mhurhangee/ep-ind-claims huggingface dataset:
A perfume composition comprising a first compound represented by formula wherein the half-doted double lines each represent a carbon-carbon single bond or a carbon-carbon double bond, wherein the six-membered ring comprises exactly one endocyclic carbon-carbon double bond or exactly two endocyclic carbon-carbon double bonds, wherein, when the six-membered ring comprises exactly two endocyclic carbon-carbon double bonds, the endocyclic carbon-carbon double bonds are either in 1,3-relationship or in 1,4-relationship, wherein R is selected from the group consisting of iso-propyl, iso-butyl, sec-butyl and tert-butyl, the perfume composition comprising one or more additional fragrance ingredients selected from the group consisting of 6-methoxy-2,6-dimethylheptan-1-al, 5,9-dimethyl-4,8-decadienal, beta-methyl-3-(1-methylethyl)benzenepropanal, octahydro-8,8-dimethylnaphthalene-2-carbaldehyde, alpha-methyl-1,3-benzodioxole-5-propionaldehyde, 5-methyl-2-(1-methylbutyl)-5-propyl-1,3-dioxan, 3-(o-ethylphenyl)-2,2-dimethylpropionaldehyde, farnesol, 3,7,11-trimethyldodeca-1, 6, 10-trien-3-ol, optionally as an isomeric mixture, 2-methyl-4-phenylbutan-2-ol, 1-(1-hydroxyethyl)-4-(1-methylethyl)cyclohexane (optionally as a mixture of the diastereoisomers), (4-methyl-3-pentenyl)cyclohexenecarbaldehyde, cyclohexyl salicylate, 3-(p-(2-methylpropyl)phenyl)-2-methylpropionaldehyde and 3-p-cumenyl-2-methylpropionaldehyde. wherein the half-doted double lines each represent a carbon-carbon single bond or a carbon-carbon double bond, wherein the six-membered ring comprises exactly one endocyclic carbon-carbon double bond or exactly two endocyclic carbon-carbon double bonds, wherein, when the six-membered ring comprises exactly two endocyclic carbon-carbon double bonds, the endocyclic carbon-carbon double bonds are either in 1,3-relationship or in 1,4-relationship, wherein R is selected from the group consisting of iso-propyl, iso-butyl, sec-butyl and tert-butyl, the perfume composition comprising one or more additional fragrance ingredients selected from the group consisting of 6-methoxy-2,6-dimethylheptan-1-al, 5,9-dimethyl-4,8-decadienal, beta-methyl-3-(1-methylethyl)benzenepropanal, octahydro-8,8-dimethylnaphthalene-2-carbaldehyde, alpha-methyl-1,3-benzodioxole-5-propionaldehyde, 5-methyl-2-(1-methylbutyl)-5-propyl-1,3-dioxan, 3-(o-ethylphenyl)-2,2-dimethylpropionaldehyde, farnesol, 3,7,11-trimethyldodeca-1, 6, 10-trien-3-ol, optionally as an isomeric mixture, 2-methyl-4-phenylbutan-2-ol, 1-(1-hydroxyethyl)-4-(1-methylethyl)cyclohexane (optionally as a mixture of the diastereoisomers), (4-methyl-3-pentenyl)cyclohexenecarbaldehyde, cyclohexyl salicylate, 3-(p-(2-methylpropyl)phenyl)-2-methylpropionaldehyde and 3-p-cumenyl-2-methylpropionaldehyde.
A not-modified polytetrafluoroethylene (PTFE) powder which has an average particle diameter of 1-6 μm and is obtainable by pulverizing an unpulverized PTFE virgin polymer which has an amorphous index of ≥ 0.25 and is obtained by suspension polymerization.
A method for routing Diameter messages, the method comprising: at a Diameter signaling router, DSR, comprising a plurality of Diameter message processors (102, 122, 104, 124): receiving, from a first Diameter node, a Diameter request message; generating a hop-by-hop identifier for identifying a first Diameter message processor of the plurality of Diameter message processors (102,122,104,124) and for identifying one of a plurality of pending transaction managers (300,310) associated with the first Diameter message processor; incorporating the hop-by-hop identifier into the Diameter request message; and routing the Diameter request message to a second Diameter node. at a Diameter signaling router, DSR, comprising a plurality of Diameter message processors (102, 122, 104, 124): receiving, from a first Diameter node, a Diameter request message; generating a hop-by-hop identifier for identifying a first Diameter message processor of the plurality of Diameter message processors (102,122,104,124) and for identifying one of a plurality of pending transaction managers (300,310) associated with the first Diameter message processor; incorporating the hop-by-hop identifier into the Diameter request message; and routing the Diameter request message to a second Diameter node. receiving, from a first Diameter node, a Diameter request message; generating a hop-by-hop identifier for identifying a first Diameter message processor of the plurality of Diameter message processors (102,122,104,124) and for identifying one of a plurality of pending transaction managers (300,310) associated with the first Diameter message processor; incorporating the hop-by-hop identifier into the Diameter request message; and routing the Diameter request message to a second Diameter node.
