mhurhangee/ep-ind-claims huggingface dataset:
Temperature sensor network of a building having different rooms having a multiplicity of network subscribers, • wherein the network subscribers are embodied in the form of electrical installation devices (3A, 3B, 3C) and/or building system engineering devices (8A, 8B, 8C) of the and/or electrical devices (13A, 13B, 13C), • wherein the network subscribers have a temperature sensor (4A, 4B, 4C, 9A, 9B, 9C, 4A, 14B, 14C), an energy supply unit (5A, 5B, 5C, 10A, 10B, 10C, 15A, 15B, 15C) and a communication unit (6A, 6B, 6C, 11A, 11B, 11C, 16A, 16B, 16C), • wherein a central temperature processing unit, which has an energy supply unit, an operator control unit, a communication unit and a temperature regulating unit, which is configured to regulate a heating device and/or air-conditioning device, wherein the operator control unit is used to prescribe a desired temperature value, characterized in that presence detectors (24A, 24B, 24C) are installed in the different rooms of the building, which are configured to detect and report the number of people in each of the rooms to the central temperature processing unit, • and wherein communication paths are provided between the network subscribers, the presence detectors (24A, 24B, 24C) and the central temperature processing unit for transmitting present temperature values captured by the network subscribers and for transmitting the number of people in each of the rooms that is detected by the presence detectors (24A, 24B, 24C). • wherein the network subscribers are embodied in the form of electrical installation devices (3A, 3B, 3C) and/or building system engineering devices (8A, 8B, 8C) of the and/or electrical devices (13A, 13B, 13C), • wherein the network subscribers have a temperature sensor (4A, 4B, 4C, 9A, 9B, 9C, 4A, 14B, 14C), an energy supply unit (5A, 5B, 5C, 10A, 10B, 10C, 15A, 15B, 15C) and a communication unit (6A, 6B, 6C, 11A, 11B, 11C, 16A, 16B, 16C), • wherein a central temperature processing unit, which has an energy supply unit, an operator control unit, a communication unit and a temperature regulating unit, which is configured to regulate a heating device and/or air-conditioning device, wherein the operator control unit is used to prescribe a desired temperature value, characterized in that presence detectors (24A, 24B, 24C) are installed in the different rooms of the building, which are configured to detect and report the number of people in each of the rooms to the central temperature processing unit, • and wherein communication paths are provided between the network subscribers, the presence detectors (24A, 24B, 24C) and the central temperature processing unit for transmitting present temperature values captured by the network subscribers and for transmitting the number of people in each of the rooms that is detected by the presence detectors (24A, 24B, 24C).
A laser array, comprising: a plurality of semiconductor laser diode emitters arranged in a plurality of rows and a plurality of columns on a substrate that is non-native to the plurality of laser emitters; and a plurality of driver transistors on the substrate adjacent one or more of the laser emitters, wherein a subset of the plurality of laser emitters comprises a string of laser emitters that are connected such that an anode of at least one laser emitter of the string is connected to a cathode of an adjacent laser emitter of the string, and wherein a driver transistor of the plurality of driver transistors is configured to control a current flowing through the string, and wherein the laser array is configured to be both row and column addressable such that a laser emission of each laser emitter of the plurality of laser emitters is individually controllable. a plurality of semiconductor laser diode emitters arranged in a plurality of rows and a plurality of columns on a substrate that is non-native to the plurality of laser emitters; and a plurality of driver transistors on the substrate adjacent one or more of the laser emitters, wherein a subset of the plurality of laser emitters comprises a string of laser emitters that are connected such that an anode of at least one laser emitter of the string is connected to a cathode of an adjacent laser emitter of the string, and wherein a driver transistor of the plurality of driver transistors is configured to control a current flowing through the string, and wherein the laser array is configured to be both row and column addressable such that a laser emission of each laser emitter of the plurality of laser emitters is individually controllable.
A stabilized pharmaceutical composition comprising a nonpeptidic pharmaceutically active ingredient, an excipient and an acidic compound as a stabilizer, wherein the nonpeptidic pharmaceutically active ingredient is 1-{5-(2-fluorophenyl)-1-[(6-methylpyridin-3-yl)sulfonyl]-1H-pyrrol-3-yl}-N-methylmethanamine or a salt thereof, 1-[4-fluoro-5-phenyl-1-(pyridin-3-ylsulfonyl)-1H-pyrrol-3-yl]-N-methylmethanamine or a salt thereof, N-methyl-1-[5-(4-methyl-3-thienyl)-1-(pyridin-3-ylsulfonyl)-1H-pyrrol-3-yl]methanamine or a salt thereof, 1-[5-(2-fluorophenyl)-1-(pyridin-3-ylsulfonyl)-1H-pyrrol-3-yl]-N-methylmethanamine or a salt thereof, N-methyl-1-[5-(2-methylphenyl)-1-(pyridin-3-ylsulfonyl)-1H-pyrrol-3-yl]methanamine or a salt thereof, or 1-[4-fluoro-5-(2-fluoropyridin-3-yl)-1-(pyridin-3-ylsulfonyl)-1H-pyrrol-3-yl]-N-methylmethanamine or a salt thereof, and wherein the acidic compound is fumaric acid.
