mhurhangee/ep-ind-claims huggingface dataset:
A fully-electric scissor lift comprising: a base having a plurality of wheels (14A, 14B); a scissor lift mechanism having a first end coupled to the base and being moveable between an extended position and a retracted position, the scissor lift mechanism comprising a foldable series of linked support members; a work platform configured to support a load, the work platform being coupled to and supported by a second end of the scissor lift mechanism; a linear actuator configured to selectively move the scissor lift mechanism between the extended position and the retracted position, the linear actuator having an electric lift motor, the linear actuator including a push tube assembly including a protective outer tube and a push tube, the protective outer tube having a trunnion connection portion rotatably coupling the protective outer tube to one support member of the foldable series of linked support members, the push tube having a connection end rotatably coupling the push tube to another support member of the foldable series of linked support members; and a battery configured to apply power to the electric lift motor. a base having a plurality of wheels (14A, 14B); a scissor lift mechanism having a first end coupled to the base and being moveable between an extended position and a retracted position, the scissor lift mechanism comprising a foldable series of linked support members; a work platform configured to support a load, the work platform being coupled to and supported by a second end of the scissor lift mechanism; a linear actuator configured to selectively move the scissor lift mechanism between the extended position and the retracted position, the linear actuator having an electric lift motor, the linear actuator including a push tube assembly including a protective outer tube and a push tube, the protective outer tube having a trunnion connection portion rotatably coupling the protective outer tube to one support member of the foldable series of linked support members, the push tube having a connection end rotatably coupling the push tube to another support member of the foldable series of linked support members; and a battery configured to apply power to the electric lift motor.
A V-ribbed belt comprising: a compression rubber layer containing a vulcanizate of a rubber composition; a tension member; and a tension layer, and having a side part of the compression rubber layer being a ground surface coming into contact with pulleys and a bottom part of the compression rubber layer being a non-ground surface not coming into contact with pulleys, characterized in that the V-ribbed belt has, on a surface of the bottom part, a composite layer containing a fiber assembly that contains a heat-resistant fiber which is not melted at a vulcanization temperature of the rubber composition, and a vulcanizate of the rubber composition impregnated among fibers of the fiber assembly; wherein the weight per unit area of the fiber assembly is 8 to 20 g/m 2; wherein the compression rubber layer forms a continuous phase with the vulcanizate of the rubber composition; wherein the heat-resistant fiber contains a long fiber.
A mobile station for use in a cellular radio system comprising a multitude of base stations, the mobile station being adapted to enter a first mode while not connected to the cellular radio system and a second mode while connected to the cellular radio system, the mobile station further adapted to perform radio system measurements at a predetermined time interval while in the first mode, the mobile station further being adapted to determine the base station providing the strongest signal from said radio measurements,wherein the mobile station is adapted to enter a third mode in which radio measurements are performed more frequently than in said first mode in response to at least one predetermined trigger event, characterized in that said at least one predetermined trigger event include detection of browsing of a telephone book of the mobile station and/or dialing of a telephone number.
A method (400; 500) of correcting a digital seismic image, the method comprising: receiving (405; 525) distributed acoustic sensing data of responses associated with seismic excitations in an area of interest, wherein the area of interest includes a sea surface, a water column under the sea surface, a seafloor under the water column, and a subseafloor under the seafloor, wherein the seismic excitations are generated by at least one seismic source in the area of interest, and wherein said responses are detected by at least one fiber optic sensing apparatus configured for distributed acoustic sensing that is at least in the water column; determining (410; 530) a function of speed of sound in water using the distributed acoustic sensing data; and correcting (415; 535) a digital seismic image associated with the area of interest using the function of speed of sound in water to generate a corrected digital seismic image, wherein determining the function of speed of sound in water includes deriving a Vw(z) function, a Vw(z,t) function, a Vw(x,y,z,t) function, or any combination thereof, wherein (x,y,z) are three-dimensional space variables, (t) is a time variable, and Vw represents speed of sound in water. receiving (405; 525) distributed acoustic sensing data of responses associated with seismic excitations in an area of interest, wherein the area of interest includes a sea surface, a water column under the sea surface, a seafloor under the water column, and a subseafloor under the seafloor, wherein the seismic excitations are generated by at least one seismic source in the area of interest, and wherein said responses are detected by at least one fiber optic sensing apparatus configured for distributed acoustic sensing that is at least in the water column; determining (410; 530) a function of speed of sound in water using the distributed acoustic sensing data; and correcting (415; 535) a digital seismic image associated with the area of interest using the function of speed of sound in water to generate a corrected digital seismic image, wherein determining the function of speed of sound in water includes deriving a Vw(z) function, a Vw(z,t) function, a Vw(x,y,z,t) function, or any combination thereof, wherein (x,y,z) are three-dimensional space variables, (t) is a time variable, and Vw represents speed of sound in water.
