mhurhangee/ep-ind-claims huggingface dataset:
A magnetic lock for a lift fan, comprising: a stationary magnet and a rotating magnet coupled to an arm, wherein the magnetic lock is adapted to magnetically engage when the arm is in a first position placing the rotating magnet parallel to the stationary magnet; wherein the stationary magnet is configured to be coupled via a tab of the lift fan to elements of the lift fan that do not rotate, and the rotating magnet is configured to be coupled via the arm to rotatable elements of the lift fan; wherein the stationary elements of the lift fan comprise a stator or a shaft of the lift fan, and wherein rotatable elements of the lift fan comprise housings or magnet arrays of the lift fan; wherein the magnetic lock is adapted to magnetically engage when the arm is in the first position in response to an amount of gravity pulling down on the arm exceeds an amount of centrifugal force caused by spinning of the lift fan pushing the arm upwards and outwards toward a second position; wherein the tab is configured to be adjacent to a detent of the lift fan and the arm comprises a stop portion, attached to an underside of the arm, wherein the stop portion is configured to engage with the detent. a stationary magnet and a rotating magnet coupled to an arm, wherein the magnetic lock is adapted to magnetically engage when the arm is in a first position placing the rotating magnet parallel to the stationary magnet; wherein the stationary magnet is configured to be coupled via a tab of the lift fan to elements of the lift fan that do not rotate, and the rotating magnet is configured to be coupled via the arm to rotatable elements of the lift fan; wherein the stationary elements of the lift fan comprise a stator or a shaft of the lift fan, and wherein rotatable elements of the lift fan comprise housings or magnet arrays of the lift fan; wherein the magnetic lock is adapted to magnetically engage when the arm is in the first position in response to an amount of gravity pulling down on the arm exceeds an amount of centrifugal force caused by spinning of the lift fan pushing the arm upwards and outwards toward a second position; wherein the tab is configured to be adjacent to a detent of the lift fan and the arm comprises a stop portion, attached to an underside of the arm, wherein the stop portion is configured to engage with the detent.
Running gear frame for a running gear of a rail vehicle with - a frame body, which is configured to be supported on at least one wheel unit of said running gear, and which comprises two longitudinal beams extending in a longitudinal direction of said running gear and at least one transverse beam extending in a transverse direction of said running gear and rigidly connecting said two longitudinal beams to each other, wherein - at least one of said longitudinal beams, in the longitudinal direction of said running gear, comprises a forward longitudinal beam section (202.1), a middle longitudinal beam section (202.2) and a rear longitudinal beam section (202.3), characterized in that - said transverse beam, with a lateral projection (203.1) extending in said transverse direction and arranged on its upper side, is inserted from above into a recess (204.4) in the respective longitudinal beam in such a manner that a forward stop surface (203.3) acting in said longitudinal direction and a rear stop surface (203.3) acting in said longitudinal direction is formed between said projection (203.1) and said longitudinal beam and, below said projection (203.1), a lateral stop surface (203.2) acting in said transverse direction is formed between said longitudinal beam and said transverse beam, wherein - said transverse beam is made from a grey cast iron material. - a frame body, which is configured to be supported on at least one wheel unit of said running gear, and which comprises two longitudinal beams extending in a longitudinal direction of said running gear and at least one transverse beam extending in a transverse direction of said running gear and rigidly connecting said two longitudinal beams to each other, wherein - at least one of said longitudinal beams, in the longitudinal direction of said running gear, comprises a forward longitudinal beam section (202.1), a middle longitudinal beam section (202.2) and a rear longitudinal beam section (202.3), characterized in that - said transverse beam, with a lateral projection (203.1) extending in said transverse direction and arranged on its upper side, is inserted from above into a recess (204.4) in the respective longitudinal beam in such a manner that a forward stop surface (203.3) acting in said longitudinal direction and a rear stop surface (203.3) acting in said longitudinal direction is formed between said projection (203.1) and said longitudinal beam and, below said projection (203.1), a lateral stop surface (203.2) acting in said transverse direction is formed between said longitudinal beam and said transverse beam, wherein - said transverse beam is made from a grey cast iron material.
