mhurhangee/patent-ind-claim-en huggingface dataset:
Plug connection for a lamp body, which has a first connecting part with a socket part and a second connecting part with a plug part , wherein the second connecting part can be mechanically coupled to the first connecting part and the plug part can be electrically connected to the socket part, wherein the plug connection exclusively comprises a one-dimensional guide in the connection direction of the plug connection and a manually releasable latching connection acting perpendicularly to the direction of connection, characterized in that the second connecting part has a plug plate with a central longitudinal opening in which the plug part is embedded with its fastening plate in a floating manner, so that the second connecting part can be mechanically coupled to the first connecting part and at the same time the plug part can be electrically connected to the socket part.
An apparatus comprising: vertical, lateral, and longitudinal acceleration transducers producing uncorrected acceleration signals and thermal signals , the thermal signals including a signal corresponding to a temperature of the vertical acceleration transducer , a signal corresponding to a temperature of the lateral acceleration transducer , and a signal corresponding to a temperature of the longitudinal acceleration transducer ; and an error correction system connected to the acceleration transducers for receiving the uncorrected acceleration signals and the thermal signals , the error correction system including, (a) a system controller for generating a plurality of correction coefficients based, at least in part, on a sampling of each of the thermal signals , and (b) an error compensation circuit receiving the correction coefficients to compensate the uncorrected acceleration signals and produce corrected acceleration signals. vertical, lateral, and longitudinal acceleration transducers producing uncorrected acceleration signals and thermal signals , the thermal signals including a signal corresponding to a temperature of the vertical acceleration transducer , a signal corresponding to a temperature of the lateral acceleration transducer , and a signal corresponding to a temperature of the longitudinal acceleration transducer ; and an error correction system connected to the acceleration transducers for receiving the uncorrected acceleration signals and the thermal signals , the error correction system including, (a) a system controller for generating a plurality of correction coefficients based, at least in part, on a sampling of each of the thermal signals , and (b) an error compensation circuit receiving the correction coefficients to compensate the uncorrected acceleration signals and produce corrected acceleration signals. (a) a system controller for generating a plurality of correction coefficients based, at least in part, on a sampling of each of the thermal signals , and (b) an error compensation circuit receiving the correction coefficients to compensate the uncorrected acceleration signals and produce corrected acceleration signals.
Process for producing an active-ingredient-containing adhesive formulation for use in a transdermal therapeutic system, comprising the following steps: a) providing an adhesive formulation comprising a carboxylic ester-based solvent and a pressure-sensitive adhesive polymer matrix which comprises monomers of the compounds on which the polymer matrix is based, b) removing the carboxylic ester-based solvent and the monomers from the adhesive formulation, c) redissolving the composition obtained in step b) in an organic solvent which contains no ester groups, and adding a pharmacologically active ingredient which has at least one hydroxyl group, carboxyl group, amino group and/or ester group, to give the active-ingredient-containing adhesive formulation. a) providing an adhesive formulation comprising a carboxylic ester-based solvent and a pressure-sensitive adhesive polymer matrix which comprises monomers of the compounds on which the polymer matrix is based, b) removing the carboxylic ester-based solvent and the monomers from the adhesive formulation, c) redissolving the composition obtained in step b) in an organic solvent which contains no ester groups, and adding a pharmacologically active ingredient which has at least one hydroxyl group, carboxyl group, amino group and/or ester group, to give the active-ingredient-containing adhesive formulation.
Method for determining a physical size (L, β) of an adjustable top link of a power lift while it is being operated with an attached attachment using calibration data (K, K1, K2, K3, K4, K5) that are generated before the power lift is operated, wherein the attachment is connected to the top link and at least one bottom link of the power lift , characterized in that the calibration data (K, K1, K2, K3, K4, K5) represent a ratio of a length (L) of the top link to a top-link angle (β) enclosed between the top link and a reference straight line .
