mhurhangee/ep-ind-claims huggingface dataset:
A system for magnetic spin control on an amusement ride, the system comprising: a track (302, 400) for supporting and guiding a track-mounted vehicle, the track comprising one or more track-mounted fins positioned to control rotation of a passenger chassis of the track-mounted vehicle; and a track-mounted vehicle comprising, a main chassis configured to ride on the track; a passenger chassis rotatably supported on the main chassis, the passenger chassis configured to support one or more passengers; a circular magnetic array coupled to the passenger chassis, the circular magnetic array comprising opposing magnets defining a gap and generating a magnetic field in the gap, wherein the gap is configured to selectively receive one or more fins (306, 312) to induce or inhibit rotation of the passenger chassis; and a chassis-mounted fin coupled to the main chassis and extending into the gap of the circular magnetic array, the chassis-mounted fin configured to dampen rotation of the passenger chassis with respect to the main chassis; wherein the circular magnetic array is configured to receive a track-mounted fin within the magnetic field to induce rotation of the passenger chassis with respect to the main chassis. a track (302, 400) for supporting and guiding a track-mounted vehicle, the track comprising one or more track-mounted fins positioned to control rotation of a passenger chassis of the track-mounted vehicle; and a track-mounted vehicle comprising, a main chassis configured to ride on the track; a passenger chassis rotatably supported on the main chassis, the passenger chassis configured to support one or more passengers; a circular magnetic array coupled to the passenger chassis, the circular magnetic array comprising opposing magnets defining a gap and generating a magnetic field in the gap, wherein the gap is configured to selectively receive one or more fins (306, 312) to induce or inhibit rotation of the passenger chassis; and a chassis-mounted fin coupled to the main chassis and extending into the gap of the circular magnetic array, the chassis-mounted fin configured to dampen rotation of the passenger chassis with respect to the main chassis; a main chassis configured to ride on the track; a passenger chassis rotatably supported on the main chassis, the passenger chassis configured to support one or more passengers; a circular magnetic array coupled to the passenger chassis, the circular magnetic array comprising opposing magnets defining a gap and generating a magnetic field in the gap, wherein the gap is configured to selectively receive one or more fins (306, 312) to induce or inhibit rotation of the passenger chassis; and a chassis-mounted fin coupled to the main chassis and extending into the gap of the circular magnetic array, the chassis-mounted fin configured to dampen rotation of the passenger chassis with respect to the main chassis; wherein the circular magnetic array is configured to receive a track-mounted fin within the magnetic field to induce rotation of the passenger chassis with respect to the main chassis.
An antenna for receiving data from low Earth orbit satellites, the antenna comprising: a fixedly mounted antenna reflector, a moveable feed, a feed positioner configured to move the feed in the focal plane of the antenna reflector, the feed positioner having a primary rotation axis and an auxiliary rotation axis, and a control device configured to send control signals to the feed positioner, the feed positioner comprises a first arm and a second arm, the feed is connected to an end of the second arm, and the first arm and the second arm are connected to each other at the auxiliary rotation axis and are adapted to be rotated with respect to each other, and wherein the first arm is connected at one its end to the primary rotation axis and is adapted to be rotated around the primary rotation axis, characterized in that the primary rotation axis of the feed positioner passes through a center of the antenna reflector and the primary rotation axis is perpendicular to the focal plane of the antenna reflector, the auxiliary rotation axis of the feed positioner is parallel to the primary rotation axis, the first and second arms, form an equal-arm structure, each arm being arranged in a plane perpendicular to the primary and auxiliary rotation axes,, wherein the diameter of the antenna reflector is at least 1.5 m, and the focal length of the antenna reflector is at least 1.0 m. a fixedly mounted antenna reflector, a moveable feed, a feed positioner configured to move the feed in the focal plane of the antenna reflector, the feed positioner having a primary rotation axis and an auxiliary rotation axis, and a control device configured to send control signals to the feed positioner, the feed positioner comprises a first arm and a second arm, the feed is connected to an end of the second arm, and the first arm and the second arm are connected to each other at the auxiliary rotation axis and are adapted to be rotated with respect to each other, and wherein the first arm is connected at one its end to the primary rotation axis and is adapted to be rotated around the primary rotation axis, characterized in that the primary rotation axis of the feed positioner passes through a center of the antenna reflector and the primary rotation axis is perpendicular to the focal plane of the antenna reflector, the auxiliary rotation axis of the feed positioner is parallel to the primary rotation axis, the first and second arms, form an equal-arm structure, each arm being arranged in a plane perpendicular to the primary and auxiliary rotation axes,, wherein the diameter of the antenna reflector is at least 1.5 m, and the focal length of the antenna reflector is at least 1.0 m.
