mhurhangee/ep-ind-claims huggingface dataset:
Conveying device for conveying conveyed goods, wherein the conveying device has a first conveying section which has movable first conveying means, the conveyed goods being capable of being placed on said first conveying means and being capable of being conveyed along a first conveying direction, wherein a second conveying section which has movable second conveying means is provided, the conveyed goods being capable of being placed on said second conveying means and being capable of being conveyed along a second conveying direction, wherein an end of the second conveying section is laterally contiguous to the first conveying section, wherein the first and the second conveying direction (21; 31) run so as to be mutually transverse, wherein a movable turnout blade by way of which the conveyed goods are divertible between the first and the second conveying section (20; 30) is provided, wherein a first pivot bearing which is capable of being brought to engage with the turnout blade in such a manner that the turnout blade is rotatable in relation to a first rotation axis is provided, characterized in that a second pivot bearing which is capable of being brought to engage with the turnout blade in such a manner that the turnout blade is rotatable in relation to a second rotation axis that is different from the first rotation axis is provided, wherein the engagement between the first pivot bearing and the turnout blade is activatable and deactivatable, wherein the engagement between the second pivot bearing and the turnout blade is activatable and deactivatable.
An electronic device, comprising: a body; a circuit board; and an antenna device configured to transceive a radio signal, wherein the antenna device is mounted to the body and comprises first and second antenna units (201, 202), wherein each of the first and second antenna units (201, 202) comprises: a dielectric substance; an antenna chip disposed at the circuit board; and a pair of feeding portions configured to connect the antenna chip with the dielectric substance, wherein a gap is defined between the dielectric substance and the circuit board, characterized in that the dielectric substance comprises a fixed portion coupled to the circuit board, and recessed portions formed such that that the fixed portion is interposed therebetween, wherein the circuit board comprises a circuit board recessed portion at a region adjacent to an edge of the dielectric substance, and wherein the gap is formed between the circuit board recessed portion and the dielectric substance. a body; a circuit board; and an antenna device configured to transceive a radio signal, wherein the antenna device is mounted to the body and comprises first and second antenna units (201, 202), wherein each of the first and second antenna units (201, 202) comprises: a dielectric substance; an antenna chip disposed at the circuit board; and a pair of feeding portions configured to connect the antenna chip with the dielectric substance, wherein a gap is defined between the dielectric substance and the circuit board, characterized in that the dielectric substance comprises a fixed portion coupled to the circuit board, and recessed portions formed such that that the fixed portion is interposed therebetween, wherein the circuit board comprises a circuit board recessed portion at a region adjacent to an edge of the dielectric substance, and wherein the gap is formed between the circuit board recessed portion and the dielectric substance. a dielectric substance; an antenna chip disposed at the circuit board; and a pair of feeding portions configured to connect the antenna chip with the dielectric substance, wherein a gap is defined between the dielectric substance and the circuit board, characterized in that the dielectric substance comprises a fixed portion coupled to the circuit board, and recessed portions formed such that that the fixed portion is interposed therebetween, wherein the circuit board comprises a circuit board recessed portion at a region adjacent to an edge of the dielectric substance, and wherein the gap is formed between the circuit board recessed portion and the dielectric substance.
A method for communications between transpositional modulation capable devices, wherein the method is implemented by a base station that comprises cellular transmitters, receivers, and computing equipment for processing cellular communications with a plurality of mobile devices (134, 136, 138a-138n), and a transpositional modulation transmitter and a transpositional modulation receiver, the method comprising: determining, by the base station, that a first device and a second device (134, 136) of the plurality of mobile devices (134, 136, 138a-138n) are within range for direct communications and that the first device and the second device are capable of performing transpositional modulation communications; determining, by the base station, to use transpositional modulation to send data to the first device and the second device; and sending data to the first device and the second device using transpositional modulation signals and sending non- transpositional modulation signals to others of the plurality of mobile devices (138a-138n). cellular transmitters, receivers, and computing equipment for processing cellular communications with a plurality of mobile devices (134, 136, 138a-138n), and a transpositional modulation transmitter and a transpositional modulation receiver, the method comprising: determining, by the base station, that a first device and a second device (134, 136) of the plurality of mobile devices (134, 136, 138a-138n) are within range for direct communications and that the first device and the second device are capable of performing transpositional modulation communications; determining, by the base station, to use transpositional modulation to send data to the first device and the second device; and sending data to the first device and the second device using transpositional modulation signals and sending non- transpositional modulation signals to others of the plurality of mobile devices (138a-138n). determining, by the base station, that a first device and a second device (134, 136) of the plurality of mobile devices (134, 136, 138a-138n) are within range for direct communications and that the first device and the second device are capable of performing transpositional modulation communications; determining, by the base station, to use transpositional modulation to send data to the first device and the second device; and sending data to the first device and the second device using transpositional modulation signals and sending non- transpositional modulation signals to others of the plurality of mobile devices (138a-138n).
