mhurhangee/ep-ind-claims huggingface dataset:
A method of producing a three-dimensional object from an extrusion of material, the method comprising: forming, using an additive extrusion printing device having a movable portion, at least one line of material from the movable portion of the additive extrusion printing device, extruding being a function of a nominal model having a specification of the object; measuring, using a coordinate measuring machine, at least one dimension of the line of material during the extrusion process of the line of material; checking, using a checker operatively coupled with the coordinate measuring machine, the dimensional accuracy of at least one dimension of the line of material by comparing the at least one dimension with at least one object specification of the nominal model of the object; and altering subsequent extrusion of the line of material by the movable portion of the additive extrusion printing device as a function of the dimensional accuracy of said checking the at least one measured dimension, altering comprising controlling the additive extrusion printing device to change an extrusion parameter of the line of material, the extrusion parameter including at least one of the trajectory of the movable portion, the velocity of the movable portion, the velocity the material extrudes from the movable portion, and at least one dimension of the line of material. forming, using an additive extrusion printing device having a movable portion, at least one line of material from the movable portion of the additive extrusion printing device, extruding being a function of a nominal model having a specification of the object; measuring, using a coordinate measuring machine, at least one dimension of the line of material during the extrusion process of the line of material; checking, using a checker operatively coupled with the coordinate measuring machine, the dimensional accuracy of at least one dimension of the line of material by comparing the at least one dimension with at least one object specification of the nominal model of the object; and altering subsequent extrusion of the line of material by the movable portion of the additive extrusion printing device as a function of the dimensional accuracy of said checking the at least one measured dimension, altering comprising controlling the additive extrusion printing device to change an extrusion parameter of the line of material, the extrusion parameter including at least one of the trajectory of the movable portion, the velocity of the movable portion, the velocity the material extrudes from the movable portion, and at least one dimension of the line of material.
Mechanical combustion-engine-driven fluid pump comprising an input shaft which is directly driven by the combustion engine, a pumping unit with a pump rotor, and a magneto-rheological multi-disk clutch between the input shaft and the pump rotor, the clutch comprising at least two radial input clutch disks and at least two radial output clutch disks, the clutch discs (62, 64) defining at least two radial clutch liquid gaps between them filled with a magneto-rheotogicat clutch liquid, a shiftable permanent magnet element being shiftable between an engaged position wherein the permanent magnet element's magnetic field penetrates the clutch liquid gaps with relatively high magnetic flux, and a disengaged position wherein the magnet element's magnetic field penetration flux in the clutch liquid gaps is less than in the engaged position, and an actuator for moving the permanent magnet element between its engaged and its disengaged position, whereby the permanent magnet element is provided shiftable in axial direction, characterised in that a magnet chamber is provided radially inwardly of the clutch disks (62, 64), the permanent magnet element being provided in the magnet chamber movable between the engaged and disengaged position.
Continuous process for nanomaterial synthesis from the detonation of at least one emulsion, comprising the following steps: a) Preparation of an internal phase and an external phase of a water-in-oil (w/o) type of emulsion, in desired amounts for the intended production, wherein: - the internal phase is oxygen-rich; - the external phase is a propellant, and is based on organic components; b) Emulsification of both phases, under the effect of mechanical energy; c) Sensitization of the emulsion; d) Pre-forming into the desired geometry for the composition; e) Feeding into the reactor; f) Ignition of the emulsion; g) Detonation of the emulsion; h) Collection of the nanomaterial; wherein sensitization, pre-forming, feeding into the reactor, emulsion ignition and detonation (c; d; e; f; g) take place simultaneously. a) Preparation of an internal phase and an external phase of a water-in-oil (w/o) type of emulsion, in desired amounts for the intended production, wherein: - the internal phase is oxygen-rich; - the external phase is a propellant, and is based on organic components; - the internal phase is oxygen-rich; - the external phase is a propellant, and is based on organic components; b) Emulsification of both phases, under the effect of mechanical energy; c) Sensitization of the emulsion; d) Pre-forming into the desired geometry for the composition; e) Feeding into the reactor; f) Ignition of the emulsion; g) Detonation of the emulsion; h) Collection of the nanomaterial;
Method for operating a household robot with functional modules, comprising the steps: - providing a number of tasks for the household robot, - dividing at least one task into a number of subtasks (T1, T2, T3), - determining the functional modules that are required in order to execute the subtasks (T1, T2, T3), - specifying the order of execution of the subtasks (T1, T2, T3) and/or the use of the functional modules, wherein a) it is ascertained whether an idle time is present within a subtask (T1, T2, T3) and/or between two subtasks (T1, T2, T3) and b) it is checked whether, during an established idle time, another subtask (T1, T2, T3) can be at least partially completed, whereupon the order of the subtasks (T1, T2, T3) and/or the required functional modules is specified such that the other subtask (T1, T2, T3) is at least partially executed within the idle time, - executing the subtasks (T1, T2, T3) in the specified order. - providing a number of tasks for the household robot, - dividing at least one task into a number of subtasks (T1, T2, T3), - determining the functional modules that are required in order to execute the subtasks (T1, T2, T3), - specifying the order of execution of the subtasks (T1, T2, T3) and/or the use of the functional modules, wherein a) it is ascertained whether an idle time is present within a subtask (T1, T2, T3) and/or between two subtasks (T1, T2, T3) and b) it is checked whether, during an established idle time, another subtask (T1, T2, T3) can be at least partially completed, whereupon the order of the subtasks (T1, T2, T3) and/or the required functional modules is specified such that the other subtask (T1, T2, T3) is at least partially executed within the idle time, a) it is ascertained whether an idle time is present within a subtask (T1, T2, T3) and/or between two subtasks (T1, T2, T3) and b) it is checked whether, during an established idle time, another subtask (T1, T2, T3) can be at least partially completed, whereupon the order of the subtasks (T1, T2, T3) and/or the required functional modules is specified such that the other subtask (T1, T2, T3) is at least partially executed within the idle time, - executing the subtasks (T1, T2, T3) in the specified order.
An integrated sensor device comprising: MOS circuits in a semiconductor substrate, interconnect levels each with interconnect conductors and insulating dielectric (43, 46, 57), said levels being over the substrate and interconnecting the MOS circuits, said interconnect conductors including sensor electrodes and said insulating dielectric including a Low-K dielectric material as a sensor dielectric material for absorption of humidity, a gas sensor (230-232, 240-242), wherein the MOS circuits include a temperature sensor, the microcontroller comprising means for processing signals from the sensor electrodes included in the interconnect conductors, from the gas sensor, and from the temperature sensor to provide a gas sensor output, in which the microcontroller comprises means for performing cross-sensor compensation in which humidity and temperature readings are used to compensate gas readings. MOS circuits in a semiconductor substrate, interconnect levels each with interconnect conductors and insulating dielectric (43, 46, 57), said levels being over the substrate and interconnecting the MOS circuits, said interconnect conductors including sensor electrodes and said insulating dielectric including a Low-K dielectric material as a sensor dielectric material for absorption of humidity, a gas sensor (230-232, 240-242), wherein the MOS circuits include a temperature sensor, the microcontroller comprising means for processing signals from the sensor electrodes included in the interconnect conductors, from the gas sensor, and from the temperature sensor to provide a gas sensor output, in which the microcontroller comprises means for performing cross-sensor compensation in which humidity and temperature readings are used to compensate gas readings.
