mhurhangee/ep-ind-claims huggingface dataset:
A transmitting device (10; 10A; 110) for a quantum key distribution system (30; 100), comprising: an encoding unit (11; 112) configured to encode a train of optical pulses; an intensity modulating unit (12; 113) configured to subject a train of encoded optical pulses to N types of intensity modulation having mutually different intensities, with different timings, where N is an integer which is not less than three; and a first key distillation processing unit (13; 13A; 115) configured to generate an encryption key based on a data sequence obtained by removing data obtained from optical pulses having a specific modulation pattern from a data sequence used when the encoding unit and the intensity modulating unit carry out encoding and intensity modulation, characterized in that the first key distillation processing unit (13; 13A; 115) is configured to dispose of at least data having the largest intensity fluctuation due to a pattern effect. an encoding unit (11; 112) configured to encode a train of optical pulses; an intensity modulating unit (12; 113) configured to subject a train of encoded optical pulses to N types of intensity modulation having mutually different intensities, with different timings, where N is an integer which is not less than three; and a first key distillation processing unit (13; 13A; 115) configured to generate an encryption key based on a data sequence obtained by removing data obtained from optical pulses having a specific modulation pattern from a data sequence used when the encoding unit and the intensity modulating unit carry out encoding and intensity modulation, characterized in that the first key distillation processing unit (13; 13A; 115) is configured to dispose of at least data having the largest intensity fluctuation due to a pattern effect.
An automated luminaire comprising: a plurality of LED light sources, wherein each LED has an individual associated optical system comprising a primary optics lens element, a second lens element, a third lens element, and a fourth lens element, wherein each LED is mounted within a reflector, thereby generating a light beam, with a directional LED axis, which is directed toward and captured by the second lens element which is movably mounted to move in a path generally parallel with the LED axis and the third lens element which is also movably mounted to move in a path generally parallel with the LED axis and the fourth lens element which is fixed relative to the LED, and wherein the second, third and fourth lens elements (46, 47, 48) form a zooming function whereby the angle of the light beam can be varied by moving the second and/or third lens elements (46, 47). a plurality of LED light sources, wherein each LED has an individual associated optical system comprising a primary optics lens element, a second lens element, a third lens element, and a fourth lens element, wherein each LED is mounted within a reflector, thereby generating a light beam, with a directional LED axis, which is directed toward and captured by the second lens element which is movably mounted to move in a path generally parallel with the LED axis and the third lens element which is also movably mounted to move in a path generally parallel with the LED axis and the fourth lens element which is fixed relative to the LED, and wherein the second, third and fourth lens elements (46, 47, 48) form a zooming function whereby the angle of the light beam can be varied by moving the second and/or third lens elements (46, 47).
Filter cleaning device for an air conditioner, particularly a duct-type air conditioner, the filter cleaning device comprising: - a filter to be passed through by an air flow and having a filter surface; - a brush contactable with the filter surface for removing particulate matter from the filter surface, wherein the brush has a cylindrical shape; and - a motor configured to rotate the brush in opposite directions; - a first comb shaped member engaged with the brush; and - a second comb shaped member engaged with the brush, - wherein the first and second comb shaped members each have a length direction parallel to the axis of rotation of the brush and a width direction, wherein the first comb shaped member and the second comb shaped member are inclined away from each other in a cross-sectional view perpendicular to an axis of rotation of the brush, characterized in that the filter cleaning device further comprises a third comb shaped member engaged with the brush and a fourth comb shaped member engaged with the brush, wherein the third and fourth comb shaped members each have a length direction parallel to the axis of rotation of the brush and a width direction. - a filter to be passed through by an air flow and having a filter surface; - a brush contactable with the filter surface for removing particulate matter from the filter surface, wherein the brush has a cylindrical shape; and - a motor configured to rotate the brush in opposite directions; - a first comb shaped member engaged with the brush; and - a second comb shaped member engaged with the brush, - wherein the first and second comb shaped members each have a length direction parallel to the axis of rotation of the brush and a width direction, wherein the first comb shaped member and the second comb shaped member are inclined away from each other in a cross-sectional view perpendicular to an axis of rotation of the brush, characterized in that the filter cleaning device further comprises a third comb shaped member engaged with the brush and a fourth comb shaped member engaged with the brush, wherein the third and fourth comb shaped members each have a length direction parallel to the axis of rotation of the brush and a width direction.
