mhurhangee/ep-ind-claims huggingface dataset:
A self-sealing tyre for vehicle wheels obtained by vulcanizing a green self-sealing tyre comprising: a carcass structure, a tread band applied in a radially external position to said carcass structure at least in a crown area of the tyre, a liner applied in a radially inner position to said carcass structure, a layer of sealing material applied in a radially inner position to said carcass structure and which extends axially at least in all the crown area of the tyre, said layer of sealing material comprising at least a layer of sealing material comprising a sealing composition comprising: (a) at least 20 phr of at least an unsaturated styrene thermoplastic elastomer; (b) from 0 phr to 80 phr of at least a diene elastomer; (c) from 0.1 phr to 6 phr of a crosslinking agent, the amount of the crosslinking agent in the sealing composition being such that: V × Sʹ 10 Hz = A wherein: V is the amount of the crosslinking agent expressed in meqv/100g of composition; S' is the value of the moment of torsion strength in phase with the deformation of the sealing material detected before crosslinking, expressed in dNm, measured with an oscillating rheometer at 50°C, at 25% of dynamic deformation and at 10Hz; A is a parameter with value higher than 1.4. a carcass structure, a tread band applied in a radially external position to said carcass structure at least in a crown area of the tyre, a liner applied in a radially inner position to said carcass structure, a layer of sealing material applied in a radially inner position to said carcass structure and which extends axially at least in all the crown area of the tyre, said layer of sealing material comprising at least a layer of sealing material comprising a sealing composition comprising: (a) at least 20 phr of at least an unsaturated styrene thermoplastic elastomer; (b) from 0 phr to 80 phr of at least a diene elastomer; (c) from 0.1 phr to 6 phr of a crosslinking agent, (a) at least 20 phr of at least an unsaturated styrene thermoplastic elastomer; (b) from 0 phr to 80 phr of at least a diene elastomer; (c) from 0.1 phr to 6 phr of a crosslinking agent, the amount of the crosslinking agent in the sealing composition being such that: V × Sʹ 10 Hz = A wherein: V is the amount of the crosslinking agent expressed in meqv/100g of composition; S' is the value of the moment of torsion strength in phase with the deformation of the sealing material detected before crosslinking, expressed in dNm, measured with an oscillating rheometer at 50°C, at 25% of dynamic deformation and at 10Hz; A is a parameter with value higher than 1.4.
System of short optical pulses having a very high temporal contrast spectrum about the wavelength λ, using the principle of parametric amplification and comprising: - a first generator of optical pulses outputting pulses with a duration less than 10 picoseconds at a wavelength approximately equal to λ, - a second generator of optical pulses outputting pulses with a duration less than 10 picoseconds at a wavelength approximately equal to 2*λ/3, - a device for collinearly recombining the pulses from the generators and, - a parametric amplification device receiving as input the output of said device, - a filter extracting from the output of said amplification device a band centred about a wavelength approximately equal to 2*λ, - a second harmonic generator receiving as input the output of said filter, - a filter centred about a wavelength approximately equal to λ extracting the wavelengths of the pulses produced by said generator. - a first generator of optical pulses outputting pulses with a duration less than 10 picoseconds at a wavelength approximately equal to λ, - a second generator of optical pulses outputting pulses with a duration less than 10 picoseconds at a wavelength approximately equal to 2*λ/3, - a device for collinearly recombining the pulses from the generators and, - a parametric amplification device receiving as input the output of said device, - a filter extracting from the output of said amplification device a band centred about a wavelength approximately equal to 2*λ, - a second harmonic generator receiving as input the output of said filter, - a filter centred about a wavelength approximately equal to λ extracting the wavelengths of the pulses produced by said generator.
A polymer blend composition comprising a first ethylene-based copolymer, a second ethylene-based copolymer, and a third ethylene-based copolymer, wherein: (a) the first copolymer has an ethylene content from 35 to 55 wt%; (b) the second copolymer has an ethylene content from 55 to 85 wt%; (c) the third copolymer has an ethylene content from 65 to 85 wt%; (d) the ethylene content of the second copolymer is at least 15 wt% greater than the ethylene content of the first copolymer and the ethylene content of the third copolymer is at least 5 wt% greater than the ethylene content of the second copolymer; (e) the first, second, and third copolymers have a weight-average molecular weight (Mw) less than or equal to 130,000; (f) the ratio of the melt index of the first copolymer to the melt index of the second copolymer is less than or equal to 3.0 and the ratio of the melt index of the first copolymer to the melt index of the third copolymer is less than or equal to 3.0; and (g) the composition comprises from 15 to 85 wt% of the first copolymer, based on the total weight of the first, second, and third copolymers. (a) the first copolymer has an ethylene content from 35 to 55 wt%; (b) the second copolymer has an ethylene content from 55 to 85 wt%; (c) the third copolymer has an ethylene content from 65 to 85 wt%; (d) the ethylene content of the second copolymer is at least 15 wt% greater than the ethylene content of the first copolymer and the ethylene content of the third copolymer is at least 5 wt% greater than the ethylene content of the second copolymer; (e) the first, second, and third copolymers have a weight-average molecular weight (Mw) less than or equal to 130,000; (f) the ratio of the melt index of the first copolymer to the melt index of the second copolymer is less than or equal to 3.0 and the ratio of the melt index of the first copolymer to the melt index of the third copolymer is less than or equal to 3.0; and (g) the composition comprises from 15 to 85 wt% of the first copolymer, based on the total weight of the first, second, and third copolymers.
