mhurhangee/patent-ind-claim-en huggingface dataset:
A solar-control or thermally insulating or anticondensation glazing unit equipped with a stack of thin layers reflecting infrared radiation, in which said stack is covered with a protective polymer film made of styrene-butadiene copolymer, the thickness of the polymer film being smaller than 10 microns.
A control center comprising a busbar connection device , the control center having a horizontal busbar which is extended in a horizontal direction and through which a current flows, the horizontal busbar having two adjusting holes and two through holes , the busbar connection device comprising: a connection conductor that is configured to electrically connect the horizontal busbar of the control center to a horizontal busbar of an adjacent control center, the connection conductor being connectable between end parts of the adjacent horizontal busbars , the connection conductor having two fixing holes ; two fixing bolts connecting the horizontal busbar and the connection conductor ; and a plate nut having two fixing threaded holes in which tapping/threading is made for fastening the fixing bolts , wherein the fixing bolts pass through the fixing holes and the through holes , wherein the busbar connection device further comprises two adjusting bolts connecting the plate nut and the horizontal busbar , wherein the plate nut includes two adjusting threaded holes in which tapping/threading is made for fastening the adjusting bolts , wherein the adjusting bolts pass through the adjusting holes , the adjusting holes being formed in a fitting shape such that the diameter of the adjusting holes is larger than the diameter of the adjusting bolts in a way that the position of the plate nut can be adjusted, characterized in that the adjusting bolts do not pass through the connection conductor . a connection conductor that is configured to electrically connect the horizontal busbar of the control center to a horizontal busbar of an adjacent control center, the connection conductor being connectable between end parts of the adjacent horizontal busbars , the connection conductor having two fixing holes ; two fixing bolts connecting the horizontal busbar and the connection conductor ; and a plate nut having two fixing threaded holes in which tapping/threading is made for fastening the fixing bolts , wherein the fixing bolts pass through the fixing holes and the through holes , wherein the busbar connection device further comprises two adjusting bolts connecting the plate nut and the horizontal busbar , wherein the plate nut includes two adjusting threaded holes in which tapping/threading is made for fastening the adjusting bolts , wherein the adjusting bolts pass through the adjusting holes , the adjusting holes being formed in a fitting shape such that the diameter of the adjusting holes is larger than the diameter of the adjusting bolts in a way that the position of the plate nut can be adjusted, characterized in that the adjusting bolts do not pass through the connection conductor .
An implantable neural interface system comprising: a controller hub comprising a first communication chip; a plurality of electrodes , each configured to be secured directly to neural tissue; and a plurality of satellite devices , each coupled to the controller hub and comprising: an output pathway to one of said electrodes; a leakage current monitor coupled to the output pathway and configured to: detect and measure a value of a leakage current along the output pathway, and generate a digital signal based on the measured value of the leakage current; and a second communication chip communicatively coupled to the first communication chip, wherein the second communication chip is configured to receive said digital signal from the leakage current monitor. a controller hub comprising a first communication chip; a plurality of electrodes , each configured to be secured directly to neural tissue; and a plurality of satellite devices , each coupled to the controller hub and comprising: an output pathway to one of said electrodes; a leakage current monitor coupled to the output pathway and configured to: detect and measure a value of a leakage current along the output pathway, and generate a digital signal based on the measured value of the leakage current; and a second communication chip communicatively coupled to the first communication chip, wherein the second communication chip is configured to receive said digital signal from the leakage current monitor. an output pathway to one of said electrodes; a leakage current monitor coupled to the output pathway and configured to: detect and measure a value of a leakage current along the output pathway, and generate a digital signal based on the measured value of the leakage current; and detect and measure a value of a leakage current along the output pathway, and generate a digital signal based on the measured value of the leakage current; and a second communication chip communicatively coupled to the first communication chip, wherein the second communication chip is configured to receive said digital signal from the leakage current monitor.
