mhurhangee/ep-ind-claims huggingface dataset:
A method for fluid-density modulated auto-duplexing, comprising: determining a set of media wetness values based on a densitometer reading to calculate an estimated media dry time for each swath of a printhead onto a surface of a media; determining a media wetness trigger value based on the estimated media dry time greater than a predetermined threshold for a swath of the printhead nozzle within a predefined distal end portion of the media; and determining a corrective course of action for a printer mechanism sequencing based on at least the media wetness trigger value to allow the media to be printed on an opposite surface. determining a set of media wetness values based on a densitometer reading to calculate an estimated media dry time for each swath of a printhead onto a surface of a media; determining a media wetness trigger value based on the estimated media dry time greater than a predetermined threshold for a swath of the printhead nozzle within a predefined distal end portion of the media; and determining a corrective course of action for a printer mechanism sequencing based on at least the media wetness trigger value to allow the media to be printed on an opposite surface.
A yaw angle measuring device for a separable coupling, in particular for fifth wheel couplings, comprising a sensor element and a measuring arrangement, wherein the sensor element is arranged or can be arranged on a first coupling partner and the measuring arrangement is arranged or can be arranged on a second coupling partner, wherein the first coupling partner is designed to be mounted by means of the coupling arrangement such that it is rotatable about an axis of rotation relative to the second coupling partner, wherein the sensor element generates a measuring signal in the measuring arrangement, which serves to determine the yaw angle (α) about the axis of rotation, wherein the sensor element is in direct contact with the measuring arrangement, and characterized in that this direct contact generates the measuring signal in the measuring arrangement.
A wireless charging method of an electronic device having an electromagnetic radiation, EMR, circuit, characterized in that the method comprises: determining a mode of operation to be one of an input mode and a charging mode based on an input sensed by the EMR circuit; controlling, when the mode is the input mode, an input function according to a signal received through the EMR circuit in response to the input mode; and controlling, when the mode is the charging mode, a wireless charging using energy generated through the EMR circuit in response to the charging mode; wherein controlling the wireless charging comprises determining a type of the charging mode, and characterised in that determining the type of the charging mode comprises distinguishing the type of the charging mode to be one of an energy reception mode and an energy supply mode based on a distribution of an area where a signal is detected by the EMR circuit. determining a mode of operation to be one of an input mode and a charging mode based on an input sensed by the EMR circuit; controlling, when the mode is the input mode, an input function according to a signal received through the EMR circuit in response to the input mode; and controlling, when the mode is the charging mode, a wireless charging using energy generated through the EMR circuit in response to the charging mode; wherein controlling the wireless charging comprises determining a type of the charging mode, and characterised in that determining the type of the charging mode comprises distinguishing the type of the charging mode to be one of an energy reception mode and an energy supply mode based on a distribution of an area where a signal is detected by the EMR circuit.
A method for producing an intermediate mesoderm cell from a human pluripotent stem cell, comprising the following steps (i) and (ii) of: (i) culturing the human pluripotent stem cell in a medium containing Activin A and Wnt or a functional equivalent of Wnt, and then (ii) culturing the cell obtained in the step (i) in a medium containing BMP and Wnt or a functional equivalent of Wnt, wherein the intermediate mesoderm cell is an OSR1-positive cell. (i) culturing the human pluripotent stem cell in a medium containing Activin A and Wnt or a functional equivalent of Wnt, and then (ii) culturing the cell obtained in the step (i) in a medium containing BMP and Wnt or a functional equivalent of Wnt,
An in vitro method for detecting cannibalism behavior of a cell, comprising the step of measuring in said cell: • the expression level of a protein selected from the group consisting of p53β, p53γ, p53 and the N-terminal isoforms of p53 that lack the N-terminal transactivating domain, Δ40p53 and Δ133p53, and • the expression level or the activity of the purinergic P2Y2 receptor, wherein the said cell has cannibalism activity if the expression levels of p53 or of said Δ40p53 and Δ133p53 isoforms is low, or if the expression level of p53β or of p53γ is high, and if the expression level or the activity of the purinergic P2Y2 receptor is high, as compared to control levels. • the expression level of a protein selected from the group consisting of p53β, p53γ, p53 and the N-terminal isoforms of p53 that lack the N-terminal transactivating domain, Δ40p53 and Δ133p53, and • the expression level or the activity of the purinergic P2Y2 receptor,
