mhurhangee/ep-ind-claims huggingface dataset:
A compound, a salt or an N-oxide derivative of thereof,having the following molecular formula: wherein n is an integer from 1 to 2; Wherein R 2 is selected from the group consisting of hydrogen and fluoro; Wherein R 3 is selected from the group consisting of hydrogen, cyano, chloro, methoxy, ethoxy, nitro, and propynyl; Wherein R 4 is selected from the group consisting of hydrogen, fluoro, chloro, bromo, cyano, amino, cyclopropyl and C 1 alkyl; Wherein R 11β, is selected from the group consisting of hydrogen, fluoro, C 1 -C 2 alkyl, and C 2 alkenyl; Wherein R 17α and R 17β are independently selected from the group consisting of hydroxyl, methoxy and -A-A'-Ar A and A' being spacer group independently selected from the group consisting of absent -CH 2 -, -CHF-, -CH(CH 3)-, propynylene, and (B and C being independently selected from the group consisting of hydrogen, fluoro, and methyl), and Ar being selected from the group consisting of: (D being selected from the group consisting of hydrogen, fluoro, chloro, bromo, methyl, ethyl and methoxy and E being selected from the group consisting of hydrogen, cyano and methyl); (f is CH or nitrogen); and (G being selected from the group consisting of cyano, -CONR 1 R 2 (R 1 and R 2 are independently selected from the group consisting of hydrogen and methyl) and -SOCH 3 Wherein when R 17α is hydroxyl or methoxy, R 17β is -A-A'-Ar, and when R 17β is hydroxyl or methoxy, R 17α is -A-A'-Ar. A and A' being spacer group independently selected from the group consisting of absent -CH 2 -, -CHF-, -CH(CH 3)-, propynylene, and (B and C being independently selected from the group consisting of hydrogen, fluoro, and methyl), and Ar being selected from the group consisting of: (D being selected from the group consisting of hydrogen, fluoro, chloro, bromo, methyl, ethyl and methoxy and E being selected from the group consisting of hydrogen, cyano and methyl); (f is CH or nitrogen); and (G being selected from the group consisting of cyano, -CONR 1 R 2 (R 1 and R 2 are independently selected from the group consisting of hydrogen and methyl) and -SOCH 3
A fastener system comprising a cranial plug and a strip fastener (20, 30, 270, 280, 300) for reattaching a skull flap removed from a skull during brain surgery and for closing at least one burr hole or cranial perforation made in the skull to facilitate cutting out a skull flap, the burr hole or cranial perforation having side walls, and the skull flap having a top surface, a bottom surface, and a perimeter defined by a bone edge surface, the bone edge surface having a vertical component extending from the top surface to the bottom surface and a horizontal component extending around the perimeter in a lateral direction, the cranial plug comprising a flange having an upper surface, a lower surface and a central axis generally perpendicular to the upper surface, and at least one extension projecting downwardly and away from the lower surface, wherein said at least one extension is beside the side walls when the cranial plug is implanted in a patient, the strip fastener (20, 30) comprising a flexible strip (21, 31) having a length and sufficient flexibility to be formed lengthwise around the perimeter in the lateral direction and alongside the bone edge surface, characterized in that the flexible strip (21, 31, 51) has brackets with tabs spaced along the length of the strip and in engagement thereto, that at least one tab (22, 274, 284) is adapted to be disposed over and adjacent to the skull flap and at least one other tab (24, 275, 285) is adapted to be disposed over and adjacent to the skull when the strip is positioned alongside the bone edge surface, and that the tabs are structured to be attached to the skull flap and to the skull with attachment means, thereby reattaching the skull flap to the skull.
