mhurhangee/ep-ind-claims huggingface dataset:
Touch interface comprising a display screen, the touch interface being able to detect the approach and the position of a user's finger with respect to the display screen, the display screen being delimited by means of boundaries (10, F 1_4, F 1_2, F 2_i, F 2_3, F 4_i, F i_j, F 3_j) into regions (R1, R2, R3, R4, Ri and Rj), the touch interface being configured to display, on the display screen, at least a first graphical element (C i_0) associated with a first touch-selection zone surrounding a first anchoring point (Bi_0) of the graphical element on the display screen, and located inside the same first region (Ri), and to display at least a second graphical element (C j_0) associated with a second touch-selection zone, surrounding a second anchoring point (Bj_0) of the graphical element on the display screen, and located inside the same second region (Rj) of the screen, which is distinct from the first region, the first region (Ri) being delimited by a first boundary and the second region (Rj) being delimited by a second boundary having a common boundary portion (Fi_j) with the first boundary, characterized in that the touch interface is configured to repeatedly estimate a trajectory (traj(t)) of a point of the finger and an impact point (P xy (t)) of this trajectory on the display screen, and configured to, when the impact point (P xy (t)) enters the first region (Ri), move the displayed graphical element (C i (t)) of this first region and the associated touch-selection zone in the direction of the impact point (P xy (t)), then, if the impact point crosses the common boundary portion (Fi_j) between the first region (Ri) and the second region (Rj), incrementally bring back the display of the first graphical element (Ci(t)) to the first anchoring point (Bi_0), while the second graphical element (Cj(t)) is incrementally brought closer to the impact point (P xy (t)).
A strain sensor apparatus for a rotatable shaft comprising a radiation emitter/receiver, a vibration element (44, 60) attached to the shaft characterized by that, that it has a radiation-reflective annulus surrounding the shaft and vibration element.
A chemically stable antioxidant compound comprising: a lipophilic cationic moiety linked by a linking moiety to an antioxidant moiety; and an anionic complement for said cationic moiety, wherein the cationic moiety is capable of mitochondrially targeting the antioxidant moiety, wherein the antioxidant compound is a compound of formula I: or its quinol form, wherein R 1, R 2, and R 3 are the same or different and are selected from C 1 to C 5 alkyl and H, and wherein n is an integer from 2 to 20, and wherein Z is an anion that does not exhibit reactivity against the antioxidant moiety, the cationic moiety or the linking moiety and is selected from an alkyl sulfonate, an aryl sulfonate, trifluoromethane sulfonate, tetraphenylborate, tetrafluoroborate, hexafluoroantimonate, hexafluoroarsenate and hexafluorophosphate. a lipophilic cationic moiety linked by a linking moiety to an antioxidant moiety; and an anionic complement for said cationic moiety, wherein the cationic moiety is capable of mitochondrially targeting the antioxidant moiety, wherein the antioxidant compound is a compound of formula I: or its quinol form, wherein R 1, R 2, and R 3 are the same or different and are selected from C 1 to C 5 alkyl and H, and wherein n is an integer from 2 to 20, and wherein Z is an anion that does not exhibit reactivity against the antioxidant moiety, the cationic moiety or the linking moiety and is selected from an alkyl sulfonate, an aryl sulfonate, trifluoromethane sulfonate, tetraphenylborate, tetrafluoroborate, hexafluoroantimonate, hexafluoroarsenate and hexafluorophosphate.
A composition of matter comprising a mixture of biochar, a metal and graphite, with (a) a graphite content of between 25 to 65 percent by weight, (b) a metal content of between 15 to 75 percent by weight and (c) a biochar content of between 1 and 35 percent by weight.
Method for inspecting hand luggage and other objects carried by aircraft passengers during check-in, characterized in that, in a first testing device, the level of complexity of the object with regard to the testing is determined automatically by using the proportion and the magnitude of materials in the object that absorb x-rays and/or the thickness of absorbent materials in the object and/or the proportion of structured or inhomogeneous areas in the x-ray image as parameters, and in that different further testing methods are then carried out as a function of the level of complexity that is determined.
