mhurhangee/patent-ind-claim-en huggingface dataset:
Method for the production of an adhesive tape , in particular a wrapping tape for the wrapping of cables in automobiles, whereupon - a tape-form substrate is provided, with a UV-crosslinkable adhesive coating with an application weight of 15 g/m 2 to 250 g/m 2 , whereupon furthermore - the adhesive coating has, in addition to an acrylate-based pressure-sensitive adhesive with polymerised or mixed-in photoinitiators, at least one additive, wherein - the photoinitiators are present at a grammage of between 0.05% by weight and 5% by weight, and the additive in the form of a resin admixture is present at a grammage of up to 40% by weight, in each case in the adhesive coating , whereupon in addition - for purposes of crosslinkage the photoinitiators are activated by irradiation with a UV-light source emitting in the range of their activation wavelength of between 250 nm and 320 nm, preferably of between 250 nm and 260 nm, whereupon furthermore - the additive has an extinction (E) of 0.1 to 0.7, at least in the range of the activation wavelength of the photoinitiators, and whereupon - the additive, which is in the form of a resin admixture, is produced on the basis of an only partially hydrogenated abietic acid ester, and - as the UV-light source , one such that is LED-based is used. - a tape-form substrate is provided, with a UV-crosslinkable adhesive coating with an application weight of 15 g/m 2 to 250 g/m 2 , whereupon furthermore - the adhesive coating has, in addition to an acrylate-based pressure-sensitive adhesive with polymerised or mixed-in photoinitiators, at least one additive, wherein - the photoinitiators are present at a grammage of between 0.05% by weight and 5% by weight, and the additive in the form of a resin admixture is present at a grammage of up to 40% by weight, in each case in the adhesive coating , whereupon in addition - for purposes of crosslinkage the photoinitiators are activated by irradiation with a UV-light source emitting in the range of their activation wavelength of between 250 nm and 320 nm, preferably of between 250 nm and 260 nm, whereupon furthermore - the additive has an extinction (E) of 0.1 to 0.7, at least in the range of the activation wavelength of the photoinitiators, and whereupon - the additive, which is in the form of a resin admixture, is produced on the basis of an only partially hydrogenated abietic acid ester, and - as the UV-light source , one such that is LED-based is used.
A lighting device suitable for promoting plant growth, said lighting device comprising:- (i) a first group of LEDs - referred to as "Group 1" hereafter-comprising a plurality of LEDs adapted to generate a first royal blue light emission spectrum having a peak between 450 - 460 nm; (ii) a second group of LEDs - referred to as "Group 2" hereafter-comprising a plurality of LEDS adapted to generate a second crimson light emission spectrum having a peak between 630 - 670 nm; (iii) a third group of LEDs - referred to as "Group 3" hereafter-comprising a plurality of LEDs adapted to generate a third cherry red light emission spectrum having a peak between 720 - 740 nm; (iv) a fourth group of LEDs - referred to as "Group 4" hereafter-comprising a plurality of LEDs adapted to generate white light; the intensity of the light output generated by each group of LEDs being adjustable independently of the other groups; characterized in that the lighting device further comprises an array of lenses , each lens comprising a light entering section in the form of a blind recess and a light emitting section, the outer surface of the light emitting section being substantially hemispherical and at least part of the internal, light receiving surface of the light entering section incorporating a high density of small convex facets , for example there are at least 50 small convex facets , and preferably greater than 100 small convex facets , on the internal hemispherical surface of each lens, even more preferably greater than 150 small convex facets . (i) a first group of LEDs - referred to as "Group 1" hereafter-comprising a plurality of LEDs adapted to generate a first royal blue light emission spectrum having a peak between 450 - 460 nm; (ii) a second group of LEDs - referred to as "Group 2" hereafter-comprising a plurality of LEDS adapted to generate a second crimson light emission spectrum having a peak between 630 - 670 nm; (iii) a third group of LEDs - referred to as "Group 3" hereafter-comprising a plurality of LEDs adapted to generate a third cherry red light emission spectrum having a peak between 720 - 740 nm; (iv) a fourth group of LEDs - referred to as "Group 4" hereafter-comprising a plurality of LEDs adapted to generate white light; the intensity of the light output generated by each group of LEDs being adjustable independently of the other groups; characterized in that the lighting device further comprises an array of lenses , each lens comprising a light entering section in the form of a blind recess and a light emitting section, the outer surface of the light emitting section being substantially hemispherical and at least part of the internal, light receiving surface of the light entering section incorporating a high density of small convex facets , for example there are at least 50 small convex facets , and preferably greater than 100 small convex facets , on the internal hemispherical surface of each lens, even more preferably greater than 150 small convex facets .
