fuel injection pump, characterized in that the arrangement further comprises a hydraulic fluid chamber, a piston that is arranged in the hydraulic fluid chamber, and means for introducing hydraulic fluid into the hydraulic fluid chamber for moving the piston and the plunger away from the cam for breaking the mechanical connection between the plunger and the cam when the fuel injection pump is not used for pressurizing fuel.
A device comprising a processing unit configured to perform sensing in a plurality of sensing modes, the plurality of sensing modes comprising: a first sensing mode comprising sensing of resources for a predetermined period and selecting communication resources on a basis of a result of the sensing, and a second sensing mode comprising selecting communication resources on a basis of a result of decoding scheduling information transmitted by another user, wherein the sensing is performed with reference to a mapping table at the time of the sensing, and the mapping table is a table in which one of the plurality of sensing modes to be used and a sensing parameter to be used are specified depending on a situation. a processing unit configured to perform sensing in a plurality of sensing modes, the plurality of sensing modes comprising: a first sensing mode comprising sensing of resources for a predetermined period and selecting communication resources on a basis of a result of the sensing, and a second sensing mode comprising selecting communication resources on a basis of a result of decoding scheduling information transmitted by another user, a first sensing mode comprising sensing of resources for a predetermined period and selecting communication resources on a basis of a result of the sensing, and a second sensing mode comprising selecting communication resources on a basis of a result of decoding scheduling information transmitted by another user, wherein the sensing is performed with reference to a mapping table at the time of the sensing, and the mapping table is a table in which one of the plurality of sensing modes to be used and a sensing parameter to be used are specified depending on a situation.
A dental system, comprising: (a) a dental prophylaxis angle (102, 103); (b) a dental handpiece (104, 105); and (c) a dental device adapter system, characterized in that the dental device adapter system comprises: (i) a first adapter (130, 134) configured to detachably engage the dental prophylaxis angle (102, 103) having a first geometry and a first rotatable component; and (ii) a second adapter (132, 136) configured to detachably engage the dental handpiece (104, 105) having a second geometry and a second rotatable component; and wherein the first adapter (130, 134) being engaged with the dental prophylaxis angle (102, 103) and the second adapter (132, 136) being engaged with the dental handpiece (104, 105) permits rotation of the second rotatable component to rotate the first rotatable component when the first adapter and the second adapter are releasably secured to one another at an interface, and whereby each adapter is capable of connecting a dental prophylaxis angle (102, 103) a dental handpiece (104, 105), and wherein the adapter system further comprising a third adapter (140, 138) configured to engage the first adapter (130, 134) and the second adapter (132, 136), wherein third adapter (140, 138) being engaged with the first adapter (130, 134) and the second adapter (132, 136) permits rotation of the second rotatable component to rotate the first rotatable component. (a) a dental prophylaxis angle (102, 103); (b) a dental handpiece (104, 105); and (c) a dental device adapter system, (i) a first adapter (130, 134) configured to detachably engage the dental prophylaxis angle (102, 103) having a first geometry and a first rotatable component; and (ii) a second adapter (132, 136) configured to detachably engage the dental handpiece (104, 105) having a second geometry and a second rotatable component; and wherein the first adapter (130, 134) being engaged with the dental prophylaxis angle (102, 103) and the second adapter (132, 136) being engaged with the dental handpiece (104, 105) permits rotation of the second rotatable component to rotate the first rotatable component when the first adapter and the second adapter are releasably secured to one another at an interface, and whereby each adapter is capable of connecting a dental prophylaxis angle (102, 103) a dental handpiece (104, 105), and wherein the adapter system further comprising a third adapter (140, 138) configured to engage the first adapter (130, 134) and the second adapter (132, 136), wherein third adapter (140, 138) being engaged with the first adapter (130, 134) and the second adapter (132, 136) permits rotation of the second rotatable component to rotate the first rotatable component.
A laser vehicle headlight comprising a light guiding element for a laser vehicle headlight, wherein the laser vehicle headlight comprises at least one laser light source and at least one luminous element which can be irradiated by the laser light source and can thus be excited to emit visible light, wherein the light guiding element has a light entrance surface and a light exit surface, wherein the entrance cross-sectional area of the light entrance surface is greater than the exit cross-sectional area of the light exit surface, wherein the light radiated in through the light entrance surface can be concentrated in the direction of the light exit surface via the inner surface connecting the light entrance surface and the light exit surface, wherein the light exit surface is covered at least in part by a light-impermeable delimitation element, characterised in that the luminous element is arranged in the light guiding element and the light-impermeable delimitation element is applied to the light guiding element.
