mhurhangee/patent-ind-claim-en huggingface dataset:
A process for producing methyl-substituted biphenyl compounds, the process comprising: (a) contacting a feed comprising at least one aromatic hydrocarbon selected from the group consisting of toluene and mixtures of toluene and xylene with hydrogen in the presence of a hydroalkylation catalyst comprising an acidic component and a hydrogenation component, under conditions effective to produce a hydroalkylation reaction product comprising (methylcyclohexyl)toluenes; and (b) dehydrogenating at least part of the hydroalkylation reaction product in the presence of a dehydrogenation catalyst under conditions effective to produce a dehydrogenation reaction product comprising a mixture of methyl-substituted biphenyl compounds, wherein the acidic component of the hydroalkylation catalyst comprises a molecular sieve, wherein the molecular sieve comprises a molecular sieve of the MCM-22 family. (a) contacting a feed comprising at least one aromatic hydrocarbon selected from the group consisting of toluene and mixtures of toluene and xylene with hydrogen in the presence of a hydroalkylation catalyst comprising an acidic component and a hydrogenation component, under conditions effective to produce a hydroalkylation reaction product comprising (methylcyclohexyl)toluenes; and (b) dehydrogenating at least part of the hydroalkylation reaction product in the presence of a dehydrogenation catalyst under conditions effective to produce a dehydrogenation reaction product comprising a mixture of methyl-substituted biphenyl compounds,
A method of utilizing coefficient of friction data along a portion of a runway comprising: receiving, by a brake control unit , friction estimation map data for the runway wherein the friction estimation map data comprises a measured coefficient of friction mapped to different locations on the runway ; determining a position of the aircraft along the runway . setting, by the brake control unit , a condition of a braking control algorithm based on the received friction estimation map data; initiating, by the brake control unit , a brake control system to slow a wheel of an aircraft based on a calculation of the braking control algorithm; characterized by updating the braking control algorithm based on a substantially real-time position of the wheel along the runway . receiving, by a brake control unit , friction estimation map data for the runway wherein the friction estimation map data comprises a measured coefficient of friction mapped to different locations on the runway ; determining a position of the aircraft along the runway . setting, by the brake control unit , a condition of a braking control algorithm based on the received friction estimation map data; initiating, by the brake control unit , a brake control system to slow a wheel of an aircraft based on a calculation of the braking control algorithm; characterized by updating the braking control algorithm based on a substantially real-time position of the wheel along the runway .
A method for decoding, by a wireless communications receiving apparatus, comprising: receiving polar encoded data; decoding the polar encoded data to obtain a physical broadcast channel, PBCH, payload based on a distributed cyclic redundancy check, D-CRC, interleaving pattern; characterized in that the PBCH payload comprises a synchronization signal block index, SSBI, a size of the PBCH payload is 32, a number of CRC bits are 24, the D-CRC pattern is (0 2 3 5 7 10 11 12 14 15 18 19 21 24 26 30 31 32 1 4 6 8 13 16 20 22 25 27 33 9 17 23 28 34 29 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55), the bits in the PBCH payload corresponding to the set in the D-CRC pattern are the SSBI. receiving polar encoded data; decoding the polar encoded data to obtain a physical broadcast channel, PBCH, payload based on a distributed cyclic redundancy check, D-CRC, interleaving pattern; characterized in that the PBCH payload comprises a synchronization signal block index, SSBI, a size of the PBCH payload is 32, a number of CRC bits are 24, the D-CRC pattern is (0 2 3 5 7 10 11 12 14 15 18 19 21 24 26 30 31 32 1 4 6 8 13 16 20 22 25 27 33 9 17 23 28 34 29 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55), the bits in the PBCH payload corresponding to the set in the D-CRC pattern are the SSBI.
A stick electrode holder comprising: - a stick electrode holding assembly configured to hold a stick electrode ; and - a status indicator of the stick electrode holder configured to provide feedback relating to one or more parameters of a welding process performed by the stick electrode holder , - a display device , wherein the display device is configured to produce a display of a plurality of visual guides relating to a position, orientation, or movement of the stick electrode with respect to a workpiece during performance of the stick welding process, characterized in that the display device comprises a projection system configured to produce a projection of the plurality of visual guides onto the workpiece . - a stick electrode holding assembly configured to hold a stick electrode ; and - a status indicator of the stick electrode holder configured to provide feedback relating to one or more parameters of a welding process performed by the stick electrode holder , - a display device ,
A method for disc authentication, comprising: directing light through a light-transmissive first disc surface towards at least a first data layer ; the method being characterised in that it further comprises: detecting light reflected from one data layer interfering with light reflected from at least one of the first disc surface and another data layer via a photo detector which provides a signal that varies accordingly; determining an optical interference pattern including intensity modulations of the photodetector output signal; authenticating the disc based on a comparison of the determined optical interference pattern and a stored authentication interference pattern. detecting light reflected from one data layer interfering with light reflected from at least one of the first disc surface and another data layer via a photo detector which provides a signal that varies accordingly; determining an optical interference pattern including intensity modulations of the photodetector output signal; authenticating the disc based on a comparison of the determined optical interference pattern and a stored authentication interference pattern.
