mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a vacuum waste collection system having a transport pipe system for transport of waste to a central waste collection point, wherein said transport pipe system includes one or more transport pipes having a number of branches and associated intersections, each branch having an air inlet valve (8, AV) at the end of the branch, and wherein said vacuum waste collection system further comprises waste detectors (9, WD) arranged in the vicinity of the intersections to detect waste in the transport pipe system, said method comprises the steps of: - successively selecting a number of branches in a sequence for emptying and transport of waste, wherein the intersection of each next branch in said sequence is at the same or shorter transport distance to the central waste collection point compared to the intersection of the previous branch in said sequence; and - collectively transporting accumulated waste from the selected branches towards the central waste collection point by successively operating the air inlet valves (8, AV) of the corresponding branches, wherein said step of collectively transporting accumulated waste comprises the steps of: - transporting, for each selected branch except the last branch, accumulated waste towards the central waste collection point by causing the corresponding air inlet valve (8, AV) to be open until it is detected by one of said waste detectors (9, WD) that the waste has been transported past an intersection to the next branch, and then changing to the next branch, and - transporting, for the last branch, accumulated waste to the central waste collection point. - successively selecting a number of branches in a sequence for emptying and transport of waste, wherein the intersection of each next branch in said sequence is at the same or shorter transport distance to the central waste collection point compared to the intersection of the previous branch in said sequence; and - collectively transporting accumulated waste from the selected branches towards the central waste collection point by successively operating the air inlet valves (8, AV) of the corresponding branches, - transporting, for each selected branch except the last branch, accumulated waste towards the central waste collection point by causing the corresponding air inlet valve (8, AV) to be open until it is detected by one of said waste detectors (9, WD) that the waste has been transported past an intersection to the next branch, and then changing to the next branch, and - transporting, for the last branch, accumulated waste to the central waste collection point.
An in vitro method for the diagnosis of ovarian carcinoma in a patient, comprising the following steps: a) determining the concentration C of anti-TUBB3 autoantibodies in a serum sample of said patient; b) comparing said concentration C of autoantibodies to a threshold value x, wherein a concentration of said autoantibodies higher than said threshold value identifies the presence of ovarian carcinoma in said patient. a) determining the concentration C of anti-TUBB3 autoantibodies in a serum sample of said patient; b) comparing said concentration C of autoantibodies to a threshold value x, wherein a concentration of said autoantibodies higher than said threshold value identifies the presence of ovarian carcinoma in said patient.
Magnetic field generator, designed as a portable natural field simulator, comprising an electrical circuit having a circuit in which a battery (+U B), a field coil connected thereto and a downstream switching transistor are arranged in series, the base of the switching transistor being connected to a clock generator for a clock rate of 6 Hz to 10 Hz, preferably of 8 Hz, so that the field coil can be switched on and off as an inductance at the battery voltage (+U B) at the clock rate of the clock generator, as a result of which an alternating magnetic field having an oscillation of 6 Hz to 10 Hz, preferably of 8 Hz, can be generated for near-natural simulation of the fundamental frequency of the Schumann resonances, characterized in that a capacitor is arranged in a parallel circuit to the field coil in order to form a resonant circuit having a resonance frequency of 5 to 30 kHz, preferably of 10 kHz and, furthermore, a diode is connected in the current flow between the battery (+U B) and the resonant circuit and/or between the resonant circuit and the switching transistor, as a result of which, after the field coil has been switched off in a clocked manner, clocked electromagnetic oscillations of 5 to 30 kHz, preferably of 10 kHz, which decay in an attenuated manner, can be generated from the dissipation of the magnetic field of the field coil at the frequency of the simulated fundamental frequency of the Schumann resonances, for near-natural simulation of sferics pulses as so-called fair-weather sferics. characterized in that a capacitor is arranged in a parallel circuit to the field coil in order to form a resonant circuit having a resonance frequency of 5 to 30 kHz, preferably of 10 kHz and, furthermore, a diode is connected in the current flow between the battery (+U B) and the resonant circuit and/or between the resonant circuit and the switching transistor, as a result of which, after the field coil has been switched off in a clocked manner, clocked electromagnetic oscillations of 5 to 30 kHz, preferably of 10 kHz, which decay in an attenuated manner, can be generated from the dissipation of the magnetic field of the field coil at the frequency of the simulated fundamental frequency of the Schumann resonances, for near-natural simulation of sferics pulses as so-called fair-weather sferics.
