mhurhangee/ep-ind-claims huggingface dataset:
A method for processing pulses from interrogations in a Mode S/ATCRBS transponder comprising the steps of: receiving a digitized interrogation signal from an analog-to-digital converter; determining a peak pulse of the digitized interrogation signal; and determining a type of the peak pulse; characterised in that the step of determining a peak pulse further comprises: determining whether at least four samples of the digitized interrogation signal have a successive rise in signal strength of at least 1dB; determining whether the last five samples of the digitized interrogation signal have passed a minimum trigger level, MTL,; determining whether the signal strength of the received signal is above a predetermined threshold, MTL0, which is set lower than the MTL; updating a dynamic MTL relative to the signal if the detected pulse is at or above the predetermined threshold, MTL0, and the at least five samples have passed the MTL; and determining whether the pulse is a potential pulse based on the dynamic MTL. receiving a digitized interrogation signal from an analog-to-digital converter; determining a peak pulse of the digitized interrogation signal; and determining a type of the peak pulse; characterised in that the step of determining a peak pulse further comprises: determining whether at least four samples of the digitized interrogation signal have a successive rise in signal strength of at least 1dB; determining whether the last five samples of the digitized interrogation signal have passed a minimum trigger level, MTL,; determining whether the signal strength of the received signal is above a predetermined threshold, MTL0, which is set lower than the MTL; updating a dynamic MTL relative to the signal if the detected pulse is at or above the predetermined threshold, MTL0, and the at least five samples have passed the MTL; and determining whether the pulse is a potential pulse based on the dynamic MTL. determining whether at least four samples of the digitized interrogation signal have a successive rise in signal strength of at least 1dB; determining whether the last five samples of the digitized interrogation signal have passed a minimum trigger level, MTL,; determining whether the signal strength of the received signal is above a predetermined threshold, MTL0, which is set lower than the MTL; updating a dynamic MTL relative to the signal if the detected pulse is at or above the predetermined threshold, MTL0, and the at least five samples have passed the MTL; and determining whether the pulse is a potential pulse based on the dynamic MTL.
A processor-implemented method of controlling an HVAC system, the method comprising: accessing,, comfort map data from a comfort map for an episode, wherein the comfort map comprises time, temperature and comfort set rules generated by comfort events; defining,,, a heating or cooling basis temperature; developing,,,, a proposed cover that complies with comfort set rules, wherein the proposed cover is a sequence of single-temperature time segments; determining,,,, a swept area metric for the proposed cover, the swept area metric being an area between the proposed cover and the defined basis temperature for the episode; developing,,,, additional proposed covers that comply with comfort set rules and corresponding swept area metrics by means of an iterative process, wherein the iterative process relates to the number of segments constituting the covers; comparing,,,, the swept area metrics of the proposed covers until an optimal proposed cover is achieved, the optimal proposed cover being the last iteratively developed additional proposed cover that complies with a minimum energy savings threshold; generating,, an execution temperature trajectory from the optimal proposed cover; and executing, the temperature trajectory utilizing the HVAC system. accessing,, comfort map data from a comfort map for an episode, wherein the comfort map comprises time, temperature and comfort set rules generated by comfort events; defining,,, a heating or cooling basis temperature; developing,,,, a proposed cover that complies with comfort set rules, wherein the proposed cover is a sequence of single-temperature time segments; determining,,,, a swept area metric for the proposed cover, the swept area metric being an area between the proposed cover and the defined basis temperature for the episode; developing,,,, additional proposed covers that comply with comfort set rules and corresponding swept area metrics by means of an iterative process, wherein the iterative process relates to the number of segments constituting the covers; comparing,,,, the swept area metrics of the proposed covers until an optimal proposed cover is achieved, the optimal proposed cover being the last iteratively developed additional proposed cover that complies with a minimum energy savings threshold; generating,, an execution temperature trajectory from the optimal proposed cover; and executing, the temperature trajectory utilizing the HVAC system.