A monitoring system comprising: an acquirer configured to acquire, from one or more monitoring cameras that capture an image of a work area in which presented information to be input is input to an input terminal, a captured image captured by the one or more monitoring cameras; an extractor configured to extract the information to be input from the captured image acquired by the acquirer; an encryption processor configured to encrypt the information to be input extracted by the extractor; and a generator configured to: embed, in the encrypted information to be input, key information for decrypting the encrypted information to be input to generate a partial image; and replace the information to be input in the acquired captured image with the generated partial image to generate a replaced image in which the information to be input is made invisible. an acquirer configured to acquire, from one or more monitoring cameras that capture an image of a work area in which presented information to be input is input to an input terminal, a captured image captured by the one or more monitoring cameras; an extractor configured to extract the information to be input from the captured image acquired by the acquirer; an encryption processor configured to encrypt the information to be input extracted by the extractor; and a generator configured to: embed, in the encrypted information to be input, key information for decrypting the encrypted information to be input to generate a partial image; and replace the information to be input in the acquired captured image with the generated partial image to generate a replaced image in which the information to be input is made invisible. embed, in the encrypted information to be input, key information for decrypting the encrypted information to be input to generate a partial image; and replace the information to be input in the acquired captured image with the generated partial image to generate a replaced image in which the information to be input is made invisible.
A method for aerial image capture using an unmanned and controllable aircraft with camera, in particular a drone, during a flight movement of the aircraft, having - a progressive determination of a camera position and an alignment of an optical camera axis and - a capture of an aerial image series, characterized in that, the progressive determination of the alignment of the optical camera axis is carried out by an inertial measuring unit, which continuously determines a current alignment of the optical camera axis, and that for each aerial image (21a-b) of the aerial image series, the capture of the respective aerial image (21a-b) is triggered - as the aircraft flies through a respective image triggering region, wherein the location of the respective image triggering region is determined at least by in each case a triggering position (20a-c), which is associated with the respective image triggering region, in a flight plan, and - in dependence on the alignment of the camera axis continuously determined by the inertial measuring unit during the flight through the respective image triggering region in regard to a fulfillment of a defined maximum angle deviation (α) with respect to a predetermined spatial alignment. - a progressive determination of a camera position and an alignment of an optical camera axis and - a capture of an aerial image series, characterized in that, the progressive determination of the alignment of the optical camera axis is carried out by an inertial measuring unit, which continuously determines a current alignment of the optical camera axis, and that for each aerial image (21a-b) of the aerial image series, the capture of the respective aerial image (21a-b) is triggered - as the aircraft flies through a respective image triggering region, wherein the location of the respective image triggering region is determined at least by in each case a triggering position (20a-c), which is associated with the respective image triggering region, in a flight plan, and - in dependence on the alignment of the camera axis continuously determined by the inertial measuring unit during the flight through the respective image triggering region in regard to a fulfillment of a defined maximum angle deviation (α) with respect to a predetermined spatial alignment.
