mhurhangee/ep-ind-claims huggingface dataset:
An igniter assembly integrating an igniter and an igniter collar, the igniter comprising: a heating element; an ignition agent disposed in contact with the heating element; and a plurality of conductive pins (206, 207) penetrating an insulating layer and electrically connected to the heating element, wherein the other ends of the conductive pins (206, 207) are exposed from the insulating layer in order to be connected with a current supply component for supplying an ignition current to the heating element, wherein the igniter collar surrounds the insulating layer and retains the igniter, characterized in that an IC tag is disposed in the insulating layer and in the vicinity of any one of the plurality of conductive pins (206, 207) and in that an annular flange at an upper end of the igniter collar is provided with a positioning portion disposed at a radial position corresponding to the radial position of the IC tag. a heating element; an ignition agent disposed in contact with the heating element; and a plurality of conductive pins (206, 207) penetrating an insulating layer and electrically connected to the heating element, wherein the other ends of the conductive pins (206, 207) are exposed from the insulating layer in order to be connected with a current supply component for supplying an ignition current to the heating element, wherein the igniter collar surrounds the insulating layer and retains the igniter, characterized in that an IC tag is disposed in the insulating layer and in the vicinity of any one of the plurality of conductive pins (206, 207) and in that an annular flange at an upper end of the igniter collar is provided with a positioning portion disposed at a radial position corresponding to the radial position of the IC tag.
Sonotrode for establishing an ultrasonic welded connection for fastening a cylindrical body on a planar surface, wherein the sonotrode is of rotationally symmetrical design, having a connecting section for holding the sonotrode in a welding apparatus, an annular working surface for transmitting ultrasonic vibrations in a joining zone, formed at an angle of between 45° and 0° in relation to the rotation axis of the sonotrode, and a concave channel, which encircles in the form of an annular groove, for at least partially receiving the cylindrical body, which channel is arranged between the connecting section and the working surface, characterized in that the working surface merges with the channel on one side, wherein the channel is of concave design and has, starting from the working surface, a continuously changing radius of curvature, wherein the working surface, at its side which is averted from the channel, merges, in particular in a conical manner, with a free end side of the sonotrode.
A vacuum cleaner to suction dust by applying vibration, the cleaner comprising: a motor arranged to be vibrated by an eccentric load applied to a rotating shaft of the motor; a vibration plate arranged to apply vibration to an object to be cleaned; and a vibration transfer member arranged to transfer vibration of the motor to the vibration plate, characterised that the vibration transfer member is configured to vibrate together with the motor, wherein the vibration transfer member comprises: a motor accommodation portion arranged to accommodate the motor; and at least one connection member arranged to connect the motor accommodation portion to the vibration plate. a motor arranged to be vibrated by an eccentric load applied to a rotating shaft of the motor; a vibration plate arranged to apply vibration to an object to be cleaned; and a vibration transfer member arranged to transfer vibration of the motor to the vibration plate, characterised that the vibration transfer member is configured to vibrate together with the motor, wherein the vibration transfer member comprises: a motor accommodation portion arranged to accommodate the motor; and at least one connection member arranged to connect the motor accommodation portion to the vibration plate. a motor accommodation portion arranged to accommodate the motor; and at least one connection member arranged to connect the motor accommodation portion to the vibration plate.
Method for transforming plastic parisons into plastic bottles, comprising the following steps: - introducing a plastic parison which is to be expanded into a blow mould, wherein this blow mould has at least two lateral parts and a base part which is movable relative to these lateral parts in a longitudinal direction of the plastic parison - inserting a rod-shaped body into the interior of the plastic parison through a mouth of the plastic parison - applying a first pressure to the plastic parison - applying a second pressure (Pi) to the plastic parison, wherein this second pressure (Pi) deviates from the first pressure and is preferably higher than the first pressure - applying a third pressure to the plastic parison, wherein this third pressure deviates from the second pressure (Pi) and is preferably higher than the second pressure (Pi), characterised in that after the third pressure is applied to the plastic parison, the base part is advanced towards the plastic parison in the longitudinal direction of the plastic parison. - introducing a plastic parison which is to be expanded into a blow mould, wherein this blow mould has at least two lateral parts and a base part which is movable relative to these lateral parts in a longitudinal direction of the plastic parison - inserting a rod-shaped body into the interior of the plastic parison through a mouth of the plastic parison - applying a first pressure to the plastic parison - applying a second pressure (Pi) to the plastic parison, wherein this second pressure (Pi) deviates from the first pressure and is preferably higher than the first pressure - applying a third pressure to the plastic parison, wherein this third pressure deviates from the second pressure (Pi) and is preferably higher than the second pressure (Pi), characterised in that after the third pressure is applied to the plastic parison, the base part is advanced towards the plastic parison in the longitudinal direction of the plastic parison. characterised in that after the third pressure is applied to the plastic parison, the base part is advanced towards the plastic parison in the longitudinal direction of the plastic parison.