Method for producing a circuit for a chip card module comprising - the provision of an insulating substrate, - the perforation of the insulating substrate in order to form connection wells, - the provision of a conductive layer supported by the insulating substrate, with a first side turned toward the insulating substrate and a second side, - the production, in the conductive layer, of contacts at the level of which o the second side is intended to establish a connection by electrical contact with a chip card reader, and o the first side is intended to establish, at the level of connection wells, an electrical connection with an electronic chip, in which at least two conductive lands, that are electrically isolated from the contacts, are also made in the conductive layer, at the level of which lands the first side of the conductive layer at least partially closes up at least one connection well that is intended to connect the electronic chip to an antenna, characterized by the fact that the chip is connected to a conductive land of the first side of the conductive layer through a connection well and an end of the antenna is connected through this same connection well. - the provision of an insulating substrate, - the perforation of the insulating substrate in order to form connection wells, - the provision of a conductive layer supported by the insulating substrate, with a first side turned toward the insulating substrate and a second side, - the production, in the conductive layer, of contacts at the level of which o the second side is intended to establish a connection by electrical contact with a chip card reader, and o the first side is intended to establish, at the level of connection wells, an electrical connection with an electronic chip, in which at least two conductive lands, that are electrically isolated from the contacts, are also made in the conductive layer, at the level of which lands the first side of the conductive layer at least partially closes up at least one connection well that is intended to connect the electronic chip to an antenna, o the second side is intended to establish a connection by electrical contact with a chip card reader, and o the first side is intended to establish, at the level of connection wells, an electrical connection with an electronic chip,
A laminate extruded composition comprising: a pair of opposed top and bottom non-foamed layers; at least one interposed middle foamed layer, the middle foamed layer foamed using supercritical fluids; each of said layers comprising a flame retardant copolyphosphonate, the copolyphosphonate having a weight average molecular weight of between 10,000 g/mole to 100,000 g/mole (measured with GPC), the copolyphosphonate having a polydispersity of between 2 to 7, the copolyphosphonate having a single glass transition temperature; a percentage ratio of the at least three layers ranging from 7-13% / 75-85% / 7-13%, the at least three layers totaling 100%, a total thickness of the three layers ranging from 1.016mm to 12.7mm (0.040" to 0.500"); and the laminate having an OSU Heat Release Total value of < 65 kW min/m 2 and an OSU Heat Release Peak value of < 65 kW/m 2 (measured with ASTM E906). a pair of opposed top and bottom non-foamed layers; at least one interposed middle foamed layer, the middle foamed layer foamed using supercritical fluids; each of said layers comprising a flame retardant copolyphosphonate, the copolyphosphonate having a weight average molecular weight of between 10,000 g/mole to 100,000 g/mole (measured with GPC), the copolyphosphonate having a polydispersity of between 2 to 7, the copolyphosphonate having a single glass transition temperature; a percentage ratio of the at least three layers ranging from 7-13% / 75-85% / 7-13%, the at least three layers totaling 100%, a total thickness of the three layers ranging from 1.016mm to 12.7mm (0.040" to 0.500"); and the laminate having an OSU Heat Release Total value of < 65 kW min/m 2 and an OSU Heat Release Peak value of < 65 kW/m 2 (measured with ASTM E906).
The use of an inhibitor of CSF-1 activity for the manufacture of a medicament for the treatment and/or prophylaxis of Crohn's disease or ulcerative colitis wherein the inhibitor is an antibody or functionally active fragment thereof which binds to CSF-1R.
Massage device comprising two modules mounted in relative translation to one another by means of a mechanism allowing their reversible arrangement in at least a first - and respectively a second - massage configuration, in which the modules are brought together - respectively moved apart from one another -, each of said modules having a rear cap whoseouter geometry is arranged to, in the first massage configuration, form a first massage surface with the cap of the other module, each of the modules having a front extension whose outer geometry is arranged to, in the second massage configuration, form a second massage surface with the extension of the other module, said extensions being arranged so as to be able to interlock with each other when the modules are brought together towards the first massage configuration, said massage device being characterised in that the extensions comprise an angular succession of fingers which are spaced apart by slots of complementary form, the fingers - respectively the slots - of a module being arranged at an angle relative to the slots - respectively the fingers - of the other module, so as to enable their imbrication when the modules are brought together.