Scaffolding unit to be attached to a bridge or similar deck structure, which comprises - a set of arms for carrying the working levels and support structures needed in work, and - an attachment frame for attaching the set of arms to the upper surface of the deck structure, wherein the set of arms is connected to the attachment frame by means of a pivoted parallelogram (12, 16, 17, and 18), wherein the pivoted parallelogram comprises an upper beam and a lower beam and upper pivot points (12, 16) and lower pivot points (17, 18) for connecting the beams (3, 11) to the attachment frame and the set of arms, characterized in that the lower beam and/or the upper beam extends to the opposite side of the lower pivot point / upper pivot point of the attachment frame from the set of arms to form a lever, and at least one operating device selected from the group comprising a hydraulic jack and screw jack is arranged at the end of the lever formed by the lower beam or the upper beam to adjust the vertical position of the set of arms. - a set of arms for carrying the working levels and support structures needed in work, and - an attachment frame for attaching the set of arms to the upper surface of the deck structure,
A metal oxide compound of formula: Mn x M y Ru 1-(x+y) O 2, wherein the compound is a single phase rutile-type structure, and wherein M is selected from the group consisting of Co, Ni, and Fe, and combinations thereof; x > 0.02; y > 0.01; and 0.03 ≤ x + y ≤ 0.30. M is selected from the group consisting of Co, Ni, and Fe, and combinations thereof; x > 0.02; y > 0.01; and 0.03 ≤ x + y ≤ 0.30.
A system for transposing an input audio signal by a transposition factor T, the system comprising: - means (601, 602) for extracting a frame of L time-domain samples of the input signal using an analysis window having the function v n = sin π L n + 0.5, 0 ≤ n < L, - means for transforming the L time-domain samples into M complex frequency-domain coefficients; - a nonlinear processing unit for altering a phase of the complex frequency-domain coefficients using the transposition factor T; - means for transforming the M altered complex frequency-domain coefficients into M altered time-domain samples; and - a means for generating a frame of L time-domain output samples from the M altered time-domain samples using a synthesis window; wherein M=F*L, with F being greater or equal to (T+1)/2. - means (601, 602) for extracting a frame of L time-domain samples of the input signal using an analysis window having the function v n = sin π L n + 0.5, 0 ≤ n < L, - means for transforming the L time-domain samples into M complex frequency-domain coefficients; - a nonlinear processing unit for altering a phase of the complex frequency-domain coefficients using the transposition factor T; - means for transforming the M altered complex frequency-domain coefficients into M altered time-domain samples; and - a means for generating a frame of L time-domain output samples from the M altered time-domain samples using a synthesis window;
A method of moulding a wind turbine blade in a mould, which method comprises the steps of - applying a film to an inside surface of the mould, which film comprises an outside surface for lining the inside surface of the mould and an inside surface for receiving component layers of the wind turbine blade prior to curing; wherein the outside surface of the film comprises a relief structure and/or the inside surface of the mould comprises at least one channel to facilitate the removal of air from between the film and the inside surface of the mould; - assembling component layers for the wind turbine blade on the film; - performing curing steps to harden the component layers; and subsequently - removing the cured wind turbine blade from the mould. - applying a film to an inside surface of the mould, which film comprises an outside surface for lining the inside surface of the mould and an inside surface for receiving component layers of the wind turbine blade prior to curing; wherein the outside surface of the film comprises a relief structure and/or the inside surface of the mould comprises at least one channel to facilitate the removal of air from between the film and the inside surface of the mould; - assembling component layers for the wind turbine blade on the film; - performing curing steps to harden the component layers; and subsequently - removing the cured wind turbine blade from the mould.
Method for obtaining a sealed hole in a glass material, comprising the steps of: making a recess in said glass material surrounding the hole to obtain a glass tube wall extending from the hole; fusing said glass tube wall to seal the hole. making a recess in said glass material surrounding the hole to obtain a glass tube wall extending from the hole; fusing said glass tube wall to seal the hole.
A Method for configuring the communication between at least one actuator and a remote control, to allow control of the at least one actuator from the remote control, the at least one actuator being configured to communicate with the remote control, the communication between the at least one actuator and the remote control being established according to a first protocol or according to a second protocol, the communication according to the second protocol being implemented via a connection to a router connected to the sector, the method being characterized by the fact that it is implemented by a mobile terminal, the mobile terminal being configured to communicate according to the first protocol with the at least one actuator, and with the remote control, the mobile terminal being configured to communicate with the router according to the first protocol or according to a third protocol, and in that the method comprises the following steps: - identification of an identifier of the at least one actuator, - identification of an identifier of the remote control, - analysis to detect a presence or an absence of the router, - if the absence of the router is detected by the mobile terminal during the analysis step, transmission to the remote control of the identifier of the least one actuator and/or transmission to the actuator of the identifier of the remote control, then transmission to the remote control and to the actuator of a request for activation of the first protocol, - if the presence of the router is detected by the mobile terminal during the analysis step, transmission to the router of the identifier of the at least one actuator and of the identifier of the remote control. - identification of an identifier of the at least one actuator, - identification of an identifier of the remote control, - analysis to detect a presence or an absence of the router, - if the absence of the router is detected by the mobile terminal during the analysis step, transmission to the remote control of the identifier of the least one actuator and/or transmission to the actuator of the identifier of the remote control, then transmission to the remote control and to the actuator of a request for activation of the first protocol, - if the presence of the router is detected by the mobile terminal during the analysis step, transmission to the router of the identifier of the at least one actuator and of the identifier of the remote control.
