mhurhangee/ep-ind-claims huggingface dataset:
An arrangement of a sensor attachable to an object of attachment wherein the object of attachment is adapted to have a gas passing therethrough in an air-flow direction, the sensor comprising: a main body having a longitudinal axis (b); a pressure sensor element arranged to measure the pressure of a gas passing through said object of attachment, the pressure sensor element being located within the main body; a temperature sensor element arranged to measure the temperature of said gas, the temperature sensor element being coupled to the main body, and wherein the temperature sensor element includes a columnar sensor element body having a central axis (c) and a pair of lead terminals that extend along the direction of said central axis from both ends of the sensor element body; characterized in that the main body of the sensor is attachable to said object of attachment at a mounting position at which an angle θ rq, θ rq ≠ 0°, is formed between said longitudinal axis (b) of the main body and said air-flow direction; and wherein the following equation is fulfilled: θ rq - θ allow ≤ θ pos ≤ θ rq + θ allow in which θ pos is an inclination angle defined between the central axis (c) of the sensor element body and an axis (c') perpendicular to said longitudinal axis (b) of the main body, and θ allow represents an allowable angle between the central axis (c) of the sensor element body and said axis (c') perpendicular to said longitudinal axis (b) of the main body, within which an allowable response speed of the temperature sensor element is obtained. a main body having a longitudinal axis (b); a pressure sensor element arranged to measure the pressure of a gas passing through said object of attachment, the pressure sensor element being located within the main body; a temperature sensor element arranged to measure the temperature of said gas, the temperature sensor element being coupled to the main body, and wherein the temperature sensor element includes a columnar sensor element body having a central axis (c) and a pair of lead terminals that extend along the direction of said central axis from both ends of the sensor element body; characterized in that the main body of the sensor is attachable to said object of attachment at a mounting position at which an angle θ rq, θ rq ≠ 0°, is formed between said longitudinal axis (b) of the main body and said air-flow direction; and wherein the following equation is fulfilled: θ rq - θ allow ≤ θ pos ≤ θ rq + θ allow in which θ pos is an inclination angle defined between the central axis (c) of the sensor element body and an axis (c') perpendicular to said longitudinal axis (b) of the main body, and θ allow represents an allowable angle between the central axis (c) of the sensor element body and said axis (c') perpendicular to said longitudinal axis (b) of the main body, within which an allowable response speed of the temperature sensor element is obtained.
A detergent composition comprising: (i) from 1 to 60 wt.%, preferably from 2 to 50 wt.%, more preferably from 3 to 45 wt.%, even more preferably from 5 to 40 wt.%, most preferably from 6 to 40 wt.% of a surfactant; and, (ii) from 0.0005 to 5 wt.%, preferably from 0.005 to 2.5 wt.%, more preferably from 0.01 to 1 wt.% of an esterase enzyme of enzyme class EC 3.1.1.1, having at least 60% sequence identity to any one of SEQ ID NO: 1 to 4. (i) from 1 to 60 wt.%, preferably from 2 to 50 wt.%, more preferably from 3 to 45 wt.%, even more preferably from 5 to 40 wt.%, most preferably from 6 to 40 wt.% of a surfactant; and, (ii) from 0.0005 to 5 wt.%, preferably from 0.005 to 2.5 wt.%, more preferably from 0.01 to 1 wt.% of an esterase enzyme of enzyme class EC 3.1.1.1, having at least 60% sequence identity to any one of SEQ ID NO: 1 to 4.