A method for depositing a cobalt contact layer for forming a contact structure in a semiconductor device, comprising: forming a silicon containing layer on a substrate , the silicon containing layer having contact openings formed therein; performing a barrier layer deposition process to deposit a barrier layer on the silicon containing layer ; performing a cyclic metal deposition process to deposit the cobalt contact layer in the contact openings to fill the contact openings, comprising: exposing the substrate to a deposition precursor gas mixture comprising a cobalt containing precursor and a reducing gas to deposit a portion of the cobalt contact layer on the substrate; exposing the portion of the cobalt contact layer to a plasma treatment process; and repeating the exposing the substrate to a deposition precursor gas mixture comprising a cobalt containing precursor and a reducing gas and the exposing the portion of the cobalt contact layer to a plasma treatment process until a predetermined thickness of the cobalt contact layer is achieved; and annealing the cobalt contact layer. forming a silicon containing layer on a substrate , the silicon containing layer having contact openings formed therein; performing a barrier layer deposition process to deposit a barrier layer on the silicon containing layer ; performing a cyclic metal deposition process to deposit the cobalt contact layer in the contact openings to fill the contact openings, comprising: exposing the substrate to a deposition precursor gas mixture comprising a cobalt containing precursor and a reducing gas to deposit a portion of the cobalt contact layer on the substrate; exposing the portion of the cobalt contact layer to a plasma treatment process; and repeating the exposing the substrate to a deposition precursor gas mixture comprising a cobalt containing precursor and a reducing gas and the exposing the portion of the cobalt contact layer to a plasma treatment process until a predetermined thickness of the cobalt contact layer is achieved; and exposing the substrate to a deposition precursor gas mixture comprising a cobalt containing precursor and a reducing gas to deposit a portion of the cobalt contact layer on the substrate; exposing the portion of the cobalt contact layer to a plasma treatment process; and repeating the exposing the substrate to a deposition precursor gas mixture comprising a cobalt containing precursor and a reducing gas and the exposing the portion of the cobalt contact layer to a plasma treatment process until a predetermined thickness of the cobalt contact layer is achieved; and annealing the cobalt contact layer.
A method for fastening a first structure having a first hole and a second structure having a second hole, the first and second holes having a same diameter, comprising: placing the first and second structures together with the first and second holes aligned; inserting a mating portion of a fastener into the first hole until an edge of the first hole in the first structure is in direct contact with and surrounds a tapered lead-in section of the fastener that tapers gradually toward the mating portion and has a taper angle equal to or less than 20 degrees, the fastener further comprising a head and a circular cylindrical shank connecting the head to the tapered lead-in section , the shank having a diameter greater than the diameter of the first and second holes, wherein the fastener further comprises a radiused lead-in section that meets the tapered lead-in section , curves abruptly toward the mating portion and has a second profile that is a circular arc having a radius and a maximum diameter equaling a minimum diameter of the tapered lead-in section , and wherein the mating portion has a maximum diameter less than a minimum diameter of the radiused lead-in section ; forcing the fastener further into the aligned holes of the first and second structures to cause the shank to directly contact the edge of the first hole, push through the first hole , and then push through the second hole until the mating portion of the fastener projects beyond the second structure; and coupling a mating part to the mating portion of the fastener . placing the first and second structures together with the first and second holes aligned; inserting a mating portion of a fastener into the first hole until an edge of the first hole in the first structure is in direct contact with and surrounds a tapered lead-in section of the fastener that tapers gradually toward the mating portion and has a taper angle equal to or less than 20 degrees, the fastener further comprising a head and a circular cylindrical shank connecting the head to the tapered lead-in section , the shank having a diameter greater than the diameter of the first and second holes, wherein the fastener further comprises a radiused lead-in section that meets the tapered lead-in section , curves abruptly toward the mating portion and has a second profile that is a circular arc having a radius and a maximum diameter equaling a minimum diameter of the tapered lead-in section , and wherein the mating portion has a maximum diameter less than a minimum diameter of the radiused lead-in section ; forcing the fastener further into the aligned holes of the first and second structures to cause the shank to directly contact the edge of the first hole, push through the first hole , and then push through the second hole until the mating portion of the fastener projects beyond the second structure; and coupling a mating part to the mating portion of the fastener .