A method of treating a microbial contaminant, exclusive of in vivo human or animal use, comprising contacting a microbe with one or more reaction products derived from a silver iodate or a silver periodate wherein the reaction product is Ag 5 IO 6.
An image registration method for a terminal, wherein the terminal comprises a first camera and a second camera recording a scene, and the first camera and the second camera are disposed side by side and work simultaneously; and the method comprises: obtaining a first video sequence photographed by the first camera and a second video sequence photographed by the second camera, wherein the first video sequence and the second video sequence record the same scene, wherein at a first moment a first image in the first video sequence and a second image in the second video sequence are photographed and at a second moment a third image in the first video sequence and a fourth image in the second video sequence are photographed, wherein the second moment is preceding the first moment; determining the third image, and the fourth image and a first motion vector V, wherein the first motion vector V is a motion vector of the third image relative to the fourth image; performing image registration processing on the first image and the third image to obtain a second motion vector U of the first image relative to the third image; obtaining a third motion vector W of the fourth image relative to the second image; and obtaining a registration result according to the first motion vector V, the second motion vector U, and the third motion vector W, wherein the registration result comprises a correspondence between each pixel in the first image and each pixel in the second image. obtaining a first video sequence photographed by the first camera and a second video sequence photographed by the second camera, wherein the first video sequence and the second video sequence record the same scene, wherein at a first moment a first image in the first video sequence and a second image in the second video sequence are photographed and at a second moment a third image in the first video sequence and a fourth image in the second video sequence are photographed, wherein the second moment is preceding the first moment; determining the third image, and the fourth image and a first motion vector V, wherein the first motion vector V is a motion vector of the third image relative to the fourth image; performing image registration processing on the first image and the third image to obtain a second motion vector U of the first image relative to the third image; obtaining a third motion vector W of the fourth image relative to the second image; and obtaining a registration result according to the first motion vector V, the second motion vector U, and the third motion vector W, wherein the registration result comprises a correspondence between each pixel in the first image and each pixel in the second image.
A detector assembly, comprising: a board; a temperature response element; and a support coupled to the board to support the temperature response element, wherein the support includes: an elongate member having first and second opposing ends (51, 52) and being coupled to the board at the first end, guides through which temperature response element leads are threadable, and characterized in that the support further includes: a saddle disposed at the elongate member second end to inhibit displacement of the temperature response element. a board; a temperature response element; and a support coupled to the board to support the temperature response element, wherein the support includes: an elongate member having first and second opposing ends (51, 52) and being coupled to the board at the first end, guides through which temperature response element leads are threadable, and characterized in that the support further includes: a saddle disposed at the elongate member second end to inhibit displacement of the temperature response element. an elongate member having first and second opposing ends (51, 52) and being coupled to the board at the first end, guides through which temperature response element leads are threadable, and characterized in that the support further includes: a saddle disposed at the elongate member second end to inhibit displacement of the temperature response element.
An apparatus comprising a measuring unit for performing through-transmission alveolar ultrasonography for locating cavitations in a jawbone, wherein the measuring unit comprises an ultrasonic transducer and a round ultrasonic receiver, the apparatus being configured to define the geometric position of the ultrasonic transducer and the ultrasonic receiver with respect to each other, wherein the ultrasonic transducer is coupled to an arm and the ultrasonic receiver of the measuring unit is coupled to another arm, wherein the arms (5, 6) are connected to each other by a connecting element, and wherein at least one of the arms is pivotably coupled with the connecting element.
A method for wireless communication, the method comprising: if a Bluetooth synchronous connection oriented, SCO, link is present between a first and a second Bluetooth device (100, 110, 120, 210), employing via said first Bluetooth device (100, 110, 120, 210) a coexistence method with a collocated WLAN device to allow WLAN transmission when said Bluetooth SCO link is not used, and if a high priority non-SCO task, which does not comprise transfer of SCO packet, is being handled by said first Bluetooth device (100, 110, 120, 210), communicating a low priority via said coexistence method prior to said first Bluetooth device (100, 110, 120, 210) executing said non-SCO task; characterized by if said Bluetooth SCO link is active, lowering via said first Bluetooth device (100, 110, 120, 210) the priority of said non-SCO tasks, and indicating via handshaking circuitry (210a, 211, 212a) a low priority to the collocated WLAN device to allow the collocated WLAN device to transmit before executing the non-SCO task by the first Bluetooth device (100, 110, 120, 210).