A process for heating a charge of material comprising: providing a charge of material to be heated, combusting a fuel and an oxidant by using a burner wherein the oxidant is supplied to the burner in a manner such that the fuel substantially surrounds the oxidant thereby shielding oxidant from the charge and providing a fuel rich zone adjacent the charge, heating the charge by radiant and convective transfer of heat from the combustion to the charge, and; recovering heated material whereby the burner comprises a central conduit completely surrounded by an annular conduit whereby the outer annular flow comprises fuel and the central flow comprises oxidant. providing a charge of material to be heated, combusting a fuel and an oxidant by using a burner wherein the oxidant is supplied to the burner in a manner such that the fuel substantially surrounds the oxidant thereby shielding oxidant from the charge and providing a fuel rich zone adjacent the charge, heating the charge by radiant and convective transfer of heat from the combustion to the charge, and; recovering heated material whereby the burner comprises a central conduit completely surrounded by an annular conduit whereby the outer annular flow comprises fuel and the central flow comprises oxidant.
A method performed by a transmitting node for providing enhanced channel coding of a packet transmitted in a wireless communications network, wherein the transmitting node and a receiving node are operating in the wireless communications network, and wherein the method comprises: - applying, to payload data to be transmitted, an outer channel encoder resulting in a plurality of outer code bits; - applying an inner channel encoder to the plurality of outer code bits; - dividing resulting code bits of the inner channel encoder into a first group of bits comprising one or more systematic bits of the inner channel encoder and into one or more second groups of bits comprising one or more parity bits of the inner channel encoder; - generating a first set of Orthogonal Frequency-Division Multiplexing, OFDM, symbols carrying the first group of bits, and one or more second sets of OFDM symbols carrying the one or more second groups of bits; and being characterized by: - transmitting, to the receiving node, the systematic bits before the parity bits, by transmitting a packet comprising the first set of OFDM symbols followed by the one or more second sets of OFDM symbols whereby an enhanced channel coding of the transmitted packet is provided. - applying, to payload data to be transmitted, an outer channel encoder resulting in a plurality of outer code bits; - applying an inner channel encoder to the plurality of outer code bits; - dividing resulting code bits of the inner channel encoder into a first group of bits comprising one or more systematic bits of the inner channel encoder and into one or more second groups of bits comprising one or more parity bits of the inner channel encoder; - generating a first set of Orthogonal Frequency-Division Multiplexing, OFDM, symbols carrying the first group of bits, and one or more second sets of OFDM symbols carrying the one or more second groups of bits; and being characterized by: - transmitting, to the receiving node, the systematic bits before the parity bits, by transmitting a packet comprising the first set of OFDM symbols followed by the one or more second sets of OFDM symbols whereby an enhanced channel coding of the transmitted packet is provided.
A sport ball comprising: a casing that forms an exterior surface of the sport ball, the casing incorporating a plurality of joined panels, including a closure panel; a backing layer located radially inward of the closure panel, the backing layer extending beyond a peripheral boundary of the closure panel and at least partially overlapping with one or more panels adjacent to the closure panel, the backing layer including an opening located radially inward of the closure panel, the opening being smaller than a surface area of the closure panel; and a bladder located radially inward of the backing layer, the bladder including a valve for introducing fluid into the ball, the valve extending through the opening and through the closure panel; characterized in that the casing includes an inner surface and the backing layer lines the entire inner surface of the casing except for the area where the opening in the backing layer is located. a casing that forms an exterior surface of the sport ball, the casing incorporating a plurality of joined panels, including a closure panel; a backing layer located radially inward of the closure panel, the backing layer extending beyond a peripheral boundary of the closure panel and at least partially overlapping with one or more panels adjacent to the closure panel, the backing layer including an opening located radially inward of the closure panel, the opening being smaller than a surface area of the closure panel; and a bladder located radially inward of the backing layer, the bladder including a valve for introducing fluid into the ball, the valve extending through the opening and through the closure panel; characterized in that the casing includes an inner surface and the backing layer lines the entire inner surface of the casing except for the area where the opening in the backing layer is located.
