mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, the method comprising: generating instructions for a transceiver to enable at least one opportunity to transmit mission critical, MiCr, data and at least one opportunity to receive MiCr data in a time division duplex, TDD, subframe during a single transmission time interval, TTI, wherein the subframe is one of a plurality of subframes within a frame; and communicating the MiCr data in the TDD subframe during the single TTI, wherein the MiCr data comprises data having at least one of a latency requirement lower than a latency requirement of other data included in the TDD subframe, a priority requirement higher than a priority requirement of other data included in the TDD subframe, or a reliability requirement higher than a reliability requirement of other data included in the TDD subframe. generating instructions for a transceiver to enable at least one opportunity to transmit mission critical, MiCr, data and at least one opportunity to receive MiCr data in a time division duplex, TDD, subframe during a single transmission time interval, TTI, wherein the subframe is one of a plurality of subframes within a frame; and communicating the MiCr data in the TDD subframe during the single TTI, wherein the MiCr data comprises data having at least one of a latency requirement lower than a latency requirement of other data included in the TDD subframe, a priority requirement higher than a priority requirement of other data included in the TDD subframe, or a reliability requirement higher than a reliability requirement of other data included in the TDD subframe.
A method of determining a sequence of a double-stranded target nucleic acid in a sample, comprising: (a) contacting the sample comprising the double-stranded target nucleic acid with a mixture of first and second hairpin adaptor molecules, each comprising a double-stranded stem region and a first single-stranded loop region or a second single-stranded loop region; (b) ligating each terminus of the target nucleic acid molecule to the double-stranded region of the adaptor molecules thereby forming a circular joint molecule comprising the target nucleic acid and having a double-stranded region and the first single-stranded loop region on one end and the second single-stranded loop region on the other end covalently linked to the double-stranded region; (c) contacting the sample with a limiting concentration of blocking oligonucleotides tethered to a solid support wherein the blocking oligonucleotide is non-extendable by a nucleic acid polymerase and is complementary to the first single-stranded loop region, thereby capturing the circular molecule on the solid support and blocking the first single-stranded loop region; (d) contacting the sample with an oligonucleotide primer complementary to the second single-stranded loop region, thereby hybridizing the primer to the second single-stranded loop region; (e) extending the primer with a sequencing polymerase thereby determining the sequence of the double-stranded target nucleic acid. (a) contacting the sample comprising the double-stranded target nucleic acid with a mixture of first and second hairpin adaptor molecules, each comprising a double-stranded stem region and a first single-stranded loop region or a second single-stranded loop region; (b) ligating each terminus of the target nucleic acid molecule to the double-stranded region of the adaptor molecules thereby forming a circular joint molecule comprising the target nucleic acid and having a double-stranded region and the first single-stranded loop region on one end and the second single-stranded loop region on the other end covalently linked to the double-stranded region; (c) contacting the sample with a limiting concentration of blocking oligonucleotides tethered to a solid support wherein the blocking oligonucleotide is non-extendable by a nucleic acid polymerase and is complementary to the first single-stranded loop region, thereby capturing the circular molecule on the solid support and blocking the first single-stranded loop region; (d) contacting the sample with an oligonucleotide primer complementary to the second single-stranded loop region, thereby hybridizing the primer to the second single-stranded loop region; (e) extending the primer with a sequencing polymerase thereby determining the sequence of the double-stranded target nucleic acid.
A nucleic acid sample testing apparatus, comprising: at least one reagent container (7, 11, 17); at least one reaction container; a pipette unit; and a transport carrier (5, 9, 13) for mounting the at least one reagent container (7, 11, 17) and the at least one reaction container which is not connected with the at least one reagent container (7, 11, 17), and transporting the at least one reagent container (7, 11, 17) and the at least one reaction container to a processing section (8, 12, 18), wherein the transport carrier (5, 9, 13) is able to move along a transport guide in the horizontal direction perpendicular to the direction along which the pipette unit moves. at least one reagent container (7, 11, 17); at least one reaction container; a pipette unit; and a transport carrier (5, 9, 13) for mounting the at least one reagent container (7, 11, 17) and the at least one reaction container which is not connected with the at least one reagent container (7, 11, 17), and transporting the at least one reagent container (7, 11, 17) and the at least one reaction container to a processing section (8, 12, 18), wherein the transport carrier (5, 9, 13) is able to move along a transport guide in the horizontal direction perpendicular to the direction along which the pipette unit moves.