A nucleic acid molecule comprising a nucleotide sequence selected from the group consisting of: a) the nucleotide sequence of SEQ ID NO:36; b) a nucleotide sequence having at least 95% sequence identity to the nucleotide sequence of SEQ ID NO:36, wherein said nucleotide sequence encodes a polypeptide having pesticidal activity; c) a nucleotide sequence encoding a polypeptide comprising the amino acid sequence of SEQ ID NO:96; and, d) a nucleotide sequence encoding a polypeptide having at least 95% amino acid sequence identity to the amino acid sequence of SEQ ID NO:96, wherein said polypeptide has pesticidal activity. a) the nucleotide sequence of SEQ ID NO:36; b) a nucleotide sequence having at least 95% sequence identity to the nucleotide sequence of SEQ ID NO:36, wherein said nucleotide sequence encodes a polypeptide having pesticidal activity; c) a nucleotide sequence encoding a polypeptide comprising the amino acid sequence of SEQ ID NO:96; and, d) a nucleotide sequence encoding a polypeptide having at least 95% amino acid sequence identity to the amino acid sequence of SEQ ID NO:96, wherein said polypeptide has pesticidal activity.
A system to separate a whole material including multiple components, comprising: a container having an external wall defining a container volume within the external wall and extending along a long axis between a first end and a second end; a separation buoy positioned within the container volume between the first end and the second end; a first fill port near the first end of the container; a valve assembly formed within the first fill port; and a second withdrawal port near the second end of the container; wherein the whole material is operable to enter the container through the first fill port and at least a selected component of the whole material is operable to be withdrawn from the container through the second withdrawal port, and wherein the whole material is whole blood, bone marrow aspirate, or a combination thereof.
A distributor assembly comprising: a manifold body comprising distribution jets for directing a semiconductor vapor from the manifold body; a vaporizer chamber formed in the manifold body, wherein the vaporizer chamber comprises a powder inlet and a vapor outlet; a powder injector disposed in the powder inlet for delivering semiconductor powder to the vaporizer chamber; a vapor path formed through the manifold body, wherein the vapor path comprises a first end disposed at the vapor outlet of the vaporizer chamber and a second end disposed at the distribution jets; a filter disposed within the vapor path, wherein the filter comprises a porous body that defines a filter cavity; and characterized by a heater configured to heat the manifold body and isolated from the filter by the manifold body, wherein the heater heats the vaporizer chamber, whereby the semiconductor powder is transformed into the semiconductor vapor. a manifold body comprising distribution jets for directing a semiconductor vapor from the manifold body; a vaporizer chamber formed in the manifold body, wherein the vaporizer chamber comprises a powder inlet and a vapor outlet; a powder injector disposed in the powder inlet for delivering semiconductor powder to the vaporizer chamber; a vapor path formed through the manifold body, wherein the vapor path comprises a first end disposed at the vapor outlet of the vaporizer chamber and a second end disposed at the distribution jets; a filter disposed within the vapor path, wherein the filter comprises a porous body that defines a filter cavity; and characterized by a heater configured to heat the manifold body and isolated from the filter by the manifold body, wherein the heater heats the vaporizer chamber, whereby the semiconductor powder is transformed into the semiconductor vapor.