An antifouling coating composition comprising: (A) a diorganopolysiloxane having at least two silanol groups in the molecule, (B) an organosilane and/or a partial hydrolyzate condensate thereof having at least two hydrolyzable groups in the molecule, (C) a pyrithione metal salt, and (F) an ether-modified organopolysiloxane represented by Formula [V]: (R 5 ) 3 SiO(SiR 5 2 O) n Si(R 5 ) 3 ····· [V] (wherein R 5 indicates independently at each occurrence: a hydrogen atom; an alkyl, aryl or aralkyl group of 1 to 10 carbon atoms; a hydroxyl group; a hydrolyzable group Y; or a linear, branched or alicyclic hydrocarbon chain with an ether group optionally terminated with a hydroxyl group, a -SiR x Y (3-x) group (wherein x is 0 to 2), or an alkyl or acyl group of 1 to 6 carbon atoms, at least one of R 5 is the linear, branched or alicyclic hydrocarbon chain with an ether group optionally terminated with a hydroxyl group, a -SiR x Y (3-x) group, or an alkyl or acyl group of 1 to 6 carbon atoms, and n indicates an integer of 1 or greater), wherein the content of the pyrithione metal salt (C) in the antifouling coating composition is 3 to 15 wt.%, and wherein the content of the ether-modified organopolysiloxane (F) in the antifouling coating composition is 0.01 to 3 wt.% in terms of the content in a dry coating film formed from the antifouling coating composition. (A) a diorganopolysiloxane having at least two silanol groups in the molecule, (B) an organosilane and/or a partial hydrolyzate condensate thereof having at least two hydrolyzable groups in the molecule, (C) a pyrithione metal salt, and (F) an ether-modified organopolysiloxane represented by Formula [V]: (R 5 ) 3 SiO(SiR 5 2 O) n Si(R 5 ) 3 ····· [V] (wherein R 5 indicates independently at each occurrence: a hydrogen atom; an alkyl, aryl or aralkyl group of 1 to 10 carbon atoms; a hydroxyl group; a hydrolyzable group Y; or a linear, branched or alicyclic hydrocarbon chain with an ether group optionally terminated with a hydroxyl group, a -SiR x Y (3-x) group (wherein x is 0 to 2), or an alkyl or acyl group of 1 to 6 carbon atoms, at least one of R 5 is the linear, branched or alicyclic hydrocarbon chain with an ether group optionally terminated with a hydroxyl group, a -SiR x Y (3-x) group, or an alkyl or acyl group of 1 to 6 carbon atoms, and n indicates an integer of 1 or greater), a hydrogen atom; an alkyl, aryl or aralkyl group of 1 to 10 carbon atoms; a hydroxyl group; a hydrolyzable group Y; or a linear, branched or alicyclic hydrocarbon chain with an ether group optionally terminated with a hydroxyl group, a -SiR x Y (3-x) group (wherein x is 0 to 2), or an alkyl or acyl group of 1 to 6 carbon atoms, at least one of R 5 is the linear, branched or alicyclic hydrocarbon chain with an ether group optionally terminated with a hydroxyl group, a -SiR x Y (3-x) group, or an alkyl or acyl group of 1 to 6 carbon atoms, and n indicates an integer of 1 or greater),
A method comprising: detecting an event at a first apparatus ; determining usage of one or more connected apparatuses connected to the first apparatus; selecting, by adaptive notification circuitry, based at least in part on the determined usage, at least one of the one or more connected apparatuses so as to avoid interfering with usage of an in-use connected apparatus; generating an event notification message; and causing the event notification message to be sent to the selected at least one of the one or more connected apparatuses to provide an alert indicative of the event. detecting an event at a first apparatus ; determining usage of one or more connected apparatuses connected to the first apparatus; selecting, by adaptive notification circuitry, based at least in part on the determined usage, at least one of the one or more connected apparatuses so as to avoid interfering with usage of an in-use connected apparatus; generating an event notification message; and causing the event notification message to be sent to the selected at least one of the one or more connected apparatuses to provide an alert indicative of the event.
An identification code-based three-dimensional interactive method for controlling a three-dimensional image based on user interactions in relation to a real object, comprising: acquiring a current image, the current image being taken by video-capable equipment and including an identification-coded real object; identifying an identification code from the current image including the identification-coded real object; obtaining object information corresponding to the identification code, the object information including a three-dimensional image; acquiring , based on the identification code, a reference image associated with the identification code and feature points of the reference image, the reference image corresponding to the real object of the current image; obtaining a position, an orientation, or a combination thereof of the video-capable equipment relative to the identification-coded real object based on the current image, the reference image, and the feature points of the reference image; and conducting three-dimensional interactions, the conducting three-dimensional interactions comprising controlling display of the three-dimensional image based on the position, the orientation, or a combination thereof of the video-capable equipment relative to the identification-coded real object and the object information corresponding to the identification code. acquiring a current image, the current image being taken by video-capable equipment and including an identification-coded real object; identifying an identification code from the current image including the identification-coded real object; obtaining object information corresponding to the identification code, the object information including a three-dimensional image; acquiring , based on the identification code, a reference image associated with the identification code and feature points of the reference image, the reference image corresponding to the real object of the current image; obtaining a position, an orientation, or a combination thereof of the video-capable equipment relative to the identification-coded real object based on the current image, the reference image, and the feature points of the reference image; and conducting three-dimensional interactions, the conducting three-dimensional interactions comprising controlling display of the three-dimensional image based on the position, the orientation, or a combination thereof of the video-capable equipment relative to the identification-coded real object and the object information corresponding to the identification code.
