mhurhangee/ep-ind-claims huggingface dataset:
Hybrid helicopter having: - a fuselage, - a lift rotor comprising two diametrically opposed blades (131,132), - a mechanism for varying the pitch of said blades (131,132) about respective pitch axes (AXPAS), - a wing composed of two half-wings (121,122) arranged on either side of said fuselage, - at least one propulsion propeller (15,16), - a powerplant connected to the rotor by a first mechanical transmission chain and - a stopping and positioning system configured to stop the rotation of said rotor about a rotational axis (AXROT) in cruise flight and to position said blades (131,132) in a stop position, perpendicularly to a direction parallel to a roll axis of said hybrid helicopter, wherein said stopping and positioning system has an angle of attack determination device for determining an angle of attack of said hybrid helicopter and a pitch variation device controlling said mechanism to move said blades (131,132) about said respective pitch axes (AXPAS) according to said angle of attack when the rotation of said blades (131,132) about said rotational axis (AXROT) is stopped. - a fuselage, - a lift rotor comprising two diametrically opposed blades (131,132), - a mechanism for varying the pitch of said blades (131,132) about respective pitch axes (AXPAS), - a wing composed of two half-wings (121,122) arranged on either side of said fuselage, - at least one propulsion propeller (15,16), - a powerplant connected to the rotor by a first mechanical transmission chain and - a stopping and positioning system configured to stop the rotation of said rotor about a rotational axis (AXROT) in cruise flight and to position said blades (131,132) in a stop position, perpendicularly to a direction parallel to a roll axis of said hybrid helicopter,
A hydraulic braking system for a coupling of a vehicle, wherein - the vehicle comprises a hydraulic supply circuit and a hydraulic control circuit, - the coupling comprises a hydraulic braking circuit, linked via connectors to the hydraulic supply circuit and to the hydraulic control circuit of the vehicle, and a hydraulic accumulator suitable for delivering a braking pressure to braking means of the coupling, the system comprising a driving device configured in such a way that, when - the vehicle is stopped, and - the pressure inside the hydraulic accumulator is less than or equal to a threshold pressure value, the driving device increases the pressure of the hydraulic accumulator via the hydraulic control circuit, characterized in that the driving device is configured in such a way as to not increase the pressure of the hydraulic accumulator if a test signal is actuated. - the vehicle comprises a hydraulic supply circuit and a hydraulic control circuit, - the coupling comprises a hydraulic braking circuit, linked via connectors to the hydraulic supply circuit and to the hydraulic control circuit of the vehicle, and a hydraulic accumulator suitable for delivering a braking pressure to braking means of the coupling, the system comprising a driving device configured in such a way that, when - the vehicle is stopped, and - the pressure inside the hydraulic accumulator is less than or equal to a threshold pressure value, the driving device increases the pressure of the hydraulic accumulator via the hydraulic control circuit, characterized in that the driving device is configured in such a way as to not increase the pressure of the hydraulic accumulator if a test signal is actuated.
A clothes dryer comprising: a drum configured to accommodate clothes; an air circulation passage connected to the drum; a cooling device configured to cool and dehumidify air in the air circulation passage; a heating device configured to heat the air passing through the cooling device; an air blowing device configured to circulate air along the air circulation passage; a base plate configured to receive and collect condensation water generated from the cooling device; a pump chamber configured to receive a pump configured to transfer the condensation water; a water circulation passage configured to enable the base plate to communicate with the pump chamber, to guide the condensation water in the base plate to the pump chamber, and to ventilate the base plate and the pump chamber; a communication passage configured to enable the air circulation passage to communicate with the base plate and to guide the condensation water generated at the cooling device to the base plate; and a ventilation hole provided between the cooling device and the heating device to enable the air circulation passage to communicate with the base plate characterised in that: the clothes dryer is provided with a ventilation port provided downstream of the heating device and between the heating device and the air blowing device to enable the air circulation passage to communicate with the pump chamber. a drum configured to accommodate clothes; an air circulation passage connected to the drum; a cooling device configured to cool and dehumidify air in the air circulation passage; a heating device configured to heat the air passing through the cooling device; an air blowing device configured to circulate air along the air circulation passage; a base plate configured to receive and collect condensation water generated from the cooling device; a pump chamber configured to receive a pump configured to transfer the condensation water; a water circulation passage configured to enable the base plate to communicate with the pump chamber, to guide the condensation water in the base plate to the pump chamber, and to ventilate the base plate and the pump chamber; a communication passage configured to enable the air circulation passage to communicate with the base plate and to guide the condensation water generated at the cooling device to the base plate; and a ventilation hole provided between the cooling device and the heating device to enable the air circulation passage to communicate with the base plate characterised in that: the clothes dryer is provided with a ventilation port provided downstream of the heating device and between the heating device and the air blowing device to enable the air circulation passage to communicate with the pump chamber.
