mhurhangee/patent-ind-claim-en huggingface dataset:
A reservoir computing device for characterizing an input signal, the reservoir computing device comprising a passive optical network composed of a plurality of discrete nodes and a plurality of passive interconnections between these discrete nodes for propagating the at least one photonic wave between the discrete nodes, in which each discrete node is a passive optical linear element adapted for passively relaying, by splitting and combining, the at least one photonic wave over the interconnections connected thereto, the discrete nodes comprising: - at least one input node for receiving an input signal and temporally encoding the input signal in the at least one photonic wave on said at least one input node , and - at least one readout node for providing a plurality of readout signals, in which each readout signal is determined by a non-linear relation to said at least one photonic wave in the at least one readout node; the device further comprising a processor for combining said plurality of readout signals into an output signal, said combining taking into account a plurality of training parameters. - at least one input node for receiving an input signal and temporally encoding the input signal in the at least one photonic wave on said at least one input node , and - at least one readout node for providing a plurality of readout signals, in which each readout signal is determined by a non-linear relation to said at least one photonic wave in the at least one readout node;
Method for identifying and classifying static radar targets using a radar sensor of a motor vehicle, the method comprising: identifying (S10) an object as a static radar target based on the received radar signals reflected by the object , generating (S12) an occupancy pattern in an occupancy grid based on the received radar signals reflected by the object , storing (S14) an assignment that assigns the generated occupancy pattern to the static radar target, characterized in that , subsequent to the generation of the occupancy pattern in the occupancy grid and subsequent to the storage of the assignment, classifying (S16) or reclassifying (S16) the static radar target as associated with one of a plurality of groups of static radar targets based on characteristic features of radar signatures of the received radar signals reflected by the corresponding object , wherein the characteristic features include: azimuth angle, elevation angle, radial distance, relative velocity and/or backscatter characteristics, or a combination of several of these features. identifying (S10) an object as a static radar target based on the received radar signals reflected by the object , generating (S12) an occupancy pattern in an occupancy grid based on the received radar signals reflected by the object , storing (S14) an assignment that assigns the generated occupancy pattern to the static radar target, characterized in that , subsequent to the generation of the occupancy pattern in the occupancy grid and subsequent to the storage of the assignment, classifying (S16) or reclassifying (S16) the static radar target as associated with one of a plurality of groups of static radar targets based on characteristic features of radar signatures of the received radar signals reflected by the corresponding object , wherein the characteristic features include: azimuth angle, elevation angle, radial distance, relative velocity and/or backscatter characteristics, or a combination of several of these features.
A surgical drape system comprising: an access drape comprising a seal connectable with a selected surface (S) of a patient (P) to define a sterile region (R) that includes access to at least two surgical approaches; and a sleeve with a first open end connected with the seal , the sleeve defining a surgical pathway in communication with the region (R) to provide access to the at least two surgical approaches disposed within the sterile region (R); and a draping , including a surface defining an opening which is connected with the access drape at a second open end of the sleeve opposite to the first open end, wherein the draping is configured to be suspended a distance over the patient (P) and to remain substantially stationary during rotation of the patient (P); wherein the sleeve is configured to be movable and/or flexible in a plurality of orientations relative to the seal to adjust to the rotation of the patient (P) while maintaining the sterile region (R). an access drape comprising a seal connectable with a selected surface (S) of a patient (P) to define a sterile region (R) that includes access to at least two surgical approaches; and a sleeve with a first open end connected with the seal , the sleeve defining a surgical pathway in communication with the region (R) to provide access to the at least two surgical approaches disposed within the sterile region (R); and a seal connectable with a selected surface (S) of a patient (P) to define a sterile region (R) that includes access to at least two surgical approaches; and a sleeve with a first open end connected with the seal , the sleeve defining a surgical pathway in communication with the region (R) to provide access to the at least two surgical approaches disposed within the sterile region (R); and a draping , including a surface defining an opening which is connected with the access drape at a second open end of the sleeve opposite to the first open end, wherein the draping is configured to be suspended a distance over the patient (P) and to remain substantially stationary during rotation of the patient (P); wherein the sleeve is configured to be movable and/or flexible in a plurality of orientations relative to the seal to adjust to the rotation of the patient (P) while maintaining the sterile region (R).
