mhurhangee/ep-ind-claims huggingface dataset:
System for regulating the temperature of the cabin of an aircraft when on the ground, comprising: - a plurality of sensors configured to be arranged in various zones of the cabin, each sensor being configured to acquire, in real time, data representative of the temperature of the zone of the cabin, - a computer server configured to receive, in real time, the data from the plurality of sensors and comprising a database containing, for the aircraft, a predetermined cycle of regulation of the temperature of the air of the cabin to a predetermined temperature during a given duration, - a ground pre-conditioned air unit, external to the aircraft, comprising: • a pre-conditioned air generator for generating pre-conditioned air in the cabin, and • a control module connected to the pre-conditioned air generator and configured to receive the data from the computer server, - a user interface connected to the computer server, and configured to access the data (24, 40) from the computer server and to transmit a control signal to the control module, wherein the control module is configured, upon receiving the control signal, to control, in real time, the pre-conditioned air generator, according to the predetermined cycle, the predetermined cycle being modulated, in real time, depending on the data from the computer server. - a plurality of sensors configured to be arranged in various zones of the cabin, each sensor being configured to acquire, in real time, data representative of the temperature of the zone of the cabin, - a computer server configured to receive, in real time, the data from the plurality of sensors and comprising a database containing, for the aircraft, a predetermined cycle of regulation of the temperature of the air of the cabin to a predetermined temperature during a given duration, - a ground pre-conditioned air unit, external to the aircraft, comprising: • a pre-conditioned air generator for generating pre-conditioned air in the cabin, and • a control module connected to the pre-conditioned air generator and configured to receive the data from the computer server, - a user interface connected to the computer server, and configured to access the data (24, 40) from the computer server and to transmit a control signal to the control module, • a pre-conditioned air generator for generating pre-conditioned air in the cabin, and • a control module connected to the pre-conditioned air generator and configured to receive the data from the computer server, - a user interface connected to the computer server, and configured to access the data (24, 40) from the computer server and to transmit a control signal to the control module,
Block-type plate heat exchanger comprising a top head, a bottom head, four side panels (108a, 108b, 108c, 108d), and four corner girders (110a, 110b, 110c, 110d), wherein the side panels (108a, 108b, 108c, 108d) and the corner girders (110a, 110b, 110c, 110d) extend along a longitudinal direction from the bottom head to the top head, wherein each side panel (108a, 108b, 108c, 108d) is associated with two corner girders (110a, 110b, 110c, 110d), wherein the top head, the bottom head, the four side panels (108a, 108b, 108c, 108d) and the four corner girders (110a, 110b, 110c, 110d) are bolted together to form a sealed enclosure for housing a pack of heat exchanging plates, characterised in that at least one of the side panels (108a, 108b, 108c, 108d) is divided into at least two separate plates (112a, 112b, 112c, 112d, 112e) arranged one after another along the longitudinal direction, wherein the at least two separate plates (112a, 112b, 112c, 112d, 112e) include a first separate plate being adapted to be bolted to the top head and a second separate plate being adapted to be bolted to the bottom head, wherein the first separate plate is provided with bolt holes along first, second and third edges (116a, 116b, 116c) and is adapted to be bolted to the top head along a first edge and adapted to be bolted to two associated corner girders (110a, 110b) along second and third edges (116b, 116c) of the first separate plate, wherein a fourth edge of the first separate plate is free from bolt holes, and wherein the second separate plate is provided with bolt holes along first, second and third edges (116a, 116b, 116c) and is adapted to be bolted to the bottom head along a first edge and adapted to be bolted to the two associated corner girders (110a, 110b) along second and third edges (116b, 116c) of the second separate plate, wherein a fourth edge of the second separate plate is free from bolt holes.
A power toothbrush, comprising: a handle portion containing a power drive system; a brushhead assembly, including a brush member having a bristle field at a distal end thereof; a drive train assembly responsive to a drive signal of the power drive system for producing a motion of the brushhead assembly; a magnet positioned so that it moves in conjunction with the brushhead assembly motion, the magnet producing a magnetic field; a Hall effect sensor mounted within the magnetic field, wherein the Hall effect sensor is arranged to detect a change in phase between the drive signal of the power drive system and the brushhead assembly motion, as followed by movement of the magnet, as pressure on the bristle field changes, so that the magnetic field response output signal of the Hall effect sensor has a phase shift relative to the phase of the drive signal; and a processor for determining the phase shift of the Hall effect sensor output due to pressure on the bristle field during brushing operations and for producing a signal indicative of said pressure, in accordance with stored information in the power toothbrush relating values of phase shift to pressure. a handle portion containing a power drive system; a brushhead assembly, including a brush member having a bristle field at a distal end thereof; a drive train assembly responsive to a drive signal of the power drive system for producing a motion of the brushhead assembly; a magnet positioned so that it moves in conjunction with the brushhead assembly motion, the magnet producing a magnetic field; a Hall effect sensor mounted within the magnetic field, wherein the Hall effect sensor is arranged to detect a change in phase between the drive signal of the power drive system and the brushhead assembly motion, as followed by movement of the magnet, as pressure on the bristle field changes, so that the magnetic field response output signal of the Hall effect sensor has a phase shift relative to the phase of the drive signal; and a processor for determining the phase shift of the Hall effect sensor output due to pressure on the bristle field during brushing operations and for producing a signal indicative of said pressure, in accordance with stored information in the power toothbrush relating values of phase shift to pressure.
