mhurhangee/ep-ind-claims huggingface dataset:
A bevel differential gear mechanism comprising: first and second side bevel gears (42, 44) that are co-axially aligned along an axis of rotation; and an array of pinion bevel gears mounted between the first and second side bevel gears (42, 44), the array of pinion bevel gears including a total number of pinion bevel gears, the pinion bevel gears intermeshing with the first and second side bevel gears (42, 44) to form a torque transfer arrangement configured for transferring torque between the pinion bevel gears and the first and second side bevel gears (42, 44) and for allowing the first and second side bevel gears (42, 44) to rotate at different rotational speeds with respect to one another, each of the pinion bevel gears having an actual gear face angle value (θ a) that is at least 90 percent of a target gear face angle value (θ t), the target gear face angle value (θ t) being equal to 360 degrees divided by twice the total number (G pb) of pinion bevel gears, characterized in that the array of pinion bevel gears includes an even number of pinion bevel gears that is greater than four, and wherein each of the pinion bevel gears has an actual outside diameter value (D oa) that is at least 80 percent of a target outside diameter value (D ot), wherein each of the pinion bevel gears has a spherical radius (R s), and wherein the target outside diameter value (D ot) for each of the pinion bevel gears is equal to 2 times the spherical radius (R s) multiplied by sine of the target gear face angle value (θ t). first and second side bevel gears (42, 44) that are co-axially aligned along an axis of rotation; and an array of pinion bevel gears mounted between the first and second side bevel gears (42, 44), the array of pinion bevel gears including a total number of pinion bevel gears, the pinion bevel gears intermeshing with the first and second side bevel gears (42, 44) to form a torque transfer arrangement configured for transferring torque between the pinion bevel gears and the first and second side bevel gears (42, 44) and for allowing the first and second side bevel gears (42, 44) to rotate at different rotational speeds with respect to one another, each of the pinion bevel gears having an actual gear face angle value (θ a) that is at least 90 percent of a target gear face angle value (θ t), the target gear face angle value (θ t) being equal to 360 degrees divided by twice the total number (G pb) of pinion bevel gears, characterized in that the array of pinion bevel gears includes an even number of pinion bevel gears that is greater than four, and wherein each of the pinion bevel gears has an actual outside diameter value (D oa) that is at least 80 percent of a target outside diameter value (D ot), wherein each of the pinion bevel gears has a spherical radius (R s), and wherein the target outside diameter value (D ot) for each of the pinion bevel gears is equal to 2 times the spherical radius (R s) multiplied by sine of the target gear face angle value (θ t).
A method for producing a polyimide layered product with a support comprising at least the support and the polyimide layered product, said polyimide layered product being a layered product having a structure of at least three layers in which at least one layer contains a slip agent and both surface layers have no slip agent, comprising: preparing a polyimide film with a face opposite to said support and subjected to a surface treatment; subjecting at least one of a face of said support and the face of said polyimide film which are opposite to each other to a patterning treatment using a coupling agent to form a satisfactorily bondable part and an easily releasable part which differ in adhesion/peel strength; subsequently, superposing said support and said polyimide film to be subjected to a pressurizing/heating tretment; subjecting said polyimide film to an organic alkali treatment after the polyimide film is bonded to the support by said pressurizing/heating treatment; and then, applying a polyamic acid solution free from a slip agent ingredient, drying the coating film and imidizing the film.
An encoder signal processing device comprising: an encoder signal input unit that is adapted to input an encoder signal including a pulse signal comprising sequential pulses having a cycle corresponding to a transport speed of a transported body from an encoder adapted to detect the transport speed of the transported body; an effective detection period setting unit that is configured to set an effective detection period for detecting a subsequent pulse signal each time a pulse signal is detected from the input encoder signal; a pulse signal detection unit that is adapted to detect the subsequent pulse signal from the encoder signal only within the set effective detection period; and a pulse signal generation unit that is adapted to generate a pulse signal after the effective detection period has lapsed in a case where the subsequent pulse signal was not detected from the encoder signal within the effective detection period. an encoder signal input unit that is adapted to input an encoder signal including a pulse signal comprising sequential pulses having a cycle corresponding to a transport speed of a transported body from an encoder adapted to detect the transport speed of the transported body; an effective detection period setting unit that is configured to set an effective detection period for detecting a subsequent pulse signal each time a pulse signal is detected from the input encoder signal; a pulse signal detection unit that is adapted to detect the subsequent pulse signal from the encoder signal only within the set effective detection period; and a pulse signal generation unit that is adapted to generate a pulse signal after the effective detection period has lapsed in a case where the subsequent pulse signal was not detected from the encoder signal within the effective detection period.