A method for treating soybean rust in a host leguminous plant, wherein the method comprises: treating the plant at the locus of the infection with a multi-site contact fungicide, wherein the multi-site contact fungicide is mancozeb; and concurrently, prior or subsequently to the multi-site contact fungicide, with a systemic fungicide; wherein the systemic fungicide is a combination of a strobilurin fungicide; and a conazole fungicide; wherein the strobilurin fungicide is azoxystrobin and the conazole fungicide is tebuconazole or prothioconazole. treating the plant at the locus of the infection with a multi-site contact fungicide, wherein the multi-site contact fungicide is mancozeb; and concurrently, prior or subsequently to the multi-site contact fungicide, with a systemic fungicide; wherein the systemic fungicide is a combination of a strobilurin fungicide; and a conazole fungicide; wherein the strobilurin fungicide is azoxystrobin and the conazole fungicide is tebuconazole or prothioconazole.
A foldable hammock frame comprising two elongate support members hinged at opposite ends thereof and attached to each other in said opposite ends, and an angle limiter limiting the hinge opening angle of the two elongate support members to a preset acute angle, said elongate support members being adjacent at least in the middle of their length in a folded position of the frame, and said elongate support members lying in transverse planes 10 at said acute angle relative to each other and middle portions of the two elongate support members being spaced apart from each other in open position of the frame, wherein hammock attachment members are attached to each of the opposite ends of said elongate support members , so that a hammock can be deployed between the two opposite ends, wherein each elongate support member has two identical halves around a midpoint characterized in that each elongate support member comprises a straight section at each of the opposite ends and at least three connected curved sections between the straight sections, with the curved section in the middle having the largest curvature radius, wherein the curvature of the two elongate support members is equal.
NO X purification method of an exhaust purification system of an internal combustion engine provided with an exhaust purification catalyst inside of an engine exhaust passage for causing NO X and hydrocarbons which are contained in an exhaust to react, the exhaust purification catalyst including an upstream side catalyst and a downstream side catalyst , the upstream side catalyst having an oxidation ability, and the downstream side catalyst carrying precious metal catalyst particles on an exhaust flow surface and being formed with basic exhaust flow surface parts around the catalyst particles, the exhaust purification catalyst reducing the NO X which is contained in the exhaust if making a concentration of hydrocarbons which flow into the exhaust purification catalyst vibrate by within a predetermined range of amplitude and by within a predetermined range of period by partially oxidizing the hydrocarbons, activating the NO X to generate active NO X , making the partially oxidized hydrocarbons and the active NO X react so as to produce reducing intermediates, and making reducing intermediates and the active NO X react, wherein a vibration period of the hydrocarbon concentration is made an interval of 0.3 second to 5 seconds, and being increased in storage amount of NO X which is contained in the exhaust gas if making the vibration period of the concentration of hydrocarbons longer than said predetermined range, wherein the system is formed so as to perform control so as to make the concentration of hydrocarbons which flow into the exhaust purification catalyst vibrate by within said predetermined range of amplitude and by within said predetermined range of period at the time of engine operation and reduce the NO X which is contained in the exhaust at the exhaust purification catalyst , the system is further provided with a temperature raising device which raises a temperature of the upstream side catalyst , a first judgment temperature is set based on a temperature at which the upstream side catalyst can partially oxidize the hydrocarbons by a predetermined efficiency or a temperature at which it can produce reducing intermediates by a predetermined efficiency, a second judgment temperature is set based on a temperature at which the downstream side catalyst can react the reducing intermediates and the active NO X by a predetermined efficiency, and when the temperature of the upstream side catalyst is less than the first judgment temperature and the temperature of the downstream side catalyst is higher than the second judgment temperature, the temperature raising device raises the temperature of the upstream side catalyst .
