mhurhangee/ep-ind-claims huggingface dataset:
A level transmitter comprising: a probe that extends in a tank through a gas region and one or more liquid and/or semi-liquid material layers (114, 116); a transmitter clock generator that produces a transmitter clock signal; a receiver clock generator that produces a receiver clock signal so that the receiver clock signal sweeps through a plurality of phase delays relative to the transmitter clock signal; a sync circuit causing a START signal to transition when the transmitter clock signal and the receiver clock signal are in phase; a pulse driver configured to, when the START signal transitions, begin issuing a series of pulses on the probe in phase with the transmitter clock signal; a sampler configured to form a time equivalent signal of reflected signals from the probe; an analog-to-digital converter clock signal generator that receives the transmitter clock signal and uses the received transmitter clock signal to generate an analog-to-digital converter clock signal; an analog-to-digital converter that receives the time equivalent signal and samples the time equivalent signal to generate digital values based on transitions in the ADC clock signal; and an analysis module that analyzes the digital values to determine a distance to a material boundary in the tank. a probe that extends in a tank through a gas region and one or more liquid and/or semi-liquid material layers (114, 116); a transmitter clock generator that produces a transmitter clock signal; a receiver clock generator that produces a receiver clock signal so that the receiver clock signal sweeps through a plurality of phase delays relative to the transmitter clock signal; a sync circuit causing a START signal to transition when the transmitter clock signal and the receiver clock signal are in phase; a pulse driver configured to, when the START signal transitions, begin issuing a series of pulses on the probe in phase with the transmitter clock signal; a sampler configured to form a time equivalent signal of reflected signals from the probe; an analog-to-digital converter clock signal generator that receives the transmitter clock signal and uses the received transmitter clock signal to generate an analog-to-digital converter clock signal; an analog-to-digital converter that receives the time equivalent signal and samples the time equivalent signal to generate digital values based on transitions in the ADC clock signal; and an analysis module that analyzes the digital values to determine a distance to a material boundary in the tank.
A substrate processing apparatus (10, 3010) comprising: a chamber adapted for maintaining a vacuum inside the chamber; a generally linear array of process modules (20, 3020) each communicably connected to the chamber (18, 3018) to allow a substrate to be transferred between chamber and process module (20, 3020); a substrate transport vehicle (22, 3229) located in and movably supported from the chamber, the substrate transport vehicle being adapted to move along a linear path defined by the chamber and transport the substrate between process modules; and a drive system (320, 400, 701, 790, 3400) connected to the chamber, the drive system being adapted to drive and move the substrate transport vehicle along the linear path; characterized in that the chamber is sealed to hold a vacuum therein and wherein the chamber comprises a selectable number of chamber modules serially abutted to define the chamber, each module having an integral portion (3402-3402B, 3404-3404B) of the drive system where the integral portion of the drive system comprises a linear drive system (3402-3402B, 3404-3404B) having a stationary winding set isolated from an interior environment of the chamber for driving the substrate transport vehicle along the linear path. a chamber adapted for maintaining a vacuum inside the chamber; a generally linear array of process modules (20, 3020) each communicably connected to the chamber (18, 3018) to allow a substrate to be transferred between chamber and process module (20, 3020); a substrate transport vehicle (22, 3229) located in and movably supported from the chamber, the substrate transport vehicle being adapted to move along a linear path defined by the chamber and transport the substrate between process modules; and a drive system (320, 400, 701, 790, 3400) connected to the chamber, the drive system being adapted to drive and move the substrate transport vehicle along the linear path; characterized in that the chamber is sealed to hold a vacuum therein and wherein the chamber comprises a selectable number of chamber modules serially abutted to define the chamber, each module having an integral portion (3402-3402B, 3404-3404B) of the drive system where the integral portion of the drive system comprises a linear drive system (3402-3402B, 3404-3404B) having a stationary winding set isolated from an interior environment of the chamber for driving the substrate transport vehicle along the linear path.