Propulsion system for an aircraft comprising an air system, said propulsion system comprising: - a fairing having an openwork grille, - a turbofan engine having a compression stage and a secondary duct, and - an air bleeding system comprising: - a heat exchanger, - a hot pipe that is fluidically connected between the compression stage and the air system, and passing through the heat exchanger, - a cold pipe fluidically connected between the secondary duct and the openwork grille, and passing through the heat exchanger, the propulsion system being characterized in that the air bleeding system comprises a flap that is arranged at the openwork grille and that is moved by a motor between an open position in which the flap does not block the holes of the openwork grille and a closed position in which the flap blocks the holes of the openwork grille. - a fairing having an openwork grille, - a turbofan engine having a compression stage and a secondary duct, and - an air bleeding system comprising: - a heat exchanger, - a hot pipe that is fluidically connected between the compression stage and the air system, and passing through the heat exchanger, - a cold pipe fluidically connected between the secondary duct and the openwork grille, and passing through the heat exchanger, the propulsion system being characterized in that the air bleeding system comprises a flap that is arranged at the openwork grille and that is moved by a motor between an open position in which the flap does not block the holes of the openwork grille and a closed position in which the flap blocks the holes of the openwork grille. - a heat exchanger, - a hot pipe that is fluidically connected between the compression stage and the air system, and passing through the heat exchanger, - a cold pipe fluidically connected between the secondary duct and the openwork grille, and passing through the heat exchanger,
Method for joining workpieces with the aid of a high-energy beam guided by a multi-axis manipulator, in particular a laser beam, - an upper part of the workpiece being joined to at least one web-like lower part, - initially the lower part being measured with the aid of a measuring device, which is also guided by the manipulator and has an optical detecting device coupled into the beam path of the beam, and the size of the envisaged joining area being determined, - the measurement area on the lower part being illuminated by an illuminating device which is also guided by the manipulator and has a plurality of luminous elements which shine onto the measurement area from various directions, - and the joining web to be followed by the beam being aligned and stored after the measurement result, - the upper part subsequently being laid on and thereafter joined to the lower part, - the beam being guided along the stored joining web and being directed onto the rear side of the upper part, and - the beam being emitted by a manipulator-guided emitter head at a distance from the working position, the emitter head having an optical device with a focal length of 250 mm or more, preferably of 500 mm or more. - an upper part of the workpiece being joined to at least one web-like lower part, - initially the lower part being measured with the aid of a measuring device, which is also guided by the manipulator and has an optical detecting device coupled into the beam path of the beam, and the size of the envisaged joining area being determined, - the measurement area on the lower part being illuminated by an illuminating device which is also guided by the manipulator and has a plurality of luminous elements which shine onto the measurement area from various directions, - and the joining web to be followed by the beam being aligned and stored after the measurement result, - the upper part subsequently being laid on and thereafter joined to the lower part, - the beam being guided along the stored joining web and being directed onto the rear side of the upper part, and - the beam being emitted by a manipulator-guided emitter head at a distance from the working position, the emitter head having an optical device with a focal length of 250 mm or more, preferably of 500 mm or more.
Method for preparing ethylene in which ethane is partially catalytically converted in a reaction feed by oxidative dehydrogenation in the presence of oxygen to obtain a gaseous first component mixture comprising at least ethane, ethylene, acetic acid and water, wherein at least some of the gaseous first component mixture is subjected to scrubbing with a scrubbing liquid to obtain a liquid second component mixture which comprises water and acetic acid, characterized in that a first portion of the second component mixture is used to form the scrubbing liquid, in that a second portion of the second component mixture is subjected to a solvent extraction to obtain a liquid third component mixture comprising at least one organic solvent and acetic acid, and in that at least some of the liquid third component mixture is heated and subjected to distillation to obtain a liquid comprising predominantly or exclusively acetic acid, wherein the heating of the third component mixture or of the part thereof subjected to distillation is carried out at least partially in heat exchange with the first component mixture and/or with the first and/or with the second portion of the second component mixture.
A method for loading a container on a landing target on a land vehicle using a container crane comprising a trolley and a spreader for holding and lifting the container, the method being performed in a container crane control system and comprising the step of: obtaining two-dimensional images of the landing target from a first pair of cameras arranged on the spreader, characterised in that the method further comprises the steps of: performing feature extraction based on the two-dimensional images to identify key features of the landing target; generating a point cloud based on the feature extraction, wherein each point in the point cloud contains co-ordinates in three dimensions; and controlling movement of the container to the landing target based on the point cloud and the identified key features of the landing target. performing feature extraction based on the two-dimensional images to identify key features of the landing target; generating a point cloud based on the feature extraction, wherein each point in the point cloud contains co-ordinates in three dimensions; and controlling movement of the container to the landing target based on the point cloud and the identified key features of the landing target.
