mhurhangee/patent-ind-claim-en huggingface dataset:
Rear bumper shield for a motor vehicle , comprising a shell-shaped wall, said wall having a lower edge with means for fixing to a rear edge of an air deflector panel intended to be arranged under a rear load floor of the vehicle ; the wall has, at the lower edge , at least two horizontal tongues , when the shield is in the position for mounting on the vehicle , configured to serve as support for the rear edge of the disengaged panel air deflector during the mounting of said deflector , before engagement of the fixing means with said panel , characterized in that the fixing means are tabs extending vertically downwards when said shield is in the position for mounting on a vehicle , and configured to be pivoted and folded down against the air deflector panel .
A process for preparing the hydrated crystalline form of Olaparib, characterized by : - IR spectrum comprising absorption peaks at 3513, 3163, 1681, 1651, 1438, 1222, 1012, 810, 773, 587 ± 1.5 cm-1; - DSC curve comprising an exothermic peak at 141.5°C and an endothermic peak at 210.5°C. - XRPD pattern comprising the following peaks 2θ (% intensity): 6.36 , 6.80 , 8.26 , 12.61 , 13.64 , 15.00 , 15.81 , 16.38 , 16.64 , 17.90 , 18.61 , 18.85 , 19.64 , 20.00 , 21.96 , 22.93 , 26.07 , 26.78 . - Karl Fisher value ranging from 3% to 7% wherein the process comprises the steps of: - dissolving crystalline Olaparib in acetic acid, at a temperature ranging between 20°C and 100°C; - adding the obtained solution of Olaparib to a polar protic anti-solvent, at a temperature ranging between -10°C and 50°C; or alternatively - adding a polar protic anti-solvent to the obtained Olaparib solution at a temperature ranging between -10°C and 50°C; - stirring the resulting suspension for a time ranging between 1 and 48 hours at a temperature ranging between 0° and 50°; - filtering the resulting suspension and washing with an anti-solvent; and - drying the resulting solid at low pressure at a temperature ranging between 0°C and 70°C. - IR spectrum comprising absorption peaks at 3513, 3163, 1681, 1651, 1438, 1222, 1012, 810, 773, 587 ± 1.5 cm-1; - DSC curve comprising an exothermic peak at 141.5°C and an endothermic peak at 210.5°C. - XRPD pattern comprising the following peaks 2θ (% intensity): 6.36 , 6.80 , 8.26 , 12.61 , 13.64 , 15.00 , 15.81 , 16.38 , 16.64 , 17.90 , 18.61 , 18.85 , 19.64 , 20.00 , 21.96 , 22.93 , 26.07 , 26.78 . - Karl Fisher value ranging from 3% to 7% - dissolving crystalline Olaparib in acetic acid, at a temperature ranging between 20°C and 100°C; - adding the obtained solution of Olaparib to a polar protic anti-solvent, at a temperature ranging between -10°C and 50°C; or alternatively - adding a polar protic anti-solvent to the obtained Olaparib solution at a temperature ranging between -10°C and 50°C; - stirring the resulting suspension for a time ranging between 1 and 48 hours at a temperature ranging between 0° and 50°; - filtering the resulting suspension and washing with an anti-solvent; and - drying the resulting solid at low pressure at a temperature ranging between 0°C and 70°C.
A one-component, heat-curable epoxy adhesive comprising in admixture: A) 45 to 75 weight percent, based on the weight of the epoxy adhesive, of a mixture of non-rubber-modified epoxy resins containing at least 90% by weight of a polyphenol polyglycidyl ether or a mixture of two or more polyphenol polyglycidyl ethers, wherein the mixture of non-rubber-modified epoxy resins is a liquid at 23°C and has an epoxy equivalent weight of 175 to 250; B) 12 to 25 weight percent, based on the weight of the epoxy adhesive, of core-shell rubber particles; C) 8 to 25 weight percent, based on the weight of the epoxy adhesive, of one or more particulate inorganic fillers that include calcium oxide, wherein the calcium oxide constitutes at least 8 weight percent of the weight of the epoxy adhesive; and D) at least one latent epoxy curing agents of at least 140°C, the-at least one latent epoxy curing agents being present in an amount sufficient to cure the epoxy adhesive, wherein the epoxy adhesive contains no more than 2 weight percent, based on the weight of the mixture of non-rubber-modified epoxy resins, of elastomeric compounds terminated in epoxy or epoxy-reactive groups and/or which contain urethane and/or urea groups. A) 45 to 75 weight percent, based on the weight of the epoxy adhesive, of a mixture of non-rubber-modified epoxy resins containing at least 90% by weight of a polyphenol polyglycidyl ether or a mixture of two or more polyphenol polyglycidyl ethers, wherein the mixture of non-rubber-modified epoxy resins is a liquid at 23°C and has an epoxy equivalent weight of 175 to 250; B) 12 to 25 weight percent, based on the weight of the epoxy adhesive, of core-shell rubber particles; C) 8 to 25 weight percent, based on the weight of the epoxy adhesive, of one or more particulate inorganic fillers that include calcium oxide, wherein the calcium oxide constitutes at least 8 weight percent of the weight of the epoxy adhesive; and D) at least one latent epoxy curing agents of at least 140°C, the-at least one latent epoxy curing agents being present in an amount sufficient to cure the epoxy adhesive, wherein the epoxy adhesive contains no more than 2 weight percent, based on the weight of the mixture of non-rubber-modified epoxy resins, of elastomeric compounds terminated in epoxy or epoxy-reactive groups and/or which contain urethane and/or urea groups.
