mhurhangee/ep-ind-claims huggingface dataset:
A building opening shadowing device, in particular a roller shutter comprising an extendable guide rails arrangement having two lateral guide rails (4a, 4b) for lowering and raising a curtain in front of the building opening, and at least with a lower swinging section which can be swung out from the building opening around an upper hinge axle, and further comprising an extendable arm (212; 312) arranged below the hinge axle of the swinging section, such extendable arm (212; 312) acting on the swinging section by means of an actuating section (215; 315) and being linked to a spaced attachment section (214; 314) on the building opening side, with a torque source being provided above or at the height level of the hinge axle, and further a power train (9, 5, 10, 18, 19, 20, 214; 9, 105a, 105, 110, 314, 319, 318, 320) to transmit an output power issued by the torque source to the extendable arm (12; 212; 312) to swing out the swinging section, and to transmit the own weight of the swinging section to the torque source when swinging back, and with the actuating section (215; 315) of the extendable arm (212; 312) being designed as a joint section (215; 315) on the side of the swinging section which is articulated to the swinging section and the attachment section (214; 314) of the extendable arm (212; 312) on the side of the building opening being designed as a joint section (215; 315) on the side of the building opening which is articulated on the side of the building opening and moveably guided in the direction of a pressure and/or tension force initiated by a pressure or tension means (10; 110), preferably in the frame component attachable on the building opening side, with the attachment section (214; 314) of the extendable arm (212; 312) on the side of the building opening being linked to the pressure or tension means, characterized in that provision is made for a locking unit (18, 19, 20; 319, 318, 320) linked to the power train (9, 5, 10, 18, 19, 20, 214; 9, 105a, 105, 110, 314, 319, 318, 320) and actuatable with the power train (9, 5, 10, 18, 19, 20, 214; 9, 105a, 105, 110, 314, 319, 318, 320) for locking and unlocking the swinging section, in such a manner that when actuating the power train (9, 5, 10, 14, 13, 16, 18, 19, 20; 9, 105, 110, 114, 13, 116, 118, 119a, 119, 120; 9, 5, 10, 18, 19, 20, 214; 105a, 105, 110, 314, 319, 318, 320) in the swing out direction the swinging section is unlocked before the swinging out starts, and when actuating the power train in swing in direction, the swinging in is activated before the swinging section is locked.
Coupling apparatus for connecting an agricultural implement to a rearward three-point linkage of a prime mover, the coupling apparatus comprising a carrier element adapted for connecting to the prime mover, a mounting element adapted for coupling to the agricultural implement, a linkage mechanism connecting the mounting element to the carrier element with the mounting element and the agricultural implement suspended by the linkage mechanism from the carrier element, the linkage mechanism defining a main pivot axis about which the mounting element and the agricultural implement are moveable relative to the carrier element between an operative state and a displaced state displaced from the operative state, and a resilient element connected between the carrier element and the mounting element and configured to resiliently urge the mounting element and the agricultural implement into the operative state, characterised in that the linkage mechanism comprises a first link member pivotally connected to the carrier element about a first pivot axis at a first location and pivotally connected to the mounting element about a second pivot axis at a second location, a second link member pivotally connected to the carrier element about the first pivot axis at a third location spaced apart from the first location along the first pivot axis and pivotally connected to the mounting element about the second pivot axis at a fourth location spaced apart from the second location along the second pivot axis, and a third link member pivotally connected to one of the carrier element and the mounting element about a third pivot axis at a fifth location and pivotally connected to the other one of the carrier element and the mounting element about a fourth pivot axis at a sixth location, the first, second, third and fourth pivot axes (40,58,65,70) being spaced apart from each other and extending parallel to each other and substantially transversely relative to the direction of normal forward motion of the agricultural implement, the first link member is pivotally connected to the carrier element about the first pivot axis at a seventh location spaced apart from the first location along the first pivot axis for minimising slewing of the mounting element relative to the carrier element about the linkage mechanism, and a stabilising means (34,35) comprising a pair of spaced apart abutment elements (34,35) extends from the carrier element for engaging the first link member adjacent the first location and the seventh location for minimising axial movement of the first link member along the first pivot axis.
A paperboard packaging container for bulk solids, said container comprising a container body formed by a container wall and a container bottom, said container wall comprising at least two wall portions (3, 4. 5, 6) and extending in a height direction of said container from a lower end edge at said container bottom to an upper end edge at a container opening, said height direction being perpendicular to a cross direction of said container, wherein at least one of said wall portions (3,4,5,6) is connected to another wall portion (3, 4, 5, 6) by a curved corner portion of said container wall, a radius of curvature of said curved corner portion being smaller than a radius of curvature of said wall portions (3, 4, 5, 6) being connected by said curved corner portion, and an upper reinforcing rim being applied to said upper end edge of said container wall, characterized in that each of said upper and lower end edge of said container wall comprises an edge portion (3', 4', 5', 6') corresponding to a wall portion (3, 4, 5, 6), said edge portion (3', 4', 5', 6') of said container wall having an outwardly curved shape and having a radius of curvature of 300-600 mm, preferably 400-500 mm.
