mhurhangee/patent-ind-claim-en huggingface dataset:
A thermoplastic screen printing paste comprising: - one or more hydroxy-functional polyesters, - one or more blocked polyisocyanates, - pigments, - additives, characterized in, that the paste is solid at room temperature, that the melting or softening range of the thermoplastic screen printing paste lies at temperatures below 90°C and that the paste is free of bisphenol-A and free of further substances which are directly involved in polymerization. - one or more hydroxy-functional polyesters, - one or more blocked polyisocyanates, - pigments, - additives, characterized in, that the paste is solid at room temperature, that the melting or softening range of the thermoplastic screen printing paste lies at temperatures below 90°C and that the paste is free of bisphenol-A and free of further substances which are directly involved in polymerization.
A metal surface treatment method wherein the surface is simultaneously bombarded with a mixture of abrasive particles and dopant particles , and thereby depositing the dopant material on the surface; characterised in that the particles are delivered at a velocity in the range of 120-180 m/sec; and the abrasive particles have an irregular or angular morphology. bombarded with a mixture of abrasive particles and dopant particles , and thereby depositing the dopant material on the surface; characterised in that the particles are delivered at a velocity in the range of 120-180 m/sec; and the abrasive particles have an irregular or angular morphology.
An isolated polypeptide comprising a first and a second polypeptide chain, wherein: (a) the first polypeptide chain comprises: (i) a first domain comprising a binding region of a light chain variable domain of an immunoglobulin (V L ) specific for a first epitope; and (ii) the light chain constant region domain of the immunoglobulin; (b) the second polypeptide chain comprises: (i) a first domain comprising a binding region of a heavy chain variable region domain of an immunoglobulin (V H ) specific for the first epitope; (ii) the heavy chain constant region domains of the immunoglobulin; and (iii) a second domain comprising the N-terminal Ig-like domain of SIRPα, wherein the N-terminal Ig-like domain of SIRPα has an affinity equivalent to the affinity of native SIRPα for binding with CD47, and wherein the immunoglobulin variable region specifically binds a tumor antigen, and wherein the isolated polypeptide includes a glycosylated Fc domain. (a) the first polypeptide chain comprises: (i) a first domain comprising a binding region of a light chain variable domain of an immunoglobulin (V L ) specific for a first epitope; and (ii) the light chain constant region domain of the immunoglobulin; (i) a first domain comprising a binding region of a light chain variable domain of an immunoglobulin (V L ) specific for a first epitope; and (ii) the light chain constant region domain of the immunoglobulin; (b) the second polypeptide chain comprises: (i) a first domain comprising a binding region of a heavy chain variable region domain of an immunoglobulin (V H ) specific for the first epitope; (ii) the heavy chain constant region domains of the immunoglobulin; and (iii) a second domain comprising the N-terminal Ig-like domain of SIRPα, wherein the N-terminal Ig-like domain of SIRPα has an affinity equivalent to the affinity of native SIRPα for binding with CD47, and wherein the immunoglobulin variable region specifically binds a tumor antigen, and wherein the isolated polypeptide includes a glycosylated Fc domain. (i) a first domain comprising a binding region of a heavy chain variable region domain of an immunoglobulin (V H ) specific for the first epitope; (ii) the heavy chain constant region domains of the immunoglobulin; and (iii) a second domain comprising the N-terminal Ig-like domain of SIRPα, wherein the N-terminal Ig-like domain of SIRPα has an affinity equivalent to the affinity of native SIRPα for binding with CD47, and wherein the immunoglobulin variable region specifically binds a tumor antigen, and wherein the isolated polypeptide includes a glycosylated Fc domain.
A curtain airbag cushion comprising panels, a seam-sealed portion for connecting the panels, a sewing portion sewn along with the seam-sealed portion, openings for discharging air inside the airbag to prevent spreading of the seam-sealed portion when connecting the panels, a tether connection portion which sealant is applied so as to increase tensile strength by more than 120%, wherein the fabric of the panels is coated with a coating liquid containing a silicone composition, wherein the coating liquid has the elongation at break of 180% or more; tensile strength of 3.0 MPa or more; tear strength of 4.0 KN/m or more; hardness of 30 or more, wherein air permeability of the panel applied with the coating liquid is 0.15 cfm or less, wherein coating amount of the coating liquid is 30 g/m 2 or more, wherein the seam-sealed portion is applied to a sealant containing two-liquid type silicone resin for connecting the panels, wherein the two-liquid type silicone resin has density of 1 to 1.5 g/cm 3 ; tensile strength of 3.5 MPa or more; elongation of 1,050% or more, wherein the starting point of the sewing portion is a back stitch structure, wherein the sewing portion is composed of a sewing yarn made of polyamide or polyester, wherein the sewing yarn has fineness of 1266 D or more; and stitch number per 25mm of 9 to 15 EA; and the coating margin is 3mm or more; and tensile strength of 18 kgf or more; and the sewing portion is sewn by a lock stitch or chain stitch method, wherein the sewing portion adjacent to the openings has two sewing lines, and the sewing portion not adjacent to the openings has a one sewing line.
