mhurhangee/patent-ind-claim-en huggingface dataset:
A nonwoven material having a first surface and a second surface , said nonwoven material comprising at least two layers that are joined together, said two layers comprising a first layer and a second layer , said layers each comprising a plurality of fibers, wherein said nonwoven material comprises a generally planar first region , said nonwoven material characterized in that it further comprises a plurality of discrete integral second regions that comprise spaced apart deformations in the nonwoven material wherein the first region has a first light transmission value and the portions of said nonwoven material in said second regions have a second transmission value, wherein the deformations form openings in the second surface of the nonwoven material wherein said openings transition into depressions, and protrusions extending outward from the first surface of the nonwoven material to distal portions, and wherein in at least some of the deformations: a) the fibers in the deformations are not melted together aside from any thermal point bonds in the layers; b) the second light transmission value in the deformations is at least 5 units greater than the first light transmission value as measured according to the light transmission method of the description; and c) the deformations are free of apertures. a) the fibers in the deformations are not melted together aside from any thermal point bonds in the layers; b) the second light transmission value in the deformations is at least 5 units greater than the first light transmission value as measured according to the light transmission method of the description; and c) the deformations are free of apertures.
An annular resonator for a vibrating structure angular rate sensor, the annular resonator comprising: a planar annular member that lies in an X-Y plane; and one or more supporting structures arranged to flexibly support the annular member in the X-Y plane; wherein the one or more supporting structures each comprise a radial portion , extending radially from the annular member and having a first thickness in the X-Y plane, and a circumferential portion , extending circumferentially from the radial portion , maintaining a substantially constant distance from the outer diameter of the annular member , and having a second thickness in the X-Y plane, characterised in that the first thickness is greater than the second thickness. a planar annular member that lies in an X-Y plane; and one or more supporting structures arranged to flexibly support the annular member in the X-Y plane; wherein the one or more supporting structures each comprise a radial portion , extending radially from the annular member and having a first thickness in the X-Y plane, and a circumferential portion , extending circumferentially from the radial portion , maintaining a substantially constant distance from the outer diameter of the annular member , and having a second thickness in the X-Y plane, characterised in that the first thickness is greater than the second thickness.
An adhesive polymer composition comprising a) a non-elastomeric copolymer of ethylene and one or more comonomers having 3 to 10 carbon atoms, which non-elastomeric copolymer is present in an amount of 60 to 95 % by weight, based on the adhesive polymer composition, wherein the non-elastomeric copolymer has (i) a molecular weight distribution Mw/Mn in the range of more than 2.5 to less than 4.0, (ii) a density of from 0.925 to 0.945 g/cm 3 , determined according to ISO 1183 -1 method A using compression moulded samples, and (iii) a content of vinyl groups/ 1000 carbon atoms in the range of more than 0.1 up to 0.6, determined by quantitative nuclear-magnetic resonance (NMR) spectroscopy in solution, and b) an elastomer, which is an elastomeric ethylene copolymer, wherein the non-elastomeric copolymer or the non-elastomeric copolymer and the elastomer have been grafted with an acid grafting agent. a) a non-elastomeric copolymer of ethylene and one or more comonomers having 3 to 10 carbon atoms, which non-elastomeric copolymer is present in an amount of 60 to 95 % by weight, based on the adhesive polymer composition, wherein the non-elastomeric copolymer has (i) a molecular weight distribution Mw/Mn in the range of more than 2.5 to less than 4.0, (ii) a density of from 0.925 to 0.945 g/cm 3 , determined according to ISO 1183 -1 method A using compression moulded samples, and (iii) a content of vinyl groups/ 1000 carbon atoms in the range of more than 0.1 up to 0.6, determined by quantitative nuclear-magnetic resonance (NMR) spectroscopy in solution, and (i) a molecular weight distribution Mw/Mn in the range of more than 2.5 to less than 4.0, (ii) a density of from 0.925 to 0.945 g/cm 3 , determined according to ISO 1183 -1 method A using compression moulded samples, and (iii) a content of vinyl groups/ 1000 carbon atoms in the range of more than 0.1 up to 0.6, determined by quantitative nuclear-magnetic resonance (NMR) spectroscopy in solution, and b) an elastomer, which is an elastomeric ethylene copolymer,
