mhurhangee/ep-ind-claims huggingface dataset:
Plant for processing plastic preforms, comprising an injection-moulding machine for producing the plastic preforms, a sterile blow-moulding machine for forming the plastic preforms into plastic containers, and a transport system for transporting, at least partially and/or in portions, the produced plastic preforms from the injection-moulding machine to the blow-moulding machine, wherein during transport, the plastic preforms can be guided in particular at a mouth region of the plastic preforms, the transport system comprises a sterile pneumatic conveyor or a plurality of magnetic shuttles and the plastic preforms are transported from the injection-moulding machine to the blow-moulding machine by the sterile pneumatic conveyor or magnetic shuttle, wherein a plurality of plastic preforms is arranged in an injection-moulding tool at an extraction station of the injection-moulding machine, characterised in that the plurality of plastic preforms are handed over individually by a handling device to a single strand of a transport line of the magnetic shuttles, so that the plastic preforms are transported individually to the blow-moulding machine, and wherein the handling device comprises at least one switchable gripper. the transport system comprises a sterile pneumatic conveyor or a plurality of magnetic shuttles and the plastic preforms are transported from the injection-moulding machine to the blow-moulding machine by the sterile pneumatic conveyor or magnetic shuttle, wherein a plurality of plastic preforms is arranged in an injection-moulding tool at an extraction station of the injection-moulding machine, characterised in that the plurality of plastic preforms are handed over individually by a handling device to a single strand of a transport line of the magnetic shuttles, so that the plastic preforms are transported individually to the blow-moulding machine, and wherein the handling device comprises at least one switchable gripper.
A method of interrogating an interferometric optical fibre sensor system, the system comprising a laser source for generating interrogation light and a sensor array with at least a first and a second reflector and with a sensor delay being a difference in propagation time for light being reflected from the first and second reflector, respectively, the method comprising: - continuously and repeatedly frequency sweeping the interrogation light from the laser source within a sweep bandwidth, SBW, over a sweep duration, t sw, with a substantially constant sweep rate r = SBW / t sw, to produce a swept interrogation light signal, - launching the swept interrogation light signal into the sensor array, - detecting reflected signals being returned from the sensor array by each of the reflectors, respectively, wherein detection comprises mixing a return light signal from the array with a local oscillator, LO, signal onto an optical receiver to produce an electrical radio frequency signal, - demultiplexing the electrical radio frequency signal into a first and second signal channel, corresponding to the first and second reflector, respectively, - continuously demodulating each of the first and second signal channel into a first phase response from the first reflector and a second phase response from the second reflector, and - subtracting the first phase response from the second phase response to obtain a sensor phase signal. - continuously and repeatedly frequency sweeping the interrogation light from the laser source within a sweep bandwidth, SBW, over a sweep duration, t sw, with a substantially constant sweep rate r = SBW / t sw, to produce a swept interrogation light signal, - launching the swept interrogation light signal into the sensor array, - detecting reflected signals being returned from the sensor array by each of the reflectors, respectively, wherein detection comprises mixing a return light signal from the array with a local oscillator, LO, signal onto an optical receiver to produce an electrical radio frequency signal, - demultiplexing the electrical radio frequency signal into a first and second signal channel, corresponding to the first and second reflector, respectively, - continuously demodulating each of the first and second signal channel into a first phase response from the first reflector and a second phase response from the second reflector, and - subtracting the first phase response from the second phase response to obtain a sensor phase signal.
An aerosol-forming substrate for use in combination with an inductive heating device, the aerosol-forming substrate comprising a solid material capable of releasing volatile compounds that can form an aerosol upon heating of the aerosol-forming substrate, and a first susceptor material for heating the aerosol-forming substrate, the first susceptor material being arranged in thermal proximity of the solid material, characterized in that the aerosol-forming substrate comprises at least a second susceptor material being arranged in thermal proximity of the solid material, the second susceptor material having a second Curie-temperature which is lower than a first Curie-temperature of the first susceptor material, and the second Curie temperature of the second susceptor material corresponding to a predefined maximum heating temperature of the first susceptor material.
Method for communicating between a communication unit of an apparatus and an external communication unit via a mobile telephone unit, wherein a serial connection is set up between the communication unit of the apparatus and the mobile telephone unit, wherein a protocol of the serial connection has a data field and a first header, wherein a connection is set up between the mobile telephone unit and the external communication unit, wherein a second header for the connection is generated from the first header in the mobile telephone unit, and wherein the data field is transmitted without change from the serial connection to the connection, characterized in that an operation of setting up a communication connection between the communication unit of the apparatus and the external communication unit takes place, wherein the communication unit sends a socket request to the mobile telephone unit via the serial connection, the mobile telephone unit transmits a message for providing a socket to the external communication unit via the connection, the external communication unit transmits a message relating to the provided socket to the mobile telephone unit via the connection and the mobile telephone unit transmits a message relating to the provided socket to the communication unit via the serial connection.