A backlight unit without any light guide plate comprising: a light source unit comprising a light source printed circuit board mounted in an edge type, a light source portion mounted on the light source printed circuit board and a bar-type light-collecting lens configured to reduce a directing angle of light, which is incident from the light source portion, and to collect the light; a cover bottom arranged to support a rear surface of a display panel; a reflecting plate mounted on an inner surface of the cover bottom, the reflecting plate having a flat surface, which is parallel with the display panel, and a sloping surface, which slopes with regard to the flat surface; a diffuser plate arranged to be spaced from the reflecting plate in parallel with the display panel; characterized in that a first light-absorbing pattern is arranged on a surface of the reflecting plate, wherein an area of the first light-absorbing pattern is limited to an area of the flat surface of the reflecting plate and a second light-absorbing pattern is arranged on a surface of the diffuser plate, wherein an area of arrangement of the second light-absorbing pattern includes and extends beyond a flat area of the diffuser plate, to which the flat surface of the reflecting plate is projected, and wherein the cover bottom is a wedge-type support structure having a bent portion formed on a side surface thereof so as to have a U-shaped section. a light source unit comprising a light source printed circuit board mounted in an edge type, a light source portion mounted on the light source printed circuit board and a bar-type light-collecting lens configured to reduce a directing angle of light, which is incident from the light source portion, and to collect the light; a cover bottom arranged to support a rear surface of a display panel; a reflecting plate mounted on an inner surface of the cover bottom, the reflecting plate having a flat surface, which is parallel with the display panel, and a sloping surface, which slopes with regard to the flat surface; a diffuser plate arranged to be spaced from the reflecting plate in parallel with the display panel; characterized in that a first light-absorbing pattern is arranged on a surface of the reflecting plate, wherein an area of the first light-absorbing pattern is limited to an area of the flat surface of the reflecting plate and a second light-absorbing pattern is arranged on a surface of the diffuser plate, wherein an area of arrangement of the second light-absorbing pattern includes and extends beyond a flat area of the diffuser plate, to which the flat surface of the reflecting plate is projected, and wherein the cover bottom is a wedge-type support structure having a bent portion formed on a side surface thereof so as to have a U-shaped section.
A two-stroke internal combustion engine comprising an engine housing comprising a crankcase in which a crankshaft is connected to a piston moving in a cylinder, an exhaust port leading from the cylinder space and opening at the level of the lower dead center of the crankshaft, said exhaust port is configured to be closed by a piston when the crankshaft is in its top dead center position, characterized in that it further comprises a rotary disk with an opening or recess on a part of its circumference, or with a protrusion on a part of its circumference, said rotary disk extending with its circumference into the exhaust port such that the exhaust port is completely closable by the rotary disk.
A method in a first network node for connecting nodes in a communications network, the method comprising: receiving (202, 203, 302), from at least one Radio Access Network, RAN, node (101 a, 101b), information indicating the at least one RAN node (101 a, 101b) and at least one communications resource which the at least one RAN node (101 a, 101b) is responsible for; receiving (204, 303), from a second network node (101 b, 115), a request for information indicating a serving RAN node (101 a) which serves a communications resource, which communications resource served by the serving RAN node (101 a) is one of the at least one communications resource which the received information indicates; identifying (205, 304) the serving RAN node based on the received information and the received request; and establishing (207, 306) a connection between the identified serving RAN node and the second network node (101b, 115), enabling the serving RAN node and the second network node (101b, 115) to communicate with each other. receiving (202, 203, 302), from at least one Radio Access Network, RAN, node (101 a, 101b), information indicating the at least one RAN node (101 a, 101b) and at least one communications resource which the at least one RAN node (101 a, 101b) is responsible for; receiving (204, 303), from a second network node (101 b, 115), a request for information indicating a serving RAN node (101 a) which serves a communications resource, which communications resource served by the serving RAN node (101 a) is one of the at least one communications resource which the received information indicates; identifying (205, 304) the serving RAN node based on the received information and the received request; and establishing (207, 306) a connection between the identified serving RAN node and the second network node (101b, 115), enabling the serving RAN node and the second network node (101b, 115) to communicate with each other.