A wireless signaling system for a torque measurement system that includes a rotor and a stator comprising a stator as a stationary element and a rotor as a non-stationary element, the wireless signaling system further comprising: the stationary element comprising a stationary element controller and a stationary element antenna configured to transmit a wireless signal comprising a pair of pulses and a data signal; and the non-stationary element comprising a non-stationary element controller and a non-stationary element antenna configured to receive the wireless signal from the stationary element controller, characterized in that the non-stationary element controller is configured to: measure a transition in voltage of each of the pulses and a time interval between the pulses as detected by the non-stationary element antenna, and interpret the data signal of the received wireless signal to determine a command to be performed by the non-stationary element controller based on the transition in voltage of each of the pulses and the time interval between the pulses as detected by the non-stationary element antenna. the stationary element comprising a stationary element controller and a stationary element antenna configured to transmit a wireless signal comprising a pair of pulses and a data signal; and the non-stationary element comprising a non-stationary element controller and a non-stationary element antenna configured to receive the wireless signal from the stationary element controller, characterized in that the non-stationary element controller is configured to: measure a transition in voltage of each of the pulses and a time interval between the pulses as detected by the non-stationary element antenna, and interpret the data signal of the received wireless signal to determine a command to be performed by the non-stationary element controller based on the transition in voltage of each of the pulses and the time interval between the pulses as detected by the non-stationary element antenna. measure a transition in voltage of each of the pulses and a time interval between the pulses as detected by the non-stationary element antenna, and interpret the data signal of the received wireless signal to determine a command to be performed by the non-stationary element controller based on the transition in voltage of each of the pulses and the time interval between the pulses as detected by the non-stationary element antenna.
An adhesive composition for attachment to skin, the composition comprising 4-9% (w/w) styrene-ethylene/butylene-styrene block copolymer (SEBS), 3-6% (w/w) polyolefin, 35-41% (w/w) polybutene, optionally 2-4% (w/w) wax, 4-20% (w/w) polyacrylic acid, and a total of 30-40% (w/w) of one or more further absorbent material(s).
An integrated semiconductor device for detecting fluorescent tags, comprising: - a first layer comprising a detector element; - a second layer located on top of the first layer, comprising a rejection filter; - a third layer located on top of the second layer, fabricated from a dielectric material; - a fourth layer located on top of the third layer, comprising an optical waveguide configured and positioned such that a top surface of the fourth layer is illuminated with an evanescent tail of excitation light guided by the optical waveguide for activating the fluorescent tags when present on top of the fourth layer; wherein the third layer is adapted to function as a spacer between the rejection filter and the optical waveguide; wherein the rejection filter is positioned such that fluorescence from the activated fluorescent tags is filtered before falling onto the detector element, wherein the rejection filter is configured to reject the wavelength range of the excitation light and configured to transmit the wavelength range of fluorescence from the activated fluorescent tags; and wherein the detector element is positioned such that light from the activated fluorescent tags can be received; the device furthermore comprises a fifth layer located on top of the fourth layer comprising a microfluidic channel; characterised in that the optical waveguide comprises a single mode waveguide optically coupled to a multimode waveguide via a taper, the multimode waveguide being configured for guiding excitation light so as to illuminate the micro-fluidic channel with the evanescent tail of the excitation light, wherein a grating coupler is optically coupled to the single mode waveguide and is configured for coupling excitation light from a fibre or a free space beam in the single mode waveguide which is then further guided into the multimode waveguide. - a first layer comprising a detector element; - a second layer located on top of the first layer, comprising a rejection filter; - a third layer located on top of the second layer, fabricated from a dielectric material; - a fourth layer located on top of the third layer, comprising an optical waveguide configured and positioned such that a top surface of the fourth layer is illuminated with an evanescent tail of excitation light guided by the optical waveguide for activating the fluorescent tags when present on top of the fourth layer;