A method for executing an application in an NFC device, the method comprising steps during which: a contactless link is established between a first NFC device and a second NFC device, the first NFC device transmits through the contactless link an identifier of the first NFC device to the second NFC device, the second NFC device transmits through the contactless link to the first NFC device an application identifier (APID) of an application installed in the first NFC device, the second NFC device transmits to an application server (ASRV) the identifier of the first NFC device and the application identifier, the application server transmits to an authentication server (HSRV) the identifier of the first NFC device and the application identifier, the authentication server verifies the identifier of the first NFC device is memorized in association with the application identifier, and the authentication server authorizes a transaction during the execution of the application only if the identifier of the first NFC device is memorized in association with the application identifier, by transmitting to the application server an identifier of a user of the first NFC device, corresponding to the identifier of the first NFC device. a contactless link is established between a first NFC device and a second NFC device, the first NFC device transmits through the contactless link an identifier of the first NFC device to the second NFC device, the second NFC device transmits through the contactless link to the first NFC device an application identifier (APID) of an application installed in the first NFC device, the second NFC device transmits to an application server (ASRV) the identifier of the first NFC device and the application identifier, the application server transmits to an authentication server (HSRV) the identifier of the first NFC device and the application identifier, the authentication server verifies the identifier of the first NFC device is memorized in association with the application identifier, and the authentication server authorizes a transaction during the execution of the application only if the identifier of the first NFC device is memorized in association with the application identifier, by transmitting to the application server an identifier of a user of the first NFC device, corresponding to the identifier of the first NFC device.
A vehicle vibration damping control device for suppressing vibration of a vehicle body by controlling a driving output of a vehicle having a diesel engine as a driving device, comprising a compensation component computing portion which, based on a wheel torque generated on a ground contact site of a wheel of the vehicle and a road surface and acting on the wheel, computes a compensation component which compensates the wheel torque to suppress an amplitude of the vibration of the vehicle body; characterized by a control gain determining portion which determines a control gain to be multiplied with the compensation component in superimposing the compensation component on a requested value of a driving torque to the engine, wherein, at a time point of a reversion of a sign of a value of the compensation component, the control gain determining portion decreases the control gain if the value of the compensation component has deviated from a restriction range for variation of a fuel injection quantity determined based on an operational condition of the engine in a term between the time point and a preceding time point of a reversion of a sign of the value of the compensation component, and increases the control gain if the value of the compensation component has not deviated from the restriction range for variation of the fuel injection quantity of the engine in the term. a compensation component computing portion which, based on a wheel torque generated on a ground contact site of a wheel of the vehicle and a road surface and acting on the wheel, computes a compensation component which compensates the wheel torque to suppress an amplitude of the vibration of the vehicle body; characterized by a control gain determining portion which determines a control gain to be multiplied with the compensation component in superimposing the compensation component on a requested value of a driving torque to the engine, wherein, at a time point of a reversion of a sign of a value of the compensation component, the control gain determining portion decreases the control gain if the value of the compensation component has deviated from a restriction range for variation of a fuel injection quantity determined based on an operational condition of the engine in a term between the time point and a preceding time point of a reversion of a sign of the value of the compensation component, and increases the control gain if the value of the compensation component has not deviated from the restriction range for variation of the fuel injection quantity of the engine in the term.
Chamber for receiving at least one sample, in particular an organic substance, comprising an opening on an upper side of the chamber for receiving a preferably bar-shaped sample carrier, wherein the chamber has a projection in the region of the opening, wherein, by a form of a tapering edge, the projection is designed for detaching a part of the sample carrier from a remainder of the sample carrier when a force applied by the projection acts on the part of the received sample carrier that extends into the chamber, characterized in that the chamber has in a lower region of the chamber with respect to the upper side at least one further projection, which is designed for fixing the received sample carrier, and wherein at least one of the projections (12, 13) is formed in one piece with at least part of the chamber.