A position calculation method, comprising: calculating a current position, a shifting speed and an azimuth of movement of a mobile object; calculating an estimated error covariance of the current position and the azimuth of movement based upon the current position, the shifting speed and the azimuth of movement; as a calculation using the current position, the azimuth of movement, the estimated error covariance, a link candidate point position of each link candidate point of a plurality of link candidate points included in a region around the current position, a link candidate point azimuth of the each link candidate point, a first error variance of positions of a plurality of links included in the region, and a second error variance of azimuths of the plurality of links, calculating, based upon a distance between the current position and the link candidate point position and based upon an azimuthal difference between the azimuth of movement and the link candidate point azimuth, by adding together a plurality of data items including the distance and the azimuthal difference obtained at each of predetermined intervals up to the link candidate point position, an evaluation value that corresponds to a probability that the mobile object is traveling upon a road corresponding to the each link candidate point, for each link including the each link candidate point; and calculating the current position based upon the evaluation value, by taking the mobile object as being positioned at a link candidate point, among the plurality of link candidate points, for which the probability is highest. calculating a current position, a shifting speed and an azimuth of movement of a mobile object; calculating an estimated error covariance of the current position and the azimuth of movement based upon the current position, the shifting speed and the azimuth of movement; as a calculation using the current position, the azimuth of movement, the estimated error covariance, a link candidate point position of each link candidate point of a plurality of link candidate points included in a region around the current position, a link candidate point azimuth of the each link candidate point, a first error variance of positions of a plurality of links included in the region, and a second error variance of azimuths of the plurality of links, calculating, based upon a distance between the current position and the link candidate point position and based upon an azimuthal difference between the azimuth of movement and the link candidate point azimuth, by adding together a plurality of data items including the distance and the azimuthal difference obtained at each of predetermined intervals up to the link candidate point position, an evaluation value that corresponds to a probability that the mobile object is traveling upon a road corresponding to the each link candidate point, for each link including the each link candidate point; and calculating the current position based upon the evaluation value, by taking the mobile object as being positioned at a link candidate point, among the plurality of link candidate points, for which the probability is highest.
A method for exercising, comprising the steps of: positioning a torso harness assembly above a base platform on which a user is intended to position himself for exercising through a forward range of motion; imparting a resistance for concentric exercising of a user's torso while the user is standing, followed by a pushing back force for eccentric exercising of the user's torso while the user is standing through a reverse range of motion in a direction opposite to the forward range of motion, whereby said resistance for concentric exercising is user-selectable and variable and imparted under computer control by a double-acting actuator through the forward range of motion which is user-selectable and whereby said pushing back force for eccentric exercising is user-selectable and variable and imparted by said double-acting actuator through the reverse range of motion which is user-selectable. positioning a torso harness assembly above a base platform on which a user is intended to position himself for exercising through a forward range of motion; imparting a resistance for concentric exercising of a user's torso while the user is standing, followed by a pushing back force for eccentric exercising of the user's torso while the user is standing through a reverse range of motion in a direction opposite to the forward range of motion, whereby said resistance for concentric exercising is user-selectable and variable and imparted under computer control by a double-acting actuator through the forward range of motion which is user-selectable and whereby said pushing back force for eccentric exercising is user-selectable and variable and imparted by said double-acting actuator through the reverse range of motion which is user-selectable.