System for conveying and distributing limestone in pieces, suitable for use in vertical lime kilns, with at least one vat (20, 20'), comprising: - a hopper for receiving limestone in pieces, - a support structure provided with wheels for linear displacement on a rail, by which the hopper is fixed by means of a thrust bearing, - two geared motors (6, 7) allowing the movement of the hopper, - a valve provided with a pair of plates (11', 11") connected to the lower portion of the hopper, said pair of plates (11', 11") in the valve closing position being arranged in such a way, that their distal ends, with respect to the valve, are in contact with each other; - a pair of sealing bellows, positioned both at one inlet and at one outlet of the hopper, such system being characterized in that - the first geared motor is configured to allow a rotation of the hopper around a vertical axis of an angle (β) between 0° and 180° thereof by means of a toothed coupling and in that in the opening step of the valve at least one plate (11', 11") assumes an opening angle (α) between 0° and 120° around a fulcrum coinciding with its proximal end with respect to the valve in order to guarantee a homogeneous distribution of the limestone in pieces within the volume of at least one vat (20, 20') of the vertical lime kiln and in that the hopper for receiving the material is internally coated with impact-resistant rubber polyurethane panels. - a hopper for receiving limestone in pieces, - a support structure provided with wheels for linear displacement on a rail, by which the hopper is fixed by means of a thrust bearing, - two geared motors (6, 7) allowing the movement of the hopper, - a valve provided with a pair of plates (11', 11") connected to the lower portion of the hopper, said pair of plates (11', 11") in the valve closing position being arranged in such a way, that their distal ends, with respect to the valve, are in contact with each other; - a pair of sealing bellows, positioned both at one inlet and at one outlet of the hopper, such system being characterized in that - the first geared motor is configured to allow a rotation of the hopper around a vertical axis of an angle (β) between 0° and 180° thereof by means of a toothed coupling and in that - the first geared motor is configured to allow a rotation of the hopper around a vertical axis of an angle (β) between 0° and 180° thereof by means of a toothed coupling and in that in the opening step of the valve at least one plate (11', 11") assumes an opening angle (α) between 0° and 120° around a fulcrum coinciding with its proximal end with respect to the valve in order to guarantee a homogeneous distribution of the limestone in pieces within the volume of at least one vat (20, 20') of the vertical lime kiln and in that the hopper for receiving the material is internally coated with impact-resistant rubber polyurethane panels.
Ground covering composed of shaped blocks (10, 11), in particular of paving blocks or paving slabs or the like, wherein the shaped blocks (10, 11) in each case have a preferably planar upper side and underside and at least one preferably vertical lateral surface, and wherein the shaped blocks (10, 11) are laid next to one another within the ground covering, wherein respectively adjacent shaped blocks (10, 11) are at least partially spaced apart from one another in the region of gaps, and wherein the gaps between adjacent shaped blocks (10, 11) are filled with a gap-filling material for load transfer between adjacent shaped blocks (10, 11) of the ground covering, wherein in each case at least one contact protuberance (15, 16) is formed in the region of the at least one lateral surface of each shaped block (10, 11) for permanently laying adjacent shaped blocks (10, 11) in contact with one another, wherein the contact protuberances (15, 16) have an approximately linear contact surface, and wherein, in the laid state, the contact protuberances (15, 16) of adjacent shaped blocks (10, 11) bear against one another in each case by way of their respective contact surfaces, characterized in that the contact surface extends in an obliquely directed manner.
Aircraft comprising: - at least one motor, - at least one fuel tank, - a chamber located in the tank, occupying only part of the tank and comprising at least one sensor (24, 26, 28) for measuring a characteristic of the fuel, - a fuel injection system for injecting fuel into the engine, - an introduction line for introducing fuel from the injection system into the chamber, the line comprising a valve adapted to prevent fuel from the injection system being introduced into the chamber via the line. - at least one motor, - at least one fuel tank, - a chamber located in the tank, occupying only part of the tank and comprising at least one sensor (24, 26, 28) for measuring a characteristic of the fuel, - a fuel injection system for injecting fuel into the engine, - an introduction line for introducing fuel from the injection system into the chamber, the line comprising a valve adapted to prevent fuel from the injection system being introduced into the chamber via the line.