A nib and cap assembly for a writing instrument, comprising: a ferrule having a first end and a second end, a inner ferrule wall and a outer ferrule wall disposed at the first end, the inner ferrule wall and the outer ferrule wall being separated by a well having an opening proximate the first end; the inner ferrule wall comprising a central bore; a cap having a first end, a second end, and a first cap wall and a second cap wall,the first cap wall being sized and shaped to be at least partially received within the well; wherein the first cap wall is disposed at least partially within the well, between the inner ferrule wall and the outer ferrule wall, when the cap is coupled to the ferrule, wherein a writing nib is disposed at least partially within the central bore; wherein the writing nib is contained within the central bore such that an inner surface of the central bore contacts the writing nib; wherein a free end of the first cap wall is separated from a free end of the second cap wall by an annular space at the second end of the cap; and characterised in that the first cap wall is coextensive with the second cap wall in a longitudinal direction from the first end to the second end. a ferrule having a first end and a second end, a inner ferrule wall and a outer ferrule wall disposed at the first end, the inner ferrule wall and the outer ferrule wall being separated by a well having an opening proximate the first end; the inner ferrule wall comprising a central bore; a cap having a first end, a second end, and a first cap wall and a second cap wall,the first cap wall being sized and shaped to be at least partially received within the well; wherein the first cap wall is disposed at least partially within the well, between the inner ferrule wall and the outer ferrule wall, when the cap is coupled to the ferrule, wherein a writing nib is disposed at least partially within the central bore; wherein the writing nib is contained within the central bore such that an inner surface of the central bore contacts the writing nib; wherein a free end of the first cap wall is separated from a free end of the second cap wall by an annular space at the second end of the cap; and characterised in that the first cap wall is coextensive with the second cap wall in a longitudinal direction from the first end to the second end.
A hybrid vehicle, comprising: an energy storage device; a motor generator supplied with power from the energy storage device for running the hybrid vehicle; an engine; a power generator for charging said energy storage device with motive power from said engine; and a control device for controlling said power generator to supply to outside of said hybrid vehicle, in addition to electric power output from said energy storage device, electric power generated by said power generator as a result of operation of said engine when electric power in said energy storage device is supplied to the outside of the hybrid vehicle and when a requested amount of electric power requested from the outside of said hybrid vehicle exceeds available electric power of said power storage device, characterized in that said control device suppresses generation of said generated electric power when said requested amount exceeds said available electric power of said energy storage device and when the position of said hybrid vehicle is in a prescribed area, wherein said prescribed area is an area where refrainment of operation of said engine is required. an energy storage device; a motor generator supplied with power from the energy storage device for running the hybrid vehicle; an engine; a power generator for charging said energy storage device with motive power from said engine; and a control device for controlling said power generator to supply to outside of said hybrid vehicle, in addition to electric power output from said energy storage device, electric power generated by said power generator as a result of operation of said engine when electric power in said energy storage device is supplied to the outside of the hybrid vehicle and when a requested amount of electric power requested from the outside of said hybrid vehicle exceeds available electric power of said power storage device, characterized in that said control device suppresses generation of said generated electric power when said requested amount exceeds said available electric power of said energy storage device and when the position of said hybrid vehicle is in a prescribed area, wherein said prescribed area is an area where refrainment of operation of said engine is required.
A thermoplastic resin composition comprising: a polycarbonate; a polysiloxane-polycarbonate copolymer; a polyester; and a carbon black, wherein a master batch comprises the carbon black, and wherein the master batch comprises an amount of about 10% by weight to 40% by weight of the carbon black and an amount of about 60% by weight to 90% by weight of the polycarbonate, based on the total weight of the master batch. a polycarbonate; a polysiloxane-polycarbonate copolymer; a polyester; and a carbon black, wherein a master batch comprises the carbon black, and wherein the master batch comprises an amount of about 10% by weight to 40% by weight of the carbon black and an amount of about 60% by weight to 90% by weight of the polycarbonate, based on the total weight of the master batch.
A system, comprising: a distributed acoustic sensing data collection system (112, 212) coupled to at least one optical fiber (113, 226), the at least one optical fiber (113, 226) being configured to be at least partially positioned within a wellbore; and an information handling system (110, 230) coupled to the DAS data collection system, the information handling system comprising a processor and a memory device coupled to the processor, the memory device containing a set of instructions that, when executed by the processor, cause the processor to receive seismic information from the DAS data collection system, the seismic information comprising seismic traces that are each associated with a depth in the wellbore; generate a noise pilot trace by stacking a selection of the seismic traces; characterized in that the set of instructions, when executed by the processor, further cause the processor to subtract the noise pilot trace from the seismic information received from the DAS data collection system to reduce noise artefacts inherent to the DAS data collection system. a distributed acoustic sensing data collection system (112, 212) coupled to at least one optical fiber (113, 226), the at least one optical fiber (113, 226) being configured to be at least partially positioned within a wellbore; and an information handling system (110, 230) coupled to the DAS data collection system, the information handling system comprising a processor and a memory device coupled to the processor, the memory device containing a set of instructions that, when executed by the processor, cause the processor to receive seismic information from the DAS data collection system, the seismic information comprising seismic traces that are each associated with a depth in the wellbore; generate a noise pilot trace by stacking a selection of the seismic traces; characterized in that the set of instructions, when executed by the processor, further cause the processor to subtract the noise pilot trace from the seismic information received from the DAS data collection system to reduce noise artefacts inherent to the DAS data collection system.