A composite bonded repair method for an aircraft , the method comprising: scanning, with a scanning unit coupled to a computing device , a portion of an outer skin of an aircraft ; generating a doubling patch of the portion of the outer skin of the aircraft from topographic data scanned by the scanning unit ; filling damage at the portion of the outer skin of the aircraft with filler material ; applying adhesive to the portion of the outer skin of the aircraft and the filler material (30; and adhering the doubling patch to the adhesive , characterized in that the generating of the doubling patch comprises three-dimensional printing. scanning, with a scanning unit coupled to a computing device , a portion of an outer skin of an aircraft ; generating a doubling patch of the portion of the outer skin of the aircraft from topographic data scanned by the scanning unit ; filling damage at the portion of the outer skin of the aircraft with filler material ; applying adhesive to the portion of the outer skin of the aircraft and the filler material (30; and adhering the doubling patch to the adhesive , characterized in that the generating of the doubling patch comprises three-dimensional printing.
A method for measuring fibroblast growth factor-23 (hereinafter indicated as FGF-23) in a sample, wherein the method comprises the steps of: reacting, in an aqueous medium, FGF-23 in a sample with a magnetic particle to which a first antibody or a fragment thereof which binds to FGF-23 has been bonded in advance, and a second antibody or a fragment thereof which binds to FGF-23, to form on the magnetic particle an immunocomplex comprising the first antibody or a fragment thereof which binds to FGF-23, FGF-23, and the second antibody or a fragment thereof which binds to FGF-23; collecting the magnetic particle in the reaction mixture after step by magnetic force, and separating the magnetic particle collected by magnetic force from the other components; and measuring the immunocomplex on the magnetic particle separated in step . reacting, in an aqueous medium, FGF-23 in a sample with a magnetic particle to which a first antibody or a fragment thereof which binds to FGF-23 has been bonded in advance, and a second antibody or a fragment thereof which binds to FGF-23, to form on the magnetic particle an immunocomplex comprising the first antibody or a fragment thereof which binds to FGF-23, FGF-23, and the second antibody or a fragment thereof which binds to FGF-23; collecting the magnetic particle in the reaction mixture after step by magnetic force, and separating the magnetic particle collected by magnetic force from the other components; and measuring the immunocomplex on the magnetic particle separated in step .
An automobile door comprising: an exterior material ; material; and a first impact absorbing member ; and a second impact absorbing member , wherein the first impact absorbing member is disposed to traverse the exterior material so as to extend between both end portion regions in a vehicle height direction, the first impact absorbing member is disposed on a vehicle interior side from the second impact absorbing member , the second impact absorbing member is disposed to traverse the exterior material so as to extend between both end portion regions in a vehicle length direction, the second impact absorbing member is disposed adjacent to an inner surface of the exterior material , the first impact absorbing member and the second impact absorbing member intersect with each other at an intersection portion, and characterized in that at a portion excluding both of the end portion regions in the vehicle height direction, both of the end portion regions in the vehicle length direction, and the intersection portion, bending rigidity in a vehicle width direction of the cross section perpendicular to an extending direction of the first impact absorbing member is larger than bending rigidity in the vehicle width direction of a cross section perpendicular to an extending direction of the second impact absorbing member. an exterior material ; material; and a first impact absorbing member ; and a second impact absorbing member , wherein the first impact absorbing member is disposed to traverse the exterior material so as to extend between both end portion regions in a vehicle height direction, the first impact absorbing member is disposed on a vehicle interior side from the second impact absorbing member , the second impact absorbing member is disposed to traverse the exterior material so as to extend between both end portion regions in a vehicle length direction, the second impact absorbing member is disposed adjacent to an inner surface of the exterior material , the first impact absorbing member and the second impact absorbing member intersect with each other at an intersection portion, and characterized in that at a portion excluding both of the end portion regions in the vehicle height direction, both of the end portion regions in the vehicle length direction, and the intersection portion, bending rigidity in a vehicle width direction of the cross section perpendicular to an extending direction of the first impact absorbing member is larger than bending rigidity in the vehicle width direction of a cross section perpendicular to an extending direction of the second impact absorbing member.