An aerostat anchoring device comprising: (a) an air tight anchoring vessel having a removable and sealable top end for being connected to a tether to convey lift gas to an aerostat, and a sealable bottom end; (b) a stator having an opening therethrough to permit circulation of the lift gas from the stator to the interior of the vessel, the stator having a first end connected to the sealable bottom end of the air tight anchoring vessel and being in communication with a lift gas inlet, and a second end terminating in a stator plate; (c) a rotor having an opening therethrough to permit flow of the lift gas from the interior of the vessel to the interior of the rotor and then to the removable and sealable top end, the rotor having a first end rotatably and sealably connected to the removable and sealable top end of the air tight anchoring vessel and a second end terminating in a rotor plate in slidable contact with the stator plate to permit transfer of current and/or signals; and (d) a plurality of electrical contacts disposed on the rotor plate for mating with a plurality of electrical contacts disposed on the stator plate, the electrical contacts receiving and/or transmitting the current and/or signals to be transferred through the stator plate and rotor plate to and from the aerostat. (a) an air tight anchoring vessel having a removable and sealable top end for being connected to a tether to convey lift gas to an aerostat, and a sealable bottom end; (b) a stator having an opening therethrough to permit circulation of the lift gas from the stator to the interior of the vessel, the stator having a first end connected to the sealable bottom end of the air tight anchoring vessel and being in communication with a lift gas inlet, and a second end terminating in a stator plate; (c) a rotor having an opening therethrough to permit flow of the lift gas from the interior of the vessel to the interior of the rotor and then to the removable and sealable top end, the rotor having a first end rotatably and sealably connected to the removable and sealable top end of the air tight anchoring vessel and a second end terminating in a rotor plate in slidable contact with the stator plate to permit transfer of current and/or signals; and (d) a plurality of electrical contacts disposed on the rotor plate for mating with a plurality of electrical contacts disposed on the stator plate, the electrical contacts receiving and/or transmitting the current and/or signals to be transferred through the stator plate and rotor plate to and from the aerostat.
A device comprising a gaseous medium stream volume regulator in an exhaust channel with circular cross section, opened into a ventilator driven by wind, where the exhaust channel is equipped with at least one flat mobile element acting as a regulating member, characterised in that the regulator comprises a wind driven ventilator with a drive shaft positioned centrally in the exhaust channel, and holding at least one flat spring-loaded regulating element (5, 8) mounted on a pivot (4, 10), whereas the regulating element (5, 8) is forced by the power of a spring to the open position and is provided with a weight placed in a distance from the pivot (4, 10) axis, to take positions reducing the lumen of the exhaust channel under the effect of centrifugal forces.
A method for automated preparation of a slide using a smear cartridge of a smearing subsystem, said method comprising the steps of: moving a slide towards a smear surface of a smearing tape of the smear cartridge, wherein the smear surface is included on a blade of a cut-out of the smearing tape, and wherein the smearing tape is initially wound within an input reel of the smear cartridge and coupled to a take-up reel of the smear cartridge; contacting the slide with an exposed smear surface of the smearing tape, wherein the smear surface is exposed when the position of the blade of the cut-out is extended by a deflection component of the smear cartridge as the smearing tape is drawn from the input reel and into the take-up reel; and transporting the slide across the exposed smear surface. moving a slide towards a smear surface of a smearing tape of the smear cartridge, wherein the smear surface is included on a blade of a cut-out of the smearing tape, and wherein the smearing tape is initially wound within an input reel of the smear cartridge and coupled to a take-up reel of the smear cartridge; contacting the slide with an exposed smear surface of the smearing tape, wherein the smear surface is exposed when the position of the blade of the cut-out is extended by a deflection component of the smear cartridge as the smearing tape is drawn from the input reel and into the take-up reel; and transporting the slide across the exposed smear surface.
A device (100, 1000) comprising: a sensor component; and a touch panel comprising: touch-registration circuitry (116, 1010); a mesh (114, 200) comprising conductors (202, 204), wherein at least some of the conductors (202, 204) are routed to a junction for transmitting signals in the conductors (202, 204) into another component; and a flex circuit coupled between the junction and the touch-registration circuitry (116, 1010), wherein the flex circuit is longer than a distance between the junction and the touch-registration circuitry (116, 1010) to accommodate routing of the flex circuit past the sensor component, wherein the flex circuit comprises first (102A, 704) and second (102B, 706) portions positioned in a common plane and a third portion (102C, 710) extending past the sensor component and positioned in a plane other than the common plane of the first (102A, 704) and second (102B, 706) portions. a sensor component; and a touch panel comprising: touch-registration circuitry (116, 1010); a mesh (114, 200) comprising conductors (202, 204), wherein at least some of the conductors (202, 204) are routed to a junction for transmitting signals in the conductors (202, 204) into another component; and a flex circuit coupled between the junction and the touch-registration circuitry (116, 1010), wherein the flex circuit is longer than a distance between the junction and the touch-registration circuitry (116, 1010) to accommodate routing of the flex circuit past the sensor component, wherein the flex circuit comprises first (102A, 704) and second (102B, 706) portions positioned in a common plane and a third portion (102C, 710) extending past the sensor component and positioned in a plane other than the common plane of the first (102A, 704) and second (102B, 706) portions. touch-registration circuitry (116, 1010); a mesh (114, 200) comprising conductors (202, 204), wherein at least some of the conductors (202, 204) are routed to a junction for transmitting signals in the conductors (202, 204) into another component; and a flex circuit coupled between the junction and the touch-registration circuitry (116, 1010), wherein the flex circuit is longer than a distance between the junction and the touch-registration circuitry (116, 1010) to accommodate routing of the flex circuit past the sensor component, wherein the flex circuit comprises first (102A, 704) and second (102B, 706) portions positioned in a common plane and a third portion (102C, 710) extending past the sensor component and positioned in a plane other than the common plane of the first (102A, 704) and second (102B, 706) portions.