An apparatus for depositing a thin film on a flexible substrate, comprising: a substrate support having an outer surface for guiding the substrate through a vacuum processing region, wherein the substrate support is a coating drum suitable for a flexible substrate; a plasma deposition source for depositing the thin film on the substrate in the vacuum processing region, wherein the plasma deposition source comprises an electrode; and an actuator configured for adjusting the distance between the electrode and the outer surface, wherein the plasma deposition source comprises a support element comprising one of a disc, a portion of a disc, and a rod, wherein the support element is connected to the electrode and to an axis of the coating drum such that a thermal expansion of the support element is in the same direction as a thermal expansion of the coating drum. a substrate support having an outer surface for guiding the substrate through a vacuum processing region, wherein the substrate support is a coating drum suitable for a flexible substrate; a plasma deposition source for depositing the thin film on the substrate in the vacuum processing region, wherein the plasma deposition source comprises an electrode; and an actuator configured for adjusting the distance between the electrode and the outer surface, wherein the plasma deposition source comprises a support element comprising one of a disc, a portion of a disc, and a rod, wherein the support element is connected to the electrode and to an axis of the coating drum such that a thermal expansion of the support element is in the same direction as a thermal expansion of the coating drum.
An optical measurement method for determining the spatial position of at least one light nanoemitter of a sample, the method comprising: projecting a compact light distribution or a combination of compact light distributions such that an intensity zero exists at the centre of the compact light distribution or the centre of the combination of compact distributions; moving a compact light distribution or a combination of compact light distributions, to track the light nanoemitter and to position the nanoemitter at the centre of the compact light distribution or the centre of the combination of compact distributions as a function of time; The evaluation of the position of the light emitter, when it is at the centre of the compact light distribution or at the centre of the combination of compact light distributions, without fluorescent light. projecting a compact light distribution or a combination of compact light distributions such that an intensity zero exists at the centre of the compact light distribution or the centre of the combination of compact distributions; moving a compact light distribution or a combination of compact light distributions, to track the light nanoemitter and to position the nanoemitter at the centre of the compact light distribution or the centre of the combination of compact distributions as a function of time; The evaluation of the position of the light emitter, when it is at the centre of the compact light distribution or at the centre of the combination of compact light distributions, without fluorescent light.