A connector cable comprising: a connector ; a shielded cable ; and a relay substrate , the connector and the shielded cable being connected via the relay substrate , wherein: the shielded cable includes at least an inner conductor , a dielectric covering the inner conductor , and a shield member covering the dielectric ; the inner conductor includes a connection part at a part where the shield member and the dielectric are removed to expose the inner conductor , the connection part directly contacting a contact of the connector to be electrically connected to the connector ; at least directly under a part where the shield member is removed to expose the dielectric , a ground conductor layer on a front surface of the relay substrate is arranged; and the ground conductor layer on the front surface of the relay substrate , which is arranged directly under the part where the shield member is removed, is covered with an insulating member , wherein the connection part between the contact of the connector and the exposed inner conductor of the shielded cable is connected by soldering, and the relay substrate is cut out at a part directly under the contact of the connector and the exposed inner conductor of the shielded cable for forming a cut-out region where the relay substrate including the ground conductor layer is absent. a connector ; a shielded cable ; and a relay substrate , the connector and the shielded cable being connected via the relay substrate , wherein: the shielded cable includes at least an inner conductor , a dielectric covering the inner conductor , and a shield member covering the dielectric ; the inner conductor includes a connection part at a part where the shield member and the dielectric are removed to expose the inner conductor , the connection part directly contacting a contact of the connector to be electrically connected to the connector ; at least directly under a part where the shield member is removed to expose the dielectric , a ground conductor layer on a front surface of the relay substrate is arranged; and the ground conductor layer on the front surface of the relay substrate , which is arranged directly under the part where the shield member is removed, is covered with an insulating member , wherein the connection part between the contact of the connector and the exposed inner conductor of the shielded cable is connected by soldering, and the relay substrate is cut out at a part directly under the contact of the connector and the exposed inner conductor of the shielded cable for forming a cut-out region where the relay substrate including the ground conductor layer is absent.
Flame retardant-stabilizer combination for thermoplastic polymers, comprising as component A 30 to 79.9% by weight of a phosphinic salt of the formula (I) and/or of a diphosphinic salt of the formula (II) and/or polymers thereof in which R 1 , R 2 are the same or different and are each H, C 1 -C 18 -alkyl, C 6 -C 18 -aryl, C 7 -C 18 -arylalkyl and/or C 7 -C 18 -alkylaryl; R 3 is linear or branched C 1 -C 10 -alkylene, C 6 -C 10 -arylene, -alkylarylene or-arylalkylene; M is Mg, Ca, Al, Sb, Sn, Ge, Ti, Zn, Fe, Zr, Ce, Bi, Sr, Mn, Li, Na, K and/or a protonated nitrogen base; m is 1 to 4; n is 1 to 4; x is 1 to 4, as component B 20 to 50% by weight of a nitrogen-containing synergist and/or of a phosphorus/nitrogen flame retardant and as component C 0.1 to 20% by weight of a zinc oxide coated with 5 to 50% by weight of zinc phosphate and the sum of components A to C always being 100% by weight. R 1 , R 2 are the same or different and are each H, C 1 -C 18 -alkyl, C 6 -C 18 -aryl, C 7 -C 18 -arylalkyl and/or C 7 -C 18 -alkylaryl; R 3 is linear or branched C 1 -C 10 -alkylene, C 6 -C 10 -arylene, -alkylarylene or-arylalkylene; M is Mg, Ca, Al, Sb, Sn, Ge, Ti, Zn, Fe, Zr, Ce, Bi, Sr, Mn, Li, Na, K and/or a protonated nitrogen base; m is 1 to 4; n is 1 to 4; x is 1 to 4,
A computer-implemented trapped ion quantum computing compiling method comprising: - ordering quantum gates of a nearest neighbor quantum circuit of a trapped ion system, for which the quantum gates operate on nearest neighbor trapped ion qubits, in function of dependencies between the quantum gates to obtain a quantum gates hierarchical order, the hierarchical order comprising a succession of front lines comprising multiple respective quantum gates of the nearest neighbor quantum circuit, the hierarchical order being an order to proceed with operating the quantum gates when taking dependencies into account, the hierarchical order being linear or comprising branchings, each branching comprising different choices as to executing a next gate which corresponds to a respective front line; - successively selecting, for each front line, and following the hierarchical order, in which order of quantum gates of said front line a shuttling should be built, wherein a shuttling schedule is progressively built from each shuttling selection; - whereby the shuttling selection is, for each front line, based on a predefined constraint; - whereby the shuttling schedule describes the movement of trapped ion qubits within the trapped ion system ; and - implementing the shuttling schedule on a trapped ion computer. - ordering quantum gates of a nearest neighbor quantum circuit of a trapped ion system, for which the quantum gates operate on nearest neighbor trapped ion qubits, in function of dependencies between the quantum gates to obtain a quantum gates hierarchical order, the hierarchical order comprising a succession of front lines comprising multiple respective quantum gates of the nearest neighbor quantum circuit, the hierarchical order being an order to proceed with operating the quantum gates when taking dependencies into account, the hierarchical order being linear or comprising branchings, each branching comprising different choices as to executing a next gate which corresponds to a respective front line; - successively selecting, for each front line, and following the hierarchical order, in which order of quantum gates of said front line a shuttling should be built, wherein a shuttling schedule is progressively built from each shuttling selection; - whereby the shuttling selection is, for each front line, based on a predefined constraint; - whereby the shuttling schedule describes the movement of trapped ion qubits within the trapped ion system ; and - implementing the shuttling schedule on a trapped ion computer.
