mhurhangee/ep-ind-claims huggingface dataset:
A fuel cell system characterized by comprising: a fuel cell including an electrolyte membrane; a sensor configured to measure a temperature of the fuel cell; and a controller configured to cause the fuel cell to perform a wet operation to increase a water balance at a cathode of the fuel cell to a value higher than a water balance at the cathode during a normal operation of the fuel cell, when the temperature of the fuel cell measured by the sensor is maintained at a first threshold temperature or higher for a prescribed period of time or longer and then the temperature of the fuel cell decreases to below a second threshold temperature that is equal to or lower than the first threshold temperature. a fuel cell including an electrolyte membrane; a sensor configured to measure a temperature of the fuel cell; and a controller configured to cause the fuel cell to perform a wet operation to increase a water balance at a cathode of the fuel cell to a value higher than a water balance at the cathode during a normal operation of the fuel cell, when the temperature of the fuel cell measured by the sensor is maintained at a first threshold temperature or higher for a prescribed period of time or longer and then the temperature of the fuel cell decreases to below a second threshold temperature that is equal to or lower than the first threshold temperature.
A medium transporting apparatus comprising: a medium tray on which a medium that has been discharged from a discharge portion that discharges the medium is mounted, the medium tray matching an end portion of the medium at a portion upstream in a discharge direction of the discharge portion; a paddle that comes in contact with the medium, which has been discharged on the medium tray, and that rotates, the paddle moving the medium towards the matching portion; and a low frictional resistance member configured to switch between an advanced state advanced from outside a medium mount region of the medium tray to a first region including a position in the medium mount region where the paddle is in contact with the medium, and a retracted state retracted from the first region to outside the medium mount region, wherein the low frictional resistance member is switched from the retracted state to the advanced state after a first medium has been mounted on the medium tray, and is interposed between the first medium and a second medium when, after a discharge of the first medium, the second medium discharged from the discharge portion is moved towards the matching portion with the paddle, wherein the low frictional resistance member is formed in a sheet shape, and wherein the low frictional resistance member is fixed to a rotation shaft disposed outside the medium mount region, and switching between the advanced state and the retracted state is performed by rotating the rotation shaft, and characterized in that: the rotation shaft is disposed in the discharge direction. a medium tray on which a medium that has been discharged from a discharge portion that discharges the medium is mounted, the medium tray matching an end portion of the medium at a portion upstream in a discharge direction of the discharge portion; a paddle that comes in contact with the medium, which has been discharged on the medium tray, and that rotates, the paddle moving the medium towards the matching portion; and a low frictional resistance member configured to switch between an advanced state advanced from outside a medium mount region of the medium tray to a first region including a position in the medium mount region where the paddle is in contact with the medium, and a retracted state retracted from the first region to outside the medium mount region, wherein the low frictional resistance member is switched from the retracted state to the advanced state after a first medium has been mounted on the medium tray, and is interposed between the first medium and a second medium when, after a discharge of the first medium, the second medium discharged from the discharge portion is moved towards the matching portion with the paddle, wherein the low frictional resistance member is formed in a sheet shape, and wherein the low frictional resistance member is fixed to a rotation shaft disposed outside the medium mount region, and switching between the advanced state and the retracted state is performed by rotating the rotation shaft, and characterized in that: the rotation shaft is disposed in the discharge direction.
Hidden closing system for semi-trailer box doors comprising a) pin-shaped lock bolts which move vertically; b) vertical lock bolts which can be located inside doors; c) rotation axis fixable to the semi-trailer structure at the lower part of the doors, in which at least three supports are connected perpendicularly, each one having: i. at one end, insertion means on the rotation axis; and ii. at the other end, fixation means for pin-shaped lock bolts or for a rod of a pneumatic cylinder; d) at least two of the supports are located at the ends of the rotation axis with the pin-shaped bolts fixed thereon, and at least one support is located at the center of the axis with the rod of the pneumatic cylinder fixed thereon, this one driving the rotation movement of the axis, which is integral with the vertical movement of the pin-shaped lock bolts in order to lock the doors against the structure and simultaneously pushing the vertical lock bolts. a) pin-shaped lock bolts which move vertically; b) vertical lock bolts which can be located inside doors; c) rotation axis fixable to the semi-trailer structure at the lower part of the doors, in which at least three supports are connected perpendicularly, each one having: i. at one end, insertion means on the rotation axis; and ii. at the other end, fixation means for pin-shaped lock bolts or for a rod of a pneumatic cylinder; i. at one end, insertion means on the rotation axis; and ii. at the other end, fixation means for pin-shaped lock bolts or for a rod of a pneumatic cylinder; d) at least two of the supports are located at the ends of the rotation axis with the pin-shaped bolts fixed thereon, and at least one support is located at the center of the axis with the rod of the pneumatic cylinder fixed thereon, this one driving the rotation movement of the axis, which is integral with the vertical movement of the pin-shaped lock bolts in order to lock the doors against the structure and simultaneously pushing the vertical lock bolts.