A security device comprising a substrate carrying a surface relief optically variable effect generating structure formed by the super position of three diffractive image generating structures which respond to respectively different colour components or wavelength ranges of white light to generate a first, substantially achromatic image or background pattern located in a plane spaced from the surface of the substrate.
A reverse power feeding processing method, comprising: monitoring, by a Distribution Point Unit, DPU, current working states of lines connected to the DPU; and according to the current working states of the lines, determining a powering strategy of corresponding lines to perform power feeding; characterized in that the method further comprises: controlling the current working states of the lines according to states of Power Sourcing Equipment, PSE, connected to the lines, wherein the current working state of a line refers to one of working states which the line can be in, and the working states of the line comprise at least one of an idle state L3, a normal operation state L0, a low power consumption state L2.1 and a standby state L2.2. monitoring, by a Distribution Point Unit, DPU, current working states of lines connected to the DPU; and according to the current working states of the lines, determining a powering strategy of corresponding lines to perform power feeding; characterized in that the method further comprises: controlling the current working states of the lines according to states of Power Sourcing Equipment, PSE, connected to the lines, wherein the current working state of a line refers to one of working states which the line can be in, and the working states of the line comprise at least one of an idle state L3, a normal operation state L0, a low power consumption state L2.1 and a standby state L2.2.
A reusable energy-absorbing crash attenuator, comprising: a base; a rail disposed on and extending along a length of said base; a plurality of energy absorbing modules (14a, 14b, 14c) slidably disposed on said rail; and wherein each of said energy absorbing modules comprises a first module portion and a second module portion which are attached together; each of said module portions comprising plastic and having a combination of concave and convex curvature; each of said energy absorbing modules having a recess in a bottom edge thereof, said recess fitting over said rail to slidably dispose the energy absorbing module on the rail; characterized in that said recess is located in a convex curvature of a module portion. a base; a rail disposed on and extending along a length of said base; a plurality of energy absorbing modules (14a, 14b, 14c) slidably disposed on said rail; and wherein each of said energy absorbing modules comprises a first module portion and a second module portion which are attached together; each of said module portions comprising plastic and having a combination of concave and convex curvature; each of said energy absorbing modules having a recess in a bottom edge thereof, said recess fitting over said rail to slidably dispose the energy absorbing module on the rail; characterized in that said recess is located in a convex curvature of a module portion.
A multi-function panel, consisting of wood fibers and bicomponent fibers as well as an additive or a mixture of additives, wherein the wood fibers take up a proportion of 10 wt.% to 90 wt.% and the bicomponent fibers take up a proportion of 90 wt.% to 10 wt.%, wherein the at least one additive or the mixture of additives comprises a group that comprises fungicides, insecticides, algicides and hydrophobing agents and wherein the multi-function panel has a density of 100 kg/m 3 to 300 kg/m 3.
A method for detecting sperm DNA fragmentation in a semen sample from a human subject, comprising: (a) embedding the semen sample containing sperm cells in a gel comprising acrylamide, acrylic acid, methacrylic acid, N-isopropylacrylamide (NIPAM), or alginate, to obtain a sperm cells-embedded gel, wherein the gel has a pore size from 3 nm to 9 nm; (b) treating the sperm cells-embedded gel with a lysis solution to lyse the nuclear proteins of the sperm cells embedded in the gel; (c) subjecting the treated gel in step (b) to DNA staining; and (d) observing the presence or the absence of a halo formation around a head of each sperm cell, wherein the presence of halo formation is indicative of the presence of SDF. (a) embedding the semen sample containing sperm cells in a gel comprising acrylamide, acrylic acid, methacrylic acid, N-isopropylacrylamide (NIPAM), or alginate, to obtain a sperm cells-embedded gel, wherein the gel has a pore size from 3 nm to 9 nm; (b) treating the sperm cells-embedded gel with a lysis solution to lyse the nuclear proteins of the sperm cells embedded in the gel; (c) subjecting the treated gel in step (b) to DNA staining; and (d) observing the presence or the absence of a halo formation around a head of each sperm cell, wherein the presence of halo formation is indicative of the presence of SDF.
A processing apparatus comprising a microwave processing chamber, a rigid, rotatable feed wheel rotatable about an axis of rotation such that a part of the feed wheel is located within the processing chamber, a feed device operable to deposit materials to be processed onto an outer rolling surface of the feed wheel, and an output into which processed materials from the feed wheel can be deposited, in use, and wherein the feed wheel is orientated such that processed materials can fall from the outer rolling surface into the output after the processed materials have passed through the processing chamber.