A transport container comprising a transportation space , delimited by side walls of the transport container, for receiving bulk-material-type goods to be transported, which transportation space includes, on its upper side , at least one opening provided for loading with the goods to be transported, wherein the transport container on its upper side includes a grate that at least in part bridges the opening , which grate is arranged between the side walls of the transport container, characterized in that the grate that at least in part bridges the opening is connected in a mechanically fixed manner to at least one side wall , which grate, without having to be removed, permits loading and/or unloading of the transport container with the bulk material through grate openings of the grate , the grate having sufficient strength even when the grate is loaded by pouring the goods to be transported.
A time synchronization packet processing method, applied to a time synchronization node, the method comprising: determining (S11), according to a change condition of received time source information, whether a time source tracked by the time synchronization node changes, wherein the time source information comprises: at least one of a parameter of a receive satellite or a parameter of a satellite receiver; or, a time synchronization packet; and when the time source tracked by the time synchronization node changes and after a predetermined time delay, sending (S12), to a downstream clock node, a time synchronization packet parameter modified according to the change condition of the time source information, wherein within the predetermined time, the time synchronization node maintaines a time synchronization packet parameter transmitted to the downstream clock node unchanged. determining (S11), according to a change condition of received time source information, whether a time source tracked by the time synchronization node changes, wherein the time source information comprises: at least one of a parameter of a receive satellite or a parameter of a satellite receiver; or, a time synchronization packet; and when the time source tracked by the time synchronization node changes and after a predetermined time delay, sending (S12), to a downstream clock node, a time synchronization packet parameter modified according to the change condition of the time source information, wherein within the predetermined time, the time synchronization node maintaines a time synchronization packet parameter transmitted to the downstream clock node unchanged.
Arrangement having an adapter element (1; 20; 30; 40) for assembling a rotary apparatus (12; 44) having an axis of rotation (D) in the measurement space of a coordinate measuring machine , said adapter element having - at least one first fastening means (5a, 5b, 5c, 5d, 5e, 5f; 32a, 32b, 32c, 32d) and/or a first fastening region for fastening the adapter element in the measurement space, - at least one second fastening means and/or a second fastening region for fastening the rotary apparatus to the adapter element, wherein the adapter element has at least one coupling means for coupling an additional device , wherein the coupling means is arranged on the adapter element, adjacently to the second fastening means and/or the one second fastening region for the rotary apparatus, in such a way that, in the coupled state, the additional device is positionable on the adapter element next to the rotary apparatus, a rotary apparatus (12; 44), which is fastened to the adapter element, at least one additional device , which is coupled to the adapter element and positioned next to the rotary apparatus and which is selected from a measuring body , a sensor holder or an accessory apparatus for the rotary apparatus (12; 44). - at least one first fastening means (5a, 5b, 5c, 5d, 5e, 5f; 32a, 32b, 32c, 32d) and/or a first fastening region for fastening the adapter element in the measurement space, - at least one second fastening means and/or a second fastening region for fastening the rotary apparatus to the adapter element,
An electrostatic chuck apparatus for chucking glass, the apparatus comprising: a substantially rigid chassis having a plurality of apertures extending from one side of the chassis to another side of the chassis ; and a plurality of electrostatic chuck pins extending through at least a portion of the plurality of the apertures and being resiliently mounted to the chassis such that the extent to which the electrostatic chuck pins extend through the chassis is individually variable, whereby the chuck pins contour to a surface of the glass. a substantially rigid chassis having a plurality of apertures extending from one side of the chassis to another side of the chassis ; and a plurality of electrostatic chuck pins extending through at least a portion of the plurality of the apertures and being resiliently mounted to the chassis such that the extent to which the electrostatic chuck pins extend through the chassis is individually variable, whereby the chuck pins contour to a surface of the glass.
Wall construction comprising an internal insulation system comprising thermal insulation sheets, wherein the thermal insulation sheets are affixed on site with a defined joint width to the wall side of an existing or newly applied capillary-active layer and the joints are filled with a capillary-active layer and the room interior-facing side of the thermal insulation sheets is covered with a capillary-active layer so that said sheets are surrounded on all sides by these capillary-active layers , characterized in that the thermal insulation sheets are affixed by means of an adhesive .
