mhurhangee/ep-ind-claims huggingface dataset:
A turbine engine exhaust nozzle, comprising: an exhaust nozzle case comprising a seal land; an exhaust nozzle flap that moves relative to the seal land; and a leaf spring seal; characterised in that the leaf spring seal comprises: a stack of a plurality of seal leaf elements (72, 74, 76) that extend laterally from a first stack end that is connected to the exhaust nozzle flap to a distal second stack end, the stack comprising a seal land contact segment that extends longitudinally between a first stack side and a second stack side; the seal land contact segment sealingly engages the seal land, and is separated from the exhaust nozzle flap by an air gap; and a first of the plurality of seal leaf elements (72, 74, 76) extends longitudinally from the first stack side to the second stack side, and a second of the plurality of seal leaf elements (72, 74, 76) extends longitudinally from the first stack side partially towards the second stack side. an exhaust nozzle case comprising a seal land; an exhaust nozzle flap that moves relative to the seal land; and a leaf spring seal; characterised in that the leaf spring seal comprises: a stack of a plurality of seal leaf elements (72, 74, 76) that extend laterally from a first stack end that is connected to the exhaust nozzle flap to a distal second stack end, the stack comprising a seal land contact segment that extends longitudinally between a first stack side and a second stack side; the seal land contact segment sealingly engages the seal land, and is separated from the exhaust nozzle flap by an air gap; and a first of the plurality of seal leaf elements (72, 74, 76) extends longitudinally from the first stack side to the second stack side, and a second of the plurality of seal leaf elements (72, 74, 76) extends longitudinally from the first stack side partially towards the second stack side. a stack of a plurality of seal leaf elements (72, 74, 76) that extend laterally from a first stack end that is connected to the exhaust nozzle flap to a distal second stack end, the stack comprising a seal land contact segment that extends longitudinally between a first stack side and a second stack side; the seal land contact segment sealingly engages the seal land, and is separated from the exhaust nozzle flap by an air gap; and a first of the plurality of seal leaf elements (72, 74, 76) extends longitudinally from the first stack side to the second stack side, and a second of the plurality of seal leaf elements (72, 74, 76) extends longitudinally from the first stack side partially towards the second stack side.
A thermoelectric element (11, 12) comprising: a body having a predetermined length; a first end portion provided at a first end of the body; and a second end portion provided at a second end of the body, wherein the first end portion or the second end portion has at least a partial non-flat surface, characterised in that the first end portion has a curved portion protruding out of the body and having a first radius of curvature, and the second end portion has a curved portion protruding out of the body and having a second radius of curvature, wherein the first radius of curvature is different from the second radius of curvature. a body having a predetermined length; a first end portion provided at a first end of the body; and a second end portion provided at a second end of the body, wherein the first end portion or the second end portion has at least a partial non-flat surface, characterised in that the first end portion has a curved portion protruding out of the body and having a first radius of curvature, and the second end portion has a curved portion protruding out of the body and having a second radius of curvature, wherein the first radius of curvature is different from the second radius of curvature.
Method to change the capacity of a plant for adaptation to changes in the zinc concentration in the environment, especially the soil, comprising providing said plant with a nucleotide coding for a bZIP19 and/or bZIP23 protein, of which the sequences are given in SEQ ID NO: 2 and SEQ ID NO: 1, respectively, or orthologs thereof, wherein the orthologs have retained the function of bZIP19 or bZIP23 and have an amino acid sequence that is 90% or more identical to that of bZIP19 or bZIP23" and overexpressing said protein(s).
Greaseproof paper comprising a paper base and a greaseproof layer provided on at least one surface of the paper base, wherein the greaseproof layer comprises an ethylene-vinyl alcohol-vinyl ester copolymer and a fatty acid derivative derived from a fatty acid having 8 or more carbon atoms, contains 1 to 100 parts by mass of the fatty acid derivative per 100 parts by mass of the ethylene-vinyl alcohol-vinyl ester copolymer, and is in an amount of 0.5 to 5.0 g/m 2 in terms of dry mass, wherein the ethylene-vinyl alcohol-vinyl ester copolymer has a content of ethylene units of 0.1 to 15 mol%.