An electric device being adapted to execute a power saving control based on a demand response, DR, control level, comprising: a memory unit to store one of a plurality of DR control levels each corresponding to a power rate level where a power saving operation is started; a communication unit to receive a current power rate and a current power rate level related to the current power rate from a power provider; a user interface which, upon receiving a request for changing a DR control level to a desired DR control level from a user, displays a list of the stored DR control levels and receives the desired DR control level from the user; and a controller to compare the current power rate level with the desired DR control level from the plurality of DR control levels, and to determine whether to perform a power-saving operation, characterised in that the controller initially sets a product recommended DR control level pre-stored in the memory unit when the product is manufactured indicating the start level of the power saving operation, and sets the desired DR control level indicating the start level of the power saving operation upon receiving a request for changing the DR control level to the desired DR control level from the user interface, wherein the user interface is adapted to display a currently established DR control level for a predetermined period of time starting from when the electric device is powered on or requested by the user. a memory unit to store one of a plurality of DR control levels each corresponding to a power rate level where a power saving operation is started; a communication unit to receive a current power rate and a current power rate level related to the current power rate from a power provider; a user interface which, upon receiving a request for changing a DR control level to a desired DR control level from a user, displays a list of the stored DR control levels and receives the desired DR control level from the user; and a controller to compare the current power rate level with the desired DR control level from the plurality of DR control levels, and to determine whether to perform a power-saving operation, characterised in that the controller initially sets a product recommended DR control level pre-stored in the memory unit when the product is manufactured indicating the start level of the power saving operation, and sets the desired DR control level indicating the start level of the power saving operation upon receiving a request for changing the DR control level to the desired DR control level from the user interface, wherein the user interface is adapted to display a currently established DR control level for a predetermined period of time starting from when the electric device is powered on or requested by the user.
A protection relay configured to measure current in a power line with at least one current sensor connected in the power line, and to analyze the measured current for providing electrical protection by generating a trip signal to operate a circuit breaker connected in the power line, the protection relay comprising: a first module for analyzing the measured current in the power line and for providing electrical protection by generating a first trip signal based on the analyzed measured current by the first module; a second module for analyzing the measured current in the power line and for providing electrical protection by generating a second trip signal based on the analyzed measured current by the second module; wherein, the trip signal to operate the circuit breaker connected in the power line is generated by logical combination of the first trip signal from the first module and the second trip signal from the second module, and wherein the protection relay comprises a power management unit that performs controlled charging of a trip capacitor from a bus capacitor. a first module for analyzing the measured current in the power line and for providing electrical protection by generating a first trip signal based on the analyzed measured current by the first module; a second module for analyzing the measured current in the power line and for providing electrical protection by generating a second trip signal based on the analyzed measured current by the second module; wherein, the trip signal to operate the circuit breaker connected in the power line is generated by logical combination of the first trip signal from the first module and the second trip signal from the second module, and wherein the protection relay comprises a power management unit that performs controlled charging of a trip capacitor from a bus capacitor.
A wall assembly (60, 62) for a gas turbine engine, comprising: a support shell (68, 70) with a contoured region; and a multiple of liner panels (72, 74) mounted to the support shell (68, 70), at least one of the multiple of liner panels (72, 74) including an end rail, and the contoured region deformable to selectively contact at least a portion of the end rail, characterised in that the contoured region is centered with respect to an intermediate circumferential rail of the at least one of the multiple of liner panels (72, 74), and the wall assembly further comprises a perimeter rail that defines a first height from a cold side of the at least one liner panel (72, 74), the intermediate rail defines a second height from the cold side, the second height less than the first height. a support shell (68, 70) with a contoured region; and a multiple of liner panels (72, 74) mounted to the support shell (68, 70), at least one of the multiple of liner panels (72, 74) including an end rail, and the contoured region deformable to selectively contact at least a portion of the end rail, characterised in that the contoured region is centered with respect to an intermediate circumferential rail of the at least one of the multiple of liner panels (72, 74), and the wall assembly further comprises a perimeter rail that defines a first height from a cold side of the at least one liner panel (72, 74), the intermediate rail defines a second height from the cold side, the second height less than the first height.