An optically variable security element for securing objects of value, the areal expansion of which defines a z-axis standing perpendicularly thereon, with a reflective areal region, wherein - the reflective areal region contains a primary structure in the form of a first embossing lacquer layer with a fist embossed relief structure, - the first embossing lacquer layer is covered partially by a secondary structure, so that on the first embossing lacquer layer there are overlap regions present with the secondary structure and there are free regions present without the secondary structure, - the primary structure and the secondary structure are supplied with a common reflection-enhancing coating, so that the reflection-enhancing coating is arranged in the overlap regions on the secondary structure and in the free regions on the primary structure, - characterized in that the reflection-enhancing coating contains a layer of a phase-change material, which produces a different color impression and/or a different reflectivity of the coating in the crystalline and the amorphous material state, and in that - in at least one section the phase-change material is present in the overlap regions in the amorphous state and in the free regions in the crystalline state, or vice versa. - the reflective areal region contains a primary structure in the form of a first embossing lacquer layer with a fist embossed relief structure, - the first embossing lacquer layer is covered partially by a secondary structure, so that on the first embossing lacquer layer there are overlap regions present with the secondary structure and there are free regions present without the secondary structure, - the primary structure and the secondary structure are supplied with a common reflection-enhancing coating, so that the reflection-enhancing coating is arranged in the overlap regions on the secondary structure and in the free regions on the primary structure, - characterized in that the reflection-enhancing coating contains a layer of a phase-change material, which produces a different color impression and/or a different reflectivity of the coating in the crystalline and the amorphous material state, and in that - in at least one section the phase-change material is present in the overlap regions in the amorphous state and in the free regions in the crystalline state, or vice versa.
A method of adhering a first structure including a first surface to a second structure including a second surface, the method comprising the steps of: (a) applying a primer, formulated with a primer fugitive inhibitor, to the first surface and to the second surface, wherein the primer comprises a platinum catalysed silane composition; (b) applying a film adhesive, formulated with a catalyst stable at room temperature conditions, to one of the first surface and the second surface so as to create first and second pre-adhered surfaces, wherein the film adhesive comprises a silicone composition; (c) placing the first pre-adhered surface into contact with the second pre-adhered surface to form a pre-adhered assembly; and (d) placing the pre-adhered assembly under a vacuum for a period of time to remove the primer fugitive inhibitor so as to permit the first and second pre-adhered surfaces to be adhered to one another. (a) applying a primer, formulated with a primer fugitive inhibitor, to the first surface and to the second surface, wherein the primer comprises a platinum catalysed silane composition; (b) applying a film adhesive, formulated with a catalyst stable at room temperature conditions, to one of the first surface and the second surface so as to create first and second pre-adhered surfaces, wherein the film adhesive comprises a silicone composition; (c) placing the first pre-adhered surface into contact with the second pre-adhered surface to form a pre-adhered assembly; and (d) placing the pre-adhered assembly under a vacuum for a period of time to remove the primer fugitive inhibitor so as to permit the first and second pre-adhered surfaces to be adhered to one another.
