mhurhangee/ep-ind-claims huggingface dataset:
Method for quantum key distribution, the method, in a system comprising a plurality of data processing devices, comprising: - providing an initial key in a first data processing device and a second data processing device; - providing, in the second data processing device, a quantum signal comprising a plurality of quantum states; - determining, in the second data processing device, a plurality of quantum measurement parameters; - determining, in the second data processing device, a raw signal by quantum measuring the plurality of quantum states employing the plurality of quantum measurement parameters; - generating with the initial key, in the second data processing device, an encrypted signal indicating at least one of the plurality of quantum measurement parameters and transmitting the encrypted signal to the first data processing device; - determining, in the first data processing device, a reconciled signal from the encrypted signal; and - determining, in the first data processing device, a shared key from the reconciled signal by correcting the reconciled signal. - providing an initial key in a first data processing device and a second data processing device; - providing, in the second data processing device, a quantum signal comprising a plurality of quantum states; - determining, in the second data processing device, a plurality of quantum measurement parameters; - determining, in the second data processing device, a raw signal by quantum measuring the plurality of quantum states employing the plurality of quantum measurement parameters; - generating with the initial key, in the second data processing device, an encrypted signal indicating at least one of the plurality of quantum measurement parameters and transmitting the encrypted signal to the first data processing device; - determining, in the first data processing device, a reconciled signal from the encrypted signal; and - determining, in the first data processing device, a shared key from the reconciled signal by correcting the reconciled signal.
A container lid assembly comprising: a cover configured to fit with an associated container and including a peripheral wall at least partially defining an opening through the cover; a pivoting lid connected with the cover, positioned in the opening in the cover, and pivotable about a pivot axis; and a lid gasket connected with the pivoting lid, characterised by the lid gasket sealing against the cover on opposite sides of the pivot axis when the pivoting lid is in a closed position. a cover configured to fit with an associated container and including a peripheral wall at least partially defining an opening through the cover; a pivoting lid connected with the cover, positioned in the opening in the cover, and pivotable about a pivot axis; and a lid gasket connected with the pivoting lid, characterised by the lid gasket sealing against the cover on opposite sides of the pivot axis when the pivoting lid is in a closed position.
A trip device of a molded case circuit breaker, the trip device comprising: a shooter including a body and a rotating shaft which passes through the body, wherein a hanging plate is provided at a lower portion of the body, and a hitting plate is provided at an upper portion of the body, the hitting plate hitting a mechanism part when the body rotates in a trip operation; a double torsion spring coupled to both sides of the rotating shaft, and configured to provide an elastic restoring force to enable the shooter to rotate; and a crossbar configured to include a hanger that contacts the hanging plate and limits a movement of the shooter, characterized in that the hanger is formed in a stair type, and comprises a first hanging part and a second hanging part, wherein under a normal state, the hanging plate of the shooter is fixed in contact with the first hanging part of the crossbar, and during the trip operation a rotatable range of the shooter is limited by the second hanging part. a shooter including a body and a rotating shaft which passes through the body, wherein a hanging plate is provided at a lower portion of the body, and a hitting plate is provided at an upper portion of the body, the hitting plate hitting a mechanism part when the body rotates in a trip operation; a double torsion spring coupled to both sides of the rotating shaft, and configured to provide an elastic restoring force to enable the shooter to rotate; and a crossbar configured to include a hanger that contacts the hanging plate and limits a movement of the shooter, characterized in that
A method of operating a subsea compression system in a well stream, the compression system comprising a compressor and an electromotor driven pump, the compressor is operable for compressing gas and the pump is operable for pumping liquid from the compression system, the method characterised by further - providing a gas return line (11,12) connecting a downstream side of the compressor with an upstream side of the compressor; - arranging a turbo-expander unit in flow connection with the gas return line (11,12); - connecting the turbo-expander unit drivingly to a generator configured for delivering charging current to a battery; - operating the generator for charging the battery in response to recycling of compressed gas via the turbo-expander unit, and operating the pump on electrical power that is supplied from the battery. - providing a gas return line (11,12) connecting a downstream side of the compressor with an upstream side of the compressor; - arranging a turbo-expander unit in flow connection with the gas return line (11,12); - connecting the turbo-expander unit drivingly to a generator configured for delivering charging current to a battery; - operating the generator for charging the battery in response to recycling of compressed gas via the turbo-expander unit, and operating the pump on electrical power that is supplied from the battery.
A device for the solar-thermal gasification of carbon-containing charging material, comprising a solar reactor including at least one, preferably a plurality of, light-transmissive window(s) for introducing concentrated solar radiation, and a gasification chamber having a preferably rectangular bottom and receiving means for the charging material, characterized in that the receiving means are comprised of at least one, preferably elongated drawer (7,8,20,21,22,23) that is movable relative to the gasification chamber.
