mhurhangee/patent-ind-claim-en huggingface dataset:
A system for aligning and welding together two segments of a pipe, the system comprising: a welding mechanism for applying a weld to a face joint of the two pipe segments, the welding mechanism including an articulating torch , a sensor for tracking the face joint of the two segments of the pipe and detecting a profile of the face joint of the two segments of the pipe, and an electronic controller for receiving information on the face joint profile from the sensor to control a position and/or orientation of the torch ; an alignment mechanism for manipulating the orientation of the longitudinal axis of at least one of the pipe segments relative to the other; and wherein the welding mechanism further includes a carriage for securing a position of the welding mechanism in the pipe and a welding portion capable of rotating relative to the carriage within the pipe about the longitudinal axis of at least one of the segments; and wherein the torch and the sensor are rotatably supported by the welding portion such that during welding, the torch follows the sensor along the face joint; characterized in that the sensor comprises a laser sensor , and the electronic controller is configured to receive a signal from the laser sensor to direct the alignment mechanism to adjust the relative positions of the pipe segments based on the detected profile of the face joint. a welding mechanism for applying a weld to a face joint of the two pipe segments, the welding mechanism including an articulating torch , a sensor for tracking the face joint of the two segments of the pipe and detecting a profile of the face joint of the two segments of the pipe, and an electronic controller for receiving information on the face joint profile from the sensor to control a position and/or orientation of the torch ; an alignment mechanism for manipulating the orientation of the longitudinal axis of at least one of the pipe segments relative to the other; and wherein the welding mechanism further includes a carriage for securing a position of the welding mechanism in the pipe and a welding portion capable of rotating relative to the carriage within the pipe about the longitudinal axis of at least one of the segments; and wherein the torch and the sensor are rotatably supported by the welding portion such that during welding, the torch follows the sensor along the face joint; characterized in that the sensor comprises a laser sensor , and the electronic controller is configured to receive a signal from the laser sensor to direct the alignment mechanism to adjust the relative positions of the pipe segments based on the detected profile of the face joint.
A self-cooling headset comprising: an ear cup to form an ear enclosure when placed over a user's ear; an exit port and an entry port formed in the ear cup ; a first check valve at the exit port to open and release a volume of air from the ear enclosure through the exit port when a positive pressure within the ear enclosure overcomes a cracking pressure of the first check valve ; and a second check valve at the entry port to open and admit a volume of air from the ambient environment through the entry port into the ear enclosure when a partial vacuum within the ear enclosure causes an external pressure to overcome a cracking pressure of the second check valve ; characterized in that the exit port is located towards a top of the ear cup to facilitate removal of warm air from the enclosure and the entry port is located towards a bottom of the ear cup . an ear cup to form an ear enclosure when placed over a user's ear; an exit port and an entry port formed in the ear cup ; a first check valve at the exit port to open and release a volume of air from the ear enclosure through the exit port when a positive pressure within the ear enclosure overcomes a cracking pressure of the first check valve ; and a second check valve at the entry port to open and admit a volume of air from the ambient environment through the entry port into the ear enclosure when a partial vacuum within the ear enclosure causes an external pressure to overcome a cracking pressure of the second check valve ; characterized in that the exit port is located towards a top of the ear cup to facilitate removal of warm air from the enclosure and the entry port is located towards a bottom of the ear cup .
Upper covering part forming a lid for battery housing for an electric vehicle comprising at least a thermoplastic carrier shaped to form the covering lid characterized in that the outer surface of the covering lid not facing the battery pack is coated with a conductive paint comprising conductive metal or conductive metal-coated particles, and whereby the assembly of the thermoplastic carrier and of the coating has an electromagnetic shielding effectiveness of at least 50dB, preferably at least 60dB, at RF frequencies between 1kHz and 1.5GHz according to ASTM D4935-10 and whereby the conductive coating layer has a thickness of between 20 and 150μm.
A lithographic apparatus comprising an object, the object comprising: a substrate and optionally a lower layer on the substrate; an upper layer ; and an intermediate layer between the upper layer and the substrate or lower layer, characterized in that a bond strength between the intermediate layer and the substrate or lower layer being greater than a bond strength between the intermediate layer and the upper layer and the intermediate layer has a Young's Modulus and/or a Poisson ratio within 20% of that of the upper layer. a substrate and optionally a lower layer on the substrate; an upper layer ; and an intermediate layer between the upper layer and the substrate or lower layer, characterized in that a bond strength between the intermediate layer and the substrate or lower layer being greater than a bond strength between the intermediate layer and the upper layer and the intermediate layer has a Young's Modulus and/or a Poisson ratio within 20% of that of the upper layer.