A fuel injection system for a piston engine, the fuel injection system comprising a high-pressure pump (5a, 5b) for pressurizing liquid fuel for fuel injection and a low-pressure pump for feeding fuel to the high-pressure pump (5a, 5b), the downstream side of the high-pressure pump (5a, 5b) forming a high-pressure side of the fuel injection system, the high-pressure side of the fuel injection system being provided with a pressure damper, which comprises a body, a piston that is connected to the body by means of a spring, and at least one conduit for allowing flow from one side of the piston to the opposite side, the piston comprising a first piston surface having a first area and a second piston surface having a second area, characterized in that the second area differs from the first area and by adjusting the mass of the piston, the stiffness of the spring and the areas of the first piston surface and the second piston surface the pressure damper is configured to have a natural frequency corresponding to a selected frequency at which pressure fluctuations on the high-pressure side of the fuel injection system occur.
A computer-implemented method of predicting action labels for a video stream, comprising: receiving the video stream; calculating an optical flow of a current frame and a next frame of the video stream; producing motion information from the optical flow; using a lower-layer recurrent neural network, RNN, of a stratified network to generate an attention map of the current frame of the video stream from a first previous hidden state from the lower-layer RNN, a second previous hidden state from an upper-layer RNN of the stratified network, and the motion information; and using the upper-layer RNN to predict an action label for the current frame from the motion information, the second previous hidden state, and the attention map applied to a frame feature map of the current frame. receiving the video stream; calculating an optical flow of a current frame and a next frame of the video stream; producing motion information from the optical flow; using a lower-layer recurrent neural network, RNN, of a stratified network to generate an attention map of the current frame of the video stream from a first previous hidden state from the lower-layer RNN, a second previous hidden state from an upper-layer RNN of the stratified network, and the motion information; and using the upper-layer RNN to predict an action label for the current frame from the motion information, the second previous hidden state, and the attention map applied to a frame feature map of the current frame.
A solar power system comprising: a spherical frame; a plurality of solar power cells mounted on an outer surface of the spherical frame; a hemispherical reservoir mounted to the spherical frame to enclose at least a portion of the spherical frame such that a gap is defined between the spherical frame and an interior surface of the reservoir, the reservoir configured to hold a fluid that comprises a solar cell cleaning solution; and at least one actuator mounted to the spherical frame and operable to rotate a portion of the spherical frame that supports the plurality of solar power cells through the gap and into the reservoir. a spherical frame; a plurality of solar power cells mounted on an outer surface of the spherical frame; a hemispherical reservoir mounted to the spherical frame to enclose at least a portion of the spherical frame such that a gap is defined between the spherical frame and an interior surface of the reservoir, the reservoir configured to hold a fluid that comprises a solar cell cleaning solution; and at least one actuator mounted to the spherical frame and operable to rotate a portion of the spherical frame that supports the plurality of solar power cells through the gap and into the reservoir.
A mobile wireless communications device comprising: a processor; a modulator coupled downstream from said processor; a power amplifier coupled downstream from said modulator and having a control voltage input; an antenna coupled downstream from said power amplifier; and a feedback path coupled between said antenna and said processor; said processor coupled to the control voltage input of said power amplifier, said processor configured to determine an adjacent channel leakage value based upon said feedback path, and selectively adjust a control voltage for said power amplifier based upon the adjacent channel leakage value, wherein power amplifier loading conditions are taken into account while adjusting the control voltage. a processor; a modulator coupled downstream from said processor; a power amplifier coupled downstream from said modulator and having a control voltage input; an antenna coupled downstream from said power amplifier; and a feedback path coupled between said antenna and said processor; said processor coupled to the control voltage input of said power amplifier, said processor configured to determine an adjacent channel leakage value based upon said feedback path, and selectively adjust a control voltage for said power amplifier based upon the adjacent channel leakage value, wherein power amplifier loading conditions are taken into account while adjusting the control voltage. determine an adjacent channel leakage value based upon said feedback path, and selectively adjust a control voltage for said power amplifier based upon the adjacent channel leakage value, wherein power amplifier loading conditions are taken into account while adjusting the control voltage.