Method for adjusting a timing programme for a heating system and/or a timing programme for a system for home automation - for example a smart home system - by predicting an expected time of arrival and an expected destination on the basis of a nearest intermediate destination, in particular by means of a mobile computing device, and wherein an expected journey is ascertained, wherein the expected journey comprises a prediction of the expected time of arrival and of the expected destination and also the nearest intermediate destination, and wherein the nearest intermediate destination is a stop with a predefined minimum length of stay at the nearest intermediate destination, comprising the steps of · ascertaining the expected journey on the basis of the nearest intermediate destination and historical journey data, wherein the historical journey data are formed by previously stored historical journeys, · adjusting the timing programme on the basis of the expected journey, in particular on the basis of the expected time of arrival and the expected destination, wherein the expected journey is ascertained on the basis of at least one intermediate destination property of the nearest intermediate destination, wherein the intermediate destination property may be for example a time, in particular a current time or an expected time of arrival at the nearest intermediate destination, and/or weather information, and wherein the ascertaining of the expected journey involves the expected journey selected being the historical journey for which the at least one intermediate destination property of the intermediate destination of the historical journey that corresponds to the nearest intermediate destination has a greatest possible degree of similarity with the at least one intermediate destination property of the nearest intermediate destination, wherein the greatest possible degree of similarity of the at least one intermediate destination property of the nearest intermediate destination with the at least one intermediate destination property of the intermediate destination of the historical journey that corresponds to the nearest intermediate destination is defined or ascertained by means of a metric or distance function of the at least one intermediate destination property. · ascertaining the expected journey on the basis of the nearest intermediate destination and historical journey data, wherein the historical journey data are formed by previously stored historical journeys, · adjusting the timing programme on the basis of the expected journey, in particular on the basis of the expected time of arrival and the expected destination,
Headlight for astride riding vehicles, in particular for motorcycles, having a headlight body supporting at least one bulb (60,62,68,136,150,154), wherein the bulb (60,62,68,136,150,154) in the headlight body is connected to an electric connector (124,160) on a vehicle body side by lead wires (104,120,116,152,162), characterized in that said lead wires (104,120, 116,152,162) being fixed to a rear face of the headlight body in an allowance portion being formed along a periphery of a protruded portion on the rear side.
A flash housing for photographic purposes, said flash housing comprising a flash forming element arranged to generate a flash light, a lens element arranged to let at least part of the generated flash light out of the flash housing so as to obtain the flash, wherein the obtainable flash light has a beam lobe with a controllable beam angle, characterized in that the flash housing further comprises a simulation light generator element for simulation of the obtainable flash light beam lobe having the controllable beam angle, and wherein the simulation light generator element is configured to provide a simulation light, which is lit for a substantially longer time period than the flash light. a flash forming element arranged to generate a flash light, a lens element arranged to let at least part of the generated flash light out of the flash housing so as to obtain the flash, wherein the obtainable flash light has a beam lobe with a controllable beam angle, characterized in that the flash housing further comprises a simulation light generator element for simulation of the obtainable flash light beam lobe having the controllable beam angle, and wherein the simulation light generator element is configured to provide a simulation light, which is lit for a substantially longer time period than the flash light.
Conductor terminal having at least one conductor clamping element, which is formed in one piece from a sheet metal part and has a base section, a spring bow adjoining the base section and a clamping leg adjoining the spring bow and located opposite the base section, wherein the free clamping end of the clamping leg forms a clamping edge for clamping on an electric conductor, and wherein a connecting contact is exposed out of the base section and is bent out of the plane of the base section in a direction opposite to the clamping leg, characterized in that an end section of the base section that is opposite to the spring bow extends from the plane spanned by the base section in the direction of the clamping leg and forms an overload stop for the clamping leg, which prevents further displacement of the clamping leg downwards in the direction of the base section.
Method for assisting with detection of infection of a terminal by malicious software, comprising: - receiving from the terminal a current request requesting access to a resource of a network, - detecting that the required resource is malicious, - when the header of the current request also contains a reference to an initial resource from which the resource was obtained, verifying that an access to the initial resource has been requested from the terminal in at least one prior request, said initial resource having been detected to be legitimate during the processing of the prior request, said current request then being considered to be an attempt to infect the terminal. - receiving from the terminal a current request requesting access to a resource of a network, - detecting that the required resource is malicious, - when the header of the current request also contains a reference to an initial resource from which the resource was obtained, verifying that an access to the initial resource has been requested from the terminal in at least one prior request, said initial resource having been detected to be legitimate during the processing of the prior request, said current request then being considered to be an attempt to infect the terminal.
Vacuum pump having a gas inlet, a gas outlet and having a side channel pump stage which comprises an impeller (400, 400') which is caused to rotate and has a rim and at least one blade (402, 402'; 420; 450), wherein the blade has a rear side lagging in the movement direction with an external edge, wherein the blade comprises a bevel (406; 416; 456) on the external edge of the rear side, wherein the blade (402, 402'; 420; 450) comprises two blade portions (421, 422; 451, 452), which are arranged offset relative to one another in the movement direction and wherein the portion rear sides (425, 426; 453, 454) of the blade portions (421, 422; 451, 452) extend to over a centre of the impeller (400, 400'), characterised in that the impeller (400, 400') comprises a second blade and a central connecting piece is provided between the blade (402, 402'; 420; 450) and the second blade.