A work station, in particular a cutting station, a punching station, a perforating station, a molding station, a deep-drawing station or a sealing station, for a packaging machine, in particular for a deep-draw packaging machine, comprising - a frame supported on the ground; - at least one work unit having a working tool; and - at least one lifting mechanism which is supported at the frame and by which the work unit can be raised and lowered relative to the frame to perform a working stroke, wherein the lifting mechanism comprises a drive, a rotor and a gear, wherein the rotor is rotatable by means of the drive to raise the work unit in the one direction and to lower the work unit in the opposite direction, wherein the gear is connected to the rotor at the input side and is connected to the work unit at the output side, and wherein the drive is a rotary drive having a rotating drive member, in particular a runner or an output shaft of an electric motor, wherein the rotational movement of the output member is transmitted to the rotor. - a frame supported on the ground; - at least one work unit having a working tool; and - at least one lifting mechanism which is supported at the frame and by which the work unit can be raised and lowered relative to the frame to perform a working stroke,
A method, comprising: determining that a computing device (102-1, 102-2, 202) is connected to a first network; altering a transmission power of the computing device (102-1, 102-2, 202) to a first transmission power level based on a network type of the first network; determining that the computing device (102-1, 102-2, 202) is disconnected from the first network and connected to a second network; altering the transmission power of the computing device (102-1, 102-2, 202) to a second transmission power level based on a network type of the second network, wherein the network type of the first network is an infrastructure network connection and the network type of the second network is a peer to peer network connection; and querying a service set identifier, SSID, connection of the first network, wherein determining that the computing device (102-1, 102-2, 202) is connected to the first network is based on querying the SSID connection of the first network. determining that a computing device (102-1, 102-2, 202) is connected to a first network; altering a transmission power of the computing device (102-1, 102-2, 202) to a first transmission power level based on a network type of the first network; determining that the computing device (102-1, 102-2, 202) is disconnected from the first network and connected to a second network; altering the transmission power of the computing device (102-1, 102-2, 202) to a second transmission power level based on a network type of the second network, wherein the network type of the first network is an infrastructure network connection and the network type of the second network is a peer to peer network connection; and querying a service set identifier, SSID, connection of the first network,
System for the insertion of weft threads in a projectile weaving loom of the type in which the projectiles are launched into the shed due to the mechanic action of a thrust member provided with alternate cyclic movement, characterised in that said thrust member consists of a rack driven into motion by a plurality of toothed gears, each driven by a respective electric servomotor, arranged in succession along the rack and meshed therewith.
An electric motor diagnosis device comprising: - a load torque calculation unit that is configured to calculate a load torque of an electric motor, using voltage and current sampled and input from a main circuit to which the electric motor is connected; - a negative-phase-sequence admittance characteristics storage unit that is configured to store load torque/negative-phase-sequence admittance characteristics obtained in advance when the electric motor is normal; - a negative-phase-sequence admittance calculation unit that is configured to calculate a negative-phase-sequence admittance, Y n, from the load torque calculated by the load torque calculation unit, using the load torque/negative-phase-sequence admittance characteristics stored in the negative-phase-sequence admittance characteristics storage unit; - a winding short-circuit evaluation value calculation unit that is configured to calculate a winding short-circuit evaluation value, Δ, on the basis of the negative-phase-sequence admittance, Y n, calculated by the negative-phase-sequence admittance calculation unit, the negative-phase-sequence current, I sn, calculated from input current, and the negative-phase-sequence voltage, V sn, calculated from input voltage according to the following formula: Δ = I sn − Y n ⋅ V sn; and - a winding short-circuit determination unit that is configured to determine that winding short-circuit has occurred, when the winding short-circuit evaluation value, Δ, calculated by the winding short-circuit evaluation value calculation unit is equal to or greater than a threshold value. - a load torque calculation unit that is configured to calculate a load torque of an electric motor, using voltage and current sampled and input from a main circuit to which the electric motor is connected; - a negative-phase-sequence admittance characteristics storage unit that is configured to store load torque/negative-phase-sequence admittance characteristics obtained in advance when the electric motor is normal; - a negative-phase-sequence admittance calculation unit that is configured to calculate a negative-phase-sequence admittance, Y n, from the load torque calculated by the load torque calculation unit, using the load torque/negative-phase-sequence admittance characteristics stored in the negative-phase-sequence admittance characteristics storage unit; - a winding short-circuit evaluation value calculation unit that is configured to calculate a winding short-circuit evaluation value, Δ, on the basis of the negative-phase-sequence admittance, Y n, calculated by the negative-phase-sequence admittance calculation unit, the negative-phase-sequence current, I sn, calculated from input current, and the negative-phase-sequence voltage, V sn, calculated from input voltage according to the following formula: Δ = I sn − Y n ⋅ V sn; and - a winding short-circuit determination unit that is configured to determine that winding short-circuit has occurred, when the winding short-circuit evaluation value, Δ, calculated by the winding short-circuit evaluation value calculation unit is equal to or greater than a threshold value.
