mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing an interior cladding part for a vehicle , comprising the following steps: providing (S1) a fibre mat , which includes a fibre mixture comprising at least natural fibres (N) and at least one meltable plastic (K) as main constituents; heating (S2) the fibre mat to a drying temperature range (ΔT tr ) and holding the drying temperature range (ΔT tr ) over a drying time (Δt tr ); compressing (S3) the fibre mat during the heating step (S2) to a preliminary compression density, wherein the drying time (Δt tr ) ends before the preliminary compression density is reached; heating (S4) the fibre mat above at least a melting temperature of the meltable plastic (K) after the drying time (Δt tr ) has elapsed; carrying out a final compression (S5) of the fibre mat to form a fibre moulding ; applying (S8) an adhesion promoter layer to at least one surface portion of the fibre moulding ; applying (S9) a coating layer to the surface portion which is covered with the adhesion promoter layer to form a decorative layer . providing (S1) a fibre mat , which includes a fibre mixture comprising at least natural fibres (N) and at least one meltable plastic (K) as main constituents; heating (S2) the fibre mat to a drying temperature range (ΔT tr ) and holding the drying temperature range (ΔT tr ) over a drying time (Δt tr ); compressing (S3) the fibre mat during the heating step (S2) to a preliminary compression density, wherein the drying time (Δt tr ) ends before the preliminary compression density is reached; heating (S4) the fibre mat above at least a melting temperature of the meltable plastic (K) after the drying time (Δt tr ) has elapsed; carrying out a final compression (S5) of the fibre mat to form a fibre moulding ; applying (S8) an adhesion promoter layer to at least one surface portion of the fibre moulding ; applying (S9) a coating layer to the surface portion which is covered with the adhesion promoter layer to form a decorative layer .
A polyethylene resin composition comprising from 20 to 80 wt% of a high-density polyethylene (A) satisfying characteristics (a) and (b) described below, from 5 to 50 wt% of a linear low-density polyethylene (B1) satisfying characteristics (c) and (d) described below, and from 5 to 40 wt% of an ethylene-based polymer (C) satisfying characteristics (e) to (h) described below, a total of (A), (B1), and (C) being 100 wt%: (a) Density is from 945 to 970 kg/m 3 ; (b) MFR is from 0.1 to 15.0 g/10 min; (c) Density is from 890 to 915 kg/m 3 ; (d) MFR is from 0.1 to 15.0 g/10 min; (e) Density is from 930 to 960 kg/m 3 ; (f) MFR is from 0.1 to 15.0 g/10 min; (g) Two peaks appear in molecular weight measurement by gel permeation chromatography, and a ratio (Mw/Mn) of weight-average molecular weight (Mw) to number-average molecular weight (Mn) is from 2.0 to 7.0; (h) A fraction having Mn of not less than 100,000 obtained by molecular-weight fractionation has 0.15 or more long-chain branches per 1,000 carbons of a main chain, wherein the MFR and the density are measured according to JIS K6922-1 and long chain branching is determined by 13 C-NMR. (a) Density is from 945 to 970 kg/m 3 ; (b) MFR is from 0.1 to 15.0 g/10 min; (c) Density is from 890 to 915 kg/m 3 ; (d) MFR is from 0.1 to 15.0 g/10 min; (e) Density is from 930 to 960 kg/m 3 ; (f) MFR is from 0.1 to 15.0 g/10 min; (g) Two peaks appear in molecular weight measurement by gel permeation chromatography, and a ratio (Mw/Mn) of weight-average molecular weight (Mw) to number-average molecular weight (Mn) is from 2.0 to 7.0; (h) A fraction having Mn of not less than 100,000 obtained by molecular-weight fractionation has 0.15 or more long-chain branches per 1,000 carbons of a main chain, wherein the MFR and the density are measured according to JIS K6922-1 and long chain branching is determined by 13 C-NMR.