A photonic integrated circuit PIC, comprising: a semiconductor laser comprising: a laser mating surface formed in an active region of the semiconductor laser at a front end of the semiconductor laser, said laser mating surface including a tapered laser mating surface (112,114) formed in the active region of the semiconductor laser; and a laser facet on the laser mating surface of the active region set back from a leading front edge of the tapered laser mating surface; and a PIC substrate comprising: a tapered substrate mating surface (224,226); and a waveguide formed on the substrate, wherein: the waveguide is configured to receive a laser beam that exits the laser facet; and a shape of the tapered laser mating surface and a shape of the tapered substrate mating surface are configured to align the semiconductor laser with the substrate in three dimensions. a semiconductor laser comprising: a laser mating surface formed in an active region of the semiconductor laser at a front end of the semiconductor laser, said laser mating surface including a tapered laser mating surface (112,114) formed in the active region of the semiconductor laser; and a laser facet on the laser mating surface of the active region set back from a leading front edge of the tapered laser mating surface; and a PIC substrate comprising: a tapered substrate mating surface (224,226); and a waveguide formed on the substrate, wherein: the waveguide is configured to receive a laser beam that exits the laser facet; and a shape of the tapered laser mating surface and a shape of the tapered substrate mating surface are configured to align the semiconductor laser with the substrate in three dimensions. a tapered substrate mating surface (224,226); and a waveguide formed on the substrate, wherein: the waveguide is configured to receive a laser beam that exits the laser facet; and a shape of the tapered laser mating surface and a shape of the tapered substrate mating surface are configured to align the semiconductor laser with the substrate in three dimensions. the waveguide is configured to receive a laser beam that exits the laser facet; and a shape of the tapered laser mating surface and a shape of the tapered substrate mating surface are configured to align the semiconductor laser with the substrate in three dimensions.
A spray booth for providing a controlled environment for spraying of material, the spray booth comprising: a roof portion provided with at least one mounting bracket for attachment to a support rail, such that the booth is movable along such a support rail when in use; first and second end portions (104, 106) which extend from respective opposing ends of the roof portion; first and second side portions (108, 110) which extend from respective opposing sides of the roof portion, thereby defining a work space between the roof portion, the end portions (104, 106) and the side portions (108, 110), the first and second side portions (108, 110) each defining an opening therethrough, and each including a movable member (109, 111) having a first position in which the opening is closed, and a second position in which the opening is substantially open; and an air extraction unit which extends from the roof portion into the work space, and operable to extract air from the work space, wherein each such movable member (109, 111) extends, in the first position, beyond a lowermost part of at least one of the first and second end portions (104, 106).
Laminated glazing comprising a first structural ply assembled with a first glass sheet of 0.5 to 1.5 mm thickness by way of a first adhesive interlayer, characterized in that said first glass sheet forms a first exterior face of the laminated glazing, which face is intended to make contact with the exterior atmosphere, in that the face of said first glass sheet oriented toward said first adhesive interlayer bears a first conductive heating layer of 2 Ångströms to 500 nm thickness, in that said first conductive heating layer comprises flow-separating lines of 0.05 to 0.2 mm thickness spaced apart by 8 to 20 mm, said lines being formed by etching in order to guide current between two current feed strips placed along two opposite edges of the glazing, in that said first structural ply consists of a sheet of glass of thickness comprised between 4 and 10 mm or of polymer of thickness comprised between 5 and 20 mm, and in that said first adhesive interlayer consists of a layer of polyvinyl butyral, polyurethane or poly(ethylene-vinyl acetate) of 0.5 to 20 and preferably 1 to 16 mm thickness.
