mhurhangee/patent-ind-claim-en huggingface dataset:
An expanded bead having a through hole, said expanded bead comprising a foamed core layer that defines the through hole therein and that includes a polypropylene-based resin composition, and a cover layer that covers the foamed core layer and that includes a polyolefin-based resin, characterized in that said polypropylene-based resin composition comprises 70 to 97% by weight of a polypropylene-based resin PP1 having a melting point of higher than 140°C and not higher than 150°C, and 3 to 30% by weight of a polypropylene-based resin PP2 having a melting point of not lower than 145°C and not higher than 160°C, provided that a total amount of the resin PP1 and the resin PP2 is 100% by weight, wherein a difference between the melting point of the polypropylene-based resin PP2 and the melting point of the polypropylene-based resin PP1 [(melting point of PP2) - (melting point of PP1)] is not smaller than 5°C and smaller than 15°C, said expanded bead having such a crystal structure that gives a first time DSC curve when measured by heat flux differential scanning calorimetry in which said expanded bead is heated from 30°C to 200°C at a heating rate of 10°C/min, wherein said first time DSC curve has a main endothermic peak intrinsic to the polypropylene-based resin composition and a high temperature-side endothermic peak which is located on a higher temperature side of the main endothermic peak, wherein said high temperature-side endothermic peak has a heat of fusion of 12 to 20 J/g, and wherein a ratio of a heat of fusion of said main endothermic peak to the heat of fusion of said high temperature-side endothermic peak is 3.5 or greater. said polypropylene-based resin composition comprises 70 to 97% by weight of a polypropylene-based resin PP1 having a melting point of higher than 140°C and not higher than 150°C, and 3 to 30% by weight of a polypropylene-based resin PP2 having a melting point of not lower than 145°C and not higher than 160°C, provided that a total amount of the resin PP1 and the resin PP2 is 100% by weight, wherein a difference between the melting point of the polypropylene-based resin PP2 and the melting point of the polypropylene-based resin PP1 [(melting point of PP2) - (melting point of PP1)] is not smaller than 5°C and smaller than 15°C, said expanded bead having such a crystal structure that gives a first time DSC curve when measured by heat flux differential scanning calorimetry in which said expanded bead is heated from 30°C to 200°C at a heating rate of 10°C/min, wherein said first time DSC curve has a main endothermic peak intrinsic to the polypropylene-based resin composition and a high temperature-side endothermic peak which is located on a higher temperature side of the main endothermic peak, wherein said high temperature-side endothermic peak has a heat of fusion of 12 to 20 J/g, and wherein a ratio of a heat of fusion of said main endothermic peak to the heat of fusion of said high temperature-side endothermic peak is 3.5 or greater.
A processor , wherein the processor supports X-channel interleaved multi-threading IMT, the processor comprises a decoding unit and a processing unit , and X is an integer greater than 1; the decoding unit is configured to: obtain one instruction from each of Z predefined threads in each cyclic period, decode the Z obtained instructions to obtain Z decoding results, and send the Z decoding results to the processing unit, wherein each cyclic period comprises X sending periods, one decoding result is sent to the processing unit in each sending period, characterized in that : a decoding result of the Z decoding results is repeatedly sent by the decoding unit in a plurality of sending periods, 1 ≤ Z < X, and Z is an integer; and the processing unit is configured to execute the instruction based on the decoding result. the decoding unit is configured to: obtain one instruction from each of Z predefined threads in each cyclic period, decode the Z obtained instructions to obtain Z decoding results, and send the Z decoding results to the processing unit, wherein each cyclic period comprises X sending periods, one decoding result is sent to the processing unit in each sending period, characterized in that : a decoding result of the Z decoding results is repeatedly sent by the decoding unit in a plurality of sending periods, 1 ≤ Z < X, and Z is an integer; and the processing unit is configured to execute the instruction based on the decoding result. a decoding result of the Z decoding results is repeatedly sent by the decoding unit in a plurality of sending periods, 1 ≤ Z < X, and Z is an integer; and the processing unit is configured to execute the instruction based on the decoding result.
