mhurhangee/ep-ind-claims huggingface dataset:
A magneto-inductive flow probe for determining the flow and/or the flow velocity of a medium in a pipeline, comprising: - A front part with a front end which has a center; - a housing; - a magnetic-field-generating device arranged in the housing for generating a magnetic field which goes through the front end; and - a measuring and evaluation unit; characterized in that three measuring electrodes (4, 5, 16), each of which establishes galvanic contact with the medium, are arranged on the front end, forming precisely three pairs of measuring electrodes, and in that the measuring and evaluation unit is configured to determine an induced measuring voltage at each of the three pairs of measuring electrodes, to determine an installation angle α as a function of two of the three detected measuring voltages, and to determine the flow and/or the flow velocity of the medium as a function of the measuring voltage applied to one pair of measuring electrodes and as a function of the installation angle α, wherein the installation angle α is delineated by a straight line which intersects a pair of measuring electrodes and an ideal straight line which is perpendicular to the flow direction of the medium flowing through the pipeline. - A front part with a front end which has a center; - a housing; - a magnetic-field-generating device arranged in the housing for generating a magnetic field which goes through the front end; and - a measuring and evaluation unit; three measuring electrodes (4, 5, 16), each of which establishes galvanic contact with the medium, are arranged on the front end, forming precisely three pairs of measuring electrodes, and in that the measuring and evaluation unit is configured to determine an induced measuring voltage at each of the three pairs of measuring electrodes, to determine an installation angle α as a function of two of the three detected measuring voltages, and to determine the flow and/or the flow velocity of the medium as a function of the measuring voltage applied to one pair of measuring electrodes and as a function of the installation angle α, wherein the installation angle α is delineated by a straight line which intersects a pair of measuring electrodes and an ideal straight line which is perpendicular to the flow direction of the medium flowing through the pipeline.
Method for unloading a first bale and a second bale from a round baler onto a field, the round baler comprising a bale chamber and a bale holder, the bale holder being located outside of the bale chamber, the method successively comprising the steps of: - growing the second bale in the bale chamber, while the first bale is carried by the bale holder; - unloading the first bale from the bale holder onto the field a period of time before finishing growing the second bale, the first bale defining a first position on the field when the first bale is at rest on the field; - finishing growing the second bale, transporting the second bale from the bale chamber to the bale holder, and unloading the second bale from the bale holder onto the field, the second bale defining a second position on the field when the second bale is at rest on the field; characterised in that the period of time is related to a distance between the first position and the second position, which distance will be covered by the baler on the field for finishing the second bale, and wherein said period of time is determined such that said distance is smaller than a sum of a diameter of the first bale and a diameter of the second bale. - growing the second bale in the bale chamber, while the first bale is carried by the bale holder; - unloading the first bale from the bale holder onto the field a period of time before finishing growing the second bale, the first bale defining a first position on the field when the first bale is at rest on the field; - finishing growing the second bale, transporting the second bale from the bale chamber to the bale holder, and unloading the second bale from the bale holder onto the field, the second bale defining a second position on the field when the second bale is at rest on the field; characterised in that the period of time is related to a distance between the first position and the second position, which distance will be covered by the baler on the field for finishing the second bale, and wherein said period of time is determined such that said distance is smaller than a sum of a diameter of the first bale and a diameter of the second bale.
Coupling head for a coupling of a rail vehicle, with a front-side housing forming an impact surface, an air coupling (20, 40), and at least one air line, in particular a main air line and/or a main container air line, wherein the air coupling (20, 40) is provided with a flow opening leading to the impact surface, a valve element (25, 45) located therein which opens and closes the air line with a plunger (26, 46), and adjustment means which can be moved by the said plunger, wherein the air line, guided transversely into the flow opening, comprises an inlet opening (32, 43) with a transverse mouth aperture and with a rear outer side (32", 43"), characterized in that the plunger (26, 46) of the adjustment means, which during closing is axially adjustable in the flow opening in the direction towards the impact surface, can be pressed against a stop (30, 50), inasmuch as, during opening, the plunger (26, 46) can be moved back in the flow opening, and the air line leading transversely into the flow opening is opened, wherein the plunger (26, 46), in the open position of the air line, is positioned approximately flush with its front side (26', 46) with the rear outer side (32", 43") of the inlet opening (32, 43) of the air line, with a transverse mouth aperture.