A catalyst article for treating exhaust gas comprising a substrate having a first catalyst layer disposed on and/or within the substrate and a second catalyst layer coated over the first catalyst layer; wherein the first catalyst layer comprises a first oxidation catalyst, wherein the first oxidation catalyst is a supported noble metal, and the second catalyst layer contains a mixture of (i) a second oxidation catalyst consisting of supported palladium and (ii) a catalyst for selectively reducing NO x and/or storing NH 3 , wherein the catalyst for selectively reducing NO x and/or storing NH 3 is a Fe and/or Cu loaded zeolite; and wherein the first and second oxidation catalysts are different formulations.
A dry alarm valve station of a fire extinguishing installation (100a-f) comprising an alarm valve which can be connected at the inlet side to an extinguishing fluid-filled supply line and at the outlet side to a sprinkler line which is air-filled in a standby state of the fire extinguishing installation (100a-f) and a pressure-operated valve body which is controlled by means of a control chamber and which is adapted in a blocking state to separate the supply line from the sprinkler line as long as there is a predetermined control pressure in the control chamber and to connect the supply line to the sprinkler line in a release state, an alarm line connected to the alarm valve in such a way that the alarm line is deluged with extinguishing fluid when the alarm valve assumes the release state, and an alarm device , preferably with an alarm pressure switch which is connected to the alarm line and is adapted to trigger an alarm signal when there is a predetermined fluid pressure in the alarm line , characterized by a first pressure-operated valve which is interposed between the alarm device and the alarm valve and is controlled by means of the control chamber and is adapted to block the alarm line as long as the predetermined control pressure obtains in the control chamber and to release it when the pressure in the control chamber is below the predetermined control pressure. an alarm line connected to the alarm valve in such a way that the alarm line is deluged with extinguishing fluid when the alarm valve assumes the release state, and an alarm device , preferably with an alarm pressure switch which is connected to the alarm line and is adapted to trigger an alarm signal when there is a predetermined fluid pressure in the alarm line , characterized by a first pressure-operated valve which is interposed between the alarm device and the alarm valve and is controlled by means of the control chamber and is adapted to block the alarm line as long as the predetermined control pressure obtains in the control chamber and to release it when the pressure in the control chamber is below the predetermined control pressure.
A method for receiving a downlink control signal by a user equipment in a wireless communication system based on time division duplex, TDD, the method comprising: determining a subframe configuration for a specific subframe comprising a downlink period, a guard period, and an uplink period, wherein each length of the downlink period, the guard period, and the uplink period is given according to the subframe configuration; and based on the determined subframe configuration not being subframe configuration 0 or 5 for a normal cyclic prefix, CP, in downlink, performing a detection of a first-type physical downlink control channel, PDCCH, in the specific subframe, wherein based on the determined subframe configuration being subframe configuration 0 or 5 for the normal CP in downlink, the detection of the first-type PDCCH is not performed in the specific subframe and a detection of a second-type PDCCH is performed in the specific subframe, wherein the first-type PDCCH is a PDCCH configured within a resource region of remaining OFDM symbols other than the first N orthogonal frequency division multiplexing, OFDM, symbols in a subframe, and the second-type PDCCH is a PDCCH configured within a resource region of the first N OFDM symbols in the subframe, N being set to a value of 1 to 4, and wherein, for the normal CP in downlink, the length of the downlink period is given by a following table according to the subframe configuration: Subframe Configuration Length of downlink period (the number of OFDM symbols) 0 3 1 9 2 10 3 11 4 12 5 3 6 9 7 10 8 11 determining a subframe configuration for a specific subframe comprising a downlink period, a guard period, and an uplink period, wherein each length of the downlink period, the guard period, and the uplink period is given according to the subframe configuration; and based on the determined subframe configuration not being subframe configuration 0 or 5 for a normal cyclic prefix, CP, in downlink, performing a detection of a first-type physical downlink control channel, PDCCH, in the specific subframe, wherein based on the determined subframe configuration being subframe configuration 0 or 5 for the normal CP in downlink, the detection of the first-type PDCCH is not performed in the specific subframe and a detection of a second-type PDCCH is performed in the specific subframe, wherein the first-type PDCCH is a PDCCH configured within a resource region of remaining OFDM symbols other than the first N orthogonal frequency division multiplexing, OFDM, symbols in a subframe, and the second-type PDCCH is a PDCCH configured within a resource region of the first N OFDM symbols in the subframe, N being set to a value of 1 to 4, and wherein, for the normal CP in downlink, the length of the downlink period is given by a following table according to the subframe configuration: Subframe Configuration Length of downlink period (the number of OFDM symbols) 0 3 1 9 2 10 3 11 4 12 5 3 6 9 7 10 8 11
Harvester for attachment to a tractor, comprising a machine frame that carries at least one functional unit and is supported on the ground by an undercarriage , and at least one transverse inclination adjustment actuator (19; 22) for tilting the machine frame and/or the functional unit arranged thereon transversely to the direction of travel, about at least one horizontal transverse inclination tilt axle that extends approximately in the direction of travel, at least one electronic inclination sensor for detecting an inclination of the machine frame relative to a horizontal orientation, and an electronic control device for activating the at least one transverse inclination adjustment actuator (19; 22) depending on the inclination of the machine frame detected by the electronic inclination sensor , such that the inclination of the machine frame , together with the functional unit arranged thereon, relative to said horizontal orientation is reduced as much as possible, wherein the control device is connected to an operating state detection means for detecting at least one operating state parameter of the at least one functional unit , characterized in that the operating state detection means is configured for detecting whether a collector for picking up the harvested material is operating, and the control device comprises control means for controlling the at least one transverse inclination actuator (19; 22) on the basis of the detected operating state of the collector.
