mhurhangee/patent-ind-claim-en huggingface dataset:
A combination weighing apparatus comprising: a plurality of hoppers disposed to surround a centerline (CL) parallel to a vertical direction and configured to temporarily store articles supplied from an outside; and a collecting chute configured to discharge the articles discharged from the plurality of hoppers while collecting the articles, wherein the collecting chute has at least a chute portion configured to receive the articles discharged from the plurality of hoppers and slide the articles, a plurality of sliding areas (R) is provided in the chute portion each sliding area extending from below a respective one of the plurality of hoppers to a side of the centerline (CL) and positioned on a lower side as approaching the centerline, each of the plurality of sliding areas includes a sliding surface forming a bottom surface of the sliding area, a first receiving surface connected to the sliding surface on one side of the sliding surface in a horizontal direction when viewed from the side of the centerline, and a second receiving surface connected to the sliding surface on the other side of the sliding surface in the horizontal direction when viewed from the side of the centerline, the sliding surface , the first receiving surface , and the second receiving surface mutually have an intersecting positional relationship to protrude outward with respect to the centerline, a width of the sliding surface increases as approaching the centerline, and a width of each of the first receiving surface and the second receiving surface decreases as approaching the centerline. a plurality of hoppers disposed to surround a centerline (CL) parallel to a vertical direction and configured to temporarily store articles supplied from an outside; and a collecting chute configured to discharge the articles discharged from the plurality of hoppers while collecting the articles, wherein the collecting chute has at least a chute portion configured to receive the articles discharged from the plurality of hoppers and slide the articles, a plurality of sliding areas (R) is provided in the chute portion each sliding area extending from below a respective one of the plurality of hoppers to a side of the centerline (CL) and positioned on a lower side as approaching the centerline, each of the plurality of sliding areas includes a sliding surface forming a bottom surface of the sliding area, a first receiving surface connected to the sliding surface on one side of the sliding surface in a horizontal direction when viewed from the side of the centerline, and a second receiving surface connected to the sliding surface on the other side of the sliding surface in the horizontal direction when viewed from the side of the centerline, the sliding surface , the first receiving surface , and the second receiving surface mutually have an intersecting positional relationship to protrude outward with respect to the centerline, a width of the sliding surface increases as approaching the centerline, and a width of each of the first receiving surface and the second receiving surface decreases as approaching the centerline.
A method for preparing oil-containing whole muscle meat-based products or reconstituted meat-based products, wherein the method comprises the steps of: i) injecting a quantity of brine (a) into meat piece(s) and ii) tumbling the injected meat piece(s) together with oil and a quantity of brine (b), wherein the quantity of brine (b) and the oil are simultaneously added into a tumbler/massager; wherein brine (a) does not contain oil. i) injecting a quantity of brine (a) into meat piece(s) and ii) tumbling the injected meat piece(s) together with oil and a quantity of brine (b), wherein the quantity of brine (b) and the oil are simultaneously added into a tumbler/massager; wherein brine (a) does not contain oil.
A method of estimating a coupling factor of a rotor of an induction motor when the induction motor is stalled, comprising: applying voltage pulses through two phase paths of the motor for a plurality of electrical cycles over a predetermined stabilization period; measuring stator voltage and stator current in response to the applied voltage pulses for each of the plurality of electrical cycles; calculating a first flux using the measured stator voltage and stator current based upon stator equations; calculating a second flux using the measured stator current based upon rotor equations; and estimating the coupling factor through the predetermined stabilization period by using the first and second fluxes, wherein the estimating the coupling factor comprises adjusting the coupling factor to minimize a difference between the first and second fluxes, wherein the coupling factor is adjusted as a parameter in the rotor equations while using the stator equations as a reference model. applying voltage pulses through two phase paths of the motor for a plurality of electrical cycles over a predetermined stabilization period; measuring stator voltage and stator current in response to the applied voltage pulses for each of the plurality of electrical cycles; calculating a first flux using the measured stator voltage and stator current based upon stator equations; calculating a second flux using the measured stator current based upon rotor equations; and estimating the coupling factor through the predetermined stabilization period by using the first and second fluxes, wherein the estimating the coupling factor comprises adjusting the coupling factor to minimize a difference between the first and second fluxes, wherein the coupling factor is adjusted as a parameter in the rotor equations while using the stator equations as a reference model.