Gas turbine engine component comprising an outer ring structure, an inner ring structure and a plurality of circumferentially spaced radial elements for transferring loads between the inner ring structure and the outer ring structure, wherein the outer ring structure comprises a circular ring member for withstanding an internal pressure during operation of the gas turbine engine, wherein the outer ring structure comprises a first set of circumferentially distributed and substantially straight reinforcement ribs for achieving radial stiffness, wherein the reinforcement ribs form sides in a polygonal shape and wherein each of said reinforcement ribs extends between two adjacent radial elements; characterized in that the reinforcement ribs are arranged radially inwards of the circular ring member.
A method for the diagnosis and/or prognosis of a tauopathy in subject comprising: - quantifying the amount of a 20-22 kDa NH 2 tau fragment comprising the sequence QGGYT MHQDQEGDTD AGLKESPLQT PTEDGSEEPGSETSDAKSTP TAEDVTAPLV DEGAPGKQAA AQPHTEIPEG TTAEEAGIGD TPSLEDEAAG HVTQARMVSK SKDGTGSDDK KAKGADGKTK IATPRGAAPP GQKGQANATR IPAKTPPAPK TPPSSGEPPK SGDRSGYSSP GSPGTPGSRS RTPSLPTPPT REPKKVAVVR (SEQ ID No. 1) or of a fragment of SEQ ID 1, said fragment missing 1 to 10 amino acids, in a CSF sample obtained from the subject; - comparing the quantified amount of the 20-22 kDa NH2 tau fragment comprising SEQ ID No. 1 or of said fragment thereof in the CSF sample to appropriate control amount. - quantifying the amount of a 20-22 kDa NH 2 tau fragment comprising the sequence QGGYT MHQDQEGDTD AGLKESPLQT PTEDGSEEPGSETSDAKSTP TAEDVTAPLV DEGAPGKQAA AQPHTEIPEG TTAEEAGIGD TPSLEDEAAG HVTQARMVSK SKDGTGSDDK KAKGADGKTK IATPRGAAPP GQKGQANATR IPAKTPPAPK TPPSSGEPPK SGDRSGYSSP GSPGTPGSRS RTPSLPTPPT REPKKVAVVR (SEQ ID No. 1) or of a fragment of SEQ ID 1, said fragment missing 1 to 10 amino acids, in a CSF sample obtained from the subject; - comparing the quantified amount of the 20-22 kDa NH2 tau fragment comprising SEQ ID No. 1 or of said fragment thereof in the CSF sample to appropriate control amount.
An antenna system, comprising: an antenna (14, 18) having an antenna aperture; and a polarizer array comprising a support structure, at least two polarizer elements arranged relative to the support structure, each of the at least two polarizer elements rotatable about a separate axis, and an actuator coupled to the at least two polarizer elements, the actuator operative to effect common rotation of the at least two polarizer elements, wherein the polarizer array is arranged to at least partially cover the antenna aperture, characterised in that interstitial regions are defined by portions of the antenna aperture uncovered by the polarizer array, the system further comprising inserts placed in the interstitial regions on the antenna aperture, the inserts configured to match an insertion phase of the at least two polarizers. an antenna (14, 18) having an antenna aperture; and a polarizer array comprising a support structure, at least two polarizer elements arranged relative to the support structure, each of the at least two polarizer elements rotatable about a separate axis, and an actuator coupled to the at least two polarizer elements, the actuator operative to effect common rotation of the at least two polarizer elements, a support structure, at least two polarizer elements arranged relative to the support structure, each of the at least two polarizer elements rotatable about a separate axis, and an actuator coupled to the at least two polarizer elements, the actuator operative to effect common rotation of the at least two polarizer elements, wherein the polarizer array is arranged to at least partially cover the antenna aperture, characterised in that interstitial regions are defined by portions of the antenna aperture uncovered by the polarizer array, the system further comprising inserts placed in the interstitial regions on the antenna aperture, the inserts configured to match an insertion phase of the at least two polarizers.
An X-ray detector comprising: a side frame; a cover coupled to an outside of the side frame; a first antenna radiator supplied with a power by being coupled to the side frame; and a second antenna radiator provided in the cover, wherein the second antenna radiator is configured to resonate with the first antenna radiator, the second antenna radiator facing the first antenna radiator while being spaced apart from the first antenna radiator. a side frame; a cover coupled to an outside of the side frame; a first antenna radiator supplied with a power by being coupled to the side frame; and a second antenna radiator provided in the cover, wherein the second antenna radiator is configured to resonate with the first antenna radiator, the second antenna radiator facing the first antenna radiator while being spaced apart from the first antenna radiator.