mhurhangee/ep-ind-claims huggingface dataset:
An electronic device including a first housing, a second housing, and an opening and closing device for opening and closing the second housing with respect to the first housing between a closed position and an opened position, wherein the opening and closing device comprises: a stand (11L, 11R) that is disposed in the first housing; a base plate that is pivotably borne by the stand (11L, 11R); a movable plate that is disposed in the second housing and that is movably disposed in the base plate, wherein the movable plate is configured to move between a first position where the movable plate overlaps with the base plate and a second position where the movable plate protrudes from the base plate; a bias unit configured to bias the movable plate to the base plate in a direction from the first position to the second position; characterized by: a movement restriction system that is formed of a first member and a second member, wherein during a state in which the base plate is at the closed position, the movement restriction system is configured to restrict, by locking between the first member and the second member, movement of the base plate with respect to the stand (11L, 11R) and movement of the movable plate with respect to the base plate; and a movement bias system (63, 70) configured to bias, during movement of the base plate from the opened position to the closed position, the movable plate to move from the second position toward the first position in accordance with the movement, wherein the first member is integrally formed with one of the first housing and the second housing. a stand (11L, 11R) that is disposed in the first housing; a base plate that is pivotably borne by the stand (11L, 11R); a movable plate that is disposed in the second housing and that is movably disposed in the base plate, wherein the movable plate is configured to move between a first position where the movable plate overlaps with the base plate and a second position where the movable plate protrudes from the base plate; a bias unit configured to bias the movable plate to the base plate in a direction from the first position to the second position; a movement restriction system that is formed of a first member and a second member, wherein during a state in which the base plate is at the closed position, the movement restriction system is configured to restrict, by locking between the first member and the second member, movement of the base plate with respect to the stand (11L, 11R) and movement of the movable plate with respect to the base plate; and a movement bias system (63, 70) configured to bias, during movement of the base plate from the opened position to the closed position, the movable plate to move from the second position toward the first position in accordance with the movement, wherein the first member is integrally formed with one of the first housing and the second housing.
A medical suction tool, comprising: a hollow first tube, which is coupled to a suction apparatus and is configured to remove material away from a Eustachian tube of a patient; a hollow second tube, disposed around the first tube, and configured to seal the Eustachian tube by coupling an outer surface of the second tube to an inner surface of the Eustachian tube; and a strengthening element, which extends along at least part of the second tube and is coupled to the at least part of the second tube, and configured to mechanically strengthen the at least part of the second tube. a hollow first tube, which is coupled to a suction apparatus and is configured to remove material away from a Eustachian tube of a patient; a hollow second tube, disposed around the first tube, and configured to seal the Eustachian tube by coupling an outer surface of the second tube to an inner surface of the Eustachian tube; and a strengthening element, which extends along at least part of the second tube and is coupled to the at least part of the second tube, and configured to mechanically strengthen the at least part of the second tube.
A sulfuration resistant chip resistor comprising: an insulating substrate having a top surface and an opposite bottom surface; a first and a second top terminal electrode disposed on the top surface of the insulating substrate, each of the first and second top terminal electrodes comprising silver and being susceptible to sulfuration; a resistive element disposed on the top surface of the insulating substrate, the resistive element being positioned between and electrically connecting the first and the second top terminal electrodes, wherein a first end of the resistive element overlays the first top terminal electrode and a second end of the resistive element overlays the second top terminal electrode; an external protective layer comprising a dielectric material overlaying the resistive element and in contact with the first top terminal electrode and the second top terminal electrode; metalized edges on the external protective layer to thereby allow for plating; a nickel layer plated to the first and second top terminal electrodes and the metalized edges on the external protective layer; wherein the nickel layer overlaps the first and second top terminal electrodes and the external protective layer, sealing the first and the second top terminal electrodes and protecting the first and the second top terminal electrodes from sulfuration. an insulating substrate having a top surface and an opposite bottom surface; a first and a second top terminal electrode disposed on the top surface of the insulating substrate, each of the first and second top terminal electrodes comprising silver and being susceptible to sulfuration; a resistive element disposed on the top surface of the insulating substrate, the resistive element being positioned between and electrically connecting the first and the second top terminal electrodes, wherein a first end of the resistive element overlays the first top terminal electrode and a second end of the resistive element overlays the second top terminal electrode; an external protective layer comprising a dielectric material overlaying the resistive element and in contact with the first top terminal electrode and the second top terminal electrode; metalized edges on the external protective layer to thereby allow for plating; a nickel layer plated to the first and second top terminal electrodes and the metalized edges on the external protective layer; wherein the nickel layer overlaps the first and second top terminal electrodes and the external protective layer, sealing the first and the second top terminal electrodes and protecting the first and the second top terminal electrodes from sulfuration.
