mhurhangee/ep-ind-claims huggingface dataset:
A canister for a vehicle having an auxiliary canister, comprising: a main canister that has an inlet and an outlet formed therein, an evaporation gas being introduced into the main canister through the inlet from a fuel tank and the evaporation gas introduced through the inlet being discharged through the outlet to the intake side of an engine when the engine is driven, and has a trapping member therein; and an auxiliary canister that is installed to communicate with the main canister to allow external air to be introduced into the main canister or to allow the evaporation gas to flow when the engine is turned off, and has a second trapping member therein, wherein the auxiliary canister comprises the second trapping member therein, which has a plurality of pores in the form of a honeycomb and to which an absorbent material is applied, characterised in that the absorbent material is applied in a spray method or in an impregnation method, and the second trapping member has a width of 30 mm to 40 mm and a length of 150 mm, wherein the second trapping member has activated carbon applied to the surface of partition walls that form the pores, and a plurality of pores having an inverted triangular shape are formed in the surface of the second trapping member to which the activated carbon is applied. a main canister that has an inlet and an outlet formed therein, an evaporation gas being introduced into the main canister through the inlet from a fuel tank and the evaporation gas introduced through the inlet being discharged through the outlet to the intake side of an engine when the engine is driven, and has a trapping member therein; and an auxiliary canister that is installed to communicate with the main canister to allow external air to be introduced into the main canister or to allow the evaporation gas to flow when the engine is turned off, and has a second trapping member therein, wherein the auxiliary canister comprises the second trapping member therein, which has a plurality of pores in the form of a honeycomb and to which an absorbent material is applied, characterised in that the absorbent material is applied in a spray method or in an impregnation method, and the second trapping member has a width of 30 mm to 40 mm and a length of 150 mm, wherein the second trapping member has activated carbon applied to the surface of partition walls that form the pores, and a plurality of pores having an inverted triangular shape are formed in the surface of the second trapping member to which the activated carbon is applied.
An Electronic Article Surveillance resonant antenna system with self-contained automatic selective damping, comprising: an antenna resonant circuit responsive to an exciter signal produced by a remotely located EAS transceiver, the exciter signal comprised of a periodic burst of alternating current electrical energy which, when applied to the antenna resonant circuit, produce an electromagnetic field which is capable of exciting an EAS marker tag; a damping control system (818, 822, 824) provided at the location of the antenna resonant circuit, remote from the EAS transceiver; wherein the damping control system detects each said periodic burst received at the antenna resonant circuit, and is responsive to said detecting to selectively decrease a Q factor of the antenna resonant circuit at a predetermined time characterized by a power supply system disposed at the location of the antenna resonant circuitry, wherein the power supply rectifies and filters electrical power contained in the periodic bursts to provide a primary source of electrical power to the damping control system. an antenna resonant circuit responsive to an exciter signal produced by a remotely located EAS transceiver, the exciter signal comprised of a periodic burst of alternating current electrical energy which, when applied to the antenna resonant circuit, produce an electromagnetic field which is capable of exciting an EAS marker tag; a damping control system (818, 822, 824) provided at the location of the antenna resonant circuit, remote from the EAS transceiver; wherein the damping control system detects each said periodic burst received at the antenna resonant circuit, and is responsive to said detecting to selectively decrease a Q factor of the antenna resonant circuit at a predetermined time characterized by a power supply system disposed at the location of the antenna resonant circuitry, wherein the power supply rectifies and filters electrical power contained in the periodic bursts to provide a primary source of electrical power to the damping control system.
Drum support assembly (30, 32) for a printing machine, comprising a drum support body (30a, 32a) having a bearing interface (30b, 32b) for a drum (24, 26, 28), a lower guide supporting the drum support body (30a, 32a) at a lower end thereof, and an upper guide supporting the drum support body (30a, 32a) at an upper end thereof, characterized in that a pre-tensioning unit is provided pre-tensioning the drum support body (30a, 32a) against the lower guide and/or the upper guide, the pre-tensioning unit comprises a pressure piece and a spring element, wherein the spring element is adapted for applying a spring force on the pressure piece, and wherein the pressure piece is mounted on the drum support body (30a, 32a) and frictionally engages the lower guide and/or the upper guide, or wherein the pressure piece is mounted on one of the upper guide and the lower guide and frictionally engages the drum support body (30a, 32a). a drum support body (30a, 32a) having a bearing interface (30b, 32b) for a drum (24, 26, 28), a lower guide supporting the drum support body (30a, 32a) at a lower end thereof, and an upper guide supporting the drum support body (30a, 32a) at an upper end thereof, characterized in that a pre-tensioning unit is provided pre-tensioning the drum support body (30a, 32a) against the lower guide and/or the upper guide, the pre-tensioning unit comprises a pressure piece and a spring element, wherein the spring element is adapted for applying a spring force on the pressure piece, and wherein the pressure piece is mounted on the drum support body (30a, 32a) and frictionally engages the lower guide and/or the upper guide, or wherein the pressure piece is mounted on one of the upper guide and the lower guide and frictionally engages the drum support body (30a, 32a).
