mhurhangee/ep-ind-claims huggingface dataset:
A diagnostic tool for connecting to a communication medium segment for identifying a defective communication device on a network, the network comprising a Link Active Scheduler, LAS, and a plurality of communication devices, connected by a communication medium segment, the diagnostic tool comprising: a medium attachment unit, MAU, connectable to the communication medium segment which is adapted to receive signals from the communication medium segment via conductive elements; a communication controller connected to the MAU which is adapted to intercept a first signal sent from the LAS and received by the MAU, and determine, from said first signal, a designation address of a communication device that is scheduled to communicate next on the network and start a maximum response timer defined by network settings; an analog-to-digital, A/D, converter adapted to measure the amplitude of signals received on the communication medium; and a processor connected to the communication controller adapted to determine that the communication device scheduled to communicate next on the network is active characterized in that the processor is adapted to associate the next received signal on the network with the designation address of the communication device scheduled to communicate next on the network if the next received signal is received within a maximum response time defined by network settings and produce an output indicating that the communication device associated with the designation address is potentially problematic when a measured amplitude of the said next received signal provided by the A/D converter is outside a normal amplitude range. a medium attachment unit, MAU, connectable to the communication medium segment which is adapted to receive signals from the communication medium segment via conductive elements; a communication controller connected to the MAU which is adapted to intercept a first signal sent from the LAS and received by the MAU, and determine, from said first signal, a designation address of a communication device that is scheduled to communicate next on the network and start a maximum response timer defined by network settings; an analog-to-digital, A/D, converter adapted to measure the amplitude of signals received on the communication medium; and a processor connected to the communication controller adapted to determine that the communication device scheduled to communicate next on the network is active characterized in that the processor is adapted to associate the next received signal on the network with the designation address of the communication device scheduled to communicate next on the network if the next received signal is received within a maximum response time defined by network settings and produce an output indicating that the communication device associated with the designation address is potentially problematic when a measured amplitude of the said next received signal provided by the A/D converter is outside a normal amplitude range.
A lambda oxygen sensor preheating control method using a lambda oxygen sensor preheating control device which is configured to preheat an inner heater for a lambda oxygen sensor by applying a pulse voltage generated by a PWM control to the internal heater, wherein a) a correction (S108-S11) is performed to a duty ratio of the pulse voltage b) the correction determined based on a predetermined arithmetic expression so as to compensate for lowering of an effective value of the pulse voltage at the duty ratio caused by a delay of a rise time or a fall time generated in the pulse voltage; c) the correction compensating the lowering of the effective value of the pulse voltage in such a manner that the effective value of the pulse voltage becomes a target effective voltage corresponding to a pulse voltage having a rectangular form; and d) wherein the correction is performed by adding a correction term to the duty ratio calculated by the predetermined arithmetic expression, and the correction term is a correction value determined with respect to a battery voltage of a vehicle-use battery at the time of performing correction based on a correlation between the battery voltage and the correction value. a) a correction (S108-S11) is performed to a duty ratio of the pulse voltage b) the correction determined based on a predetermined arithmetic expression so as to compensate for lowering of an effective value of the pulse voltage at the duty ratio caused by a delay of a rise time or a fall time generated in the pulse voltage; c) the correction compensating the lowering of the effective value of the pulse voltage in such a manner that the effective value of the pulse voltage becomes a target effective voltage corresponding to a pulse voltage having a rectangular form; and d) wherein the correction is performed by adding a correction term to the duty ratio calculated by the predetermined arithmetic expression, and the correction term is a correction value determined with respect to a battery voltage of a vehicle-use battery at the time of performing correction based on a correlation between the battery voltage and the correction value.
A needle assembly comprising; a housing defining a housing interior, said housing comprising at least one cannula having a patient puncture tip extending from a first end of the housing and a non-patient puncture tip extending from a second of the housing, the non-patient puncture tip and the patient puncture tip being in fluid communication with each other within the housing interior; and a porous vent positioned within the housing interior separating the housing interior into a first chamber and a second chamber, the porous vent including pores for passage of fluid therethrough from the first chamber to the second chamber, characterized in that, said porous vent includes a blocking member to control flow of the fluid such that the fluid flows in a radial direction through the porous vent, wherein the sole communication path between the housing interior and the external environment is via the patient puncture tip.