Composition for fracturing operation comprising at least one water-soluble or water swellable polymer and at least one proppant wherein the composition is a free-flowable powder combining the proppant and the polymer in a particulate form, said particulates of water-soluble polymer before they are solubilized or particulates of water swellable polymer before they are swelled having an average particle size comprised between 10 and 1000 microns.
A method for controlling User Equipment to take measurements, comprising: UE receiving (S104; S904) an Automatic Neighboring Relationship Function measurement configuration message from a radio network controller, wherein the ANR measurement configuration message carries the maximum time that the UE is to take ANR measurements; the UE taking the ANR measurements, timing a measurement period, and storing measurement results (S104; S904); characterized in that the method further comprises, when the measurement period reaches the maximum time, the UE deleting (S106; S906) the ANR measurement configuration message. UE receiving (S104; S904) an Automatic Neighboring Relationship Function measurement configuration message from a radio network controller, wherein the ANR measurement configuration message carries the maximum time that the UE is to take ANR measurements; the UE taking the ANR measurements, timing a measurement period, and storing measurement results (S104; S904);
Use, in an engine, of a lubricating oil composition comprising a. a major amount of oil of lubricating viscosity; b. at least one carboxylate detergent wherein at least one of the carboxylate detergents has a TBN of the actives of greater than 60 to 200; c. at least one polyalkenyl succinimide; d. a first phenate detergent having a TBN of the actives of greater than 60 to 200; and e. a second phenate detergent having a TBN of the actives of greater than 200 to 400, wherein the at least one carboxylate detergent is an overbased alkaline earth metal alkyhydroxybenzoate having a structure as shown in Formula: wherein R is a linear alkyl group comprising from 12 to 40 carbon atoms, a branched alkyl group comprising from 9 to 40 carbon atoms, or a mixture of said linear and branched alkyl groups, and M is an alkaline earth metal selected from the group consisting of calcium, barium, magnesium and strontium; for improving TBN retention in the engine; wherein TBN is determined in accordance with ASTM Test No. D2896. a. a major amount of oil of lubricating viscosity; b. at least one carboxylate detergent wherein at least one of the carboxylate detergents has a TBN of the actives of greater than 60 to 200; c. at least one polyalkenyl succinimide; d. a first phenate detergent having a TBN of the actives of greater than 60 to 200; and e. a second phenate detergent having a TBN of the actives of greater than 200 to 400,
A device for extracting a liquid phase from a suspension, the device being characterized in that it comprises: - a main duct for conveying a flow of said suspension, the duct being of a length that is sufficient to enable a layer of said suspension to develop that is depleted in solid phase; - at least one flow disturbance means (111, 112, 113, 114) for disturbing the flow of said suspension, said means being provided in the main duct and being adapted to cause at least one recirculation vortex to form so as to increase locally the thickness of said depleted layer; said at least one flow disturbance means forming a geometrical singularity; - an injection means for injecting a suspension into the main duct at a rate that is appropriate for causing at least one recirculation vortex to form at said flow singularity; and - liquid extraction means (121, 122) disposed in a region of the device (211, 213, 220) where said suspension is enriched in liquid phase as a result of said recirculation vortex. - a main duct for conveying a flow of said suspension, the duct being of a length that is sufficient to enable a layer of said suspension to develop that is depleted in solid phase; - at least one flow disturbance means (111, 112, 113, 114) for disturbing the flow of said suspension, said means being provided in the main duct and being adapted to cause at least one recirculation vortex to form so as to increase locally the thickness of said depleted layer; said at least one flow disturbance means forming a geometrical singularity; - an injection means for injecting a suspension into the main duct at a rate that is appropriate for causing at least one recirculation vortex to form at said flow singularity; and - liquid extraction means (121, 122) disposed in a region of the device (211, 213, 220) where said suspension is enriched in liquid phase as a result of said recirculation vortex.