System comprising: • one first tag (ET 1) comprising a graphic code (CG 1), • a UWB radio transmitter device (EM 1) comprising a UWB radio transmission module of a UWB signal and a UHF radio reception module to collect signals in order to electrically power the UWB transmission module, • a pairing device (D A) comprising a reader of said first graphic code (CG 1) and a UWB receiver to receive the UWB signal transmitted by the transmitter device (EM 1), said pairing device (D A) comprising a memory to save a pair of values comprising a data specific to the graphic code (CG 1) and a data specific to the UWB signal received, said transmitter device (EM 1) comprising a support comprising a zone delimiting a geometric contour making it possible to visually read the graphic code (CG 1) of the first tag (ET 1) when the transmitter device (EM 1) is superimposed on the first tag (ET 1). • one first tag (ET 1) comprising a graphic code (CG 1), • a UWB radio transmitter device (EM 1) comprising a UWB radio transmission module of a UWB signal and a UHF radio reception module to collect signals in order to electrically power the UWB transmission module, • a pairing device (D A) comprising a reader of said first graphic code (CG 1) and a UWB receiver to receive the UWB signal transmitted by the transmitter device (EM 1), said pairing device (D A) comprising a memory to save a pair of values comprising a data specific to the graphic code (CG 1) and a data specific to the UWB signal received,
Method for the communication between software components (A, B, C, D, E, F) in a motor vehicle, - wherein the software components (A, B, C, D, E, F) can be operated in different operating modes, wherein the software components (A, B, C, D, E, F) communicate differently with one another in the different operating modes, - wherein, at a first time, it is determined which software components (A, B, C, D, E, F) communicate with one another in the different operating modes in which way in each case and, on that basis, a communication profile is respectively determined for each of the different operating modes, - wherein the software components (A, B, C, D, E, F) are operated in the different operating modes at a second time, and one or more computing unit(s) executing the software components (A, B, C, D, E, F) is or are configured (221, 223) in accordance with an corresponding communication profile of the respective operating mode. - wherein the software components (A, B, C, D, E, F) can be operated in different operating modes, wherein the software components (A, B, C, D, E, F) communicate differently with one another in the different operating modes, - wherein, at a first time, it is determined which software components (A, B, C, D, E, F) communicate with one another in the different operating modes in which way in each case and, on that basis, a communication profile is respectively determined for each of the different operating modes, - wherein the software components (A, B, C, D, E, F) are operated in the different operating modes at a second time, and one or more computing unit(s) executing the software components (A, B, C, D, E, F) is or are configured (221, 223) in accordance with an corresponding communication profile of the respective operating mode.
An Organic Light Emitting Diode, OLED, panel, the OLED panel comprising: a substrate; an OLED stack directly or indirectly on the substrate, the OLED stack configured to emit visible light; and a Near Infrared, NIR, light sensor stack on the substrate directly or indirectly, the NIR light sensor stack including an NIR emitter configured to emit NIR light and an NIR detector, such that the NIR emitter and the NIR detector together constitute a NIR light sensor, characterized in that both the NIR emitter and the NIR detector are above or below a sub-pixel (Sub-Px) of a pixel of the OLED stack. a substrate; an OLED stack directly or indirectly on the substrate, the OLED stack configured to emit visible light; and a Near Infrared, NIR, light sensor stack on the substrate directly or indirectly, the NIR light sensor stack including an NIR emitter configured to emit NIR light and an NIR detector, such that the NIR emitter and the NIR detector together constitute a NIR light sensor, characterized in that both the NIR emitter and the NIR detector are above or below a sub-pixel (Sub-Px) of a pixel of the OLED stack.
A nanolipogel comprising (a) a polymeric matrix core comprising a host molecule that is reversibly complexed with at least one therapeutic, diagnostic or prophylactic nucleic acid agent to be delivered, such that the or each agent can be released under in vivo conditions, and (b) a lipid shell. (a) a polymeric matrix core comprising a host molecule that is reversibly complexed with at least one therapeutic, diagnostic or prophylactic nucleic acid agent to be delivered, such that the or each agent can be released under in vivo conditions, and (b) a lipid shell.
