mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a blow-molded part for a motor vehicle, said part comprising at least one shell, said at least one shell being composed of one single layer made of a barrier material composition, the process comprising the following steps: - Step 1: preparing the barrier material composition, said barrier composition comprising: ∘ A polyamide the content of which is from 40 to 90% by weight based upon the total weight of the barrier material composition, said polyamide comprising at least a layered clay; ∘ A compatibilizer the content of which is from 10 to 60% by weight based upon the total weight of the barrier material composition; - Step 2: Obtaining the barrier material composition; - Step 3: Preparing a material composition by mixing a polyolefin the content of which is from 94 to 99% by weight based upon the total weight of the material composition with the barrier material composition obtained at step 2 the content of which is from 1 to 6% by weight based upon the total weight of the material composition; - Step 4: Obtaining the material composition; - Step 5: Blow molding a part for a motor vehicle with the material composition obtained at step 4, said part comprising a flash. - Step 1: preparing the barrier material composition, said barrier composition comprising: ∘ A polyamide the content of which is from 40 to 90% by weight based upon the total weight of the barrier material composition, said polyamide comprising at least a layered clay; ∘ A compatibilizer the content of which is from 10 to 60% by weight based upon the total weight of the barrier material composition; ∘ A polyamide the content of which is from 40 to 90% by weight based upon the total weight of the barrier material composition, said polyamide comprising at least a layered clay; ∘ A compatibilizer the content of which is from 10 to 60% by weight based upon the total weight of the barrier material composition; - Step 2: Obtaining the barrier material composition; - Step 3: Preparing a material composition by mixing a polyolefin the content of which is from 94 to 99% by weight based upon the total weight of the material composition with the barrier material composition obtained at step 2 the content of which is from 1 to 6% by weight based upon the total weight of the material composition; - Step 4: Obtaining the material composition; - Step 5: Blow molding a part for a motor vehicle with the material composition obtained at step 4, said part comprising a flash.
A process for determining in vitro the overall immune status of a septic individual in order to implement the best-targeted therapy according to the established immune response according to which: a. a blood sample from the individual is provided, b. at least two reagents specific to at least two products of expression of at least two target genes respectively chosen from the following target genes: HLA-DRA, S100A9, S100A8, IRAK-M, LY64, CIITA, TNF-alpha, IL-10, GBP1, MMP7, CXCL1, CXCL10, COX2, FCN1, TNFAIP6, CXCL7, CXCL5, PID1 et RHOU, c. the expression of said at least two target genes is determined, and d. the expression of said at least two target genes respectively is compared with a reference expression, with a change in the expression of said at least two target genes relative to their reference expression indicating that the individual's immune status has changed, and a correlation between the expression of said at least two target genes with their reference expression indicating that the individual's immune status is normal. a. a blood sample from the individual is provided, b. at least two reagents specific to at least two products of expression of at least two target genes respectively chosen from the following target genes: HLA-DRA, S100A9, S100A8, IRAK-M, LY64, CIITA, TNF-alpha, IL-10, GBP1, MMP7, CXCL1, CXCL10, COX2, FCN1, TNFAIP6, CXCL7, CXCL5, PID1 et RHOU, HLA-DRA, S100A9, S100A8, IRAK-M, LY64, CIITA, TNF-alpha, IL-10, GBP1, MMP7, CXCL1, CXCL10, COX2, FCN1, TNFAIP6, CXCL7, CXCL5, PID1 et RHOU, c. the expression of said at least two target genes is determined, and d. the expression of said at least two target genes respectively is compared with a reference expression, with a change in the expression of said at least two target genes relative to their reference expression indicating that the individual's immune status has changed, and a correlation between the expression of said at least two target genes with their reference expression indicating that the individual's immune status is normal.
A de-icing assembly for a surface of an aircraft, the de-icing assembly comprising: a carcass with a first layer, a second layer, and a carcass centerline (CLc); a plurality of seams sewn into the carcass, wherein the plurality of seams join the first and second layers of the carcass together; a plurality of inflation passages formed by the plurality of seams and disposed between the first and second layers of the carcass; a manifold fluidly connected to and disposed beneath the carcass, the manifold comprising a width (W M) and a manifold centerline (CL M) oriented approximately perpendicular to the carcass centerline; and a first reinforcement stitchline sewn into the carcass adjacent to one of the plurality of seams, wherein the first reinforcement stitchline is disposed at a location on the carcass overlapping with the manifold and wherein the first reinforcement stitchline is disposed approximately perpendicular to the manifold centerline (CL M) and extends across the width (W M) of the manifold. a carcass with a first layer, a second layer, and a carcass centerline (CLc); a plurality of seams sewn into the carcass, wherein the plurality of seams join the first and second layers of the carcass together; a plurality of inflation passages formed by the plurality of seams and disposed between the first and second layers of the carcass; a manifold fluidly connected to and disposed beneath the carcass, the manifold comprising a width (W M) and a manifold centerline (CL M) oriented approximately perpendicular to the carcass centerline; and a first reinforcement stitchline sewn into the carcass adjacent to one of the plurality of seams, wherein the first reinforcement stitchline is disposed at a location on the carcass overlapping with the manifold and wherein the first reinforcement stitchline is disposed approximately perpendicular to the manifold centerline (CL M) and extends across the width (W M) of the manifold.
