mhurhangee/ep-ind-claims huggingface dataset:
Method performed in a base station, for enabling user equipment based fingerprinting positioning based on a round trip time of a signal sent between the base station and a user equipment, the user equipment is associated with a location point, the base station and the user equipment are comprised within a wireless communication system and adapted to exchange wireless signals, the method comprises the steps of: sending a first signal to the user equipment, receiving a second signal, corresponding to the sent first signal, where the second signal has been sent from the user equipment, as a response to the sent first signal, computing the round trip time of the signal by measuring time from the first signal is sent and the second signal is received, and wherein the method is characterized by: sending the computed round trip time to the user equipment, wherein the step of sending the computed round trip time is performed periodically, wherein the step of sending the computed round trip time is performed at a periodicity which is determined based on a property out of the group: magnitude of a position change of the user equipment, speed of the user equipment or a periodicity of a Discontinuous Reception cycle, DRX. sending a first signal to the user equipment, receiving a second signal, corresponding to the sent first signal, where the second signal has been sent from the user equipment, as a response to the sent first signal, computing the round trip time of the signal by measuring time from the first signal is sent and the second signal is received, and wherein the method is characterized by: sending the computed round trip time to the user equipment, wherein the step of sending the computed round trip time is performed periodically, wherein the step of sending the computed round trip time is performed at a periodicity which is determined based on a property out of the group: magnitude of a position change of the user equipment, speed of the user equipment or a periodicity of a Discontinuous Reception cycle, DRX. sending the computed round trip time to the user equipment, wherein the step of sending the computed round trip time is performed periodically, wherein the step of sending the computed round trip time is performed at a periodicity which is determined based on a property out of the group: magnitude of a position change of the user equipment, speed of the user equipment or a periodicity of a Discontinuous Reception cycle, DRX.
Method for avoiding a possible subsequent collision and for reducing the consequences of an accident resulting from a collision by releasing an automatic braking intervention by a vehicle safety system according to a braking model after an initial collision between the vehicle and a further road user, characterized in that vehicle data are determined from the vehicle's own driving behaviour, the determined vehicle data are buffered in a memory, the category of the road currently being driven along is inferred from the buffered vehicle data, an initial distance is determined on the basis of the determined road category, and the condition for releasing the brake is determined using this initial distance (d 0).
A method for controlling an electronic apparatus, the method comprising: acquiring an output value from a function module as a result of inputting an input value to the function module to perform a function corresponding to the function module included in the electronic apparatus; identifying at least one safety mechanism to be applied to the function module based on the input value and the output value and a safety integrity level of the function module; and detecting an error operation of the function module based on the output of the identified at least one safety mechanism; characterized in that the identifying of the at least one safety mechanism comprises: identifying (S1520, S1610) a first safety mechanism based on the input value and the output value and a safety integrity level of the function module, and identifying (S1520, S1630) a second safety mechanism being different from the first safety mechanism based on the safety integrity level of the function module, when an error operation of the function module is not detected based on the first safety mechanism and the input value and the output value satisfying a preset condition; wherein the detecting of the error operation of the function module is based on applying the second safety mechanism when the error operation is not detected by applying the first safety mechanism. acquiring an output value from a function module as a result of inputting an input value to the function module to perform a function corresponding to the function module included in the electronic apparatus; identifying at least one safety mechanism to be applied to the function module based on the input value and the output value and a safety integrity level of the function module; and detecting an error operation of the function module based on the output of the identified at least one safety mechanism; characterized in that the identifying of the at least one safety mechanism comprises: identifying (S1520, S1610) a first safety mechanism based on the input value and the output value and a safety integrity level of the function module, and identifying (S1520, S1630) a second safety mechanism being different from the first safety mechanism based on the safety integrity level of the function module, when an error operation of the function module is not detected based on the first safety mechanism and the input value and the output value satisfying a preset condition; identifying (S1520, S1610) a first safety mechanism based on the input value and the output value and a safety integrity level of the function module, and identifying (S1520, S1630) a second safety mechanism being different from the first safety mechanism based on the safety integrity level of the function module, when an error operation of the function module is not detected based on the first safety mechanism and the input value and the output value satisfying a preset condition; wherein the detecting of the error operation of the function module is based on applying the second safety mechanism when the error operation is not detected by applying the first safety mechanism.