A suction cleaning arrangement comprising a vacuum cleaner nozzle and a nozzle attachment, wherein the vacuum cleaner nozzle has a housing comprising a front and a rear edge and a suction mouth running on an underside of the housing transversely to the operating direction, comprising a front and a rear suction mouth edge (4a, 4b), wherein the nozzle attachment has an aperture and can be attached to the underside of the vacuum cleaner nozzle, and wherein, in a mounted state of the nozzle attachment, the aperture is arranged upstream of the suction mouth and the suction mouth edges (4a, 4b) are spaced apart from the surface to be vacuumed, wherein, for specifically vacuuming grooves and furrows, the nozzle attachment is embodied such that, in the mounted state, said nozzle attachment extends at least in some areas across the underside, and, on the side facing away from the vacuum cleaner nozzle, the nozzle attachment has a sealing arrangement of strip-shaped, protruding sealing elements (11a, 11b) for sealing against a surface to be cleaned, characterized in that a cleaning roller is arranged in the suction mouth.
A method of controlling the fragmentation of ions during mass spectral analysis, said method comprising: (i) at a starting collision energy provided within a mass spectrometer, fragmenting at least one of a plurality of precursor ions generated from a sample to produce a plurality of daughter ion fragments; (ii) determining an ion current associated with unfragmented precursor ions in the mass spectrometer at the collision energy; (iii) determining an ion current associated with the daughter ion fragments in the mass spectrometer at the collision energy; (iv) determining the ratio of the current associated with the unfragmented precursor ions to the current associated with the daughter ion fragments; and (v) iteratively adjusting in real-time the collision energy provided in the mass spectrometer at (i) to move the ratio toward a predetermined range or value; wherein the collision energy is adjusted by an amount determined using the relation: Δ ⁢ CE = m * ln ion current ratio + B, where ΔCE is the change by which the collision energy is adjusted; and m and B are constants derived through at least one of theoretical analysis and experimentation. (i) at a starting collision energy provided within a mass spectrometer, fragmenting at least one of a plurality of precursor ions generated from a sample to produce a plurality of daughter ion fragments; (ii) determining an ion current associated with unfragmented precursor ions in the mass spectrometer at the collision energy; (iii) determining an ion current associated with the daughter ion fragments in the mass spectrometer at the collision energy; (iv) determining the ratio of the current associated with the unfragmented precursor ions to the current associated with the daughter ion fragments; and (v) iteratively adjusting in real-time the collision energy provided in the mass spectrometer at (i) to move the ratio toward a predetermined range or value; wherein the collision energy is adjusted by an amount determined using the relation: Δ ⁢ CE = m * ln ion current ratio + B, where ΔCE is the change by which the collision energy is adjusted; and m and B are constants derived through at least one of theoretical analysis and experimentation.
A method for encoding the Low Density Generator Matrix Code, LDGC, comprising the following steps: constructing a generator matrix G ldgc with L rows and N+L-K columns, wherein, an phalanx G ldgc (1:L, 1:L) consisting of L rows and the first L columns of the generator matrix G ldgc being an upper triangular matrix or a lower triangular matrix, the K, L and N being positive integers, and K<L<N; adding L-K known bits to a K-length information bit sequence that is to be encoded, and generating an information bit sequence m with a length of L; according to I×G ldgc (1:L, 1:L)=m, using the phalanx G ldgc (1:L, 1:L) consisting of L rows and the first L columns of the generator matrix G ldgc and the information bit sequence m with a length of L, generating an intermediate variable I by means of upper/lower triangular function solver, and according to C = I×G ldgc, using the generator matrix G ldgc to encode the intermediate variable I, and generating an encoding sequence with a length of N+L-K; and deleting L-K known bits from the encoding sequence with a length of N+L-K, and generating an encoding sequence with a length of N. constructing a generator matrix G ldgc with L rows and N+L-K columns, wherein, an phalanx G ldgc (1:L, 1:L) consisting of L rows and the first L columns of the generator matrix G ldgc being an upper triangular matrix or a lower triangular matrix, the K, L and N being positive integers, and K<L<N; adding L-K known bits to a K-length information bit sequence that is to be encoded, and generating an information bit sequence m with a length of L; according to I×G ldgc (1:L, 1:L)=m, using the phalanx G ldgc (1:L, 1:L) consisting of L rows and the first L columns of the generator matrix G ldgc and the information bit sequence m with a length of L, generating an intermediate variable I by means of upper/lower triangular function solver, and according to C = I×G ldgc, using the generator matrix G ldgc to encode the intermediate variable I, and generating an encoding sequence with a length of N+L-K; and deleting L-K known bits from the encoding sequence with a length of N+L-K, and generating an encoding sequence with a length of N.