A wire-to-wire electrical connector configured for connecting wires in an end-to-end configuration, said connector comprising: an insulative body member comprising top and bottom walls, opposite end walls, and an internal connector position disposed between said end walls; a wire insertion opening defined in each of said end walls; a first contact element disposed in said connector position coaxial with said wire insertion openings, said first contact element comprising opposite end portions with a respective contact tab configured thereon, said contact tabs biased to a closed position across said respective wire insertion opening; an actuator configured with each said wire insertion opening, said actuators movably displaceable through an opening in a wall of said body member and further comprising an engagement end in contact with a respective end portion of said first contact element; said actuators manually depressible to move said contact tabs to an open position for insertion of a conductive core of a wire into said wire insertion opening beyond said contact tab, whereby upon release, said actuators move to a return position with said contact tabs biased against the conductive core of opposite wires; whereby the conductive core of a wire inserted into said wire inserting opening is released by subsequent depression of said actuators and disengagement of said contact tab from the conductive core of the wire; characterized in that said contact tabs are defined by cut-out portions of the end portions of said first contact element, said cut-out portions being upwardly angled towards said wire insertion opening; and wherein said engagement end of said actuators engages said first contact element adjacent to said angled cut-out portions. an insulative body member comprising top and bottom walls, opposite end walls, and an internal connector position disposed between said end walls; a wire insertion opening defined in each of said end walls; a first contact element disposed in said connector position coaxial with said wire insertion openings, said first contact element comprising opposite end portions with a respective contact tab configured thereon, said contact tabs biased to a closed position across said respective wire insertion opening; an actuator configured with each said wire insertion opening, said actuators movably displaceable through an opening in a wall of said body member and further comprising an engagement end in contact with a respective end portion of said first contact element; said actuators manually depressible to move said contact tabs to an open position for insertion of a conductive core of a wire into said wire insertion opening beyond said contact tab, whereby upon release, said actuators move to a return position with said contact tabs biased against the conductive core of opposite wires; whereby the conductive core of a wire inserted into said wire inserting opening is released by subsequent depression of said actuators and disengagement of said contact tab from the conductive core of the wire;
Mobile communications terminal for use in a plurality of wireless local networks, which features a log on memory in which an access address provided for a new log on process is stored, characterised in that information is stored in an allocation memory of the mobile communications terminal about which access addresses the mobile communications terminal has received in which of the plurality of wireless local networks in previous log on processes, it is embodied such that, as a result of a new access request for a network sought from the plurality of wireless local networks, it searches for an earlier access address issued to it for the sought network, and it is embodied such that, on finding the earlier access address for the sought network, it writes this address into the log on memory and transmits it for a log on process.
A system for cancelling spatial interference associated with an original multicarrier signal carrying at least one data transmission sent by a transmitter to an antenna array comprising a plurality of antennae and having a receiver operatively associated therewith,the system receiving a plurality of received signals respectively including the interference and the original signal as received by a respective individual antenna from among the plurality of antennae,the system comprising: a spatial nulling device for generating a cleaner signal by reducing at least one spatial component of said interference; and a signal manipulator operative to manipulate a derivative of said received signals so as to cause said at least one data transmission to be more concentrated in a subset of frequency bands in which the spatial nulling device is more effective and to be less concentrated in frequency bands which do not belong to said subset of frequency bands, wherein said signal manipulator comprises a programmable band limited noise injector device which receives, and adds noise to a signal derived from a signal received by at least one of the antennae such that noise is added only to frequency bands outside the subset and not to frequency bands inside the subset, and wherein said spatial nulling device and said signal manipulator are both downstream of the plurality of antennae, and wherein said spatial nulling device is upstream of said signal manipulator. a spatial nulling device for generating a cleaner signal by reducing at least one spatial component of said interference; and a signal manipulator operative to manipulate a derivative of said received signals so as to cause said at least one data transmission to be more concentrated in a subset of frequency bands in which the spatial nulling device is more effective and to be less concentrated in frequency bands which do not belong to said subset of frequency bands, wherein said signal manipulator comprises a programmable band limited noise injector device which receives, and adds noise to a signal derived from a signal received by at least one of the antennae such that noise is added only to frequency bands outside the subset and not to frequency bands inside the subset, and wherein said spatial nulling device and said signal manipulator are both downstream of the plurality of antennae, and wherein said spatial nulling device is upstream of said signal manipulator.