A heat exchanger, comprising: a first header and a second header ; a plurality of flat pipes , each of the plurality of flat pipes defining a first end connected with the first header and a second end connected with the second header , and the plurality of flat pipes being arranged and spaced apart from each other in axial directions of the first header and the second header ; a plurality of fins , each of the plurality of fins being disposed between adjacent flat pipes , the plurality of fins comprising a first fin , a second fin and a third fin , wherein the heat exchanger has a bending segment (S) and a straight segment (T) adjacent to the bending segment (S), the first fin is in the straight segment (T), the second fin and the third fin are in the bending segment (S), a width of the second fin is larger than a width of the third fin , and the second fin and the third fin are alternately arranged in the axial directions, a centerline of the second fin extending in a thickness direction of the flat pipe and a centerline of the third fin extending in the thickness direction of the flat pipe are staggered with each other in a plane orthogonal to a length direction of the flat pipe , characterised in that the width of the second fin and the width of the third fin are both less than a width of the first fin . a first header and a second header ; a plurality of flat pipes , each of the plurality of flat pipes defining a first end connected with the first header and a second end connected with the second header , and the plurality of flat pipes being arranged and spaced apart from each other in axial directions of the first header and the second header ; a plurality of fins , each of the plurality of fins being disposed between adjacent flat pipes , the plurality of fins comprising a first fin , a second fin and a third fin , wherein the heat exchanger has a bending segment (S) and a straight segment (T) adjacent to the bending segment (S), the first fin is in the straight segment (T), the second fin and the third fin are in the bending segment (S), a width of the second fin is larger than a width of the third fin , and the second fin and the third fin are alternately arranged in the axial directions, a centerline of the second fin extending in a thickness direction of the flat pipe and a centerline of the third fin extending in the thickness direction of the flat pipe are staggered with each other in a plane orthogonal to a length direction of the flat pipe , characterised in that the width of the second fin and the width of the third fin are both less than a width of the first fin .
A catalyst for purifying exhaust gas, which has a substrate and a catalyst coating layer formed on the substrate, wherein the catalyst coating layer comprises a ceria-zirconia-based composite oxide having a pyrochlore structure in an amount of 5 to 100 g/L based on the volume of the substrate, wherein the ceria-zirconia-based composite oxide has a secondary particle size D50 of 3 μm to 7 μm, the secondary particle size D50 being a particle size at 50% of a cumulative volume distribution curve when the total volume is 100% for the particle size distribution on a volumetric basis obtained via measurement by the laser diffraction scattering method, and wherein the ceria-zirconia-based composite oxide optionally contains praseodymium.
A shank adapter of a rock drilling machine comprising: a coupling head for connecting a drilling tool having an outer diameter (D1); a rotation portion which is located at an opposite end portion of the shank adapter relative to the coupling head and is a provided with several splines for transmitting torque having an outer diameter (D4); a flushing portion which is located between the coupling head and the rotation portion and is provided with a transverse flushing opening being in fluid communication with an axial flushing passage extending to a distal end of the shank adapter at the coupling head side end having an outer diameter (D3); a bearing portion which is located between the coupling head and the rotation portion having an outer diameter (D2); an impact portion having an impact surface and an outer diameter (D5) which is located at the rotation portion end characterized in that outer diameters (D1, D4) of the coupling head and the rotation portion are both greater than outer diameters (D3, D2, D5) of the flushing portion , and the bearing portion positioned between them, and the impact portion, wherein the smallest diameter of the two outer diameters (D1, D4) of the coupling head and the rotation portion is at least 5 % greater than the greatest outer diameter (D2, D3) between them. a coupling head for connecting a drilling tool having an outer diameter (D1); a rotation portion which is located at an opposite end portion of the shank adapter relative to the coupling head and is a provided with several splines for transmitting torque having an outer diameter (D4); a flushing portion which is located between the coupling head and the rotation portion and is provided with a transverse flushing opening being in fluid communication with an axial flushing passage extending to a distal end of the shank adapter at the coupling head side end having an outer diameter (D3); a bearing portion which is located between the coupling head and the rotation portion having an outer diameter (D2); an impact portion having an impact surface and an outer diameter (D5) which is located at the rotation portion end characterized in that outer diameters (D1, D4) of the coupling head and the rotation portion are both greater than outer diameters (D3, D2, D5) of the flushing portion , and the bearing portion positioned between them, and the impact portion, wherein the smallest diameter of the two outer diameters (D1, D4) of the coupling head and the rotation portion is at least 5 % greater than the greatest outer diameter (D2, D3) between them.