An indicia reading terminal comprising: an imaging module (400, 500) having one or more image sensors (111, 211, 311), a printed circuit board and at least one imaging lens assembly, wherein circuitry of said imaging module is adapted to output digitized multi-bit image data; an image capture and processing circuit having a processor and an addressable memory addressable by said processor, the memory adapted for retaining frames of image data corresponding to image signals generated by said imaging module (400, 500); and a hand held housing incorporating both of said imaging module (400, 500) and said image capture and processing circuit, characterized by a parallel to serial converter disposed on said imaging module (400, 500) and adapted for receiving and for conversion of said digitized multi-bit image data; wherein said image capture and processing circuit includes a serial to parallel converter, the terminal further including a fiber optic cable facilitating communication between said parallel to serial converter and said serial to parallel converter, the parallel to serial converter adapted for outputting an optical signal for transmission on said fiber optic cable, the serial to parallel converter adapted for recovering said multi-bit image data being input to said parallel to serial converter and outputting data for retaining in said memory. an imaging module (400, 500) having one or more image sensors (111, 211, 311), a printed circuit board and at least one imaging lens assembly, wherein circuitry of said imaging module is adapted to output digitized multi-bit image data; an image capture and processing circuit having a processor and an addressable memory addressable by said processor, the memory adapted for retaining frames of image data corresponding to image signals generated by said imaging module (400, 500); and a hand held housing incorporating both of said imaging module (400, 500) and said image capture and processing circuit, characterized by a parallel to serial converter disposed on said imaging module (400, 500) and adapted for receiving and for conversion of said digitized multi-bit image data; wherein said image capture and processing circuit includes a serial to parallel converter, the terminal further including a fiber optic cable facilitating communication between said parallel to serial converter and said serial to parallel converter, the parallel to serial converter adapted for outputting an optical signal for transmission on said fiber optic cable, the serial to parallel converter adapted for recovering said multi-bit image data being input to said parallel to serial converter and outputting data for retaining in said memory.
A precipitation-hardened stainless steel alloy comprising, by weight: 14.0 to 16.0 percent chromium; 6.0 to 7.0 percent nickel; 1.25 to 1.75 percent copper; greater than 1.0 to 2.0 percent molybdenum; 0.025 to 0.05 percent carbon; niobium in an amount fourteen times to twenty-five times that of carbon and further comprising not greater than 1.0 percent manganese; not greater than 1.0 percent silicon; not greater than 0.1 percent vanadium; not greater than 0.1 percent tin; not greater than 0.030 percent nitrogen; not greater than 0.025 percent phosphorus; not greater than 0.005 percent sulfur; not greater than 0.05 percent aluminum; not greater than 0.005 percent silver and not greater than 0.005 percent lead as incidental impurities and the balance iron.
An operation unit structure for a saddle-type vehicle comprising: a throttle grip that is relatively rotatably assembled to a handle pipe; a throttle valve for adjusting the amount of air to be supplied to an internal combustion engine; a throttle cable (101, 102) that has a core wire (101B, 102B) and a cable outer (101A, 102A) covering the core wire (101B, 102B), one-side end portion of the core wire (101B, 102B) being fixed to the throttle grip while the other-side end portion of the core wire is fixed to the throttle valve, and actuates the throttle valve by pulling the core wire (101B, 102B) in accordance with an operation of the throttle grip; a throttle housing that holds the throttle cable (101, 102), the throttle housing is configured in a split structure to pinch a part of the throttle grip and is fixed to the handle pipe, and a slider that is pinched by the throttle housing and guides a bent portion (101C, 102C) of the core wire (101B, 102B) drawn out from the cable outer (101A, 102A), and a cable holder (91, 92) that is provided to the slider and configured to restrict movement in a longitudinal direction of the throttle cable (101, 102) and make the throttle cable (101, 102) separable from the slider, are provided; characterized in that the throttle grip is provided with a stopper portion (65C1, 65C2) having a face in a grip rotating direction; and the slider is provided with a stopper receiving portion (96, 97) with which the stopper portion (65C1, 65C2) is brought into contact to restrict a rotation range of the throttle grip. a throttle grip that is relatively rotatably assembled to a handle pipe; a throttle valve for adjusting the amount of air to be supplied to an internal combustion engine; a throttle cable (101, 102) that has a core wire (101B, 102B) and a cable outer (101A, 102A) covering the core wire (101B, 102B), one-side end portion of the core wire (101B, 102B) being fixed to the throttle grip while the other-side end portion of the core wire is fixed to the throttle valve, and actuates the throttle valve by pulling the core wire (101B, 102B) in accordance with an operation of the throttle grip; a throttle housing that holds the throttle cable (101, 102), the throttle housing is configured in a split structure to pinch a part of the throttle grip and is fixed to the handle pipe, and a slider that is pinched by the throttle housing and guides a bent portion (101C, 102C) of the core wire (101B, 102B) drawn out from the cable outer (101A, 102A), and a cable holder (91, 92) that is provided to the slider and configured to restrict movement in a longitudinal direction of the throttle cable (101, 102) and make the throttle cable (101, 102) separable from the slider, are provided; characterized in that the throttle grip is provided with a stopper portion (65C1, 65C2) having a face in a grip rotating direction; and the slider is provided with a stopper receiving portion (96, 97) with which the stopper portion (65C1, 65C2) is brought into contact to restrict a rotation range of the throttle grip.