An assembly for an aircraft propulsion system, comprising: a fixed structure comprising a track; a translating structure configured to translate relative to the fixed structure; a blocker door extending between a blocker door first end and a blocker door second end, the translating structure pivotally attached to the blocker door at the blocker door first end; characterised by a rigid linkage comprising a first pivot attachment coupled to the fixed structure, wherein the first pivot attachment comprises a carriage that rides within the track; a second pivot attachment coupled to the translating structure; and a third pivot attachment coupled to the blocker door at the blocker door second end; wherein the first pivot attachment is between the second pivot attachment and the third pivot attachment. a fixed structure comprising a track; a translating structure configured to translate relative to the fixed structure; a blocker door extending between a blocker door first end and a blocker door second end, the translating structure pivotally attached to the blocker door at the blocker door first end; characterised by a rigid linkage comprising a first pivot attachment coupled to the fixed structure, wherein the first pivot attachment comprises a carriage that rides within the track; a second pivot attachment coupled to the translating structure; and a third pivot attachment coupled to the blocker door at the blocker door second end; wherein the first pivot attachment is between the second pivot attachment and the third pivot attachment. a first pivot attachment coupled to the fixed structure, wherein the first pivot attachment comprises a carriage that rides within the track; a second pivot attachment coupled to the translating structure; and a third pivot attachment coupled to the blocker door at the blocker door second end; wherein the first pivot attachment is between the second pivot attachment and the third pivot attachment.
Image processing apparatus configured to estimate a depth field over a field of view, the apparatus comprising one or more processors configured to: receive a captured polarisation image representing a polarisation of light received at a first set of multiple locations over the field of view; process the captured polarisation image using a first trained neural network to form a first estimate of depths to one or more locations over the field of view; receive ranging data representing environmental distances from a datum to one or more locations over the field of view; process the ranging data using a second trained neural network to form a second estimate of depths to a second set of multiple locations over the field of view; form a synthetic polarisation image representing estimates of the polarisation of light received at a third set of multiple locations over the field of view by processing one or both of the first and second estimates of depths using a first analytic formulae; and form synthetic ranging data representing estimates of the environmental distances to one or more locations over the field of view by processing one or both of the first and second estimates of depths using a second analytic formulae. receive a captured polarisation image representing a polarisation of light received at a first set of multiple locations over the field of view; process the captured polarisation image using a first trained neural network to form a first estimate of depths to one or more locations over the field of view; receive ranging data representing environmental distances from a datum to one or more locations over the field of view; process the ranging data using a second trained neural network to form a second estimate of depths to a second set of multiple locations over the field of view; form a synthetic polarisation image representing estimates of the polarisation of light received at a third set of multiple locations over the field of view by processing one or both of the first and second estimates of depths using a first analytic formulae; and form synthetic ranging data representing estimates of the environmental distances to one or more locations over the field of view by processing one or both of the first and second estimates of depths using a second analytic formulae.
A magnetic resonance imaging data processing system for processing motion artifacts in magnetic resonance imaging data sets using a deep learning network (146, 502, 702) trained for the processing of motion artifacts in magnetic resonance imaging data sets, the magnetic resonance imaging data processing system comprising: - a memory (134, 136) storing machine executable instructions and the trained deep learning network (146, 502, 702), - a processor for controlling the magnetic resonance imaging data processing system, wherein an execution of the machine executable instructions (161, 164) causes the processor to control the magnetic resonance imaging data processing system to: - receive a magnetic resonance imaging data set (144, 500, 800), - apply the received magnetic resonance imaging data set (144, 500, 800) as an input to the trained deep learning network (146, 502, 702), - process one or more motion artifacts present in the received magnetic resonance imaging data set (144, 500, 800) using the trained deep learning network (146, 502, 702), wherein the training of the deep learning network relies on MRI training data sets containing artificially simulated motion artifacts, and wherein the trained deep learning network is applied to actual clinical data for detection of motion artifacts, wherein the deep learning network (146, 702) is further trained for filtering and correcting motion artifacts present in magnetic resonance imaging data sets, wherein the processing further comprises: - filtering the one or more motion artifacts present in the magnetic resonance imaging data set using the trained deep learning network (146, 702), - providing a motion-artifact-corrected magnetic resonance imaging data set (706, 802) using a result of the filtering. - a memory (134, 136) storing machine executable instructions and the trained deep learning network (146, 502, 702), - a processor for controlling the magnetic resonance imaging data processing system, wherein an execution of the machine executable instructions (161, 164) causes the processor to control the magnetic resonance imaging data processing system to: - receive a magnetic resonance imaging data set (144, 500, 800), - apply the received magnetic resonance imaging data set (144, 500, 800) as an input to the trained deep learning network (146, 502, 702), - process one or more motion artifacts present in the received magnetic resonance imaging data set (144, 500, 800) using the trained deep learning network (146, 502, 702), - filtering the one or more motion artifacts present in the magnetic resonance imaging data set using the trained deep learning network (146, 702), - providing a motion-artifact-corrected magnetic resonance imaging data set (706, 802) using a result of the filtering.