An apparatus, comprising: a flexible insertion tube, having a proximal portion and a distal portion for insertion into a body cavity of a patient; and a resilient member, which couples the proximal portion of the insertion tube to the distal portion, wherein the resilient member comprises shape-set elastic material, the resilient member having proximal and distal extensions in contact with the proximal portion and the distal portion of the insertion tube, respectively, wherein a force applied through the distal portion produces a deformation of the resilient member that correlates with a displacement of the proximal portion relative to the distal portion. a flexible insertion tube, having a proximal portion and a distal portion for insertion into a body cavity of a patient; and a resilient member, which couples the proximal portion of the insertion tube to the distal portion, wherein the resilient member comprises shape-set elastic material, the resilient member having proximal and distal extensions in contact with the proximal portion and the distal portion of the insertion tube, respectively, wherein a force applied through the distal portion produces a deformation of the resilient member that correlates with a displacement of the proximal portion relative to the distal portion.
A method for detecting a yarn end on a rotating bobbin in a textile machine producing or processing yarn after the interruption of winding of the yarn onto the bobbin due to a yarn breakage, wherein after the yarn breakage the rotating bobbin is approached by a suction nozzle , into which the yarn end is sucked from the rotating bobbin , the method is characterized in that • a bar and a movable means having a carrier surface approach the surface of the package on the bobbin , wherein the carrier surface is moving in a direction (S1) opposite to the direction (S2) of the movement of the surface of the package on the bobbin ; • whereupon the yarn end is captured and withdrawn from the bobbin by the movement of the movable means , wherein the yarn is drawn within a space between the movable means and the bar ; and • the yarn end is carried to the suction nozzle , into which it is subsequently sucked by the stream of the sucked-in air in the direction away from the movable means to a defined position in the suction nozzle for further operation; and • the movable means is perforated and air is sucked through the movable means to capture the yarn end and withdraw it from the bobbin . • a bar and a movable means having a carrier surface approach the surface of the package on the bobbin , wherein the carrier surface is moving in a direction (S1) opposite to the direction (S2) of the movement of the surface of the package on the bobbin ; • whereupon the yarn end is captured and withdrawn from the bobbin by the movement of the movable means , wherein the yarn is drawn within a space between the movable means and the bar ; and • the yarn end is carried to the suction nozzle , into which it is subsequently sucked by the stream of the sucked-in air in the direction away from the movable means to a defined position in the suction nozzle for further operation; and • the movable means is perforated and air is sucked through the movable means to capture the yarn end and withdraw it from the bobbin .