A method for recording, editing and reproduction of a user session on a computer, the method comprising: - initiating recording of user interactions with the computer; - generating a recording of the user interactions, wherein the recording includes mouse events and display events; - writing the recording into a script; - assigning unique IDs to software elements; - capturing an initial state of the software; - capturing events representing the user interactions with the computer; - sending the recording to a server; - providing an interface to edit the recording stored on the server, wherein the editing includes changes to objects, elements, text or images stored in the recording; - in response to a user request to play back the recording (a) opening a browser window; and (b) playing back the edited recording; and - on the server, generating PDF files from the generated recording frame by frame using PhantomJS and CasperJS, wherein when all PDFs are completed, the server packs them into an archive; wherein the events are saved using JavaScript Object Notation, JSON, format. - initiating recording of user interactions with the computer; - generating a recording of the user interactions, wherein the recording includes mouse events and display events; - writing the recording into a script; - assigning unique IDs to software elements; - capturing an initial state of the software; - capturing events representing the user interactions with the computer; - sending the recording to a server; - providing an interface to edit the recording stored on the server, wherein the editing includes changes to objects, elements, text or images stored in the recording; - in response to a user request to play back the recording (a) opening a browser window; and (b) playing back the edited recording; and (a) opening a browser window; and (b) playing back the edited recording; and - on the server, generating PDF files from the generated recording frame by frame using PhantomJS and CasperJS,
An edible composition of matter for consumption by a human through chewing and tasting, which edible composition comprises: 0.5 grams to 3 grams of cinnamon per 20 grams of total matter by weight being a quantity sufficient to impart an unpleasant taste with a bitterness or tartness whilst the composition is chewed and tasted by the human; a pre-cooked grain; and a binder and sweetener, the binder and sweetener in the form of a low-glycemic sugar, the low-glycemic sugar being less than about 25% of the edible composition, whereby the quantity of low-glycemic sugar is sufficient to bind the cinnamon and pre-cooked grain, and sufficient to sweeten the composition just enough to restore a pleasant taste to the composition during chewing, but not a quantity that would counteract the benefit of the cinnamon to the human. 0.5 grams to 3 grams of cinnamon per 20 grams of total matter by weight being a quantity sufficient to impart an unpleasant taste with a bitterness or tartness whilst the composition is chewed and tasted by the human; a pre-cooked grain; and a binder and sweetener, the binder and sweetener in the form of a low-glycemic sugar, the low-glycemic sugar being less than about 25% of the edible composition, whereby the quantity of low-glycemic sugar is sufficient to bind the cinnamon and pre-cooked grain, and sufficient to sweeten the composition just enough to restore a pleasant taste to the composition during chewing, but not a quantity that would counteract the benefit of the cinnamon to the human.
A method for transmitting positioning information, comprising: determining a positioning sub-frame for transmitting a positioning reference signal, PRS; and transmitting the PRS according to the positioning sub-frame; wherein when the positioning sub-frame is a normal sub-frame, and the positioning sub-frame is a sub-frame comprising a synchronization channel, SCH, and/or a broadcast channel, BCH, the step of transmitting the PRS according to the positioning sub-frame comprises: transmitting the PRS on an orthogonal frequency division multiplex, OFDM, symbol that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource block that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource element that does not transmit the SCH and/or the BCH; wherein the transmitting the PRS according to the positioning sub-frame further comprises: transmitting the PRS on an OFDM symbol that does not transmit a cell-specific reference signal, CRS, a physical control format indicator channel, PCFICH, a physical hybrid automatic repeat request, ARQ, indicator channel, PHICH, and a physical downlink control channel, PDCCH. determining a positioning sub-frame for transmitting a positioning reference signal, PRS; and transmitting the PRS according to the positioning sub-frame; wherein when the positioning sub-frame is a normal sub-frame, and the positioning sub-frame is a sub-frame comprising a synchronization channel, SCH, and/or a broadcast channel, BCH, the step of transmitting the PRS according to the positioning sub-frame comprises: transmitting the PRS on an orthogonal frequency division multiplex, OFDM, symbol that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource block that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource element that does not transmit the SCH and/or the BCH; wherein the transmitting the PRS according to the positioning sub-frame further comprises: transmitting the PRS on an OFDM symbol that does not transmit a cell-specific reference signal, CRS, a physical control format indicator channel, PCFICH, a physical hybrid automatic repeat request, ARQ, indicator channel, PHICH, and a physical downlink control channel, PDCCH. transmitting the PRS on an orthogonal frequency division multiplex, OFDM, symbol that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource block that does not transmit the SCH and/or the BCH; or transmitting the PRS on a resource element that does not transmit the SCH and/or the BCH; wherein the transmitting the PRS according to the positioning sub-frame further comprises: transmitting the PRS on an OFDM symbol that does not transmit a cell-specific reference signal, CRS, a physical control format indicator channel, PCFICH, a physical hybrid automatic repeat request, ARQ, indicator channel, PHICH, and a physical downlink control channel, PDCCH.