A system for monitoring fluid properties in real-time, the system comprising: a flow loop having a fluid inlet and a fluid outlet, the flow loop comprising: a plurality of pipe sections,,,,, forming the flow loop, wherein each pipe section of the plurality of pipe sections,,,,, is in fluid communication with each other; and sensor pairs, the sensors being piezoelectric devices,,,,, fluidly coupled to each of the pipe sections perpendicular to fluid flow within each of the pipe sections; characterized in that each of the pipe sections comprises an inner diameter that differs from each other pipe section; wherein each of the pipe sections of the plurality of pipe sections,,,,, comprise a size and length such that each of the pipe sections replicate pre-determined fluid shear rates; and wherein the piezoelectric devices,,,,, measure fluid at different velocities corresponding to the differing inner diameters of each of the pipe sections. a plurality of pipe sections,,,,, forming the flow loop, wherein each pipe section of the plurality of pipe sections,,,,, is in fluid communication with each other; and sensor pairs, the sensors being piezoelectric devices,,,,, fluidly coupled to each of the pipe sections perpendicular to fluid flow within each of the pipe sections; characterized in that each of the pipe sections comprises an inner diameter that differs from each other pipe section; wherein each of the pipe sections of the plurality of pipe sections,,,,, comprise a size and length such that each of the pipe sections replicate pre-determined fluid shear rates; and wherein the piezoelectric devices,,,,, measure fluid at different velocities corresponding to the differing inner diameters of each of the pipe sections.
A bacterial strain deposited to the CNCM under the accession number 1-4573, for use in the treatment and/or prevention of visceral abdominal pain in an individual.
A fill level measurement device for determining a topology of a surface of a filling material, comprising: an antenna arrangement with at least three antenna devices (132, 134, 136), each being configured to transmit a radar signal and to receive a signal reflected at the surface of the filling material; and a control unit; wherein the antenna arrangement comprises at least three antenna faces (133, 135, 137), the surface normal vectors of which are transversally arranged relative to each other; wherein a respective one of the antenna devices (132, 134, 136) is arranged on each antenna face (133, 135, 137) so that a different solid angle range (138, 140, 142) is detectable by each of the antenna devices (132, 134, 136); wherein each of the antenna devices (132, 134, 136) is configured to generate a measurement signal based on the reflected signal; wherein the control unit is configured to process the measurement signals of the antenna devices and/or to combine the measurement signals to form a common measurement signal; and wherein the solid angle ranges (138, 140, 142) detectable by the antenna devices (132, 134, 136) are each variable using analogue beam forming and/or digital beam forming. an antenna arrangement with at least three antenna devices (132, 134, 136), each being configured to transmit a radar signal and to receive a signal reflected at the surface of the filling material; and a control unit; wherein the antenna arrangement comprises at least three antenna faces (133, 135, 137), the surface normal vectors of which are transversally arranged relative to each other; wherein a respective one of the antenna devices (132, 134, 136) is arranged on each antenna face (133, 135, 137) so that a different solid angle range (138, 140, 142) is detectable by each of the antenna devices (132, 134, 136); wherein each of the antenna devices (132, 134, 136) is configured to generate a measurement signal based on the reflected signal; wherein the control unit is configured to process the measurement signals of the antenna devices and/or to combine the measurement signals to form a common measurement signal; and wherein the solid angle ranges (138, 140, 142) detectable by the antenna devices (132, 134, 136) are each variable using analogue beam forming and/or digital beam forming.
A method comprising: using a processor (10; 710) to decide whether to use depth offset compression or adaptive depth offset compression, the depth offset compression using a same number of residual bits for Zmin residuals and for Zmax residuals and the adaptive depth offset compression using different numbers of residual bits for Zmin residuals and for Zmax residuals, wherein Zmin represents the minimum depth and Zmax represents the maximum depth, and residual bits specify a difference value for each sample relative to either Zmin or Zmax, and when adaptive depth offset compression is used: indicating adaptive depth offset compression by swapping Zmin and Zmax, storing bits to indicate a distribution of residual bits for the residuals encoded relative to Zmin and Zmax, and storing the residual bits for the samples that are encoded relative to Zmin using a first number of bits per residual and storing the residuals for the samples that are encoded relative to Zmax using a second number of bits, wherein the first and second numbers are different. using a processor (10; 710) to decide whether to use depth offset compression or adaptive depth offset compression, the depth offset compression using a same number of residual bits for Zmin residuals and for Zmax residuals and the adaptive depth offset compression using different numbers of residual bits for Zmin residuals and for Zmax residuals, wherein Zmin represents the minimum depth and Zmax represents the maximum depth, and residual bits specify a difference value for each sample relative to either Zmin or Zmax, and when adaptive depth offset compression is used: indicating adaptive depth offset compression by swapping Zmin and Zmax, storing bits to indicate a distribution of residual bits for the residuals encoded relative to Zmin and Zmax, and storing the residual bits for the samples that are encoded relative to Zmin using a first number of bits per residual and storing the residuals for the samples that are encoded relative to Zmax using a second number of bits, wherein the first and second numbers are different.