An accumulator comprising a plate-shaped positive electrode and a plate-shaped negative electrode, wherein a separator sheet and a grid made of polyethylene are arranged between the two electrodes (3, 4), wherein the grid serves as a spacer and is formed by threads which are laid crosswise and are welded to each other, wherein the distance between two electrodes (3, 4) is determined by the thickness of crossing points of the grid, wherein the crossing points are formed by the threads welded to each other, characterized in that the grid is designed as a flat material in form of a sheet, wherein the distance between two adjacent electrodes (3, 4) in the direction of thickness is comprised between 1.4 mm and 2.0 mm, preferably between 1.5 mm and 1.9 mm, more preferably between 1.6 mm and 1.8 mm, and is most preferably around 1.7 mm.
A method for producing hollow microspheres made of glass - wherein an aqueous suspension of starting substances containing glass powder and water glass is prepared, - wherein firing material particles, the diameter of which is between 5 micrometres and 300 micrometres, in particular between 5 micrometres and 100 micrometres, are produced from the suspension, - wherein the firing material particles are mixed with a powdered release agent made of aluminium hydroxide in an intensive mixer, wherein = the mixing process is carried out with a power input of at least 2 kilowatts, in particular at least 5 kilowatts, per 100 kilograms of mixing material and/or = a mixing tool of the intensive mixer moves with a circumferential speed of at least 15 metres, in particular at least 30 metres, per second during the mixing process, - wherein the mixture of firing material particles and release agent is then fed into a combustion chamber (21, 41) of a kiln (6, 40), and - wherein the firing material particles in the combustion chamber (21, 41) expand to form the hollow microspheres at a firing temperature which exceeds the softening temperature of the glass powder. - wherein an aqueous suspension of starting substances containing glass powder and water glass is prepared, - wherein firing material particles, the diameter of which is between 5 micrometres and 300 micrometres, in particular between 5 micrometres and 100 micrometres, are produced from the suspension, - wherein the firing material particles are mixed with a powdered release agent made of aluminium hydroxide in an intensive mixer, wherein = the mixing process is carried out with a power input of at least 2 kilowatts, in particular at least 5 kilowatts, per 100 kilograms of mixing material and/or = a mixing tool of the intensive mixer moves with a circumferential speed of at least 15 metres, in particular at least 30 metres, per second during the mixing process, = the mixing process is carried out with a power input of at least 2 kilowatts, in particular at least 5 kilowatts, per 100 kilograms of mixing material and/or = a mixing tool of the intensive mixer moves with a circumferential speed of at least 15 metres, in particular at least 30 metres, per second during the mixing process, - wherein the mixture of firing material particles and release agent is then fed into a combustion chamber (21, 41) of a kiln (6, 40), and - wherein the firing material particles in the combustion chamber (21, 41) expand to form the hollow microspheres at a firing temperature which exceeds the softening temperature of the glass powder.
A sample container for receiving small-volume liquid samples, preferably of samples obtained by vapor phase decomposition, wherein the container has an upwardly open receiving region, wherein the receiving region is conical, the lowest point of the receiving region is formed by the cone apex, the receiving region has an outflow opening at its lowest point that is reversibly closed in a liquid-tight manner by an actuator having a closure surface, the receiving region is surrounded by an overflow region at its open upper side, a web that surrounds the overflow region in an annular manner and a vacuum can be applied in the region of the outflow opening via a connection, characterized in that a filling and withdrawal station is furthermore arranged at the web having a plurality of receivers to hold expulsion nozzles for drop separation that project into or lead to the receiving region.
A method for controlling a doll with an application, comprising: connecting to a doll (1, 10, 11) by a wireless network module of a handheld device (2a, 2b, 20), and setting, by the APP installed in the handheld device (2a, 2b, 20), an Internet of Things (IoT) WiFi module (101, 111) assembled in the doll (1, 10, 11) to connect to a wireless network access point (3, 30); sending a voice message to a cloud server (4, 40) by the APP of the handheld device (2a, 2b, 20); and connecting to the cloud server (4, 40) to access the voice message by the wireless network AP (3, 30) connected to the doll (1, 10, 11), and playing the voice message by a speaker module assembled within the doll (1, 10, 11). connecting to a doll (1, 10, 11) by a wireless network module of a handheld device (2a, 2b, 20), and setting, by the APP installed in the handheld device (2a, 2b, 20), an Internet of Things (IoT) WiFi module (101, 111) assembled in the doll (1, 10, 11) to connect to a wireless network access point (3, 30); sending a voice message to a cloud server (4, 40) by the APP of the handheld device (2a, 2b, 20); and connecting to the cloud server (4, 40) to access the voice message by the wireless network AP (3, 30) connected to the doll (1, 10, 11), and playing the voice message by a speaker module assembled within the doll (1, 10, 11).
