mhurhangee/patent-ind-claim-en huggingface dataset:
A device for the optical control of liquid drops or spurts which are intermittently dispensed from multichannel microdispensing devices , including: at least one light barrier unit assigned to each dosing channel of the microdispensing device , that is in each case arranged directly thereto on a common carrier , each consisting of: a light source having an inhomogeneous beam profile and a light sensor having a sensor surface onto which the profiled light beam of the light source projects, wherein the profiled light beam extends in each case transversely to the direction of propagation of the emitted liquid drops or spurts and is wider than the liquid drop or spurt to be controlled, characterised in that the light source and the light sensor are constructed and aligned in such a way that the profiled light beam is a cone-shaped light bundle with the highest intensity in the optical axis in the center of the light bundle, the intensity decreasing towards the edge of the light bundle, and in that the light sensor integrates the intensity of the incident light beam over its extent in the projection surface and its sensor current corresponds to the integrated beam intensity, so that the maximum shading of the light beam and reduction of the sensor current can occur when the liquid drop or spurt interrupts the light beam just in its optical axis. at least one light barrier unit assigned to each dosing channel of the microdispensing device , that is in each case arranged directly thereto on a common carrier , each consisting of: a light source having an inhomogeneous beam profile and a light sensor having a sensor surface onto which the profiled light beam of the light source projects, a light source having an inhomogeneous beam profile and a light sensor having a sensor surface onto which the profiled light beam of the light source projects, wherein the profiled light beam extends in each case transversely to the direction of propagation of the emitted liquid drops or spurts and is wider than the liquid drop or spurt to be controlled, characterised in that the light source and the light sensor are constructed and aligned in such a way that the profiled light beam is a cone-shaped light bundle with the highest intensity in the optical axis in the center of the light bundle, the intensity decreasing towards the edge of the light bundle, and in that the light sensor integrates the intensity of the incident light beam over its extent in the projection surface and its sensor current corresponds to the integrated beam intensity, so that the maximum shading of the light beam and reduction of the sensor current can occur when the liquid drop or spurt interrupts the light beam just in its optical axis.
A jet engine support structure that is attachable to an external surface of a wing of an aircraft for supporting a jet engine on the aircraft wing , the jet engine support structure comprising: - an inboard support fitting that is configured to be attached to a front spar of an aircraft wing and is configured to be operatively attached to a jet engine; - an outboard support fitting that is configured to be attached to the front spar of the aircraft wing and is configured to be operatively attached to the jet engine; - an inboard longeron that is configured to be attached to a first rib of the aircraft wing and is attached to the inboard support fitting ; - an outboard longeron that is configured to be attached to a second rib of the aircraft wing and is attached to the outboard support fitting ; - a drag brace fitting that is attached to the inboard longeron and attached to the outboard longeron and is configured to be operatively attached to the jet engine; wherein the inboard support fitting and the inboard longeron are configured to be attached to a first rib inside the aircraft wing , and wherein the inboard longeron is configured to be attached to the first rib along a length of the first rib and distribute loads created by operation of the jet engine along the length of the first rib ; and wherein the outboard support fitting and the outboard longeron are configured to be attached to a second rib inside the aircraft wing , wherein the outboard longeron is configured to be attached to the second rib along a length of the second rib and distribute loads created by operation of the jet engine along the length of the second rib ; wherein the inboard support fitting and the inboard longeron are configured to be attached to the first rib by existing fasteners attaching a wing lower panel of the aircraft wing to the first rib ; and wherein the outboard support fitting and the outboard longeron being configured to be attached to the second rib by existing fasteners attaching the wing lower panel of the aircraft wing to the second rib . - an inboard support fitting that is configured to be attached to a front spar of an aircraft wing and is configured to be operatively attached to a jet engine; - an outboard support fitting that is configured to be attached to the front spar of the aircraft wing and is configured to be operatively attached to the jet engine; - an inboard longeron that is configured to be attached to a first rib of the aircraft wing and is attached to the inboard support fitting ; - an outboard longeron that is configured to be attached to a second rib of the aircraft wing and is attached to the outboard support fitting ; - a drag brace fitting that is attached to the inboard longeron and attached to the outboard longeron and is configured to be operatively attached to the jet engine;
A filter device having an element mount , a control device and a filter element comprising a securing device for securely fixing the filter element on the element mount , wherein the securing device includes a securing means , which may be moved by means of the control device from a position in which the filter element on the element mount is released into a position in which the filter element is fixed on the element mount , and wherein the control device is disposed in an annular manner on the element mount and is provided with two opposing approach ramps and for the securing ring , which converge at a transition point , characterized in that the securing means is formed by a securing ring , which is slotted and elastically flexible in design; in that the outer diameter of the transition point corresponds to at least the minimal expansion diameter of the securing ring ; and in that the securing ring is situated in a chamber housing which, viewed in the radial expansion direction of the securing ring , includes an accommodation space , which accommodates the securing ring in any case, and also once the ring passes the transition point between the two approach ramps of the control device . wherein the control device is disposed in an annular manner on the element mount and is provided with two opposing approach ramps and for the securing ring , which converge at a transition point , characterized in that the securing means is formed by a securing ring , which is slotted and elastically flexible in design; in that the outer diameter of the transition point corresponds to at least the minimal expansion diameter of the securing ring ; and in that the securing ring is situated in a chamber housing which, viewed in the radial expansion direction of the securing ring , includes an accommodation space , which accommodates the securing ring in any case, and also once the ring passes the transition point between the two approach ramps of the control device .