A core assembly, comprising: a core member having an intermediate region and a distal tip; a stent extending over the core member intermediate region and comprising a distal portion; a distal cover comprising a first end and a second end, the second end being coupled to a distal tip structure; the distal tip structure comprising (a) an inner lumen that receives the core member or (b) a coil; such that the distal tip structure can slide and/or rotate relative to the core member; the distal cover having a delivery orientation in which the first end (i) extends proximally relative to the distal tip and (ii) at least partially surrounds the stent distal portion, the distal cover being movable from the delivery orientation to an everted orientation wherein the first end is positioned distally relative to the second end; and a proximal stop (430") and a distal stop (432") wherein the distal stop (432") is configured to limit the range of sliding movement of the distal tip structure. a core member having an intermediate region and a distal tip; a stent extending over the core member intermediate region and comprising a distal portion; a distal cover comprising a first end and a second end, the second end being coupled to a distal tip structure; the distal tip structure comprising (a) an inner lumen that receives the core member or (b) a coil; such that the distal tip structure can slide and/or rotate relative to the core member; the distal cover having a delivery orientation in which the first end (i) extends proximally relative to the distal tip and (ii) at least partially surrounds the stent distal portion, the distal cover being movable from the delivery orientation to an everted orientation wherein the first end is positioned distally relative to the second end; and a proximal stop (430") and a distal stop (432") wherein the distal stop (432") is configured to limit the range of sliding movement of the distal tip structure.
A can container, comprising: a main body having a container mouth and a trunk portion formed of a cylindrical welded can body prepared by rolling a metal sheet and welding an overlapped longitudinal edges of the metal sheet; a curled portion formed on an open end of the container mouth; a bottom lid seamed to a lower end of the can body; and a closure having a resin sealing liner applied to the container mouth; characterised by a level difference of the welded portion on a surface of the curled portion to be contacted with the resin liner is smaller than a level difference (h) of the welded portion on the trunk portion; the level difference of the welded portion on the surface of the curled portion is within the range of 15 to 100 μm; and a durometer hardness of the resin sealing liner is within the range of HDA 30 to 70 according to ISO 868. a main body having a container mouth and a trunk portion formed of a cylindrical welded can body prepared by rolling a metal sheet and welding an overlapped longitudinal edges of the metal sheet; a curled portion formed on an open end of the container mouth; a bottom lid seamed to a lower end of the can body; and a closure having a resin sealing liner applied to the container mouth; characterised by a level difference of the welded portion on a surface of the curled portion to be contacted with the resin liner is smaller than a level difference (h) of the welded portion on the trunk portion; the level difference of the welded portion on the surface of the curled portion is within the range of 15 to 100 μm; and a durometer hardness of the resin sealing liner is within the range of HDA 30 to 70 according to ISO 868.
A radiation imaging system comprising: an imaging unit which emits radiation and images a dynamic state of a subject, thereby taking a plurality of frame images of the dynamic state of the subject; a detection unit which detects the dynamic state of the subject being imaged and generates detection information on the dynamic state; a change determination unit which determines whether change of the dynamic state being imaged is within a predetermined range based on the generated detection information; and characterized by a control unit which is configured so as to discard a frame image when the change determination unit determines that the change of the dynamic state is not within the predetermined range. an imaging unit which emits radiation and images a dynamic state of a subject, thereby taking a plurality of frame images of the dynamic state of the subject; a detection unit which detects the dynamic state of the subject being imaged and generates detection information on the dynamic state; a change determination unit which determines whether change of the dynamic state being imaged is within a predetermined range based on the generated detection information; and characterized by a control unit which is configured so as to discard a frame image when the change determination unit determines that the change of the dynamic state is not within the predetermined range.
A method of fabricating an articulated valve support structure (3810, 3910, 4610), comprising: interlinking a plurality of strut members (3811, 3911, 4611, 4619, 4651) into a flattened chain having a first end and a second end, wherein each of the plurality of strut members comprises a plurality of orifices (3913, 4613); and connecting the first end of the flattened chain to the second end of the flattened chain to form a tubular structure; characterized in that said interlinking comprises: placing a plurality of alignment guides through at least one orifice of each of the plurality of strut members, wherein each of the plurality of alignment guides is placed through the orifices of at least two strut members; securing the at least two strut members together; and removing the plurality of alignment guides from the orifice. interlinking a plurality of strut members (3811, 3911, 4611, 4619, 4651) into a flattened chain having a first end and a second end, wherein each of the plurality of strut members comprises a plurality of orifices (3913, 4613); and connecting the first end of the flattened chain to the second end of the flattened chain to form a tubular structure; characterized in that said interlinking comprises: placing a plurality of alignment guides through at least one orifice of each of the plurality of strut members, wherein each of the plurality of alignment guides is placed through the orifices of at least two strut members; securing the at least two strut members together; and removing the plurality of alignment guides from the orifice. placing a plurality of alignment guides through at least one orifice of each of the plurality of strut members, wherein each of the plurality of alignment guides is placed through the orifices of at least two strut members; securing the at least two strut members together; and removing the plurality of alignment guides from the orifice.
