mhurhangee/ep-ind-claims huggingface dataset:
A fluorescence and phosphorescence detecting apparatus that is configured to detect a fluorescent light and a phosphorescent light emitted from a paper sheet that is being transported on a transport path, comprising: two sensor units (151, 251) each including a light source configured to emit light of a predetermined wavelength band on the paper sheet; an image sensor configured to acquire data of the fluorescent light and the phosphorescent light excited on the paper sheet by irradiation of the light; and a light receiving lens (156, 256) configured to guide the fluorescent light and the phosphorescent light excited on the paper sheet to the image sensor, wherein the data of the fluorescent light is acquired while the light source emits the light on the paper sheet, and the data of the phosphorescent light is acquired after emission of the light is stopped, characterized in that the two sensor units (151, 251) are arranged on opposite sides of the transport path and offset with respect to each other to avoid mutual influence on measurement. two sensor units (151, 251) each including a light source configured to emit light of a predetermined wavelength band on the paper sheet; an image sensor configured to acquire data of the fluorescent light and the phosphorescent light excited on the paper sheet by irradiation of the light; and a light receiving lens (156, 256) configured to guide the fluorescent light and the phosphorescent light excited on the paper sheet to the image sensor, wherein a light source configured to emit light of a predetermined wavelength band on the paper sheet; an image sensor configured to acquire data of the fluorescent light and the phosphorescent light excited on the paper sheet by irradiation of the light; and a light receiving lens (156, 256) configured to guide the fluorescent light and the phosphorescent light excited on the paper sheet to the image sensor, wherein the data of the fluorescent light is acquired while the light source emits the light on the paper sheet, and the data of the phosphorescent light is acquired after emission of the light is stopped, characterized in that the two sensor units (151, 251) are arranged on opposite sides of the transport path and offset with respect to each other to avoid mutual influence on measurement.
A method of a network node, for concurrently transmitting two or more wake-up signals, WUS, using a signal generator applying a signal generator symbol rate, wherein each WUS is for reception by a wake-up receiver, WUR, of a respective wireless communication device, the method being characterized by comprising: selecting a respective Manchester coding symbol rate for each of the two or more WUS, wherein all of the selected respective Manchester coding symbol rates are different from each other, and wherein all Manchester codes having the selected respective Manchester coding symbol rates are orthogonal to each other; generating each of the two or more WUS using the signal generator and application of a Manchester code of the selected respective Manchester coding symbol rate; and multiplexing the two or more WUS for transmission in a WUS message. wherein each WUS is for reception by a wake-up receiver, WUR, of a respective wireless communication device, the method being characterized by comprising: selecting a respective Manchester coding symbol rate for each of the two or more WUS, wherein all of the selected respective Manchester coding symbol rates are different from each other, and wherein all Manchester codes having the selected respective Manchester coding symbol rates are orthogonal to each other; generating each of the two or more WUS using the signal generator and application of a Manchester code of the selected respective Manchester coding symbol rate; and multiplexing the two or more WUS for transmission in a WUS message. selecting a respective Manchester coding symbol rate for each of the two or more WUS, wherein all of the selected respective Manchester coding symbol rates are different from each other, and wherein all Manchester codes having the selected respective Manchester coding symbol rates are orthogonal to each other; generating each of the two or more WUS using the signal generator and application of a Manchester code of the selected respective Manchester coding symbol rate; and multiplexing the two or more WUS for transmission in a WUS message.
An intervalvular implant for a mitral valve wherein the implant has a structure formed by a frame and by a membrane covering this frame; the frame has a base portion and a hoop, and said membrane is connected to this hoop; characterized in that: - said base portion is elongated and is formed by two curved or chevron branches, these branches having median portions distant from each other and end portions which run while getting closer to each other and being connected to connecting areas located at the longitudinal ends of the base portion; this elongated base portion has a width extending from the median portion of one branch to the median portion of the other branch and a length extending from one connecting area to the other connecting area, and is so elongated that said length is three to eight times greater than said width; - the frame has anchoring portions connected to these connecting areas, allowing the implant to be anchored to the annulus of the mitral valve in two points of the annulus spaced from one another, in particular opposite one another; - said hoop is longitudinal and extending from one connecting area to the other; - the membrane is flexible and extends from one branch to the other while passing near the hoop, this membrane being connected to said branches without being stretched between these branches and this hoop so that the two lateral portions of the membrane thereby formed on both sides of the implant are able to adopt either a concave shape, outwardly convex, or a recessed shape, outwardly concave. - said base portion is elongated and is formed by two curved or chevron branches, these branches having median portions distant from each other and end portions which run while getting closer to each other and being connected to connecting areas located at the longitudinal ends of the base portion; this elongated base portion has a width extending from the median portion of one branch to the median portion of the other branch and a length extending from one connecting area to the other connecting area, and is so elongated that said length is three to eight times greater than said width; - the frame has anchoring portions connected to these connecting areas, allowing the implant to be anchored to the annulus of the mitral valve in two points of the annulus spaced from one another, in particular opposite one another; - said hoop is longitudinal and extending from one connecting area to the other; - the membrane is flexible and extends from one branch to the other while passing near the hoop, this membrane being connected to said branches without being stretched between these branches and this hoop so that the two lateral portions of the membrane thereby formed on both sides of the implant are able to adopt either a concave shape, outwardly convex, or a recessed shape, outwardly concave.