Device to relieve pressure in a drinking water system, comprising a housing with an inlet opening and an outlet opening, which forms a flow path between the inlet opening and the outlet opening, and a pressure relief chamber which is in fluid connection with the flow path, with variable volume to absorb pressure increases that are to be anticipated in the drinking water due to heating of the water, characterised in that the housing has a third opening and between the inlet opening and the third opening it is designed as a straight pipe section from which one conduit section branches off, the free end of which forms the outlet opening, and that a wall of the conduit section is manufactured from a thermally insulating material. a pressure relief chamber which is in fluid connection with the flow path, with variable volume to absorb pressure increases that are to be anticipated in the drinking water due to heating of the water, characterised in that the housing has a third opening and between the inlet opening and the third opening it is designed as a straight pipe section from which one conduit section branches off, the free end of which forms the outlet opening, and that a wall of the conduit section is manufactured from a thermally insulating material.
A near-infrared absorbing and reflecting ink composition used to print concealable securing indicia, the ink composition comprising: at least one colorant absorbing visible light; a near-infrared taggant absorbing near-infrared; at least one filling agent selected from a group consisting of calcium carbonate, barium sulfate, talc and silicon dioxide; and at least one binder selected from a group consisting of phenol, rosin-modified phenol, xylene, urea, melamine, ketone, coumarone indene, petroleum, terpene, cyclic rubber, chlorinated rubber, alkyd, polyamide, acrylic, polyvinyl chloride, polyvinyl acetate, vinyl chloride-vinyl acetate copolymer, polyvinyl butyral, chlorinated polypropylene, epoxy, polyurethane and cellulose derivatives; wherein the colorant is a dye or pigment absorbing light in a visible light spectrum of 380 to 780 nm and reflecting light in a near-infrared range exceeding 780 nm, wherein the near-infrared taggant includes a near-infrared absorbing agent having a maximum absorption wavelength at 925 nm, wherein the near-infrared absorbing agent is copper tetra-(1,4-benzothiazino)-octa-(2-aminothiophenyl)-phthalocyanine having a following chemical formula I: at least one colorant absorbing visible light; a near-infrared taggant absorbing near-infrared; at least one filling agent selected from a group consisting of calcium carbonate, barium sulfate, talc and silicon dioxide; and at least one binder selected from a group consisting of phenol, rosin-modified phenol, xylene, urea, melamine, ketone, coumarone indene, petroleum, terpene, cyclic rubber, chlorinated rubber, alkyd, polyamide, acrylic, polyvinyl chloride, polyvinyl acetate, vinyl chloride-vinyl acetate copolymer, polyvinyl butyral, chlorinated polypropylene, epoxy, polyurethane and cellulose derivatives; wherein the colorant is a dye or pigment absorbing light in a visible light spectrum of 380 to 780 nm and reflecting light in a near-infrared range exceeding 780 nm, wherein the near-infrared taggant includes a near-infrared absorbing agent having a maximum absorption wavelength at 925 nm, wherein the near-infrared absorbing agent is copper tetra-(1,4-benzothiazino)-octa-(2-aminothiophenyl)-phthalocyanine having a following chemical formula I:
An intermediate layer forming method to form an intermediate layer formed between a base material, which is an iron-based material for an automotive part or a mold, and a DLC film using a PVD method, which is an unbalanced magnetron sputtering method, the intermediate layer forming method comprising: a Ti layer film-forming step of film-forming a Ti layer on a base material; and a TiC layer film-forming step of film-forming a TiC layer on the Ti layer, wherein in the Ti layer film-forming step, an Ar gas is supplied into a chamber into which the base material is carried and a film-forming pressure is set to a pressure in a range of not less than 0.4 Pa and not more than 1 Pa to film-form the Ti layer, and in the TiC layer film-forming step, an Ar gas and a CH 4 gas are supplied into the chamber, a film-forming pressure is set to a pressure in a range of 0.2 Pa or more to less than 0.4 Pa, and a second bias voltage higher in bias voltage than a first bias voltage applied to the base material in the Ti layer film-forming step is applied to the base material to film-form the TiC layer, wherein in the TiC layer film-forming step, the second bias voltage is set to a voltage in a range of higher than -100 V and lower than -30 V to film-form the TiC layer. a Ti layer film-forming step of film-forming a Ti layer on a base material; and a TiC layer film-forming step of film-forming a TiC layer on the Ti layer, wherein in the Ti layer film-forming step, an Ar gas is supplied into a chamber into which the base material is carried and a film-forming pressure is set to a pressure in a range of not less than 0.4 Pa and not more than 1 Pa to film-form the Ti layer, and in the TiC layer film-forming step, an Ar gas and a CH 4 gas are supplied into the chamber, a film-forming pressure is set to a pressure in a range of 0.2 Pa or more to less than 0.4 Pa, and a second bias voltage higher in bias voltage than a first bias voltage applied to the base material in the Ti layer film-forming step is applied to the base material to film-form the TiC layer, wherein in the TiC layer film-forming step, the second bias voltage is set to a voltage in a range of higher than -100 V and lower than -30 V to film-form the TiC layer.