A method for estimating a block error rate, comprising: decoding multiple log-likelihood ratios, LLRs, that correspond to each coded code block among N coded code blocks to obtain multiple posterior probabilities, APPs, for each coded code block, wherein N is a natural number greater than 1; obtaining N results, each result of the N results is obtained, according to the multiple APPs, the multiple log-likelihood ratios, LLRs, both for each coded code block, and a preset policy, each result of the N results indicating whether the decoding of each coded code block is correct or incorrect, wherein the preset policy comprises: when a ratio of a sum of absolute values of the multiple APPs corresponding to a coded code block to a sum of absolute values of the multiple LLRs corresponding to the coded code block is greater than or equal to a preset threshold, the decoding for the coded code block is correct; and obtaining a decoding block error rate according to the N results indicating whether the decoding of the N coded code blocks are correct or incorrect. decoding multiple log-likelihood ratios, LLRs, that correspond to each coded code block among N coded code blocks to obtain multiple posterior probabilities, APPs, for each coded code block, wherein N is a natural number greater than 1; obtaining N results, each result of the N results is obtained, according to the multiple APPs, the multiple log-likelihood ratios, LLRs, both for each coded code block, and a preset policy, each result of the N results indicating whether the decoding of each coded code block is correct or incorrect, wherein the preset policy comprises: when a ratio of a sum of absolute values of the multiple APPs corresponding to a coded code block to a sum of absolute values of the multiple LLRs corresponding to the coded code block is greater than or equal to a preset threshold, the decoding for the coded code block is correct; and obtaining a decoding block error rate according to the N results indicating whether the decoding of the N coded code blocks are correct or incorrect.
A radiation monitor comprising: a radiation sensing unit which includes phosphors (3, 4) which emit a photon with respect to an incident radiation; and a photon sending unit, configured as an optical fiber, which is configured to send the photon emitted from the phosphors (3, 4) of the radiation sensing unit, wherein the phosphors (3, 4) form a multilayer structure including a first phosphor and a second phosphor, and a photon absorbing layer configured to absorb a photon emitted from the phosphor (3, 4) is provided between the first phosphor and the second phosphor; characterized by an optical filter which attenuates the number of photons sent from the photon sending unit; and a photodetector which is configured to convert the photon sent from the optical filter into an electric pulse signal, wherein the optical filter is connected to the photon sending unit and the photodetector, wherein the number of radiation sensing units and the number of photon sending units are plural, and are configured to measure radiation dose rates at a plurality of different positions; a light selection unit which is configured to select any one of light sent from a first optical fiber of the photon sending unit and light sent from a second optical fiber of the photon sending unit as light to be acquired by the photodetector as an electric pulse signal; and a control unit which is configured to control the light selection unit, wherein the optical filter is connected to the light selection unit and the photodetector. a radiation sensing unit which includes phosphors (3, 4) which emit a photon with respect to an incident radiation; and a photon sending unit, configured as an optical fiber, which is configured to send the photon emitted from the phosphors (3, 4) of the radiation sensing unit, wherein the phosphors (3, 4) form a multilayer structure including a first phosphor and a second phosphor, and a photon absorbing layer configured to absorb a photon emitted from the phosphor (3, 4) is provided between the first phosphor and the second phosphor; characterized by an optical filter which attenuates the number of photons sent from the photon sending unit; and a photodetector which is configured to convert the photon sent from the optical filter into an electric pulse signal, wherein the optical filter is connected to the photon sending unit and the photodetector, wherein the number of radiation sensing units and the number of photon sending units are plural, and are configured to measure radiation dose rates at a plurality of different positions; a light selection unit which is configured to select any one of light sent from a first optical fiber of the photon sending unit and light sent from a second optical fiber of the photon sending unit as light to be acquired by the photodetector as an electric pulse signal; and a control unit which is configured to control the light selection unit, wherein the optical filter is connected to the light selection unit and the photodetector.