Disengaging system for actuating a clutch, the disengaging system being configured, in particular, in the manner of a CSC (concentric slave cylinder) and having a rotatable first bearing ring which is operatively connected to a clutch, and a rotationally locked second bearing ring which is operatively connected to a disengaging unit and to a spring holding plate, the spring holding plate which is fastened to the rotationally locked second bearing ring assuming the function of a seal arrangement, characterized in that the second bearing ring forms the bearing outer ring and has a radially inwardly pointing circumferential shoulder (2.2), to the inner diameter (2.3) of which the spring holding plate is fastened.
Seal system (100, 200, 300) for an installation for producing a three-dimensional workpiece by means of an additive layer manufacturing method, the seal system (100, 200, 300) comprising: a first seal which is configured to seal an intermediate space on a first periphery between a process chamber inner wall and a plate assembly supporting powder material in a process chamber of the installation, and a second seal which is configured to seal the intermediate space on a second periphery between the process chamber inner wall and the plate assembly supporting powder material in the process chamber of the installation, wherein the first seal and the second seal are arranged on the plate assembly and wherein the first seal is spaced at a distance from the second seal in order to form, on sealing by the first seal and the second seal of the intermediate space between the process chamber inner wall and the plate assembly, a channel between the first seal and the second seal at an edge of the seal system, and wherein the seal system (100, 200, 300) is configured to generate a gas flow in the channel in a circumferential direction around the plate assembly and/or substantially perpendicular to the circumferential direction of the channel. a first seal which is configured to seal an intermediate space on a first periphery between a process chamber inner wall and a plate assembly supporting powder material in a process chamber of the installation, and a second seal which is configured to seal the intermediate space on a second periphery between the process chamber inner wall and the plate assembly supporting powder material in the process chamber of the installation, wherein the first seal and the second seal are arranged on the plate assembly and wherein the first seal is spaced at a distance from the second seal in order to form, on sealing by the first seal and the second seal of the intermediate space between the process chamber inner wall and the plate assembly, a channel between the first seal and the second seal at an edge of the seal system, and wherein the seal system (100, 200, 300) is configured to generate a gas flow in the channel in a circumferential direction around the plate assembly and/or substantially perpendicular to the circumferential direction of the channel.
A system for evaluating a performance of an activity where a portion of a user's body impacts a surface comprising: an article of clothing (102; 202; 302, 304, 306, 316; 405, 406; 605, 606, 615, 616; 702; 802; 902; 1002; 1102; 1302) sized and dimensioned to fit the portion of the user's body; a sensor (108, 110; 209; 309; 708; 710; 1309) attached to the article of clothing, the sensor being capable of detecting an impact of the article of clothing against the surface; a processor (112; 712) connected to the sensor via a communication link (106; 621, 631, 633, 635, 636, 637, 639, 641; 706; 806; 906; 1006; 1106; 1306) for generating a performance impact pattern on the basis of impacts detected by the sensor (108, 110; 209; 309; 708; 710; 1309); a display; characterized in that a memory module storing a target impact pattern accessible by the processor (112; 712) is provided and in that the processor (112; 712) is arranged for comparing a performance impact pattern to the target impact pattern to determine a first performance metric, for comparing a new impact pattern to the target impact pattern to determine a new performance metric, and for comparing the first performance metric to the new performance metric to determine a progress metric. an article of clothing (102; 202; 302, 304, 306, 316; 405, 406; 605, 606, 615, 616; 702; 802; 902; 1002; 1102; 1302) sized and dimensioned to fit the portion of the user's body; a sensor (108, 110; 209; 309; 708; 710; 1309) attached to the article of clothing, the sensor being capable of detecting an impact of the article of clothing against the surface; a processor (112; 712) connected to the sensor via a communication link (106; 621, 631, 633, 635, 636, 637, 639, 641; 706; 806; 906; 1006; 1106; 1306) for generating a performance impact pattern on the basis of impacts detected by the sensor (108, 110; 209; 309; 708; 710; 1309); a display; characterized in that a memory module storing a target impact pattern accessible by the processor (112; 712) is provided and in that the processor (112; 712) is arranged for comparing a performance impact pattern to the target impact pattern to determine a first performance metric, for comparing a new impact pattern to the target impact pattern to determine a new performance metric, and for comparing the first performance metric to the new performance metric to determine a progress metric.