A method to provide a controlled current to an electrode, comprising: - receiving an amperage parameter of a welding device from an interface ; - determining, with a logic circuit , a voltage set point based on the amperage parameter and a voltage correction factor; - outputting, with a power conversion circuit controlled by the logic circuit , weld current based on the amperage parameter and the voltage set point; characterized by - comparing a measured voltage corresponding to the weld current to a threshold; wherein the logic circuit is configured to adjust an amperage of the weld current, when the measured voltage satisfies the threshold, based on the amperage parameter, the voltage set point, and the measured voltage using a sloping amperage-voltage relationship. - receiving an amperage parameter of a welding device from an interface ; - determining, with a logic circuit , a voltage set point based on the amperage parameter and a voltage correction factor; - outputting, with a power conversion circuit controlled by the logic circuit , weld current based on the amperage parameter and the voltage set point; characterized by - comparing a measured voltage corresponding to the weld current to a threshold; wherein the logic circuit is configured to adjust an amperage of the weld current, when the measured voltage satisfies the threshold, based on the amperage parameter, the voltage set point, and the measured voltage using a sloping amperage-voltage relationship.
A display device comprising: a support frame having an accommodation space; a display module in the accommodation space; a window on the display module , and having a transmissive area and a non-transmissive area ; a light-blocking layer at the non-transmissive area of the window ; and an adhesive member between the light-blocking layer and the support frame , wherein the window is attached to the support frame by the adhesive member characterized in that the adhesive member comprises: an adhesive polymer matrix; a ruptured shell structure ; and an exothermic curing agent , wherein the adhesive polymer matrix comprises an adhesive polymer resin , a monomer, and a curing accelerator . a support frame having an accommodation space; a display module in the accommodation space; a window on the display module , and having a transmissive area and a non-transmissive area ; a light-blocking layer at the non-transmissive area of the window ; and an adhesive member between the light-blocking layer and the support frame , wherein the window is attached to the support frame by the adhesive member characterized in that the adhesive member comprises: an adhesive polymer matrix; a ruptured shell structure ; and an exothermic curing agent , an adhesive polymer matrix; a ruptured shell structure ; and an exothermic curing agent , wherein the adhesive polymer matrix comprises an adhesive polymer resin , a monomer, and a curing accelerator .
A hard coat laminated film comprising, in order from a surface layer side, a first hard coat and a transparent resin film layer, wherein the first hard coat is formed by a coating material comprising: (A) 100 parts by mass of a multifunctional (meth)acrylate comprising 20 mass% or more of tripentaerythritol acrylate; and (B) 0.01 to 7 parts by mass of a (meth)acryloyl group-containing fluoropolyether water repellent based on 100 parts by mass of component (A); wherein the first hard coat contains less than 1 part by mass of inorganic particles based on 100 parts by mass of component (A); wherein the thickness of the first hard coat is more than 5 μm and 60 μm or less; wherein the hard coat laminated film has a yellowness index of 3 or less as measured according to the description; and wherein the hard coat laminated film has a total light transmittance of 85% or more, as measured with a turbidimeter in accordance with JIS K7361-1:1997. wherein the first hard coat is formed by a coating material comprising: (A) 100 parts by mass of a multifunctional (meth)acrylate comprising 20 mass% or more of tripentaerythritol acrylate; and (B) 0.01 to 7 parts by mass of a (meth)acryloyl group-containing fluoropolyether water repellent based on 100 parts by mass of component (A); (A) 100 parts by mass of a multifunctional (meth)acrylate comprising 20 mass% or more of tripentaerythritol acrylate; and (B) 0.01 to 7 parts by mass of a (meth)acryloyl group-containing fluoropolyether water repellent based on 100 parts by mass of component (A); wherein the first hard coat contains less than 1 part by mass of inorganic particles based on 100 parts by mass of component (A); wherein the thickness of the first hard coat is more than 5 μm and 60 μm or less; wherein the hard coat laminated film has a yellowness index of 3 or less as measured according to the description; and wherein the hard coat laminated film has a total light transmittance of 85% or more, as measured with a turbidimeter in accordance with JIS K7361-1:1997.