A method of joining a header to a series of tubular members for a heat exchanger, comprising the steps of: a) providing a series of generally flat or oval tubular members formed from an alloy of CuZnFe, wherein the alloy of CuZnFe comprises 14-31% by weight zinc, 0.7-1.5% by weight iron, 0.001-0.050% by weight phosphorous and 0-0.09% by weight arsenic, and a balance of the alloy being copper and incidental impurities; b) transforming at least one end portion of each of said tubular members into a generally round shape, c) providing a header formed from a stainless steel material, wherein the stainless steel material is a 304 stainless steel, said header including a plurality of openings extending therethrough, wherein said CuZnFe alloy and said stainless steel material have similar coefficients of thermal expansion; d) inserting each of said rounded end portions of said tubular members within a corresponding opening within said header to form the heat exchanger, and e) mechanically expanding said end portions of said tubular members to bring said end portions into contact with said header and to join said end portions of said tubular members within said openings of said header , wherein the stainless steel material used gives a significant increase in thermal expansion as compared to plain carbon steel, allowing to mechanically join the tubular members and the header without using any other bonding or filling agent. a) providing a series of generally flat or oval tubular members formed from an alloy of CuZnFe, wherein the alloy of CuZnFe comprises 14-31% by weight zinc, 0.7-1.5% by weight iron, 0.001-0.050% by weight phosphorous and 0-0.09% by weight arsenic, and a balance of the alloy being copper and incidental impurities; b) transforming at least one end portion of each of said tubular members into a generally round shape, c) providing a header formed from a stainless steel material, wherein the stainless steel material is a 304 stainless steel, said header including a plurality of openings extending therethrough, wherein said CuZnFe alloy and said stainless steel material have similar coefficients of thermal expansion; d) inserting each of said rounded end portions of said tubular members within a corresponding opening within said header to form the heat exchanger, and e) mechanically expanding said end portions of said tubular members to bring said end portions into contact with said header and to join said end portions of said tubular members within said openings of said header , wherein the stainless steel material used gives a significant increase in thermal expansion as compared to plain carbon steel, allowing to mechanically join the tubular members and the header without using any other bonding or filling agent.
Electric plug connector (1.1) having - an outer conductor (2.0) which comprise a sheath , - an inner conductor (3.0) and - a dielectric (4.0) implemented as a cylindrically formed dielectric body with an inner bore for receiving the inner conductor (3.0), wherein - the sheath is implemented with an axial retention segment (2.1) and with an axial compensation segment (2.2) which are connected via an axial curved segment (2.3), - the curved segment (2.3) comprises at least one slit (5.1) extending along a circumferential line (L1) of the sheath , wherein the non-slit region is implemented as a connection bridge (5.0) which connects the retention segment (2.1) to the compensation element (2.2), and - the dielectric body comprises a first dielectric body (4.1) arranged in the retention segment (2.1) and a second dielectric body (4.2) arranged in the compensation segment (2.2), wherein the first and second dielectric bodies (4.1, 4.2) are arranged in the sheath at a distance to each other, characterized in that the outer conductor (2.0) comprises at least one inner sheath which is arranged on the inside of the sheath and which extends in axial direction over a partial segment of the sheath and in that the inner sheath extends over the curved segment (2.3). - an outer conductor (2.0) which comprise a sheath , - an inner conductor (3.0) and - a dielectric (4.0) implemented as a cylindrically formed dielectric body with an inner bore for receiving the inner conductor (3.0), wherein - the sheath is implemented with an axial retention segment (2.1) and with an axial compensation segment (2.2) which are connected via an axial curved segment (2.3), - the curved segment (2.3) comprises at least one slit (5.1) extending along a circumferential line (L1) of the sheath , wherein the non-slit region is implemented as a connection bridge (5.0) which connects the retention segment (2.1) to the compensation element (2.2), - the dielectric body comprises a first dielectric body (4.1) arranged in the retention segment (2.1) and a second dielectric body (4.2) arranged in the compensation segment (2.2), wherein the first and second dielectric bodies (4.1, 4.2) are arranged in the sheath at a distance to each other,
Combination comprising collagen peptide and whey protein for use in decreasing inflammation in skeletal muscle inflammation.
A composition for use in prevention, improvement or treatment of metabolic syndrome, comprising a complex of Indian gooseberry (Emblica officinalis) extract and barley sprout (Hordeum vulgare) extract as an active ingredient, wherein the Indian gooseberry extract comprises 1 to 5 mg/g of ellagic acid under the condition of acid hydrolysis, or 5 to 25 mg/g of free ellagic acid under the condition of no acid hydrolysis, wherein the barely sprout extract comprises 6 to 11 mg/g of saponarin, and wherein the weight ratio of Indian gooseberry extract to barley sprout extract (Indian gooseberry extract: barley sprout extract) is 4:1 - 1:1. wherein the Indian gooseberry extract comprises 1 to 5 mg/g of ellagic acid under the condition of acid hydrolysis, or 5 to 25 mg/g of free ellagic acid under the condition of no acid hydrolysis, wherein the barely sprout extract comprises 6 to 11 mg/g of saponarin, and wherein the weight ratio of Indian gooseberry extract to barley sprout extract (Indian gooseberry extract: barley sprout extract) is 4:1 - 1:1.