A method for determining the position of a rotor in an electronically commuted motor, comprising the steps of a. Bringing the rotor of a new or successful maintained motor to a speed using a constant motor voltage for obtaining a precise concentricity; b. Measuring deviations of actually measured positions from an ideal straight line using three Hall-sensors for obtaining sinus signals; c. Calculating the rotation angle by using a Clarke transformation for converting the three sinus signals, which are constantly checked for their minimums and maximums, from the Hall-sensors into a rotation angle; d. Identifying and correcting phase errors; e. Determining and correcting cyclic errors. a. Bringing the rotor of a new or successful maintained motor to a speed using a constant motor voltage for obtaining a precise concentricity; b. Measuring deviations of actually measured positions from an ideal straight line using three Hall-sensors for obtaining sinus signals; c. Calculating the rotation angle by using a Clarke transformation for converting the three sinus signals, which are constantly checked for their minimums and maximums, from the Hall-sensors into a rotation angle; d. Identifying and correcting phase errors; e. Determining and correcting cyclic errors.
A lossless coding method for a digital signal in a floating-point format, comprising: (a) a step of converting a first digital signal sample in the floating-point format into a second digital signal sample in an integer format; (b) a step of losslessly compressing a sequence of said second digital signal samples in the integer format to produce a first code sequence; (c) a step of producing a difference signal in the floating-point format, the difference signal corresponding to the difference between said second digital signal sample in the integer format and said first digital signal sample in the floating-point format; and (d) a step of outputting said first code sequence and difference information corresponding to said difference signal as a coding result, in which said step (d) comprises a step of losslessly compressing said difference signal to produce a second code sequence and a step of outputting said second code sequence as the difference information corresponding to said difference signal. (a) a step of converting a first digital signal sample in the floating-point format into a second digital signal sample in an integer format; (b) a step of losslessly compressing a sequence of said second digital signal samples in the integer format to produce a first code sequence; (c) a step of producing a difference signal in the floating-point format, the difference signal corresponding to the difference between said second digital signal sample in the integer format and said first digital signal sample in the floating-point format; and (d) a step of outputting said first code sequence and difference information corresponding to said difference signal as a coding result,
Shelf with a base plate and with at least one profile in the form of a frame, which encloses all four end faces of the base plate and on which the base plate rests, wherein the profile is fastened to the base plate and is U-shaped with a longer outer leg, a shorter inner leg and a bottom leg located therebetween, which together define an upwardly open profile opening, wherein the inner leg is adjoined by a support leg which is bent inwardly at a right angle and on which the base plate rests, wherein an upwardly open, circumferential gap is provided between the end faces of the base plate and the outer legs, and wherein the profile opening and the gap together form an upwardly open insertion opening for fastening, in particular inserting or guiding, structural elements (7, 8, 11; 16), and wherein the bottom leg has a plurality of bottom openings in the profile direction. wherein the profile is fastened to the base plate and is U-shaped with a longer outer leg, a shorter inner leg and a bottom leg located therebetween, which together define an upwardly open profile opening, wherein the inner leg is adjoined by a support leg which is bent inwardly at a right angle and on which the base plate rests, wherein an upwardly open, circumferential gap is provided between the end faces of the base plate and the outer legs, and wherein the profile opening and the gap together form an upwardly open insertion opening for fastening, in particular inserting or guiding, structural elements (7, 8, 11; 16), and wherein the bottom leg has a plurality of bottom openings in the profile direction.
Hand-held control for electromotive furniture drives, having at least one control panel section (3, 3a, 3b) with a firm, non-resilient surface, wherein the at least one control panel section (3, 3a, 3b) comprises at least one actuation surface and at least one detector, wherein the at least one actuation surface cooperates with the at least one detector so that the at least one actuation surface has at least one touch-sensitive function, wherein to each of the actuation surfaces is assigned one of the detectors which is arranged within a housing of the hand-held control, wherein the at least one control panel section (3, 3a, 3b) comprises a plurality of actuation surfaces that are arranged at a predetermined distance from one another, characterized in that the hand-held control has a detector printed circuit board with the at least one detector, and that the at least one detector comprises at least one sensor surface to which is assigned at least one ground plane (106, 106a; 107, 107a), wherein the at least one sensor surface with the at least one associated ground plane (106, 106a; 107, 107a) is connected in an electrically conducting manner to at least one evaluation unit (108, 109), wherein the at least one sensor surface is configured as an electrically conducting frame and at least partially surrounds a through hole.