A method of adding first and second binary numbers having C bits and divided into D words to provide a third binary number in E successive groups of parallel adding operations, C, D and E being plural positive integers, the method comprising: a first group of D parallel adding operations adding together respective words (A0-A7, B0-B7) of the first and second binary numbers to provide D respective sum and carry outputs (S, C) ranging from a least significant to a most significant sum and carry output, wherein each sum output is a word and each carry output is a bit; one or more subsequent groups of parallel adding operations adding together sum and carry outputs (S, C) from an immediately preceding group of parallel adding operations, a final group of the one or more subsequent groups resulting in the third binary number consisting of the sum outputs from the final group and a carry from the most significant carry output of the final group, wherein E is less than D. a first group of D parallel adding operations adding together respective words (A0-A7, B0-B7) of the first and second binary numbers to provide D respective sum and carry outputs (S, C) ranging from a least significant to a most significant sum and carry output, wherein each sum output is a word and each carry output is a bit; one or more subsequent groups of parallel adding operations adding together sum and carry outputs (S, C) from an immediately preceding group of parallel adding operations, a final group of the one or more subsequent groups resulting in the third binary number consisting of the sum outputs from the final group and a carry from the most significant carry output of the final group, wherein E is less than D.
A method for performing in-place conversion of a fragmented MP4, FMP4, file into an MP4 file, comprising: capturing audio and visual data for the FMP4 file; during said capturing, generating an initial moov atom for the FMP4 file, the initial moov atom comprising a header with a moov designation; detecting stoppage of said capturing of the audio and visual data ; and incident to said stoppage, converting the FMP4 file into the MP4 file through creating a final moov atom from the initial moov atom and changing the header of the initial moov atom to an mdat designation. capturing audio and visual data for the FMP4 file; during said capturing, generating an initial moov atom for the FMP4 file, the initial moov atom comprising a header with a moov designation; detecting stoppage of said capturing of the audio and visual data ; and incident to said stoppage, converting the FMP4 file into the MP4 file through creating a final moov atom from the initial moov atom and changing the header of the initial moov atom to an mdat designation.
A method for controlling an autonomously moving floor cleaning device , in particular a mopping robot, further in particular a wet and/or dry cleaning robot, - in which a floor cleaning device that moves autonomously over a floor surface is provided with a floor cleaning element adjustable relative to the floor surface , - wherein the floor cleaning appliance adjusts the floor cleaning element into a cleaning position , in which the floor cleaning element is supported on the floor surface and the floor cleaning device itself moves in a direction of travel , so that the floor surface is cleaned along a travel path , characterized in that the floor cleaning device , when it determines a first distance between itself and an obstacle located in front of the floor cleaning device in the direction of travel , adjusts the floor cleaning element into a position raised from the floor surface and the floor cleaning device itself continues to move in the direction of travel , the floor cleaning device , when it comes into contact with the said obstacle and/or it determines a second distance , smaller than the first distance, between itself and the obstacle located in front of the floor cleaning device in the direction of travel , moves the floor cleaning element from the raised position back to the cleaning position and the floor cleaning device itself moves in another direction of travel that is different from the direction of travel . - in which a floor cleaning device that moves autonomously over a floor surface is provided with a floor cleaning element adjustable relative to the floor surface , - wherein the floor cleaning appliance adjusts the floor cleaning element into a cleaning position , in which the floor cleaning element is supported on the floor surface and the floor cleaning device itself moves in a direction of travel , so that the floor surface is cleaned along a travel path , the floor cleaning device , when it determines a first distance between itself and an obstacle located in front of the floor cleaning device in the direction of travel , adjusts the floor cleaning element into a position raised from the floor surface and the floor cleaning device itself continues to move in the direction of travel , the floor cleaning device , when it comes into contact with the said obstacle and/or it determines a second distance , smaller than the first distance, between itself and the obstacle located in front of the floor cleaning device in the direction of travel , moves the floor cleaning element from the raised position back to the cleaning position and the floor cleaning device itself moves in another direction of travel that is different from the direction of travel .