Soundproof covering comprising a cellular structure, the covering having a first face and a second face, said cellular structure being formed of cells (C1...C6) that are open onto said first face and closed on said second face, said cells (C1...C6) being juxtaposed in a first direction referred to as longitudinal and in a second direction referred to as transverse and which is orthogonal to the longitudinal direction; each cell comprising: - a duct extending at least between the first face and the second face, said duct being formed between an exterior wall and a interior wall of the cell and exhibiting a restriction of its cross section, the exterior wall and the interior wall having rounded shapes with no sharp edges, and - a cavity into which said duct opens, so that the cell forms a resonator comprising a neck formed by said duct, and said cavity, the cell being shaped in such a way that the duct and the cavity are formed one on each side of the interior wall, in which the interior wall of one cell of the covering and the exterior wall of an adjacent cell meet in such a way as to form just one transverse wall separating said cell and adjacent cell at the first face, characterized in that the interior wall of one cell of the covering and the exterior wall of an adjacent cell meet at the first face to form between them an acute angle so as to form a transverse sharp edge at said first face. - a duct extending at least between the first face and the second face, said duct being formed between an exterior wall and a interior wall of the cell and exhibiting a restriction of its cross section, the exterior wall and the interior wall having rounded shapes with no sharp edges, and - a cavity into which said duct opens,
A channel access method, comprising: randomly selecting a backoff period X B according to a backoff exponent BE, wherein X B = X x aUnitBackoffPeriod, X is an integer randomly selected from 0-(2 BE -1), and aUnitBackoffPeriod is a constant for a Medium Access Control, MAC, sublayer; when X is greater than or equal to a predetermined value, determining a middle backoff, wherein the middle backoff is less than the backoff period; performing a backoff until the middle backoff ends and then performing a clear channel assessment, CCA; performing data transmission if a channel is clear, and if the channel is not clear, continuing the backoff until the backoffperiod ends and then performing a CCA, and executing a channel access operation according to a result of the CCA performed when the backoffperiod ends; or when X is less than a predetermined value, performing a backoff until the backoff period ends and then performing a CCA, and executing a channel access operation according to a result of the CCA performed when the backoff period ends. randomly selecting a backoff period X B according to a backoff exponent BE, wherein X B = X x aUnitBackoffPeriod, X is an integer randomly selected from 0-(2 BE -1), and aUnitBackoffPeriod is a constant for a Medium Access Control, MAC, sublayer; when X is greater than or equal to a predetermined value, determining a middle backoff, wherein the middle backoff is less than the backoff period; performing a backoff until the middle backoff ends and then performing a clear channel assessment, CCA; performing data transmission if a channel is clear, and if the channel is not clear, continuing the backoff until the backoffperiod ends and then performing a CCA, and executing a channel access operation according to a result of the CCA performed when the backoffperiod ends; or when X is less than a predetermined value, performing a backoff until the backoff period ends and then performing a CCA, and executing a channel access operation according to a result of the CCA performed when the backoff period ends.
A non-spherical microcapsule comprising: a) a core comprising fatty ester having a melting point of at least 30°C and a benefit agent; and, b) a shell comprising nanoparticles having a diameter of 10 to 300 nm. a) a core comprising fatty ester having a melting point of at least 30°C and a benefit agent; and, b) a shell comprising nanoparticles having a diameter of 10 to 300 nm.
