mhurhangee/ep-ind-claims huggingface dataset:
A flow cytometry apparatus comprising: a flow channel for directing a fluid stream containing sperm cells through an interrogation location; a laser operable to emit a plurality of electromagnetic radiation pulses, each pulse having a peak power that exceeds the average power of the laser, said pulses being directed along a beam path from the laser to the interrogation location, wherein the laser is operable to emit EMR pulses having a width of 1-100 picoseconds at a pulse frequency of 50-150 MHz at a power of 100-500 milliwatts; a timing circuit operable to produce a timing signal indicative of the of arrival of pulses at the interrogation location; a detector adapted to detect EMR from the interrogation location and operable to output a time-varying analog signal indicative of the intensity of the detected EMR; an analog to digital converter adapted to receive the time-varying analog signal as input and to sample the analog signal to produce a digitized output; an electronic processor operable to analyze the digitized output from the analog to digital converter as a function of the timing signal, wherein the electronic processor is further operable to process the digitized output as a pulse waveform and to extract a pulse peak and pulse area from the pulse waveform. a flow channel for directing a fluid stream containing sperm cells through an interrogation location; a laser operable to emit a plurality of electromagnetic radiation pulses, each pulse having a peak power that exceeds the average power of the laser, said pulses being directed along a beam path from the laser to the interrogation location, wherein the laser is operable to emit EMR pulses having a width of 1-100 picoseconds at a pulse frequency of 50-150 MHz at a power of 100-500 milliwatts; a timing circuit operable to produce a timing signal indicative of the of arrival of pulses at the interrogation location; a detector adapted to detect EMR from the interrogation location and operable to output a time-varying analog signal indicative of the intensity of the detected EMR; an analog to digital converter adapted to receive the time-varying analog signal as input and to sample the analog signal to produce a digitized output; an electronic processor operable to analyze the digitized output from the analog to digital converter as a function of the timing signal, wherein the electronic processor is further operable to process the digitized output as a pulse waveform and to extract a pulse peak and pulse area from the pulse waveform.
A pot (100, 200) comprising a body (10, 110) presenting a cavity suitable for containing a solid, liquid or pasty substance, the cavity presenting an opening (11b, 111b) and a lid (20, 120) that is movable relative to the body (10, 110), a first element from among the body (10, 110) and the lid (20, 120) including an engagement element, a second element from among the body (10, 110) and the lid (20, 120) including a closure tab (70, 170) movable between an engaged position in which, when the lid (20, 120) is in a shut position in which the lid shuts the opening, the closure tab (70, 170) co-operates with the engagement element, thereby holding the lid (20, 120) in the shut position, and a disengaged position in which the closure tab (70, 170) does not co-operate with the engagement element, so as to allow the lid (20, 120) to move relative to the body (10, 110), the pot being characterized in that it comprises a blocking tongue (42, 142) that is movable between a locked position in which the blocking tongue (42, 142) blocks the closure tab (70, 170) in the engaged position, and an unlocked position in which the closure tab (70, 170) is movable between the engaged position and the disengaged position, and an actuator (40, 140) configured to move the blocking tongue (42, 142) between the locked position and the unlocked position.
A device (40, 96) comprising: - a support (42, 142) comprising a first face; - a plurality of light elements (44, 144a) mounted in the support to form a two-dimensional array in the plane of the first face; - a first centering structure (46, 98, 146a) and a second centering structure (48, 100, 148) that are mounted to extend from the first face of the support (42, 142) and that are provided for centering of a plate on the support; characterized in that: - the first centering structure (46, 98, 146a) comprises at least a first pair (50, 52, 150a, 152a) and a second pair (54, 56, 154a, 156a) of stop walls, wherein a pair of stop walls forms a corner; and - the second centering structure (48, 100, 148) comprises at least a third pair (58, 60, 158a, 160a) and a fourth pair (62, 64, 162a, 164a) of stop walls; wherein the first pair of stop walls (50, 52, 150a, 152a) and the third pair of stop walls (58, 60, 158a, 160a) form corners of a first positioning zone (70, 102) of a first type of plate and the second pair of stop walls (54, 56, 154a, 156a) and the fourth pair of stop walls (62, 64, 162a, 164a) form corners of a second positioning zone (72, 104) of a second type of plate; and further wherein the first centering structure (46, 98, 146a) and the second centering structure (48, 100, 148) are positioned outside both the first positioning zone (70, 102) and the second positioning zone (72, 104). - a support (42, 142) comprising a first face; - a plurality of light elements (44, 144a) mounted in the support to form a two-dimensional array in the plane of the first face; - a first centering structure (46, 98, 146a) and a second centering structure (48, 100, 148) that are mounted to extend from the first face of the support (42, 142) and that are provided for centering of a plate on the support; - the first centering structure (46, 98, 146a) comprises at least a first pair (50, 52, 150a, 152a) and a second pair (54, 56, 154a, 156a) of stop walls, wherein a pair of stop walls forms a corner; and - the second centering structure (48, 100, 148) comprises at least a third pair (58, 60, 158a, 160a) and a fourth pair (62, 64, 162a, 164a) of stop walls; wherein the first pair of stop walls (50, 52, 150a, 152a) and the third pair of stop walls (58, 60, 158a, 160a) form corners of a first positioning zone (70, 102) of a first type of plate and the second pair of stop walls (54, 56, 154a, 156a) and the fourth pair of stop walls (62, 64, 162a, 164a) form corners of a second positioning zone (72, 104) of a second type of plate; and