An air conditioning system comprising: a heat source apparatus configured to heat or cool a liquid medium; a plurality of indoor heat exchangers , each of which is supplied with the liquid medium from the heat source apparatus and configured to exchange heat between the liquid medium and air; and characterized by a plurality of temperature adjustment apparatuses , each of which is disposed in association with a respective one of the plurality of indoor heat exchangers and configured to adjust the temperature of the liquid medium supplied to a respective one of the plurality of indoor heat exchangers , each of the plurality of temperature adjustment apparatuses being configured to variably adjust the amount of heat exchange between an inflow medium, which is the liquid medium supplied to a corresponding indoor heat exchanger , and an outflow medium, which is the liquid medium discharged from the corresponding indoor heat exchanger , and when, in the plurality of temperature adjustment apparatuses , there is no temperature adjustment apparatus in which the amount of heat exchange between the inflow medium and the outflow medium is set to the minimum in a variable range, the heat source apparatus being configured to reduce the heating capacity or the cooling capacity for changing the temperature of the liquid medium. a heat source apparatus configured to heat or cool a liquid medium; a plurality of indoor heat exchangers , each of which is supplied with the liquid medium from the heat source apparatus and configured to exchange heat between the liquid medium and air; and characterized by a plurality of temperature adjustment apparatuses , each of which is disposed in association with a respective one of the plurality of indoor heat exchangers and configured to adjust the temperature of the liquid medium supplied to a respective one of the plurality of indoor heat exchangers , each of the plurality of temperature adjustment apparatuses being configured to variably adjust the amount of heat exchange between an inflow medium, which is the liquid medium supplied to a corresponding indoor heat exchanger , and an outflow medium, which is the liquid medium discharged from the corresponding indoor heat exchanger , and when, in the plurality of temperature adjustment apparatuses , there is no temperature adjustment apparatus in which the amount of heat exchange between the inflow medium and the outflow medium is set to the minimum in a variable range, the heat source apparatus being configured to reduce the heating capacity or the cooling capacity for changing the temperature of the liquid medium.
An insertion apparatus for introducing a neurovascular device into a microcatheter via a rotating hemostatis valve , comprising: a longitudinal body defining a lumen therethrough that allows the neurovascular device to pass through, a ledge disposed on an outer surface of the longitudinal body that prevents a complete entry of the insertion apparatus into a proximal end of the rotating hemostatis valve, when the ledge is aligned with the proximal end of the rotating hemostasis valve , the insertion apparatus is correctly positioned relative to the microcatheter and the rotating hemostasis valve for introducing the neurovascular device into the microcatheter, and the microcatheter is coupled to the rotating hemostasis valve. a longitudinal body defining a lumen therethrough that allows the neurovascular device to pass through, a ledge disposed on an outer surface of the longitudinal body that prevents a complete entry of the insertion apparatus into a proximal end of the rotating hemostatis valve, when the ledge is aligned with the proximal end of the rotating hemostasis valve , the insertion apparatus is correctly positioned relative to the microcatheter and the rotating hemostasis valve for introducing the neurovascular device into the microcatheter, and the microcatheter is coupled to the rotating hemostasis valve.