A method for purifying a gas containing volatile organic compounds which comprises: a) feeding the gas to an absorber and bringing into contact said gas with an aqueous stream the pH of which is comprised between 8.0 and 9.5 to obtain a liquid comprising volatile organic compounds, and a purified gas stream ; b) feeding the liquid comprising volatile organic compounds obtained in step a) to a conditioning tank and adding a mineral nutrient medium and a suitable amount of base to the liquid to obtain a liquid effluent the pH of which is comprised between 7.5 and 10 and the total alkalinity of which is comprised between 750 and 5,000 mg CaCO 3 /L; c) feeding the liquid effluent obtained in step b) to an anaerobic bioreactor to obtain a biomethane stream wherein the percentage of carbon dioxide is equal to or less than 15% by volume with respect to the volume of the stream expressed as a dry base, and an output liquid stream exiting the bioreactor the pH of which is comprised between 7.0 and 8.5; d) feeding the output liquid stream exiting the bioreactor obtained in step c) to a degasser to obtain a gas stream comprising methane, and an aqueous stream ; and e) recirculating the aqueous stream by feeding it to the absorber ; wherein: total alkalinity of each of the streams of steps a), c), d) and e) and of each of said absorber , conditioning tank , anaerobic bioreactor and degasser is equal to total alkalinity of the liquid effluent of step b) ± 20% of the total value. a) feeding the gas to an absorber and bringing into contact said gas with an aqueous stream the pH of which is comprised between 8.0 and 9.5 to obtain a liquid comprising volatile organic compounds, and a purified gas stream ; b) feeding the liquid comprising volatile organic compounds obtained in step a) to a conditioning tank and adding a mineral nutrient medium and a suitable amount of base to the liquid to obtain a liquid effluent the pH of which is comprised between 7.5 and 10 and the total alkalinity of which is comprised between 750 and 5,000 mg CaCO 3 /L; c) feeding the liquid effluent obtained in step b) to an anaerobic bioreactor to obtain a biomethane stream wherein the percentage of carbon dioxide is equal to or less than 15% by volume with respect to the volume of the stream expressed as a dry base, and an output liquid stream exiting the bioreactor the pH of which is comprised between 7.0 and 8.5; d) feeding the output liquid stream exiting the bioreactor obtained in step c) to a degasser to obtain a gas stream comprising methane, and an aqueous stream ; and e) recirculating the aqueous stream by feeding it to the absorber ; wherein: total alkalinity of each of the streams of steps a), c), d) and e) and of each of said absorber , conditioning tank , anaerobic bioreactor and degasser is equal to total alkalinity of the liquid effluent of step b) ± 20% of the total value.
A hybrid brush for cleaning a surface, comprising: a mandrel ; a molded first layer formed about the mandrel , wherein the molded first layer comprises a first material; and a second layer molded about the molded first layer , wherein the molded second layer comprises a second material; characterised in that the molded first layer compresses under less force than the molded second layer . a mandrel ; a molded first layer formed about the mandrel , wherein the molded first layer comprises a first material; and a second layer molded about the molded first layer , wherein the molded second layer comprises a second material; characterised in that the molded first layer compresses under less force than the molded second layer .
A method performed by a user equipment device, UE , comprising: connecting to a base station, BS ; establishing discontinuous reception, DRX, with the BS , wherein the DRX comprises a DRX cycle having a cycle length; transmitting a request for reference signal information to the BS , wherein the request for reference signal information indicates m slots prior to a DRX on duration and a duration of n slots; receiving the reference signal information from the BS in association with the DRX cycle length, wherein the reference signal information is transmitted m slots prior to the DRX on duration for a duration of n slots in response to the request for the reference signal information; performing tracking using the reference signal information. connecting to a base station, BS ; establishing discontinuous reception, DRX, with the BS , wherein the DRX comprises a DRX cycle having a cycle length; transmitting a request for reference signal information to the BS , wherein the request for reference signal information indicates m slots prior to a DRX on duration and a duration of n slots; receiving the reference signal information from the BS in association with the DRX cycle length, wherein the reference signal information is transmitted m slots prior to the DRX on duration for a duration of n slots in response to the request for the reference signal information; performing tracking using the reference signal information.
A water-based hydrophilizing surface treatment agent comprising an organic-inorganic silicon compound (A) and an inorganic particle (B), wherein the organic-inorganic silicon compound (A) is a compound obtained by mixing a colloidal silica (C) and an organoalkoxysilane (D); and a ratio (M B /M A ) between a solid content mass M A of the organic-inorganic silicon compound (A) and a solid content mass M B of the inorganic particle (B) falls within a range of 0.2 or more and 2.0 or less, wherein the inorganic particle (B) has an average particle size within a range of 50 nm or more and 600 nm or less, as measured with a particle size distribution measurement system.
A crystal comprising a Cas9 polypeptide in crystalline form, wherein the crystal is characterized with space group P2 1 2 1 2, and has unit cell parameters of a=160 Å, b=209 Å, c=91 Å, α=β=γ=90°, and wherein said Cas9 polypeptide comprises an amino acid sequence having at least 95% amino acid sequence identity to the amino acid sequence set forth in any one of SEQ ID NOs:1-14.