Locking cap made of a molded plastic material for a vessel having a neck, intended for blocking a stopper in the neck of the vessel, comprising a wire-cap adapted for surrounding the stopper and the neck in the mounted configuration of the cap, the wire-cap having first flexible tabs able to be blocked on the neck of the vessel and second tabs able to be blocked on the stopper, said first tabs being offset relative to said second tabs in a certain axial direction of the cap, characterized in that the second tabs are flexible, the cap further comprising a ring surrounding the wire-cap so as to prevent access to said first and second tabs (8,9) from outside of the ring, the ring and the wire-cap being designed so as to be fitted one inside the other and to be interlocked together, the ring coming to surround the wire-cap, and in that said first and second tabs (8,9) of the wire-cap are arranged obliquely respectively in first and second openings (13,14) formed by the meshes of the wire-cap and in which said tabs (8,9) can disappear when mounting of the cap on the neck of the vessel.
A mounting device which is configured to obtain a holding state of an electronic component by super-resolution processing in which a high-resolution image of the electronic component is generated by processing multiple low-resolution images (LR12, LR22) containing the electronic component and a respective fiducial mark, and to mount the electronic component on a board, the mounting device comprising: a head having the fiducial mark and a holding member configured to hold the electronic component; an imaging device of which imaging range covers the electronic component held by the holding member, and the fiducial mark; characterized by a control device that is configured to control the imaging device in such a manner that a mark image for use in obtaining a position of the fiducial mark and low-resolution images (LR12, LR22) for use in the super-resolution processing are captured under different imaging conditions, wherein the imaging conditions include at least one of lighting position, color of lighting, light exposure time and focal length of a lighting section, the control device is configured to set a processing region as a target of the super-resolution processing based on an image region of the electronic component included in the mark image. a head having the fiducial mark and a holding member configured to hold the electronic component; an imaging device of which imaging range covers the electronic component held by the holding member, and the fiducial mark; characterized by a control device that is configured to control the imaging device in such a manner that a mark image for use in obtaining a position of the fiducial mark and low-resolution images (LR12, LR22) for use in the super-resolution processing are captured under different imaging conditions, wherein the imaging conditions include at least one of lighting position, color of lighting, light exposure time and focal length of a lighting section, the control device is configured to set a processing region as a target of the super-resolution processing based on an image region of the electronic component included in the mark image.
A manufacturing method of a hollow body product, comprising: a film arrangement step in which a film is arranged on a fiber layer; a shaped member arrangement step in which a shaped member having a concave part is arranged on the film after the film arrangement step so that an opening of the concave part faces the film; a step of covering the shaped member with a bagging film; a fiber layer/film gas discharging step in which gas existing between the fiber layer and the film is discharged; a film/shaped member gas discharging step in which gas existing between the film and the shaped member is discharged; a film/shaped member joining step in which the film and the shaped member are joined together after the film/shaped member gas discharging step; and a fiber layer/film joining step in which the fiber layer and the film are joined together after the fiber layer/film gas discharging step, wherein the discharging of the gas in the gas discharging steps is executed so that a condition that the pressure P1 of the gas existing between the fiber layer and the film is lower than the pressure P2 of the gas existing between the film and the bagging film is satisfied, and wherein the fiber layer/film joining step is conducted after or concurrently with the film/shaped member joining step. a film arrangement step in which a film is arranged on a fiber layer; a shaped member arrangement step in which a shaped member having a concave part is arranged on the film after the film arrangement step so that an opening of the concave part faces the film; a step of covering the shaped member with a bagging film; a fiber layer/film gas discharging step in which gas existing between the fiber layer and the film is discharged; a film/shaped member gas discharging step in which gas existing between the film and the shaped member is discharged; a film/shaped member joining step in which the film and the shaped member are joined together after the film/shaped member gas discharging step; and a fiber layer/film joining step in which the fiber layer and the film are joined together after the fiber layer/film gas discharging step, wherein the discharging of the gas in the gas discharging steps is executed so that a condition that the pressure P1 of the gas existing between the fiber layer and the film is lower than the pressure P2 of the gas existing between the film and the bagging film is satisfied, and wherein the fiber layer/film joining step is conducted after or concurrently with the film/shaped member joining step.
