mhurhangee/patent-ind-claim-en huggingface dataset:
An analyzer, comprising: a chip placement structure , configured to place a detection chip , wherein the detection chip is provided with at least one detection area , and at least one optical detector unit comprising at least two light emitter elements and at least one photoelectric detector , wherein the at least one optical detector unit is configured to detect at least one detection area of the detection chip in a case where the detection chip is placed on the chip placement structure ; and an optical path component, arranged between the chip placement structure and the optical detector unit, the optical path component comprising a light splitter disk , the light splitter disk comprising at least one group of light through holes , wherein the at least one group of light through holes comprises two emitted-light through-holes for respectively passing light from the at least two light emitter elements and one reflected-light through-hole for passing light to the at least one photoelectric detector, whereby the two emitted-light through-holes are provided at two opposite sides of the one reflected-light through-hole . a chip placement structure , configured to place a detection chip , wherein the detection chip is provided with at least one detection area , and at least one optical detector unit comprising at least two light emitter elements and at least one photoelectric detector , wherein the at least one optical detector unit is configured to detect at least one detection area of the detection chip in a case where the detection chip is placed on the chip placement structure ; and an optical path component, arranged between the chip placement structure and the optical detector unit, the optical path component comprising a light splitter disk , the light splitter disk comprising at least one group of light through holes , wherein the at least one group of light through holes comprises two emitted-light through-holes for respectively passing light from the at least two light emitter elements and one reflected-light through-hole for passing light to the at least one photoelectric detector, whereby the two emitted-light through-holes are provided at two opposite sides of the one reflected-light through-hole .
Process for crosslinking polysaccharides from macroalgae to give a polymer material in a processing chamber , comprising the steps of: producing a mixture comprising a solid containing polysaccharide from macroalgae and a water-containing liquid , with a ratio of liquid to solid by weight of between 3:1 and 1:9; adjusting a pressure acting on the mixture to at least the vapour pressure of water at a first temperature, the first temperature being greater than/equal to 100° Celsius; and heating the mixture to the first temperature; wherein the solid comprises as polysaccharide at least one of alginate, alginic acid, agar and/or Carrageenan. producing a mixture comprising a solid containing polysaccharide from macroalgae and a water-containing liquid , with a ratio of liquid to solid by weight of between 3:1 and 1:9; adjusting a pressure acting on the mixture to at least the vapour pressure of water at a first temperature, the first temperature being greater than/equal to 100° Celsius; and heating the mixture to the first temperature; wherein the solid comprises as polysaccharide at least one of alginate, alginic acid, agar and/or Carrageenan.
An optical subassembly comprising - a carrier substrate ; - a photonic integrated circuit , PIC, comprising a first optical waveguide having a first longitudinal central axis, said PIC being arranged on the carrier substrate ; - an external optical system comprising a second optical waveguide having a second longitudinal central axis; - a component for supporting the external optical system on the carrier substrate and maintaining alignment of the first longitudinal central axis of the first optical waveguide and the second longitudinal central axis of the second optical waveguide with respect to each other; - a first layer of adhesive material being arranged between said component and the carrier substrate configured to mount said component directly on the carrier substrate ; and - a second layer of adhesive material being arranged between said component and the second optical wave guide configured to mount the second optical wave guide directly to the component , said first and second layers of adhesive material having respective first and second thicknesses, the sum of said first and second thicknesses being less than 10μm. - a carrier substrate ; - a photonic integrated circuit , PIC, comprising a first optical waveguide having a first longitudinal central axis, said PIC being arranged on the carrier substrate ; - an external optical system comprising a second optical waveguide having a second longitudinal central axis; - a component for supporting the external optical system on the carrier substrate and maintaining alignment of the first longitudinal central axis of the first optical waveguide and the second longitudinal central axis of the second optical waveguide with respect to each other; - a first layer of adhesive material being arranged between said component and the carrier substrate configured to mount said component directly on the carrier substrate ; and - a second layer of adhesive material being arranged between said component and the second optical wave guide configured to mount the second optical wave guide directly to the component , said first and second layers of adhesive material having respective first and second thicknesses, the sum of said first and second thicknesses being less than 10μm.