An optical amplification system, comprising: a first amplification module, wherein the first amplification module is configured to amplify at least a conventional band C band optical signal; a second amplification module, wherein the second amplification module is configured to amplify a longer wavelength band L band optical signal; an attenuator, wherein the attenuator is configured to attenuate at least a part of the C band optical signal amplified by the first amplification module, and transparently transmit the other part of the C band optical signal amplified by the first amplification module, to obtain a first optical signal and a second optical signal, the first optical signal is attenuated light of the C band optical signal amplified by the first amplification module, and the second optical signal is the C band optical signal transparently transmitted by the attenuator, and the attenuator is further configured to output the first optical signal to the second amplification module, and output the second optical signal to a wavelength division multiplexing module, wherein the first optical signal is used to perform auxiliary pumping for the second amplification module; and the wavelength division multiplexing module is configured to combine the optical signal amplified and output by the first amplification module and the L band optical signal amplified and output by the second amplification module, and output a combined signal; wherein the attenuator is an adjustable attenuator. a second amplification module, wherein the second amplification module is configured to amplify a longer wavelength band L band optical signal; an attenuator, wherein the attenuator is configured to attenuate at least a part of the C band optical signal amplified by the first amplification module, and transparently transmit the other part of the C band optical signal amplified by the first amplification module, to obtain a first optical signal and a second optical signal, the first optical signal is attenuated light of the C band optical signal amplified by the first amplification module, and the second optical signal is the C band optical signal transparently transmitted by the attenuator, and the attenuator is further configured to output the first optical signal to the second amplification module, and output the second optical signal to a wavelength division multiplexing module, wherein the first optical signal is used to perform auxiliary pumping for the second amplification module; and the wavelength division multiplexing module is configured to combine the optical signal amplified and output by the first amplification module and the L band optical signal amplified and output by the second amplification module, and output a combined signal; wherein the attenuator is an adjustable attenuator.
A terminal comprising: a body, the body formed of a first material being an electrically conductive material, the body having a longitudinal insertion axis and having a wire securing portion, a connection section along an end portion of the terminal and a contacting section extending away from the connection section, the contacting section having a flexible contact beam and a stationary contact beam, the flexible contact beam cantilevered from a first point, the stationary contact beam opposes the flexible contact beam and the wire securing portion having a wing; and a covering, the covering formed of a second material, the tensile strength of the second material being greater than the tensile strength of the first material, the covering having a peripheral contour, the peripheral contour is divided by a middle wall, the middle wall defining an upper section and a lower section, the upper section including a locking arm that extends toward the connection section, the lower section including a stiffening beam, the stiffening beam formed from the middle wall and cantilevered from a second point, wherein the stiffening beam engages the flexible contact beam at a third point, the second point is disposed between the first point and the third point and wherein the body is supported by the lower section, wherein a first securing tab is formed on the body and a second securing tab is formed on the covering and the tabs are disposed in a slot formed on the body. a body, the body formed of a first material being an electrically conductive material, the body having a longitudinal insertion axis and having a wire securing portion, a connection section along an end portion of the terminal and a contacting section extending away from the connection section, the contacting section having a flexible contact beam and a stationary contact beam, the flexible contact beam cantilevered from a first point, the stationary contact beam opposes the flexible contact beam and the wire securing portion having a wing; and a covering, the covering formed of a second material, the tensile strength of the second material being greater than the tensile strength of the first material, the covering having a peripheral contour, the peripheral contour is divided by a middle wall, the middle wall defining an upper section and a lower section, the upper section including a locking arm that extends toward the connection section, the lower section including a stiffening beam, the stiffening beam formed from the middle wall and cantilevered from a second point, wherein the stiffening beam engages the flexible contact beam at a third point, the second point is disposed between the first point and the third point and wherein the body is supported by the lower section, wherein a first securing tab is formed on the body and a second securing tab is formed on the covering and the tabs are disposed in a slot formed on the body.
A communication method for transmitting data (1202a, 1202b, 1202c) between a mobile station (1200a, 1200b, 1200c) and a base station so as to adapt to scheduling information when the base station notifies said scheduling information to the mobile station, said scheduling information indicating a result of a scheduling implemented by the base station, comprising: notifying, from the base station to the mobile station, the scheduling information by using an identifier in a manner that the mobile station is able to determine which identifier is applied, said identifier being utilized for identifying a plurality of processes related to data transmission between the mobile station and the base station, wherein the identifier is assigned in common to a plurality of mobile stations including the mobile station. notifying, from the base station to the mobile station, the scheduling information by using an identifier in a manner that the mobile station is able to determine which identifier is applied, said identifier being utilized for identifying a plurality of processes related to data transmission between the mobile station and the base station, wherein the identifier is assigned in common to a plurality of mobile stations including the mobile station.