A transmit power control system, comprising: an output power estimator for estimating a power (Pmeas) at the output of a power amplifier; and a transmit power controller responsive to the output power estimator and arranged to compare the estimate of the power (Pmeas) at the output of the power amplifier generated by the output power estimator with a requested power (Prqust) in order to calculate a target power (Ptgt) which takes account of errors within the transmit power control system, and to vary a gain of an amplifier in a transmit signal path so as to reduce an error between the estimate of the power (Pmeas) at the output of the power amplifier and the requested power (Prqst) based on the calculated target power (Ptgt); wherein the output power estimator is adapted to compare the amplitude of an input signal to the amplifier and a down-converted portion of an output signal from the power amplifier, so as to form an estimate of the gain of the amplifier, and to combine the estimate of the gain of the amplifier with an estimate of long term average power in the input signal so as to form the estimate of the power (Pmeas) at the output of the power amplifier. an output power estimator for estimating a power (Pmeas) at the output of a power amplifier; and a transmit power controller responsive to the output power estimator and arranged to compare the estimate of the power (Pmeas) at the output of the power amplifier generated by the output power estimator with a requested power (Prqust) in order to calculate a target power (Ptgt) which takes account of errors within the transmit power control system, and to vary a gain of an amplifier in a transmit signal path so as to reduce an error between the estimate of the power (Pmeas) at the output of the power amplifier and the requested power (Prqst) based on the calculated target power (Ptgt); wherein the output power estimator is adapted to compare the amplitude of an input signal to the amplifier and a down-converted portion of an output signal from the power amplifier, so as to form an estimate of the gain of the amplifier, and to combine the estimate of the gain of the amplifier with an estimate of long term average power in the input signal so as to form the estimate of the power (Pmeas) at the output of the power amplifier.
A harvesting apparatus for harvesting and/or picking up plants or plant pieces on the field, comprising at least one pick-up unit for picking up the plants or plant pieces, wherein an adjusting unit is provided for at least partially vertically adjusting the pick-up unit and has an attachment device for attaching the adjusting unit to a motor-driven vehicle, which includes at least one lifting device for lifting or lowering the pick-up unit and/or a carrier frame of the harvesting apparatus, wherein the lifting device has at least one axis of rotation for rotation of the attachment device in relation to the pick-up unit, characterised in that there is provided at least one inertial sensor device for detecting a translatory and/or rotary acceleration of the pick-up unit.
Method of manufacturing an active moisture control material, wherein the material is formed from a base board comprising cellulose fibers and having a basis weight in the range of from 50 to 500 g/m 2 and having a bulk of at least 1.2 cm 3 /g, characterized in that said method comprises a surface treatment of at least one side of said base board with a surface treatment composition comprising carboxymethyl cellulose and a metal salt, wherein said surface treatment composition comprises carboxymethyl cellulose in a range of from 2 to 10 weight-% based on the total solid content of said surface treatment composition, and the metal salt in a range of from 10 to 30 weight-% based on the total solid content of said composition.
A molding process (10, 110) for molding a cured product, the molding process comprising providing an uncured blank (22, 122) including fibers and uncured binder, inserting the uncured blank (22, 122) in a mold cavity formed in a mold (28, 128), closing the mold (28, 128) to trap the uncured blank in the mold cavity to cause the uncured blank to assume a molded shape, transferring a shaping heat to the uncured blank (22, 122) to cause a portion of the binder to be cured so that the molded shape is retained after the removal from the mold and a shaped product (16, 116) is established, opening the mold to release the shaped product (16, 116), inserting the shaped product (16, 116) in a heater (40,162), and transferring a curing heat to the shaped product, wherein during the transferring the curing heat, the curing heat is applied by a heating unit (40,162) in spaced-apart relation to the mold, to cause a remainder of the uncured binder to cure so that a cured product (12,112) is established.
A method for manufacturing an electrode assembly, the method comprising: a step of interposing a plurality of first electrodes one by one, which are spaced apart from each other, between two separators; a step of stacking a second electrode on each of outer surfaces of the separators on each of both sides of the first electrode at positions that are skipped by one of the plurality of positions on which the first electrodes are disposed to alternately continuously form a bi-cell, in which the second electrode/the separator/the first electrode/the separator/the second electrode are sequentially stacked, and a half-cell, in which the separator/the first electrode/the separator are sequentially stacked; a step of cutting the stack into a unit cell in which one bi-cell and one half-cell are connected to each other; a step of performing first sealing so that the stacked separators adhere to each other at an edge portion of the unit cell with the first electrode therebetween; a step of folding the unit cell so that the bi-cell and the half-cell are stacked; a step of performing second sealing to adhere at a portion at which an edge portion of the bi-cell and an edge portion of the half-cell contact each other after the unit cell is folded; and a step of stacking a plurality of folded unit cells to manufacture the electrode assembly, wherein the point at which the second sealing is performed partially overlaps the point at which the first sealing is performed. a step of interposing a plurality of first electrodes one by one, which are spaced apart from each other, between two separators; a step of stacking a second electrode on each of outer surfaces of the separators on each of both sides of the first electrode at positions that are skipped by one of the plurality of positions on which the first electrodes are disposed to alternately continuously form a bi-cell, in which the second electrode/the separator/the first electrode/the separator/the second electrode are sequentially stacked, and a half-cell, in which the separator/the first electrode/the separator are sequentially stacked; a step of cutting the stack into a unit cell in which one bi-cell and one half-cell are connected to each other; a step of performing first sealing so that the stacked separators adhere to each other at an edge portion of the unit cell with the first electrode therebetween; a step of folding the unit cell so that the bi-cell and the half-cell are stacked; a step of performing second sealing to adhere at a portion at which an edge portion of the bi-cell and an edge portion of the half-cell contact each other after the unit cell is folded; and a step of stacking a plurality of folded unit cells to manufacture the electrode assembly, wherein the point at which the second sealing is performed partially overlaps the point at which the first sealing is performed.