A hydraulic adaptor for the safe operation, using oleodynamic pumps, of cable-cutting heads, crimping heads or other such tool heads which meet the electrical safety requirements and which are placed onto cables that might carry a voltage, wherein the adapter (D, D1) consists of a one-piece or composite vessel (1, 1s; 1i / 10, 10s) which is divided internally, by means of a scaling one-piece or composite piston (2, 2s; 22; 2i) that slides freely or by means of an elastically deformable membrane, into two cylinder volumes (11, 11s) which arc coaxial with one another, characterized in that one of these cylinder volumes (11, 11s) is supplied with non-electrocally-insulating oil by a pump, while the other is filled with electrically insulating oil and is connected Lo an interchangeable tool head via a safety connection hose.
A character input apparatus comprising: completing means configured to predict, based on a character string formed by at least one character, which is input by a user, a character string formed by at least one character which is to be input as a portion following the character string input by the user, and complete the character string input by the user, by adding the predicted character string as a portion complementary thereto; characterized by voice guidance means configured to perform voice guidance for reading aloud a character which has been focused on a keyboard screen displayed on a display section according to a user operation; and voice control means configured to control, in a case where said voice guidance means is set to perform the voice guidance and said completing means is set to perform completion of the character string input by the user, said voice guidance means to read aloud the character string input by the user and the predicted character string added by the completing means in a manner distinguishable therebetween. completing means configured to predict, based on a character string formed by at least one character, which is input by a user, a character string formed by at least one character which is to be input as a portion following the character string input by the user, and complete the character string input by the user, by adding the predicted character string as a portion complementary thereto; characterized by voice guidance means configured to perform voice guidance for reading aloud a character which has been focused on a keyboard screen displayed on a display section according to a user operation; and voice control means configured to control, in a case where said voice guidance means is set to perform the voice guidance and said completing means is set to perform completion of the character string input by the user, said voice guidance means to read aloud the character string input by the user and the predicted character string added by the completing means in a manner distinguishable therebetween.
A method of wireless communication performed by a user equipment, UE,, comprising: receiving, from a base station, an indication that a plurality of physical downlink shared channel, PDSCH, communications are associated for purposes of demodulation reference signal, DMRS, bundling; characterized in that it further comprises: determining whether a phase continuity is maintained for the plurality of PDSCH communications based at least on respective quasi-co-location, QCL, assumptions for the plurality of PDSCH communications; and processing the plurality of PDSCH communications based at least on whether the phase continuity is maintained, wherein the processing comprises: coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined to be maintained, and non-coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined not to be maintained. determining whether a phase continuity is maintained for the plurality of PDSCH communications based at least on respective quasi-co-location, QCL, assumptions for the plurality of PDSCH communications; and processing the plurality of PDSCH communications based at least on whether the phase continuity is maintained, wherein the processing comprises: coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined to be maintained, and non-coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined not to be maintained. coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined to be maintained, and non-coherently processing DMRSs from the plurality of PDSCH communication for which phase continuity is determined not to be maintained.
A method for adjusting an oscillator clock frequency, comprising the steps of: applying a first control value to a first oscillator, applying a second control value different from the first control value, to a second oscillator, measuring a frequency (F1, F2; N1, N2) of each of the first and second oscillators, determining by interpolation a new first control value (S1') depending on the frequencies measured, on the first and second control values, and on a desired frequency (FC, NC1), and applying the new first control value to the first oscillator, characterized in that it comprises a step of determining by interpolation a corrected frequency measurement (N2C) of the second oscillator, depending on a frequency deviation (ΔNm, ΔNC) measured between the first and second oscillators subjected to the same third control value (SK, Sm, SC1), on the third control value, and on the control value applied to the second oscillator, the corrected frequency measurement being used as frequency measurement of the second oscillator for determining the new first control value. applying a first control value to a first oscillator, applying a second control value different from the first control value, to a second oscillator, measuring a frequency (F1, F2; N1, N2) of each of the first and second oscillators, determining by interpolation a new first control value (S1') depending on the frequencies measured, on the first and second control values, and on a desired frequency (FC, NC1), and applying the new first control value to the first oscillator, characterized in that it comprises a step of determining by interpolation a corrected frequency measurement (N2C) of the second oscillator, depending on a frequency deviation (ΔNm, ΔNC) measured between the first and second oscillators subjected to the same third control value (SK, Sm, SC1), on the third control value, and on the control value applied to the second oscillator, the corrected frequency measurement being used as frequency measurement of the second oscillator for determining the new first control value.