A quantum circuit, comprising: a resonator having a plurality of superconducting surfaces and configured to support at least one electromagnetic oscillation mode within a three-dimensional region defined by walls on which are disposed the plurality of superconducting surfaces; and a physical qubit comprising a superconducting patch antenna disposed in an opening in a superconducting surface of the plurality of superconducting surfaces and connected to the superconducting surface by a Josephson junction, wherein the physical qubit is a planar qubit that is configured to produce a dipole moment that is directed perpendicular to a plane of the superconducting surface and parallel to an electric field associated with the resonator. a resonator having a plurality of superconducting surfaces and configured to support at least one electromagnetic oscillation mode within a three-dimensional region defined by walls on which are disposed the plurality of superconducting surfaces; and a physical qubit comprising a superconducting patch antenna disposed in an opening in a superconducting surface of the plurality of superconducting surfaces and connected to the superconducting surface by a Josephson junction, wherein the physical qubit is a planar qubit that is configured to produce a dipole moment that is directed perpendicular to a plane of the superconducting surface and parallel to an electric field associated with the resonator.
A method for providing a semi-worked product, wherein the semi-worked product is a long body for an inner layer material, the long body is formed without a gap by spirally winding at least one sheet of film , at least one sheet of film of the at least one sheet of film is made of at least polytetrafluoroethylene, the long body has an average thickness of 5 μm or more and 75 μm or less, the long body is provided in a state of being in contact with a mandrel , and a finished product using the semi-worked product is extracted from the mandrel . the semi-worked product is a long body for an inner layer material, the long body is formed without a gap by spirally winding at least one sheet of film , at least one sheet of film of the at least one sheet of film is made of at least polytetrafluoroethylene, the long body has an average thickness of 5 μm or more and 75 μm or less, the long body is provided in a state of being in contact with a mandrel , and a finished product using the semi-worked product is extracted from the mandrel .
A nanofiber fabrication method comprising nanofiber growth from a catalyst zone, furthermore comprising the following steps: - producing at least one micropattern on the surface of a substrate ; which pattern comprises a base, at least partially convergent side walls and an upper face; - producing a catalyst zone on the surface of said micropattern; nanofiber growth from the catalyst zone, said method furthermore comprising the steps of: - depositing a so-called "poison" layer , said so-called "poison" layer being a catalyst layer, preventing ulterior wetting, or a layer capable of annihilating the effect of a catalyst deposited later then the growth method, above said base and on the level on which no nanofiber growth catalysis effect can take place, - depositing a catalyst layer above said upper surface and above said "poison" layer on the level of said base, said "poison" layer not being present on the level of said upper face, the thickness of the "poison" layer and the thickness of the catalyst layer being such that the nanofibers cannot grow either on the side walls or on the base of the micro patterns constructed beforehand. - a dewetting operation allowing the catalyst to be formed into a droplet above said upper surface by heating the substrate comprising the micropattern covered with the catalyst layer and said "poison" layer; - a nanofiber growth operation on the surface of the catalyst-droplet, said so-called "poison"-layer being present on the level of said base. - producing at least one micropattern on the surface of a substrate ; which pattern comprises a base, at least partially convergent side walls and an upper face; - producing a catalyst zone on the surface of said micropattern; - depositing a so-called "poison" layer , said so-called "poison" layer being a catalyst layer, preventing ulterior wetting, or a layer capable of annihilating the effect of a catalyst deposited later then the growth method, above said base and on the level on which no nanofiber growth catalysis effect can take place, - depositing a catalyst layer above said upper surface and above said "poison" layer on the level of said base, said "poison" layer not being present on the level of said upper face, the thickness of the "poison" layer and the thickness of the catalyst layer being such that the nanofibers cannot grow either on the side walls or on the base of the micro patterns constructed beforehand. - a dewetting operation allowing the catalyst to be formed into a droplet above said upper surface by heating the substrate comprising the micropattern covered with the catalyst layer and said "poison" layer; - a nanofiber growth operation on the surface of the catalyst-droplet, said so-called "poison"-layer being present on the level of said base.