Heating element for heating gas to high temperatures and comprising at least one tube designed for the through-flow of gas to be heated and an electrical heating wire within said tube, which is designed for the transfer of heat to the gas passing along the heating wire, characterized in that the heating wire is formed as a heating rod extending along the tube axis, the maximum clearance of which to the inner wall of the tube does not exceed an amount of 10 mm for at least 80 % of the extent and/or at least 80 % of the overlapping length of the tube and the heating rod.
Method for analyzing image data from a patient after a minimally invasive intervention on a lesion, in particular after a tumor ablation on a tumor, for deciding on minimally invasive correction measures such as ablative measures, wherein a pre-intervention image dataset showing the lesion and an intra- and/or post-intervention, second image dataset showing the intervention region are analyzed, wherein attribute data describing attributes of the image data is derived from the image datasets (1, 2) at least in part automatically, which attribute data is provided as input data to an artificial intelligence analysis algorithm that is trained using training data from other patients, which training data is associated with a ground truth, and that determines from the attribute data, change information that describes the change in the lesion and/or in the intervention region as a result of the intervention, wherein an analysis representation to be presented as an overlay on at least some of the image data is generated from the change information and is output.
A method for controlling an electric tool, the electric tool comprising an electric motor and an output shaft which is driven by the electric motor and configured for outputting a rotary torque to drive a tool bit to work on a work piece, the method comprising: measuring a parameter representing the load on the output shaft in dependence on time, calculating a second or higher derivative of the parameter in dependence on time, generating a control signal according to the second or higher derivative, changing a rotational speed of the electric tool in response to the control signal; presetting a predetermined threshold value before generating the control signal, wherein the control signal is generated only when the function value of the second or higher derivative is greater than or equal to the predetermined threshold value, wherein the parameter is one of a current supplied to the electric tool, a rotational speed of the output shaft, a voltage of the electric motor, the rotational speed of the electric motor, and the efficiency of the electric motor. measuring a parameter representing the load on the output shaft in dependence on time, calculating a second or higher derivative of the parameter in dependence on time, generating a control signal according to the second or higher derivative, changing a rotational speed of the electric tool in response to the control signal; presetting a predetermined threshold value before generating the control signal,
Apparatus for a vehicle, comprising: a suspension system for connecting a vehicle body and vehicle wheels, said suspension system including at least one suspension sensor (135, 137, 139, 141, 143) for sensing an operating parameter of said suspension system and at least one suspension actuator for modifying a performance characteristic of said suspension system; an active suspension control for controlling said performance characteristic in response to said suspension sensor (135, 137, 139, 141, 143); a road surface classifier that includes a bandpass filter, said road surface classifier operative to pass a signal that is a derivative of relative suspension travel, as determined by said suspension sensor, through said bandpass filter to generate a road surface signal representing a roughness of a road surface over which said vehicle travels; a braking system including a wheel speed sensor and a brake actuator; and an active braking control for detecting wheel slip in response to said wheel speed sensor during at least one of braking or accelerating of said vehicle and for modulating actuation of said brake actuator in response to said detected wheel slip, said active braking control being responsive to said road surface signal for modifying modulation of said brake actuator by increasing the amount of allowable wheel slip as a function of said road surface signal. a suspension system for connecting a vehicle body and vehicle wheels, said suspension system including at least one suspension sensor (135, 137, 139, 141, 143) for sensing an operating parameter of said suspension system and at least one suspension actuator for modifying a performance characteristic of said suspension system; an active suspension control for controlling said performance characteristic in response to said suspension sensor (135, 137, 139, 141, 143); a road surface classifier that includes a bandpass filter, said road surface classifier operative to pass a signal that is a derivative of relative suspension travel, as determined by said suspension sensor, through said bandpass filter to generate a road surface signal representing a roughness of a road surface over which said vehicle travels; a braking system including a wheel speed sensor and a brake actuator; and an active braking control for detecting wheel slip in response to said wheel speed sensor during at least one of braking or accelerating of said vehicle and for modulating actuation of said brake actuator in response to said detected wheel slip, said active braking control being responsive to said road surface signal for modifying modulation of said brake actuator by increasing the amount of allowable wheel slip as a function of said road surface signal.
Double-sided, indexable face milling insert, comprising an upperside and an underside, a neutral plane parallel to the same and with which a geometrical centre axis forms a right angle, the insert having a square basic shape, wherein each of the upperside and an underside includes four alternately applicable cutting edges, which are formed along circumferential borderlines in transitions between a number of clearance surfaces (13, 15) and the upperside as well as the underside, and which individually include a chip-removing main edge and a surface-wiping secondary edge, which - as viewed in planar view - forms an obtuse angle with the main edge, characterized in that, between each pair of upper and lower secondary edges, there extends a corner surface that serves as a clearance surface and connects to the secondary edges via part surfaces (151, 152), which - as viewed in side elevation - form an acute angle (η) with individual reference planes parallel to the neutral plane.