Fluid-sealing electric motor connector for a housing of an electric motor, in particular an electric motor of an engine cooling fan or of an ABS/ESP system of a motor vehicle with a plug connector housing which may be plugged externally onto the housing, by means of which at least one electrical line is able to be connected to the electric motor so as to be fluid-sealed relative thereto, wherein the plug connector housing may be fastened to the housing by means of a locking spring, whereby the fluid-sealing electric motor connector may be fastened to the housing in a detachable manner, wherein the plug connector housing has a mounting portion, by means of which the electric motor connector may be fastened to the housing of the electric motor, wherein the mounting portion can protrude through a recess in the housing inwardly into the housing and is configured such that the electric motor connector may be blocked inside the housing, wherein the locking spring may be inserted for mounting the electric motor connector on the housing such that a wall of the housing may be clamped between the locking spring and a shoulder of the plug connector housing, characterized in that the mounting portion has a locking recess formed as a through-recess, into which the locking spring may be inserted for mounting the electric motor connector on the housing.
Apparatus located in a radio access network, adapted to: - receive a command message from a core network instructing a multimode mobile station to cipher communication; - compose (601, 704, 804, 904) an integrity protected command message for sending from the radio access network to the multimode mobile station, said integrity protected command message including information relating to the encrypting algorithms supported by said multimode mobile station in a further radio access network, and comprising a payload and a message authentication code. - receive a command message from a core network instructing a multimode mobile station to cipher communication; - compose (601, 704, 804, 904) an integrity protected command message for sending from the radio access network to the multimode mobile station, said integrity protected command message including information relating to the encrypting algorithms supported by said multimode mobile station in a further radio access network, and comprising a payload and a message authentication code.
A battery characteristic evaluator configured to identify a circuit constant of an equivalent circuit model based on a current-voltage characteristic of a battery, the evaluator comprising: a current waveform divider configured to divide a certain current waveform into a plurality of step functions with a plurality of infinitesimal time intervals and to output the step functions; and a circuit constant optimizing unit configured to calculate an optimized circuit constant of the equivalent circuit model, based on the step functions, a measured voltage value, and equivalent circuit model data; characterized in that the circuit constant optimizing unit comprises: a step response calculator configured to calculate a plurality of step response voltages each corresponding to one of the plurality of step functions, based on the plurality of step functions and the equivalent circuit model data; a voltage adder configured to add each of the step response voltages to output a calculated voltage value; and a determination unit configured to determine whether a circuit constant is the optimal value, by comparing the calculated voltage value with the measured voltage value, wherein when the determination unit determines that the circuit constant is not the optimal value, the determination unit is further configured to generate a new circuit constant based on the comparison result, and to provide the new circuit constant to the step response calculator. a current waveform divider configured to divide a certain current waveform into a plurality of step functions with a plurality of infinitesimal time intervals and to output the step functions; and a circuit constant optimizing unit configured to calculate an optimized circuit constant of the equivalent circuit model, based on the step functions, a measured voltage value, and equivalent circuit model data; a step response calculator configured to calculate a plurality of step response voltages each corresponding to one of the plurality of step functions, based on the plurality of step functions and the equivalent circuit model data; a voltage adder configured to add each of the step response voltages to output a calculated voltage value; and a determination unit configured to determine whether a circuit constant is the optimal value, by comparing the calculated voltage value with the measured voltage value, wherein when the determination unit determines that the circuit constant is not the optimal value, the determination unit is further configured to generate a new circuit constant based on the comparison result, and to provide the new circuit constant to the step response calculator.