A method of optimizing a brake system to reduce squealing noise, comprising at least the steps of - reviewing (100, 110) possible values of at least one physical parameter of the system - for each value of parameter reviewed and for a point predetermined nonlinear static equilibrium of the brake system, search for and identify computer (1000, 1100) the various modes of the brake system corresponding to instabilities the brake system, - for each identified eigen mode, impose during a computer scan different vibratory amplitudes for the vibrations in said mode (2000, 2800), and for each amplitude imposed during the scan, perform a computer decomposition of the brake system in harmonics by having linearized the contact forces with respect to displacement and speed to identify (2600, 2700) unstable eigen modes of the brake system, - selecting one of the values of physical and reviewed according to the unstable natural modes and identified to reduce the squealing noise of the brake system. - reviewing (100, 110) possible values of at least one physical parameter of the system - for each value of parameter reviewed and for a point predetermined nonlinear static equilibrium of the brake system, search for and identify computer (1000, 1100) the various modes of the brake system corresponding to instabilities the brake system, - for each identified eigen mode, impose during a computer scan different vibratory amplitudes for the vibrations in said mode (2000, 2800), and for each amplitude imposed during the scan, perform a computer decomposition of the brake system in harmonics by having linearized the contact forces with respect to displacement and speed to identify (2600, 2700) unstable eigen modes of the brake system, - selecting one of the values of physical and reviewed according to the unstable natural modes and identified to reduce the squealing noise of the brake system.
A stacker for stockpiling bulk material, the stacker comprising: a chassis provided with wheels and tracks or wheels or tracks; a conveyor; and a powered, telescoping cylinder leg for moving the conveyor with respect to the chassis, wherein the conveyor is at least 21.3 m (70 ft) long; and characterised in that the telescoping cylinder leg is mounted at one end to the conveyor and at the other end is removably mountable to the chassis from a first mounting position for transport in a shipping container to a second mounting position for transport by road and when mounted in the first mounting position, the telescoping cylinder leg can be retracted to slide the conveyor backwards with respect to the chassis for transport in the shipping container and when mounted in the first mounting position, the telescoping cylinder leg can be extended to slide the conveyor forwards with respect to the chassis and mounted to the chassis at the second mounting position for transport by road. a chassis provided with wheels and tracks or wheels or tracks; a conveyor; and a powered, telescoping cylinder leg for moving the conveyor with respect to the chassis,
A system for adjusting a tractor speed to avoid a plugging event in a baler, the system comprising: a load sensor configured to sense a load on a pickup of the baler and output a load signal with a level and/or data value that varies according to the load on the pickup; a windrow sensor configured to monitor a ground area in front of the baler, determine a cross-sectional area of a windrow, and output a windrow signal with a level and/or data value that varies according to a cross-sectional area of the windrow; a processing element configured or programmed to receive the load signal, receive the windrow signal, receive a crop moisture signal and/or data about a moisture level of a crop to be baled, and output a speed signal with a level and/or data value that varies according to values from the load signal, the windrow signal, and the crop moisture signal and/or data; and a tractor speed controller configured to receive the speed signal and adjust a speed of the tractor according to the level and/or data value of the speed signal. a load sensor configured to sense a load on a pickup of the baler and output a load signal with a level and/or data value that varies according to the load on the pickup; a windrow sensor configured to monitor a ground area in front of the baler, determine a cross-sectional area of a windrow, and output a windrow signal with a level and/or data value that varies according to a cross-sectional area of the windrow; a processing element configured or programmed to receive the load signal, receive the windrow signal, receive a crop moisture signal and/or data about a moisture level of a crop to be baled, and output a speed signal with a level and/or data value that varies according to values from the load signal, the windrow signal, and the crop moisture signal and/or data; and receive the load signal, receive the windrow signal, receive a crop moisture signal and/or data about a moisture level of a crop to be baled, and output a speed signal with a level and/or data value that varies according to values from the load signal, the windrow signal, and the crop moisture signal and/or data; and a tractor speed controller configured to receive the speed signal and adjust a speed of the tractor according to the level and/or data value of the speed signal.