A wheel chock mounting assembly , comprising: a bracket having a retention member , the bracket configured to be coupled to a surface of a machine and defining a receptacle to at least partially receive a wheel chock at a predefined location on the machine ; and a stopper having an engagement member , , wherein the bracket and the stopper are structured and arranged to receive and constrain the wheel chock therebetween at the predefined location on the machine , characterised in that the stopper is configured to be mounted on the machine at a predefined distance from the bracket and the stopper comprises a V-shaped plate coupled to a base flange having a primary stem defining a primary surface and a secondary stem defining a secondary surface , the primary surface and the secondary surface being disposed angularly with respect to each other, the stopper being orientated when mounted such that the secondary surface is directed towards the receptacle and the primary surface is directed away from the receptacle , the primary surface configured to define a gradient with respect to the surface of the machine to slope upwards towards the receptacle . a bracket having a retention member , the bracket configured to be coupled to a surface of a machine and defining a receptacle to at least partially receive a wheel chock at a predefined location on the machine ; and a stopper having an engagement member , , wherein the bracket and the stopper are structured and arranged to receive and constrain the wheel chock therebetween at the predefined location on the machine , characterised in that the stopper is configured to be mounted on the machine at a predefined distance from the bracket and the stopper comprises a V-shaped plate coupled to a base flange having a primary stem defining a primary surface and a secondary stem defining a secondary surface , the primary surface and the secondary surface being disposed angularly with respect to each other, the stopper being orientated when mounted such that the secondary surface is directed towards the receptacle and the primary surface is directed away from the receptacle , the primary surface configured to define a gradient with respect to the surface of the machine to slope upwards towards the receptacle . the bracket and the stopper are structured and arranged to receive and constrain the wheel chock therebetween at the predefined location on the machine , characterised in that the stopper is configured to be mounted on the machine at a predefined distance from the bracket and the stopper comprises a V-shaped plate coupled to a base flange having a primary stem defining a primary surface and a secondary stem defining a secondary surface , the primary surface and the secondary surface being disposed angularly with respect to each other, the stopper being orientated when mounted such that the secondary surface is directed towards the receptacle and the primary surface is directed away from the receptacle , the primary surface configured to define a gradient with respect to the surface of the machine to slope upwards towards the receptacle .
Rear bench seat folder of motor vehicle capable of being rotated articulated on the structure of said vehicle between a raised position and a substantially horizontal folded position, said seat back comprising an armature comprising a metal frame and a network of metal wire extending between the two amounts and between the two traverses of said frame , and a maturing 0) supported by the front part of said frame and a cap covering externally said frame and said matelassure ; further comprising a stiffening plate maintained through maintenance means (54; 55) against the inner face of the back of said cap and supporting the rear part of said frame , characterized in that said holding means comprise four triangular pockets sewn at the four ends of the inner face of the back of said cap and in which the four corners of the back are inserted said stiffening plate , or in so far as said holding means comprise a single pocket sewn on the periphery of the inner face of the back of said cap and fully enclosing said stiffening plate .
A method for manufacturing SOI wafer, comprising steps of forming an ion implanted layer by implanting hydrogen ions from a surface of a bond wafer consisting of a silicon single crystal substrate, bonding an ion implanted surface of the bond wafer and a surface of a base wafer consisting of a silicon single crystal wafer through an oxide film, and thereafter delaminating the bond wafer at the ion implanted layer by performing delamination heat treatment, wherein, after plasma treatment has been performed on surfaces of a bonding interface of the bond wafer and a bonding interface of the base wafer, bonding is performed through the oxide film, wherein as the plasma treatment, nitrogen plasma treatment is performed on a wafer having the oxide film, and oxygen plasma treatment is performed on a wafer having no oxide film, and the bond wafer is delaminated at the ion implanted layer by the delamination heat treatment comprising a first heat treatment at 250°C or less for 2 hours or more and a second heat treatment at 400°C to 450°C for 30 minutes or more.
A laminate comprising: a biocompatible polymer film having a density of 500 μg/cm 2 to 10 mg/cm 2 ; and a cell sheet disposed on at least one surface of the biocompatible polymer film, wherein the cell is a myocardial cell or a skeletal myoblast; and wherein the biocompatible polymer film satisfies the following Formula 1, swollen film thickness / dry film thickness × 100 ≥ − 27.5 × dry film thickness + 880 where the unit of the swollen film thickness and the dry film thickness is μm. a biocompatible polymer film having a density of 500 μg/cm 2 to 10 mg/cm 2 ; and a cell sheet disposed on at least one surface of the biocompatible polymer film, wherein the cell is a myocardial cell or a skeletal myoblast; and wherein the biocompatible polymer film satisfies the following Formula 1, swollen film thickness / dry film thickness × 100 ≥ − 27.5 × dry film thickness + 880 where the unit of the swollen film thickness and the dry film thickness is μm.