A method of degrading perfluoroalkyl compounds in a site, the method comprising the steps of: forming a mixture comprising a plurality of bubbles having a diameter less than 10 μm and a solution comprising a hydroperoxide, wherein the bubbles contain gas phase ozone at a concentration greater than or equal to 1000 ppmV; and providing the mixture to a site; and thermally activating the plurality of bubbles to a temperature greater than or equal to 40 °C, wherein the thermally activated plurality of bubbles have an oxidation potential greater than or equal to 2.9 volts and up to 3.0 volts, thereby degrading perfluoroalkyl compounds in the site, wherein the site is a groundwater or soil treatment site. forming a mixture comprising a plurality of bubbles having a diameter less than 10 μm and a solution comprising a hydroperoxide, wherein the bubbles contain gas phase ozone at a concentration greater than or equal to 1000 ppmV; and providing the mixture to a site; and thermally activating the plurality of bubbles to a temperature greater than or equal to 40 °C, wherein the thermally activated plurality of bubbles have an oxidation potential greater than or equal to 2.9 volts and up to 3.0 volts, thereby degrading perfluoroalkyl compounds in the site, wherein the site is a groundwater or soil treatment site.
A swage tool for swaging axially swaged fittings comprising: a housing having an inner surface and a first yoke ; a ram having a recessed portion ; a piston having a second yoke ; a piston rod having a spring holder , said piston rod engaging said recessed portion ; a spring connected to the spring holder ; and bearings provided on the ram and on an outer surface portion of the piston rod in axial slidable engagement with the inner surface of the housing such that the ram and the outer surface portion of the piston rod do not directly slidably engage in with the inner surface of the housing ; characterized in that said piston rod comprises a threaded portion screwed into a threaded inner surface portion of the ram; and said bearings provided on the ram and on the outer surface portion of the piston rod are carbon fiber bearings. a housing having an inner surface and a first yoke ; a ram having a recessed portion ; a piston having a second yoke ; a piston rod having a spring holder , said piston rod engaging said recessed portion ; a spring connected to the spring holder ; and bearings provided on the ram and on an outer surface portion of the piston rod in axial slidable engagement with the inner surface of the housing such that the ram and the outer surface portion of the piston rod do not directly slidably engage in with the inner surface of the housing ; characterized in that said piston rod comprises a threaded portion screwed into a threaded inner surface portion of the ram; and said bearings provided on the ram and on the outer surface portion of the piston rod are carbon fiber bearings.
A rotor for a wind power installation , having at least one rotor blade which is connected by means of a face side to a rotor hub, wherein the rotor blade comprises - a transverse bolt recess which extends substantially radially with respect to the longitudinal axis of the rotor blade and in which a transverse bolt is arranged, - wherein the transverse bolt has a transverse bolt opening, - a longitudinal bolt recess which extends substantially parallel to the longitudinal axis of the rotor blade , - wherein the longitudinal bolt recess and the transverse bolt recess and/or transverse bolt opening have a common passage, and a longitudinal bolt is arranged within the longitudinal bolt recess and within the transverse bolt opening, - a sleeve is arranged in the longitudinal bolt recess, - wherein the longitudinal bolt extends through a cavity of the sleeve, - characterized in that the sleeve extends from a first sleeve end to a second sleeve end , comprising a first sleeve section , adjoining the first sleeve end, with a first outer diameter and comprising a second sleeve section , adjoining the second sleeve end, with a second outer diameter, wherein the first outer diameter differs from the second outer diameter in terms of its dimensions, wherein the first and/or second sleeve section is arranged within the transverse bolt opening. - a transverse bolt recess which extends substantially radially with respect to the longitudinal axis of the rotor blade and in which a transverse bolt is arranged, - wherein the transverse bolt has a transverse bolt opening, - a longitudinal bolt recess which extends substantially parallel to the longitudinal axis of the rotor blade , - wherein the longitudinal bolt recess and the transverse bolt recess and/or transverse bolt opening have a common passage, and a longitudinal bolt is arranged within the longitudinal bolt recess and within the transverse bolt opening, - a sleeve is arranged in the longitudinal bolt recess, - wherein the longitudinal bolt extends through a cavity of the sleeve, - characterized in that the sleeve extends from a first sleeve end to a second sleeve end , comprising a first sleeve section , adjoining the first sleeve end, with a first outer diameter and comprising a second sleeve section , adjoining the second sleeve end, with a second outer diameter, wherein the first outer diameter differs from the second outer diameter in terms of its dimensions, wherein the first and/or second sleeve section is arranged within the transverse bolt opening.