Detergent composition suitable for removing soils from surfaces, comprising a complex of a metal of groups 2 to 15 of the periodic system of elements with a ligand of formula I, in which R stands for a linear or branched alkyl group, or a cycloalkyl, alkenyl, alkinyl, aryl or heteroaryl group with 1 to 20 C atoms, and each R', irrespective of each other, stands for H, a linear or branched alkyl group with 1 to 20 C atoms, -F, -CI, -Br, -I, -CF 3 , O-R", -NO 2 , -NH 2 , -CO 2 R", -C(=O)R", -CHO, -Si(CH 3 ) 3 , -SO 3 - M + , with M = Na, H or K, and with R" = H, alkyl, preferrably methyl or ethyl, or aryl, wherein in each hydrocarbon moiety one or more carbon atoms may be substituted by a heteroatom, preferably selected from the group encompassing O, N, S, Si, and P.
A method for air-to-ground data streaming, comprising: receiving avionics data, by a processor aboard an aircraft , from a line replaceable unit aboard the aircraft , the processor being configured to operate in a monitor mode and an event mode; encoding the avionics data according to a data map , wherein the data map is one of multiple data maps received from a ground station in the monitor mode or the event mode, wherein in the monitor mode the data map identifies a first minimal data set of the avionics data, and in the event mode the data map identifies a second expanded data set of the avionics data; processing, by the processor , substantially simultaneously, more than one data set via more than one data map of the multiple data maps to substantially simultaneously prepare multiple streaming messages of encoded avionics data according to each data map; and transmitting the encoded avionics data in real time to the ground station via a transmission link selected by a dynamic link manager aboard the aircraft, configured to identify and select at least one data path for the transmission link. receiving avionics data, by a processor aboard an aircraft , from a line replaceable unit aboard the aircraft , the processor being configured to operate in a monitor mode and an event mode; encoding the avionics data according to a data map , wherein the data map is one of multiple data maps received from a ground station in the monitor mode or the event mode, wherein in the monitor mode the data map identifies a first minimal data set of the avionics data, and in the event mode the data map identifies a second expanded data set of the avionics data; processing, by the processor , substantially simultaneously, more than one data set via more than one data map of the multiple data maps to substantially simultaneously prepare multiple streaming messages of encoded avionics data according to each data map; and transmitting the encoded avionics data in real time to the ground station via a transmission link selected by a dynamic link manager aboard the aircraft, configured to identify and select at least one data path for the transmission link.
An article comprising a layered structure comprising at least two layers: A) a first layer A formed from a composition A comprising a polyurethane; B) a second layer B formed from a composition B comprising at least one compound selected from the group consisting of the following compounds: a) a compound 1 comprising at least one acid group, b) a compound 2 comprising at least one anhydride group, c) a compound 3 comprising at least one primary amine group and/or at least one secondary amine group, and d) a combination thereof; and wherein the compound has a molecular weight or number average molecular weight, each less than 10,000 g/mole and wherein the article further comprises a perishable material. A) a first layer A formed from a composition A comprising a polyurethane; B) a second layer B formed from a composition B comprising at least one compound selected from the group consisting of the following compounds: a) a compound 1 comprising at least one acid group, b) a compound 2 comprising at least one anhydride group, c) a compound 3 comprising at least one primary amine group and/or at least one secondary amine group, and d) a combination thereof; and wherein the compound has a molecular weight or number average molecular weight, each less than 10,000 g/mole and wherein the article further comprises a perishable material. a) a compound 1 comprising at least one acid group, b) a compound 2 comprising at least one anhydride group, c) a compound 3 comprising at least one primary amine group and/or at least one secondary amine group, and d) a combination thereof; and wherein the compound has a molecular weight or number average molecular weight, each less than 10,000 g/mole and wherein the article further comprises a perishable material.
A semiconductor wafer comprising: a substrate ; a dielectric layer formed on a first side of the substrate; and a through substrate via cavity extending through the dielectric layer and partially through the substrate, an isolation layer deposited within the through substrate via cavity, the isolation layer comprising a tapered portion ; and characterised by a a photoresist layer on the bottom of the through substrate via cavity to protect the isolation layer on the bottom of the through substrate via cavity during the formation of the tapered portion of the isolation layer by etching. a substrate ; a dielectric layer formed on a first side of the substrate; and a through substrate via cavity extending through the dielectric layer and partially through the substrate, an isolation layer deposited within the through substrate via cavity, the isolation layer comprising a tapered portion ; and characterised by a a photoresist layer on the bottom of the through substrate via cavity to protect the isolation layer on the bottom of the through substrate via cavity during the formation of the tapered portion of the isolation layer by etching.