A method of manufacturing a three-dimensional part made of a non water dispersible polymer, the method comprising: additive manufacturing the three-dimensional part; additive manufacturing a support structure that supports the three-dimensional part by printing the support structure comprising a water dispersible sulfo polymer that is a reaction product of a sulfur monomer, wherein the reaction product comprises a sulfo-polyamide, a sulfo-polyesteramide, or a sulfo-polyurethane wherein the water dispersible polymer comprises either a polymer having a glass transition temperature within ± 20°C of the glass transition temperature of the non water dispersible polymer or a polymer having a heat deflection temperature within ±20° C of the heat deflection temperature of the non water dispersible polymer; and separating the non water dispersible polymer of the three-dimensional part from the water dispersible polymer support structure by subjecting the water dispersible polymer to water. additive manufacturing the three-dimensional part; additive manufacturing a support structure that supports the three-dimensional part by printing the support structure comprising a water dispersible sulfo polymer that is a reaction product of a sulfur monomer, wherein the reaction product comprises a sulfo-polyamide, a sulfo-polyesteramide, or a sulfo-polyurethane wherein the water dispersible polymer comprises either a polymer having a glass transition temperature within ± 20°C of the glass transition temperature of the non water dispersible polymer or a polymer having a heat deflection temperature within ±20° C of the heat deflection temperature of the non water dispersible polymer; and separating the non water dispersible polymer of the three-dimensional part from the water dispersible polymer support structure by subjecting the water dispersible polymer to water.
Vehicle tyre of radial construction which is vulcanized in a vulcanization mould with a tread strip, bead regions and sidewalls , the sidewalls having information items on their sidewall surface in the form of surface areas which are designed in a planar sidewall surface , a common texture being introduced into the surface areas which form the information items, or which are arranged as a planar sidewall surface in a texture, - the texture having a texture depth which is dimensioned in the axial direction (aR) from the surface of the texture as far as the bottom of the texture , - a maximum engraving depth being defined which is dimensioned in the axial direction (aR) from the planar sidewall surface as far as the imaginary, extended bottom of the texture , - the maximum engraving depth being greater than the texture depth , with the result that a step is configured on the surface of the sidewall at the transition from the planar sidewall surface to the surface of the texture , - the maximum engraving depth being from 0.05 to 0.39 mm, and - the texture depth being from 0.05 to 0.30 mm, characterized in that the step height is smaller than or equal to 0.09 mm. - the texture having a texture depth which is dimensioned in the axial direction (aR) from the surface of the texture as far as the bottom of the texture , - a maximum engraving depth being defined which is dimensioned in the axial direction (aR) from the planar sidewall surface as far as the imaginary, extended bottom of the texture , - the maximum engraving depth being greater than the texture depth , with the result that a step is configured on the surface of the sidewall at the transition from the planar sidewall surface to the surface of the texture , - the maximum engraving depth being from 0.05 to 0.39 mm, and - the texture depth being from 0.05 to 0.30 mm,
A malate dehydrogenase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein threonine, which is an amino acid corresponding to position 272 of SEQ ID NO: 3, is substituted with isoleucine.
A floor cleaner comprising: a base configured to move over a surface to be cleaned; a handle coupled to the base and the handle operable to move the base over the surface; a dispensing nozzle configured to dispense a fluid onto the surface to be cleaned; an actuator that controls a flow of the fluid through the dispensing nozzle ; and a supply tank in fluid communication with the dispensing nozzle , the supply tank including, a tank body configured to store the fluid, characterized in that the supply tank further comprises a collar coupled to the tank body , the collar including a latch that removably couples the supply tank to the floor cleaner . a base configured to move over a surface to be cleaned; a handle coupled to the base and the handle operable to move the base over the surface; a dispensing nozzle configured to dispense a fluid onto the surface to be cleaned; an actuator that controls a flow of the fluid through the dispensing nozzle ; and a supply tank in fluid communication with the dispensing nozzle , the supply tank including, a tank body configured to store the fluid, characterized in that the supply tank further comprises a collar coupled to the tank body , the collar including a latch that removably couples the supply tank to the floor cleaner . a tank body configured to store the fluid, characterized in that the supply tank further comprises a collar coupled to the tank body , the collar including a latch that removably couples the supply tank to the floor cleaner .