A method for checking a flat security document or a flat security document semi-finished product as a flat test object (10; 300), wherein a measuring unit (130, 140) arranged on a flat carrier material which is at least partially configured to be flexible, detects a check parameter of the test object (10; 300) in contactless manner, characterized in that the measuring unit (130, 140) is held at a distance (d) to the test object (10; 300) and/or is held spaced apart from a surface of the test object (10; 300) by means of an air stream flowing parallel to the surface the test object (10; 300) and that the air stream flowing parallel to the surface of the test object (10; 300) is produced in a method step.
A method of decelerating a turbine rotor of a turbine engine, wherein at least one electric motor is engaged with the turbine rotor, wherein a braking system is engaged with the at least one electric motor so as to use the at least one electric motor to apply a negative torque on the turbine rotor, characterized in that, after flame off, the braking system is used for dissipating kinetic energy available in the turbine engine after flame off by means of the at least one electric motor.
A method of controlling a molecular weight distribution of a product of an addition polymerization reaction comprising the steps of: a) initiating the addition polymerization reaction at an initiation time; and b) adding at least one reaction component to the reaction during at least one reaction time after the initiation time; wherein the reaction component is selected from the group consisting of: a) at least one catalyst; b) at least one co-catalyst; c) at least one reversible chain transfer agent; and d) any combination of a), b), and c); wherein the product of the addition polymerization reaction is a polycarbonate, wherein the addition polymerization is a co-polymerization of carbon dioxide and an epoxide, and wherein the reaction component is added continuously to the reaction at a rate of continuous addition and after the initiation of the reaction. a) initiating the addition polymerization reaction at an initiation time; and b) adding at least one reaction component to the reaction during at least one reaction time after the initiation time; wherein the reaction component is selected from the group consisting of: a) at least one catalyst; b) at least one co-catalyst; c) at least one reversible chain transfer agent; and d) any combination of a), b), and c); a) at least one catalyst; b) at least one co-catalyst; c) at least one reversible chain transfer agent; and d) any combination of a), b), and c);
An injection molding device for molding a part having a nonuniform thickness, the injection molding device comprising: one or more side walls (104, 106); a first mold surface intersecting the one or more side walls (104, 106) and being stationary with respect to the one or more side walls (104,106); and a second mold surface intersecting the one or more side walls (104, 106) so as to define with the one or more side walls (104, 106) and the first mold surface, a cavity configured to receive a metered amount of injected molten thermoplastic material, the second mold surface being moveable toward the first mold surface in such a manner that a first end of the second mold surface moves a larger physical travel distance toward the first mold surface than does a second end of the second mold surface when molding the thermoplastic material, wherein the second mold surface is configured to be linearly moved toward the first mold surface for a portion of a travel path relative to the first mold surface; a hinge coupling the second end of the second mold surface to one of the side walls (104, 106), the hinge allowing the second mold surface to rotate about an axis at the second end of the second mold surface at the hinge, characterized in said hinge being adapted to move linearly toward the first mold surface; and one or more heaters are provided for heating the one or more side walls, the first mold surface, and/or the second mold surface. one or more side walls (104, 106); a first mold surface intersecting the one or more side walls (104, 106) and being stationary with respect to the one or more side walls (104,106); and a second mold surface intersecting the one or more side walls (104, 106) so as to define with the one or more side walls (104, 106) and the first mold surface, a cavity configured to receive a metered amount of injected molten thermoplastic material, the second mold surface being moveable toward the first mold surface in such a manner that a first end of the second mold surface moves a larger physical travel distance toward the first mold surface than does a second end of the second mold surface when molding the thermoplastic material, wherein the second mold surface is configured to be linearly moved toward the first mold surface for a portion of a travel path relative to the first mold surface; a hinge coupling the second end of the second mold surface to one of the side walls (104, 106), the hinge allowing the second mold surface to rotate about an axis at the second end of the second mold surface at the hinge, characterized in said hinge being adapted to move linearly toward the first mold surface; and one or more heaters are provided for heating the one or more side walls, the first mold surface, and/or the second mold surface.