A system (10,110), comprising: a plurality of sensing devices (18,20) configured to generate acoustic emission signals (22,24,104) that are representative of acoustic emission waves propogating through a plurality of stator vanes; a processing subsystem (26,114) that is in an operational communication with the plurality of sensing devices, characterised in that the processing subsystem is configured to: generate in real-time a dynamic threshold based upon an initial threshold and the AE signals; determine whether a plurality of signals of interest exist in the AE signals based upon the dynamic threshold; extract the plurality of signals of interest from the AE signals based upon the dynamic threshold; determine one or more features corresponding to the plurality of signals of interest; and analyze the one or more features to monitor and validate the health of the plurality of stator vanes. a plurality of sensing devices (18,20) configured to generate acoustic emission signals (22,24,104) that are representative of acoustic emission waves propogating through a plurality of stator vanes; a processing subsystem (26,114) that is in an operational communication with the plurality of sensing devices, characterised in that the processing subsystem is configured to: generate in real-time a dynamic threshold based upon an initial threshold and the AE signals; determine whether a plurality of signals of interest exist in the AE signals based upon the dynamic threshold; extract the plurality of signals of interest from the AE signals based upon the dynamic threshold; determine one or more features corresponding to the plurality of signals of interest; and analyze the one or more features to monitor and validate the health of the plurality of stator vanes. generate in real-time a dynamic threshold based upon an initial threshold and the AE signals; determine whether a plurality of signals of interest exist in the AE signals based upon the dynamic threshold; extract the plurality of signals of interest from the AE signals based upon the dynamic threshold; determine one or more features corresponding to the plurality of signals of interest; and analyze the one or more features to monitor and validate the health of the plurality of stator vanes.
Hybrid drivetrain of a vehicle, in particular a mobile plant vehicle having an internal combustion engine and an electrical machine, characterized in that the drivetrain further comprises a hydraulic machine (4, 9), the electrical machine, arranged in parallel, taking the place of the flywheel.
Premix burner, essentially consisting of a swirl generator for a combustion air flow, fuel injection means (3, 5, 17, 17a, 17b, 31-38, 41-48) for introducing fuel into the combustion air flow and air inlet slots (19, 20) via which the combustion air flow enters a swirl space of the swirl generator, wherein the fuel is injected into the combustion air via the fuel injection means (5, 5a, 5b, 17, 17a, 17b, 31-38, 41-48) in stages, and wherein at least one of the injection means (5, 5a, 5b) is arranged on a fuel lance projecting into the swirl space and can be rotated on the swirl generator by an angle (Φ) with respect to the injection points (17, 17a, 17b, 31-38, 41-48) of the fuel, characterized in that the fuel lance is divided into at least two part lances (3a, 3b), in that fuel injection openings (5a, 5b) of the part lances (3a, 3b) can be supplied with fuel individually by regulating bodies (39, 49), and in that the part lances (3a, 3b) can be rotated by the angle (Φ) independently of one another.
A method for identifying and differentiating between reflectors on the verge of the road and vehicle lights (FL1, FL2) for use in a vehicle with a camera sensor oriented towards the vehicle surroundings, wherein - a sequence of images of the vehicle surroundings is recorded, - light spots are found in the sequence of images and temporally monitored (tracked), characterized in that - following the temporal monitoring of light spots found in the sequence of images it is decided, for each light spot, whether the source of the light spot is a vehicle light (FL1, FL2) or a reflector, - a statistical map for the entire camera image is determined from the position of the light spots found, said map having regions which are predominantly occupied by reflectors, and regions which are predominantly occupied by vehicles driving ahead or by oncoming vehicles, - all light sources found in the regions occupied by reflectors are identified as potential reflectors, - all light sources found in the regions occupied by vehicle lights (FL1, FL2) are identified as potential vehicle lights (FL1, FL2), and - a sensor-based lane detection system is provided which supplies information about the lane lying ahead so that the position of the regions on the map in which potential reflectors are located is adapted according to the information about the roadway curvature lying ahead. - a sequence of images of the vehicle surroundings is recorded, - light spots are found in the sequence of images and temporally monitored (tracked), - following the temporal monitoring of light spots found in the sequence of images it is decided, for each light spot, whether the source of the light spot is a vehicle light (FL1, FL2) or a reflector, - a statistical map for the entire camera image is determined from the position of the light spots found, said map having regions which are predominantly occupied by reflectors, and regions which are predominantly occupied by vehicles driving ahead or by oncoming vehicles, - all light sources found in the regions occupied by reflectors are identified as potential reflectors, - all light sources found in the regions occupied by vehicle lights (FL1, FL2) are identified as potential vehicle lights (FL1, FL2), and - a sensor-based lane detection system is provided which supplies information about the lane lying ahead so that the position of the regions on the map in which potential reflectors are located is adapted according to the information about the roadway curvature lying ahead.