mhurhangee/ep-ind-claims huggingface dataset:
A method of assembling a set of panels to obtain an assembled furniture component or a furniture, such as a drawer, a cupboard, bookshelves, a wardrobe, a kitchen fixture, the method comprising: • arranging a first panel, with a first main plane, perpendicular to a second panel with a second main plane, wherein the first main plane is perpendicular to the second main plane; • connecting by hand a first edge of the first panel to a first edge of the second panel, by linearly displacing the first panel and/or the second panel; • arranging a third panel, with a third main plane, perpendicular to the first and the second panel, wherein the third main plane is perpendicular to the first and the second main plane; • connecting by hand a second edge of the third panel to a second edge of the second panel, by linear displacing the third panel and/or second panel, • connecting by hand a first edge of the third panel to a second edge of the first panel, by linearly displacing the third panel and/or the first panel, • wherein each linear displacement is executed in a direction parallel to the third main plane, characterised in that • each connecting comprises displacing a part of a flexible tongue of a locking device into a tongue groove for locking an edge and an adjacent edge together. • arranging a first panel, with a first main plane, perpendicular to a second panel with a second main plane, wherein the first main plane is perpendicular to the second main plane; • connecting by hand a first edge of the first panel to a first edge of the second panel, by linearly displacing the first panel and/or the second panel; • arranging a third panel, with a third main plane, perpendicular to the first and the second panel, wherein the third main plane is perpendicular to the first and the second main plane; • connecting by hand a second edge of the third panel to a second edge of the second panel, by linear displacing the third panel and/or second panel, • connecting by hand a first edge of the third panel to a second edge of the first panel, by linearly displacing the third panel and/or the first panel, • wherein each linear displacement is executed in a direction parallel to the third main plane, characterised in that • each connecting comprises displacing a part of a flexible tongue of a locking device into a tongue groove for locking an edge and an adjacent edge together.
Agricultural baler comprising: - a shaft for coupling with a power take-off, and a flywheel connected to the shaft; - a plunger connected to the flywheel via a crank, the plunger being adapted for performing a reciprocal movement between a near position allowing crop material to be added in a bale chamber and a distal position suitable for compressing crop material in the bale chamber; - a brake system adapted for providing a brake force for decelerating the flywheel depending on a brake control signal (s); - at least one sensor for providing sensor data indicative for at least one moving part of the baler; characterized in that the agricultural baler further comprising a brake control system connected to the at least one sensor for receiving the sensor data, and connected to the brake system for providing the brake control signal (s), the brake control system comprising a processing system provided with an algorithm for determining the brake control signal (s) for stopping the crank in a predefined launch position range. - a shaft for coupling with a power take-off, and a flywheel connected to the shaft; - a plunger connected to the flywheel via a crank, the plunger being adapted for performing a reciprocal movement between a near position allowing crop material to be added in a bale chamber and a distal position suitable for compressing crop material in the bale chamber; - a brake system adapted for providing a brake force for decelerating the flywheel depending on a brake control signal (s); - at least one sensor for providing sensor data indicative for at least one moving part of the baler;
Method for use in dynamometer testing of a vehicle, the vehicle including at least a first wheel shaft and at least one first vehicle power source for providing power to said first wheel shaft, said first wheel shaft being connected to a vehicle dynamometer system, said vehicle dynamometer system comprising a first controllable dynamometer power source for providing power to said first wheel shaft, said first dynamometer power source being an electrical machine comprising a stator and a rotor, said stator comprising a stator winding (206A,206B,206C) and said method being characterized in: - determining whether a first temperature ( T 1) is below a first temperature limit ( T lim1), and - heating said electrical machine by applying a current ( I heat) to said stator winding (206A, 206B, 206C) when said first temperature ( T 1) is below said first temperature limit ( T lim1), said electrical machine being an asynchronous three-phase induction machine, - wherein said current ( I heat) is a current having a frequency such that the rotational speed of said rotor is kept below a first speed, - said first temperature ( T 1) being a temperature representing a temperature of said electrical machine, the method further including: - estimating said first temperature ( T 1) through the use of a representation of heat transfer in said electrical machine, - determining whether said temperature of said electrical machine is above a second temperature limit ( T lim2), said second temperature limit (T lim2) being equal to or higher than said first temperature limit (T lim1), - reducing said first current ( I heat) when said temperature of said electrical machine is above said second temperature limit ( T lim2), and - continuously controlling said first current ( I heat) such that said temperature of said electrical machine is kept above said first temperature limit ( T lim1). - determining whether a first temperature ( T 1) is below a first temperature limit ( T lim1), and - heating said electrical machine by applying a current ( I heat) to said stator winding (206A, 206B, 206C) when said first temperature ( T 1) is below said first temperature limit ( T lim1), said electrical machine being an asynchronous three-phase induction machine, - wherein said current ( I heat) is a current having a frequency such that the rotational speed of said rotor is kept below a first speed, - said first temperature ( T 1) being a temperature representing a temperature of said electrical machine, the method further including: - estimating said first temperature ( T 1) through the use of a representation of heat transfer in said electrical machine, - determining whether said temperature of said electrical machine is above a second temperature limit ( T lim2), said second temperature limit (T lim2) being equal to or higher than said first temperature limit (T lim1), - reducing said first current ( I heat) when said temperature of said electrical machine is above said second temperature limit ( T lim2), and - continuously controlling said first current ( I heat) such that said temperature of said electrical machine is kept above said first temperature limit ( T lim1).