A medium voltage gas insulated switch comprising a first electric contact ; and a second electric contact that is moveable with respect to the first electric contact and a plurality of splitter plates (200-1, 200-2, ...) configured to interrupt an electric arc between the first electric contact and the second electric contact during the switching operation of the switch; a splitter plate holder that holds the plurality of splitter plates; characterised in that at least a part of the plurality of splitter plates is arranged in a non-parallel manner to each other and at substantially the same distance from a trajectory of the moveable second electric contact; wherein splitter plates (200-1, 200-2, ...) have substantially a "U" shaped form, the top of the "U" being directed towards the rotation axis (122, z); and wherein the splitter plate holder further includes exterior side walls along the sides of the "U", inner leg insulating walls covering interior legs of the "U", and an insulating extension of the bottom of the "U" directed away from the rotation axis . a first electric contact ; and a second electric contact that is moveable with respect to the first electric contact and a plurality of splitter plates (200-1, 200-2, ...) configured to interrupt an electric arc between the first electric contact and the second electric contact during the switching operation of the switch; a splitter plate holder that holds the plurality of splitter plates; characterised in that at least a part of the plurality of splitter plates is arranged in a non-parallel manner to each other and at substantially the same distance from a trajectory of the moveable second electric contact; wherein splitter plates (200-1, 200-2, ...) have substantially a "U" shaped form, the top of the "U" being directed towards the rotation axis (122, z); and wherein the splitter plate holder further includes exterior side walls along the sides of the "U", inner leg insulating walls covering interior legs of the "U", and an insulating extension of the bottom of the "U" directed away from the rotation axis .
A method for producing glass-coated aluminum nitride particles comprising aluminum nitride particles, and a glass phase covering at least a part of a surface of the aluminum nitride particles, wherein a volume cumulative d50 of a glass frit which is a raw material of the glass phase is 0.3 μm to 50 pm, comprising a first step of forming a mixture by mixing the aluminum nitride particles, the glass frit, and boron nitride particles having a volume cumulative d50 of 0.3 μm to 30 pm, a second step of obtaining coated particles by coating the glass frit onto the aluminum nitride particles by heat treating the mixture after the completion of the first step, at a temperature of the glass transition temperature of the glass frit or more, and 2000°C or less, and a third step of grinding the coated particles after the completion of the second step, to make particles with a volume cumulative d50 of 10 pm to 200 μm, wherein the volume cumulative d50 is determined by a laser diffraction scattering method, and the glass phase is a composition comprising at least a glass component, and the composition comprising the glass component is in a range of 0.1 to 5.0 parts by weight with respect to 100 parts by weight of the aluminum nitride particles. a volume cumulative d50 of a glass frit which is a raw material of the glass phase is 0.3 μm to 50 pm, comprising a first step of forming a mixture by mixing the aluminum nitride particles, the glass frit, and boron nitride particles having a volume cumulative d50 of 0.3 μm to 30 pm, a second step of obtaining coated particles by coating the glass frit onto the aluminum nitride particles by heat treating the mixture after the completion of the first step, at a temperature of the glass transition temperature of the glass frit or more, and 2000°C or less, and a third step of grinding the coated particles after the completion of the second step, to make particles with a volume cumulative d50 of 10 pm to 200 μm, wherein the volume cumulative d50 is determined by a laser diffraction scattering method, and the glass phase is a composition comprising at least a glass component, and the composition comprising the glass component is in a range of 0.1 to 5.0 parts by weight with respect to 100 parts by weight of the aluminum nitride particles.
A laminated structure comprising a microporous film bonded in a face to face relationship with a plexifilamentary nonwoven web with an adhesive layer situated in contact with a least a portion of both the microporous film and the nonwoven web, wherein; the film contains filler in an amount between 30% and 50% by weight of the total film weight, and between 40% and 90 % of polyolefin polymer by weight of the total film weight, the film has a thickness of between 12 and 25 microns, the film is bonded to the plexifilamentary web by adhesive, the laminated structure has a water vapor transmission rate (WVTR) as measured by the EN ISO 12572 Climate C method of greater than or equal to 1000 g/m 2 /day, the basis weight of the laminated structure is at least 55 g/m 2 , the tensile strength of the laminated structure according to EN ISO 13934-1 is at least 35 Newtons in the machine direction, the tensile elongation of the laminated structure according to EN ISO 13934-1 is at least 8% in the machine direction, the tensile strength of the laminated structure according to EN ISO 13934-1 is at least 35 Newtons in the cross direction, the tensile elongation according to EN ISO 13934-1 is at least 15 % in the cross direction, and the laminated structure has a hydrohead according to EN 20811 of at least 200 cm of water.
Pressurized fluid conduit comprising a mono-layer of a thermoplastic block copolyester elastomer, characterized that the thermoplastic block copolyester elastomer has a hardness of between 50 and 65 Shore D, measured at room temperature with a method following the instructions of ISO 868 and a modulus at 150°C of at least 60 MPa, as measured with DMS on a test-sample dynamically elongated at 1Hz, following ASTM D5026.