Laminated packaging material (20; 30) for packaging of liquid food products, comprising a barrier film (28; 38), which barrier film comprises a substrate layer (24; 34) in the form of a web or sheet, and a first barrier coating (25; 35a) of an amorphous diamond-like carbon coated to be in contiguous contact with the substrate layer, and further a second thermoplastic barrier layer (29;35c), which comprises a major proportion of polyamide and is coated to be in contiguous contact with the free surface of the first barrier coating of DLC, the laminated packaging material further comprising a bulk layer (21; 31) of paper or paperboard or other cellulose-based material, wherein the second thermoplastic barrier layer (29; 35c) is laminated to a first side of the bulk layer by at least one intermediate bonding layer (26; 36) comprising a thermoplastic polymer, the laminated packaging material further comprising a first outermost liquid tight, heat sealable polymer layer (22; 32) applied onto the opposite, second and outer, side of the bulk layer, the first outermost polymer layer providing the outermost surface of a packaging container made from the laminate packaging material, and wherein the laminated packaging material further comprises a second, innermost liquid tight, heat sealable polymer layer (23; 33) on the opposite, inner and second side of the barrier film, the second, innermost polymer layer providing the innermost surface of a packaging container made from the packaging material to be in contact with the packed product.
A gas barrier film comprising: a resin film substrate; a first layer made of an aqueous coating agent that contains a water soluble polymer, an inorganic layered mineral and an aqueous polyurethane resin having water solubility or water dispersibility, wherein the solid content formulation ratio of the inorganic layered mineral to the total solid content of the aqueous coating agent is in the range from 10 mass% to 70 mass %; and a second layer made of a coating agent that contains titanium oxide, the first layer and the second layer being disposed in this order on at least one surface of the resin film substrate. a resin film substrate; a first layer made of an aqueous coating agent that contains a water soluble polymer, an inorganic layered mineral and an aqueous polyurethane resin having water solubility or water dispersibility, wherein the solid content formulation ratio of the inorganic layered mineral to the total solid content of the aqueous coating agent is in the range from 10 mass% to 70 mass %; and a second layer made of a coating agent that contains titanium oxide, the first layer and the second layer being disposed in this order on at least one surface of the resin film substrate.
A wireless communication method, comprising: obtaining a first configuration for a first type of communication, wherein the first configuration comprises a first schedule, and wherein the first schedule comprises a first plurality of communication opportunities within a time duration T 1; obtaining a second configuration for a second type of communication, wherein the second configuration comprises a second schedule and an indication, and wherein the second schedule comprises a second plurality of communication opportunities within the time duration T 1; identifying a third plurality of communication opportunities within the time duration T 1, wherein each of the third plurality of communication opportunities are present in both the first and second plurality of communication opportunities; identifying a fourth plurality of communication opportunities with the time duration T 1, wherein each of the fourth plurality of communication opportunities are absent in the first plurality of communication opportunities and present in the second plurality of communication opportunities; generating a third schedule based on the first schedule and the second schedule using one of a plurality of procedures, wherein the one of the plurality of procedures is selected based on the indication, and wherein the third schedule comprises the third plurality of communication opportunities or the fourth plurality of communication opportunities; and communicating, based on the third schedule, using at least one of the first and second types of communication. obtaining a first configuration for a first type of communication, wherein the first configuration comprises a first schedule, and wherein the first schedule comprises a first plurality of communication opportunities within a time duration T 1; obtaining a second configuration for a second type of communication, wherein the second configuration comprises a second schedule and an indication, and wherein the second schedule comprises a second plurality of communication opportunities within the time duration T 1; identifying a third plurality of communication opportunities within the time duration T 1, wherein each of the third plurality of communication opportunities are present in both the first and second plurality of communication opportunities; identifying a fourth plurality of communication opportunities with the time duration T 1, wherein each of the fourth plurality of communication opportunities are absent in the first plurality of communication opportunities and present in the second plurality of communication opportunities; generating a third schedule based on the first schedule and the second schedule using one of a plurality of procedures, wherein the one of the plurality of procedures is selected based on the indication, and wherein the third schedule comprises the third plurality of communication opportunities or the fourth plurality of communication opportunities; and communicating, based on the third schedule, using at least one of the first and second types of communication.
A method for data security, comprising: providing an electronic circuit, which has a first, stable operating mode under a first operating condition and a second, unstable operating mode under a second operating condition, different from the first operating condition, and which is configured to output a secret value in the first operating mode; maintaining the electronic circuit initially in the second operating condition; transferring the electronic circuit to the first operating condition and, while in the first operating condition, reading out the secret value; and returning the electronic circuit to the second operating condition after reading out the secret value. providing an electronic circuit, which has a first, stable operating mode under a first operating condition and a second, unstable operating mode under a second operating condition, different from the first operating condition, and which is configured to output a secret value in the first operating mode; maintaining the electronic circuit initially in the second operating condition; transferring the electronic circuit to the first operating condition and, while in the first operating condition, reading out the secret value; and returning the electronic circuit to the second operating condition after reading out the secret value.