A computer implemented method for determining sonic slowness, comprising: accessing sonic logging data recorded in a borehole, where the sonic logging data includes a sonic waveform associated with a plurality of shot gathers; applying a transformation operator to the sonic logging data to provide a transformed sonic image, the transformation operator including at least one of a short time average long time average (STA/LTA) operator, a phase shift operator, and a deconvolution operator; performing a machine learning process using the transformed sonic image to determine a sonic slowness associated with the sonic logging data, wherein the machine learning process includes a convolutional neural network CNN that has been trained with input data having a known slowness or a slowness determined by an expert, the input data comprising one of recorded sonic waveforms, synthetic sonic waveforms or a combination of recorded and synthetic sonic waveforms and wherein the transformation operation is selected to convert the sonic logging data to the type of data used to train the CNN; and providing the sonic slowness as an output. accessing sonic logging data recorded in a borehole, where the sonic logging data includes a sonic waveform associated with a plurality of shot gathers; applying a transformation operator to the sonic logging data to provide a transformed sonic image, the transformation operator including at least one of a short time average long time average (STA/LTA) operator, a phase shift operator, and a deconvolution operator; performing a machine learning process using the transformed sonic image to determine a sonic slowness associated with the sonic logging data, wherein the machine learning process includes a convolutional neural network CNN that has been trained with input data having a known slowness or a slowness determined by an expert, the input data comprising one of recorded sonic waveforms, synthetic sonic waveforms or a combination of recorded and synthetic sonic waveforms and wherein the transformation operation is selected to convert the sonic logging data to the type of data used to train the CNN; and providing the sonic slowness as an output.
Medical apparatus for supporting cardiac massage during resuscitation, having a display for outputting information contents of at least one measured value within at least one display region, in which the at least one display region is in the form of a tachometer-type display , wherein the medical apparatus has an emergency ventilator and wherein the display is embodied in the form of a display unit that visualizes a rate of a chest compression and also the intensity of the required pressure exerted on the chest, wherein the tachometer-type display within at least one display region is formed by at least one needle and at least one field of values and wherein the changing position of the at least one needle relative to the field is caused by the movement of the needle and displays with its instantaneous position the information content of an available measured value , wherein the movement kinematics of the needle for the relative change in position follows a rotational movement path, wherein the field of values is arranged in a semicircular manner within the display region, wherein the output of information contents of at least one measured value of medical apparatuses is realized additively by the visualisation of the numeric value within the tachometer-type display , wherein the information content of the at least one measured value is displayed in different colours and wherein the colour of the at least one measured value changes to red if the information content indicates a limit value being exceeded and/or is an alert and wherein additionally a curve or trend charts is/are presented below or above the tachometer-type display , wherein the apparatus combines a ventilation function with a resuscitation function in a manner such that a user is provided both with a rate for the cardiac massage and also with the intensity of a chest compression.
Apparatus for drying bulk goods, in particular of wood fibers and/or wood chips, comprising at least one dryer , in particular a drum dryer, at least one hot gas generator and at least one heat exchanger , which is provided to indirectly heat a vapor gas mixture for drying the bulk goods in the dryer , said at least one heat exchanger is heated by exhaust gases produced by said at least one hot gas generator , at least one branch line, upstream, downstream and/or within the at least one heat exchanger to the at least one hot gas generator to branch off a partial flow of the vapor gas mixture, and at least one line for the remaining partial flow to the dryer , characterized in that said at least one hot gas generator comprises at least one solid fired hot gas generator and a multi-fuel burner in addition to the at least one solid fired hot gas generator , wherein the multi-fuel burner allows the combustion of fossil fuels or dust-like solids, wherein the at least one solid fired hot gas generator allows the combustion of combustible organic material in any particular form and is enabled to combust solid materials, which cannot be combusted in the multi-fuel burner , without the need of the supplying with fossil fuels, wherein the at least one solid fired hot gas generator and the multi-fuel burner are configured such that the at least one solid fired hot gas generator can be operated simultaneously or alternatively to the multi-fuel burner . at least one dryer , in particular a drum dryer, at least one hot gas generator and at least one heat exchanger , which is provided to indirectly heat a vapor gas mixture for drying the bulk goods in the dryer , said at least one heat exchanger is heated by exhaust gases produced by said at least one hot gas generator , at least one branch line, upstream, downstream and/or within the at least one heat exchanger to the at least one hot gas generator to branch off a partial flow of the vapor gas mixture, and at least one line for the remaining partial flow to the dryer , characterized in that said at least one hot gas generator comprises at least one solid fired hot gas generator and a multi-fuel burner in addition to the at least one solid fired hot gas generator , wherein the multi-fuel burner allows the combustion of fossil fuels or dust-like solids, wherein the at least one solid fired hot gas generator allows the combustion of combustible organic material in any particular form and is enabled to combust solid materials, which cannot be combusted in the multi-fuel burner , without the need of the supplying with fossil fuels, wherein the at least one solid fired hot gas generator and the multi-fuel burner are configured such that the at least one solid fired hot gas generator can be operated simultaneously or alternatively to the multi-fuel burner .