A method of performing a diagnostic test, in particular a coagulation test, preferably a viscoelastic analysis, on a sample, in particular a blood sample or a fraction of a blood sample, comprising the following steps: a) providing a pipette tip, the pipette tip comprising a constituent and a constituent in a spatially separated manner, wherein the constituents and are adapted to form a diagnostic composition upon combination, wherein each of the constituents and are, independently from each other, an essentially dry formulation or a dry formulation, an essentially dry formulation being defined by a remaining amount of liquid in the composition of up to 10 % by weight, a Z and wherein the constituent is different than the constituent; b) aspirating the sample into the pipette tip, thereby mixing, preferably dissolving, the constituent and the constituent of said pipette tip in the sample and obtaining a mixture, preferably a solution, of the sample and constituents and, wherein in said mixture, constituents and form a diagnostic composition that is required to perform the diagnostic test on the sample; c) optionally, transferring the mixture of the sample and the diagnostic composition into a measurement container suitable for performing said diagnostic test, such as a cuvette; d) optionally, putting the measurement container such as the cuvette, into an apparatus suitable for performing said diagnostic test; and e) performing the diagnostic test of said mixture, optionally in the measurement container such as the cuvette. a) providing a pipette tip, the pipette tip comprising a constituent and a constituent in a spatially separated manner, wherein the constituents and are adapted to form a diagnostic composition upon combination, wherein each of the constituents and are, independently from each other, an essentially dry formulation or a dry formulation, an essentially dry formulation being defined by a remaining amount of liquid in the composition of up to 10 % by weight, a Z and wherein the constituent is different than the constituent; b) aspirating the sample into the pipette tip, thereby mixing, preferably dissolving, the constituent and the constituent of said pipette tip in the sample and obtaining a mixture, preferably a solution, of the sample and constituents and, wherein in said mixture, constituents and form a diagnostic composition that is required to perform the diagnostic test on the sample; c) optionally, transferring the mixture of the sample and the diagnostic composition into a measurement container suitable for performing said diagnostic test, such as a cuvette; d) optionally, putting the measurement container such as the cuvette, into an apparatus suitable for performing said diagnostic test; and e) performing the diagnostic test of said mixture, optionally in the measurement container such as the cuvette.
An aircraft fuel system comprising: a fuel cell adapted to contain fuel; a fuel cell receiving assembly having an inner surface adapted to receive the fuel cell; a shaped foam substrate machined from a foam substrate to fit between the inner surface of the fuel cell receiving assembly and the fuel cell; and a polyurea spray coating substantially covering the shaped foam substrate to form a fuel cell cushion, the polyurea spray coating sprayed onto the shaped foam substrate such that the fuel cell cushion is substantially nonabsorbent of fuel, the fuel cell cushion interposed between the inner surface of the fuel cell receiving assembly and the fuel cell to cushion the fuel cell from damage, wherein the fuel cell cushion is adhered to the fuel cell by the polyurea spray coating on at least one of the fuel cell and the fuel cell cushion, and wherein the polyurea spray coating at least partially covers the fuel cell, and the polyurea spray coating is configured to be flexible to prevent disbonding of the polyurea spray coating from the fuel cell. a fuel cell adapted to contain fuel; a fuel cell receiving assembly having an inner surface adapted to receive the fuel cell; a shaped foam substrate machined from a foam substrate to fit between the inner surface of the fuel cell receiving assembly and the fuel cell; and a polyurea spray coating substantially covering the shaped foam substrate to form a fuel cell cushion, the polyurea spray coating sprayed onto the shaped foam substrate such that the fuel cell cushion is substantially nonabsorbent of fuel, the fuel cell cushion interposed between the inner surface of the fuel cell receiving assembly and the fuel cell to cushion the fuel cell from damage, wherein the fuel cell cushion is adhered to the fuel cell by the polyurea spray coating on at least one of the fuel cell and the fuel cell cushion, and wherein the polyurea spray coating at least partially covers the fuel cell, and the polyurea spray coating is configured to be flexible to prevent disbonding of the polyurea spray coating from the fuel cell.