Angle measuring device for optical angle measurement comprising a telescope body mounted rotatably about at least one spindle (1, 2; 11) wherein the spindle (1, 2; 11) is mounted rotatably at at least two bearing locations and the bearing locations are spaced apart from one another in the direction of the spindle (1, 2; 11), characterized in that at least two sensor arrangements for detecting the position of the spindle (1, 2; 11) are in each case arranged at a measuring location along the spindle (1, 2; 11) wherein the measuring locations are spaced apart from one another in the direction of the spindle (1, 2; 11), and at least one of the sensor arrangements comprises a group of capacitive sensors (7a, 7b, 7c, 7d) which detects a displacement of the spindle (1, 2; 11) in directions perpendicular to the axial direction at the measuring location.
A radio-oncological patient positioning device, comprising - a torso support region (102, 104) adapted to support the torso of a patient, comprising - first positioning members adapted to releasably arrange - a knee positioning means and/or - a pelvic positioning device; - a shoulder support portion having second positioning members adapted to releasably arrange - a neck positioning means; and/or - a shoulder positioning device; and - a head support portion; characterized in that: the head support portion is pivotally disposed, by means of at least one joint, on the shoulder support portion or on a base plate on which the torso support portion is disposed; and - wherein the head support portion is adapted such that a radio-oncological head positioning device (200; 200') is detachably attachable to the head support portion, wherein an occipital mask and/or a face mask is arrangeable on the head positioning device (200; 200'). - a torso support region (102, 104) adapted to support the torso of a patient, comprising - first positioning members adapted to releasably arrange - a knee positioning means and/or - a pelvic positioning device; - a knee positioning means and/or - a pelvic positioning device; - a shoulder support portion having second positioning members adapted to releasably arrange - a neck positioning means; and/or - a shoulder positioning device; and - a neck positioning means; and/or - a shoulder positioning device; and - a head support portion; - wherein the head support portion is adapted such that a radio-oncological head positioning device (200; 200') is detachably attachable to the head support portion, wherein an occipital mask and/or a face mask is arrangeable on the head positioning device (200; 200').
A method involving a serial interconnection system having a first node, a second node, a plurality of calibration nodes (A, B) that are electrically connected in series by the serial interconnection system, and a plurality of connection nodes (A, B) corresponding to the plurality of serially connected calibration nodes, said plurality of connection nodes electrically connected in series by the serial interconnection system, said method characterized in that for each calibration node of the plurality of calibration nodes performing a measurement procedure involving: injecting a corresponding reference signal into that calibration node of the plurality of calibration nodes; and while the corresponding reference signal is being injected into that calibration node of the plurality of calibration nodes, determining a phase summation for that calibration node of the plurality of calibration nodes, said phase summation for that calibration node of the plurality of calibration nodes being a sum of the phases of signals appearing at the first and second nodes; from the determined phase summations for the plurality of calibration nodes, computing phase corrections for each calibration node of the plurality of calibration nodes; and applying the phase corrections computed for each calibration node of the plurality of calibration nodes to the corresponding plurality of connection nodes. injecting a corresponding reference signal into that calibration node of the plurality of calibration nodes; and while the corresponding reference signal is being injected into that calibration node of the plurality of calibration nodes, determining a phase summation for that calibration node of the plurality of calibration nodes, said phase summation for that calibration node of the plurality of calibration nodes being a sum of the phases of signals appearing at the first and second nodes;
Dewar device for a watch, said device including: - a wristlet; - a case comprising a chamber in which a case of the watch is capable of being disposed in such a way that a glass of said case is arranged facing a glass of a set of elements (10a, 10b, 10c) of the case defining this chamber; - at least one fastening device fastening said watch case in said chamber of the case while maintaining it distant from all of the elements (10a, 10b, 10c) of the case defining this chamber, and - a device for actuating at least one push button of said watch by the angular movement of a free end of at least one lever element (15a, 15b, 15c, 15d) of said device relative to the case, said at least one lever element (15a, 15b, 15c, 15d) having another end movably fastened to said case. - a wristlet; - a case comprising a chamber in which a case of the watch is capable of being disposed in such a way that a glass of said case is arranged facing a glass of a set of elements (10a, 10b, 10c) of the case defining this chamber; - at least one fastening device fastening said watch case in said chamber of the case while maintaining it distant from all of the elements (10a, 10b, 10c) of the case defining this chamber, and - a device for actuating at least one push button of said watch by the angular movement of a free end of at least one lever element (15a, 15b, 15c, 15d) of said device relative to the case, said at least one lever element (15a, 15b, 15c, 15d) having another end movably fastened to said case.