A system for providing wireless communication services to communication devices that are located in one or more aircraft that are operational in a selected coverage area, wherein at least one geostationary satellite communication system is operational in the selected coverage area and uses a plurality of earth stations (421-435,511,512), each of which transmits a respective first beam that is directed upward at an orbital arc of a geostationary satellite (14,501) constrained to operate above the equator of the earth, and each of which uses the respective first beam to transmit radio frequency signals to the geostationary satellite at a first radio frequency and receive radio frequency signals from the geostationary satellite at a second radio frequency, the system comprising: at least one ground station (11G,531,532,533) for creating a radio frequency coverage area that provides radio frequency links to the one or more aircraft that are operational in the radio frequency coverage area, comprising: a transmitter that generates a radio frequency signal at the second radio frequency for transmission to the one or more aircraft; and an antenna that produces a second beam of the radio frequency signal generated at the second radio frequency, characterized in that the second beam (401-408, 541-543) is broader in extent than the respective first beam and is directed upward outside the main lobes of the earth stations such that the second beam substantially fails to radiate into any respective first beam transmitted by the earth stations (421-435, 511-512) of the geostationary satellite communication system. at least one ground station (11G,531,532,533) for creating a radio frequency coverage area that provides radio frequency links to the one or more aircraft that are operational in the radio frequency coverage area, comprising: a transmitter that generates a radio frequency signal at the second radio frequency for transmission to the one or more aircraft; and an antenna that produces a second beam of the radio frequency signal generated at the second radio frequency, characterized in that the second beam (401-408, 541-543) is broader in extent than the respective first beam and is directed upward outside the main lobes of the earth stations such that the second beam substantially fails to radiate into any respective first beam transmitted by the earth stations (421-435, 511-512) of the geostationary satellite communication system. a transmitter that generates a radio frequency signal at the second radio frequency for transmission to the one or more aircraft; and an antenna that produces a second beam of the radio frequency signal generated at the second radio frequency, characterized in that the second beam (401-408, 541-543) is broader in extent than the respective first beam and is directed upward outside the main lobes of the earth stations such that the second beam substantially fails to radiate into any respective first beam transmitted by the earth stations (421-435, 511-512) of the geostationary satellite communication system.
An assembly for driving a stopper in a drug reservoir of a drug delivery device, the assembly comprising: an anti-rotational stabilizer sized to move along an axis of the reservoir, said anti-rotational stabilizer slidably and anti-rotationally coupled to a housing of the drug delivery device; a stopper adapter configured to engage the stopper of the drug reservoir; a telescoping assembly that telescopes by relative rotation between at least a proximal shaft and a distal shaft oriented along the axis of said reservoir 420); characterized in the proximal shaft being linearly stabilized by a shoulder bearing of the anti-rotational stabilizer, said shoulder bearing preventing movement of said proximal shaft in a proximal direction with respect to the anti-rotational stabilizer while permitting rotation of said proximal shaft with respect to the anti-rotational stabilizer and the distal shaft being in engagement with the stopper adapter; anti-rotational guides (505a, 505b, 515a) including telescoping posts (505a, 515a) anti-rotationally extending between the anti-rotational stabilizer and the stopper adapter; and in that the assembly is configured so that rotating said proximal shaft with respect to said anti-rotational stabilizer moves said distal shaft and said stopper adapter along said axis, thereby slidably expanding the anti-rotational telescoping posts (505a, 515a). an anti-rotational stabilizer sized to move along an axis of the reservoir, said anti-rotational stabilizer slidably and anti-rotationally coupled to a housing of the drug delivery device; a stopper adapter configured to engage the stopper of the drug reservoir; a telescoping assembly that telescopes by relative rotation between at least a proximal shaft and a distal shaft oriented along the axis of said reservoir 420); characterized in the proximal shaft being linearly stabilized by a shoulder bearing of the anti-rotational stabilizer, said shoulder bearing preventing movement of said proximal shaft in a proximal direction with respect to the anti-rotational stabilizer while permitting rotation of said proximal shaft with respect to the anti-rotational stabilizer and the distal shaft being in engagement with the stopper adapter; anti-rotational guides (505a, 505b, 515a) including telescoping posts (505a, 515a) anti-rotationally extending between the anti-rotational stabilizer and the stopper adapter; and in that the assembly is configured so that rotating said proximal shaft with respect to said anti-rotational stabilizer moves said distal shaft and said stopper adapter along said axis, thereby slidably expanding the anti-rotational telescoping posts (505a, 515a).