A method for determining a plasma drug concentration in a donor, the method comprising the steps: collecting a sample of oral fluid from the donor, wherein the sample comprises a predefined volume of oral fluid; determining the pH of the sample at the time of collecting sample; identifying at least one drug in the sample wherein the identification of the at least one drug comprises determining a concentration of the drug in the sample; calculating a blood plasma drug concentration of the at least one drug from the determined concentration of the drug in the sample; and readying the sample for transfer to a laboratory by placing the sample in an appropriate buffer, and sealing and packing the sample, wherein the step of identifying the at least one drug in the sample does not require a priori knowledge of a presence of the at least one drug in the sample. collecting a sample of oral fluid from the donor, wherein the sample comprises a predefined volume of oral fluid; determining the pH of the sample at the time of collecting sample; identifying at least one drug in the sample wherein the identification of the at least one drug comprises determining a concentration of the drug in the sample; calculating a blood plasma drug concentration of the at least one drug from the determined concentration of the drug in the sample; and readying the sample for transfer to a laboratory by placing the sample in an appropriate buffer, and sealing and packing the sample,
A Stirling class cryocooler comprising: a first motor that drives a first mass, the first motor having a main drive winding and a separate trim winding, wherein the first motor drives a displacer for effectuating cooling of a cooled device; a motor controller that outputs a main drive signal that is coupled to the main drive winding and a separate vibration reducing signal that is coupled to the trim winding; and a second motor that drives a second mass for balancing movement of the first motor. a first motor that drives a first mass, the first motor having a main drive winding and a separate trim winding, wherein the first motor drives a displacer for effectuating cooling of a cooled device; a motor controller that outputs a main drive signal that is coupled to the main drive winding and a separate vibration reducing signal that is coupled to the trim winding; and a second motor that drives a second mass for balancing movement of the first motor.
A contact adhesive composition, comprising a first chloroprene rubber having a 100% increased Shore A hardness in no more than 2 hours when crystallizing at -10°C, a second chloroprene rubber having a 100% increased Shore A hardness in more than 2 hours when crystallizing at -10°C, a solvent, optionally an adhesion promoter, optionally a tackifier resin, wherein the weight ratio of the first chloroprene rubber to the second chloroprene rubber is no less than 1.6. a first chloroprene rubber having a 100% increased Shore A hardness in no more than 2 hours when crystallizing at -10°C, a second chloroprene rubber having a 100% increased Shore A hardness in more than 2 hours when crystallizing at -10°C, a solvent, optionally an adhesion promoter, optionally a tackifier resin, wherein the weight ratio of the first chloroprene rubber to the second chloroprene rubber is no less than 1.6.
A connection substrate for mounting on one substrate surface thereof a photoelectric conversion device for receiving light from a scintillator for converting radiation to light at a plurality of photoelectric conversion regions arrayed two-dimensionally, and mounting on the other substrate surface thereof an integrated circuit device for individually reading out by a plurality of readout circuits electrical signals output from each of the plurality of photoelectric conversion regions of the photoelectric conversion device, comprising: a base material formed by stacking a plurality of dielectric layers (130a-130f); and a plurality of metallic through conductors provided penetrating through at least three dielectric layers (130c-130f) adjacent to each other out of the plurality of dielectric layers (130a-130f), and for serving as a part of paths for the electric signals, wherein a plurality of metallic radiation shielding films formed integrally with each of the plurality of through conductors and separated from each other are provided at two or more interlayer parts in the at least three dielectric layers (130c-130f), and characterised in that a region of the radiation shielding film (21a-23a) is formed integrally with one through conductor in one interlayer part projected onto a virtual plane parallel to the one substrate surface and a region of the radiation shielding film is formed integrally with another through conductor in another interlayer part projected onto the virtual plane do not overlap each other. a base material formed by stacking a plurality of dielectric layers (130a-130f); and a plurality of metallic through conductors provided penetrating through at least three dielectric layers (130c-130f) adjacent to each other out of the plurality of dielectric layers (130a-130f), and for serving as a part of paths for the electric signals, wherein a plurality of metallic radiation shielding films formed integrally with each of the plurality of through conductors and separated from each other are provided at two or more interlayer parts in the at least three dielectric layers (130c-130f), and characterised in that a region of the radiation shielding film (21a-23a) is formed integrally with one through conductor in one interlayer part projected onto a virtual plane parallel to the one substrate surface and a region of the radiation shielding film is formed integrally with another through conductor in another interlayer part projected onto the virtual plane do not overlap each other.