A modular connector (100, 200, 300, 400, 700, 800) for cables or pipes, having at least one compressible body with an axial groove (232, 332, 432) provided therein for arrangement of a shielded or armored cable or a pipe extending from a first end to a second end, wherein the groove is dimensioned or dimensionable to sealingly fit around a circumference of the shielded or armored cable, or pipe, wherein the at least one compressible body comprises a flexible conductor arrangement (110, 210, 310, 410, 710, 810) which conductor arrangement comprises at least two conductors arranged to follow a non-linear path, arranged between the first end and the second end, and wherein the conductor arrangement is also arranged to be sandwiched between the compressible body and a cable screen or armor of the cable, or the pipe, and the conductor arrangement further extends to an outside of the modular connector for cables or pipes characterized in that the conductor arrangement (110, 210, 310, 410, 710, 810) having at least two conductors arranged to follow a non-linear path is selected from the group comprising: a braided wire, a knitted wire, woven wire, a wire mesh, and a wire cloth, that at least one peelable sheets (105, 205, 305, 405, 705, 805) of material are arranged in the axial groove (232, 332, 432), for adjusting the diameter to the dimensions of the shielded or armored cable or the pipe, and that at least one peelable sheet of material is arranged in two or more sections (305, 305', 405, 405', 405", 805, 805', 805") along the axial extension of the modular connector, adjacent sections being separated from each other.
A datacenter chamber having racks configured to hold arrays of rack-mounted computing devices, the datacenter chamber comprising: three or more racks, each rack having a plurality of receptacles configured to hold a computing device; a chassis configured to secure each of the racks in spaced relation relative to one another, wherein the chassis is configured to secure the racks facing outward from an interior chamber defined by a back-side of the racks, and wherein the chassis is configured to position the racks facing at least three different directions; a tube at least partially defining the interior chamber and sized such that sides of the tube correspond to at least three of the racks, the sides of the tube corresponding to the at least three of the racks comprising airflow restrictors (530/534), wherein an amount of airflow restriction afforded by the airflow restrictors (530/534) increases along a at least half of a vertical length of the interior chamber; and an integrated cooling system configured to drive a cooling fluid along computing devices mounted in the racks and through the interior chamber. three or more racks, each rack having a plurality of receptacles configured to hold a computing device; a chassis configured to secure each of the racks in spaced relation relative to one another, wherein the chassis is configured to secure the racks facing outward from an interior chamber defined by a back-side of the racks, and wherein the chassis is configured to position the racks facing at least three different directions; a tube at least partially defining the interior chamber and sized such that sides of the tube correspond to at least three of the racks, the sides of the tube corresponding to the at least three of the racks comprising airflow restrictors (530/534), wherein an amount of airflow restriction afforded by the airflow restrictors (530/534) increases along a at least half of a vertical length of the interior chamber; and an integrated cooling system configured to drive a cooling fluid along computing devices mounted in the racks and through the interior chamber.
A method for preparing a compound of Chemical Formula 2, as shown in the following Reaction Formula 2, the method comprising: (Step 1) esterifying a 2-fluoroisophthalic acid compound of Chemical Formula 8 and alcohol; (Step 2) preparing a compound of Chemical Formula 10 by hydrolyzing the compound of Chemical Formula 9 prepared during the Step 1; (Step 3) preparing a compound of Chemical Formula 3 by amidating the compound of Chemical Formula 10 prepared during the Step 2 with an amine compound; (Step 4) preparing a compound of Chemical Formula 4 by reducing the compound of Chemical Formula 3 prepared during the Step 3; and (Step 5) hydrolyzing the compound of Chemical Formula 4 prepared during the Step 4: R 2 is C1-C8 straight or branched chain alkyl, and X is C4-C6 cycloamino group, or mono- or di-alkylamino group substituted with C1-C4 straight or branched chain alkyl. (Step 1) esterifying a 2-fluoroisophthalic acid compound of Chemical Formula 8 and alcohol; (Step 2) preparing a compound of Chemical Formula 10 by hydrolyzing the compound of Chemical Formula 9 prepared during the Step 1; (Step 3) preparing a compound of Chemical Formula 3 by amidating the compound of Chemical Formula 10 prepared during the Step 2 with an amine compound; (Step 4) preparing a compound of Chemical Formula 4 by reducing the compound of Chemical Formula 3 prepared during the Step 3; and (Step 5) hydrolyzing the compound of Chemical Formula 4 prepared during the Step 4: R 2 is C1-C8 straight or branched chain alkyl, and X is C4-C6 cycloamino group, or mono- or di-alkylamino group substituted with C1-C4 straight or branched chain alkyl.