A method comprising: receiving a first frame comprising training symbols; determining an amount of time needed to generate feedback information based on the training symbols in the first frame; and sending a second frame having a length determined based at least on the amount of time needed to generate the feedback information, wherein the second frame comprises the feedback information. receiving a first frame comprising training symbols; determining an amount of time needed to generate feedback information based on the training symbols in the first frame; and sending a second frame having a length determined based at least on the amount of time needed to generate the feedback information, wherein the second frame comprises the feedback information.
A nephelometric turbidimeter for measuring a turbidity of a liquid sample in a sample cuvette, the turbidimeter comprising: a measurement light source for emitting a parallel light beam defining an axial direction and being directed to the cuvette; a scattering light detector arranged to receive scattered light from the cuvette, the scattering light detector not being arranged axially in-line with the light beam; and a switchable diffuser with an optical diffuser body; the turbidimeter being characterized by a diffuser actuator for moving the optical diffuser body (52,52') between a parking position in which the diffuser body does not interfere with the emitted light beam and a contamination test position between the light source and the cuvette in which the diffuser body interferes with the emitted light beam to generate diffuse test light entering the cuvette, so that the cuvette is exposed to diffuse light only. a measurement light source for emitting a parallel light beam defining an axial direction and being directed to the cuvette; a scattering light detector arranged to receive scattered light from the cuvette, the scattering light detector not being arranged axially in-line with the light beam; and a switchable diffuser with an optical diffuser body; the turbidimeter being characterized by a diffuser actuator for moving the optical diffuser body (52,52') between a parking position in which the diffuser body does not interfere with the emitted light beam and a contamination test position between the light source and the cuvette in which the diffuser body interferes with the emitted light beam to generate diffuse test light entering the cuvette, so that the cuvette is exposed to diffuse light only.
A device for disinfecting catheter connectors, comprising a container having a closed lower base end and an opposite open upper end, a sponge-like element inserted inside said container, impregnated with a liquid medical substance, wherein a first end of the sponge-like element goes to rest against the closed lower base end of the container, whilst a second end is turned toward the outside of the container; said sponge-like element having an axial through cavity within it and a semi-rigid insert fitted to measure in said cavity, said insert having a longitudinal extent along the axis of the container that is shorter than that of the sponge-like element, and is positioned on the bottom of said cavity in contact with the base end of the container, so as to form a blind cavity that is open toward the open upper end of the device and such that when a catheter connector is inserted in the cavity a front part of said catheter connector abuts against said insert; said insert having a lower base end aligned with the first end of the sponge-like element; wherein said sponge-like element is made from a soft, absorbent, and porous material having density comprised between 0,05 and 0,15 g/cc, said insert being made from a material having a density greater than the density of said sponge-like element and comprised between 0,1 g/cc and 0,5 g/cc; between the internal lateral wall of said container and the external lateral surface of said sponge-like element there is an air gap to permit the latter to undergo a lateral expansion when in use. said sponge-like element having an axial through cavity within it and a semi-rigid insert fitted to measure in said cavity, said insert having a longitudinal extent along the axis of the container that is shorter than that of the sponge-like element, and is positioned on the bottom of said cavity in contact with the base end of the container, so as to form a blind cavity that is open toward the open upper end of the device and such that when a catheter connector is inserted in the cavity a front part of said catheter connector abuts against said insert; said insert having a lower base end aligned with the first end of the sponge-like element; wherein said sponge-like element is made from a soft, absorbent, and porous material having density comprised between 0,05 and 0,15 g/cc, said insert being made from a material having a density greater than the density of said sponge-like element and comprised between 0,1 g/cc and 0,5 g/cc; between the internal lateral wall of said container and the external lateral surface of said sponge-like element there is an air gap to permit the latter to undergo a lateral expansion when in use.