Tube with a reservoir of phase-change material for a heat exchange bundle of a heat exchanger, said tube with a reservoir of phase-change material comprising: - two flow plates configured to be assembled with one another in a sealed manner and to form at least one conduit in which a first heat transfer fluid flows, - at least one reservoir plate, said reservoir plate being configured to be assembled in a sealed manner onto an external face of one of the two flow plates so as to form housings for the phase-change material, said tube with a reservoir of phase-change material further comprising a filling duct for the phase-change material, one end of said filling duct opening into one of the edges of said tube with a reservoir of phase-change material, characterized in that said filling duct is formed, on the one hand, by a filling spout of the reservoir plate towards the outside and, on the other hand, by the external face of one of the two flow plates, said filling duct further comprising a plug, said filling duct and said plug being contained within a volume of width smaller than or equal to the width of the tube with a reservoir of phase-change material and of height less than or equal to the height of the housings of the phase-change material. - two flow plates configured to be assembled with one another in a sealed manner and to form at least one conduit in which a first heat transfer fluid flows, - at least one reservoir plate, said reservoir plate being configured to be assembled in a sealed manner onto an external face of one of the two flow plates so as to form housings for the phase-change material,
A method for wireless communications by a user equipment, UE, comprising: receiving signaling indicating a configuration of one or more starting symbol indices for downlink transmissions from a set of base stations participating in coordinated multipoint, CoMP operations; receiving a downlink transmission in a subframe, wherein the downlink transmission does not have a corresponding control channel; and determining a starting symbol index for the downlink transmission based on the configuration, wherein the determining comprises determining a starting symbol of the downlink transmission based, at least in part, on a Physical Control Format Indicator Channel, PCFICH, configuration. receiving signaling indicating a configuration of one or more starting symbol indices for downlink transmissions from a set of base stations participating in coordinated multipoint, CoMP operations; receiving a downlink transmission in a subframe, wherein the downlink transmission does not have a corresponding control channel; and determining a starting symbol index for the downlink transmission based on the configuration, wherein the determining comprises determining a starting symbol of the downlink transmission based, at least in part, on a Physical Control Format Indicator Channel, PCFICH, configuration.
An amplified tunable laser source, comprising a tunable laser and an optical amplifier, and configured to emit an input tunable radiation having an input power spectrum, an input center wavelength, input wavelength range and input average power, optically coupled to an input side of a semiconductor optical amplifier comprising at least one quantum well, and an output tunable radiation having an output power spectrum, an output center wavelength, an output wavelength range, and output average power, emerging from an output side of said optical amplifier, wherein the optical amplifier is configured to amplify the input tunable radiation and generate the output tunable radiation; the tunable laser is configured to generate the input tunable radiation; the tunable laser comprising an optical cavity including a first and second mirror (130, 140); a gain region interposed between said first and second mirrors (130, 140); a tuning region; and means for adjusting an optical path length of said tuning region; wherein: a free spectral range of said optical cavity exceeds 5% of said input center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; said means for adjusting an optical path length has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; and said optical amplifier is a resonant tunable optical amplifier configured to be tuned synchronously with said input tunable radiation, such that the passband of the optical amplifier is aligned at all times with the wavelength of the input tunable radiation. the optical amplifier is configured to amplify the input tunable radiation and generate the output tunable radiation; the tunable laser is configured to generate the input tunable radiation; the tunable laser comprising an optical cavity including a first and second mirror (130, 140); a gain region interposed between said first and second mirrors (130, 140); a tuning region; and means for adjusting an optical path length of said tuning region; a free spectral range of said optical cavity exceeds 5% of said input center wavelength; said tunable laser operates substantially in a single longitudinal and transverse mode over said wavelength range; said means for adjusting an optical path length has a wavelength tuning frequency response with a 6-dB bandwidth greater than about 1 kHz; and said optical amplifier is a resonant tunable optical amplifier configured to be tuned synchronously with said input tunable radiation, such that the passband of the optical amplifier is aligned at all times with the wavelength of the input tunable radiation.