A drill driving apparatus comprising: - a tool driving mechanism configured to hold a tool and apply a rotation operation and a feeding operation in a tool axis direction to the tool; and - a driving mechanism fixing instrument, having a through hole through which the tool passes, configured to be inserted detachably into a guiding through hole in order to fix the tool driving mechanism to a drill jig in which the guiding through hole is formed, characterised in that: the driving mechanism fixing instrument comprises: - a first guide having a surface that contacts the drill jig, wherein the first guide is configured such that the surface moves away from the tool driving mechanism when the tool driving mechanism is rotated relatively in the opposite direction to the rotation direction of the tool; - a second guide that is adapted to widen in an interior of the guiding through hole in a radial direction of the guiding through hole when the tool driving mechanism is rotated relative to the first guide in the opposite direction to the rotation direction of the tool, wherein a plurality of slits having the tool axis direction as a length direction is provided in a work piece side end portion of the second guide; and - a third guide that is fixed to the tool driving mechanism and is adapted to widen the second guide in the radial direction of the guiding through hole when the surface of the first guide that contacts the drill jig moves away from the tool driving mechanism, wherein a tapered portion for widening the work piece side of the second guide is provided on a work piece end side of the third guide. - a tool driving mechanism configured to hold a tool and apply a rotation operation and a feeding operation in a tool axis direction to the tool; and - a driving mechanism fixing instrument, having a through hole through which the tool passes, configured to be inserted detachably into a guiding through hole in order to fix the tool driving mechanism to a drill jig in which the guiding through hole is formed, - a first guide having a surface that contacts the drill jig, wherein the first guide is configured such that the surface moves away from the tool driving mechanism when the tool driving mechanism is rotated relatively in the opposite direction to the rotation direction of the tool; - a second guide that is adapted to widen in an interior of the guiding through hole in a radial direction of the guiding through hole when the tool driving mechanism is rotated relative to the first guide in the opposite direction to the rotation direction of the tool, wherein a plurality of slits having the tool axis direction as a length direction is provided in a work piece side end portion of the second guide; and - a third guide that is fixed to the tool driving mechanism and is adapted to widen the second guide in the radial direction of the guiding through hole when the surface of the first guide that contacts the drill jig moves away from the tool driving mechanism, wherein a tapered portion for widening the work piece side of the second guide is provided on a work piece end side of the third guide.
A seal assembly (300, 500) for use in a dynamic pin joint (200, 400) defining axial and radial directions, the seal assembly (300, 500) comprising: a counterface seal ring subassembly (302, 502) including: a counterface seal ring member (306, 506) that includes a radially extending planar seal face (308, 508) and a first contoured load ring interface (310, 510); and a first load ring (312, 512); the seal assembly (300, 500) further comprising: a lip seal ring subassembly (304, 504) including: a lip seal ring member (314, 514) that includes a lip sealing feature (316, 516) and a second contoured load ring interface (318, 518); and a second load ring (320, 520), characterised in that the lip seal ring member (314, 514) is a flexible member having a Shore A hardness ranging from 80-100 and the counterface seal ring member (306, 506) is a rigid member having a Rockwell C hardness ranging from 50-60. a counterface seal ring subassembly (302, 502) including: a counterface seal ring member (306, 506) that includes a radially extending planar seal face (308, 508) and a first contoured load ring interface (310, 510); and a first load ring (312, 512); a counterface seal ring member (306, 506) that includes a radially extending planar seal face (308, 508) and a first contoured load ring interface (310, 510); and a first load ring (312, 512); the seal assembly (300, 500) further comprising: a lip seal ring subassembly (304, 504) including: a lip seal ring member (314, 514) that includes a lip sealing feature (316, 516) and a second contoured load ring interface (318, 518); and a second load ring (320, 520), a lip seal ring member (314, 514) that includes a lip sealing feature (316, 516) and a second contoured load ring interface (318, 518); and a second load ring (320, 520), characterised in that the lip seal ring member (314, 514) is a flexible member having a Shore A hardness ranging from 80-100 and the counterface seal ring member (306, 506) is a rigid member having a Rockwell C hardness ranging from 50-60.