Bumper assembly for a motor vehicle, with a crossmember to which crash boxes are coupled, wherein crash box flange plates for fastening the crash boxes to a body or a chassis of a motor vehicle are arranged on the crash boxes opposite the crossmember , wherein a receptacle extending in the direction of the crossmember is arranged in a force-fitting, form-fitting and/or integrally bonded manner on at least one crash box flange plate , wherein the receptacle is designed for the releasable arrangement of a towing device, characterized in that the at least one crash box flange plate is in the form of a hollow chamber profile .
A method for networking of spliced building blocks, wherein a set of spliced building blocks comprises a building block assembly and communication nodes, the communication nodes being disposed in the building block assembly, the method comprising at least one of following steps of network establishment performed by a communication node according to data transmission communication quality requirement: a step of first network establishment: according to a first configuration instruction or an own attribute, instructing mutual networking among communication nodes of spliced building blocks belonging to a first set to obtain a first network, wherein the first configuration instruction comes from an intelligent terminal, and the first network is a first wireless networking network; a step of second network establishment: according to a second configuration instruction or an own attribute, instructing mutual networking among communication nodes of spliced building blocks belonging to a second set in the first network to obtain a second network, wherein the second configuration instruction is transmitted by the first network, the second network is a second wireless networking network; wherein data transmission communication quality of the second network is higher than data transmission communication quality of the first network. a step of first network establishment: according to a first configuration instruction or an own attribute, instructing mutual networking among communication nodes of spliced building blocks belonging to a first set to obtain a first network, wherein the first configuration instruction comes from an intelligent terminal, and the first network is a first wireless networking network; a step of second network establishment: according to a second configuration instruction or an own attribute, instructing mutual networking among communication nodes of spliced building blocks belonging to a second set in the first network to obtain a second network, wherein the second configuration instruction is transmitted by the first network, the second network is a second wireless networking network;
A system comprising: an Unmanned Aerial Vehicle; a first load ; a second load ; and a fuel cell stack mounted in the Unmanned Aerial Vehicle, the fuel stack comprising: a first end plate ; a second end plate ; and an internal current collecting plate arranged in the fuel cell stack between the first end plate and the second end plate , wherein the first load is connected to the first end plate and the second end plate , and the second load is connected to the first end plate and the internal current collecting plate ; wherein the first load and the second load are components of the Unmanned Aerial Vehicle. an Unmanned Aerial Vehicle; a first load ; a second load ; and a fuel cell stack mounted in the Unmanned Aerial Vehicle, the fuel stack comprising: a first end plate ; a second end plate ; and an internal current collecting plate arranged in the fuel cell stack between the first end plate and the second end plate , wherein the first load is connected to the first end plate and the second end plate , and the second load is connected to the first end plate and the internal current collecting plate ; wherein the first load and the second load are components of the Unmanned Aerial Vehicle. a first end plate ; a second end plate ; and an internal current collecting plate arranged in the fuel cell stack between the first end plate and the second end plate , wherein the first load is connected to the first end plate and the second end plate , and the second load is connected to the first end plate and the internal current collecting plate ;
Blade for a mowing unit for a lawnmower and/or a motor scythe , - wherein the blade is substantially parallelogram-shaped, - wherein the blade has a slot , - wherein the slot is designed to receive a blade-holding element of the mowing unit such - that the blade can rotate about the blade-holding element and move in translation relative to the blade-holding element for one cutting position (SPa) of the blade defined by one end of the slot having one cutting orientation (SRa) of the blade and another cutting position (SPb) of the blade defined by another end of the slot having another cutting orientation (SRb) of the blade , and - wherein a line segment delimited by the ends of the slot does run non-parallel to sides (PAa, PAb, PAc, PAd) of the parallelogram (PA), - characterized in that the parallelogram (PA) has an obtuse internal angle (β, δ), wherein the obtuse internal angle (β, δ) is at least 95°, and in particular at most 120°, in particular 100°. - wherein the blade is substantially parallelogram-shaped, - wherein the blade has a slot , - wherein the slot is designed to receive a blade-holding element of the mowing unit such - that the blade can rotate about the blade-holding element and move in translation relative to the blade-holding element for one cutting position (SPa) of the blade defined by one end of the slot having one cutting orientation (SRa) of the blade and another cutting position (SPb) of the blade defined by another end of the slot having another cutting orientation (SRb) of the blade , and - wherein a line segment delimited by the ends of the slot does run non-parallel to sides (PAa, PAb, PAc, PAd) of the parallelogram (PA), - characterized in that the parallelogram (PA) has an obtuse internal angle (β, δ), wherein the obtuse internal angle (β, δ) is at least 95°, and in particular at most 120°, in particular 100°.