Turbine, adapted to provide electric energy to a network by converting wind energy of the surrounding wind, comprising: - a tower, bound to soil; - a nacelle, rotatably coupled to the end of the tower; - a generator, contained in the nacelle and coupled to a rotor unit; - a control unit, electrically connected to the generator and the network; said generator comprising a stator and a rotor, the stator and the rotor being magnetically coupled by a magnetic flux; said stator of the generator being bound to the nacelle; said rotor of the generator being mechanically coupled to the rotor unit; said rotor unit being fluid-dynamically coupled with the wind, said turbine comprising control means (50, 52, 54) for the control of the magnetic flux based on the speed of rotation of the rotor unit and/or the speed of the wind surrounding the turbine, said turbine characterized in that the rotor unit is connected through a belt and a revolution multiplier to the generator, the revolution multiplier and the generator being insulated by the belt against the vibrations of the rotor unit. - a tower, bound to soil; - a nacelle, rotatably coupled to the end of the tower; - a generator, contained in the nacelle and coupled to a rotor unit; - a control unit, electrically connected to the generator and the network; said generator comprising a stator and a rotor, the stator and the rotor being magnetically coupled by a magnetic flux; said stator of the generator being bound to the nacelle; said rotor of the generator being mechanically coupled to the rotor unit; said rotor unit being fluid-dynamically coupled with the wind, said turbine comprising control means (50, 52, 54) for the control of the magnetic flux based on the speed of rotation of the rotor unit and/or the speed of the wind surrounding the turbine, said turbine characterized in that the rotor unit is connected through a belt and a revolution multiplier to the generator, the revolution multiplier and the generator being insulated by the belt against the vibrations of the rotor unit.
A medical device for deployment in a body, wherein the device comprises: a tubular body comprising a first end and a second end, wherein the body defines a longitudinal axis extending between the first end and the second end; and wherein the body comprises a body width measured transverse to the longitudinal axis when the device is in a relaxed configuration; and only one flange attached to the body proximate the second end of the body, the only one flange comprising a concave outer surface facing the first end of the body and a flange width transverse to the longitudinal axis when the device is in the relaxed configuration, and wherein the body width proximate the only one flange is less than the flange width. a tubular body comprising a first end and a second end, wherein the body defines a longitudinal axis extending between the first end and the second end; and wherein the body comprises a body width measured transverse to the longitudinal axis when the device is in a relaxed configuration; and only one flange attached to the body proximate the second end of the body, the only one flange comprising a concave outer surface facing the first end of the body and a flange width transverse to the longitudinal axis when the device is in the relaxed configuration, and wherein the body width proximate the only one flange is less than the flange width.
A system configured to form a seal around at least one flexible longitudinal member, the system comprising: a sealing member having at first set of apertures (121, 121a, 121b), a second set of apertures, an inner interface surface, and an outer interface surface, the first set of apertures (121, 121a, 121b) configured to receive the at least one flexible longitudinal member; a clamping member having a first set of apertures (111, 111a, 111b) and an interface surface, the first set of apertures (111, 111a, 111b) in the clamping member configured to align with the first set of apertures (121, 121a, 121b) in the sealing member, the interface surface of the clamping member configured to abut the inner interface surface of the sealing member; at least one threaded blind bore in the interface surface of the clamping member; and at least one fastener configured to extend through the second set of apertures in the sealing member and into the at least one threaded blind bore in the clamping member, the at least one fastener configured to draw the clamping member into engagement with the sealing member, characterized in that the first set of apertures (111, 111a, 111b) in the clamping member includes at least one smaller aperture and at least one larger aperture, each of the at least one larger aperture housing a sleeve, wherein each of the at least one sleeve comprises: a cylindrical tube portion; an annular flange portion circumferentially extending around a first end of the cylindrical tube; and an annular lip defined between the cylindrical tube portion and the annular flange portion. a sealing member having at first set of apertures (121, 121a, 121b), a second set of apertures, an inner interface surface, and an outer interface surface, the first set of apertures (121, 121a, 121b) configured to receive the at least one flexible longitudinal member; a clamping member having a first set of apertures (111, 111a, 111b) and an interface surface, the first set of apertures (111, 111a, 111b) in the clamping member configured to align with the first set of apertures (121, 121a, 121b) in the sealing member, the interface surface of the clamping member configured to abut the inner interface surface of the sealing member; at least one threaded blind bore in the interface surface of the clamping member; and at least one fastener configured to extend through the second set of apertures in the sealing member and into the at least one threaded blind bore in the clamping member, the at least one fastener configured to draw the clamping member into engagement with the sealing member, the first set of apertures (111, 111a, 111b) in the clamping member includes at least one smaller aperture and at least one larger aperture, each of the at least one larger aperture housing a sleeve, wherein each of the at least one sleeve comprises: a cylindrical tube portion; an annular flange portion circumferentially extending around a first end of the cylindrical tube; and a cylindrical tube portion; an annular flange portion circumferentially extending around a first end of the cylindrical tube; and
Agricultural seed drill (1,1A,1B), in particular precision seed drill, for depositing seed and/or fertilizer, comprising a frame (3,5,18) extending transversely to the direction of travel and a plurality of rotatingly driven metering and/or spreading elements (21,6) arranged on the frame (3,5,18) at a distance from one another, each metering and/or spreading element (21,6) having its own drive unit for depositing metered, in particular isolated, seed within a seed row, and the seed drill (1,1A,1B) comprising at least one acquisition device for acquiring measured values and a controller which controls the drive unit of each metering and/or spreading element in such a way that the rate of the metered, in particular isolated, deposited seed within a seed row corresponds at least approximately to a constant, adjustable value, the at least one acquisition device for acquiring measured values being designed as a yaw rate sensor and the control of the drive of each metering and/or spreading element (21,6) being carried out on the basis of the measured yaw rates, the controller being provided for individually controlling the speed of each metering and/or spreading element (21,6) on the basis of data supplied to the controller, characterized in that distances of the metering and/or spreading elements from a longitudinal axis of the seed drill running centrally in the direction of travel are variable and means are provided which supply the controller of the seed drill with the actual distance of the metering and/or spreading elements from the longitudinal axis of the seed drill running centrally in the direction of travel and the controller is configured to determine the path speed of each metering and/or spreading element (21,6) on the basis of the determined yaw rate and to generate control signals for the metering and/or spreading elements (21,6) on the basis of their path speeds and a target rate of the seed to be deposited.