A method for image processing, the method performed by at least one processor and comprising: obtaining (S201) an input low resolution ,LR, image comprising a height, a width, and a number of channels; implementing (S202) a feature learning deep neural network ,DNN, configured to compute (S203) a feature tensor based on the input LR image; generating (S204, S205), by an upscaling DNN, a high resolution ,HR, image, having a higher resolution than the input LR image, based on the feature tensor computed by the feature learning DNN, wherein a networking structure of the upscaling DNN differs depending on different scale factors, and wherein a networking structure of the feature learning DNN is a same structure for each of the different scale factors. obtaining (S201) an input low resolution ,LR, image comprising a height, a width, and a number of channels; implementing (S202) a feature learning deep neural network ,DNN, configured to compute (S203) a feature tensor based on the input LR image; generating (S204, S205), by an upscaling DNN, a high resolution ,HR, image, having a higher resolution than the input LR image, based on the feature tensor computed by the feature learning DNN, wherein a networking structure of the upscaling DNN differs depending on different scale factors, and wherein a networking structure of the feature learning DNN is a same structure for each of the different scale factors.
A beverage making system that uses a beverage pod to create a beverage, comprising: a water reservoir coupled to a beverage reservoir, wherein the beverage reservoir is internally disposed within an outer covering and the beverage reservoir comprises an inlet to receive water from the water reservoir and an outlet to dispense the beverage; a pod receiving compartment coupled to the beverage reservoir, the pod receiving compartment being coupled with a piston mechanism; a heater coupled with the beverage reservoir and configured to add heat to the beverage reservoir; wherein the beverage pod is placed into the pod receiving compartment and the piston mechanism is configured to compress the beverage pod within the pod receiving compartment to empty the beverage pod's contents into the beverage reservoir; a compressed pod compartment positioned below the pod receiving compartment and configured to receive the beverage pod after the piston mechanism has compressed the beverage pod; and a rotatable blade disposed within the beverage reservoir, wherein the rotatable blade is activated to mix water from the water reservoir with the contents of the beverage pod to create the beverage. a water reservoir coupled to a beverage reservoir, wherein the beverage reservoir is internally disposed within an outer covering and the beverage reservoir comprises an inlet to receive water from the water reservoir and an outlet to dispense the beverage; a pod receiving compartment coupled to the beverage reservoir, the pod receiving compartment being coupled with a piston mechanism; a heater coupled with the beverage reservoir and configured to add heat to the beverage reservoir; wherein the beverage pod is placed into the pod receiving compartment and the piston mechanism is configured to compress the beverage pod within the pod receiving compartment to empty the beverage pod's contents into the beverage reservoir; a compressed pod compartment positioned below the pod receiving compartment and configured to receive the beverage pod after the piston mechanism has compressed the beverage pod; and a rotatable blade disposed within the beverage reservoir, wherein the rotatable blade is activated to mix water from the water reservoir with the contents of the beverage pod to create the beverage.
An apparatus comprising a cleaning rod arranged for cleaning a smelt spout and a smelt discharge opening of a chemicals recovery boiler, supported in a chassis frame , the chassis frame forming a swing that is pivotally supported about a pivot axis (S) between the outer ends of two arms , the arms extending in parallel, the apparatus further comprising a pivot actuation means (39; 41) acting on the swing and controllable for pivoting the swing and the cleaning rod about the axis (S), characterized in that a linear actuation means supported in the swing is operable for driving the cleaning rod in reciprocating, retraction and extension movements (x, y) respectively, in the axial direction of the cleaning rod , and wherein one or more sensors (40; 47-52) are arranged to provide control basis for correlation of the axial retraction movement (x) of the cleaning rod with the change in pivot angle (φ) of the cleaning rod during downwards pivoting of the cleaning rod upon cleaning the smelt spout .
A method comprising: collecting, by a computing system , a plurality of data from one or more sensors of an elevator sensor system while a calibration device applies a known excitation ; characterized by : comparing, by the computing system , an actual response to an expected response to the known excitation using a trained model , wherein the trained model is trained by applying the known excitation to a different instance of the elevator sensor system to produce the expected response ; and performing, by the computing system , analytics model calibration to calibrate the trained model based on one or more response changes between the actual response and the expected response . collecting, by a computing system , a plurality of data from one or more sensors of an elevator sensor system while a calibration device applies a known excitation ; characterized by : comparing, by the computing system , an actual response to an expected response to the known excitation using a trained model , wherein the trained model is trained by applying the known excitation to a different instance of the elevator sensor system to produce the expected response ; and performing, by the computing system , analytics model calibration to calibrate the trained model based on one or more response changes between the actual response and the expected response . comparing, by the computing system , an actual response to an expected response to the known excitation using a trained model , wherein the trained model is trained by applying the known excitation to a different instance of the elevator sensor system to produce the expected response ; and performing, by the computing system , analytics model calibration to calibrate the trained model based on one or more response changes between the actual response and the expected response .