Process for making anhydrous lithium hydroxide, comprising the step of removing water from particulate LiOH hydrate by subjecting said LiOH hydrate to a stream of gas with a temperature in the range of from 150 to 500°C wherein the average residence time of the LiOH is in the range of from 0.5 to 20 seconds.
Monitoring and operating system for a manufacturing workstation for at least one worker for carrying out at least one manual manufacturing step, the manufacturing workstation comprising a plurality of objects in a changeable configuration or movement state, the system comprising a controller with a graphical or acoustic user interface (2.1) for displaying a workstation dialog for the manufacturing step and a sensor arrangement for monitoring a manufacturing step carried out by the at least one worker, characterized in that the sensor arrangement comprises at least one camera, and the controller is designed to detect, as a function of the image data acquired by the camera, the completion of the manufacturing step, to record it, and to automatically display the work instructions for the following manufacturing step, the controller being configured to detect the completion of the manufacturing step when it has detected the completion of a plurality of substeps of the manufacturing step from the image data, the substeps comprising at least one combination of: a. the taking of a component, or a gesture of the worker, and b. the assembly of said component the assembly of the component being detected by a target/actual image comparison in which it is checked whether, after the intervention, the component to be assembled is detected in the dimension stored in product data minus defined tolerances in the corresponding dimension at an assembly position. a. the taking of a component, or a gesture of the worker, and b. the assembly of said component
Method for machining an aircraft structural component using a machining system, wherein the machining system has a drilling unit and a riveting unit, wherein a manufacturing process control for activating the components of the machining system is provided, wherein the manufacturing process control executes a series of drilling procedures by means of the drilling unit and of riveting procedures by means of the riveting unit based on tool control data according to a manufacturing specification. wherein the manufacturing system has an optical sensor and a projection unit, wherein the method comprises the steps: - projecting a pattern, using the projection unit, onto a machining point with a rivet element inserted into a drilled hole of the machining point, - detecting the machining point, including the projection of the pattern, using the sensor and generating corresponding detection data by means of the sensor, - analysing the detection data by means of an analysis unit, - adapting the tool control data for a drilled hole which is to be subsequently drilled according to the manufacturing specification at a further machining point, in particular the countersink depth of the drilled hole to be drilled, by means of the manufacturing process control based on the analysis of the detection data. wherein a manufacturing process control for activating the components of the machining system is provided, wherein the manufacturing process control executes a series of drilling procedures by means of the drilling unit and of riveting procedures by means of the riveting unit based on tool control data according to a manufacturing specification. wherein the manufacturing system has an optical sensor and a projection unit, wherein the method comprises the steps: - projecting a pattern, using the projection unit, onto a machining point with a rivet element inserted into a drilled hole of the machining point, - detecting the machining point, including the projection of the pattern, using the sensor and generating corresponding detection data by means of the sensor, - analysing the detection data by means of an analysis unit, - adapting the tool control data for a drilled hole which is to be subsequently drilled according to the manufacturing specification at a further machining point, in particular the countersink depth of the drilled hole to be drilled, by means of the manufacturing process control based on the analysis of the detection data. - projecting a pattern, using the projection unit, onto a machining point with a rivet element inserted into a drilled hole of the machining point, - detecting the machining point, including the projection of the pattern, using the sensor and generating corresponding detection data by means of the sensor, - analysing the detection data by means of an analysis unit, - adapting the tool control data for a drilled hole which is to be subsequently drilled according to the manufacturing specification at a further machining point, in particular the countersink depth of the drilled hole to be drilled, by means of the manufacturing process control based on the analysis of the detection data.
A method comprising: receiving encoded video including viewport metadata; decoding the video; extracting the viewport metadata including multiple viewports, the viewport metadata being associated with a frame of the received encoded video, each viewport corresponding with a region of interest; selecting one of the multiple viewports by receiving a user selection from among the multiple viewports; generating a viewport of the decoded video using the selected one of the multiple viewports based on the viewport metadata; and buffering the generated viewport for display, characterized in that the sizes of the multiple viewports are defined such as to create a zooming effect by making the field of view wider or narrower depending on the size of the selected viewport. receiving encoded video including viewport metadata; decoding the video; extracting the viewport metadata including multiple viewports, the viewport metadata being associated with a frame of the received encoded video, each viewport corresponding with a region of interest; selecting one of the multiple viewports by receiving a user selection from among the multiple viewports; generating a viewport of the decoded video using the selected one of the multiple viewports based on the viewport metadata; and buffering the generated viewport for display, characterized in that the sizes of the multiple viewports are defined such as to create a zooming effect by making the field of view wider or narrower depending on the size of the selected viewport.