A controller controlling behavior of a motorcycle , the controller comprising: an acquisition section that acquires trigger information generated in accordance with peripheral environment of the motorcycle ; and an execution section that initiates a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic braking operation, wherein in the control mode, distribution of an automatic braking force to a front wheel and a rear wheel is controlled in accordance with travel posture of the motorcycle , the automatic braking force being a braking force that is applied to the wheels of the motorcycle by the automatic braking operation; characterized in that in the control mode in which the motorcycle has such travel posture that the motorcycle turns, in the case where the automatic braking operation is an automatic cruise braking operation, the automatic braking force is distributed in an allocation that the lean angle of the motorcycle is maintained. an acquisition section that acquires trigger information generated in accordance with peripheral environment of the motorcycle ; and an execution section that initiates a control mode in response to the trigger information, the control mode making the motorcycle execute an automatic braking operation, wherein in the control mode, distribution of an automatic braking force to a front wheel and a rear wheel is controlled in accordance with travel posture of the motorcycle , the automatic braking force being a braking force that is applied to the wheels of the motorcycle by the automatic braking operation; characterized in that in the control mode in which the motorcycle has such travel posture that the motorcycle turns, in the case where the automatic braking operation is an automatic cruise braking operation, the automatic braking force is distributed in an allocation that the lean angle of the motorcycle is maintained.
A processing unit compri sing: a housing forming an interior region; a self-supporting structure disposed within the interior region, wherein the self-supporting structure has greater than 50% by weight of an active material in the self-supporting structure, wherein the self-supporting structure is a foam-geometry structure configured to provide one or more tortuous channels for fluid flow paths through the self-supporting structure and wherein the active material is a catalyst or adsorbent material; a plurality of valves secured to the housing, wherein each of the plurality of valves is configured to control fluid flow along a flow path extending between the self-supporting structure and a location external to the housing, wherein the self-supporting structure comprises a plurality of first sheets having a first composition and a first pore density and a plurality of second sheets having a second composition and second pore density, wherein the first pore density is in the range from 0.39 to 7.87 pores per cm (1 to 20 pores per linear inch) and the second pore density is in the range from 7.87 to 39.37 pores per cm (20 to 100 pores per linear inch). a housing forming an interior region; a self-supporting structure disposed within the interior region, wherein the self-supporting structure has greater than 50% by weight of an active material in the self-supporting structure, wherein the self-supporting structure is a foam-geometry structure configured to provide one or more tortuous channels for fluid flow paths through the self-supporting structure and wherein the active material is a catalyst or adsorbent material; a plurality of valves secured to the housing, wherein each of the plurality of valves is configured to control fluid flow along a flow path extending between the self-supporting structure and a location external to the housing, wherein the self-supporting structure comprises a plurality of first sheets having a first composition and a first pore density and a plurality of second sheets having a second composition and second pore density, wherein the first pore density is in the range from 0.39 to 7.87 pores per cm (1 to 20 pores per linear inch) and the second pore density is in the range from 7.87 to 39.37 pores per cm (20 to 100 pores per linear inch).
A non-therapeutic method for killing arthropods, the method comprising: providing a mineral composition to a substrate that arthropods will contact, wherein the mineral composition is not carrying a chemical toxin, wherein the mineral composition comprises an aluminosilicate particulate, wherein the aluminosilicate particulate comprises perlite and the aluminosilicate particulate has a median particle size d 50 of 10 μm or less and wherein contact between the mineral composition and an arthropod results in death of the arthropod. providing a mineral composition to a substrate that arthropods will contact, wherein the mineral composition is not carrying a chemical toxin, wherein the mineral composition comprises an aluminosilicate particulate, wherein the aluminosilicate particulate comprises perlite and the aluminosilicate particulate has a median particle size d 50 of 10 μm or less and wherein contact between the mineral composition and an arthropod results in death of the arthropod.
Process for the production of alkanesulfonic acids from an alkane and SO3 with the help of an initiator comprising a distillation step, wherein the total energy consumption of the process is reduced by heat integration, wherein the feed to the distillation step is heated by heat integration with the hot stream of purified alkanesulfonic acid, and/or the feed to the distillation is heated by heat integration with the hot distillation residue, and/or the feed to the distillation is first heated by heat integration with the hot purified alkanesulfonic acid and then by heat integration with the hot distillation residue, and/or the feed to the distillation is heated by heat integration with the hot stream from mixing the alkanesulfonic acid with water to yield an aqueous solution.