A mass spectrum processing apparatus comprising: a composition estimating unit that is configured to estimate a composition based on at least one of a first monoisotopic peak included in a first peak group in a first mass spectrum produced through soft ionization of a sample, or a second monoisotopic peak included in a second peak group in a second mass spectrum produced through hard ionization of the sample, wherein the first peak group corresponds to one of an isotope pattern of a molecular ion to which a proton is not added, an isotope pattern of a molecular ion to which a proton is added, or a combined isotope pattern in which these isotope pattern are overlapped, and wherein the second peak group corresponds to one of an isotope pattern of a molecular ion from which hydrogen is not desorbed, an isotope pattern of a molecular ion from which hydrogen is desorbed, or a combined isotope pattern in which these isotope pattern are overlapped; a primary pattern matching unit that is configured to attempt primary pattern matching between the first peak group and the second peak group; and a first secondary pattern matching unit that is configured to attempt, when the primary pattern matching is successful, secondary pattern matching between a representative peak group which represents the first peak group and the second peak group, and an isotope pattern theoretically derived from the estimated composition, to thereby evaluate the estimated composition. a composition estimating unit that is configured to estimate a composition based on at least one of a first monoisotopic peak included in a first peak group in a first mass spectrum produced through soft ionization of a sample, or a second monoisotopic peak included in a second peak group in a second mass spectrum produced through hard ionization of the sample, wherein the first peak group corresponds to one of an isotope pattern of a molecular ion to which a proton is not added, an isotope pattern of a molecular ion to which a proton is added, or a combined isotope pattern in which these isotope pattern are overlapped, and wherein the second peak group corresponds to one of an isotope pattern of a molecular ion from which hydrogen is not desorbed, an isotope pattern of a molecular ion from which hydrogen is desorbed, or a combined isotope pattern in which these isotope pattern are overlapped; a primary pattern matching unit that is configured to attempt primary pattern matching between the first peak group and the second peak group; and a first secondary pattern matching unit that is configured to attempt, when the primary pattern matching is successful, secondary pattern matching between a representative peak group which represents the first peak group and the second peak group, and an isotope pattern theoretically derived from the estimated composition, to thereby evaluate the estimated composition.
A method for forming an elongate, hollow beam of a fiber-reinforced composite material, comprising the steps of: - providing an elongate, metallic tool bar having a first end and a second end and having a fixed anvil at said first end of the tool bar, - applying at least one layer of a resin-impregnated fiber-reinforced prepreg tape around the tool bar so as to form an uncured article thereon, one end of which engaging a support surface of the fixed anvil, - heating the article on the tool bar for curing the article, and - dismantling the cured, cooled article from the tool bar in a direction away from the first end towards the second end of the tool bar. - providing an elongate, metallic tool bar having a first end and a second end and having a fixed anvil at said first end of the tool bar, - applying at least one layer of a resin-impregnated fiber-reinforced prepreg tape around the tool bar so as to form an uncured article thereon, one end of which engaging a support surface of the fixed anvil, - heating the article on the tool bar for curing the article, and - dismantling the cured, cooled article from the tool bar in a direction away from the first end towards the second end of the tool bar.