A system, comprising: a multicore, Mc, Erbium-doped fiber, EDF,; and a MC tapered signal-pump fiber combiner, TFC, optically coupled to the MC-EDF, the MC-TFC comprising: a multicore fiber, MCF,; and multimode fibers, MMF, surrounding the MCF, the MC-TFC being core-match spliced to the MC-EDF, characterised in that in a tapered region of the MC-TFC, the MMF and the MCF are fused and tapered so as to provide a core pitch and mode-field diameter match between the MC-TFC and the MC-EDF for coupling optical signals to the MC-EDF through the MCF, and so as to match the diameter of the MC-TCF to the diameter of an inner cladding of the MC-EDF for coupling pump light into the inner cladding of the MC-EDF through the MMF. a multicore, Mc, Erbium-doped fiber, EDF,; and a MC tapered signal-pump fiber combiner, TFC, optically coupled to the MC-EDF, the MC-TFC comprising: a multicore fiber, MCF,; and multimode fibers, MMF, surrounding the MCF, the MC-TFC being core-match spliced to the MC-EDF, a multicore fiber, MCF,; and multimode fibers, MMF, surrounding the MCF, the MC-TFC being core-match spliced to the MC-EDF, characterised in that in a tapered region of the MC-TFC, the MMF and the MCF are fused and tapered so as to provide a core pitch and mode-field diameter match between the MC-TFC and the MC-EDF for coupling optical signals to the MC-EDF through the MCF, and so as to match the diameter of the MC-TCF to the diameter of an inner cladding of the MC-EDF for coupling pump light into the inner cladding of the MC-EDF through the MMF.
A method of Raman spectral analysis of a pharmaceutical dosage form sample, comprising: using delivery optics to deliver probe light to a delivery region on the sample; using collection optics to collect, from a collection region on the opposite side of the sample from the delivery region, said probe light following scattering through the sample; measuring each of a plurality of target Raman spectral features in the collected light; determining a spectral distortion of the collected light used to measure the plurality of target Raman spectral features, the spectral distortion arising during scattering of the probe light through the sample; and quantifying a property of the sample using the target Raman spectral features in combination with the determined spectral distortion, such that the quantified property is compensated for the spectral distortion. using delivery optics to deliver probe light to a delivery region on the sample; using collection optics to collect, from a collection region on the opposite side of the sample from the delivery region, said probe light following scattering through the sample; measuring each of a plurality of target Raman spectral features in the collected light; determining a spectral distortion of the collected light used to measure the plurality of target Raman spectral features, the spectral distortion arising during scattering of the probe light through the sample; and quantifying a property of the sample using the target Raman spectral features in combination with the determined spectral distortion, such that the quantified property is compensated for the spectral distortion.
Damper with at least one damper chamber and a controllable throttle valve wherein the damper chamber is partitioned by a piston that is movable and connected with a piston rod into a first chamber and a second chamber, and wherein the first chamber is connected with the second chamber via a return duct and the throttle valve, wherein an electronic control device is provided and wherein a magnetic field source controlled by the electronic control device is assigned to the throttle valve to apply a magnetic field on at least part of a magnetorheological damping medium that flows through at least one damping duct of the throttle valve, and wherein an equalizing chamber with a preloaded equalizing volume is provided wherein the equalizing volume is connected with the throttle valve and the second chamber, and wherein the throttle valve, the magnetic field source and the equalizing chamber are disposed external of the damper chamber, wherein a one-way circuit is substantially provided for the magnetorheological damping medium in which circuit at least two one-way valves (21, 22) are provided such that both when the piston rod plunges into the damper chamber and when the piston rod emerges out of the damper chamber the damping medium flows in the same direction of circulation wherein a first of the one-way valves is disposed at the piston, allowing a flow of the damping medium from the second chamber into the first chamber, and wherein a second one-way valve is disposed between the throttle valve and the second chamber allowing the damping medium to flow from the throttle valve into the second chamber, characterized in that another throttle valve with another magnetic field source is provided and wherein the other throttle valve is connected in series with the throttle valve.