A flexible coupling assembly for a power transmission system comprising: a first shaft defining an axis, configured to connect to a first rotatable member; a first flexible diaphragm coupling configured to have a portion of the first shaft pass axially therethrough; a quill shaft having a circumferential opening configured to receive the first shaft and a locking flange for connecting the quill shaft to the first shaft, the quill shaft further being configured to connect to a second rotating member; and a primary diaphragm coupling shaft positioned radially outward of the quill shaft; and characterized in that: the quill shaft adjoins a second side of a second flexible diaphragm coupling and passes through the second flexible diaphragm coupling, and wherein the primary coupling shaft adjoins a first side of the second flexible diaphragm coupling. a first shaft defining an axis, configured to connect to a first rotatable member; a first flexible diaphragm coupling configured to have a portion of the first shaft pass axially therethrough; a quill shaft having a circumferential opening configured to receive the first shaft and a locking flange for connecting the quill shaft to the first shaft, the quill shaft further being configured to connect to a second rotating member; and a primary diaphragm coupling shaft positioned radially outward of the quill shaft; and characterized in that: the quill shaft adjoins a second side of a second flexible diaphragm coupling and passes through the second flexible diaphragm coupling, and wherein the primary coupling shaft adjoins a first side of the second flexible diaphragm coupling. the quill shaft adjoins a second side of a second flexible diaphragm coupling and passes through the second flexible diaphragm coupling, and wherein the primary coupling shaft adjoins a first side of the second flexible diaphragm coupling.
Method for the production of a multicolor reflection volume hologram, comprising the following steps: - providing a single master hologram with several different monochrome sub-holograms (11, 12, 13) with a predefined design, which meet the respective Bragg conditions and comply with the respective specific reconstruction beams, - the imaging geometry of each monochrome master sub-hologram (11, 12, 13) being calculated such that with reconstruction or copying by means of a single monochrome laser, using a predefined angle of incidence, a contact copy is obtained, such that in the obtained contact copy, while the reconstruction uses white light, all colors are seen in the contact copy, at the same desired viewing angle, - applying a copying layer on the master hologram by lamination or by means of index match material, - creating a contact copy by copying the structure of the reflection master hologram into the assigned copying layer by means of a single monochrome copying/imaging beam of coherent light with a wavelength in the ultraviolet to infrared range, - the single copying beam consisting of a copying beam bundle of the same wavelength for each/all sub-holograms (11, 12, 13), such as blue laser light, - the copying beam bundle impinging upon the structure formed by the master hologram and the copying layer at a selected angle of incidence, - the incidence angle of the copying beam bundle being calculated such that the structure of the assigned sub-hologram (11, 12, 13) is reflected in the copying layer. - providing a single master hologram with several different monochrome sub-holograms (11, 12, 13) with a predefined design, which meet the respective Bragg conditions and comply with the respective specific reconstruction beams, - the imaging geometry of each monochrome master sub-hologram (11, 12, 13) being calculated such that with reconstruction or copying by means of a single monochrome laser, using a predefined angle of incidence, a contact copy is obtained, such that in the obtained contact copy, while the reconstruction uses white light, all colors are seen in the contact copy, at the same desired viewing angle, - applying a copying layer on the master hologram by lamination or by means of index match material, - creating a contact copy by copying the structure of the reflection master hologram into the assigned copying layer by means of a single monochrome copying/imaging beam of coherent light with a wavelength in the ultraviolet to infrared range, - the single copying beam consisting of a copying beam bundle of the same wavelength for each/all sub-holograms (11, 12, 13), such as blue laser light, - the copying beam bundle impinging upon the structure formed by the master hologram and the copying layer at a selected angle of incidence, - the incidence angle of the copying beam bundle being calculated such that the structure of the assigned sub-hologram (11, 12, 13) is reflected in the copying layer.
A device for comminuting bulk goods with a drive motor that is coupled with at least one hydraulic pump (22, 23) of a hydrostatic drive such that it enables force transmission, wherein the hydrostatic drive comprises at least one hydraulic motor (24, 25) that is connected to the at least one hydraulic pump (22, 23) via a first supply line and a first return line for hydraulic oil, and the at least one hydraulic motor (24, 25) is coupled with a comminution rotor such that it enables force transmission, tools being arranged on said rotor for the comminution of the bulk goods, wherein a bypass valve unit is arranged in a first bypass line, which is arranged between the first supply line and the first return line, and a discharge valve unit is arranged in a further bypass line, which is arranged between the first supply line and a second return line, said discharge valve unit being connected via the second return line to the at least one hydraulic motor (24, 25), characterized in that the hydraulic motor (24, 25) is coupled with a gear unit such that it enables force transmission, said gear unit being coupled with the comminution rotor, and a first 4/2-way valve with a second electric activation device and/or a throttle valve are arranged downstream of the discharge valve, and the second return line is connected via a second bypass line, the first 4/2-way valve and the throttle valve to an emergency hydraulic motor, which is coupled with an emergency hydraulic pump, wherein the emergency hydraulic motor is configured to drive the emergency hydraulic pump by means of the hydraulic oil that is discharged from the first return line via the further (third) bypass line, and the emergency hydraulic pump is connected to an emergency hydraulic oil tank and the at least one hydraulic motor (24, 25) via a third return line.