A method for separating a loose mixture in a fluid comprising gravity feeding of particles, subjecting them to an aerodynamic, monotonically increasing action at an acute angle to the vertical by means of a cascade of planar jets through slot-like gaps, and removing the prepared fractions, wherein prior to subjecting the particles, each jet is expanded until it merges with the adjacent ones and creates two differently sized circulation zones, upper and lower, in an interjet space of the adjacent jets, upstream of the merging point, characterized in that an upper portion of the air flow of each planar jet from the cascade of planar jets is inclined upwardly relative to the acute angle of the cascade of planar jets, and a lower portion of the air flow of each planar jet from the cascade of planar jets is continued to move at the acute angle to the vertical until the adjacent lower portion of an upper jet and the upper portion of a lower jet that comes out of adjacent slot-like gaps are merged.
A method of making a nuclear fuel pellet for a nuclear power reactor, the method comprising the following steps: providing a nuclear fuel material in powder form, wherein the nuclear fuel material is based on UO 2, providing an additive, pressing the powder such that a so-called green pellet is obtained, wherein said additive is added either to said nuclear fuel material in powder form or to the green pellet, sintering the so obtained green pellet, wherein said additive is such that larger grains in the nuclear fuel material are present in the pellet after the sintering step as compared with the grain size obtained if a pellet, which is produced according to the above manner but without the addition of the additive, is sintered in the same manner, wherein said additive is made of or includes a substance which causes said larger grains in the sintered pellet, wherein said substance is selected and the method is performed such that the substance completely, or at least to 90%, preferably to at least 95%, more preferred to at least 99%, leaves at least an outer portion of the pellet before and/or during the sintering step, wherein the produced nuclear fuel pellet has a substantially cylindrical shape with a radius r and wherein said outer portion is the part of the nuclear fuel pellet that is located between 0.8 r and r, or between 0.9 r and r, or between 0.95 r and r, and wherein said substance is made of, or comprises, B. providing a nuclear fuel material in powder form, wherein the nuclear fuel material is based on UO 2, providing an additive, pressing the powder such that a so-called green pellet is obtained, wherein said additive is added either to said nuclear fuel material in powder form or to the green pellet, sintering the so obtained green pellet, wherein said additive is such that larger grains in the nuclear fuel material are present in the pellet after the sintering step as compared with the grain size obtained if a pellet, which is produced according to the above manner but without the addition of the additive, is sintered in the same manner, wherein said additive is made of or includes a substance which causes said larger grains in the sintered pellet, wherein said substance is selected and the method is performed such that the substance completely, or at least to 90%, preferably to at least 95%, more preferred to at least 99%, leaves at least an outer portion of the pellet before and/or during the sintering step, wherein the produced nuclear fuel pellet has a substantially cylindrical shape with a radius r and wherein said outer portion is the part of the nuclear fuel pellet that is located between 0.8 r and r, or between 0.9 r and r, or between 0.95 r and r, and wherein said substance is made of, or comprises, B.
Doxycycline for use in the treatment of an infection caused by Mycoplasma genitalium by co-administration with gepotidacin or a pharmaceutically acceptable salt thereof.
An electrical conveyance system, comprising: an electrical power manifold stationary from rotation and comprising a housing, a chamber formed within the housing, an upper, threaded, connection formed on an uphole end of the housing, and a lower, threaded, connection formed on a downhole end of the housing; a drill string coupled to the electrical power manifold, wherein the electrical power manifold is a structural element of the drill string; a multi-conductor conduit extending through an interior of the drill string; a stinger assembly extending from an exterior of the electrical power manifold to an interior of the electrical power manifold to couple the multi-conductor conduit to an electrical power source wherein the stinger assembly further includes a stationary cable, a rotating cable, and a slip ring coupling the stationary cable and the rotating cable, wherein the multi-conductor conduit rotates together with the drill string and a downhole tool coupled to the drill string and the multi-conductor conduit such that the conduit transmits power from the surface to the downhole tool, and a pulsed-power electrocrushing drill bit coupled to the drill string and the multi-conductor conduit. an electrical power manifold stationary from rotation and comprising a housing, a chamber formed within the housing, an upper, threaded, connection formed on an uphole end of the housing, and a lower, threaded, connection formed on a downhole end of the housing; a drill string coupled to the electrical power manifold, wherein the electrical power manifold is a structural element of the drill string; a multi-conductor conduit extending through an interior of the drill string; a stinger assembly extending from an exterior of the electrical power manifold to an interior of the electrical power manifold to couple the multi-conductor conduit to an electrical power source wherein the stinger assembly further includes a stationary cable, a rotating cable, and a slip ring coupling the stationary cable and the rotating cable, wherein the multi-conductor conduit rotates together with the drill string and a downhole tool coupled to the drill string and the multi-conductor conduit such that the conduit transmits power from the surface to the downhole tool, and a pulsed-power electrocrushing drill bit coupled to the drill string and the multi-conductor conduit.