A system for acquiring images of a target area, comprising: an optical fiber assembly comprising a plurality of optical fibers (308, 310, 312, 314) operable to provide illumination to the target area; an optical system optically coupled with the optical fiber assembly, the optical system operable to focus illumination from the plurality of optical fibers of the optical fiber assembly to produce a plurality of focal planes located at different distances with respect to an optical axis in the optical system; a scanner actuator coupled to the optical fiber assembly and configured to actuate cantilevered distal portions associated with the plurality of optical fibers, either together or individually, at a frequency within a Q-factor of a resonant frequency of the distal portions in a scan pattern to scan light on the plurality of focal planes; one or more detectors configured to detect, for each of the plurality of focal planes, light reflected from the target area; and one or more processors comprising a tangible medium, the tangible medium comprising instructions that when executed cause the one or more processors to generate, based at least in part on the light collected from the target area, a composite image having a depth of field spanning over a distance between the plurality of focal planes. an optical fiber assembly comprising a plurality of optical fibers (308, 310, 312, 314) operable to provide illumination to the target area; an optical system optically coupled with the optical fiber assembly, the optical system operable to focus illumination from the plurality of optical fibers of the optical fiber assembly to produce a plurality of focal planes located at different distances with respect to an optical axis in the optical system; a scanner actuator coupled to the optical fiber assembly and configured to actuate cantilevered distal portions associated with the plurality of optical fibers, either together or individually, at a frequency within a Q-factor of a resonant frequency of the distal portions in a scan pattern to scan light on the plurality of focal planes; one or more detectors configured to detect, for each of the plurality of focal planes, light reflected from the target area; and one or more processors comprising a tangible medium, the tangible medium comprising instructions that when executed cause the one or more processors to generate, based at least in part on the light collected from the target area, a composite image having a depth of field spanning over a distance between the plurality of focal planes.
A tunneling field effect transistor, i.e. TFET, comprising: - a homojunction active region disposed above a substrate, the homojunction active region comprising: - a relaxed GeSn body having an undoped channel region therein; and - doped source and drain regions (106, 108) disposed in the relaxed GeSn body, on either side of the channel region; and - a gate stack disposed on the channel region, between the source and drain regions (106, 108), the gate stack comprising a gate dielectric portion and gate electrode portion, wherein the relaxed GeSn body is a direct bandgap body, said relaxed GeSn body having a thickness of 5 nm or less, and wherein the TFET is a square nanowire/nanoribbon based device and the relaxed GeSn body comprises principal surface orientations of or or, or wherein the TFET is a finfet device and the relaxed GeSn body comprises principal confinement directions of <100> or <010> or <001>. - a homojunction active region disposed above a substrate, the homojunction active region comprising: - a relaxed GeSn body having an undoped channel region therein; and - doped source and drain regions (106, 108) disposed in the relaxed GeSn body, on either side of the channel region; and - a relaxed GeSn body having an undoped channel region therein; and - doped source and drain regions (106, 108) disposed in the relaxed GeSn body, on either side of the channel region; and - a gate stack disposed on the channel region, between the source and drain regions (106, 108), the gate stack comprising a gate dielectric portion and gate electrode portion, wherein the relaxed GeSn body is a direct bandgap body, said relaxed GeSn body having a thickness of 5 nm or less, and wherein the TFET is a square nanowire/nanoribbon based device and the relaxed GeSn body comprises principal surface orientations of or or, or wherein the TFET is a finfet device and the relaxed GeSn body comprises principal confinement directions of <100> or <010> or <001>.