A straddle-type vehicle comprising: an engine including a crankcase, a cylinder arranged on the crankcase, and a cylinder head arranged on the cylinder, to generate power to drive a wheel; a fuel tank arranged over the engine and to store fuel consumed by the engine; a throttle body at least partially arranged below the fuel tank and behind the cylinder and the cylinder head, and to adjust an amount of an air-fuel mixture supplied to the engine; and a canister connected to the fuel tank and the throttle body, and arranged in front of the throttle body to suppress gas generated by evaporation of the fuel in the fuel tank from being emitted to the air; wherein the canister is at least partially arranged between the fuel tank and the cylinder head, and the canister is arranged above the cylinder head in view from one side, characterized in that the canister is arranged below a lower end portion of the fuel tank in view from the one side. an engine including a crankcase, a cylinder arranged on the crankcase, and a cylinder head arranged on the cylinder, to generate power to drive a wheel; a fuel tank arranged over the engine and to store fuel consumed by the engine; a throttle body at least partially arranged below the fuel tank and behind the cylinder and the cylinder head, and to adjust an amount of an air-fuel mixture supplied to the engine; and a canister connected to the fuel tank and the throttle body, and arranged in front of the throttle body to suppress gas generated by evaporation of the fuel in the fuel tank from being emitted to the air; wherein the canister is at least partially arranged between the fuel tank and the cylinder head, and the canister is arranged above the cylinder head in view from one side, characterized in that the canister is arranged below a lower end portion of the fuel tank in view from the one side.
An integrated electro-optical semiconductor device comprising a vertical p-i-n diode waveguide, the device comprising - a waveguide portion adapted for propagating a multimode wave comprising an intrinsic semiconductor region for the vertical p-i-n diode, a first contact and a second contact configured for electrically contacting a first electrode and a second electrode of the vertical p-i-n diode, an input section configured for coupling radiation into the waveguide portion, an output section configured for coupling radiation out of the waveguide portion, the input section, the output section and the waveguide portion of the vertical p-i-n diode waveguide being configured for supporting a multimode interference pattern for the multimode wave with an optical field with a lateral inhomogeneous spatial distribution in the waveguide portion comprising regions with higher optical field intensity and regions with lower optical field intensity, wherein the device is adapted for inducing the interference pattern such that the higher optical field intensity follows a non-straight path obtained when the regions of higher optical intensity are connected to each other, along the propagation direction in the waveguide portion thereby limiting the optical absorption, the second contact physically contacting the second electrode in regions of the waveguide with lower optical field intensity. - a waveguide portion adapted for propagating a multimode wave comprising an intrinsic semiconductor region for the vertical p-i-n diode, a first contact and a second contact configured for electrically contacting a first electrode and a second electrode of the vertical p-i-n diode, an input section configured for coupling radiation into the waveguide portion, an output section configured for coupling radiation out of the waveguide portion, the input section, the output section and the waveguide portion of the vertical p-i-n diode waveguide being configured for supporting a multimode interference pattern for the multimode wave with an optical field with a lateral inhomogeneous spatial distribution in the waveguide portion comprising regions with higher optical field intensity and regions with lower optical field intensity, wherein the device is adapted for inducing the interference pattern such that the higher optical field intensity follows a non-straight path obtained when the regions of higher optical intensity are connected to each other, along the propagation direction in the waveguide portion thereby limiting the optical absorption, the second contact physically contacting the second electrode in regions of the waveguide with lower optical field intensity.