A method for preparing a cathode active material precursor for a secondary battery, the method comprising: moving a co-precipitation filtrate generated after a co-precipitation reaction to a co-precipitation filtrate storage tank; removing a metal hydroxide by passing the co-precipitation filtrate through a filter; reacting the co-precipitation filtrate from which the metal hydroxide is removed with sulfuric acid or nitric acid to produce an ammonium sulfate or an ammonium nitrate while removing ammonia from the co-precipitation filtrate from which the metal hydroxide is removed; cooling and crystallizing the co-precipitation filtrate from which the metal hydroxide and ammonia are removed to precipitate a sodium sulfate; filtering the precipitated sodium sulfate to separate the precipitated sodium sulfate from the co-precipitation filtrate from which the metal hydroxide and ammonia are removed; drying the sodium sulfate separated from the co-precipitation filtrate and moving the co-precipitation filtrate separated from the sodium sulfate to a circulation concentration tank; and heating the co-precipitation filtrate stored in the circulation concentration tank to a predetermined temperature for recycling and performing N 2 purging or bubbling. moving a co-precipitation filtrate generated after a co-precipitation reaction to a co-precipitation filtrate storage tank; removing a metal hydroxide by passing the co-precipitation filtrate through a filter; reacting the co-precipitation filtrate from which the metal hydroxide is removed with sulfuric acid or nitric acid to produce an ammonium sulfate or an ammonium nitrate while removing ammonia from the co-precipitation filtrate from which the metal hydroxide is removed; cooling and crystallizing the co-precipitation filtrate from which the metal hydroxide and ammonia are removed to precipitate a sodium sulfate; filtering the precipitated sodium sulfate to separate the precipitated sodium sulfate from the co-precipitation filtrate from which the metal hydroxide and ammonia are removed; drying the sodium sulfate separated from the co-precipitation filtrate and moving the co-precipitation filtrate separated from the sodium sulfate to a circulation concentration tank; and heating the co-precipitation filtrate stored in the circulation concentration tank to a predetermined temperature for recycling and performing N 2 purging or bubbling.
Apparatus for the preparation of a beverage having at least one beverage outlet nozzle for discharging the beverage into a beverage container, the apparatus comprising a cleaning structure for cleaning an exterior surface of the beverage outlet nozzle which cleaning structure is movably arranged relative to the beverage outlet nozzle, said cleaning structure moveable between an idle position allowing the beverage outlet nozzle to discharge the beverage into a beverage container and an operating position allowing cleaning of the beverage outlet nozzle, and the apparatus including a housing having at least one side wall, characterised in that the cleaning structure is movable from the idle position which is substantially within the housing, via an opening in the side wall to the operating position.
Container changing device for loading and unloading a container having a bottom surface with a ground contact means , wherein the container changing device has at least one roller , which at least temporarily supports the container or cargo carrier in the event of loading and unloading, and a carrying frame for the container or the cargo carrier, which carrying frame can be pivoted about a pivot axis and on which a telescopic carriage and/or a movable gripping arm is translationally movable, the carrying frame being connected to a coupling means for temporarily fixing the gripping arm to a retaining means of the container or the cargo carrier, wherein the container or the cargo carrier is equipped in its front region , which is in the vicinity of the retaining means , with at least one front standing foot and at its rear end region , which is remote from the retaining means , with at least one rear standing foot , and wherein each standing foot in the use position resting on the ground is equipped with a respective ground contact means , which projects at a spacing (A) from the bottom surface of the container or the cargo carrier, and wherein, in a transport position of the container or the cargo carrier resting on the transport vehicle , the at least one front standing foot is arranged at the side of the carrying frame and does not protrude beyond the side contour of the transport vehicle , characterized in that the at least one rear standing foot is rearwardly offset, with a horizontal spacing, from the vertical plane (E) of the container rear wall and can be secured in different vertical positions.
A method for wireless communications performed by a user equipment, comprising: obtaining a first configuration indicating: one or more radio link monitoring reference signal, RLM-RS, resources, wherein the one or more RLM-RS resources are configured with NR synchronization signals, NR-SS, or CSI-RS, and one or more beam failure recovery reference signal, BFR-RS, resources, wherein each RLM-RS resource corresponds to a first link, and each BFR-RS resource corresponds to a second link; obtaining a first indication that a first link quality for the first link is below a first threshold and a second link quality for the second link is above a second threshold; and taking action regarding a radio link failure, RLF, based on the indication comprising: sending a report, wherein the report indicates that the first link quality is below the first threshold, the second link quality is above the second threshold, and the BFR-RS resource corresponding to the second link; and obtaining a second configuration, wherein the second configuration indicates RLM-RS resources that include the BFR-RS resource corresponding to the second link. obtaining a first configuration indicating: one or more radio link monitoring reference signal, RLM-RS, resources, wherein the one or more RLM-RS resources are configured with NR synchronization signals, NR-SS, or CSI-RS, and one or more beam failure recovery reference signal, BFR-RS, resources, wherein each RLM-RS resource corresponds to a first link, and each BFR-RS resource corresponds to a second link; one or more radio link monitoring reference signal, RLM-RS, resources, wherein the one or more RLM-RS resources are configured with NR synchronization signals, NR-SS, or CSI-RS, and one or more beam failure recovery reference signal, BFR-RS, resources, wherein each RLM-RS resource corresponds to a first link, and each BFR-RS resource corresponds to a second link; obtaining a first indication that a first link quality for the first link is below a first threshold and a second link quality for the second link is above a second threshold; and taking action regarding a radio link failure, RLF, based on the indication comprising: sending a report, wherein the report indicates that the first link quality is below the first threshold, the second link quality is above the second threshold, and the BFR-RS resource corresponding to the second link; and obtaining a second configuration, wherein the second configuration indicates RLM-RS resources that include the BFR-RS resource corresponding to the second link. sending a report, wherein the report indicates that the first link quality is below the first threshold, the second link quality is above the second threshold, and the BFR-RS resource corresponding to the second link; and obtaining a second configuration, wherein the second configuration indicates RLM-RS resources that include the BFR-RS resource corresponding to the second link.