A device for defining a look-up system having functionality suitable for a network element of a software-defined network, characterized in that the device comprises a processing system adapted to: - maintain data specifying a set of look-up tables so that the look-up system is capable of being constructed in mutually alternative ways with the aid of one or more look-up tables belonging to the set of look-up tables, each of the look-up tables having a look-up table specific resource consumption estimate indicating a load factor of at least one component of the network element when running operations related to the look-up table, and - select, on the basis of the look-up table specific resource consumption estimates, such one of alternative look-up systems which is more suitable for the network element than another one of the alternative look-up systems, each of the alternative look-up systems corresponding to one of the mutually alternative ways to construct the look-up system having the functionality suitable for the network element. - maintain data specifying a set of look-up tables so that the look-up system is capable of being constructed in mutually alternative ways with the aid of one or more look-up tables belonging to the set of look-up tables, each of the look-up tables having a look-up table specific resource consumption estimate indicating a load factor of at least one component of the network element when running operations related to the look-up table, and - select, on the basis of the look-up table specific resource consumption estimates, such one of alternative look-up systems which is more suitable for the network element than another one of the alternative look-up systems, each of the alternative look-up systems corresponding to one of the mutually alternative ways to construct the look-up system having the functionality suitable for the network element.
Distance measuring device having a transmitting unit for generating a transmission signal in the form of a light beam for determining a distance from a phase comparison between a transmitted light beam and a reflected light beam received from a surface of a remote measurement object as a reception signal by means of a receiving unit, the reception signal, in comparison with the transmission signal in its generated state, having a phase shift proportional to the propagation time of the light beam from its generation to its reception, having a transmission means for transmitting the transmission signal, the transmission signal having at least one measurement frequency (f 1, f 2) desired for acquiring an item of distance information, the transmitting unit comprising a means for generating an evaluation signal, the evaluation signal having an evaluation frequency (f A) desired for evaluating the distance information, characterized in that the transmission means, as the means used as the mixing unit, is designed to mix generation signals (44, 46) for generating the transmission signal, the generation signals (44, 46) having two frequencies (f 1, f 2) which differ from one another by the desired evaluation frequency (f A).