A pharmaceutical composition for use in the prevention or treatment of a muscular disease, the composition comprising a combination of dimenhydrinate represented by the following Chemical Formula 1 and calcium pantothenate represented by the following Chemical Formula 3 as an active ingredient
A porous material comprising (i) a single pore having a single pore size or (ii) a plurality of pores having an average pore size, wherein the single pore size or the average pore size is proportioned to accommodate a single gas molecule to the exclusion of additional gas molecules; wherein the single gas molecule is positioned between at least two metal ion dimers in a pore of the material, wherein each dimer comprises an outer metal ion and an inner metal ion, wherein each inner metal ion participates in binding the single gas molecule, and wherein the outer metal ion and the inner metal ion are the same; wherein: (a) each metal ion dimer is bonded by four bis (monodentate) ligands and at least one of the bis(monodentate) ligands is selected from a compound of formulae and: wherein A 1 is selected from naphthalenyl, quinolinyl, naphthyridinyl, anthracenyl, and acridinyl; wherein A 2 is selected from phenyl, pyridinyl, naphthalenyl, naphthyridinyl, and acridinyl, and X 1 is selected from ethynyl, or (b) each metal ion dimer is bonded by four tetra(monodentate) ligands, and at least one of the tetra(monodentate) ligands is selected from a compound of formula or: wherein A 4 is selected from pyridinyl, naphthalenyl, quinolinyl, naphthpyridinyl, anthracenyl, and acridinyl; wherein A 5 is selected from phenyl, pyridinyl, naphthalenyl, naphthpyridinyl, and acridinyl, and wherein X 2 is selected from ethynyl, (a) each metal ion dimer is bonded by four bis (monodentate) ligands and at least one of the bis(monodentate) ligands is selected from a compound of formulae and: wherein A 1 is selected from naphthalenyl, quinolinyl, naphthyridinyl, anthracenyl, and acridinyl; wherein A 2 is selected from phenyl, pyridinyl, naphthalenyl, naphthyridinyl, and acridinyl, and X 1 is selected from ethynyl, or wherein A 2 is selected from phenyl, pyridinyl, naphthalenyl, naphthyridinyl, and acridinyl, and X 1 is selected from ethynyl, or (b) each metal ion dimer is bonded by four tetra(monodentate) ligands, and at least one of the tetra(monodentate) ligands is selected from a compound of formula or: wherein A 4 is selected from pyridinyl, naphthalenyl, quinolinyl, naphthpyridinyl, anthracenyl, and acridinyl; wherein A 5 is selected from phenyl, pyridinyl, naphthalenyl, naphthpyridinyl, and acridinyl, and wherein X 2 is selected from ethynyl, wherein A 5 is selected from phenyl, pyridinyl, naphthalenyl, naphthpyridinyl, and acridinyl, and wherein X 2 is selected from ethynyl,
Building connector with thermal insulation, including at least one pair of load bearing elements, one above the other, and a thermal insulation layer around these load bearing elements and between them, and containing a bottom and a top fire prevention layer (16,17), wherein the load bearing element is a section of a steel profile, on both ends of which steel reinforcement bars (3,4) comprising extensions of this profile are attached, and a section of the steel profile free of those reinforcement bars (3, 4) is located between these reinforcing bars (3,4) attached to both ends of the steel profile, characterised in that the steel profile is an open profile with an omega cross-section, wherein a single steel reinforcing bar is attached to at least one end of this steel profile, at the bends of its arms, which includes a loop and two arms formed along its length, such that said loop covers the spine of the steel profile and this reinforcement bar is welded to the steel profile along the entire length of contact with this profile at the bends of the steel profile, between the outwards bent arm of this steel profile, and the side wall of the spine of this profile perpendicular to this arm.