A filter mask comprising a head unit which is present on the head of the user during use and a face unit which is provided with a face screen protecting the face during use, the head unit being provided with first coupling means which cooperate with second coupling means which form part of the face unit and detachably couple the face unit to the head unit, the head unit comprising a housing as well as a fan accommodated therein, the housing being provided with an air intake opening and an air exhaust opening, the exhaust opening being present near the face screen and the filter mask further including a head strap by which the filter mask can be fastened to the head of a user, characterized in that the housing further accommodates a filter which is located between the intake opening and the fan, as well as a battery connected to the fan and that the housing is elongated and box-shaped and has a longitudinally curved bottom, where the exhaust opening is located near a first end of the housing, and in that the head strap is connected to the face unit.
A martensitic stainless steel seamless pipe for oil country tubular goods having a composition comprising, in mass%, C: 0.0100 to 0.0400%, Si: 0.10% or more and 0.5% or less, Mn: 0.25 to 0.50%, P: 0.030% or less, S: 0.005% or less, Ni: 4.6 to 8.0%, Cr: 10.0 to 14.0%, Mo: 1.0 to 2.7%, Al: 0.01% or more and 0.1% or less, V: 0.005 to 0.2%, N: 0.1% or less, Ti: 0.06 to 0.25%, Cu: 0.01 to 1.0%, Co: 0.01 to 1.0%, optionally one or two selected from Nb: 0.1% or less, and W: 1.0% or less, optionally one or two or more selected from Ca: 0.010% or less, REM: 0.010% or less, Mg: 0.010% or less, and B: 0.010% or less, and the balance Fe and incidental impurities, the composition satisfying all of the relations in the formula below with values of the following formulae,, and, and also satisfying the formula or below, the martensitic stainless steel seamless pipe having a yield stress of 758 MPa or more, wherein the yield stress is determined in accordance with the specifics given in the description, − 109.37 C + 7.307 Mn + 6.399 Cr + 6.329 Cu + 11.343 Ni − 13.529 Mo + 1.276 W + 2.925 Nb + 196.775 N − 2.621 Ti − 120.307 − 0.0278 Mn + 0.0892 Cr + 0.00567 Ni + 0.153 Mo − 0.0219 W − 1.984 N + 0.208 Ti − 1.83 − 1.324 C + 0.0533 Mn + 0.0268 Cr + 0.0893 Cu + 0.00526 Ni + 0.0222 Mo − 0.0132 W − 0.473 N − 0.5 Ti − 0.514 − 35.0 ≤ value of 1 ≤ 45.0, − 0.600 ≤ value of 2 ≤ − 0.250, and − 0.400 ≤ value of 3 ≤ 0.010 Ti < 6.0 C 10.1 C < Ti, wherein C, Mn, Cr, Cu, Ni, Mo, W, Nb, N, and Ti represent the content of each element in mass%, and the content is 0 (zero) percent for elements that are not contained. optionally one or two selected from Nb: 0.1% or less, and W: 1.0% or less, optionally one or two or more selected from Ca: 0.010% or less, REM: 0.010% or less, Mg: 0.010% or less, and B: 0.010% or less, and the balance Fe and incidental impurities, the composition satisfying all of the relations in the formula below with values of the following formulae,, and, and also satisfying the formula or below, the martensitic stainless steel seamless pipe having a yield stress of 758 MPa or more, wherein the yield stress is determined in accordance with the specifics given in the description, − 109.37 C + 7.307 Mn + 6.399 Cr + 6.329 Cu + 11.343 Ni − 13.529 Mo + 1.276 W + 2.925 Nb + 196.775 N − 2.621 Ti − 120.307 − 0.0278 Mn + 0.0892 Cr + 0.00567 Ni + 0.153 Mo − 0.0219 W − 1.984 N + 0.208 Ti − 1.83 − 1.324 C + 0.0533 Mn + 0.0268 Cr + 0.0893 Cu + 0.00526 Ni + 0.0222 Mo − 0.0132 W − 0.473 N − 0.5 Ti − 0.514 − 35.0 ≤ value of 1 ≤ 45.0, − 0.600 ≤ value of 2 ≤ − 0.250, and − 0.400 ≤ value of 3 ≤ 0.010 Ti < 6.0 C 10.1 C < Ti, wherein C, Mn, Cr, Cu, Ni, Mo, W, Nb, N, and Ti represent the content of each element in mass%, and the content is 0 (zero) percent for elements that are not contained.