A terminal communicably connected to a server and a device to be controlled, the terminal including a circuitry configured to receive information defining an input interface, from the server, and present the input interface to a user, on the basis of the received information, when a user operates the input interface to control a device with the input interface, transmit a device control request to the server, receive in response to the control request control information for controlling the device, and data to be processed by the device, from the server, and execute device communication by transmitting the received control information and the received data to the device. the terminal including a circuitry configured to receive information defining an input interface, from the server, and present the input interface to a user, on the basis of the received information, when a user operates the input interface to control a device with the input interface, transmit a device control request to the server, receive in response to the control request control information for controlling the device, and data to be processed by the device, from the server, and execute device communication by transmitting the received control information and the received data to the device.
Tilt-adjustable tabletop device integrated in a desktop, comprising a tabletop panel which is provided with a tabletop surface and which is connected to the desktop via a pivot hinge, wherein one or more pivotable toothed racks are arranged at least indirectly on the underside of the tabletop panel and are guided through a respective cutout formed in a locking plate arranged fixedly with respect to the desktop, the teeth of said toothed racks being able to be brought into detachable engagement with an edge of the cutout, wherein a securing device is provided in the vicinity of a cutout in the locking plate in order to ensure that one of the teeth of a toothed rack is securely seated on the edge of the cutout so as to be protected from impact effects on the desktop, characterized in that the securing device is formed by a U-leg whose leg pieces (171, 172) are mounted in the locking plate and whose base forms a barrier with respect to a toothed rack in order to prevent unwanted sliding off of a tooth in engagement with the edge of the cutout in the event of an unwanted impact against the desktop.
Use of a fluorine-containing resin for increasing or improving the light resistance of a non-fluorinated thermoplastic resin, wherein the non-fluorinated thermoplastic resin comprises at least one member selected from the group consisting of an aromatic polyamide, a liquid crystal polyester, and an aromatic polyetherketone resin.
A method of applying an electrospun material to an inner surface of a stent, the method comprising the steps of: coupling a mandrel to a stent body; wherein the stent body comprises an inner surface defining a cavity and an outer surface opposing the inner surface, and wherein the stent body has a length along an axis defined by the mandrel between a first end of the stent body and a second end of the stent body; applying an electrospun material to at least a portion of the stent outer surface and to at least a portion of the mandrel to form a coating sheet; wherein a portion (402; 406) of the coating sheet extends from at least one of the first end or second end of the stent to the mandrel; and moving one or both of the stent and the mandrel to apply at least some of the portion (402; 406) of the coating sheet onto the inner surface of the stent body. coupling a mandrel to a stent body; wherein the stent body comprises an inner surface defining a cavity and an outer surface opposing the inner surface, and wherein the stent body has a length along an axis defined by the mandrel between a first end of the stent body and a second end of the stent body; applying an electrospun material to at least a portion of the stent outer surface and to at least a portion of the mandrel to form a coating sheet; wherein a portion (402; 406) of the coating sheet extends from at least one of the first end or second end of the stent to the mandrel; and moving one or both of the stent and the mandrel to apply at least some of the portion (402; 406) of the coating sheet onto the inner surface of the stent body.
An Optical Frequency Domain Reflectometry, OFDR, interrogation system for measuring an optical fiber sensor including multiple optical cores, the OFDR interrogation system comprising: a tunable laser (1, 16, 32) configured to sweep laser light over wavelengths; a modulator configured to add a known modulation to an output of the tunable laser (1, 16, 32) to produce swept laser light, the swept laser light including the known modulation; an optical interferometric network (2, 12) configured to provide the swept laser light to the optical fiber sensor and to output reflected light from the optical fiber sensor, wherein the outputted reflected light includes, for each core of the multiple optical cores, a reflection of the swept laser light, and wherein the outputted reflected light corresponds to sensor data; and data processing circuitry (5, 22) configured to: determine, based on the known modulation, a phase difference between the outputted reflected light associated with different optical cores of the multiple optical cores, and process the sensor data based on the phase difference by: determining a delay difference between the different optical cores based on the phase difference, and correcting for the delay difference. a tunable laser (1, 16, 32) configured to sweep laser light over wavelengths; a modulator configured to add a known modulation to an output of the tunable laser (1, 16, 32) to produce swept laser light, the swept laser light including the known modulation; an optical interferometric network (2, 12) configured to provide the swept laser light to the optical fiber sensor and to output reflected light from the optical fiber sensor, wherein the outputted reflected light includes, for each core of the multiple optical cores, a reflection of the swept laser light, and wherein the outputted reflected light corresponds to sensor data; and data processing circuitry (5, 22) configured to: determine, based on the known modulation, a phase difference between the outputted reflected light associated with different optical cores of the multiple optical cores, and process the sensor data based on the phase difference by: determining a delay difference between the different optical cores based on the phase difference, and correcting for the delay difference. determine, based on the known modulation, a phase difference between the outputted reflected light associated with different optical cores of the multiple optical cores, and process the sensor data based on the phase difference by: determining a delay difference between the different optical cores based on the phase difference, and correcting for the delay difference.