A power generation system, comprising: (i) a first fuel cell configured to generate a first anode tail gas stream and a first cathode tail gas stream; (ii) at least one fuel reformer located downstream of the first fuel cell, the fuel reformer configured to receive the first anode tail gas stream, and to mix the first anode tail gas stream with a reformer fuel stream to form a reformed stream; (iii) a splitting mechanism to split the reformed stream into a first portion and a second portion; (iv) a fuel path configured to circulate the first portion to an anode inlet of the first fuel cell, such that the first fuel cell is configured to generate a first electric power, at least in part, by using the first portion as a fuel; and (v) a second fuel cell configured to receive the second portion, and to generate a second electric power, at least in part, by using the second portion as a fuel, the second fuel cell further configured to generate a second anode tail gas stream and a second cathode tail gas stream; characterized by: a first recuperator configured to receive and extract heat from at least a portion of the first cathode tail gas stream and the second cathode tail gas stream, and to transfer at least a portion of the extracted heat to the first portion of the reformed stream, and wherein the first recuperator is further configured to form a cooled cathode tail gas stream, and the power generation system further comprises a recycle loop configured to circulate at least a portion of the cooled cathode tail gas stream to a cathode inlet of the first fuel cell. (i) a first fuel cell configured to generate a first anode tail gas stream and a first cathode tail gas stream; (ii) at least one fuel reformer located downstream of the first fuel cell, the fuel reformer configured to receive the first anode tail gas stream, and to mix the first anode tail gas stream with a reformer fuel stream to form a reformed stream; (iii) a splitting mechanism to split the reformed stream into a first portion and a second portion; (iv) a fuel path configured to circulate the first portion to an anode inlet of the first fuel cell, such that the first fuel cell is configured to generate a first electric power, at least in part, by using the first portion as a fuel; and (v) a second fuel cell configured to receive the second portion, and to generate a second electric power, at least in part, by using the second portion as a fuel, the second fuel cell further configured to generate a second anode tail gas stream and a second cathode tail gas stream; a first recuperator configured to receive and extract heat from at least a portion of the first cathode tail gas stream and the second cathode tail gas stream, and to transfer at least a portion of the extracted heat to the first portion of the reformed stream, and wherein the first recuperator is further configured to form a cooled cathode tail gas stream, and the power generation system further comprises a recycle loop configured to circulate at least a portion of the cooled cathode tail gas stream to a cathode inlet of the first fuel cell.
A rotor blade assembly comprising: at least one flex-beam member; a torque tube surrounding the at least one flex-beam member and extending at least partially along a rotor blade assembly length; and a pitch bearing assembly supportive of the torque tube relative to the at least one flex-beam member including: at least two outer bearing members (50a, 50b) secured to the torque tube, wherein the at least two outer bearing members include an inboard outer member and an outboard outer member, the inboard outer member being disposed inboard of the outboard outer member; characterized in that the rotor blade assembly comprises an inner bearing member extending between the at least two outer bearing members (50a, 50b) and secured to the at least one flex beam member to transfer load between the outer bearing members (50a, 50b); wherein a stiffness of the inner bearing member is selected such that the stiffness of the inner bearing member determines load share between the torque tube and the at least one flex-beam member and also vibration mode response of the blade assembly. at least one flex-beam member; a torque tube surrounding the at least one flex-beam member and extending at least partially along a rotor blade assembly length; and a pitch bearing assembly supportive of the torque tube relative to the at least one flex-beam member including: at least two outer bearing members (50a, 50b) secured to the torque tube, wherein the at least two outer bearing members include an inboard outer member and an outboard outer member, the inboard outer member being disposed inboard of the outboard outer member; characterized in that the rotor blade assembly comprises an inner bearing member extending between the at least two outer bearing members (50a, 50b) and secured to the at least one flex beam member to transfer load between the outer bearing members (50a, 50b); wherein a stiffness of the inner bearing member is selected such that the stiffness of the inner bearing member determines load share between the torque tube and the at least one flex-beam member and also vibration mode response of the blade assembly. at least two outer bearing members (50a, 50b) secured to the torque tube, wherein the at least two outer bearing members include an inboard outer member and an outboard outer member, the inboard outer member being disposed inboard of the outboard outer member; characterized in that the rotor blade assembly comprises an inner bearing member extending between the at least two outer bearing members (50a, 50b) and secured to the at least one flex beam member to transfer load between the outer bearing members (50a, 50b); wherein a stiffness of the inner bearing member is selected such that the stiffness of the inner bearing member determines load share between the torque tube and the at least one flex-beam member and also vibration mode response of the blade assembly.
An antibody that binds within beta klotho domain 2 comprising amino acid residues 657 to 703 of human beta klotho (SEQ ID NO:297), wherein the antibody comprises: (a) a heavy chain variable region comprising: a CDR1 comprising SEQ ID NO:1, SEQ ID NO:12, or SEQ ID NO:13; a CDR2 comprising SEQ ID NO:2 or SEQ ID NO:14; and a CDR3 comprising SEQ ID NO:3 or SEQ ID NO:15; and (b) a light chain variable region comprising: a CDR1 comprising SEQ ID NO:4 or SEQ ID NO:16; a CDR2 comprising SEQ ID NO:5 or SEQ ID NO:11; and a CDR3 comprising SEQ ID NO:6 or SEQ ID NO:17. (a) a heavy chain variable region comprising: a CDR1 comprising SEQ ID NO:1, SEQ ID NO:12, or SEQ ID NO:13; a CDR2 comprising SEQ ID NO:2 or SEQ ID NO:14; and a CDR3 comprising SEQ ID NO:3 or SEQ ID NO:15; and a CDR1 comprising SEQ ID NO:1, SEQ ID NO:12, or SEQ ID NO:13; a CDR2 comprising SEQ ID NO:2 or SEQ ID NO:14; and a CDR3 comprising SEQ ID NO:3 or SEQ ID NO:15; (b) a light chain variable region comprising: a CDR1 comprising SEQ ID NO:4 or SEQ ID NO:16; a CDR2 comprising SEQ ID NO:5 or SEQ ID NO:11; and a CDR3 comprising SEQ ID NO:6 or SEQ ID NO:17. a CDR1 comprising SEQ ID NO:4 or SEQ ID NO:16; a CDR2 comprising SEQ ID NO:5 or SEQ ID NO:11; and a CDR3 comprising SEQ ID NO:6 or SEQ ID NO:17.