A heat conductive sheet comprising fibrous fillers and a binder resin, wherein a ratio of the fibrous fillers that are not oriented in a direction of a thickness of the heat conductive sheet in all the fibrous fillers is 45 to 95%, as determined by observing the fibrous fillers under a microscope and counting the number of the fibrous fillers contained in a unit cube with a cube of side of 0.5 mm, characterized in that the average fiber length of the fibrous filler is 40 to 250 μm).
An apparatus configured to determine an optimum combination of multiple cells or cell culturing conditions, comprising a storage unit and a control unit, wherein the storage unit stores data about cell proliferation or biomass production for each cell and each condition, and the control unit includes: a setting unit configured to set, for each combination of multiple cells or cell culturing conditions a production output based upon the stored data and a variable indicating an extent of variation of the production output; a variable range calculating unit configured to calculate a variable range of the production output and the variable for different combinations of multiple cells or conditions based on the production output and the variable set by the setting unit; and an optimizing unit configured to calculate an optimum combination of multiple cells or cell culturing conditions within the variable range by calculating a combination representing maximum production as a function of the variable within the variable range by using an optimization method. a setting unit configured to set, for each combination of multiple cells or cell culturing conditions a production output based upon the stored data and a variable indicating an extent of variation of the production output; a variable range calculating unit configured to calculate a variable range of the production output and the variable for different combinations of multiple cells or conditions based on the production output and the variable set by the setting unit; and an optimizing unit configured to calculate an optimum combination of multiple cells or cell culturing conditions within the variable range by calculating a combination representing maximum production as a function of the variable within the variable range by using an optimization method.
MRI system with an RF transmit coil and an RF transmitter comprising: - an RF amplifier for generating RF pulses and for forwarding these RF pulses to the RF transmit coil of the MRI system, - a capacitor bank coupled to the RF amplifier, for storing electric energy and for providing the RF amplifier with a current for generating the RF pulses, - a mains power supply coupled to the capacitor bank, for generating a charging current for charging the capacitor bank with electric energy, and - a power supply control unit coupled to the mains power supply, for controlling the generation of the charging current for the capacitor bank, characterised in that the MRI system further comprises - an information unit coupled to the power supply control unit and being adapted for generating an indication signal on the basis of an upcoming current drawn from the capacitor bank on the basis of an upcoming RF power demand for the transmit coil of the MRI system, wherein the power supply control unit is adapted for receiving the indication signal indicating the upcoming current drawn from the capacitor bank and for controlling the generation of the charging current for the capacitor bank on the basis of the indication signal. - an RF amplifier for generating RF pulses and for forwarding these RF pulses to the RF transmit coil of the MRI system, - a capacitor bank coupled to the RF amplifier, for storing electric energy and for providing the RF amplifier with a current for generating the RF pulses, - a mains power supply coupled to the capacitor bank, for generating a charging current for charging the capacitor bank with electric energy, and - a power supply control unit coupled to the mains power supply, for controlling the generation of the charging current for the capacitor bank, characterised in that the MRI system further comprises - an information unit coupled to the power supply control unit and being adapted for generating an indication signal on the basis of an upcoming current drawn from the capacitor bank on the basis of an upcoming RF power demand for the transmit coil of the MRI system, wherein
An apparatus, comprising: a radio transmitter having an output stage with an adjustable output power level; a cellular receiver comprising a radio signal power measurement circuit; and a processor configured to control measurement frequencies of the radio signal power measurement circuit based on frequencies currently used by the radio transmitter, in order to configure the radio signal power measurement circuit to measure a radio signal power of higher level harmonic frequencies transmitted by the radio transmitter the processor being further configured to determine if the radio signal power of the higher level harmonic frequencies interfere with frequencies used by the cellular receiver and to adjust a frequency of a radio transmitter and/or the output power level of the radio transmitter. a radio transmitter having an output stage with an adjustable output power level; a cellular receiver comprising a radio signal power measurement circuit; and a processor configured to control measurement frequencies of the radio signal power measurement circuit based on frequencies currently used by the radio transmitter, in order to configure the radio signal power measurement circuit to measure a radio signal power of higher level harmonic frequencies transmitted by the radio transmitter the processor being further configured to determine if the radio signal power of the higher level harmonic frequencies interfere with frequencies used by the cellular receiver and to adjust a frequency of a radio transmitter and/or the output power level of the radio transmitter.