Side bracket for a link for a line-routing device , wherein the side bracket has a longitudinal periphery which extends in a longitudinal direction of the side bracket and on which a running surface is formed, wherein the side bracket has a roller which is mounted so as to be rotatable about an axle , wherein the axle is disposed so as to be parallel to the running surface and perpendicular to the longitudinal direction , wherein a spacing between the running surface and the axle is variable in a damped manner, and wherein the roller , at least in a first position, protrudes from the running surface , characterized in that a variability of the spacing between the running surface and the axle is restricted to the first position of the roller and to a second position of the roller , and wherein the roller in the second position protrudes from the running surface .
A method for producing an undiluted microbial cell dispersion comprising: a primary disintegrating step of disintegrating aggregates of dead microbial cells or thermoduric microbial cells (thermoduric spores) into individual microbial cells in an aqueous medium by a mechanical disintegrating force; a dissolution step of heating and stirring a polysaccharide-microbial cell dispersion that is obtained by dispersing an aqueous gelling or thickening polysaccharide in the microbial cell dispersion to a temperature equal to or higher than a dissolution temperature of the polysaccharide; a cooling step of cooling the polysaccharide-microbial cell dispersion to a temperature equal to or lower than an aqueous gelling or thickening temperature; a secondary disintegrating step of re-disintegrating the cooled polysaccharide-microbial cell dispersion by a mechanical disintegrating force; and a filling step of reheating the secondarily disintegrated polysaccharide-microbial cell dispersion to a temperature before the aqueous gelling or thickening polysaccharide is redissolved and filling the polysaccharide-microbial cell dispersion to a container, wherein the gelling or thickening polysaccharide is selected from the group consisting of agar, carrageenan, gellan gum, pectin, xanthan gum and guar gum. a primary disintegrating step of disintegrating aggregates of dead microbial cells or thermoduric microbial cells (thermoduric spores) into individual microbial cells in an aqueous medium by a mechanical disintegrating force; a dissolution step of heating and stirring a polysaccharide-microbial cell dispersion that is obtained by dispersing an aqueous gelling or thickening polysaccharide in the microbial cell dispersion to a temperature equal to or higher than a dissolution temperature of the polysaccharide; a cooling step of cooling the polysaccharide-microbial cell dispersion to a temperature equal to or lower than an aqueous gelling or thickening temperature; a secondary disintegrating step of re-disintegrating the cooled polysaccharide-microbial cell dispersion by a mechanical disintegrating force; and a filling step of reheating the secondarily disintegrated polysaccharide-microbial cell dispersion to a temperature before the aqueous gelling or thickening polysaccharide is redissolved and filling the polysaccharide-microbial cell dispersion to a container,
A carbamate compound of the following Formula 1, or a pharmaceutically acceptable salt, solvate or hydrate thereof for use in the prevention or treatment of fibromyalgia or associated functional symptoms of fibromyalgia: wherein, R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, C 1 -C 8 alkyl, halo-Ci-Cs alkyl, C 1 -C 8 thioalkoxy and C 1 -C 8 alkoxy; and one of A 1 and A 2 is CH, and the other is N. R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, C 1 -C 8 alkyl, halo-Ci-Cs alkyl, C 1 -C 8 thioalkoxy and C 1 -C 8 alkoxy; and one of A 1 and A 2 is CH, and the other is N.
A packing section for installation in a shell to form a gas/liquid separation column, the packing section comprising a fluid treatment block having a generally cylindrical shape extending along a longitudinal direction (L), the treatment block being formed by a stack of fluid treatment plates along the longitudinal direction (L) of the shell , the treatment block having a first discoidal face and a second discoidal face each extending in planes parallel to one another, the treatment block having an outer face extending around the periphery of said treatment block between the first discoidal face and the second discoidal face , the pacing section comprising at least one holding element for the treatment block extending at least partially around the outer face of the treatment block , the holding element comprising a portion for holding the treatment plates of the treatment block in position and a portion disposed at a longitudinal end of the holding element and in contact with the first discoid face , characterised in that a fluid deflection part extends over the periphery of the packing section , the fluid deflection part comprising a substantially cylindrical connecting portion configured to be connected to the treatment block and to the holding element , and a fluid guide portion extending from the connecting portion to the holding element , forming an inclined plane moving away from the outer face of the treatment block as the connecting portion moves away, the fluid return part being separate from the holding element , the connecting portion being interposed between the holding element and the treatment block .