A hollow drilling steel rod comprising a stem portion and a thread portion positioned at an end portion in an axial direction with respect to the stem portion, the hollow drilling steel rod being constituted of a steel having a composition consisting of, in terms of percent by mass: 0.20 percent to 0.80 percent of C, 0.10 percent to 0.50 percent of Si, 0.10 percent to 1.00 percent of Mn, 0.015 percent or less of P, 0.050 percent or less of S, 0.50 percent or less of Cu, less than 0.50 percent of Ni, 2.00 percent to 5.00 percent of Cr, 0.20 percent to 0.80 percent of Mo, 0.0002 percent to 0.0050 percent of B, 0.005 percent to 0.050 percent of Ti, 0.005 percent to 0.050 percent of Al, 0.050 percent or less of N, and the remainder being Fe and inevitable impurities, wherein the thread portion comprises a thread having been subjected to a high frequency quenching, and wherein the thread portion and the stem portion have been constituted separately from each other and have been joined by a friction welding, the friction welding portion having a hardness of 300HV or more and an impact value of 15J/cm 2 or more. 0.20 percent to 0.80 percent of C, 0.10 percent to 0.50 percent of Si, 0.10 percent to 1.00 percent of Mn, 0.015 percent or less of P, 0.050 percent or less of S, 0.50 percent or less of Cu, less than 0.50 percent of Ni, 2.00 percent to 5.00 percent of Cr, 0.20 percent to 0.80 percent of Mo, 0.0002 percent to 0.0050 percent of B, 0.005 percent to 0.050 percent of Ti, 0.005 percent to 0.050 percent of Al, 0.050 percent or less of N, and
A valve timing control apparatus comprising: a driving side rotational member rotating synchronously with a crankshaft of an internal combustion engine; a driven side rotational member arranged coaxially with the driving side rotational member and rotating synchronously with a camshaft for opening and closing a valve of the internal combustion engine; a fluid pressure chamber formed at one of the driving side rotational member and the driven side rotational member; a dividing portion formed at the other one of the driving side rotational member and the driven side rotational member so as to divide the fluid pressure chamber into an advanced angle chamber and a retarded angle chamber; and a fluid control valve portion arranged orthogonally relative to the camshaft at an opposite side of the camshaft so as to dispose the driving side rotational member and the driven side rotational member between the fluid control valve portion and the camshaft, the fluid control valve portion including a first linearly moving member linearly moving in an orthogonal direction relative to the camshaft, thereby controlling supplying and discharging of a fluid relative to the advanced angle chamber and the retarded angle chamber, characterized in that the fluid control valve portion is arranged at a position orthogonal to an axis of the camshaft, and a fluid supplying passage is formed at the camshaft, the fluid supplying passage being adapted to be supplied with the fluid which is then supplied from the fluid supplying passage to the fluid control valve portion. a driving side rotational member rotating synchronously with a crankshaft of an internal combustion engine; a driven side rotational member arranged coaxially with the driving side rotational member and rotating synchronously with a camshaft for opening and closing a valve of the internal combustion engine; a fluid pressure chamber formed at one of the driving side rotational member and the driven side rotational member; a dividing portion formed at the other one of the driving side rotational member and the driven side rotational member so as to divide the fluid pressure chamber into an advanced angle chamber and a retarded angle chamber; and a fluid control valve portion arranged orthogonally relative to the camshaft at an opposite side of the camshaft so as to dispose the driving side rotational member and the driven side rotational member between the fluid control valve portion and the camshaft, the fluid control valve portion including a first linearly moving member linearly moving in an orthogonal direction relative to the camshaft, thereby controlling supplying and discharging of a fluid relative to the advanced angle chamber and the retarded angle chamber, characterized in that the fluid control valve portion is arranged at a position orthogonal to an axis of the camshaft, and a fluid supplying passage is formed at the camshaft, the fluid supplying passage being adapted to be supplied with the fluid which is then supplied from the fluid supplying passage to the fluid control valve portion.
Method for determining the content of catalyst fines in a sample of heavy fuel oil, in particular of a fuel for ship engines, by means of the following steps: a) taking a sample from the heavy fuel oil, b) in a first container, diluting the sample by means of a first reagent consisting of solvents containing mainly hydrocarbons and intensely mixing said sample therewith, c) introducing a portion of the mixture from the first container into a second container containing diluted hydrochloric acid as a second reagent and intensely mixing said portion with the hydrochloric acid, d) removing a portion of the contents from the second container and transferring said portion into a third container via a filter, e) in the third container, ascertaining the content of catalyst fines in the sample by determining the strength of the resultant fluorescent radiation upon excitation by UV light, f) measuring and evaluating the exhibited fluorescent radiation visually or with the aid of a photometer. a) taking a sample from the heavy fuel oil, b) in a first container, diluting the sample by means of a first reagent consisting of solvents containing mainly hydrocarbons and intensely mixing said sample therewith, c) introducing a portion of the mixture from the first container into a second container containing diluted hydrochloric acid as a second reagent and intensely mixing said portion with the hydrochloric acid, d) removing a portion of the contents from the second container and transferring said portion into a third container via a filter, e) in the third container, ascertaining the content of catalyst fines in the sample by determining the strength of the resultant fluorescent radiation upon excitation by UV light, f) measuring and evaluating the exhibited fluorescent radiation visually or with the aid of a photometer.