An air-conditioning apparatus comprising: an outdoor-unit casing accommodating therein a compressor, a refrigerant flow switching device, and a heat-source-side heat exchanger; a heat-medium-relay-unit casing accommodating therein an expansion device and an intermediate heat exchanger; a heat-medium-flow-control-unit casing accommodating therein a heat medium flow control device; an indoor-unit casing accommodating therein a load-side heat exchanger (60a, 60b, 60c) and an indoor air-sending device (61a, 61b, 61c); and a heat medium conveying device configured to convey a heat medium, the compressor, the refrigerant flow switching device, the heat-source-side heat exchanger, the expansion device, and a refrigerant passage of the intermediate heat exchanger communicating with each other via refrigerant pipes to form a refrigerant circuit, refrigerant flowing through the refrigerant pipe, and a heat medium passage of the intermediate heat exchanger, the heat medium conveying device, the heat medium flow control device, and the load-side heat exchanger (60a, 60b, 60c) communicating with each other via heat medium pipes to form a heat medium circuit, the heat medium flowing through the heat medium pipe, wherein the heat-medium-relay-unit casing and the heat-medium-flow-control-unit casing are separate from each other, characterized in that the outdoor-unit casing and the heat-medium-relay-unit casing are disposed in an outdoor space and the outdoor-unit casing and the heat-medium-relay-unit casing are accommodated in a single casing. an outdoor-unit casing accommodating therein a compressor, a refrigerant flow switching device, and a heat-source-side heat exchanger; a heat-medium-relay-unit casing accommodating therein an expansion device and an intermediate heat exchanger; a heat-medium-flow-control-unit casing accommodating therein a heat medium flow control device; an indoor-unit casing accommodating therein a load-side heat exchanger (60a, 60b, 60c) and an indoor air-sending device (61a, 61b, 61c); and a heat medium conveying device configured to convey a heat medium, the compressor, the refrigerant flow switching device, the heat-source-side heat exchanger, the expansion device, and a refrigerant passage of the intermediate heat exchanger communicating with each other via refrigerant pipes to form a refrigerant circuit, refrigerant flowing through the refrigerant pipe, and a heat medium passage of the intermediate heat exchanger, the heat medium conveying device, the heat medium flow control device, and the load-side heat exchanger (60a, 60b, 60c) communicating with each other via heat medium pipes to form a heat medium circuit, the heat medium flowing through the heat medium pipe, wherein the heat-medium-relay-unit casing and the heat-medium-flow-control-unit casing are separate from each other, characterized in that the outdoor-unit casing and the heat-medium-relay-unit casing are disposed in an outdoor space and the outdoor-unit casing and the heat-medium-relay-unit casing are accommodated in a single casing.
A lock for a bonnet of a motor vehicle which can be moved from an open position into a closed position, comprising a locking hook which retains a striker in the closed position of the bonnet and a catch locking the locking hook in the closed position, an eject lever for moving the striker out of the locking hook being provided which is not blocked by the catch in the closed position, characterised in that the catch can actively move from a pre-locked position to a fully locked position in the closed position which locks the locking hook and the catch actively moves from the fully locked position to the pre-locked position as soon as a pedestrian impact situation is detected on the bonnet.
A mobile terminal comprising: • a housing having side surfaces, a front and a rear surface, wherein the side surfaces respectively connect the front surface with the rear surface, wherein the rear surface is a surface of the housing facing away from a head of a user of the terminal when the terminal is used by the user according to its intended use and the front surface is a surface of the housing facing the head of the user when the terminal is used according to its intended use; • a transmission line antenna provided only at a corner area of the housing, wherein the transmission line antenna comprises a first radiator, a second radiator, and a capacitive matching circuit, wherein the capacitive matching circuit is connected to a feed-in point of the first radiator or the second radiator, • wherein the first radiator is a part of the housing in the corner area and the second radiator extends within the housing and on the rear surface, so that the transmission line antenna is provided only at the corner area of the housing, or, the second radiator is a part of the housing in the corner area and the first radiator extends within the housing and on the rear surface, so that the transmission line antenna is provided only at the corner area of the housing, • wherein a first end of the first radiator is connected to a first end of the second radiator, and a second end of the first radiator and a second end of the second radiator are used as ground ends, • wherein the first radiator and the second radiator are of a same length. • a housing having side surfaces, a front and a rear surface, wherein the side surfaces respectively connect the front surface with the rear surface, wherein the rear surface is a surface of the housing facing away from a head of a user of the terminal when the terminal is used by the user according to its intended use and the front surface is a surface of the housing facing the head of the user when the terminal is used according to its intended use; • a transmission line antenna provided only at a corner area of the housing, wherein the transmission line antenna comprises a first radiator, a second radiator, and a capacitive matching circuit, wherein the capacitive matching circuit is connected to a feed-in point of the first radiator or the second radiator, • wherein the first radiator is a part of the housing in the corner area and the second radiator extends within the housing and on the rear surface, so that the transmission line antenna is provided only at the corner area of the housing, or, the second radiator is a part of the housing in the corner area and the first radiator extends within the housing and on the rear surface, so that the transmission line antenna is provided only at the corner area of the housing, • wherein a first end of the first radiator is connected to a first end of the second radiator, and a second end of the first radiator and a second end of the second radiator are used as ground ends, • wherein the first radiator and the second radiator are of a same length.