A burner for a gas turbine engine, the burner being enclosable in a burner housing, wherein - said burner has axially opposed upstream and downstream end portions; - at the upstream end of said burner a pilot combuster is located, said pilot combustor being provided with fuel and air for burning said fuel for the creation of a flow of an unquenched concentration of radicals at non-equilibrium and heat from a pilot combustion zone directed downstream along a centre line of the pilot combustor through a throat at an exit of the pilot combustor; - a plurality of quarl sections (4a, 4b, 4c) surround the exit of the pilot combustor and extend from said exit in the downstream direction, wherein an outer quarl section having a greater diameter than an inner quarl section extends downstream in a greater distance than an inner quarl; - a main combustion room is defined downstream said pilot combustor by end portions of the quarls (4a, 4b, 4c), wherein said combustion room is arranged to house a main flame and a recirculation zone for directing a flow of free radicals back to a forward stagnation point at the exit of the pilot combustor; - at least a first channel defined as a substantially annular space between an upstream quarl section and the closest downstream quarl section providing air and fuel to said main flame in said combustion room, characterized in that said burner further comprises quarl-diverging walls downstream of the throat, wherein a quarl half angle α is above 20 degrees and below 25 degrees. - said burner has axially opposed upstream and downstream end portions; - at the upstream end of said burner a pilot combuster is located, said pilot combustor being provided with fuel and air for burning said fuel for the creation of a flow of an unquenched concentration of radicals at non-equilibrium and heat from a pilot combustion zone directed downstream along a centre line of the pilot combustor through a throat at an exit of the pilot combustor; - a plurality of quarl sections (4a, 4b, 4c) surround the exit of the pilot combustor and extend from said exit in the downstream direction, wherein an outer quarl section having a greater diameter than an inner quarl section extends downstream in a greater distance than an inner quarl; - a main combustion room is defined downstream said pilot combustor by end portions of the quarls (4a, 4b, 4c), wherein said combustion room is arranged to house a main flame and a recirculation zone for directing a flow of free radicals back to a forward stagnation point at the exit of the pilot combustor; - at least a first channel defined as a substantially annular space between an upstream quarl section and the closest downstream quarl section providing air and fuel to said main flame in said combustion room,
A method for the improvement of side-mode suppression oscillations of an optoelectronic oscillator comprising an optical section and an electrical section, wherein said optical section comprises a modulated light source, for example a laser, a Mach-Zehnder's modulator from which a light fibre leads to a photo detector, and wherein the electrical section comprises an amplifier in series connected to the photo detector, a band-pass filter, and splitter of the electrical signal to the output of the oscillator and to the modulation input of said Mach-Zehnder's modulator, characterised in that the side-mode oscillations of an optoelectronic oscillator are suppressed by a loop (11, 18, 19) connected to said oscillator, which determines the frequency difference between generations of the oscillator or free spectral range, and controls a phase shifter of the oscillator, wherein said control of the phase shifter of the oscillator comprises the following steps: a) leading at least one signal (14; 15) from any point of the electrical section of the optoelectronic oscillator whose side-mode oscillations are necessary to be attenuated, to a detector of a free spectral range; b) determining the value of the free spectral range of at least one of said signals (14; 15) by said detector, wherein said detector generates a signal corresponding to the value of the free spectral range and to the power of the side-mode oscillation which is nearest to the oscillator's signal; c) leading a signal coming out of said detector of the free spectral range into a band-pass filter which passes only a search frequency spacing between side-modes; d) leading of a signal coming out of said band-pass filter into an adapter of power and phase which assigns the necessary power and phase to the signal; e) sending a control signal from the adapter of power and phase to said phase shifter of the oscillator. a) leading at least one signal (14; 15) from any point of the electrical section of the optoelectronic oscillator whose side-mode oscillations are necessary to be attenuated, to a detector of a free spectral range; b) determining the value of the free spectral range of at least one of said signals (14; 15) by said detector, wherein said detector generates a signal corresponding to the value of the free spectral range and to the power of the side-mode oscillation which is nearest to the oscillator's signal; c) leading a signal coming out of said detector of the free spectral range into a band-pass filter which passes only a search frequency spacing between side-modes; d) leading of a signal coming out of said band-pass filter into an adapter of power and phase which assigns the necessary power and phase to the signal; e) sending a control signal from the adapter of power and phase to said phase shifter of the oscillator.
A connector comprising: a mounting portion electrically connected to a printed circuit board of a battery management unit configured to manage voltages of a plurality of battery cells; and a connection portion comprising two or more connection terminals configured to contact a counterpart connection terminal and comprising a concave-convex structure formed on an outer surface of the connection terminal, wherein the concave-convex structure comprises a plurality of protrusions (134p, 134p1, 134p2) respectively formed in the two or more connection terminals, characterised in that the plurality of protrusions (134p, 134p1, 134p2) are formed on an inner side surface of the two or more connection terminals facing each other and an outer side surface that is an opposite surface to the inner side surface. a mounting portion electrically connected to a printed circuit board of a battery management unit configured to manage voltages of a plurality of battery cells; and a connection portion comprising two or more connection terminals configured to contact a counterpart connection terminal and comprising a concave-convex structure formed on an outer surface of the connection terminal, wherein the concave-convex structure comprises a plurality of protrusions (134p, 134p1, 134p2) respectively formed in the two or more connection terminals, characterised in that the plurality of protrusions (134p, 134p1, 134p2) are formed on an inner side surface of the two or more connection terminals facing each other and an outer side surface that is an opposite surface to the inner side surface.