An aircraft position control system to make a position of an aircraft follow movement of a target landing point due to motion, the aircraft position control system comprising: a motion quantity estimation processing unit configured to estimate a motion quantity of the target landing point, based on attitude correction acceleration obtained by correcting acceleration of the aircraft and based on a relative position between the aircraft and the target landing point, the attitude correction acceleration being an acceleration in an aircraft axis coordinate system converted to an acceleration in an inertial space coordinate system by a coordinate conversion on a basis of an attitude angle of the aircraft; and a target information generation unit configured to output a target relative position between the aircraft and the target landing point to be achieved and target relative velocity between the aircraft and the target landing point to be achieved, based on the estimated motion quantity. a motion quantity estimation processing unit configured to estimate a motion quantity of the target landing point, based on attitude correction acceleration obtained by correcting acceleration of the aircraft and based on a relative position between the aircraft and the target landing point, the attitude correction acceleration being an acceleration in an aircraft axis coordinate system converted to an acceleration in an inertial space coordinate system by a coordinate conversion on a basis of an attitude angle of the aircraft; and a target information generation unit configured to output a target relative position between the aircraft and the target landing point to be achieved and target relative velocity between the aircraft and the target landing point to be achieved, based on the estimated motion quantity.
A system (100, 200) for providing compressed air to pneumatically driven packs (132, 134) of an environmental control system 'ECS' of an vehicle, the system (100, 200) comprising: an auxiliary power unit 'APU' including a gas turbine engine, configured to be a principal source of pneumatic and electrical power for the vehicle, the auxiliary power unit 'APU' having: an engine compressor with an air inlet configured to couple to an interior of a cabin of the vehicle; and a load compressor coupled to be driven by the gas turbine engine, the load compressor having a compressed air outlet configured to couple to each of the pneumatically driven packs (132, 134) of the vehicle; and a plurality of electrically driven cabin air compressors 'CAC' (136, 138) having compressed air outlets configured to couple to the pneumatically driven packs (132, 134). an auxiliary power unit 'APU' including a gas turbine engine, configured to be a principal source of pneumatic and electrical power for the vehicle, the auxiliary power unit 'APU' having: an engine compressor with an air inlet configured to couple to an interior of a cabin of the vehicle; and a load compressor coupled to be driven by the gas turbine engine, the load compressor having a compressed air outlet configured to couple to each of the pneumatically driven packs (132, 134) of the vehicle; and an engine compressor with an air inlet configured to couple to an interior of a cabin of the vehicle; and a load compressor coupled to be driven by the gas turbine engine, the load compressor having a compressed air outlet configured to couple to each of the pneumatically driven packs (132, 134) of the vehicle; and a plurality of electrically driven cabin air compressors 'CAC' (136, 138) having compressed air outlets configured to couple to the pneumatically driven packs (132, 134).
An organ resection tool, comprising a brush-like structure capable of performing microwave irradiation and a brush-like structure capable of receiving a microwave.
A pyrotechnic pressure accumulator, comprising: an elongated body extending axially from a first end of a pyrotechnic section to a discharge end of a hydraulic section; a breech chamber located in the pyrotechnic section between the first end and a breech barrier having a breech orifice; a piston movably disposed in an axial bore of the hydraulic section and forming a hydraulic chamber between a hydraulic side of the piston and the discharge end; a propellant charge located in the breech chamber; a fluid disposed in the hydraulic chamber, wherein the fluid is exhausted under pressure through a discharge port in response to ignition of the propellant charge; and a one-way flow control device connected with the discharge port permitting one-way flow from the hydraulic chamber and blocking fluid flow through the discharge port into the hydraulic chamber. an elongated body extending axially from a first end of a pyrotechnic section to a discharge end of a hydraulic section; a breech chamber located in the pyrotechnic section between the first end and a breech barrier having a breech orifice; a piston movably disposed in an axial bore of the hydraulic section and forming a hydraulic chamber between a hydraulic side of the piston and the discharge end; a propellant charge located in the breech chamber; a fluid disposed in the hydraulic chamber, wherein the fluid is exhausted under pressure through a discharge port in response to ignition of the propellant charge; and a one-way flow control device connected with the discharge port permitting one-way flow from the hydraulic chamber and blocking fluid flow through the discharge port into the hydraulic chamber.
Valve device for the prevention of backflow in a flow channel of a sewer and for preventing rodents from passing upstream said flow channel, said valve device comprising a first body for being mounted at least partially within the flow channel of the sewer, said first body defining a first channel having an inlet and an outlet, said first body comprising at least one flap valve pivotally movable between a closed position and an open position, wherein in the open position sewage and/or water is able to flow through said first channel and in the closed position said sewage and/or water is prevented to flow through said first channel, characterised in that said first body further comprises a first and a second pivotally movable shutter arranged downstream of the at least one flap valve, the first and second pivotally movable shutters arranged facing each other and being spaced apart at a distance for preventing rodents from passing through said shutters, said first and second pivotally movable shutters being configured to allow sewage and/or water to flow in a downstream direction of the flow channel of the sewer.