Target identification method implemented by a first device, comprising: acquiring target detection information of a current target from a second device, wherein the target detection information is movement states of the current target; acquiring target state information of each of multiple reference targets (R1-RN), wherein the target state information of each of multiple reference targets (R1-RN) contains movement information of each of multiple reference targets (R1-RN); determining a degree of matching between the target detection information and the target state information of each of the multiple reference targets (R1-RN); associating the current target with a matching reference target having the best degree of matching amongst the multiple reference targets (R1-RN). acquiring target detection information of a current target from a second device, wherein the target detection information is movement states of the current target; acquiring target state information of each of multiple reference targets (R1-RN), wherein the target state information of each of multiple reference targets (R1-RN) contains movement information of each of multiple reference targets (R1-RN); determining a degree of matching between the target detection information and the target state information of each of the multiple reference targets (R1-RN); associating the current target with a matching reference target having the best degree of matching amongst the multiple reference targets (R1-RN).
Method for automatic billing in a fee collection or toll system by means of a vehicle device which is a loan from the toll operator, wherein a position receiver of the vehicle device is used to determine a position of the vehicle device in order to detect when a toll system boundary of the toll system is approached and crossed, characterized in that, if it is detected that a toll system boundary of the toll system is approached, an acoustic signal and an optical signal are generated by the vehicle device, as a result of which the driver is warned to return the loaned vehicle device, and in that if it is detected that a toll system boundary of the toll system is crossed, a message containing the request to return the loaned vehicle device is also transmitted to the mobile telephone number of the driver.
A method of operating an inductive power transfer system for transferring power, wherein the inductive power transfer system comprises a primary winding structure for generating an alternating electromagnetic field and a secondary winding structure for receiving the alternating electromagnetic field and generating an alternating current output voltage, wherein the alternating current output voltage is rectified and supplied to at least one energy storage element, wherein the rectified output voltage (U C) is adjusted by varying a gap size of a gap between the primary winding structure and the secondary winding structure, wherein the gap size is adjusted to prepare an energy transfer process and/or to initiate an energy transfer process and/or to control an energy transfer process depending on charging characteristics of the at least one energy storage element, characterized in that the gap size is adjusted such that a desired rectified output voltage (U C,des) is provided, wherein the gap size is held constant as long as a desired rectified output voltage (U C,des) is providable by adjusting the input voltage (U WPC) of the wayside power converter, wherein the input voltage (U WPC) of the wayside power converter is adjustable between given voltage limits wherein the gap size is adjusted to prepare an energy transfer process and/or to initiate an energy transfer process and/or to control an energy transfer process depending on charging characteristics of the at least one energy storage element, characterized in that the gap size is adjusted such that a desired rectified output voltage (U C,des) is provided, wherein the gap size is held constant as long as a desired rectified output voltage (U C,des) is providable by adjusting the input voltage (U WPC) of the wayside power converter, wherein the input voltage (U WPC) of the wayside power converter is adjustable between given voltage limits
Fuel injector for injecting gaseous fuels into a combustion chamber of an internal combustion engine, comprising at least one nozzle needle that can be moved in a reciprocating manner to open and close at least one injection opening, wherein the nozzle needle delimits a control chamber which can be charged with a hydraulic pressure medium, preferably with liquid fuel, via an inlet throttle which is formed within an inlet duct, characterized in that a pin, the position of which in relation to a longitudinal axis of the inlet duct is variable, is accommodated in the inlet duct, forming an annular gap serving as an inlet throttle, so that the throttle cross section of the inlet throttle is annular or crescent-shaped.
A method of elucidating the structural identity of an unknown metabolite, comprising: (a) measuring amounts of known and unknown metabolites in biological samples taken from subjects in a population group; (b) associating an unknown metabolite with a specific gene from a gene association study; (c) determining a protein associated with the specific gene and analyzing information for the protein; (d) associating the unknown metabolite with concentrations and/or ratios of other metabolites in the subjects using a partial correlation network, wherein the partial correlation network is a Gaussian Graphical Model being created using full-order partial correlation coefficients; (e) obtaining chemical structural data for the unknown metabolite; and (f) deriving from the information obtained from steps (a) through (e) the structural identity of the unknown metabolite. (a) measuring amounts of known and unknown metabolites in biological samples taken from subjects in a population group; (b) associating an unknown metabolite with a specific gene from a gene association study; (c) determining a protein associated with the specific gene and analyzing information for the protein; (d) associating the unknown metabolite with concentrations and/or ratios of other metabolites in the subjects using a partial correlation network, wherein the partial correlation network is a Gaussian Graphical Model being created using full-order partial correlation coefficients; (e) obtaining chemical structural data for the unknown metabolite; and (f) deriving from the information obtained from steps (a) through (e) the structural identity of the unknown metabolite.