Wiper gearing with a housing and a gearing arrangement arranged in the housing, comprising - a first gearing element rotating about a first axis, and - a second gearing element pivoting about a second axis, wherein the two gearing elements (120, 130) are coupled to each other via a crank element, characterized in that the crank element is in the form of a crank rod with two end portions (141, 143) bent at right angles, wherein each of the two end portions (141, 143) engages in the form of a pin in an eccentrically arranged opening (122, 132) of the respective gearing element (120, 130). - a first gearing element rotating about a first axis, and - a second gearing element pivoting about a second axis,
A cosmetic agent for changing the color of keratinic fibers, containing, in a cosmetically acceptable carrier, a) at least one compound, selected from the group of oxidation dye precursors, direct dyes, and mixtures thereof, b) at least one crosslinked, aminated siloxane polymer that is obtainable by reacting a copolymer, consisting of 3-(2-aminoethylamino)propylmethylsiloxy units and dimethylsiloxy units, with N-morpholinomethyltriethoxysilane, in a total amount of 0.3 to 1.0% by weight, based on the total weight of the cosmetic agent, and c) at least one nonionic surfactant of the formula R-O-(CH 2 -CH 2 -O) n -H, where R stands for a linear or branched alkyl chain having 12 to 16 carbon atoms, and n stands for integers from 6 to 15. a) at least one compound, selected from the group of oxidation dye precursors, direct dyes, and mixtures thereof, b) at least one crosslinked, aminated siloxane polymer that is obtainable by reacting a copolymer, consisting of 3-(2-aminoethylamino)propylmethylsiloxy units and dimethylsiloxy units, with N-morpholinomethyltriethoxysilane, in a total amount of 0.3 to 1.0% by weight, based on the total weight of the cosmetic agent, and c) at least one nonionic surfactant of the formula R-O-(CH 2 -CH 2 -O) n -H, where R stands for a linear or branched alkyl chain having 12 to 16 carbon atoms, and n stands for integers from 6 to 15. R stands for a linear or branched alkyl chain having 12 to 16 carbon atoms, and n stands for integers from 6 to 15.
A method for performing a radio frequency, RF, calibration of a Wi-Fi device (110, 170), the method comprising transmitting, by a transmitter (202, 252), a CTS, clear-to-send, -to-self frame (400, 450), the CTS-to-self frame having a duration field indicating a first time duration of the RF calibration; after transmitting, waiting, by at least one processor (200, 250), for a second time duration associated with a distributed inter-frame space, DIFS, time period; and after waiting, performing, by the at least one processor (200, 250), the RF calibration for the first time duration indicated in the duration field of the CTS-to-self frame.
An inflatable airbag for a motor vehicle safety device, the airbag having an inflatable volume for the receipt of inflating gas, said inflatable volume comprising a primary chamber and a secondary chamber, said secondary chamber being fluidly connected to said primary chamber via a connecting flow port arranged between the chambers, the airbag being characterised by a gas guide provided inside the primary chamber and which has: a gas inlet arranged to receive a flow of said inflating gas into the gas guide; a primary outlet arranged to direct some of said inflating gas into the primary chamber in a first flow direction to inflate the primary chamber; and a secondary outlet aligned with said connecting flow port and arranged to direct some of said inflating gas through said connecting flow port and into the secondary chamber in a second flow direction to inflate the secondary chamber; said first and second chambers (66, 69) thereby being configured to deploy into abutting and superimposed positions upon inflation, and wherein said first and second flow directions (F1,F2) are substantially orthogonal.
A method of making a permanent magnet rotor comprising: positioning a fixation sleeve about a rotor core assembly having a plurality of permanent magnets mounted upon a rotor core defining a longitudinal axis; fitting a plurality of pressure tools into a plurality of bores extending through the rotor core; and deforming material of the rotor core via the pressure tools so as to bias the plurality of permanent magnets in a radially outward direction against the fixation sleeve. positioning a fixation sleeve about a rotor core assembly having a plurality of permanent magnets mounted upon a rotor core defining a longitudinal axis; fitting a plurality of pressure tools into a plurality of bores extending through the rotor core; and deforming material of the rotor core via the pressure tools so as to bias the plurality of permanent magnets in a radially outward direction against the fixation sleeve.