A first communication apparatus (101, 401) comprising: wireless communication means adapted for performing wireless communication; first reception means adapted for receiving first information (504, 804) that is generated by a second communication apparatus or identifies a group of communication apparatuses (400, 402, 403) including the second communication apparatus; second reception means adapted for receiving second information from the second communication apparatus (100; 400, 402, 403) via the wireless communication means; authentication means adapted for performing authentication processing (S713, S1016, S1024) by using the first information received by the first reception means and the second information received by the second reception means, wherein the authentication processing performed by the authentication means succeeds if the received second information corresponds to the received first information; and transmission means adapted for transmitting a communication parameter (308, 511) necessary for establishing a wireless connection with the first communication apparatus to the second communication apparatus via the wireless communication means in case that the authentication processing performed by said authentication means succeeds, wherein the communication parameter comprises a wireless network credential that is issued by the first communication apparatus and that allows the second communication apparatus to establish the wireless connection. wireless communication means adapted for performing wireless communication; first reception means adapted for receiving first information (504, 804) that is generated by a second communication apparatus or identifies a group of communication apparatuses (400, 402, 403) including the second communication apparatus; second reception means adapted for receiving second information from the second communication apparatus (100; 400, 402, 403) via the wireless communication means; authentication means adapted for performing authentication processing (S713, S1016, S1024) by using the first information received by the first reception means and the second information received by the second reception means, wherein the authentication processing performed by the authentication means succeeds if the received second information corresponds to the received first information; and transmission means adapted for transmitting a communication parameter (308, 511) necessary for establishing a wireless connection with the first communication apparatus to the second communication apparatus via the wireless communication means in case that the authentication processing performed by said authentication means succeeds, wherein the communication parameter comprises a wireless network credential that is issued by the first communication apparatus and that allows the second communication apparatus to establish the wireless connection.
An optical receiver comprising: a differential transimpedance amplifier TIA having input cascodes (2, 3), and being arranged to receive one or more photodiode (51, 52) inputs and to provide at least two outputs, positive and negative, a positive peak detector receiving the positive differential TIA output, a negative peak detector receiving the negative differential TIA output, and each providing a peak detection output as an amplitude reference signal, a differential summing amplifier arranged to receive the outputs of the differential TIA and the amplitude reference signals from the peak detectors (15, 16), wherein said differential summing amplifier directly or indirectly provides an output for the optical receiver, wherein the receiver further comprises an automatic gain circuit for the differential transimpedance amplifier, and wherein the differential summing amplifier is connected at its output to the automatic gain circuit. a differential transimpedance amplifier TIA having input cascodes (2, 3), and being arranged to receive one or more photodiode (51, 52) inputs and to provide at least two outputs, positive and negative, a positive peak detector receiving the positive differential TIA output, a negative peak detector receiving the negative differential TIA output, and each providing a peak detection output as an amplitude reference signal, a differential summing amplifier arranged to receive the outputs of the differential TIA and the amplitude reference signals from the peak detectors (15, 16), wherein said differential summing amplifier directly or indirectly provides an output for the optical receiver, wherein the receiver further comprises an automatic gain circuit for the differential transimpedance amplifier, and wherein the differential summing amplifier is connected at its output to the automatic gain circuit.
Process for the preparation of Moxifloxacin hydrochloride of formula: comprising the following steps: (a) salification of Moxifloxacin base of formula: with a sulphonic acid of formula: R-SO3H in which R is chosen among C1-C4 alkyl, phenyl and tolyl, to give the compound of formula: (b) optional purification of the compound of formula, (c) conversion of the compound of formula in Moxifloxacin hydrochloride of formula. (a) salification of Moxifloxacin base of formula: with a sulphonic acid of formula: R-SO3H in which R is chosen among C1-C4 alkyl, phenyl and tolyl, to give the compound of formula: (b) optional purification of the compound of formula, (c) conversion of the compound of formula in Moxifloxacin hydrochloride of formula.