Device for detecting and evaluating differential currents in electrical systems supplied with direct current, comprising at least two electric lines for load currents to be monitored, an evaluation circuit for evaluating electric smooth direct differential currents, and a current transformer for detecting smooth direct differential currents through which the electric lines for the load currents to be monitored are guided, wherein at least one secondary winding of the current transformer is electrically connected to an oscillating circuit for detecting the smooth direct differential currents and the oscillating circuit is electrically connected to the evaluation circuit provided for evaluating smooth direct differential currents, characterized in that means are provided for evaluating differential currents with alternating components of very different frequencies as well as pulsating direct differential currents, wherein these means have at least one second evaluation circuit electrically connected on the input side at least to a secondary winding of the current transformer.
Method for controlling a combustion engine with multiple burners (BN1, BN2), wherein a) combustion measurement data (VD1, VD2) are recorded in a burner-specific manner for a respective burner (BN1, BN2) and assigned to a burner identifier (BK1, BK2) that identifies the respective burner (BN1, BN2), b) performance measurement data of the combustion engine are recorded and used to determine a performance value, c) a machine learning model is trained, using the combustion measurement data (VD1, VD2), the assigned burner identifiers (BK1, BK2) and the performance measurement data, to generate burner-specific control data (SD1, SD2) that optimize the performance value when the burners (BN1, BN2) are actuated in a burner-specific manner using the control data (SD1, SD2), wherein the machine learning model comprises multiple submodels (ML1, ML2) which are specific to a respective burner (BN1, BN2) and which each generate specific control data (SD1, SD2) for the respective burner (BN1, BN2), and d) control data (SD1, SD2) generated by the trained machine learning model are output for the burner-specific actuation of the burners (BN1, BN2). a) combustion measurement data (VD1, VD2) are recorded in a burner-specific manner for a respective burner (BN1, BN2) and assigned to a burner identifier (BK1, BK2) that identifies the respective burner (BN1, BN2), b) performance measurement data of the combustion engine are recorded and used to determine a performance value, c) a machine learning model is trained, using the combustion measurement data (VD1, VD2), the assigned burner identifiers (BK1, BK2) and the performance measurement data, to generate burner-specific control data (SD1, SD2) that optimize the performance value when the burners (BN1, BN2) are actuated in a burner-specific manner using the control data (SD1, SD2), wherein the machine learning model comprises multiple submodels (ML1, ML2) which are specific to a respective burner (BN1, BN2) and which each generate specific control data (SD1, SD2) for the respective burner (BN1, BN2), and d) control data (SD1, SD2) generated by the trained machine learning model are output for the burner-specific actuation of the burners (BN1, BN2).
A method of controlling an induction heating device, the method comprising: determining a driving scheme and duty cycle of a first working coil according to a required power value for the first working coil; determining a driving scheme and duty cycle of a second working coil according to a required power value for the second working coil; determining a driving start time of the first working coil and a driving start time of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, and a predetermined driving period, characterised by determining an eccentricity determination period of the first working coil and an eccentricity determination period of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, the driving period, the duty cycle of the first working coil, and the duty cycle of the second working coil; driving each of the first working coil and the second working coil according to the driving scheme and the driving start times; determining eccentricity of a vessel placed on the first working coil according to the eccentricity determination period of the first working coil; and determining eccentricity of a vessel placed on the second working coil according to the eccentricity determination period of the second working coil. determining a driving scheme and duty cycle of a first working coil according to a required power value for the first working coil; determining a driving scheme and duty cycle of a second working coil according to a required power value for the second working coil; determining a driving start time of the first working coil and a driving start time of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, and a predetermined driving period, characterised by determining an eccentricity determination period of the first working coil and an eccentricity determination period of the second working coil based on the driving scheme of the first working coil, the driving scheme of the second working coil, the driving period, the duty cycle of the first working coil, and the duty cycle of the second working coil; driving each of the first working coil and the second working coil according to the driving scheme and the driving start times; determining eccentricity of a vessel placed on the first working coil according to the eccentricity determination period of the first working coil; and determining eccentricity of a vessel placed on the second working coil according to the eccentricity determination period of the second working coil.