A fluid flow metering apparatus comprising a flow passage within which fluid is adapted to flow, and means for propagating an ultrasonic signal through the flow passage, the propagating means comprising a first transducer for sending an ultrasonic signal downstream of the flow and a second transducer for sending a signal upstream of the flow, the apparatus further comprising signal processing circuitry to cause the ultrasonic signal to be transmitted in both directions through the flow passages by the first and second transducers and a processing means to determine information representative of the time of flight of the ultrasonic signals received by the first and second transducers, wherein the signal processing circuitry is operable to provide a drive signal which comprises a band of frequencies and changes its bandwidth with time, narrowing as time elapseswherein the drive signal is chosen to be of duration such that before the end of signal its bandwidth lies within the apparatus bandwidth.
An RFID system, the system comprising: at least one RFID reader transmitting interrogation signals in an interrogation zone, wherein each RFID reader transmits interrogation signals having a forward amount of RF energy and receives response signals from the items in the interrogation zone having a reflected amount of RF energy; and a detection circuit, the detection circuit determining the presence of an item within the interrogation zone based at least in part on the reflected amount of RF energy, characterized in that the detection circuit detecting a cumulative level of reflected energy for determining the removal of a given number of items from a shelf (20, 22) in the interrogation zone, wherein the detection circuitry compares said cumulative level of the reflected RF energy with the amount of the forward RF energy at the antenna. at least one RFID reader transmitting interrogation signals in an interrogation zone, wherein each RFID reader transmits interrogation signals having a forward amount of RF energy and receives response signals from the items in the interrogation zone having a reflected amount of RF energy; and a detection circuit, the detection circuit determining the presence of an item within the interrogation zone based at least in part on the reflected amount of RF energy, characterized in that the detection circuit detecting a cumulative level of reflected energy for determining the removal of a given number of items from a shelf (20, 22) in the interrogation zone, wherein the detection circuitry compares said cumulative level of the reflected RF energy with the amount of the forward RF energy at the antenna.
A method for representation a virtual reality, for a system for representing the virtual reality, in which a visual virtual reality is represented visually at a display location by means of at least one visual display unit of the system in which at least one surroundings property, which originates from a recording location, is received live at the display location and the at least one surroundings property for the virtual reality is generated live at the display location by means of at least one generating device of the system, wherein the generating device comprises means (13, 14) emitting odorant to represent an odor as a first surroundings property, and wherein the representation of the virtual reality is controlled by a control unit of the system characterized in that the generating device comprises as means (13, 14) a plurality of fans (13a, 13b, 13c), by means of which a wind direction is represented as a second surrounding property at the display location, so that a wind from a plurality of directions is represented, the generating device additionally comprises as means (13, 14) a plurality of nozzles (14a, 14b, 14c) for representing the odor as a first surrounding property, wherein an odorant is emitted by means of each nozzle (14a, 14b, 14c), and in that at least two of the fans are each assigned a nozzle in order to achieve a directional dependence of the odor, so that the user is presented with an odor coming from a specific direction. in which a visual virtual reality is represented visually at a display location by means of at least one visual display unit of the system in which at least one surroundings property, which originates from a recording location, is received live at the display location and the at least one surroundings property for the virtual reality is generated live at the display location by means of at least one generating device of the system, wherein the generating device comprises means (13, 14) emitting odorant to represent an odor as a first surroundings property, and wherein the representation of the virtual reality is controlled by a control unit of the system characterized in that the generating device comprises as means (13, 14) a plurality of fans (13a, 13b, 13c), by means of which a wind direction is represented as a second surrounding property at the display location, so that a wind from a plurality of directions is represented, the generating device additionally comprises as means (13, 14) a plurality of nozzles (14a, 14b, 14c) for representing the odor as a first surrounding property, wherein an odorant is emitted by means of each nozzle (14a, 14b, 14c), and in that at least two of the fans are each assigned a nozzle in order to achieve a directional dependence of the odor, so that the user is presented with an odor coming from a specific direction.