A vascular stenosis model (1, 11, 21, 31, 41, 51, 61) comprising: a stenosis region model; and a holding die including at least one groove (2, 12, 22, 32) that enables the stenosis region model to be held, and the holding die includes a first member (1A, 11A, 21A, 31A, 41A, 51A, 61A) and a second member (1B, 11B, 21B, 31B, 41B, 51B, 61B) that are separable from each other, characterized in that; the holding die is transparent, and in vertical sectional view of the holding die, the at least one groove of the holding die is positioned at either an upper side or a lower side of a boundary between the first member (1A, 11A, 21A, 31A, 41A, 51A, 61A) and the second member (1B, 11B, 21B, 31B, 41B, 51B, 61B). a stenosis region model; and a holding die including at least one groove (2, 12, 22, 32) that enables the stenosis region model to be held, and the holding die includes a first member (1A, 11A, 21A, 31A, 41A, 51A, 61A) and a second member (1B, 11B, 21B, 31B, 41B, 51B, 61B) that are separable from each other, characterized in that; the holding die is transparent, and in vertical sectional view of the holding die, the at least one groove of the holding die is positioned at either an upper side or a lower side of a boundary between the first member (1A, 11A, 21A, 31A, 41A, 51A, 61A) and the second member (1B, 11B, 21B, 31B, 41B, 51B, 61B).
A method comprising: storing a plurality of video data streams in a data repository; storing respective asynchronous streams of metadata of each of the plurality of video data streams in the data repository; receiving user input identifying a first object captured by at least one of the plurality of video data streams; using the respective asynchronous streams of metadata of each of the plurality of video data streams to identify correlations and interactions between the first object and a plurality of other objects within the plurality of video data streams over time; using the identified correlations and interactions between the first object and a plurality of other objects to replicate a story of an incident; wherein replicating the story of the incident includes generating a storyboard using the respective asynchronous streams of metadata of each of the plurality of video data streams, and wherein the storyboard summarizes the correlations and the interactions between the first object and the plurality of other objects; and wherein the storyboard orders the plurality of video data streams to present a logical or chronological view of the story of the first object irrespective of an order of the plurality of video data streams in the data repository. storing a plurality of video data streams in a data repository; storing respective asynchronous streams of metadata of each of the plurality of video data streams in the data repository; receiving user input identifying a first object captured by at least one of the plurality of video data streams; using the respective asynchronous streams of metadata of each of the plurality of video data streams to identify correlations and interactions between the first object and a plurality of other objects within the plurality of video data streams over time; using the identified correlations and interactions between the first object and a plurality of other objects to replicate a story of an incident; wherein replicating the story of the incident includes generating a storyboard using the respective asynchronous streams of metadata of each of the plurality of video data streams, and wherein the storyboard summarizes the correlations and the interactions between the first object and the plurality of other objects; and wherein the storyboard orders the plurality of video data streams to present a logical or chronological view of the story of the first object irrespective of an order of the plurality of video data streams in the data repository.
An image forming apparatus comprising: a second-image adjustment value calculator configured to detect a position at which a first image is formed on a first face of a recording medium between an instant when the first image is formed on the first face of the recording medium and an instant when a second image is formed on a second face of the recording medium, and calculate a first adjustment value used to adjust a position at which the second image is formed on the second face of the recording medium, based on the detected position at which the first image is formed on the first face of the recording medium; and a corrective-value calculator configured to adjust the position at which the second image is formed on the second face of the recording medium, based on the first adjustment value; characterized in that the corrective-value calculator is further configured to detect the adjusted position at which the second image is formed on the second face of the recording medium, and to calculate a corrective value used to modify the first adjustment value, based on the detected position at which the second image is formed on the second face of the recording medium. a second-image adjustment value calculator configured to detect a position at which a first image is formed on a first face of a recording medium between an instant when the first image is formed on the first face of the recording medium and an instant when a second image is formed on a second face of the recording medium, and calculate a first adjustment value used to adjust a position at which the second image is formed on the second face of the recording medium, based on the detected position at which the first image is formed on the first face of the recording medium; and a corrective-value calculator configured to adjust the position at which the second image is formed on the second face of the recording medium, based on the first adjustment value; characterized in that the corrective-value calculator is further configured to detect the adjusted position at which the second image is formed on the second face of the recording medium, and to calculate a corrective value used to modify the first adjustment value, based on the detected position at which the second image is formed on the second face of the recording medium.