A chiller system having refrigerant (R) circulating through a vapor compression cycle , the chiller system comprising: an evaporator of the vapor compression cycle; and a hydronic economizer module comprising: a housing having at least a first air inlet; a heat exchanger assembly located within said housing, including at least one heat exchanger coil ; a fan assembly including at least one fan generally aligned with said at least one heat exchanger coil; and at least one valve movable between a plurality of positions to control a flow of fluid (F) distinct from the refrigerant into said heat exchanger assembly, wherein when said at least one valve is in a first position the economizer module is arranged in parallel with the evaporator of the vapor compression cycle and when said at least one valve is in a second position the economizer module is arranged in series with said evaporator of the vapor compression cycle. an evaporator of the vapor compression cycle; and a hydronic economizer module comprising: a housing having at least a first air inlet; a heat exchanger assembly located within said housing, including at least one heat exchanger coil ; a fan assembly including at least one fan generally aligned with said at least one heat exchanger coil; and at least one valve movable between a plurality of positions to control a flow of fluid (F) distinct from the refrigerant into said heat exchanger assembly, wherein when said at least one valve is in a first position the economizer module is arranged in parallel with the evaporator of the vapor compression cycle and when said at least one valve is in a second position the economizer module is arranged in series with said evaporator of the vapor compression cycle. a housing having at least a first air inlet; a heat exchanger assembly located within said housing, including at least one heat exchanger coil ; a fan assembly including at least one fan generally aligned with said at least one heat exchanger coil; and at least one valve movable between a plurality of positions to control a flow of fluid (F) distinct from the refrigerant into said heat exchanger assembly, wherein when said at least one valve is in a first position the economizer module is arranged in parallel with the evaporator of the vapor compression cycle and when said at least one valve is in a second position the economizer module is arranged in series with said evaporator of the vapor compression cycle.
An ophthalmic lens comprising a transparent substrate with a front main face and with a rear main face, at least one of the main faces being coated with a multilayered antireflective coating comprising a stack of at least one high refractive index layer, HI, having a refractive index higher than or equal to 1.55 and at least one low refractive index layer, LI, having a refractive index lower than 1.55, wherein - said at least one high refractive index layer, HI, and said at least one low refractive index layer, LI, are adjacent, forming a bilayer, said bilayer is, in the direction moving away from said transparent substrate, in penultimate place in said multilayered antireflective coating and has a physical thickness lower than or equal to 60 nm, preferably lower than or equal to 30 nm, and said at least one -the high refractive index layer, HI, has a physical thickness lower than or equal to 30 nm; - said multilayered antireflective coating has a mean reflection factor R UV between 280 nm and 380 nm, lower than 5% for an angle of incidence in the range from 20°to 50°, characterized in that the antireflective coating has a ΔE76 for angles of incidence of 15° and 45° defined by the colorimetric CIE 1976 L*a*b* which is lower than or equal to 12. - said at least one high refractive index layer, HI, and said at least one low refractive index layer, LI, are adjacent, forming a bilayer, said bilayer is, in the direction moving away from said transparent substrate, in penultimate place in said multilayered antireflective coating and has a physical thickness lower than or equal to 60 nm, preferably lower than or equal to 30 nm, and said at least one -the high refractive index layer, HI, has a physical thickness lower than or equal to 30 nm; - said multilayered antireflective coating has a mean reflection factor R UV between 280 nm and 380 nm, lower than 5% for an angle of incidence in the range from 20°to 50°, characterized in that the antireflective coating has a ΔE76 for angles of incidence of 15° and 45° defined by the colorimetric CIE 1976 L*a*b* which is lower than or equal to 12.
Insole (1; 1a; 1c; 1d) which has an insole underside (5; 5a; 5c; 5d) and an insole upper side (2; 2a; 2c; 2d), wherein the insole underside (5; 5a; 5c; 5d) is provided for at least partial surface contact against a shoe bottom (6; 6a; 6c) and the insole upper side (2; 2a; 2c; 2d) is provided for at least partial surface contact with a foot sole and having at least one region (3; 3a; 3c; 3d) with a hollow curvature, the insole is movable in a contact plane (9; 9a; 9c; 9d), in which the insole can be placed against the shoe bottom (6;6c), under load and a movement with a movement component perpendicular to the contact plane is prevented, wherein a cavity (4; 4a; 4c; d) between the insole underside (5; 5a; 5c; 5d) and the shoe bottom (6; 6a; 6c; 6d) of a shoe into which the insole can be inserted is open to two sides, and wherein the hollow curvature acts in the manner of a diaphragm spring designed as a single spring, characterized in that the insole (1; 1a; 1c; 1d) has a substantially constant thickness (12; 12a; 12c; 12d), wherein a substantially constant thickness means that a material thickness between an insole underside and a insole upper side is constant and changes at most by 6.5% relative to the thickness of an adjacent area that is thicker or thinner.