A dish-washing machine having a washtub, in which at least one lower dish rack and one upper dish rack are housed, and a sprinkler system that comprises a lower sprinkler device configured for spraying water upwards, towards the lower rack, an intermediate sprinkler device, configured for spraying water upwards, towards the upper rack, and an upper sprinkler device, configured for spraying water downwards, towards the upper rack, at least the lower sprinkler device and the intermediate sprinkler device comprising respective rotary sprinklers, at least the intermediate sprinkler device and the upper sprinkler device being supplied via a canalization having an initial portion, an intermediate portion and a final portion, which extend substantially at a lower wall, a rear wall, and an upper wall of the tub, respectively, wherein the sprinkler system comprises at least one further stationary sprinkler device within the tub, configured for spraying water towards one of the lower rack and the upper rack, the dish-washing machine being characterized in that the canalization comprises a first duct and a second duct, for supplying the intermediate sprinkler device and the upper sprinkler device, respectively, independently of one another and in that the at least one further stationary sprinkler device is connected in fluid communication with one of the first duct and the second duct so as to be supplied together with the intermediate sprinkler device or the upper sprinkler device, respectively.
Detection device, in particular for the bulk detection of goods provided with transponders, - with at least one reading device for contactless identification of transponders, - with a reading area which extends at least in sections within the range of the reading device and which is designed for manually moving goods through for bulk detection by the reading device, and - with a signal generating device for outputting at least one maintenance and/or change signal relating to the speed and/or acceleration of the goods within the reading area, characterized in that the signal generating device is designed to output an optical and/or acoustic signal to an operator as a maintaining and/or change signal. - with at least one reading device for contactless identification of transponders, - with a reading area which extends at least in sections within the range of the reading device and which is designed for manually moving goods through for bulk detection by the reading device, and - with a signal generating device for outputting at least one maintenance and/or change signal relating to the speed and/or acceleration of the goods within the reading area,
An apparatus configured to observe phase bias between In-phase-Quadrature, I-Q, branches for an I-Q quadrature modulation transmitter, said I-Q quadrature modulation transmitter comprising an I branch, a Q branch having a phase bias device, and a feedback device, said feedback device being configured to feedback modulated signals from the I branch and the Q branch, said apparatus being mounted between said feedback device and said phase bias device; said phase bias device being configured to providing a phase bias of π/2 between the I branch and the Q branch, the apparatus comprising: a module squaring device configured to receive a signal from said feedback device and outputting the square of the module of said signal; a multiplier configured to multiply the data of said I branch by the data of said Q branch by the output of said module squaring device; and an averager configured to average the output of said multiplier, wherein the output of the averager, being proportional to a phase error, is used for adjusting the phase of said phase bias device so as to lock the phase bias to π/2. a module squaring device configured to receive a signal from said feedback device and outputting the square of the module of said signal; a multiplier configured to multiply the data of said I branch by the data of said Q branch by the output of said module squaring device; and an averager configured to average the output of said multiplier,
Expansion vessel for containing and dispensing a liquid by the compression of a gas, comprising: - a main body provided with a first end and a second end and comprising a first edge at said first end, overhanging with respect to said main body; characterized in that said first edge has a substantially "L" shape that delimit with said main body a compartment having a "U" shape provided with an opening facing the second end, said opening defining a plane perpendicular to said main body, and in that the compartment comprises a plurality of reinforcing ribs recessed with respect to said plane and to said edge. - a main body provided with a first end and a second end and comprising a first edge at said first end, overhanging with respect to said main body; characterized in that said first edge has a substantially "L" shape that delimit with said main body a compartment having a "U" shape provided with an opening facing the second end, said opening defining a plane perpendicular to said main body, and in that the compartment comprises a plurality of reinforcing ribs recessed with respect to said plane and to said edge.
An electrochemical gas sensor (1, 11) for detecting a target gas taken from the group consisting of ammonia and amines; comprising: an electrolyte comprising an ionic liquid; further comprising at least two electrodes (5, 6; 15, 16) in electrical contact with said electrolyte and in electrical isolation from each other; characterized in that said ionic liquid is di(2-hydroxyethyl) ammonium trifluoroacetate. an electrolyte comprising an ionic liquid; further comprising at least two electrodes (5, 6; 15, 16) in electrical contact with said electrolyte and in electrical isolation from each other; characterized in that said ionic liquid is di(2-hydroxyethyl) ammonium trifluoroacetate.