A system-on-a-chip apparatus comprising: a system-on-a-chip comprising a security engine that is separate from a processor core of the system-on-a-chip and has a secure memory accessible only by the security engine, wherein the secure memory includes a security key that was provisioned in the secure memory during a manufacturing process of the system-on-a-chip , the security engine is configured to: generate a random nonce for initiating a request for a secure communication session with a server over a network using the nonce; perform a cryptographic key exchange with the server; generate a symmetric session key, based on the cryptographic key exchange, to encrypt messages sent to the server and decrypt messages received from the server during the secure communication session; encrypt the symmetric session key based on the security key; and store the encrypted symmetric session key in the secure memory, wherein the system-on-a-chip is configured to establish the secure communication session with the server over the network using the symmetric session key. generate a random nonce for initiating a request for a secure communication session with a server over a network using the nonce; perform a cryptographic key exchange with the server; generate a symmetric session key, based on the cryptographic key exchange, to encrypt messages sent to the server and decrypt messages received from the server during the secure communication session; encrypt the symmetric session key based on the security key; and store the encrypted symmetric session key in the secure memory, wherein the system-on-a-chip is configured to establish the secure communication session with the server over the network using the symmetric session key.
A process for the production of fresh cheese or quark exhibiting a reduced separation of liquids contained therein, comprising the following steps: (a) providing a fresh cheese or quark having an amount of enclosed liquid contained therein, and (b) filling the fresh cheese or quark into the final packaging, characterized in that vibrational energy with a frequency in the range of 10 to 1.000 Hz. is introduced into the fresh cheese or quark during the filling process. (a) providing a fresh cheese or quark having an amount of enclosed liquid contained therein, and (b) filling the fresh cheese or quark into the final packaging,
An electronic apparatus configured to have an established wireless connection with a first apparatus, the electronic apparatus comprising: power meter ; a first communication device powered by a commercial power source of the power meter and configured to receive meter data from the power meter ; a at least one second communication device configured to transmit the meter data received by the first communication device to the first apparatus, wherein the second communication device is a wireless communication device; a controller connected to the first communication device and the at least one second communication device and configured to control transmission and reception of the meter data by means of the at least one second communication device ; and a capacitor charged by the commercial power source of the power meter and configured to supply power to the first communication device and the at least one second communication device during a power failure of the power meter ; wherein the controller is configured to detect the power failure of the power meter and to transmit information related to the power failure of the power meter to the first apparatus when detecting the power failure; and the controller is further configured to establish a wireless connection with a second apparatus free from a power failure when detecting the power failure of the power meter , and to transmit the information related to the power failure of the power meter to the second apparatus from the at least one second communication device . power meter ; a first communication device powered by a commercial power source of the power meter and configured to receive meter data from the power meter ; a at least one second communication device configured to transmit the meter data received by the first communication device to the first apparatus, wherein the second communication device is a wireless communication device; a controller connected to the first communication device and the at least one second communication device and configured to control transmission and reception of the meter data by means of the at least one second communication device ; and a capacitor charged by the commercial power source of the power meter and configured to supply power to the first communication device and the at least one second communication device during a power failure of the power meter ; wherein the controller is configured to detect the power failure of the power meter and to transmit information related to the power failure of the power meter to the first apparatus when detecting the power failure; and the controller is further configured to establish a wireless connection with a second apparatus free from a power failure when detecting the power failure of the power meter , and to transmit the information related to the power failure of the power meter to the second apparatus from the at least one second communication device .
An apparatus for processing paper sheets, comprising a first sub controller configured to generate image data, based on an output signal from a camera which captures an image of a banknote transported along a transport path; a second sub controller configured to generate sensor data, based on an output signal from a sensor which measures the banknote; an integrated control unit configured to assign the same identifier to the image data and the sensor data of the same banknote, and select differently one computer from a plurality of computers in a transport order of respective banknotes; and a main controller configured to input the image data and the sensor data having the same identifier from the first sub controller and the second sub controller , wherein the main controller is configured to transfer the image data and the sensor data having the same identifier to the one computer selected differently in the transport order of the respective banknotes. a first sub controller configured to generate image data, based on an output signal from a camera which captures an image of a banknote transported along a transport path; a second sub controller configured to generate sensor data, based on an output signal from a sensor which measures the banknote; an integrated control unit configured to assign the same identifier to the image data and the sensor data of the same banknote, and select differently one computer from a plurality of computers in a transport order of respective banknotes; and a main controller configured to input the image data and the sensor data having the same identifier from the first sub controller and the second sub controller , wherein the main controller is configured to transfer the image data and the sensor data having the same identifier to the one computer selected differently in the transport order of the respective banknotes.