A method of treating wastewater, the method comprising the steps of: providing a nanobubbles generator comprising a volume for receiving a liquid, providing a liquid in the volume, and distributing a gas within the liquid in the volume , the gas comprising one or more constituent gas components; generating an electric field using an electrode in the proximity of the volume of the nanobubbles generator for facilitating the generation of nanobubbles of a first gas component; wherein the electrode and the liquid are not in direct electrical contact to prevent electrolysis occurring within the volume of the nanobubble generator ; providing a vessel for receiving wastewater and the nanobubbles of the first gas component; directing the wastewater and the first gas component to the vessel , wherein directing the first gas component to the vessel comprises applying a magnetic field to the liquid in the nanobubbles generator to controllably release the nanobubbles of the first gas component from the volume of the nanobubbles generator ; reducing the temperature of the contents of the vessel from a first temperature to a second temperature to facilitate the formation of clathrate hydrates comprising the wastewater and the first gas component; increasing the temperature of the contents of the vessel with respect to the second temperature to facilitate melting of the clathrate hydrates; and removing clean water and/or the first gas component from the vessel . providing a nanobubbles generator comprising a volume for receiving a liquid, providing a liquid in the volume, and distributing a gas within the liquid in the volume , the gas comprising one or more constituent gas components; generating an electric field using an electrode in the proximity of the volume of the nanobubbles generator for facilitating the generation of nanobubbles of a first gas component; wherein the electrode and the liquid are not in direct electrical contact to prevent electrolysis occurring within the volume of the nanobubble generator ; providing a vessel for receiving wastewater and the nanobubbles of the first gas component; directing the wastewater and the first gas component to the vessel , wherein directing the first gas component to the vessel comprises applying a magnetic field to the liquid in the nanobubbles generator to controllably release the nanobubbles of the first gas component from the volume of the nanobubbles generator ; reducing the temperature of the contents of the vessel from a first temperature to a second temperature to facilitate the formation of clathrate hydrates comprising the wastewater and the first gas component; increasing the temperature of the contents of the vessel with respect to the second temperature to facilitate melting of the clathrate hydrates; and removing clean water and/or the first gas component from the vessel .
A microbial cell for producing at least one lipid with general formula II from at least one carbon substrate, wherein R 1 and R 2 independently of one another comprises identical or different organic radicals each with 5 to 13 carbon atoms, wherein the cell is a non-pathogenic cell that is genetically modified to increase the heterologous expression relative to the wild type cell of: - an enzyme (E 2 ) capable of converting 3-hydroxyalkanoyl-3-hydroxyalkanoyl-CoA/ACP and/or 3-(3-hydroxyalkanoyloxy)alkanoic acid (HAA) in combination with NDP-glucose into β-D-glucopyranosyl-3-hydroxyalkanoyl-3-hydroxyalkanoate, wherein the enzyme E2 is a glycosyltransferase (EC 2.4) comprising SEQ ID NO: 4 or variant thereof, wherein the variant comprises at least 90% sequence identity to SEQ ID NO:4 and wherein the cell is selected from the group consisting of Acinetobacter sp., Bacillus sp., Brevibacterium sp., Burkholderia sp., Chlorella sp., Clostridium sp., Corynebacterium sp., Cyanobakterien, Escherichia sp., Pseudomonas sp., Klebsiella sp., Salmonella sp., Rhizobium sp., Saccharomyces sp., Pichia sp., and Nostoc sp.. wherein R 1 and R 2 independently of one another comprises identical or different organic radicals each with 5 to 13 carbon atoms, wherein the cell is a non-pathogenic cell that is genetically modified to increase the heterologous expression relative to the wild type cell of: - an enzyme (E 2 ) capable of converting 3-hydroxyalkanoyl-3-hydroxyalkanoyl-CoA/ACP and/or 3-(3-hydroxyalkanoyloxy)alkanoic acid (HAA) in combination with NDP-glucose into β-D-glucopyranosyl-3-hydroxyalkanoyl-3-hydroxyalkanoate, wherein the enzyme E2 is a glycosyltransferase (EC 2.4) comprising SEQ ID NO: 4 or variant thereof, wherein the variant comprises at least 90% sequence identity to SEQ ID NO:4 and wherein the cell is selected from the group consisting of Acinetobacter sp., Bacillus sp., Brevibacterium sp., Burkholderia sp., Chlorella sp., Clostridium sp., Corynebacterium sp., Cyanobakterien, Escherichia sp., Pseudomonas sp., Klebsiella sp., Salmonella sp., Rhizobium sp., Saccharomyces sp., Pichia sp., and Nostoc sp.. - an enzyme (E 2 ) capable of converting 3-hydroxyalkanoyl-3-hydroxyalkanoyl-CoA/ACP and/or 3-(3-hydroxyalkanoyloxy)alkanoic acid (HAA) in combination with NDP-glucose into β-D-glucopyranosyl-3-hydroxyalkanoyl-3-hydroxyalkanoate, wherein the enzyme E2 is a glycosyltransferase (EC 2.4) comprising SEQ ID NO: 4 or variant thereof, wherein the variant comprises at least 90% sequence identity to SEQ ID NO:4 and wherein the cell is selected from the group consisting of Acinetobacter sp., Bacillus sp., Brevibacterium sp., Burkholderia sp., Chlorella sp., Clostridium sp., Corynebacterium sp., Cyanobakterien, Escherichia sp., Pseudomonas sp., Klebsiella sp., Salmonella sp., Rhizobium sp., Saccharomyces sp., Pichia sp., and Nostoc sp..