An inkjet printing system (40, 500), comprising: an inkjet printhead (10, 510) comprising an ink via and a plurality of inkjet nozzles (L 1 -L 8, R 1 -R 8), the plurality of inkjet nozzles (L 1 -L 8, R 1 -R 8) being arranged on opposing sides of the ink via and vertically offset from each other; an ink concentration calculation system configured to determine a pigment concentration of ink ejected by the inkjet printhead (10, 510) relative to an initial pigment concentration of the ink; and a control module operatively connected and configured to receive information from the ink concentration calculation system and configured to determine, based on the information, a firing pattern for the inkjet printhead (10, 510) to decrease a dot coverage over a print medium area with increase of the relative pigment concentration of the ink, by selectively ejecting the ink from the plurality of inkjet nozzles (L 1 -L 8, R 1 -R 8). an inkjet printhead (10, 510) comprising an ink via and a plurality of inkjet nozzles (L 1 -L 8, R 1 -R 8), the plurality of inkjet nozzles (L 1 -L 8, R 1 -R 8) being arranged on opposing sides of the ink via and vertically offset from each other; an ink concentration calculation system configured to determine a pigment concentration of ink ejected by the inkjet printhead (10, 510) relative to an initial pigment concentration of the ink; and a control module operatively connected and configured to receive information from the ink concentration calculation system and configured to determine, based on the information, a firing pattern for the inkjet printhead (10, 510) to decrease a dot coverage over a print medium area with increase of the relative pigment concentration of the ink, by selectively ejecting the ink from the plurality of inkjet nozzles (L 1 -L 8, R 1 -R 8).
A method for estimating an operating parameter value of an energy storage device arranged to provide power for propulsion for an electric or hybrid vehicle, said method comprises: determining a first operating parameter value (θ i-1) of the energy storage device at a first time; establishing a reference operating parameter value (θ i *) from pre-determined experimental data relating said operating parameter to a time related parameter, wherein the reference operating parameter is a reference capacity versus time or versus cycle number of the energy storage device, based on said reference operating parameter value (θ i *) and said first operating parameter value (θ i-1), recursively calculating a second operating parameter value (θ i) of said energy storage device at a second time subsequent to said first time, wherein, said recursive calculation comprises a tuning parameter (β) for modifying a portion of said reference operating parameter value (θ i *) to be included in said second operating parameter value (θ i), and wherein said pre-determined experimental data is determined from measurements of operating parameter trajectories of a plurality of energy storage devices. determining a first operating parameter value (θ i-1) of the energy storage device at a first time; establishing a reference operating parameter value (θ i *) from pre-determined experimental data relating said operating parameter to a time related parameter, wherein the reference operating parameter is a reference capacity versus time or versus cycle number of the energy storage device, based on said reference operating parameter value (θ i *) and said first operating parameter value (θ i-1), recursively calculating a second operating parameter value (θ i) of said energy storage device at a second time subsequent to said first time, wherein, said recursive calculation comprises a tuning parameter (β) for modifying a portion of said reference operating parameter value (θ i *) to be included in said second operating parameter value (θ i), and wherein said pre-determined experimental data is determined from measurements of operating parameter trajectories of a plurality of energy storage devices.
A method for wireless communications at a transmitting device, comprising: encoding a set of data bits to transmit to a receiving device on a set of subcarriers based at least in part on a boosting factor, wherein the boosting factor is associated with a repetition factor; rate matching the set of encoded data bits based at least in part on the repetition factor, wherein the repetition factor scales a rate for rate matching the set of encoded data bits; mapping, including non-coherent modulation mapping, the rate-matched set of encoded data bits to a resource block comprising a first subset of subcarriers corresponding to the rate-matched set of encoded data bits and a second subset of subcarriers corresponding to a set of null bits; generating a signal comprising the rate-matched set of encoded data bits based at least in part on the mapping; and transmitting the generated signal to the receiving device. encoding a set of data bits to transmit to a receiving device on a set of subcarriers based at least in part on a boosting factor, wherein the boosting factor is associated with a repetition factor; rate matching the set of encoded data bits based at least in part on the repetition factor, wherein the repetition factor scales a rate for rate matching the set of encoded data bits; mapping, including non-coherent modulation mapping, the rate-matched set of encoded data bits to a resource block comprising a first subset of subcarriers corresponding to the rate-matched set of encoded data bits and a second subset of subcarriers corresponding to a set of null bits; generating a signal comprising the rate-matched set of encoded data bits based at least in part on the mapping; and transmitting the generated signal to the receiving device.