Method to operate an apparatus for feeding liquid metal to an evaporator device in a vacuum chamber, wherein the feed tube runs from a container adapted to contain a liquid metal to the evaporator device and wherein an electromagnetic pump is provided in the feed tube and a valve in the feed tube between the electromagnetic pump and the evaporator device, characterised in that the method comprises: - providing an electromagnetic pump which is at least partially gas permeable, - enclosing the electromagnetic pump in a pressure controlled enclosure, - lowering the pressure and/or maintaining a vacuum in the pressure controlled enclosure before and/or when filling the electromagnetic pump with liquid metal, - maintaining a vacuum in the pressure controlled enclosure during operation, and - increasing the pressure and/or maintaining an increased pressure in the pressure controlled enclosure before and/or when draining liquid metal from the electromagnetic pump. - providing an electromagnetic pump which is at least partially gas permeable, - enclosing the electromagnetic pump in a pressure controlled enclosure, - lowering the pressure and/or maintaining a vacuum in the pressure controlled enclosure before and/or when filling the electromagnetic pump with liquid metal, - maintaining a vacuum in the pressure controlled enclosure during operation, and - increasing the pressure and/or maintaining an increased pressure in the pressure controlled enclosure before and/or when draining liquid metal from the electromagnetic pump.
An adaptable fluid filter comprising: a fluid filter body; and characterized in that said filter also comprises: first and second selectably removable insertion guide elements (306, 308), which guide the fluid filter body along an inner side surface of a filter housing as it is inserted into the filter housing, a selectable one of said first and second selectably removable insertion guide elements being detachable from said filter body so as to adapt the fluid filter for insertion into a corresponding selectable fluid filter housing. a fluid filter body; and first and second selectably removable insertion guide elements (306, 308), which guide the fluid filter body along an inner side surface of a filter housing as it is inserted into the filter housing, a selectable one of said first and second selectably removable insertion guide elements being detachable from said filter body so as to adapt the fluid filter for insertion into a corresponding selectable fluid filter housing.
Light microscope, comprising a specimen plane, in which a specimen to be examined can be positioned, a light source to emit illuminating light, optical imaging means (16 - 23, 30) to convey the illuminating light into the specimen plane, whereby a structured illumination is produced, a first scanning means, with which an optical path of the illuminating light and the specimen can be moved relative to each other to produce an illumination scanning movement of the illuminating light relative to the specimen, a detector means comprising several detector elements to detect specimen light coming from the specimen, electronic means to determine an image of the specimen on the basis of the specimen light detected by the detector means, wherein a second scanning means (20, 50) is provided, with which it can be adjusted which specimen region can be imaged on a specific detector element of the detector elements, to produce a detection scanning movement of a receiving region of this detector element in the specimen plane relative to the specimen, characterised in that the electronic means is adapted to control the first and the second scanning means (20, 50) in dependence upon each other and in such a way that a momentary direction of the detection scanning movement is opposite to a momentary direction of the illumination scanning movement, wherein due to the opposite direction of the detection scanning movement, a position of a total point spread function, with which a specific detector element receives light, is at rest relative to the specimen, whereby a specific detector element of the detector elements always receives light mainly from the same specimen region.
Coating device with a transport device, which transports a workpiece and/or a preferably flat profile along a coating head in a transport direction, which equips the edge of the workpiece and/or the profile with a coating, wherein the coating head has a means with which an air stream can be generated from the surroundings through a gap between the workpiece and the coating head into the coating head, wherein the means is in particular underpressure, wherein the coating device has at least one extension means, which reversibly extends the edge to be coated or the profile in and/or against the transport direction, characterised in that the extension means consists of a material and/or is equipped with a coating to which the coating means adheres less compared to the workpiece/profile and/or wherein the extension means is cooled, preferably to or below the dew point of surrounding air.