A poultry nesting system having a nest house with an adjacent platform raised above the surface of the surrounding substrate (G), the platform having an upper surface and at least a portion of a perimeter of the platform comprises a wire mesh covering a space between the substrate (G) and the upper surface , the wire mesh being formed by a plurality of strands including an upper strand and a lower strand , wherein at least a portion of the upper surface of the platform is supported by a plurality of platform floor supports positioned on a perimeter of the platform , each of the plurality of platform floor supports comprising: a bracing member ; an upper cap on an upper end of the bracing member , wherein the upper cap has an attachment mechanism on an upper portion thereof configured to interact with the upper surface to lock the platform floor support to the upper surface of the platform such that the platform floor support supports the upper surface in its raised position above the substrate (G), and wherein the upper cap has an upper catch configured to interact with the wire mesh and hold the wire mesh in place, wherein the upper catch forms an upward-facing valley for receiving the upper strand ; and a lower cap on a lower end of the bracing member , wherein the lower cap has a lower catch configured to interact with the wire mesh and hold the wire mesh in place, wherein the lower catch forms a downward-facing arch for receiving the lower strand ; wherein a length of a travel space under the downward-facing arch of the lower catch is greater that a length of a travel space in the upward-facing valley of the upper catch . a bracing member ; an upper cap on an upper end of the bracing member , wherein the upper cap has an attachment mechanism on an upper portion thereof configured to interact with the upper surface to lock the platform floor support to the upper surface of the platform such that the platform floor support supports the upper surface in its raised position above the substrate (G), and wherein the upper cap has an upper catch configured to interact with the wire mesh and hold the wire mesh in place, wherein the upper catch forms an upward-facing valley for receiving the upper strand ; and a lower cap on a lower end of the bracing member , wherein the lower cap has a lower catch configured to interact with the wire mesh and hold the wire mesh in place, wherein the lower catch forms a downward-facing arch for receiving the lower strand ; wherein a length of a travel space under the downward-facing arch of the lower catch is greater that a length of a travel space in the upward-facing valley of the upper catch .
A system for determining tissue temperature within a region of interest comprising ar object of interest and a reference that are separated by at least one boundary at least at two boundary locations, the system comprising: a thermoacoustic imaging system comprising an adjustable radio frequency (RF) applicator configured to emit RF energy pulses into the tissue region of interest and heat tissue therein and an acoustic receiver configured to receive multi-polar acoustic signals generated in response to heating of tissue in the region of interest; and one or more processors configured to: process the received multi-polar acoustic signals generated in the region of interest in response to the RF energy pulses to determine peak-to-peak amplitudes thereof; characterised by said one or more processors being further configured to calculate a tissue temperature at the at least two boundary locations using the peak-to-peak amplitudes of the multi-polar acoustic signals and a distance between the boundary locations. a thermoacoustic imaging system comprising an adjustable radio frequency (RF) applicator configured to emit RF energy pulses into the tissue region of interest and heat tissue therein and an acoustic receiver configured to receive multi-polar acoustic signals generated in response to heating of tissue in the region of interest; and one or more processors configured to: process the received multi-polar acoustic signals generated in the region of interest in response to the RF energy pulses to determine peak-to-peak amplitudes thereof; characterised by said one or more processors being further configured to calculate a tissue temperature at the at least two boundary locations using the peak-to-peak amplitudes of the multi-polar acoustic signals and a distance between the boundary locations. process the received multi-polar acoustic signals generated in the region of interest in response to the RF energy pulses to determine peak-to-peak amplitudes thereof; characterised by said one or more processors being further configured to calculate a tissue temperature at the at least two boundary locations using the peak-to-peak amplitudes of the multi-polar acoustic signals and a distance between the boundary locations.
Process for the production of OSB wood-based panels, in particular OSB wood-based panels with reduced emission of volatile organic compounds (VOCs), comprising the steps (a) Production of wood strands from suitable timbers; (b) Treatment of at least part of the wood strands in water at a temperature between 50°C and 100°C for a period of 10 to 60 minutes (c) Drying of the wood strands treated in water; (d) Coating of water-treated and dried wood strands and optionally coating of non-water-treated wood strands with at least one binder; (e) Scattering the glue-coated wood strands onto a conveyor belt; and f) Pressing the glue-coated wood strands to form an OSB wood-based panel. (a) Production of wood strands from suitable timbers; (b) Treatment of at least part of the wood strands in water at a temperature between 50°C and 100°C for a period of 10 to 60 minutes (c) Drying of the wood strands treated in water; (d) Coating of water-treated and dried wood strands and optionally coating of non-water-treated wood strands with at least one binder; (e) Scattering the glue-coated wood strands onto a conveyor belt; and f) Pressing the glue-coated wood strands to form an OSB wood-based panel.