Method for producing a packaging film strip for providing a number of individual packaging film parts for packing food or beverages, wherein the packaging film contains for each designated individual packaging film part an area having a printed two-dimensional code as unique packaging or product identifier, the process comprising the steps of: a) providing at least one first substrate film strip , b) one side of said at least one first substrate film strip is provided with an artwork printing for each individual packaging film part, c) the side of said at least one first substrate film strip comprising the artwork printing is optionally laminated to a second substrate film strip using an adhesive layer , or a second substrate film is optionally extruded onto the at least one first substrate film strip, d) the surface of the one first or the second substrate film strip lying opposite to the artwork printing is provided with a direct food contact ink (DFC ink) area for each individual packaging film part, wherein the DFC ink area is designated to be present at an inner layer of each individual packaging film part having direct food contact, e) the packaging film comprising the artwork printing and the DFC ink areas is slitted to provide a series of individual packaging film parts running along the longside of the packaging film, f) ablating the individual DFC ink areas by a computer-controlled laser beam for providing a predetermined and individual code as unique packaging or product identifier, g) cleaning the surface of the film strip comprising the individual codes , and h) checking the quality of the codes . a) providing at least one first substrate film strip , b) one side of said at least one first substrate film strip is provided with an artwork printing for each individual packaging film part, c) the side of said at least one first substrate film strip comprising the artwork printing is optionally laminated to a second substrate film strip using an adhesive layer , or a second substrate film is optionally extruded onto the at least one first substrate film strip, d) the surface of the one first or the second substrate film strip lying opposite to the artwork printing is provided with a direct food contact ink (DFC ink) area for each individual packaging film part, wherein the DFC ink area is designated to be present at an inner layer of each individual packaging film part having direct food contact, e) the packaging film comprising the artwork printing and the DFC ink areas is slitted to provide a series of individual packaging film parts running along the longside of the packaging film, f) ablating the individual DFC ink areas by a computer-controlled laser beam for providing a predetermined and individual code as unique packaging or product identifier, g) cleaning the surface of the film strip comprising the individual codes , and h) checking the quality of the codes .
Arrangement for a motor vehicle comprising a windscreen cross member and a dashboard , with the front edge of the dashboard being connected to the windscreen cross member by at least one removable clasp , the removable clasp or clasps being connected to the windscreen cross member by clasp supports , preferably said clasp supports are metallic and are welded to said windscreen cross member , characterised in that the removable clasp or clasps comprise elastic means intended to cooperate with complementary means of the clasp supports for the fastening of said clasps onto said clasp supports.
A closure assembly for a flexible thin-walled packaging (P), comprising: - a spout (S), which is sealingly attachable to a bag (B) of the packaging (P), provided with a tube which extends along a central axis (X) and ends in a mouth , and is equipped with a coupling region ; - a closure (C) which can be attached to the spout (S), comprising: i) a ring which is attached to the spout (S) and is axially constrained and free to rotate; ii) a cap which has a central axis (Y), can be screwed to the tube , and is adapted to close the mouth , comprising a coupling portion ; iii) a fastener which connects the ring to the cap ; wherein the coupling portion can engage with the coupling region in order to retain the cap in a predefined position with respect to the spout (S); wherein the spout (S) comprises a lower plate and a lower flange , which project radially outwards and are axially spaced apart so as to obtain a coupling seat which forms said coupling region ; wherein the closure assembly is characterized in that the cap comprises a paddle for gripping and unscrewing it, which is provided with a peripheral edge , and a portion of said peripheral edge forms said coupling portion . - a spout (S), which is sealingly attachable to a bag (B) of the packaging (P), provided with a tube which extends along a central axis (X) and ends in a mouth , and is equipped with a coupling region ; - a closure (C) which can be attached to the spout (S), comprising: i) a ring which is attached to the spout (S) and is axially constrained and free to rotate; ii) a cap which has a central axis (Y), can be screwed to the tube , and is adapted to close the mouth , comprising a coupling portion ; iii) a fastener which connects the ring to the cap ; i) a ring which is attached to the spout (S) and is axially constrained and free to rotate; ii) a cap which has a central axis (Y), can be screwed to the tube , and is adapted to close the mouth , comprising a coupling portion ; iii) a fastener which connects the ring to the cap ; wherein the coupling portion can engage with the coupling region in order to retain the cap in a predefined position with respect to the spout (S); wherein the spout (S) comprises a lower plate and a lower flange , which project radially outwards and are axially spaced apart so as to obtain a coupling seat which forms said coupling region ; wherein the closure assembly is characterized in that the cap comprises a paddle for gripping and unscrewing it, which is provided with a peripheral edge , and a portion of said peripheral edge forms said coupling portion .