Clutch for a motor vehicle having a wear-compensating mechanism which comprises a sensor element for detecting wear, wherein the sensor element is of multi-part form and at least two sensor components (22, 24) are rotatably connected to one another, characterized in that a displaceable ramp is arranged on the sensor surface of the sensor element.
A method comprising: determining, at a user equipment, that a plurality of measurements are to be made and results of said measurements are to be stored for reporting at a later time; determining, at the user equipment, that said measurements are to be stopped; and storing, at the user equipment, information indicating a reason why said measurements are to be stopped, wherein said reason is selected from one or more of: said user equipment is in an any cell selection mode; said user equipment is camped on any cell; another radio access technology has been selected; a connection is requested; a connection state changes; and in device coexistence interference is present. determining, at a user equipment, that a plurality of measurements are to be made and results of said measurements are to be stored for reporting at a later time; determining, at the user equipment, that said measurements are to be stopped; and storing, at the user equipment, information indicating a reason why said measurements are to be stopped, wherein said reason is selected from one or more of: said user equipment is in an any cell selection mode; said user equipment is camped on any cell; another radio access technology has been selected; a connection is requested; a connection state changes; and in device coexistence interference is present.
Sensor device for measuring at least one first analyte and a second analyte, the sensor device comprising a cavity; a buffer contained in the cavity; a membrane, limiting the cavity at least on one side of the cavity, wherein the membrane includes at least one first dye within the membrane, each of the at least one first dye exhibiting an optical behaviour which depends on a respective first analyte; a second dye mixed with the buffer, the second dye exhibiting an optical behaviour which depends on a pH-value in the buffer, wherein the pH-value in the buffer depends on the second analyte; characterised in that the sensor device further comprising a reservoir of the buffer and the second dye, wherein the reservoir is in diffusive contact with the cavity. a cavity; a buffer contained in the cavity; a membrane, limiting the cavity at least on one side of the cavity, wherein the membrane includes at least one first dye within the membrane, each of the at least one first dye exhibiting an optical behaviour which depends on a respective first analyte; a second dye mixed with the buffer, the second dye exhibiting an optical behaviour which depends on a pH-value in the buffer, wherein the pH-value in the buffer depends on the second analyte; characterised in that the sensor device further comprising a reservoir of the buffer and the second dye, wherein the reservoir is in diffusive contact with the cavity.
A method of laminating a transfer section of a transfer layer to a substrate using a reverse-image transfer printing device, which includes a transfer ribbon comprising the transfer layer attached to a carrier layer, a print ribbon, a print head configured to transfer print material from the print ribbon to the transfer layer, and a laminating device, the method comprising: heating non-transfer portions of the transfer section to a deactivation temperature using the print head; and laminating the transfer section to the substrate comprising: heating the non-transfer portions and transfer portions of the transfer section using the laminating device; and bonding the transfer portions to the substrate using the laminating device; and removing the carrier layer from the transfer portions, wherein the non-transfer portions remain attached to the carrier layer. heating non-transfer portions of the transfer section to a deactivation temperature using the print head; and laminating the transfer section to the substrate comprising: heating the non-transfer portions and transfer portions of the transfer section using the laminating device; and bonding the transfer portions to the substrate using the laminating device; and heating the non-transfer portions and transfer portions of the transfer section using the laminating device; and bonding the transfer portions to the substrate using the laminating device; and removing the carrier layer from the transfer portions, wherein the non-transfer portions remain attached to the carrier layer.