Method for transferring telegrams (T1...T4) from a central unit (RBC1...RBC2) of a train control system to a control device (SG1...SG2) of a vehicle (FZ1...FZ2) when the vehicle changes between track sections with different levels or between track sections which are controlled by different central units, wherein the control device (SG1...SG2) has a buffer store (PS1...PS2) with storage spaces (SP1...SP6) for a specific number of received telegrams (T1...T4) and the central unit (RBC1...RBC2) has a mirror buffer store (SPS1...SPS2), characterised in that • for the vehicle (FZ1...FZ2), storage spaces (SP1...SP6) are reserved in a specific number in the mirror buffer store (SPS1...SPS2), • and in the central unit (RBC1...RBC2) either a telegram (T1...T4) to be transferred is written into a free storage space (SP1...SP3) when the specific number has yet to be achieved with already transferred telegrams (T1...T4), wherein the telegram (T1...T4) to be transferred is transferred to the control device (SG1...SG2) of the vehicle (FZ1...FZ2), • or, when the specific number is achieved with already transferred telegrams (T1...T4), in the central unit (RBC1...RBC2) in an evaluation step, the transferred telegrams (T2...T4) and in particular additionally also the telegram (T1) to be transferred are prioritised, and the telegram (T1...T4) with the lowest priority, if this is a transferred telegram, is deleted from the storage space (SP1...SP3) and instead the telegram to be transferred is written onto the storage space and in particular the telegram with the lowest priority, if this is the telegram to be transferred, is not written into a storage space (SP1...SP3), wherein all telegrams stored in the storage spaces (SP1...SP3) of the mirror buffer store (SPS1...SPS2) are transferred to the control device (SG1...SG2) of the vehicle (FZ1...FZ2) . • for the vehicle (FZ1...FZ2), storage spaces (SP1...SP6) are reserved in a specific number in the mirror buffer store (SPS1...SPS2), • and in the central unit (RBC1...RBC2) either a telegram (T1...T4) to be transferred is written into a free storage space (SP1...SP3) when the specific number has yet to be achieved with already transferred telegrams (T1...T4), wherein the telegram (T1...T4) to be transferred is transferred to the control device (SG1...SG2) of the vehicle (FZ1...FZ2), • or, when the specific number is achieved with already transferred telegrams (T1...T4), in the central unit (RBC1...RBC2) in an evaluation step, the transferred telegrams (T2...T4) and in particular additionally also the telegram (T1) to be transferred are prioritised, and the telegram (T1...T4) with the lowest priority, if this is a transferred telegram, is deleted from the storage space (SP1...SP3) and instead the telegram to be transferred is written onto the storage space and in particular the telegram with the lowest priority, if this is the telegram to be transferred, is not written into a storage space (SP1...SP3), wherein all telegrams stored in the storage spaces (SP1...SP3) of the mirror buffer store (SPS1...SPS2) are transferred to the control device (SG1...SG2) of the vehicle (FZ1...FZ2) .
A method of manufacturing a permanent magnet, the method comprising: heating a plurality of magnetic metals to their melting point under vacuum to create a metal alloy; allowing the metal alloy to cool and solidify; grinding the metal alloy into a powder ; characterized by placing the metal alloy powder into a non-magnetic metal container , the container being a tube of any desired cross sectional shape; aligning the metal alloy powder by applying a magnetic field to the metal alloy powder while compressing the metal alloy powder and the container ; sintering the metal alloy power while in the container ; cooling the sintered metal alloy powder and the container ; and magnetizing the sintered metal alloy powder while in the container ; wherein compressing the metal alloy powder comprises swaging the metal alloy powder and the container ; and the permanent magnet comprises the magnetizing sintered metal alloy powder in the container. heating a plurality of magnetic metals to their melting point under vacuum to create a metal alloy; allowing the metal alloy to cool and solidify; grinding the metal alloy into a powder ; characterized by placing the metal alloy powder into a non-magnetic metal container , the container being a tube of any desired cross sectional shape; aligning the metal alloy powder by applying a magnetic field to the metal alloy powder while compressing the metal alloy powder and the container ; sintering the metal alloy power while in the container ; cooling the sintered metal alloy powder and the container ; and magnetizing the sintered metal alloy powder while in the container ; wherein compressing the metal alloy powder comprises swaging the metal alloy powder and the container ; and the permanent magnet comprises the magnetizing sintered metal alloy powder in the container.
A composition comprising a low density polyethylene (LDPE) and a metallocene-catalyzed linear low density polyethylene (mLLDPE) wherein the composition when extruded as a molten resin displays a neck-in value that is about equal to or increased by less than about 15 % of the neck-in value observed when using the LDPE alone, wherein the mLLDPE is present in an amount of from about 1 wt.% to about 80 wt.% based on the total weight of the composition,and wherein the mLLDPE has a melt index of from about 0.7 to about 1.6 g/10min.