A patch material for forming a transparent or translucent coating on a skin surface wherein the coating is a transparent coating through which the skin is visible using a sheet composed of fibers in combination with a sheet transparentizing agent, wherein the sheet is composed of a water-insoluble polymer, and the thickness of the fibers constituting the sheet is 10 nm or more and 1,500 nm or less in equivalent circle diameter, the thickness of the sheet is 100 nm to 500 um, and the L value is 80 or more and 100 or less, determined in the CIE 1976 color space, the sheet transparentizing agent comprises 5 mass% or more and 100 mass% or less of an oil agent comprising one or more selected from the group consisting of a hydrocarbon oil, an ester oil, and a higher alcohol, and the total amount P of the content of the hydrocarbon oil, the ester oil, and the higher alcohol in the oil agent is 50 mass% or more, wherein, when the volume occupied by the oil agent is V 1 and the void volume of the nanofiber sheet is V 2 , (V 1 /V 2 ) is 0.1 or more, determined as indicated in the description, wherein the water-insoluble polymer is a polymer having a property that 1 g of the polymer is immersed in 10 g of ion-exchange water under 1 atm of 23°C and more than 0.5 g of the immersed polymer is undissolved after the lapse of 24 hours. wherein the sheet is composed of a water-insoluble polymer, and the thickness of the fibers constituting the sheet is 10 nm or more and 1,500 nm or less in equivalent circle diameter, the thickness of the sheet is 100 nm to 500 um, and the L value is 80 or more and 100 or less, determined in the CIE 1976 color space, the sheet transparentizing agent comprises 5 mass% or more and 100 mass% or less of an oil agent comprising one or more selected from the group consisting of a hydrocarbon oil, an ester oil, and a higher alcohol, and the total amount P of the content of the hydrocarbon oil, the ester oil, and the higher alcohol in the oil agent is 50 mass% or more, wherein, when the volume occupied by the oil agent is V 1 and the void volume of the nanofiber sheet is V 2 , (V 1 /V 2 ) is 0.1 or more, determined as indicated in the description, wherein the water-insoluble polymer is a polymer having a property that 1 g of the polymer is immersed in 10 g of ion-exchange water under 1 atm of 23°C and more than 0.5 g of the immersed polymer is undissolved after the lapse of 24 hours.
Method for controlling a technical system (TS), wherein a) a system state (SZ, SZ1, SZ2) of the technical system (TS) is continually detected, b) by means of a trained first control model (BM), a subsequent state (PZ) of the technical system (TS) is predicted on the basis of a detected system state (SZ, SZ1), c) a distance value (D) is determined for a distance between the predicted subsequent state (PZ) and an actually occurring system state (SZ2), d) a second control model (RM) is trained by means of the trained first control model (BM) to predict the distance value on the basis of a detected system state (SZ, SZ1), and on the basis of a control action (SA, SA1, ..., SAN) for controlling the technical system (TS), e) a subsequent state (PZ) predicted by the first control model (BM) is modified on the basis of a distance value (PD, PD1, ..., PDN) predicted by the trained second control model, and f) the modified subsequent state (MZ1, ..., MZN) is generated as an output for the control of the technical system (TS). a) a system state (SZ, SZ1, SZ2) of the technical system (TS) is continually detected, b) by means of a trained first control model (BM), a subsequent state (PZ) of the technical system (TS) is predicted on the basis of a detected system state (SZ, SZ1), c) a distance value (D) is determined for a distance between the predicted subsequent state (PZ) and an actually occurring system state (SZ2), d) a second control model (RM) is trained by means of the trained first control model (BM) to predict the distance value on the basis of a detected system state (SZ, SZ1), and on the basis of a control action (SA, SA1, ..., SAN) for controlling the technical system (TS), e) a subsequent state (PZ) predicted by the first control model (BM) is modified on the basis of a distance value (PD, PD1, ..., PDN) predicted by the trained second control model, and f) the modified subsequent state (MZ1, ..., MZN) is generated as an output for the control of the technical system (TS).
An installation process for a 3D sensor of an elevator system , the process comprising: installing a 3D sensor at a different height than the designed operating height; determining a pitch of the 3D sensor ; automatically transforming the 3D sensor coordinate system to a world coordinate system in response to the pitch of the 3D sensor via a calibration matrix, wherein the world coordinate system is at least partially obtained using a depth map; transforming a floor plane area in the 3D sensor coordinate system to a floor plane area in world coordinates, so as to determine a floor plane as a frame of reference for the world coordinate system; and adjusting the pitch of the 3D sensor to achieve a desired field of view. installing a 3D sensor at a different height than the designed operating height; determining a pitch of the 3D sensor ; automatically transforming the 3D sensor coordinate system to a world coordinate system in response to the pitch of the 3D sensor via a calibration matrix, wherein the world coordinate system is at least partially obtained using a depth map; transforming a floor plane area in the 3D sensor coordinate system to a floor plane area in world coordinates, so as to determine a floor plane as a frame of reference for the world coordinate system; and adjusting the pitch of the 3D sensor to achieve a desired field of view.