Method for operating vehicles with an electric drive, wherein the electric drive is operated with a control strategy which is dependent on a route which is to be travelled, wherein the operation comprises temperature management of at least one energy store of the vehicle, wherein the temperature management is performed depending on load profiles which are assigned to the route, characterized in that driving information, in particular the route travelled, driving dynamics and duration, are detected and stored, and driving profiles are obtained from the detected driving information and load profiles are created on the basis of the driving profiles, wherein the load profiles indicate which drive energy has to be provided at which time.
A microphone array configured to be implemented in a mobile phone, the mobile phone having an application processor, the microphone array comprising: a common bus interconnecting only a plurality of microphones; and a plurality of microphones (102, 104, 106, 108), each microphone connected to the common bus, at least a first microphone of the array configured to operate in an active mode to detect acoustic input sound at the first microphone and at least two other microphones of the array configured to operate in a low power, sleep mode in a first operating condition and to operate in the active mode in a second operating condition, each microphone further comprising logic means configured in the active mode to detect an acoustic signal level at the microphone input, generate a wake up command based on the acoustic signal level, and send the wake up command from the microphone directly to the other microphones of the array using the common bus and configured in the low power mode to transition the microphone from the low power mode to the active mode upon receiving, via the common bus, the wake up command from another microphone. a common bus interconnecting only a plurality of microphones; and a plurality of microphones (102, 104, 106, 108), each microphone connected to the common bus, at least a first microphone of the array configured to operate in an active mode to detect acoustic input sound at the first microphone and at least two other microphones of the array configured to operate in a low power, sleep mode in a first operating condition and to operate in the active mode in a second operating condition, each microphone further comprising logic means configured in the active mode to detect an acoustic signal level at the microphone input, generate a wake up command based on the acoustic signal level, and send the wake up command from the microphone directly to the other microphones of the array using the common bus and configured in the low power mode to transition the microphone from the low power mode to the active mode upon receiving, via the common bus, the wake up command from another microphone.
Equipment for structurization and polarization of fuel, combustion mixture or water, comprising supply and discharge channels, a body in a form of a hollow cylinder, for example, with a round cross-section, or a prism, or a frustum of pyramid, or a glass, with a smooth inside surface, and a rod mounted in the body equidistantly or centrally and straightened with a flange by means of a leak proof insulation spacer, where both the body and the rod are made of current-conducting materials and are connectable to the electric circuit, characterized in that the equipment is supplied with a battery of current-conducting discs interleaved with insulating ones, tightly positioned on the rod, wherein, along with that the shape of the tops of the discs (8, 9) is similar to the shape of the internal surface of the body, but is less in dimensions, as well as are the shape and the dimensions of the insulating discs in comparison with the current-conducting ones, the size of a working gap (a) for passing fuel, combustion mixture or water, created between the top of any current-conducting disc and the internal surface of the body doesn't exceed 1/10 of the average size of the working surface of the body in the given cross-section and at the same time doesn't exceed the difference between the tops of the given current-conducting and adjoined insulating discs, measured in the same radial direction of the same cross-section, but the thickness (t) of any current-conducting disc is less than the thickness of adjoined to it insulating one;
An RF coil assembly (18, 18') for use in a magnetic resonance system, including: a radiofrequency coil; a plurality of memory resistive elements (46,56,62,72); wherein each memory resistive element is adapted to retain a resistive state after a control signal is removed; a biasing circuit (20,27) that is adapted to generate the control signal to set each of the memory resistive elements to one of a plurality of resistive states; wherein each memory resistive element (46, 56, 62,72) includes a memristor which is adapted to be biased to a resistive state by a DC bias and to hold said resistive state when the DC bias is removed; wherein at least one of the memory resistive elements (46,56,62,72) is part of a detuning circuit which is adapted to switch the radiofrequency coil between a tuned state, tuned to a resonance frequency, and a detuned state; and a memory constructed with a plurality of the memory resistive elements configured to store information. a radiofrequency coil; a plurality of memory resistive elements (46,56,62,72); wherein each memory resistive element is adapted to retain a resistive state after a control signal is removed; a biasing circuit (20,27) that is adapted to generate the control signal to set each of the memory resistive elements to one of a plurality of resistive states; wherein each memory resistive element (46, 56, 62,72) includes a memristor which is adapted to be biased to a resistive state by a DC bias and to hold said resistive state when the DC bias is removed; wherein at least one of the memory resistive elements (46,56,62,72) is part of a detuning circuit which is adapted to switch the radiofrequency coil between a tuned state, tuned to a resonance frequency, and a detuned state; and a memory constructed with a plurality of the memory resistive elements configured to store information.