An enhanced Long Range Navigation, eLORAN, system comprising: an eLORAN controller configured to obtain satellite-derived conductivity data and satellite-derived temperature data for different geographical positions, wherein the source of these data is from one or more satellites, and generate eLORAN correction factors based thereon; a plurality of eLORAN transmitter stations (40a - 40n); and at least one eLORAN receiver device comprising: an eLORAN receive antenna , an eLORAN receiver coupled to the eLORAN receive antenna and configured to receive the eLORAN correction factors, and a controller coupled to the eLORAN receiver and configured to cooperate with said plurality of eLORAN transmitter stations to determine an eLORAN receiver position corrected based upon the eLORAN correction factors. an eLORAN controller configured to obtain satellite-derived conductivity data and satellite-derived temperature data for different geographical positions, wherein the source of these data is from one or more satellites, and generate eLORAN correction factors based thereon; a plurality of eLORAN transmitter stations (40a - 40n); and at least one eLORAN receiver device comprising: an eLORAN receive antenna , an eLORAN receiver coupled to the eLORAN receive antenna and configured to receive the eLORAN correction factors, and a controller coupled to the eLORAN receiver and configured to cooperate with said plurality of eLORAN transmitter stations to determine an eLORAN receiver position corrected based upon the eLORAN correction factors. an eLORAN receive antenna , an eLORAN receiver coupled to the eLORAN receive antenna and configured to receive the eLORAN correction factors, and a controller coupled to the eLORAN receiver and configured to cooperate with said plurality of eLORAN transmitter stations to determine an eLORAN receiver position corrected based upon the eLORAN correction factors.
A pneumatic tire comprising: a tread portion ; a pair of sidewall portions ; a pair of bead portions in each of which a bead core is embedded; a carcass layer extending between the pair of bead portions so as to straddle each bead core ; a belt layer disposed outward of the carcass layer in a tire radial direction; and a band layer disposed outward of the belt layer in the tire radial direction, wherein the pair of bead portions have bead apex rubbers each disposed outward of the corresponding bead core in the tire radial direction the band layer includes a band cord arranged in a tire circumferential direction, and a 2% modulus of the band cord is 4500 to 9000 N/mm 2 , wherein the 2% modulus is a tensile elastic modulus, at an elongation of 2%, that is measured at a tensile speed of 30 ± 2 cm/min, characterized in that a complex elastic modulus (E*2) of each bead apex rubber is 20 to 80 MPa, wherein the complex elastic modulus is measured in accordance with the standard of JIS-K6394 under the conditions of initial strain being 10%, amplitude being ±1%, frequency being 10 Hz, deformation mode being tension and measurement temperature being 70°C. a tread portion ; a pair of sidewall portions ; a pair of bead portions in each of which a bead core is embedded; a carcass layer extending between the pair of bead portions so as to straddle each bead core ; a belt layer disposed outward of the carcass layer in a tire radial direction; and a band layer disposed outward of the belt layer in the tire radial direction, wherein the pair of bead portions have bead apex rubbers each disposed outward of the corresponding bead core in the tire radial direction the band layer includes a band cord arranged in a tire circumferential direction, and a 2% modulus of the band cord is 4500 to 9000 N/mm 2 , wherein the 2% modulus is a tensile elastic modulus, at an elongation of 2%, that is measured at a tensile speed of 30 ± 2 cm/min, characterized in that a complex elastic modulus (E*2) of each bead apex rubber is 20 to 80 MPa, wherein the complex elastic modulus is measured in accordance with the standard of JIS-K6394 under the conditions of initial strain being 10%, amplitude being ±1%, frequency being 10 Hz, deformation mode being tension and measurement temperature being 70°C.