A visual line detection apparatus comprising: a light source configured to irradiate the right and left eyeballs of a subject with detection light; a camera configure to capture an image of the right and left eyeballs irradiated with the detection light; a position detection unit configured to detect positions of pupil centers indicating centers of pupils of right and left respective eyeballs and positions of corneal reflection centers indicating centers of corneal reflexes from the image of the right and left eyeballs irradiated with the detection light; a curvature radius calculation unit configured to calculate corneal curvature radii of the right and left respective eyeballs from a position of the light source and the positions of the corneal reflection centers; a viewpoint detection unit configured to detect viewpoints of the right and left respective eyeballs from the positions of the pupil centers and the corneal curvature radii; an extraction unit configured to extract pupil parameters indicating sizes of the pupils of the right and left respective eyeballs from the image of the eyeballs; and a correction unit configured to correct the viewpoint of the left eyeball and the viewpoint of the right eyeball on the basis of the pupil parameters so as to calculate a synthesized viewpoint. a light source configured to irradiate the right and left eyeballs of a subject with detection light; a camera configure to capture an image of the right and left eyeballs irradiated with the detection light; a position detection unit configured to detect positions of pupil centers indicating centers of pupils of right and left respective eyeballs and positions of corneal reflection centers indicating centers of corneal reflexes from the image of the right and left eyeballs irradiated with the detection light; a curvature radius calculation unit configured to calculate corneal curvature radii of the right and left respective eyeballs from a position of the light source and the positions of the corneal reflection centers; a viewpoint detection unit configured to detect viewpoints of the right and left respective eyeballs from the positions of the pupil centers and the corneal curvature radii; an extraction unit configured to extract pupil parameters indicating sizes of the pupils of the right and left respective eyeballs from the image of the eyeballs; and a correction unit configured to correct the viewpoint of the left eyeball and the viewpoint of the right eyeball on the basis of the pupil parameters so as to calculate a synthesized viewpoint.
An electronic device, comprising: a first housing forming a portion of an outside surface of the electronic device; a second housing coupled with the first housing and forming another portion of the outside surface of the electronic device; an antenna formed in at least a portion of the second housing; a connector including one or more connection pins for connection with an external device, at least a portion of an outside surface of the connector being formed of a conductive member; a first capacitor directly connected in series between at least the portion of the outside surface of the connector formed of the conductive member and an adjusting circuit; the adjusting circuit electrically connected between the first capacitor and at least one ground of the electronic device, wherein the adjusting circuit is connected directly to the at least one ground; and a processor configured to: control an impedance of the adjusting circuit based on a signal to be output through the antenna, and output the signal through the antenna, with the impedance of the adjusting circuit being varied. a first housing forming a portion of an outside surface of the electronic device; a second housing coupled with the first housing and forming another portion of the outside surface of the electronic device; an antenna formed in at least a portion of the second housing; a connector including one or more connection pins for connection with an external device, at least a portion of an outside surface of the connector being formed of a conductive member; a first capacitor directly connected in series between at least the portion of the outside surface of the connector formed of the conductive member and an adjusting circuit; the adjusting circuit electrically connected between the first capacitor and at least one ground of the electronic device, wherein the adjusting circuit is connected directly to the at least one ground; and a processor configured to: control an impedance of the adjusting circuit based on a signal to be output through the antenna, and output the signal through the antenna, with the impedance of the adjusting circuit being varied. control an impedance of the adjusting circuit based on a signal to be output through the antenna, and output the signal through the antenna, with the impedance of the adjusting circuit being varied.
A compound having a structure according to Formula V wherein: R 1 and R 2 are independently selected from the group consisting of H, a monosaccharide, a disaccharide, a trisaccharide, and a polysaccharide, wherein each of the monosaccharide, disaccharide, trisaccharide or polysaccharide is bound at an anomeric carbon; and n is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13 or 14. R 1 and R 2 are independently selected from the group consisting of H, a monosaccharide, a disaccharide, a trisaccharide, and a polysaccharide, wherein each of the monosaccharide, disaccharide, trisaccharide or polysaccharide is bound at an anomeric carbon; and n is 0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13 or 14.