A heater assembly for use in chromatography, comprising: a thermally conductive base having a first side, a second side opposite the first side, a chamber extending fully through the base with an opening at the first side of the base and at the second side of the base , and a cavity with an opening at the second side of the base ; a heater disposed within the cavity in thermal communication with the base ; and a thermistor assembly disposed within the chamber of the base , the thermistor assembly having a temperature-sensing element substantially isolated thermally from the base , the thermistor assembly having a surface for thermal communication with a fluidic block , in use, to conduct heat from the fluidic block to the temperature-sensing element, the temperature-sensing element configured to be substantially uninfluenced by a temperature of the base because of the thermal isolation of the temperature-sensing element from the base . a thermally conductive base having a first side, a second side opposite the first side, a chamber extending fully through the base with an opening at the first side of the base and at the second side of the base , and a cavity with an opening at the second side of the base ; a heater disposed within the cavity in thermal communication with the base ; and a thermistor assembly disposed within the chamber of the base , the thermistor assembly having a temperature-sensing element substantially isolated thermally from the base , the thermistor assembly having a surface for thermal communication with a fluidic block , in use, to conduct heat from the fluidic block to the temperature-sensing element, the temperature-sensing element configured to be substantially uninfluenced by a temperature of the base because of the thermal isolation of the temperature-sensing element from the base .
A process for converting natural gas byproducts to synthetic fuel, comprising: - providing a source of natural gas containing byproducts, wherein the byproducts comprise ethane, propane, butane and pentane plus; - extracting byproduct fractions consisting of propane and/or butane from said natural gas; and - converting a feedstock consisting of the extracted propane and/or butane in a fuel synthesis circuit to a synthetic fuel, wherein said fuel synthesis circuit is a gas-to-liquid (GLT) plant including a Fischer-Tropsch reactor. - providing a source of natural gas containing byproducts, wherein the byproducts comprise ethane, propane, butane and pentane plus; - extracting byproduct fractions consisting of propane and/or butane from said natural gas; and - converting a feedstock consisting of the extracted propane and/or butane in a fuel synthesis circuit to a synthetic fuel, wherein said fuel synthesis circuit is a gas-to-liquid (GLT) plant including a Fischer-Tropsch reactor.
A control circuit for monitoring the operation of an implantable blood pump, the control circuit comprising: a threshold value determination circuit operative to repeatedly determine a threshold value of a parameter related to thrust along an axis of a rotor of the pump based on values of the parameter occurring during a period of time prior to each determination; a comparison circuit operative to compare one or more values of the parameter with the threshold value from the last previous determination; and a condition determination circuit operative to determine the presence or absence of one of a suction condition and a suction clearance condition based at least in part on the result yielded by the comparison circuit. a threshold value determination circuit operative to repeatedly determine a threshold value of a parameter related to thrust along an axis of a rotor of the pump based on values of the parameter occurring during a period of time prior to each determination; a comparison circuit operative to compare one or more values of the parameter with the threshold value from the last previous determination; and a condition determination circuit operative to determine the presence or absence of one of a suction condition and a suction clearance condition based at least in part on the result yielded by the comparison circuit.