Modular system for the insulation of a compartment for rolling shutters obtained at the perimeter wall of a building, said compartment being closable below by a removable cover, the modular system comprising: a revolving roller positioned between an upper lintel and a lower lintel and extended along a longitudinal direction (Z-Z) to allow the winding and unwinding of a rolling shutter around the roller, said rolling shutter being movable in a passage slot located between the perimeter wall and the lower lintel, a first upper panel made of non-elastic insulating material and structurally shaped so as to at least partly extend around the roller, a second lower panel intended to be installed at least partly on top of the lower lintel of the compartment between the slot and the first panel, and a third lower panel (3, 4) intended to be installed at least partly on top of the cover and between said first and said second panel, wherein each panel (1, 2, 3, 4) is interconnected by interlocking to an adjacent panel, characterized by the fact that said first panel is constrained to the upper lintel and to the perimeter wall without possibility of removal from the compartment, has an upper surface with a substantially straight pattern to follow the pattern and abut against the internal surface of the upper lintel, and wherein the front surface of the first panel extends downwardly by a length substantially equal to the height of the compartment and is flat and perpendicular to the upper surface. a revolving roller positioned between an upper lintel and a lower lintel and extended along a longitudinal direction (Z-Z) to allow the winding and unwinding of a rolling shutter around the roller, said rolling shutter being movable in a passage slot located between the perimeter wall and the lower lintel, a first upper panel made of non-elastic insulating material and structurally shaped so as to at least partly extend around the roller, a second lower panel intended to be installed at least partly on top of the lower lintel of the compartment between the slot and the first panel, and a third lower panel (3, 4) intended to be installed at least partly on top of the cover and between said first and said second panel, wherein each panel (1, 2, 3, 4) is interconnected by interlocking to an adjacent panel, characterized by the fact that said first panel is constrained to the upper lintel and to the perimeter wall without possibility of removal from the compartment, has an upper surface with a substantially straight pattern to follow the pattern and abut against the internal surface of the upper lintel, and wherein the front surface of the first panel extends downwardly by a length substantially equal to the height of the compartment and is flat and perpendicular to the upper surface.
Valve assembly comprising at least one mechanically actuable valve, which has a valve member switchable between various switching positions while performing a linear switch-over movement in the axial direction of a main axis and which is provided with an actuating device having an actuating member, which can be driven mechanically to perform a rotational input movement around an axis of rotation perpendicular to the main axis and which is motion-coupled to the valve member for generating the linear switch-over movement of the valve member and has an output section, which joins in the rotational input movement and which has at least one power output structure (48a, 48b), which acts together in terms of drive with the valve member to generate the switch-over movement and is arranged eccentrically relative to the axis of rotation, wherein the actuating device has a gate slide (22, 22a, 22b), which is incorporated in a power-transmitting manner between the output section and the valve member, is movable relative to the valve housing in the axial direction of the main axis and is provided with at least one drive gate (18, 18a, 18b), with which a power output structure (48a, 48b) of the output section acts together to generate a linear drive movement of the gate slide (22, 22a, 22b), which is derived from the rotational input movement and oriented in the axial direction of the main axis and from which the switch-over movement of the valve member results, wherein, depending on the design of the drive gate (18, 18a, 18b) of the gate slide (22, 22a, 22b), a different movement behaviour of the gate slide (22, 22a, 22b) and thus of the valve member driven by the gate slide can be induced in the rotational input movement of the actuating member, characterised in that the valve assembly comprises a plurality of gate slides (22, 22a, 22b) with drive gates (18, 18a, 18b) of different designs which, depending on the valve type of the mechanically actuable valve, can be used alternatively to induce a different movement behaviour of the respective associated valve member.
Method to control an on board unit within a communication zone of a road side unit, whereby the OBU is adapted to be set into an active mode, a sleep mode and a tracking mode, the method comprising the steps of: setting the OBU in the active mode when the OBU is entering the communication zone (4,7) such that a communication unit of the OBU is powered and the OBU can communicate with the RSU, and setting the OBU in the sleep mode upon receiving a release command from the RSU such that all functions of the OBU except a wake-up circuit are powered down and no or a minimum of power is consumed by the OBU; the method comprising the following characterising steps: in the active mode, if the OBU has not reached a predetermined position within the communication zone, setting the OBU in the tracking mode upon receiving a command from the RSU, in the tracking mode, powering down the communication unit and activating a timer in the OBU, and in the tracking mode, restarting the communication unit upon expiry of a specified time limit such that the OBU transits to the active mode. setting the OBU in the active mode when the OBU is entering the communication zone (4,7) such that a communication unit of the OBU is powered and the OBU can communicate with the RSU, and setting the OBU in the sleep mode upon receiving a release command from the RSU such that all functions of the OBU except a wake-up circuit are powered down and no or a minimum of power is consumed by the OBU; the method comprising the following characterising steps: in the active mode, if the OBU has not reached a predetermined position within the communication zone, setting the OBU in the tracking mode upon receiving a command from the RSU, in the tracking mode, powering down the communication unit and activating a timer in the OBU, and in the tracking mode, restarting the communication unit upon expiry of a specified time limit such that the OBU transits to the active mode. in the active mode, if the OBU has not reached a predetermined position within the communication zone, setting the OBU in the tracking mode upon receiving a command from the RSU, in the tracking mode, powering down the communication unit and activating a timer in the OBU, and in the tracking mode, restarting the communication unit upon expiry of a specified time limit such that the OBU transits to the active mode.