A method performed by a receiving node to reserve a directional channel, the method comprising: • receiving a directional Request-to-Send (DRTS) message from a transmitting node; • transmitting a directional Clear-to-Send (DCTS) message using one or more first beams, with at least one first beam being directed in a first direction towards the transmitting node; • determining a second direction towards a potentially interfering node, the second direction being a different direction than the first direction; • transmitting at least one additional DCTS message using one or more second beams, with at least one second beam being directed in the second direction towards the potentially interfering node; • receiving data from the transmitting node; and characterised in that • in between receiving the data from the transmitting node, periodically transmitting subsequent one or more additional DCTS messages in at least the second direction within a maximum channel occupancy time (MCOT). • receiving a directional Request-to-Send (DRTS) message from a transmitting node; • transmitting a directional Clear-to-Send (DCTS) message using one or more first beams, with at least one first beam being directed in a first direction towards the transmitting node; • determining a second direction towards a potentially interfering node, the second direction being a different direction than the first direction; • transmitting at least one additional DCTS message using one or more second beams, with at least one second beam being directed in the second direction towards the potentially interfering node; • receiving data from the transmitting node; and characterised in that • in between receiving the data from the transmitting node, periodically transmitting subsequent one or more additional DCTS messages in at least the second direction within a maximum channel occupancy time (MCOT).
A method for detecting icing on a surface of an aircraft having wings and an electro-thermal source located at least in each wing, the method comprising: receiving a determination that icing has occurred by a first icing detection system; wherein the first icing detection system comprises an electro-thermal-based-algorithm using a thermodynamic model of a system surrounding the aircraft wings and the electro-thermal sources; wherein the first icing detection system detects icing by a method comprising: heating a surface of the aircraft; after the heating has stopped, measuring the temperature of the surface as it cools; and determining if icing has occurred on the surface in dependence on the measured temperature; wherein the determination if icing has occurred on the surface comprises: calculating a residual in dependence on measured temperatures and reference temperatures; and determining that icing has occurred if the residual is substantially nonzero; and wherein the electro-thermal source is used to heat the surface of the aircraft; receiving a determination that icing has occurred by a second icing detection system, wherein the second icing detection system uses a different technique to detect icing than the first icing detection system, and wherein the second icing detection system detects icing in dependence on a mathematical model of the aircraft that is an aerodynamic model for detecting structural or aerodynamic faults which are an indication that icing has formed; and determining if icing has occurred in dependence on the determinations received from both the first and the second icing detection systems. heating a surface of the aircraft; after the heating has stopped, measuring the temperature of the surface as it cools; and determining if icing has occurred on the surface in dependence on the measured temperature; wherein the determination if icing has occurred on the surface comprises: calculating a residual in dependence on measured temperatures and reference temperatures; and determining that icing has occurred if the residual is substantially nonzero; and wherein the electro-thermal source is used to heat the surface of the aircraft; receiving a determination that icing has occurred by a second icing detection system, wherein the second icing detection system uses a different technique to detect icing than the first icing detection system, and wherein the second icing detection system detects icing in dependence on a mathematical model of the aircraft that is an aerodynamic model for detecting structural or aerodynamic faults which are an indication that icing has formed; and determining if icing has occurred in dependence on the determinations received from both the first and the second icing detection systems.
A method for measuring cholesterol in low-density lipoprotein contained in a sample, which comprises reacting the sample with (i) a combination of cholesterol ester hydrolase and cholesterol oxidase or (ii) a combination of cholesterol ester hydrolase, an oxidized coenzyme and cholesterol dehydrogenase in the presence of: [a] a polyoxyethylene-polyoxyalkylene alkylaryl ether; [b] one or more surfactants selected from the group consisting of a polyoxyethylene-polyoxyalkylene copolymer, a polyoxyethylene alkenyl ether, a polyoxyethylene branched alkyl ether, and a polyoxyethylene-polyoxyalkylene branched alkyl ether; [c] one or more surfactants selected from the group consisting of a primary amine, a secondary amine, a tertiary amine, and a quaternary ammonium; and [d] a polyanion, and measuring a substance formed or consumed in the reaction. [a] a polyoxyethylene-polyoxyalkylene alkylaryl ether; [b] one or more surfactants selected from the group consisting of a polyoxyethylene-polyoxyalkylene copolymer, a polyoxyethylene alkenyl ether, a polyoxyethylene branched alkyl ether, and a polyoxyethylene-polyoxyalkylene branched alkyl ether; [c] one or more surfactants selected from the group consisting of a primary amine, a secondary amine, a tertiary amine, and a quaternary ammonium; and [d] a polyanion, and