A lubrication system for a main bearing of a wind turbine positioned around a main shaft of the wind turbine , the lubrication system comprising: a seal ring positioned around the main shaft adjacent to the main bearing ; at least one gear adjacent to the seal ring ; a lubricant pump arranged to engage the at least one gear ; and, at least one lubricant for providing lubrication to the main bearing , wherein, as the main shaft rotates, the at least one gear drives the lubricant pump such that the lubricant pump continuously provides the lubricant to the main bearing so long as the main shaft is rotating. a seal ring positioned around the main shaft adjacent to the main bearing ; at least one gear adjacent to the seal ring ; a lubricant pump arranged to engage the at least one gear ; and, at least one lubricant for providing lubrication to the main bearing , wherein, as the main shaft rotates, the at least one gear drives the lubricant pump such that the lubricant pump continuously provides the lubricant to the main bearing so long as the main shaft is rotating.
A method , comprising: receiving a stream of network messages, the stream of network messages comprising a variety of network events for various network devices; dividing the stream of network messages into contiguous and non-overlapping time slices, each time slice containing a subset of the stream of network messages; identifying patterns within the stream of network messages, the patterns comprising groupings of the variety of network events; determining for each pattern an appropriate operationalization scenario; and operationalizing the patterns as correlation rules in a correlation engine to automatically detect or predict network alarms from input provided by a fault management system. receiving a stream of network messages, the stream of network messages comprising a variety of network events for various network devices; dividing the stream of network messages into contiguous and non-overlapping time slices, each time slice containing a subset of the stream of network messages; identifying patterns within the stream of network messages, the patterns comprising groupings of the variety of network events; determining for each pattern an appropriate operationalization scenario; and operationalizing the patterns as correlation rules in a correlation engine to automatically detect or predict network alarms from input provided by a fault management system.
A method for preparing a semiconductor component for a thermal bonding process, the component having a planar bonding surface and an array of microbumps on the bonding surface, the method comprising the step of producing a polymer underfill layer on the bonding surface, wherein : - the polymer is a photo-patternable polymer, - an initial polymer layer is produced on the bonding surface and on the microbumps, the polymer layer having an average thickness in between the microbumps that is similar to the average microbump height, - the initial polymer layer is subjected to a lithography step, wherein the polymer is patterned and removed completely from the upper surface of the microbumps , characterized in that ; in the lithography step the polymer layer is additionally patterned and removed at least partially from areas adjacent the microbumps, and - after the lithography step, the polymer layer is heated to a temperature at which the polymer flows, to thereby form a reflowed polymer layer that directly adjoins the sidewalls of the microbumps without exceeding the height of the microbumps. - the polymer is a photo-patternable polymer, - an initial polymer layer is produced on the bonding surface and on the microbumps, the polymer layer having an average thickness in between the microbumps that is similar to the average microbump height, - the initial polymer layer is subjected to a lithography step, wherein the polymer is patterned and removed completely from the upper surface of the microbumps , - after the lithography step, the polymer layer is heated to a temperature at which the polymer flows, to thereby form a reflowed polymer layer that directly adjoins the sidewalls of the microbumps without exceeding the height of the microbumps.
Binder jetting method for producing a three-dimensional molded part in an additive manufacturing method, wherein - in a first step (S1), a powder starting material (P) is introduced, as a particle layer, into an installation space, - in a second step (S3), a liquid binder is selectively applied to the particle layer, wherein the steps (S1 to S3) are repeated until the molded part is built up, wherein a polymer powder is used as the starting material (P) and this powder is heated to a predetermined first temperature (S2), wherein - the starting material is heated to the predetermined first temperature before the binder is applied to the particle layer, - the predetermined first temperature is selected so that it is below the melting temperature of the starting material, and - a polymerizable solvent which dissolves the polymer powder is used as a binder, wherein heating the starting material to the predetermined first temperature accelerates the dissolving of the particles by the applied binder and the accelerated dissolving of the particles accelerates the increase in the viscosity of the binder. - in a first step (S1), a powder starting material (P) is introduced, as a particle layer, into an installation space, - in a second step (S3), a liquid binder is selectively applied to the particle layer, wherein the steps (S1 to S3) are repeated until the molded part is built up, wherein a polymer powder is used as the starting material (P) and this powder is heated to a predetermined first temperature (S2), wherein - the starting material is heated to the predetermined first temperature before the binder is applied to the particle layer, - the predetermined first temperature is selected so that it is below the melting temperature of the starting material, and - a polymerizable solvent which dissolves the polymer powder is used as a binder, - the starting material is heated to the predetermined first temperature before the binder is applied to the particle layer, - the predetermined first temperature is selected so that it is below the melting temperature of the starting material, and - a polymerizable solvent which dissolves the polymer powder is used as a binder, wherein heating the starting material to the predetermined first temperature accelerates the dissolving of the particles by the applied binder and the accelerated dissolving of the particles accelerates the increase in the viscosity of the binder.