A razor blade cleaning device , for cleaning the blades of a multi-bladed safety razor or cartridge, the cleaning device comprising: an open cleaning chamber, suitably dimensioned for receiving a razor head or cartridge , wherein the device is configured such that a fluid is feedable through the cleaning chamber to contact the blades of a razor head or cartridge disposed therein; characterized in that : the razor blade cleaning device further comprises a cleaning head which is in the form of a manifold, and a base , wherein the cleaning chamber is defined by the cleaning head and the base .
Animation arrangement for a vehicle, comprising: a display device , configured to display an animation based on an instruction set; a storage device , configured to store a first instruction set and a second instruction set for displaying the same animation on the display device; a calculating device comprising a central processing unit and a graphics processing unit , the calculating device being configured to select one of the first and second instruction sets for displaying an animation on the display device; wherein the calculating device is configured to select one of the first and second instruction sets for displaying an animation on the display device based on a load parameter of the central processing unit or the graphics processing unit of the calculating device. a display device , configured to display an animation based on an instruction set; a storage device , configured to store a first instruction set and a second instruction set for displaying the same animation on the display device; a calculating device comprising a central processing unit and a graphics processing unit , the calculating device being configured to select one of the first and second instruction sets for displaying an animation on the display device; wherein the calculating device is configured to select one of the first and second instruction sets for displaying an animation on the display device based on a load parameter of the central processing unit or the graphics processing unit of the calculating device.
A method of handling a slag pot or ladle comprising an inner wall and an outer wall, said method comprising the steps of a) collecting a slag in said slag pot or ladle of a pyro-metallurgical tool, b) transporting said slag pot or ladle from said pyro-metallurgical tool to a slag drop-off site, typically a landfill site, c) emptying said pot or ladle at said slag drop-off site, typically at the landfill site to dispose of the slag contained therein, d) spraying a mineral suspension onto said inner wall of said slag pot or ladle, prior to at least one step of said collection of said slag, so as to line said inner wall with a mineral layer, and e) putting into service of said slag pot or ladle lined with said mineral layer for the purpose of collecting slag a), characterised in that said mineral layer is a thin layer coated on the inner wall having a layer thickness of between 0.1 and 5 mm, preferably between 0.15 and 3 mm, more preferably between 0.2 and 2 mm, in particular between 0.5 and 1 mm, and in that said mineral suspension comprises an aqueous phase, a mineral phase and optionally additives, said mineral suspension having a carbohydrate content of between 0.2 and 3%, preferably between 0.4 and 2%, more preferably between 0.5 and 1.5%, even more advantageously between 0.5% and 1% by weight with respect to the total weight of said mineral suspension. a) collecting a slag in said slag pot or ladle of a pyro-metallurgical tool, b) transporting said slag pot or ladle from said pyro-metallurgical tool to a slag drop-off site, typically a landfill site, c) emptying said pot or ladle at said slag drop-off site, typically at the landfill site to dispose of the slag contained therein, d) spraying a mineral suspension onto said inner wall of said slag pot or ladle, prior to at least one step of said collection of said slag, so as to line said inner wall with a mineral layer, and e) putting into service of said slag pot or ladle lined with said mineral layer for the purpose of collecting slag a),
A sheet heating apparatus comprising: a first heating plate that has a first heating surface curved in a convex shape; a second heating plate that has a second heating surface curved in a convex shape; a joining member that integrally joins the first heating plate and the second heating plate together such that the first heating surface and the second heating surface face outward; a heating section that heats the first heating plate and the second heating plate ; and a guide member that guides a sheet such that the sheet comes into contact with the first heating surface and the second heating surface , wherein the joining member is provided with a reinforcing member that joins intermediate portions of the first heating plate and the second heating plate in the sheet transporting direction together, and a length of the reinforcing member in a width direction of each of the heating plates and is almost the same length as the width of each of the heating plates and . a first heating plate that has a first heating surface curved in a convex shape; a second heating plate that has a second heating surface curved in a convex shape; a joining member that integrally joins the first heating plate and the second heating plate together such that the first heating surface and the second heating surface face outward; a heating section that heats the first heating plate and the second heating plate ; and a guide member that guides a sheet such that the sheet comes into contact with the first heating surface and the second heating surface , wherein the joining member is provided with a reinforcing member that joins intermediate portions of the first heating plate and the second heating plate in the sheet transporting direction together, and a length of the reinforcing member in a width direction of each of the heating plates and is almost the same length as the width of each of the heating plates and .