A stiffening member (50, 150) for a protective housing assembly (23, 123) which defines a bore (36, 136) for receiving a utility line; the housing assembly comprising: a first body member (40, 140), and a second body member (42, 142) arranged adjacent to one another to define sections of the bore (36, 136) which surrounds the utility line; wherein the stiffening member (50, 150) comprises: a first side (84, 184) for engagement with the first body member (40, 140), and a second side (86, 186) for engagement with the second body member (42, 142); characterised in that one or more pedestals (90, 190) extend from the first side (84, 184) of the stiffening member (50, 150) in a first direction away from the second side (86, 186); wherein the stiffening member (50, 150) is made from a resilient material having a hardness less than the hardness of the body members. a first body member (40, 140), and a second body member (42, 142) arranged adjacent to one another to define sections of the bore (36, 136) which surrounds the utility line; a first side (84, 184) for engagement with the first body member (40, 140), and a second side (86, 186) for engagement with the second body member (42, 142); characterised in that one or more pedestals (90, 190) extend from the first side (84, 184) of the stiffening member (50, 150) in a first direction away from the second side (86, 186); wherein the stiffening member (50, 150) is made from a resilient material having a hardness less than the hardness of the body members. characterised in that one or more pedestals (90, 190) extend from the first side (84, 184) of the stiffening member (50, 150) in a first direction away from the second side (86, 186); wherein the stiffening member (50, 150) is made from a resilient material having a hardness less than the hardness of the body members.
Segment for a smoking article, which comprises a wrapper material and a filter material, wherein the wrapper material wraps the filter material and at least 10% and at most 100% of the mass of the filter material is formed by a calendered fibrous web, wherein at least 50% and at most 100% of the mass of the calendered fibrous web is formed by organic polymer fibers, characterized in that the calendered fibrous web has a compression factor C of at least 0.45 and at most 0.85, wherein the compression factor is calculated by C = 1 d ∑ i = 1 N m i ρ i wherein d is the thickness of the calendered fibrous web determined in accordance with ISO 534:2011, m i, with 1≤i≤N, is the mass per unit area of the i-th of N≥1 components of the calendered fibrous web, and ρ i, with 1≤i≤N, is the density of the i-th of the N≥1 components, wherein the N components considered for the calculation of the compression factor C are selected such that the sum of the masses per unit area m i from i=1 to i=N is at least 90% of the basis weight of the calendered fibrous web determined in accordance with ISO 536:2019. wherein d is the thickness of the calendered fibrous web determined in accordance with ISO 534:2011, m i, with 1≤i≤N, is the mass per unit area of the i-th of N≥1 components of the calendered fibrous web, and ρ i, with 1≤i≤N, is the density of the i-th of the N≥1 components, wherein the N components considered for the calculation of the compression factor C are selected such that the sum of the masses per unit area m i from i=1 to i=N is at least 90% of the basis weight of the calendered fibrous web determined in accordance with ISO 536:2019.
A method for producing a (meth)acrylic resin composition, characterized in that the method comprises the steps of: continuously feeding a monomer mixture comprising 80 to 100 % by mass of methyl methacrylate and 20 to 0 % by mass of an alkyl acrylate to a tank reactor and bulk-polymerizing the monomer mixture until obtaining a polymerization conversion of 40 to 70 % by mass to obtain a reaction product; continuously discharging the reaction product, and heating the reaction product to a temperature of 200 °C to 270 °C with a heater, and then separating the unreacted monomer with an extruder equipped with a vent; feeding an inert gas to a vent portion in the extruder; and transferring the separated unreacted monomer entrained by a flow of the inert gas to reuse the separated unreacted monomer as a raw material of the monomer mixture, wherein a b* value of the separated unreacted monomer is -0.5 to 1.5 as calculated in accordance with the method described in JIS K-7105, and a b* value of a molded product formed of the (meth)acrylic resin composition at a molding temperature of 260 °C is 3.5 or less as calculated at an optical path length of 200 mm in accordance with the method described in JIS Z-8729. continuously feeding a monomer mixture comprising 80 to 100 % by mass of methyl methacrylate and 20 to 0 % by mass of an alkyl acrylate to a tank reactor and bulk-polymerizing the monomer mixture until obtaining a polymerization conversion of 40 to 70 % by mass to obtain a reaction product; continuously discharging the reaction product, and heating the reaction product to a temperature of 200 °C to 270 °C with a heater, and then separating the unreacted monomer with an extruder equipped with a vent; feeding an inert gas to a vent portion in the extruder; and transferring the separated unreacted monomer entrained by a flow of the inert gas to reuse the separated unreacted monomer as a raw material of the monomer mixture, wherein a b* value of the separated unreacted monomer is -0.5 to 1.5 as calculated in accordance with the method described in JIS K-7105, and a b* value of a molded product formed of the (meth)acrylic resin composition at a molding temperature of 260 °C is 3.5 or less as calculated at an optical path length of 200 mm in accordance with the method described in JIS Z-8729.