A sensor web for electric field sensing, comprising: - a substrate having a longitudinal direction, - at least one array of electrically conductive sensor areas formed to follow each other in a successive manner along the longitudinal direction and arranged on one side of the substrate, and - a group of conductors parallel to each other formed on the same side of the substrate, each electrically conductive sensor area that is to be used for sensing purposes being electrically connected to one conductor of said group of conductors, wherein new conductors are joining one by one the group of conductors advancing in the longitudinal direction of the substrate and the other conductors of the group of conductors are giving space for the joining new conductors in such a way that when one of the new conductors joins the group at the side of the electrically conductive sensor areas, another conductor of said group of conductors ends approximately at the same location of the longitudinal direction on the side of the group of conductors opposite to the electrically conductive sensor areas so that the number of conductors in the group of conductors is kept constant along the sensor web, wherein the sensor web comprises a repetitive pattern which is formed from the successive electrically conductive sensor areas and their conductors, which pattern is repetitive in the longitudinal direction of the sensor web and arranged such that it enables cutting across the longitudinal direction of the sensor web anywhere along this direction and the cutoff sensor web will form a functional sensor web up to a number of the electrically conductive sensor areas that does not exceed the number of the conductors crossing a cutting edge resulting from the cutting across the longitudinal direction of the sensor web. - a substrate having a longitudinal direction, - at least one array of electrically conductive sensor areas formed to follow each other in a successive manner along the longitudinal direction and arranged on one side of the substrate, and - a group of conductors parallel to each other formed on the same side of the substrate, each electrically conductive sensor area that is to be used for sensing purposes being electrically connected to one conductor of said group of conductors,
A patient interface device, comprising: a cushion; a frame having a faceplate portion, the cushion being coupled to the frame, the faceplate portion having a main orifice and a plurality of holes, the main orifice and the plurality of holes extending through the frame and being in fluid communication with the cushion; a fluid coupling conduit having an inlet end and an outlet end terminating in an outlet opening, the outlet end being fluidly coupled to the inlet end, wherein the inlet end is structured to receive a flow of breathing gas, wherein the outlet end is fluidly coupled to the main orifice to deliver the flow of breathing gas to the main orifice through the outlet opening, wherein the fluid coupling conduit comprises a deflector member provided around an at least a portion of an outer periphery of the outlet end at a location spaced from the outlet opening, wherein the deflector member is positioned over the plurality of holes in a manner wherein exhalation gasses will flow from the cushion, through the plurality of holes and will be redirected and diffused by the deflector member and be caused to flow around the outlet end to atmosphere, wherein plurality of holes are spaced around the main orifice, and in that the deflector member is spaced from the faceplate portion such that a gap is defined between the deflector member and the faceplate portion, wherein the main orifice comprises a main conduit extending outwardly from and through the faceplate portion, characterized in that the faceplate portion includes a recessed portion surrounding the main conduit, the plurality of holes being provided in the recessed portion, wherein a depth of the plurality of holes is equal to a thickness of the recessed portion. a cushion; a frame having a faceplate portion, the cushion being coupled to the frame, the faceplate portion having a main orifice and a plurality of holes, the main orifice and the plurality of holes extending through the frame and being in fluid communication with the cushion; a fluid coupling conduit having an inlet end and an outlet end terminating in an outlet opening, the outlet end being fluidly coupled to the inlet end, wherein the inlet end is structured to receive a flow of breathing gas, wherein the outlet end is fluidly coupled to the main orifice to deliver the flow of breathing gas to the main orifice through the outlet opening, wherein the fluid coupling conduit comprises a deflector member provided around an at least a portion of an outer periphery of the outlet end at a location spaced from the outlet opening, wherein the deflector member is positioned over the plurality of holes in a manner wherein exhalation gasses will flow from the cushion, through the plurality of holes and will be redirected and diffused by the deflector member and be caused to flow around the outlet end to atmosphere, wherein plurality of holes are spaced around the main orifice, and in that the deflector member is spaced from the faceplate portion such that a gap is defined between the deflector member and the faceplate portion,
A method for messaging between operating system containers on a user device comprising: receiving, by a first proxy (124, 134, 144) in a first user space operating system, OS, container (120, 130, 140), a first message from a first service in the first user space OS container (120, 130, 140), the first message sent to the first proxy using a first messaging mechanism; forwarding, by the first proxy (124, 134, 144), the first message to a second proxy (124, 134, 144) in a second user space OS container (120, 130, 140), the first message sent to the second proxy using a second messaging mechanism that is different than the first messaging mechanism; and delivering, by the second proxy (124, 134, 144), the first message to a second service in the second user space OS container (120, 130, 140). receiving, by a first proxy (124, 134, 144) in a first user space operating system, OS, container (120, 130, 140), a first message from a first service in the first user space OS container (120, 130, 140), the first message sent to the first proxy using a first messaging mechanism; forwarding, by the first proxy (124, 134, 144), the first message to a second proxy (124, 134, 144) in a second user space OS container (120, 130, 140), the first message sent to the second proxy using a second messaging mechanism that is different than the first messaging mechanism; and delivering, by the second proxy (124, 134, 144), the first message to a second service in the second user space OS container (120, 130, 140).