A rotary positive displacement pump for fluids, comprising a rotor arranged to eccentrically rotate in a chamber defined within a stator ring, which is located in a seat formed in a pump body and is connected to means (13, 14, 15, 19) for translating such a ring relative to the rotor, as the operating conditions of the pump vary, in order to change the pump displacement, wherein the stator ring includes guiding means arranged to slide in a guiding chamber formed in the pump body and communicating with a pressure zone of the pump or with utilisation devices of a pumped fluid, in order to receive fluid under pressure therefrom, characterised in that the guiding means, during the translation of the stator ring, are arranged to be pushed by the fluid under pressure into sealing contact with a surface of the guiding chamber and, in a zone of contact with such a surface, they have a curvature with such a radius of curvature that a homogeneous contact pressure distribution is ensured as the operating conditions of the pump and, consequently, the position of the stator ring, vary.
A method in a cellular communication network, the method comprising a network node generating at least one new Input Offset Value, IOV value, for use in protecting communications between the network node and a mobile station; the network node calculating a Message Authentication Code based on at least the at least one new IOV value, an incremented IOV counter value, and a constant indicating that the Message Authentication Code is calculated to protect the new IOV value; and the network node transmitting a message comprising an IOV container that includes the at least one new IOV value, the IOV counter value, and the calculated Message Authentication Code to the mobile station; the mobile station receiving the message; the mobile station calculating an Expected Message Authentication Code based on at least the new IOV value, the received IOV counter value, and the constant; the mobile station verifying that the received IOV counter value is larger than an IOV counter value locally stored in the mobile station; the mobile station discarding the message if the received IOV counter value is equal or lower than the locally stored IOV counter value; the mobile station determining whether the received Message Authentication Code matches the calculated Expected Message Authentication Code; and the mobile station using the new IOV value for protecting communications between the mobile station and the network node if the received Message Authentication Code matches the calculated Expected Message Authentication Code and the received IOV counter value is larger than the IOV counter value locally stored in the mobile station. a network node generating at least one new Input Offset Value, IOV value, for use in protecting communications between the network node and a mobile station; the network node calculating a Message Authentication Code based on at least the at least one new IOV value, an incremented IOV counter value, and a constant indicating that the Message Authentication Code is calculated to protect the new IOV value; and the network node transmitting a message comprising an IOV container that includes the at least one new IOV value, the IOV counter value, and the calculated Message Authentication Code to the mobile station; the mobile station calculating an Expected Message Authentication Code based on at least the new IOV value, the received IOV counter value, and the constant; the mobile station verifying that the received IOV counter value is larger than an IOV counter value locally stored in the mobile station; the mobile station discarding the message if the received IOV counter value is equal or lower than the locally stored IOV counter value; the mobile station determining whether the received Message Authentication Code matches the calculated Expected Message Authentication Code; and the mobile station using the new IOV value for protecting communications between the mobile station and the network node if the received Message Authentication Code matches the calculated Expected Message Authentication Code and the received IOV counter value is larger than the IOV counter value locally stored in the mobile station.
An activation apparatus for activating a downhole tool, the activation apparatus comprising a first, outer, activation member and a second, inner, activation member, the first activation member and the second activation member forming at least part of a lock of the activation apparatus, the first activation member configurable from a first, larger, dimension configuration to at least one smaller dimension configuration to unlock the activation apparatus, wherein the activation apparatus is configured such that application of at least two transition forces to the activation apparatus transitions the activation apparatus from a first configuration to a second configuration, and wherein the activation apparatus comprises a third configuration, the third configuration comprising a primed or intermediate configuration, and wherein the second activation member supports the first activation member in the first configuration and in the primed or intermediate configuration, and wherein the second activation member is axially moveable to de-support the first activation member to permit the activation apparatus to be transitioned to the second configuration.
Height-adjusting apparatus for a mobile foundation, comprising - a rod with a threaded portion, - a threaded plate, which is retained in an adjustable manner on the threaded portion and has a supporting surface, and - a tube, which has a cavity, wherein the tube comprises at least one wall aperture in a lateral surface of an outer side, as a result of which the rod projects laterally into the cavity such that a longitudinal axis of the rod is not parallel to a longitudinal axis of the tube, and wherein the height-adjusting apparatus is configured such that the rod can be rotated relative to the tube at least in part about an axis parallel to the longitudinal axis of the tube. - a rod with a threaded portion, - a threaded plate, which is retained in an adjustable manner on the threaded portion and has a supporting surface, and - a tube, which has a cavity,