A method for metallizing a plastic surface of a plastic article, the plastic article having at least a part thereof made from a support comprising a supporting material and an electroless plating promoter including one or more members selected from the group consisting of oxides of the metal elements selected from Co, Ni, Ag, the method comprising the steps of: 1) gasifying the plastic surface by laser to expose the electroless plating promoter; and 2) electroless plating a layer of copper or nickel on the plastic surface, followed by electroplating or a second electroless plating to form a metallized layer on the plastic surface. 1) gasifying the plastic surface by laser to expose the electroless plating promoter; and 2) electroless plating a layer of copper or nickel on the plastic surface, followed by electroplating or a second electroless plating to form a metallized layer on the plastic surface.
A gas turbine engine clearance control arrangement comprising: first and second components defining a clearance therebetween; the first component comprising a surface portion having at least a layer of piezoelectric material that changes thickness when actuated; and an actuator to actuate the layer of piezoelectric material; characterised in that the surface portion comprises the layer of piezoelectric material sandwiched between layers of metal. first and second components defining a clearance therebetween; the first component comprising a surface portion having at least a layer of piezoelectric material that changes thickness when actuated; and an actuator to actuate the layer of piezoelectric material; characterised in that the surface portion comprises the layer of piezoelectric material sandwiched between layers of metal.
A process for preparation of 1-[2-(Dimethylamino)-1-(4-hydroxyphenyl)ethyl]-cyclohexanol (formula), consisting acts of i) reacting 1-[2-(Dimethyl amino-1-(4-methoxyphenyl) ethyl cyclohexanol of formula with a potassium salt and polyethylene glycol-400 in an organic solvent to obtain a mixture; ii) heating the mixture; iii) diluting the mixture with water to obtain an aqueous phase; and iv) acidifying the aqueous phase with an acidic reagent to obtain1-[2-(Dimethylamino)-1-(4-hydroxyphenyl)ethyl]-cyclohexanol of formula. i) reacting 1-[2-(Dimethyl amino-1-(4-methoxyphenyl) ethyl cyclohexanol of formula with a potassium salt and polyethylene glycol-400 in an organic solvent to obtain a mixture; ii) heating the mixture; iii) diluting the mixture with water to obtain an aqueous phase; and iv) acidifying the aqueous phase with an acidic reagent to obtain1-[2-(Dimethylamino)-1-(4-hydroxyphenyl)ethyl]-cyclohexanol of formula.
Coupling device for coupling a first shaft to a second shaft aligned coaxially to the first shaft, in such a way that the coupling device converts linear movements of the one shaft into rotational movement of the other shaft, - wherein the coupling device has a guide housing having a screw guide extending coaxially to the shafts (11, 14) in a helical manner, said screw guide having at least one helical guide groove formed in the guide housing, said guide groove having two guide surfaces facing towards each other, and at least one sliding body engaging with the guiding groove, - wherein the guide housing is connected non-rotationally to the one shaft (11 or 14) and the respective sliding body to the other shaft (14 or 11), - wherein the respective sliding body is aligned helically in a complementary manner to the respective guide groove and has two sliding surfaces facing away from each other for surface contact with one of the guide surfaces, characterised in that, in parallel to the pivot axis, the respective sliding body is a maximum of half as big as the respective guide groove. - wherein the coupling device has a guide housing having a screw guide extending coaxially to the shafts (11, 14) in a helical manner, said screw guide having at least one helical guide groove formed in the guide housing, said guide groove having two guide surfaces facing towards each other, and at least one sliding body engaging with the guiding groove, - wherein the guide housing is connected non-rotationally to the one shaft (11 or 14) and the respective sliding body to the other shaft (14 or 11), - wherein the respective sliding body is aligned helically in a complementary manner to the respective guide groove and has two sliding surfaces facing away from each other for surface contact with one of the guide surfaces,