A method of image scanning of a document, comprising the steps of: using an optical path to form an image of a scan line on an array of photosensor elements, wherein the image of the scan line comprises images of two magnification compensation targets (120, 122) and an image of a line of a document illuminated by the scan line between the images of the two targets (120, 122), and wherein the images of the two targets (120, 122) each have an optically contrasting boundary (202, 206) with the image of the line of the document; characterized by: determining photosensor elements corresponding to the image of the line of the document; determining the number of photosensor elements corresponding to the image of the line of the document; and, if the number of photosensor elements is not a predetermined number of pixels, digitally filtering signals from the photosensor elements corresponding to the image of the line of the document to convert the number of photosensor elements to the predetermined number of pixels. using an optical path to form an image of a scan line on an array of photosensor elements, wherein the image of the scan line comprises images of two magnification compensation targets (120, 122) and an image of a line of a document illuminated by the scan line between the images of the two targets (120, 122), and wherein the images of the two targets (120, 122) each have an optically contrasting boundary (202, 206) with the image of the line of the document; characterized by: determining photosensor elements corresponding to the image of the line of the document; determining the number of photosensor elements corresponding to the image of the line of the document; and, if the number of photosensor elements is not a predetermined number of pixels, digitally filtering signals from the photosensor elements corresponding to the image of the line of the document to convert the number of photosensor elements to the predetermined number of pixels. determining photosensor elements corresponding to the image of the line of the document; determining the number of photosensor elements corresponding to the image of the line of the document; and, if the number of photosensor elements is not a predetermined number of pixels, digitally filtering signals from the photosensor elements corresponding to the image of the line of the document to convert the number of photosensor elements to the predetermined number of pixels.
A method for synchronizing haptic actuators with video data used to drive one or more displays on a head-mounted display (106; 400) and audio data used to drive one or more speakers, the method comprising: receiving from an application executing on a compute system, an indication to activate a haptic actuator from among a plurality of haptic actuators on a wearable device connected to the compute system via the head-mounted display (106; 400); determining a physical location of the haptic actuator on the wearable device; determining a network address corresponding to the physical location of the haptic actuator; constructing a data packet including a control message, the control message including the network address of the haptic actuator and details of an effect that the haptic actuator is to produce; synchronizing details of the effect that the haptic actuator is to produce with an audio data frame of an audio data stream and packetizing details of the effect that the haptic actuator is to produce within the audio data frame as a haptic data frame, the audio data stream being time-correlated with a video data stream; transmitting the video data stream and the audio data stream from the compute system, receiving the video data stream and audio data stream at the head-mounted display (106; 400); processing the received audio data stream to determine which frames are haptic data frames and which frames are audio data frames; and transmitting the data packet including the control message to the wearable device. receiving from an application executing on a compute system, an indication to activate a haptic actuator from among a plurality of haptic actuators on a wearable device connected to the compute system via the head-mounted display (106; 400); determining a physical location of the haptic actuator on the wearable device; determining a network address corresponding to the physical location of the haptic actuator; constructing a data packet including a control message, the control message including the network address of the haptic actuator and details of an effect that the haptic actuator is to produce; synchronizing details of the effect that the haptic actuator is to produce with an audio data frame of an audio data stream and packetizing details of the effect that the haptic actuator is to produce within the audio data frame as a haptic data frame, the audio data stream being time-correlated with a video data stream; transmitting the video data stream and the audio data stream from the compute system, receiving the video data stream and audio data stream at the head-mounted display (106; 400); processing the received audio data stream to determine which frames are haptic data frames and which frames are audio data frames; and transmitting the data packet including the control message to the wearable device.
Endoscope, exoscope or microscope, comprising an optical fibre bundle for transmitting light from the proximal end thereof to the distal end thereof, said optical fibre bundle exhibiting a contiguous bundle at the proximal end and a plurality of partial bundles at the distal end, comprising a light source for coupling light into the one proximal end of the optical fibre bundle and comprising a multiplicity of individual-light sources arranged in an array-like manner, and comprising a control unit for actuating the light source, where the light source is provided with a multiplicity of individually actuatable individual-light sources, characterized in that the in that control unit is suitable for actuating the individual-light sources using an assignment function, which represents the assignment of a proximal fibre end to a partial bundle, and in that the proximal ends of the fibres which are assigned to one partial bundle are arranged on a surface in such a way that proximal ends of fibres assigned to a different partial bundle are arranged therebetween, in that the control unit actuates the individually actuatable individual-light sources of the light source by means of a predetermined assignment function, which represents the assignment of a proximal fibre end of the optical fibre bundle to a partial beam and in such a way that only the individual-light sources that are assigned to a certain desired partial beam are activated.