Item of clothing, in particular a jacket for sports activities, which is provided with ventilation openings in the chest region and/or on the back, wherein the ventilation openings each have means for closing which are actuable via an adjustment mechanism, and wherein the ventilation openings are provided with a covering on the inner side of the item of clothing, - that the ventilation opening is covered by a structure which is fastened to the periphery of the ventilation opening and is provided with a peripheral rim, - that the means for closing is formed by a fabric layer which is arranged between the structure and the covering, characterized in that the means for closing is displaceable within that region of the ventilation opening that is surrounded by the rim. - that the ventilation opening is covered by a structure which is fastened to the periphery of the ventilation opening and is provided with a peripheral rim, - that the means for closing is formed by a fabric layer which is arranged between the structure and the covering,
An electrical connection terminal comprising: • a metal body that defines at least one reception slot (20, 30) that is shaped so as to receive an electrical conductor (320, 330) in a positioning location that corresponds to the theoretical location for receiving the electrical conductor, oriented along a positioning axis (A1, A2); and • a connection lever that is movably mounted to tilt relative to the metal body about a tilt axis that extends substantially orthogonally to the positioning axis (A1, A2), and that carries docking means (45, 46) adapted to exert pressure on the electrical conductor (320, 330) so as to connect it to said metal body; the electrical connection terminal being characterized in that the entire length of the reception slot (20, 30) extends above the tilt axis of the connection lever so that the positioning location of the electrical conductor (320, 330) extends above the tilt axis, regardless of the degree to which the electrical conductor (320, 330) is pushed into the reception slot (20, 30). • a metal body that defines at least one reception slot (20, 30) that is shaped so as to receive an electrical conductor (320, 330) in a positioning location that corresponds to the theoretical location for receiving the electrical conductor, oriented along a positioning axis (A1, A2); and • a connection lever that is movably mounted to tilt relative to the metal body about a tilt axis that extends substantially orthogonally to the positioning axis (A1, A2), and that carries docking means (45, 46) adapted to exert pressure on the electrical conductor (320, 330) so as to connect it to said metal body;
A method of manufacturing an acousto-magnetic anti-theft soft label comprising the steps of: forming a housing to define a resonating cavity, said housing having an upper surface; creating a concave and/or convex structure into said upper surface; inserting a resonator and a bias into said resonating cavity where an amorphous alloy is used as the resonator and semi-hard or soft magnetic materials as the bias in order to be deactivated and re-activated repeatedly; and placing a cover onto said housing to close said resonating cavity with said resonator and bias enclosed within said resonating cavity, wherein said creating step creates a concave and/or convex patterns or words on said upper surface, characterized in that said forming step and said creating step is accomplished simultaneously by using a hot works forming process. having an upper surface; creating a concave and/or convex structure into said upper surface; inserting a resonator and a bias into said resonating cavity where an amorphous alloy is used as the resonator and semi-hard or soft magnetic materials as the bias in order to be deactivated and re-activated repeatedly; and placing a cover onto said housing to close said resonating cavity creating a concave and/or convex structure into said upper surface; inserting a resonator and a bias into said resonating cavity where an amorphous alloy is used as the resonator and semi-hard or soft magnetic materials as the bias in order to be deactivated and re-activated repeatedly; and placing a cover onto said housing to close said resonating cavity with said resonator and bias enclosed within said resonating cavity, wherein said creating step creates a concave and/or convex patterns or words on said upper surface, characterized in that said forming step and said creating step is accomplished simultaneously by using a hot works forming process.
A method for the continuous production of polydienes, comprising: (a) charging a mixture of one or more monomer, catalyst system, and less than 20 weight percent organic solvent based on the total weight of the monomer, catalyst and solvent, into a first vessel; (b) polymerizing the monomer to a conversion of up to 20% by weight of the monomer to form a mixture of reactive polymer and monomer; (c) removing the mixture of reactive polymer and monomer from the vessel; and (d) terminating the reactive polymer prior to a total monomer conversion of 25% by weight. (a) charging a mixture of one or more monomer, catalyst system, and less than 20 weight percent organic solvent based on the total weight of the monomer, catalyst and solvent, into a first vessel; (b) polymerizing the monomer to a conversion of up to 20% by weight of the monomer to form a mixture of reactive polymer and monomer; (c) removing the mixture of reactive polymer and monomer from the vessel; and (d) terminating the reactive polymer prior to a total monomer conversion of 25% by weight.