An optical structure having a quantization phase difference structure on one surface of a quantization phase difference structure layer, wherein in the quantization phase difference structure, a plurality of quantization projecting portions are aligned in one direction in ribbed projecting portions, and a plurality of quantization recessed portions are aligned in groove-like recessed portions parallel to the ribbed projecting portions, the ribbed projecting portions are arranged adjacent to and alternately with the groove-like recessed portions, and in the quantization phase difference structure, plural spatial frequency components in accordance with an arrangement of the quantization projecting portions and the quantization recess portions overlap with each other; the plural spatial frequencies are discrete in a predetermined direction and arranged regularly, characterized in that the plurality of quantization projecting portions has a constant size, and the plurality of quantization recessed portions has a constant size. in the quantization phase difference structure, a plurality of quantization projecting portions are aligned in one direction in ribbed projecting portions, and a plurality of quantization recessed portions are aligned in groove-like recessed portions parallel to the ribbed projecting portions, the ribbed projecting portions are arranged adjacent to and alternately with the groove-like recessed portions, and in the quantization phase difference structure, plural spatial frequency components in accordance with an arrangement of the quantization projecting portions and the quantization recess portions overlap with each other; the plural spatial frequencies are discrete in a predetermined direction and arranged regularly, characterized in that the plurality of quantization projecting portions has a constant size, and the plurality of quantization recessed portions has a constant size.
A network endpoint device , comprising: a network node connected to a network and configured to communicate with a network manager and other network nodes of the network , the network node having a first network address; and an edge device connected to the network node via a local connection and configured to communicate with the network node through the local connection , wherein the edge device is configured to communicate with the network manager via the network node to obtain security keys and security credentials of the edge device ; establish a secure channel between the network node and the edge device over the local connection using the security keys and the security credentials; communicate with the network manager via the network node to exchange routing information and to obtain a second network address for the edge device ; and communicate with another network node in the network via the network node using the security keys, the security credentials, and the second network address. a network node connected to a network and configured to communicate with a network manager and other network nodes of the network , the network node having a first network address; and an edge device connected to the network node via a local connection and configured to communicate with the network node through the local connection , wherein the edge device is configured to communicate with the network manager via the network node to obtain security keys and security credentials of the edge device ; establish a secure channel between the network node and the edge device over the local connection using the security keys and the security credentials; communicate with the network manager via the network node to exchange routing information and to obtain a second network address for the edge device ; and communicate with another network node in the network via the network node using the security keys, the security credentials, and the second network address. communicate with the network manager via the network node to obtain security keys and security credentials of the edge device ; establish a secure channel between the network node and the edge device over the local connection using the security keys and the security credentials; communicate with the network manager via the network node to exchange routing information and to obtain a second network address for the edge device ; and communicate with another network node in the network via the network node using the security keys, the security credentials, and the second network address.
A computer-implemented method for blockchain-based decentralized application development performed by an integrated development environment, IDE , for blockchain-contract development and application development, the method comprising: generating a blockchain contract and an interface specification associated with the blockchain contract based on a received plurality of first inputs; deploying the blockchain contract on a blockchain; generating a client-side application based on a received plurality of second inputs and the interface specification associated with the blockchain contract, wherein the client-side application is executable to invoke the blockchain contract deployed on the blockchain and the generating the client-side application comprises: generating an object associated with the blockchain contract based on the interface specification, wherein the object comprises one or more methods associated with the interface specification; obtaining the plurality of second inputs, wherein one or more of the second inputs comprises source code invoking the one or more methods associated with the interface specification; and including the object associated with the blockchain contract and the source code in the client-side application; and storing the client-side application in an online storage system. generating a blockchain contract and an interface specification associated with the blockchain contract based on a received plurality of first inputs; deploying the blockchain contract on a blockchain; generating a client-side application based on a received plurality of second inputs and the interface specification associated with the blockchain contract, wherein the client-side application is executable to invoke the blockchain contract deployed on the blockchain and the generating the client-side application comprises: generating an object associated with the blockchain contract based on the interface specification, wherein the object comprises one or more methods associated with the interface specification; obtaining the plurality of second inputs, wherein one or more of the second inputs comprises source code invoking the one or more methods associated with the interface specification; and including the object associated with the blockchain contract and the source code in the client-side application; and generating an object associated with the blockchain contract based on the interface specification, wherein the object comprises one or more methods associated with the interface specification; obtaining the plurality of second inputs, wherein one or more of the second inputs comprises source code invoking the one or more methods associated with the interface specification; and including the object associated with the blockchain contract and the source code in the client-side application; and storing the client-side application in an online storage system.