A method for assessing the endometrial receptivity of a patient after controlled ovarian hyperstimulation, comprising a step consisting of measuring the expression level of fifteen genes in an endometrial biopsy sample obtained from said patient wherein said genes are FGFBP1, MUC20, TMPRSS3, PRUNE2, HES2, MGST1, ERRFI1, EDN1, SLC17A7, MET, CPT1B, DCDC2, LRRC39, IL18RAP, and FOXP1.
A surgical instrument, comprising: an end effector assembly (800, 900), including: a first jaw member (810, 910); and a second jaw member (820, 920) including an ultrasonic blade (822, 922), the surgical instrument is configured to energize the ultrasonic blade (822, 922) with ultrasonic energy, wherein the first jaw member (810, 910) is movable relative to the second jaw member (820, 920) between a spaced-apart position and an approximated position, wherein the end effector assembly (800, 900) includes first, second, and third electrodes (814, 816, 822, 912, 914, 922), the surgical instrument is configured to energize the first, second and third electrodes with Radio-Frequency energy, characterised in that the surgical instrument is configured to energize the first, second and third electrodes in a three-phase configuration and to control the amplitudes of any of the three phases to produce more or less energy excitation between different combinations of the first, second and third electrodes. a first jaw member (810, 910); and a second jaw member (820, 920) including an ultrasonic blade (822, 922), the surgical instrument is configured to energize the ultrasonic blade (822, 922) with ultrasonic energy, wherein the first jaw member (810, 910) is movable relative to the second jaw member (820, 920) between a spaced-apart position and an approximated position, wherein the end effector assembly (800, 900) includes first, second, and third electrodes (814, 816, 822, 912, 914, 922), the surgical instrument is configured to energize the first, second and third electrodes with Radio-Frequency energy, characterised in that the surgical instrument is configured to energize the first, second and third electrodes in a three-phase configuration and to control the amplitudes of any of the three phases to produce more or less energy excitation between different combinations of the first, second and third electrodes.
A computer-implemented method, comprising: storing, at a first network device, a multi-destination tree table that includes mappings between a plurality of multi-destination trees available at the first network device and ports at the first network device; receiving, at the first network device, a plurality of multi-destination packets from a first node; forwarding, by the first network device, at least a first of the plurality of multidestination packets to a second network device using a first multi-destination tree of the plurality of multi-destination trees at the first network device; detecting, by the first network device, that a link of the first multi-destination tree satisfies one or more criteria; selecting, by the first network device in response to detecting that the link satisfies the one or more criteria, a second multi-destination tree of the plurality of multi-destination trees at the first network device using the multi-destination tree table; and forwarding, by the first network device, at least a second of the plurality of multidestination packets to the second network device using the second multi-destination tree. storing, at a first network device, a multi-destination tree table that includes mappings between a plurality of multi-destination trees available at the first network device and ports at the first network device; receiving, at the first network device, a plurality of multi-destination packets from a first node; forwarding, by the first network device, at least a first of the plurality of multidestination packets to a second network device using a first multi-destination tree of the plurality of multi-destination trees at the first network device; detecting, by the first network device, that a link of the first multi-destination tree satisfies one or more criteria; selecting, by the first network device in response to detecting that the link satisfies the one or more criteria, a second multi-destination tree of the plurality of multi-destination trees at the first network device using the multi-destination tree table; and forwarding, by the first network device, at least a second of the plurality of multidestination packets to the second network device using the second multi-destination tree.
A lumpy skin disease virus (LSDV) interleukin-10-like gene knock-out mutant, wherein the interleukin-10-like gene has been inactivated by deletion from the viral genome.
Method for controlling the water supply of a water-injected gas compressor, said gas compressor having a cooling water circuit into which is injected, as fresh water, demineralized water and non-demineralized water, characterized by the following steps: • determination of the electrical conductivity of the non-demineralized water; • determination of a proportion of the demineralized water that must be added to the non-demineralized water, to provide a resulting mixture with a desired conductivity; • addition of the specified proportion of demineralized water to the non-demineralized water and supplying the resulting mixture as the fresh water for the cooling water circuit; • supply of the fresh water to the cooling water circuit in a desired amount. • determination of the electrical conductivity of the non-demineralized water; • determination of a proportion of the demineralized water that must be added to the non-demineralized water, to provide a resulting mixture with a desired conductivity; • addition of the specified proportion of demineralized water to the non-demineralized water and supplying the resulting mixture as the fresh water for the cooling water circuit; • supply of the fresh water to the cooling water circuit in a desired amount.