A terminal apparatus that communicates with a base station apparatus adapted for managing ultra-reliable and low-latency communication, URLLC, transmission, the terminal apparatus comprising: a receiving unit configured to receive a radio resource control message comprising first information used for indicating a periodicity, the receiving unit configured to receive, on a physical downlink control channel, PDCCH, a downlink control information, DCI, with Cyclic Redundancy Check, CRC, scrambled by a first Radio Network Temporary Identifier, RNTI, which is for semi-persistent scheduling, the DCI comprising second information, the second information indicating a time domain resource; and a transmitting unit configured to perform, based on the first information and the DCI with the CRC scrambled by the first RNTI, a transmission on a physical uplink shared channel, PUSCH, in a symbol within each of a plurality of slots, each of the plurality of slots being separated by an interval indicated by the periodicity, wherein an index of the symbol in which the transmission on the PUSCH is performed is indicated by the second information, and an index of a starting slot in which the transmission on the PUSCH is performed is derived based on a timing relationship between the PDCCH and the PUSCH, the timing relationship being indicated by the second information. a receiving unit configured to receive a radio resource control message comprising first information used for indicating a periodicity, the receiving unit configured to receive, on a physical downlink control channel, PDCCH, a downlink control information, DCI, with Cyclic Redundancy Check, CRC, scrambled by a first Radio Network Temporary Identifier, RNTI, which is for semi-persistent scheduling, the DCI comprising second information, the second information indicating a time domain resource; and a transmitting unit configured to perform, based on the first information and the DCI with the CRC scrambled by the first RNTI, a transmission on a physical uplink shared channel, PUSCH, in a symbol within each of a plurality of slots, each of the plurality of slots being separated by an interval indicated by the periodicity, wherein an index of the symbol in which the transmission on the PUSCH is performed is indicated by the second information, and an index of a starting slot in which the transmission on the PUSCH is performed is derived based on a timing relationship between the PDCCH and the PUSCH, the timing relationship being indicated by the second information.
A hydrogenated styrenic block copolymer represented by at least one formula selected from: S-EP-EB, (S-EP-EB) n X, and S-EP-EB-EP-S, wherein n is from 2 to 30 and X is a residue of a coupling agent; wherein prior to hydrogenation, each block S is a polymer block of a vinyl aromatic monomer, wherein the block S has a true molecular weight of 2 to 15 kg/mol, each block EP is a polyisoprene block derived from isoprene monomer, wherein the block EP has a true molecular weight of 30 to 70 kg/mol, and each block EB is a polybutadiene block derived from 1,3-butadiene monomer, wherein the block EB has a true molecular weight of 10 to 70 kg/mol, and a vinyl content of 10 to 90 wt.%, based on total weight of the polymerized 1,3-butadiene monomer in the block EB; wherein after hydrogenation, each polyisoprene block and polybutadiene block is hydrogenated to a hydrogenation level of greater than 90%; and wherein the hydrogenated styrenic block copolymer has: a polystyrene content of 5 to 20 wt.%, and a peak molecular weight (M p) of 40 to 300 kg/mol, measured according to ASTM 5296-19. wherein prior to hydrogenation, each block S is a polymer block of a vinyl aromatic monomer, wherein the block S has a true molecular weight of 2 to 15 kg/mol, each block EP is a polyisoprene block derived from isoprene monomer, wherein the block EP has a true molecular weight of 30 to 70 kg/mol, and each block EB is a polybutadiene block derived from 1,3-butadiene monomer, wherein the block EB has a true molecular weight of 10 to 70 kg/mol, and a vinyl content of 10 to 90 wt.%, based on total weight of the polymerized 1,3-butadiene monomer in the block EB; each block S is a polymer block of a vinyl aromatic monomer, wherein the block S has a true molecular weight of 2 to 15 kg/mol, each block EP is a polyisoprene block derived from isoprene monomer, wherein the block EP has a true molecular weight of 30 to 70 kg/mol, and each block EB is a polybutadiene block derived from 1,3-butadiene monomer, wherein the block EB has a true molecular weight of 10 to 70 kg/mol, and a vinyl content of 10 to 90 wt.%, based on total weight of the polymerized 1,3-butadiene monomer in the block EB; wherein after hydrogenation, each polyisoprene block and polybutadiene block is hydrogenated to a hydrogenation level of greater than 90%; and wherein the hydrogenated styrenic block copolymer has: a polystyrene content of 5 to 20 wt.%, and a peak molecular weight (M p) of 40 to 300 kg/mol, measured according to ASTM 5296-19. a polystyrene content of 5 to 20 wt.%, and a peak molecular weight (M p) of 40 to 300 kg/mol, measured according to ASTM 5296-19.