Method for holding a scale having measuring graduation on a carrier, characterized in that the scale is held on the carrier by means of electrostatic clamping by virtue of a potential difference between the scale and the carrier being generated, wherein an electrical countercharge with respect to the carrier is formed on the scale close to the interface with the carrier, which is arranged directly opposite the measuring graduation, and the mechanical contact-making between the scale and the carrier is performed at a plurality of elevations which are spaced apart from one another, wherein the elevations are arranged distributed two-dimensionally in a plane between the scale and the carrier, and in that channels are formed between the elevations, said channels leading outwards in order to be connected to the surrounding environment.
A gear pump bearing block (48, 50) having: a bush formed of antifriction alloys, the bush having a cylindrical portion providing a bore adapted to receive a bearing shaft of a gear of the pump, and further a thrust face at the end of the cylindrical portion, the thrust face being adapted to slidingly engage with a side surface of the gear; characterized in that the bush has an inner component providing the bore, and an outer component forming a radially outer surface of the cylindrical portion; wherein the inner and outer components are formed of respective lead bronze alloys, the lead bronze alloy of the outer component having a higher lead content than the lead bronze alloy of the inner component; and the inner component and the outer component are interference fitted or joined by an adhesive together. a bush formed of antifriction alloys, the bush having a cylindrical portion providing a bore adapted to receive a bearing shaft of a gear of the pump, and further a thrust face at the end of the cylindrical portion, the thrust face being adapted to slidingly engage with a side surface of the gear; characterized in that the bush has an inner component providing the bore, and an outer component forming a radially outer surface of the cylindrical portion; wherein the inner and outer components are formed of respective lead bronze alloys, the lead bronze alloy of the outer component having a higher lead content than the lead bronze alloy of the inner component; and the inner component and the outer component are interference fitted or joined by an adhesive together.
A touch sensing apparatus comprising: distinct capacitive sensor electrodes irregularly configured across a sensing area, wherein each capacitive sensor electrode is an island associated with a unique combination of two positional components within the sensing area; and a plurality of conductive traces each of which is operatively connected to one of the distinct capacitive sensor electrodes and wherein at least some of the conductive traces extend over the sensing area; characterised in that the capacitive sensor electrodes comprise perimeters comprising an upper portion, a lower portion, a right portion and a left portion and wherein the upper portion is an inversion of the lower portion and the left portion is an inversion of the right portion such that when the capacitive sensor electrodes are arranged as an array there is: an upper fixed gap between the upper portion and a lower portion of an adjacent capacitive sensor electrode; a lower fixed gap between the lower portion and an upper portion of another adjacent capacitive sensor electrode; a right fixed gap between the right portion and a left portion of a further adjacent capacitive sensor electrode; a left fixed gap between the left portion and a right portion of another adjacent capacitive sensor electrode. distinct capacitive sensor electrodes irregularly configured across a sensing area, wherein each capacitive sensor electrode is an island associated with a unique combination of two positional components within the sensing area; and a plurality of conductive traces each of which is operatively connected to one of the distinct capacitive sensor electrodes and wherein at least some of the conductive traces extend over the sensing area; characterised in that the capacitive sensor electrodes comprise perimeters comprising an upper portion, a lower portion, a right portion and a left portion and wherein the upper portion is an inversion of the lower portion and the left portion is an inversion of the right portion such that when the capacitive sensor electrodes are arranged as an array there is: an upper fixed gap between the upper portion and a lower portion of an adjacent capacitive sensor electrode; a lower fixed gap between the lower portion and an upper portion of another adjacent capacitive sensor electrode; a right fixed gap between the right portion and a left portion of a further adjacent capacitive sensor electrode; a left fixed gap between the left portion and a right portion of another adjacent capacitive sensor electrode. an upper fixed gap between the upper portion and a lower portion of an adjacent capacitive sensor electrode; a lower fixed gap between the lower portion and an upper portion of another adjacent capacitive sensor electrode; a right fixed gap between the right portion and a left portion of a further adjacent capacitive sensor electrode; a left fixed gap between the left portion and a right portion of another adjacent capacitive sensor electrode.
A rearview mirror assembly for a vehicle, comprising a base part having a mounting interface for rigidly attaching the base part to a structural component of the vehicle, a mirror part carrying a reflective surface, a housing part covering at least a part of one side of the mirror part, and an actuator unit for moving the housing part with respect to the base part, wherein the mirror part is rigidly attached to the housing part, wherein the housing part is movably coupled to the base part, such that an orientation of the mirror part is adjustable, wherein a camera unit (34, 50) is attached to the base part via a camera support part, and wherein the camera support part extends through the actuator unit. a mirror part carrying a reflective surface, a housing part covering at least a part of one side of the mirror part, and an actuator unit for moving the housing part with respect to the base part, wherein the mirror part is rigidly attached to the housing part, wherein the housing part is movably coupled to the base part, such that an orientation of the mirror part is adjustable, wherein a camera unit (34, 50) is attached to the base part via a camera support part, and wherein the camera support part extends through the actuator unit.