Flame retardant coating formulation in the form of an aqueous dispersion comprising a binder, particles of a brominated polymeric flame retardant; and particles of at least one of magnesium hydroxide and aluminum trihydrate, wherein the aqueous dispersion is substantially free of antimony oxide so that the concentration of antimony oxide in the aqueous dispersion is not more than 3% by weight, more preferably less than 1.0 % by weight, and even more preferably from 0.0 to 0.09 % by weight based on the total weight of the formulation; and wherein the brominated polymeric flame retardant is selected from tribromophenol end-capped brominated epoxy polymer of the formula Ia: wherein m is the degree of polymerization; and brominated poly[styrene-co-butadiene].
Solid fuel propulsion device having a combustion chamber, wherein the combustion chamber comprises at least one first partition and a second partition that are separated from one another by means of at least one dividing wall; wherein the first partition includes a first propellant that is configured so as to be ignited independently of a second propellant in the second partition; wherein the dividing wall comprises a plate that extends in the longitudinal direction and is connected on edges to an outer wall of the combustion chamber with the result that the partitions (26a, 26b) are constructed as wedge-shaped or cylinder segment-shaped; characterised in that the first propellant is configured as a core burner and the second propellant is configured as an end burner.
An engine component assembly, comprising: a first engine component having a hot surface in thermal communication with a hot combustion gas flow and a cooling surface in fluid communication with a cooling fluid flow, wherein the cooling surface is different than the hot surface; a second engine component including a substrate having a first surface in fluid communication with the cooling fluid flow and a second surface spaced from the cooling surface and defining a space between the second surface and the cooling surface and further including at least one cooling aperture, wherein the at least one cooling aperture extends through the substrate, wherein the cooling fluid flow passes through the at least one cooling aperture and wherein the at least one cooling aperture is oriented such that the cooling fluid flow is directed to impinge the cooling surface of the first engine component; characterized in a multiple non-linear channels (100, 112, 120, 124, 134) provided on the cooling surface and having a general direction of extension defining an extension axis, wherein at least some of the multiple non-linear channels (100, 112, 120, 124, 134) are oriented relative to the cooling fluid flow such that at least a portion of the cooling fluid flow is orthogonal to the extension axis, have a wave-shaped plan form and are spaced from each other to define at least one intervening space (102, 118, 122, 132, 142) on the cooling surface, and wherein the cooling fluid flow forms an impingement angle relative to the at least one intervening space (102, 118, 122, 132, 142) which is less than 90 degrees. a first engine component having a hot surface in thermal communication with a hot combustion gas flow and a cooling surface in fluid communication with a cooling fluid flow, wherein the cooling surface is different than the hot surface; a second engine component including a substrate having a first surface in fluid communication with the cooling fluid flow and a second surface spaced from the cooling surface and defining a space between the second surface and the cooling surface and further including at least one cooling aperture, wherein the at least one cooling aperture extends through the substrate, wherein the cooling fluid flow passes through the at least one cooling aperture and wherein the at least one cooling aperture is oriented such that the cooling fluid flow is directed to impinge the cooling surface of the first engine component; characterized in a multiple non-linear channels (100, 112, 120, 124, 134) provided on the cooling surface and having a general direction of extension defining an extension axis, wherein at least some of the multiple non-linear channels (100, 112, 120, 124, 134) are oriented relative to the cooling fluid flow such that at least a portion of the cooling fluid flow is orthogonal to the extension axis, have a wave-shaped plan form and are spaced from each other to define at least one intervening space (102, 118, 122, 132, 142) on the cooling surface, and wherein the cooling fluid flow forms an impingement angle relative to the at least one intervening space (102, 118, 122, 132, 142) which is less than 90 degrees.