A staple cartridge , comprising: a cartridge body comprising a plurality of staple cavities ; a plurality of staples , wherein at least a portion of each said staple is removably stored within a said staple cavity, wherein each said staple is movable between an unfired position and a fired position, and wherein each said staple comprises an unfired height and a fired height; and an implantable tissue thickness compensator comprising an uncompressed height, wherein said tissue thickness compensator is comprised of a porous material having a porosity of at least 85 percent and the porous material is an elastic material having a durometer of less than 15 Shore A, wherein said tissue thickness compensator is configured to be captured within said staples, and wherein said tissue thickness compensator is configured to assume different compressed heights within different said staples. a cartridge body comprising a plurality of staple cavities ; a plurality of staples , wherein at least a portion of each said staple is removably stored within a said staple cavity, wherein each said staple is movable between an unfired position and a fired position, and wherein each said staple comprises an unfired height and a fired height; and an implantable tissue thickness compensator comprising an uncompressed height, wherein said tissue thickness compensator is comprised of a porous material having a porosity of at least 85 percent and the porous material is an elastic material having a durometer of less than 15 Shore A, wherein said tissue thickness compensator is configured to be captured within said staples, and wherein said tissue thickness compensator is configured to assume different compressed heights within different said staples.
Method for operating a drive device for a motor vehicle, wherein the drive device has an externally excited electrical synchronous machine for providing a drive torque and for generating an excitation field an electrical voltage is applied to an excitation winding of the synchronous machine , wherein for building up the excitation field the voltage applied to the excitation winding is selected to be temporarily greater than a target voltage and after the building-up of the excitation field the voltage is lowered in the direction of the target voltage, wherein the voltage selected to be greater is provided by means of a voltage converter, characterised in that the target voltage is equal to a source voltage.
A method of internal leak repair and corrosion control in pipes, the method comprising at least the following three steps: (i) air drying a piping system to be serviced; (ii) profiling the piping system using an abrasive cleaning agent; and (iii) applying a barrier coating leak sealant to the interior walls of the pipes in the piping system, wherein step (iii) includes the following steps: (a) placing the barrier coating leak sealant into an epoxy carrying tube or injection device; (b) injecting the barrier coating leak sealant into the piping system using hot, pre-filtered, moisture free and oil free compressed air at temperatures, air volume and pressure levels to distribute the epoxy barrier coating leak sealant throughout the pipe segment, in sufficient amounts to eliminate the water to pipe contact in order to create an epoxy barrier coating on the inside of the pipe and seal the leak in a single operation, wherein during this wetting out stage a vacuum filter is used in conjunction with a compressor to assist the wetting out of the coating material, and wherein at all times and throughout the piping system a positive pressure must be maintained on the inside of the pipe; and (c) applying warm, pre-filtered, moisture free and oil free compressed air to create a positive pressure inside the pipe with a continuous positive pressure throughout the piping system maintained of at least approximately 10.34 kPa (1.5 P.S.I.) over the internal surface of the pipe to achieve the initial set of the epoxy barrier coating sealant. (i) air drying a piping system to be serviced; (ii) profiling the piping system using an abrasive cleaning agent; and (iii) applying a barrier coating leak sealant to the interior walls of the pipes in the piping system, (a) placing the barrier coating leak sealant into an epoxy carrying tube or injection device; (b) injecting the barrier coating leak sealant into the piping system using hot, pre-filtered, moisture free and oil free compressed air at temperatures, air volume and pressure levels to distribute the epoxy barrier coating leak sealant throughout the pipe segment, in sufficient amounts to eliminate the water to pipe contact in order to create an epoxy barrier coating on the inside of the pipe and seal the leak in a single operation, wherein during this wetting out stage a vacuum filter is used in conjunction with a compressor to assist the wetting out of the coating material, and wherein at all times and throughout the piping system a positive pressure must be maintained on the inside of the pipe; and (c) applying warm, pre-filtered, moisture free and oil free compressed air to create a positive pressure inside the pipe with a continuous positive pressure throughout the piping system maintained of at least approximately 10.34 kPa (1.5 P.S.I.) over the internal surface of the pipe to achieve the initial set of the epoxy barrier coating sealant.