Use of an anchor having a suspension portion (6a; 11) for the suspension of shackles, hooks or cables, and at least one anchoring portion for casting into a concrete component, wherein the suspension portion (6a; 11) is arranged in a recess body which is likewise provided for casting into the concrete component adjacent to the formwork thereof and which produces, in the concrete component, after the formwork has been stripped, a cavity which surrounds the suspension portion (6a; 11) and which is adjacent to the formwork-stripped side of the concrete component, characterized in that the anchoring portion comprises a metal plate which is situated above the recess body and which is connected to the suspension portion in the form of an eye or loop via a first bar passing through the wall of the recess body, wherein at least one second bar is fastened to the metal plate for load distribution, and wherein the second bar projects, preferably on both sides, by 25-50 cm beyond the metal plate, as lift assembly anchor in a concrete ceiling of a lift shaft, wherein the anchoring portion and the recess body are cast into the concrete ceiling such that the lift assembly anchor does not protrude into a shaft head region of the lift shaft by way of its suspension portion.
An inverse photoemission spectroscopy apparatus for detecting a light generated by the relaxation of electrons to an unoccupied state of a sample, the apparatus comprising: an electron source for generating electrons with which a sample is irradiated; a wavelength selector for extracting a light having a certain wavelength from the light generated in the sample; a photodetector for detecting the light extracted by the wavelength selector; and a focusing optics disposed between the sample and the photodetector, wherein the electron source contains yttrium oxide as a thermionic emission material, wherein the photodetector includes a photoelectric converter that is insusceptible or insensitive to a light having a wavelength of 400 nm or longer. an electron source for generating electrons with which a sample is irradiated; a wavelength selector for extracting a light having a certain wavelength from the light generated in the sample; a photodetector for detecting the light extracted by the wavelength selector; and a focusing optics disposed between the sample and the photodetector, wherein the electron source contains yttrium oxide as a thermionic emission material, wherein the photodetector includes a photoelectric converter that is insusceptible or insensitive to a light having a wavelength of 400 nm or longer.
A method for adapting data transmission from an industrial control device to a cloud system, the method comprising the following steps performed by a cloud application: determining a usage behavior by means of machine learning, wherein the usage behavior relates to the use of the data transmitted by the industrial control device, in particular process data, by the cloud system or a computer system connected thereto; and sending at least one command to the industrial control device to adapt the data transmission from the industrial control device to the cloud system based on the determined usage behavior. determining a usage behavior by means of machine learning, wherein the usage behavior relates to the use of the data transmitted by the industrial control device, in particular process data, by the cloud system or a computer system connected thereto; and sending at least one command to the industrial control device to adapt the data transmission from the industrial control device to the cloud system based on the determined usage behavior.
High-barrier composite, comprising (a) a substrate, (b) a first layer made of an exclusively inorganic material, (c) a first layer made of an inorganic-organic hybrid material, and (d) a second layer made of an exclusively inorganic material, characterized in that the layer made of an inorganic-organic hybrid material is arranged directly between the two layers made of an exclusively inorganic material and has a thickness of less than 1 μm. (a) a substrate, (b) a first layer made of an exclusively inorganic material, (c) a first layer made of an inorganic-organic hybrid material, and (d) a second layer made of an exclusively inorganic material,
Method for filling containers by means of a filling member, the filling member being operated, in a first filling mode, for a regular filling of the container with liquid, after a container defect, the filling member being operated for at least one machine cycle in a second filling mode, the first filling mode comprising at least one volume flow out of the container, characterized in that the second filling mode comprises solely volume flows into the container.
A thin film composite polyamide membrane comprising a porous support and a thin film polyamide layer characterized by possessing: i) an azo (-N=N-) content of from 0.30 wt% to 0.80 wt%, as measured by pyrolysis gas chromatography using ammonium dichromate as a calibration standard and pyrolizing the polyamide layer at 550°C for 6 seconds; ii) a dissociated carboxylate content of at least 0.18 mol/kg of polyamide as measured by Rutherford Backscattering at pH 9.5; and iii) an amino phenol/m-phenylene diamine ratio of at least 0.15 as determined using pyrolysis gas chromatography at 650°C for 6 seconds. i) an azo (-N=N-) content of from 0.30 wt% to 0.80 wt%, as measured by pyrolysis gas chromatography using ammonium dichromate as a calibration standard and pyrolizing the polyamide layer at 550°C for 6 seconds; ii) a dissociated carboxylate content of at least 0.18 mol/kg of polyamide as measured by Rutherford Backscattering at pH 9.5; and iii) an amino phenol/m-phenylene diamine ratio of at least 0.15 as determined using pyrolysis gas chromatography at 650°C for 6 seconds.