A computer-implemented method of minting a trusted non-fungible token, NFT, on a blockchain, the NFT corresponding to a digital asset, the computer-implemented method comprising the steps of: receiving a request to mint the NFT on the blockchain; accessing programming logic on the blockchain, the programming logic configured to mint the NFT to the blockchain; generating an NFT ID which comprises data identifying the NFT; inserting the NFT ID into the digital asset to generate a modified digital asset; storing the modified digital asset in an electronic memory, the storage location of the modified digital asset described by a first electronic storage address; generating metadata comprising the first storage address and storing the generated metadata in an electronic memory, the storage location of the metadata described by a second electronic storage address; and providing the second electronic storage address as an input to the programming logic; and executing the programming logic, thereby minting the trusted NFT to the blockchain. receiving a request to mint the NFT on the blockchain; accessing programming logic on the blockchain, the programming logic configured to mint the NFT to the blockchain; generating an NFT ID which comprises data identifying the NFT; inserting the NFT ID into the digital asset to generate a modified digital asset; storing the modified digital asset in an electronic memory, the storage location of the modified digital asset described by a first electronic storage address; generating metadata comprising the first storage address and storing the generated metadata in an electronic memory, the storage location of the metadata described by a second electronic storage address; and providing the second electronic storage address as an input to the programming logic; and executing the programming logic, thereby minting the trusted NFT to the blockchain.
A method of executing an application instance on a first processor, comprising: accepting a request in an orchestrator executing on a second processor to launch the application instance in the first processor; transmitting a command from the orchestrator to the first processor to launch the application instance; and provisioning a certificate and a private key from the orchestrator to the launched application instance executing on the first processor, the certificate and private key securing protected information of the application instance, wherein the private key is encrypted according to a key encryption key securely stored in an application image of the application instance; wherein the first processor decrypts the private key according to the key encryption key and re-encrypts the private key according to a local storage key. accepting a request in an orchestrator executing on a second processor to launch the application instance in the first processor; transmitting a command from the orchestrator to the first processor to launch the application instance; and provisioning a certificate and a private key from the orchestrator to the launched application instance executing on the first processor, the certificate and private key securing protected information of the application instance, wherein the private key is encrypted according to a key encryption key securely stored in an application image of the application instance; wherein the first processor decrypts the private key according to the key encryption key and re-encrypts the private key according to a local storage key.
An epoxidized polyfarnesene comprising: a farnesene polymer having at least a side chain or a main backbone functionalized with at least one oxirane group, wherein the farnesene polymer has at least one terminal end functionalized with a hydroxyl group.
Heterodyne detection spectrometer setup, comprising an optical path with at least a first cavity (a), able to emit a first laser beam (e), a second cavity (b), able to emit a second laser beam (f), at least one combining and/or reflecting mean (g), where the at least two cavities (a, b) are connected to current drivers (q) for stimulating laser emission, characterized in that at least the second cavity (b) is build as an active cavity (b), comprising an active medium connected to a heterodyne signal extraction element (k) and a multi-heterodyne signal processing unit (h), which second cavity (b) is simultaneously usable for laser light generation and as detector element, wherein the second cavity (b) with the active medium is introduced in the optical path in order that the first laser beam (e) and/or the second laser beam (f) can enter the respective other cavity (a, b), wherein at least one reference path (l, p) is established between the two cavities (a, b) in the optical path with the at least one combining and/or reflecting mean (g).
A polishing method for polishing an outer surface of a resin coating using a polishing composition containing abrasives, preferably in an amount of is 0.1 mass % or more and 50 mass % or less, including particles of aluminium oxide having a specific surface area of 5 m 2 /g or more and 50 m 2 /g or less and an average secondary particle diameter of 0.05 μm or more and 4.8 μm or less, wherein the aluminium oxide has an α-phase conversion rate of 40% or more, said α-phase conversion rate being measured from an integrated intensity ratio of a plane diffraction pattern obtained by an X-ray diffraction analysis; and further containing a thickener, wherein polishing is performed with a polishing temperature kept at a temperature less than or equal to a glass transition point of a resin constituting the resin coating.
Method for three-dimensional reshaping of flat material of natural fibres, namely paper or cardboard, with a deep-drawing piston and a die through which or into which the material is drawn, wherein the die is of sleeve-shaped construction and wherein this has a conical form, characterised in that the diameter of the deep-drawing piston plus the material thickness of the material to be deep drawn corresponds at any point in time of the deep-drawing process at least approximately to the diameter of the die .
A heat-crosslinkable adhesive composition, characterized in that it comprises: - at least one polymer (A) comprising a hydrolyzable alkoxysilane group; - at least one tackifying resin (B); - at least one silsesquioxane resin (C); and - at least one crosslinking catalyst (D). - at least one polymer (A) comprising a hydrolyzable alkoxysilane group; - at least one tackifying resin (B); - at least one silsesquioxane resin (C); and - at least one crosslinking catalyst (D).