A polyolefin microporous membrane, wherein: (i) a puncture strength Y in terms of a membrane thickness of 10 μm and the number Z of surface pores per unit area (/μm 2) satisfy a relationship of the following formula: Y N ≥ − 0.06 × Z / μm 2 + 9.4 wherein the puncture strength Y is measured by the method of the description and the number Z of surface pores is measured by a scanning electron microscope observation, or (ii) a puncture strength Y in terms of a membrane thickness of 10 μm and a surface opening ratio W (%) satisfy a relationship of the following formula: Y N ≥ − 0.11 × W % + 6.2 and the surface opening ratio W is 5% or more and 45% or less, and wherein in (i) or (ii) the puncture strength Y is 3.0 N or more, and wherein the puncture strength Y and the opening ratio W are each measured by the respective method of the description. (i) a puncture strength Y in terms of a membrane thickness of 10 μm and the number Z of surface pores per unit area (/μm 2) satisfy a relationship of the following formula: Y N ≥ − 0.06 × Z / μm 2 + 9.4 wherein the puncture strength Y is measured by the method of the description and the number Z of surface pores is measured by a scanning electron microscope observation, or (ii) a puncture strength Y in terms of a membrane thickness of 10 μm and a surface opening ratio W (%) satisfy a relationship of the following formula: Y N ≥ − 0.11 × W % + 6.2 and the surface opening ratio W is 5% or more and 45% or less, and wherein in (i) or (ii) the puncture strength Y is 3.0 N or more, and wherein the puncture strength Y and the opening ratio W are each measured by the respective method of the description. the surface opening ratio W is 5% or more and 45% or less, and wherein in (i) or (ii) the puncture strength Y is 3.0 N or more, and
A method of signal processing, said method comprising: driving a directionally controllable transducer to produce a sound field that includes a beam; producing a command in response to a representation of a hand gesture; and applying a spatially directive filter to an input signal to produce a multichannel signal, wherein the spatially directive filter is based upon the command, wherein the hand gesture indicates a change in at least one among a direction of the beam and a width of the beam, and wherein the command is a command to perform the indicated change. driving a directionally controllable transducer to produce a sound field that includes a beam; producing a command in response to a representation of a hand gesture; and applying a spatially directive filter to an input signal to produce a multichannel signal, wherein the spatially directive filter is based upon the command,
A steel for carbonitrided bearing, comprising a chemical composition consisting of, in mass%, C: 0.25 to 0.45%, Si: not more than 0.50%, Mn: 0.40 to 1.50%, P: not more than 0.015%, S: not more than 0.005%, Cr: 0.30 to 2.0%, Mo: 0.10 to 0.35%, V: 0.20 to 0.40%, Al: 0.005 to 0.10%, N: not more than 0.030%, O: not more than 0.0015%, B: 0 to 0.0050%, Nb: 0 to 0.10%, and Ti: 0 to 0.10%, with the balance being Fe and impurities, and satisfies Formulae and: 1.20 < 0.4 ⁢ Cr + 0.4 ⁢ Mo + 4.5 ⁢ V < 2.60 2.7 ⁢ C + 0.4 ⁢ Si + Mn + 0.8 ⁢ Cr + Mo + V > 2.20 where each symbol of element in Formulae and is substituted by a content (mass%) of a corresponding element.
A heat exchanger assembly for use with a two-phase refrigerant, comprising; an inlet header; an outlet header spaced from said inlet header; a plurality of refrigerant tubes hydraulically connecting said inlet header to said outlet header; a distributor tube having a plurality of orifices disposed in said inlet header, wherein said orifices are arranged along said distributor tube such that at least one orifice is oriented in the liquid phase of the refrigerant pressed against said internal surface of said distributor tube regardless of orientation of said heat exchanger assembly, characterized in that said plurality of orifices is spirally positioned along said distributor tube about a substantially center axis and wherein, each of said plurality of orifices is off-set 90 degrees or 180 degrees from adjacent orifices.
Device for receiving and actuating a carpule with a piston, in order to expel a liquid medicament formulation or other liquid from the carpule, the device comprising a ram that is axially movable for displacing the piston, wherein the ram is of multi-part configuration and is telescopically extensible by rotation, the device is embodied such that at least one rotary movement and one axial movement are combined as an operating movement, and the device comprises a first operating element for operating the device that is rotatable in opposite directions one after the other and an inner part, and the first operating element of the device is rotatable in a first direction for opening the carpule and the operating element comprises an axial undercut, abutment or projection which after moving past, comes to abut on a radial projection of the inner part and by which the operating element can latch and couple for rotation with the inner part when the first rotation has ended, and characterised in that when rotary coupled to the inner part, the first operating element is rotatable in an opposite direction, wherein the rotation in the opposite direction causes the movement of an actuating part and/or the displacement of a piston for mixing a liquid with a dry medicament or for mixing two liquids (2A, 2C) in the carpule. a liquid medicament formulation or other liquid from the carpule, the device comprising a ram that is axially movable for displacing the piston, wherein the ram is of multi-part configuration and is telescopically extensible by rotation, the device is embodied such that at least one rotary movement and one axial movement are combined as an operating movement, and the device comprises a first operating element for operating the device that is rotatable in opposite directions one after the other and an inner part, and the first operating element of the device is rotatable in a first direction for opening the carpule and the operating element comprises an axial undercut, abutment or projection which after moving past, comes to abut on a radial projection of the inner part and by which the operating element can latch and couple for rotation with the inner part when the first rotation has ended, and characterised in that when rotary coupled to the inner part, the first operating element is rotatable in an opposite direction, wherein the rotation in the opposite direction causes the movement of an actuating part and/or the displacement of a piston for mixing a liquid with a dry medicament or for mixing two liquids (2A, 2C) in the carpule.