Operating method to preserve a heat exchange surface by suppressing the formation of dew and frost on a heat exchange surface by involving: a step for preparing a carrier being a metal mesh, which has a heat conduction ratio higher than that of the moist air if the air temperature in a temperature boundary layer, which is determined in accordance with the temperature and airflow on the heat exchange surface, is below the dew-point under the condition the air temperature in the temperature boundary layer is above 0°C, or below the freezing-point under the condition the air temperature in the temperature boundary layer is below 0°C, said carrier being arranged within the temperature boundary layer and on the heat exchange surface, which is in contact with moist air and is used for cooling, and a step for removing moisture from the air by condensing or sublimating water vapor in the moist air on the surface of the carrier opposite to the heat exchange surface by arranging the carrier within temperature boundary layer.
A method for providing access control, the method comprising: - receiving a credential by a first reader (102a; 202a) associated with a first access facility using a first communication protocol from a device (104; 204) that stores the credential, wherein the first communication protocol is a low energy wireless communication protocol; - establishing a secret with the device using the first communication protocol; characterized in that the method comprises: - providing the secret from the first reader (102a; 202a) to a second reader (102b; 202b) associated with a second access facility either directly from the first reader (102a; 202a) to the second reader (102b; 202b) or through a controller (108; 206) connected between the first reader (102a; 202a) and the second reader (102b; 202b); - identifying intent information for the device (104; 204) by performing ranging of the device by the second reader (106b; 206b) using the secret and a second communication protocol different than the first communication protocol, wherein the second communication protocol is ultra-wide band; and - coordinating access through one of the first access facility or the second access facility based on the intent information. - receiving a credential by a first reader (102a; 202a) associated with a first access facility using a first communication protocol from a device (104; 204) that stores the credential, wherein the first communication protocol is a low energy wireless communication protocol; - establishing a secret with the device using the first communication protocol; - providing the secret from the first reader (102a; 202a) to a second reader (102b; 202b) associated with a second access facility either directly from the first reader (102a; 202a) to the second reader (102b; 202b) or through a controller (108; 206) connected between the first reader (102a; 202a) and the second reader (102b; 202b); - identifying intent information for the device (104; 204) by performing ranging of the device by the second reader (106b; 206b) using the secret and a second communication protocol different than the first communication protocol, wherein the second communication protocol is ultra-wide band; and - coordinating access through one of the first access facility or the second access facility based on the intent information.
A method for manufacturing a piece, especially a green piece made of ceramic material, by the technique of additive manufacturing according to which layers of a photocurable paste are successively allowed to cure according to a pattern defined for each layer, the first layer being formed on a working surface on a working tray, each layer, before curing according to a defined pattern, being spread by scraping by one scraping blade or parallel scraping blades from an amount of paste supplied onto said working tray, which is lowered upon each formation of a layer, characterised in that, upon each formation of a layer, the amount of paste necessary to form said layer is dispensed onto the working surface, from at least one nozzle which is moved in front of the scraping blade, or in the case of parallel scraping blades, in front of the front scraping blade.
Smoking device for aerosol-generation of a liquid aerosol-forming substrate, the smoking device comprising: - a device housing comprising a liquid storage portion comprising a housing for holding liquid aerosol-forming substrate; - a surface acoustic wave atomizer, SAW-atomizer, comprising an atomization region, at least one input transducer for generating surface acoustic waves to propagate along a surface of the SAW-atomizer including the atomization region, and at least one output transducer for converting surface acoustic waves into an electrical signal representative of physical information of the atomization region; - a supply element arranged to supply liquid aerosol-forming substrate from the liquid storage portion to the atomization region on the SAW-atomizer; and - a control system configured to operate the SAW-atomizer for atomizing the liquid aerosol-forming substrate in the atomization region to generate an aerosol, wherein the control system is configured to control operation of the SAW-atomizer according to the electrical signal. - a device housing comprising a liquid storage portion comprising a housing for holding liquid aerosol-forming substrate; - a surface acoustic wave atomizer, SAW-atomizer, comprising an atomization region, at least one input transducer for generating surface acoustic waves to propagate along a surface of the SAW-atomizer including the atomization region, and at least one output transducer for converting surface acoustic waves into an electrical signal representative of physical information of the atomization region; - a supply element arranged to supply liquid aerosol-forming substrate from the liquid storage portion to the atomization region on the SAW-atomizer; and - a control system configured to operate the SAW-atomizer for atomizing the liquid aerosol-forming substrate in the atomization region to generate an aerosol, wherein the control system is configured to control operation of the SAW-atomizer according to the electrical signal.