A battery with a safety mechanism adapted to protect against tissue damage and/or electrolysis comprising: a housing comprising first and second poles, at least one electronic conductor in electronic contact with one of the first and second poles (54, 58), and a spacer comprising an electronically insulating material, wherein the spacer is provided between the electronic conductor and the other of the first and second poles such that electronic contact between the electronic conductor and the other of the first and second poles (54, 58) is prevented, the spacer being capable of undergoing a physical change in the presence of an aqueous solution such that the spacer can dissolve, soften, or swell, a resistive force of the spacer is reduced to less than a biasing force of the electronic conductor, and electronic coupling between the electronic conductor and the other of the first and second poles (54, 58) can occur wherein: subsequent to the physical change, electronic coupling occurs based on (i) direct physical contact between the electronic conductor and the other of the first or second poles (54, 58) or (ii) indirect physical contact between the electronic conductor and the other of the first and second poles (54, 58) via one or more additional intervening electronically conducting materials disposed between the electronic conductor and the other of the first or second poles (54, 58).
A self-propelled mower comprising: a self-propellable mover main body; at least one of a battery, an electric generator, and an engine provided in the self-propellable mover main body; a protruding wing that protrudes sideward from sides of the mover main body, the protruding wing being retractable and an extension length of the protruding wing being variable; a plurality of mowing units provided protruding from a front face of the mover main body and a front face of the protruding wing, each mowing unit comprising a movable blade that reciprocates or rotates to cut grasses driven by an electric motor powered by the battery or the electric generator, or by an engine provided in each mowing unit; characterized by further comprising: a straddle-type mover body that straddles on a guard rail installed on a top of a slope of a bank, the mover main body moving on a slope face while being towed by the straddle-type mover body via a traction rope, a moving speed of the straddle-type mover body being selected to be faster than a moving speed of the mover main body; and an angle sensor that detects an angle of the traction rope, and is provided to the traction rope on a side of the straddle-type mover body, the angle sensor assisting to stop the movement of the straddle-type mover body if the detected angle exceeds an acceptable angle. a self-propellable mover main body; at least one of a battery, an electric generator, and an engine provided in the self-propellable mover main body; a protruding wing that protrudes sideward from sides of the mover main body, the protruding wing being retractable and an extension length of the protruding wing being variable; a plurality of mowing units provided protruding from a front face of the mover main body and a front face of the protruding wing, each mowing unit comprising a movable blade that reciprocates or rotates to cut grasses driven by an electric motor powered by the battery or the electric generator, or by an engine provided in each mowing unit; characterized by further comprising: a straddle-type mover body that straddles on a guard rail installed on a top of a slope of a bank, the mover main body moving on a slope face while being towed by the straddle-type mover body via a traction rope, a moving speed of the straddle-type mover body being selected to be faster than a moving speed of the mover main body; and an angle sensor that detects an angle of the traction rope, and is provided to the traction rope on a side of the straddle-type mover body, the angle sensor assisting to stop the movement of the straddle-type mover body if the detected angle exceeds an acceptable angle.
A method for securing a virtual machine, comprising: executing a virtual machine on a host device, the virtual machine comprising virtual machine files; generating data parsing information, wherein the data parsing information is usable to determine into which of a plurality of shares a portion of the virtual machine files will be placed and how the portion will be encrypted; in response to receiving a command to stop the virtual machine: generating the plurality of shares based on the data parsing information; causing each of the plurality of shares to be stored in respective separate storage locations, wherein the respective separate storage locations include one or more directories associated with a non-virtual machine application; wherein the virtual machine files are restorable by accessing a threshold number of the plurality of shares. executing a virtual machine on a host device, the virtual machine comprising virtual machine files; generating data parsing information, wherein the data parsing information is usable to determine into which of a plurality of shares a portion of the virtual machine files will be placed and how the portion will be encrypted; in response to receiving a command to stop the virtual machine: generating the plurality of shares based on the data parsing information; causing each of the plurality of shares to be stored in respective separate storage locations, wherein the respective separate storage locations include one or more directories associated with a non-virtual machine application; generating the plurality of shares based on the data parsing information; causing each of the plurality of shares to be stored in respective separate storage locations, wherein the respective separate storage locations include one or more directories associated with a non-virtual machine application; wherein the virtual machine files are restorable by accessing a threshold number of the plurality of shares.