A portable electronic device having one or more proximity sensors, the portable electronic device comprising: a housing; at least one sensor supported by the housing, the at least one sensor to identify an orientation of the housing; a first signal emitter supported by the housing, the first signal emitter to emit a first source signal in a first direction; a second signal emitter supported by the housing, the second signal emitter to emit a second source signal in a second direction different from the first direction; at least one signal receiver supported by the housing, the at least one signal receiver to receive first and second return signals corresponding to the first and second source signals, respectively; and a processor supported by the housing, the processor to determine which of the first and second signal emitters to activate based on the orientation of the housing as identified by the at least one sensor. a housing; at least one sensor supported by the housing, the at least one sensor to identify an orientation of the housing; a first signal emitter supported by the housing, the first signal emitter to emit a first source signal in a first direction; a second signal emitter supported by the housing, the second signal emitter to emit a second source signal in a second direction different from the first direction; at least one signal receiver supported by the housing, the at least one signal receiver to receive first and second return signals corresponding to the first and second source signals, respectively; and a processor supported by the housing, the processor to determine which of the first and second signal emitters to activate based on the orientation of the housing as identified by the at least one sensor.
An additive manufacturing system comprising: a controller configured to control components of the additive manufacturing system; a laser device configured to generate a laser beam with a variable intensity; a build plate configured to support a powdered build material; and a scanning device configured to selectively direct the laser beam across the powdered build material in a first direction to generate a melt pool on the build plate, wherein the scanning device is configured to oscillate a spatial position of the laser beam in at least one second direction opposite the first direction while the laser device is configured to simultaneously modulate the variable intensity of the laser beam to thermally control the melt pool; wherein the controller is configured to control the laser device and the scanning device such that the scanning device oscillates a spatial position of the laser beam in the at least one second direction opposite the first direction while the laser device simultaneously modulates the variable intensity of the laser beam to thermally control the melt pool. a controller configured to control components of the additive manufacturing system; a laser device configured to generate a laser beam with a variable intensity; a build plate configured to support a powdered build material; and a scanning device configured to selectively direct the laser beam across the powdered build material in a first direction to generate a melt pool on the build plate, wherein the scanning device is configured to oscillate a spatial position of the laser beam in at least one second direction opposite the first direction while the laser device is configured to simultaneously modulate the variable intensity of the laser beam to thermally control the melt pool; wherein the controller is configured to control the laser device and the scanning device such that the scanning device oscillates a spatial position of the laser beam in the at least one second direction opposite the first direction while the laser device simultaneously modulates the variable intensity of the laser beam to thermally control the melt pool.
Luminaire with mounting device for mounting on a structural element, wherein the luminaire comprises a luminaire housing with a light emission side, in which a luminous means is arranged, wherein the mounting device comprises a first mounting part and a second mounting part, wherein the first mounting part has a mounting portion for mounting on the structural element and the second mounting part is arranged on the luminaire housing, wherein the first mounting part has a first mounting portion which has a first abutment surface, and wherein the second mounting part has a second mounting portion which has a second abutment surface formed to correspond to the first abutment surface, wherein the first and the second mounting parts (3, 4) can be rotated against each other about an axis of rotation through an angular range into different angular positions relative to one another and the first and second abutment surfaces (35, 45) bear against one another in the various relative angular positions and the two mounting parts (3, 4) can be fixed to one another in a positionally fixed manner, one of the two mounting parts (3, 4) having at least one passage within its bearing surface (35, 45) and, in an operating position, a fastening means is inserted through the passage, which is fixed to a fastening anchor provided at the other end of the two mounting parts (3, 4) and presses with a mounting head against a surface portion surrounding the passage, the passage and/or the fastening anchor extending longitudinally in a direction perpendicular to the axis of rotation, the surface portion being curved, characterized in that the mounting head has, on its side facing the surface portion with which it presses against the surface portion in the operating position, a curved mounting surface which is curved in the same direction as the surface portion.