A transmission mechanism (100,1200), comprising: an outer wheel which is ring-shaped and has a central axis; an inner wheel (131, 132), the inner wheel (131, 132) being disposed in the outer wheel, and the inner wheel (131, 132) engaging with the outer wheel; an eccentric shaft, the eccentric shaft rotating about said central axis of the outer wheel, the periphery of the eccentric shaft being provided with eccentric portions (311, 312), eccentric shaft external teeth and a first supporting portion, and the inner wheel (131, 132) being disposed around the eccentric portions (311, 312) such that, when the transmission mechanism is in operation, the rotation of the eccentric shaft drives the inner wheel (131, 132) to rotate eccentrically or such that an eccentric rotation of the inner wheel (131, 132) drives the eccentric shaft to rotate; a first flange, the first flange and the inner wheel (131, 132) being arranged side by side, and the first flange being disposed around the first supporting portion; a rotating shaft, the rotating shaft having rotating shaft external teeth; and at least one planetary gearing device (151,1251), the at least one planetary gearing device (151,1251) being supported by the first flange, the periphery of each of the at least one planetary gearing device being provided with a first row of planetary teeth and a second row of planetary teeth, the first row of planetary teeth (411,1211) engaging with the rotating shaft external teeth, and the second row of planetary teeth (431,1212) engaging with the eccentric shaft external teeth. an outer wheel which is ring-shaped and has a central axis; an inner wheel (131, 132), the inner wheel (131, 132) being disposed in the outer wheel, and the inner wheel (131, 132) engaging with the outer wheel; an eccentric shaft, the eccentric shaft rotating about said central axis of the outer wheel, the periphery of the eccentric shaft being provided with eccentric portions (311, 312), eccentric shaft external teeth and a first supporting portion, and the inner wheel (131, 132) being disposed around the eccentric portions (311, 312) such that, when the transmission mechanism is in operation, the rotation of the eccentric shaft drives the inner wheel (131, 132) to rotate eccentrically or such that an eccentric rotation of the inner wheel (131, 132) drives the eccentric shaft to rotate; a first flange, the first flange and the inner wheel (131, 132) being arranged side by side, and the first flange being disposed around the first supporting portion; a rotating shaft, the rotating shaft having rotating shaft external teeth; and at least one planetary gearing device (151,1251), the at least one planetary gearing device (151,1251) being supported by the first flange, the periphery of each of the at least one planetary gearing device being provided with a first row of planetary teeth and a second row of planetary teeth, the first row of planetary teeth (411,1211) engaging with the rotating shaft external teeth, and the second row of planetary teeth (431,1212) engaging with the eccentric shaft external teeth.
Front panel for a combustor, in particular for a silo, a can, or an annular combustor, the front panel being suitable to define and end of the combustion chamber in an upstream direction relative to the fluid pathway, defining a hot side and a cold side and comprising one or more receptions (7;8;9;10) adapted for receiving and carrying burner units of the combustor, the front panel having a double-wall design with a hot-side wall and a cold-side wall, the hot-side wall defining a hot-side downstream surface of the front panel and the cold-side wall defining a cold-side upstream surface of the front panel, wherein the hot-side wall and the cold-side wall are axially spaced from one another, extend parallel to one another, and are connected to one another by an outer side wall; wherein the outer side wall is structured and has at least an upstream portion, a downstream portion and a transition portion between the upstream portion and the downstream portion, wherein the upstream portion has a material thickness that is smaller than a material thickness of the downstream portion of the outer side wall and the transition portion connects two differently dimensioned sections of the upstream portion and of the downstream portion; wherein the combination comprising at least the hot-side wall, the outer side wall and the cold-side wall, is made from one piece; wherein the outer side wall circumferentially surrounds the front panel and connects the hot-side wall and the cold-side wall to one another; wherein the hot-side wall has a first material thickness (S 1) and the cold-side wall has a second material thickness (S 2), wherein the second material thickness (S 2) is smaller than the first material thickness (S 1), wherein the first material thickness (S 1) preferably ranges from 1.5 millimeters to 28 millimeters, preferably from 4 millimeters to 15 millimeters, and is more preferably 6 millimeter, and/or wherein the second material thickness (S 2) preferably ranges from 20% of the first material thickness (S 1) to 80% of the first material thickness (S 1).