A method for molding by using molding sand wherein a flask and a pattern plate are used, the method comprising the steps of: forming a molding space by using the flask , using an auxiliary flask that has a lower opening that is connectable to an upper opening of the flask , using a squeeze head that has a squeeze board that can enter and withdraw from the auxiliary flask and has a plurality of squeeze feet that pass through the squeeze board and vertically move in relation to the squeeze board , and using the pattern plate ; filling the molding sand into the molding space, which molding sand has been stored in a hopper for filling the molding sand; and squeezing the molding sand by lowering the squeeze head ; wherein the squeeze feet that face a concavity of a pattern that is formed in the pattern plate are lowered at the same time as the step of squeezing starts or during the step of squeezing, wherein, in the step of forming the molding space, the squeeze feet that face a convexity of the pattern that is formed in the pattern plate are lowered, and then the step of filling is carried out, wherein after the step of filling, the step of squeezing is carried out after the squeeze feet that face the convexity of the pattern that is formed in the pattern plate are lifted or while the squeeze feet are being lifted, while the other squeeze feet are not so lifted. forming a molding space by using the flask , using an auxiliary flask that has a lower opening that is connectable to an upper opening of the flask , using a squeeze head that has a squeeze board that can enter and withdraw from the auxiliary flask and has a plurality of squeeze feet that pass through the squeeze board and vertically move in relation to the squeeze board , and using the pattern plate ; filling the molding sand into the molding space, which molding sand has been stored in a hopper for filling the molding sand; and squeezing the molding sand by lowering the squeeze head ; wherein the squeeze feet that face a concavity of a pattern that is formed in the pattern plate are lowered at the same time as the step of squeezing starts or during the step of squeezing, wherein, in the step of forming the molding space, the squeeze feet that face a convexity of the pattern that is formed in the pattern plate are lowered, and then the step of filling is carried out, wherein after the step of filling, the step of squeezing is carried out after the squeeze feet that face the convexity of the pattern that is formed in the pattern plate are lifted or while the squeeze feet are being lifted, while the other squeeze feet are not so lifted.
An interlocking chain type forward and backward actuating device comprising a pair of interlocking chains , a driven body , and a chain guide plate , wherein the interlocking chains includes hook-shaped inner tooth plates and hook-shaped outer tooth plates , the hook-shaped outer tooth plates are arranged alternately with the inner tooth plates in a chain longitudinal direction, a large number of the inner tooth plates and the outer tooth plates are coupled to one another in the chain longitudinal direction with coupling pins , the coupling pins extend through the inner tooth plates and the outer tooth plates in a chain width direction (W), the pair of interlocking chains is driven by a drive sprocket (SP1, SP3) such that the interlocking chains become rigid with inner tooth plates of one interlocking chain be interlocked with inner tooth plates of other interlocking chain , and outer tooth plates of the one interlocking chain be interlocked with outer tooth plates of the other interlocking chain , and such that the interlocking chains bifurcate from each other with the interlocked inner tooth plates being disengaged and the interlocked outer tooth plates being disengaged; the driven body is mounted to the pair of interlocking chains , the driven body is moved forward and backward according to forward and backward movement of the pair of interlocking chains , the interlocking chain type forward and backward actuating device comprising a chain guide plate and a chain locus regulating means, wherein the chain guide plate includes a disengagement part guide , the disengagement part guide guides a projecting portion of the coupling pin in the chain width direction (W) at a chain disengagement part where the interlocking chains are disengaged from each other, the chain guide plate is arranged respectively at both sides of the pair of interlocking chains in the chain width direction (W), the chain locus regulating means guides a rigid chain part , the chain locus regulating means includes a chain locus regulating face (S1, S2, S3), the chain locus regulating face (S1, S2, S3) slidably contacts the rigid chain part where the interlocking chains are interlocked with each other to become rigid, the rigid chain part includes one of said coupling pins , the coupling pin extending through a coupling pin passage in a rigid chain direction (B), the coupling pin passage is formed at the chain guide plate with the coupling pin passage communicating with the guide for the chain disengagement part , the coupling pin passage has a passage width (WB) larger than a guide width (WA) of the disengagement part guide , and guiding the interlocking chains with the disengagement part guide is switched to guiding the interlocking chains with the chain locus regulating face (S1, S2) at a chain disengagement position (O).
A process for making a viscous composition comprising at least 8.0% by weight of whey protein, comprising the following steps of: Step 1) preparing a Mass 1 composition comprising at least 8.8% by weight of whey protein and heat-treating at a temperature of higher than 85°C, and Step 2) adding at least one aqueous preparation comprising at least one polysaccharide, comprising a native starch, Step 3) filling the composition in a packaging container, wherein the ratio by weight between Mass 1 and the aqueous preparation is of at least 50/50, preferably between 60/40 to 90/10. Step 1) preparing a Mass 1 composition comprising at least 8.8% by weight of whey protein and heat-treating at a temperature of higher than 85°C, and Step 2) adding at least one aqueous preparation comprising at least one polysaccharide, comprising a native starch, Step 3) filling the composition in a packaging container,