A mobile base for transporting equipment on the ground, in particular an aeronautical equipment, the mobile base includes a framework comprising two side branches adapted to move in parallel to each other so as to modify their spacing and rolling means on the ground connected to said framework, each side branch including lifting means configured to move vertically and tilt equipment located between said side branches, which mobile base is characterised in that the lifting means are in the form of a lifting arm, each lifting arm including a plate and lifting mechanisms connected to the ends of the plate by fine movement means configured to bring flexibility upon installing/removing the equipment.
Production method for an electronic circuit (50, 60), wherein: - in a first step, at least two electronic sub-circuits are produced, the sub-circuits each having a plurality of electronic components (11, 56, 57) on a separate insulating sub-carrier; - in a second step, the sub-circuits are arranged alongside one another on a common carrier; and - in a third step, the sub-circuits are electrically connected by means of a method for planar contact-connection, the method comprising at least the deposition of a metallic layer, wherein, in the first step, at least two identical sub-circuits are produced in a common process and are connected alone or together with further sub-circuits to form the electronic circuit (50, 60). - in a first step, at least two electronic sub-circuits are produced, the sub-circuits each having a plurality of electronic components (11, 56, 57) on a separate insulating sub-carrier; - in a second step, the sub-circuits are arranged alongside one another on a common carrier; and - in a third step, the sub-circuits are electrically connected by means of a method for planar contact-connection, the method comprising at least the deposition of a metallic layer,
A microfluidic dispensing device (50; 100; 150), comprising: a plurality of chambers, each chamber having an inlet configured to receive a liquid to be dispensed and a nozzle configured to emit a drop of liquid, the plurality of chambers forming a sequence of chambers; a plurality of actuators, each actuator being associated with a respective chamber and configured to receive a respective actuation quantity and cause a drop of liquid to be emitted by the nozzle of the respective chamber, a plurality of drop emission detection elements, one for each chamber, each drop emission detection element being configured to generate an actuation command upon detecting the emission of a drop of liquid from the nozzle of a respective chamber; and a sequential activation electric circuit including a plurality of sequential activation elements (60B, 60C, 60D), one for each chamber, each sequential activation element being coupled to the drop emission detection element associated with the respective chamber and to an actuator associated with a subsequent chamber, following the respective chamber in the sequence of chambers, each sequential activation element being configured to receive the actuation command from the drop emission detection element associated with the respective chamber and, in response thereto, to supply the actuation quantity to the actuator associated with the subsequent chamber, thus causing the activation thereof. a plurality of chambers, each chamber having an inlet configured to receive a liquid to be dispensed and a nozzle configured to emit a drop of liquid, the plurality of chambers forming a sequence of chambers; a plurality of actuators, each actuator being associated with a respective chamber and configured to receive a respective actuation quantity and cause a drop of liquid to be emitted by the nozzle of the respective chamber, a plurality of drop emission detection elements, one for each chamber, each drop emission detection element being configured to generate an actuation command upon detecting the emission of a drop of liquid from the nozzle of a respective chamber; and a sequential activation electric circuit including a plurality of sequential activation elements (60B, 60C, 60D), one for each chamber, each sequential activation element being coupled to the drop emission detection element associated with the respective chamber and to an actuator associated with a subsequent chamber, following the respective chamber in the sequence of chambers, each sequential activation element being configured to receive the actuation command from the drop emission detection element associated with the respective chamber and, in response thereto, to supply the actuation quantity to the actuator associated with the subsequent chamber, thus causing the activation thereof.