A method for producing L-methionine, comprising: i) culturing an L-methionine precursor producing strain in a fermentation solution, so that the L-methionine precursor being an O-acylhomoserine compound of Formula 1 accumulates in the fermentation solution; and ii) adding a converting enzyme and methylmercaptan or its different forms to the fermentation solution to convert L-methionine precursor to L-methionine; wherein R of Formula 1 is a substance including C, H, O, N and other compounds with 15 carbon atoms at maximum and wherein the L-methionine precursor producing strain of step i) is characterized by enhanced expression or activity of homoserine O-succinyl transferase or homoserine O-acetyl transferase. i) culturing an L-methionine precursor producing strain in a fermentation solution, so that the L-methionine precursor being an O-acylhomoserine compound of Formula 1 accumulates in the fermentation solution; and ii) adding a converting enzyme and methylmercaptan or its different forms to the fermentation solution to convert L-methionine precursor to L-methionine;
A left atrial appendage occluder, comprising a plugging column and anchors located on the plugging column, wherein the plugging column is braided from a plurality of elastic metal wires, or braided from a plurality of elastic metal wires and an elastic metal sheet, the anchors are made by partially flattening and then cutting the elastic metal wire, or the anchors are made by cutting the elastic metal sheet, wherein the plurality of elastic metal wires and/or the elastic metal sheet are/is cut to form cutting grooves, and the anchors are formed by bending the anchors outward from the elastic metal wire or sheet and wherein the anchors extend from an end of the cutting grooves.
A colored polymer dispersion comprising as essential constituents (a) a color polymer prepared by polymerizing monomer A with monomer B, monomer A being a pigment P which is coated with a polymerizable wax D in which the polymerizable function is an ethylenically unsaturated group, and monomer B being an ethylenically unsaturated compound from the group of acrylates and methacrylates; (b) at least one nonionic surface-active additive E based on polyethers and/or polyglycerols; (c) at least one anionic surface-active additive F based on sulfonates, sulfates, phosphonates, phosphates or carboxylates; (d) water. (a) a color polymer prepared by polymerizing monomer A with monomer B, monomer A being a pigment P which is coated with a polymerizable wax D in which the polymerizable function is an ethylenically unsaturated group, and monomer B being an ethylenically unsaturated compound from the group of acrylates and methacrylates; (b) at least one nonionic surface-active additive E based on polyethers and/or polyglycerols; (c) at least one anionic surface-active additive F based on sulfonates, sulfates, phosphonates, phosphates or carboxylates; (d) water.
A method comprising: receiving a first record comprising one or more first fields from a first source computer; in response to determining that the first record is a first type and a first node is associated with the first type, sending the first record to the first node, which is executed on a first computer, to be processed, wherein records of the first type are organized according to a first schema; receiving an updated first record comprising the one or more first fields and one or more second, new fields from the first source computer; in response to determining that the updated first record is a second type and a second node is associated with the second type, sending the updated first record to the second node, which is executed on a second computer, to be processed, wherein records of the second type are organized according to a second schema; in response to determining that the second type is a first subtype of the first type, associating the first updated record with a signature of the first type and sending the first updated record to the first node to be processed, without suspending and/or reconfiguring the first node; wherein the method is performed by one or more computing devices. receiving a first record comprising one or more first fields from a first source computer; in response to determining that the first record is a first type and a first node is associated with the first type, sending the first record to the first node, which is executed on a first computer, to be processed, wherein records of the first type are organized according to a first schema; receiving an updated first record comprising the one or more first fields and one or more second, new fields from the first source computer; in response to determining that the updated first record is a second type and a second node is associated with the second type, sending the updated first record to the second node, which is executed on a second computer, to be processed, wherein records of the second type are organized according to a second schema; in response to determining that the second type is a first subtype of the first type, associating the first updated record with a signature of the first type and sending the first updated record to the first node to be processed, without suspending and/or reconfiguring the first node; wherein the method is performed by one or more computing devices.
A method (700, 800) of operating a first wireless communications device in a first cell, the method comprising: determining (702, 802) a first power allocation pattern for a plurality of different carriers (402, 404, 406) in the first cell; transmitting signals in a first carrier of the plurality of carriers, where the total transmission power of the first carrier is set to be a first transmission power value as a function of the first power allocation pattern; and transmitting signals in a second carrier of the plurality of carriers, where the total transmission power of the second carrier is set to be a second transmission power value as a function of the first power allocation pattern, the second transmission power value being different from the first transmission power value, characterized in that the first power allocation pattern is determined initially in accordance with a template pattern, which is subsequently modified iteratively based on the current load information within the first cell and within neighbouring cells. determining (702, 802) a first power allocation pattern for a plurality of different carriers (402, 404, 406) in the first cell; transmitting signals in a first carrier of the plurality of carriers, where the total transmission power of the first carrier is set to be a first transmission power value as a function of the first power allocation pattern; and transmitting signals in a second carrier of the plurality of carriers, where the total transmission power of the second carrier is set to be a second transmission power value as a function of the first power allocation pattern, the second transmission power value being different from the first transmission power value,