A displacement sensor device comprising: a first at least partially transparent plane surface with a first reflective diffraction pattern, a second plane surface comprising a second reflecting diffraction pattern, the diffractive patterns being adapted to diffract light within a chosen range of wavelengths, the second surface being positioned below and parallel to the first surface constituting a pair, wherein said first and second diffractive patterns are separated by a chosen distance, wherein one of the surfaces in the pair is coupled to the other through a spring and being provided with a known mass for allowing a movement in a direction parallel to said surfaces, the device thus providing a movement sensitive diffraction pattern and an acceleration sensitive device, at least one light source transmitting light at said chosen wavelength toward said patterns, and a detector for receiving light diffracted by said patterns. a first at least partially transparent plane surface with a first reflective diffraction pattern, a second plane surface comprising a second reflecting diffraction pattern, the diffractive patterns being adapted to diffract light within a chosen range of wavelengths, the second surface being positioned below and parallel to the first surface constituting a pair, wherein said first and second diffractive patterns are separated by a chosen distance, wherein one of the surfaces in the pair is coupled to the other through a spring and being provided with a known mass for allowing a movement in a direction parallel to said surfaces, the device thus providing a movement sensitive diffraction pattern and an acceleration sensitive device, at least one light source transmitting light at said chosen wavelength toward said patterns, and a detector for receiving light diffracted by said patterns.
A method of measuring temperature using an object measurement sensor configured (110, 112) to generate a measurement value (IRdata) and an ambient temperature sensor configured to generate an ambient temperature value (Ta), the method being based upon a system of equations applying Stefan-Boltzmann's law and using the measurement value (IRdata) for an object to be measured and the ambient temperature value (Ta), the method characterised by: pre-calculating and storing a first vector of a series of values proportional to received power and based upon a plurality of expected temperature values in a predetermined generic range of temperatures spanning expected values of a measured object temperature (To) and the ambient temperature (Ta); pre-calculating and storing a second vector of a series of sensitivity characteristic factor values based upon expected values of measured temperature and in respect of a predetermined range of expected values of object measured temperatures; and using the first vector and the second vector to generate (204, 206) a temporary vector (LUT T) of a series of values limited to the ambient temperature value to solve the system of equations in respect of the measurement value for the object, thereby determining a temperature (To) for the object from the measurement value. pre-calculating and storing a first vector of a series of values proportional to received power and based upon a plurality of expected temperature values in a predetermined generic range of temperatures spanning expected values of a measured object temperature (To) and the ambient temperature (Ta); pre-calculating and storing a second vector of a series of sensitivity characteristic factor values based upon expected values of measured temperature and in respect of a predetermined range of expected values of object measured temperatures; and using the first vector and the second vector to generate (204, 206) a temporary vector (LUT T) of a series of values limited to the ambient temperature value to solve the system of equations in respect of the measurement value for the object, thereby determining a temperature (To) for the object from the measurement value.
A secondary battery lamination device using infrared lamps comprising: a laminate moving portion configured to move a laminate in a first direction, the laminate formed by sequentially stacking a positive electrode, a separator, and a negative electrode; an infrared LED (Light-Emitting Diode) heat source portion positioned on a first side or the first side and a second side of the laminate moving portion, the infrared LED heat source portion configured to supply infrared light to the laminate to bond the positive electrode, the separator, and the negative electrode to one another; and a pressurizing portion configured to apply a pressure to the laminate, the pressurizing portion being disposed downstream of the infrared LED heat source portion in the first direction, wherein the infrared LED heat source portion comprises a first infrared LED heat source portion positioned on the first side of the laminate moving portion and a second infrared LED heat source portion positioned on the second side of the laminate moving portion, wherein the first infrared LED heat source portion and the second infrared LED heat source portion each comprise a respective plurality of infrared LED lamps arranged symmetrically based on a centerline of the laminate moving portion, and wherein the infrared LED lamps of each of the first and second LED heat source portions (21, 22) are operated individually. a laminate moving portion configured to move a laminate in a first direction, the laminate formed by sequentially stacking a positive electrode, a separator, and a negative electrode; an infrared LED (Light-Emitting Diode) heat source portion positioned on a first side or the first side and a second side of the laminate moving portion, the infrared LED heat source portion configured to supply infrared light to the laminate to bond the positive electrode, the separator, and the negative electrode to one another; and a pressurizing portion configured to apply a pressure to the laminate, the pressurizing portion being disposed downstream of the infrared LED heat source portion in the first direction, wherein the infrared LED heat source portion comprises a first infrared LED heat source portion positioned on the first side of the laminate moving portion and a second infrared LED heat source portion positioned on the second side of the laminate moving portion, wherein the first infrared LED heat source portion and the second infrared LED heat source portion each comprise a respective plurality of infrared LED lamps arranged symmetrically based on a centerline of the laminate moving portion, and wherein the infrared LED lamps of each of the first and second LED heat source portions (21, 22) are operated individually.