A cellular microcompartment comprising successively, organized around a lumen: - at least one layer of human pluripotent cells; - an extracellular matrix layer; - an outer layer of hydrogel, wherein said microcompartment is closed. - at least one layer of human pluripotent cells; - an extracellular matrix layer; - an outer layer of hydrogel,
An image processing device configured to perform image processing in response to a specifying operation by a user, the image processing device comprising: a motion sensor configured to detect a person; a display unit configured to display information on a screen; and a control unit configured to cause the display unit to display, in response to detection of a person by the motion sensor , a screen , further characterized by that the screen includes identification information of the image processing device that is configured to distinguish the image processing device from other image processing devices , and that is to be used for the specifying operation by the user. a motion sensor configured to detect a person; a display unit configured to display information on a screen; and a control unit configured to cause the display unit to display, in response to detection of a person by the motion sensor , a screen , further characterized by that the screen includes identification information of the image processing device that is configured to distinguish the image processing device from other image processing devices , and that is to be used for the specifying operation by the user.
A method for producing a toner for electrophotography characterized in that the method comprises: step 1: mixing a polyester and a polylactic acid at a temperature of 140°C or higher and 200°C or lower and subjecting the mixture to a transesterification reaction to provide a resin composition; and step 2: mixing the resin composition obtained in step 1 with a polyester which is identical to and/or different from the polyester of step 1, in a production of a toner for electrophotography. step 1: mixing a polyester and a polylactic acid at a temperature of 140°C or higher and 200°C or lower and subjecting the mixture to a transesterification reaction to provide a resin composition; and step 2: mixing the resin composition obtained in step 1 with a polyester which is identical to and/or different from the polyester of step 1, in a production of a toner for electrophotography.
A method of mass calibrating a mass spectrometer including a quadrupole mass filter analyzer or a quadrupole ion trap analyzer, comprising: producing a first high abundance ion species and a second low abundance ion species by ionizing a calibration mixture including one or more calibrant species in an ion source ; monitoring the mass position of known calibrant ions as the quadrupole is scanned across a mass-to-charge range; wherein the step of monitoring comprises detecting the first ion species using a first gain setting of a detector as the quadrupole is scanned across a first portion of the mass-to-charge range and detecting the second ion species using a second gain setting of the detector as the quadrupole is scanned across a second portion of the mass-to-charge range; and using the detected first and second ion species to calibrate the mass range of the quadrupole of the mass spectrometer , wherein the method comprises applying an ion specific detector gain, wherein the first and second gain settings are based on the relative abundance of the ions produced by the calibration mixture to avoid oversaturation of the detector for high abundance ions and obtain sufficient signal for low abundance ions. producing a first high abundance ion species and a second low abundance ion species by ionizing a calibration mixture including one or more calibrant species in an ion source ; monitoring the mass position of known calibrant ions as the quadrupole is scanned across a mass-to-charge range; wherein the step of monitoring comprises detecting the first ion species using a first gain setting of a detector as the quadrupole is scanned across a first portion of the mass-to-charge range and detecting the second ion species using a second gain setting of the detector as the quadrupole is scanned across a second portion of the mass-to-charge range; and using the detected first and second ion species to calibrate the mass range of the quadrupole of the mass spectrometer , wherein the method comprises applying an ion specific detector gain, wherein the first and second gain settings are based on the relative abundance of the ions produced by the calibration mixture to avoid oversaturation of the detector for high abundance ions and obtain sufficient signal for low abundance ions.
A method of wireless communication at a User Equipment, UE, comprising: receiving , from a base station, an indication of a set of Control Resource Sets, CORESETs, selected from a plurality of CORESETS or a set of Quasi co-location, QCL, relationships selected from a plurality of QCL relationships, wherein the indication is for at least one Channel Occupancy Time, COT; and determining the set of CORESETS from among the plurality of CORESETs or the set of QCL relationships from among the plurality of QCL relationships for the at least one COT based on the indication received from the base station. receiving , from a base station, an indication of a set of Control Resource Sets, CORESETs, selected from a plurality of CORESETS or a set of Quasi co-location, QCL, relationships selected from a plurality of QCL relationships, wherein the indication is for at least one Channel Occupancy Time, COT; and determining the set of CORESETS from among the plurality of CORESETs or the set of QCL relationships from among the plurality of QCL relationships for the at least one COT based on the indication received from the base station.