mhurhangee/patent-ind-claim-en huggingface dataset:
A radial press with a housing having a jacket portion and an end-face annular bracing disk , an annular structure guided displaceably therein along a press axis (X) and several press jaws , which are disposed around the press axis (X) and which are braced in radially displaceably guided manner on the bracing disk and on which the annular structure acts by means of control faces , which are inclined relative to the press axis (X) and bear against mating faces of the press jaws constructed as sliding faces , characterized in that the annular structure is constructed in crown-shaped manner on its end face turned toward the bracing disk and has a number of axial projections corresponding to the number of press jaws , wherein each control face extends into the radial inner face of such a projection and wherein further the bracing disk has recesses , which are associated with the projections and into which the projections are inserted during closing of the radial press.
An optical scanner comprising: a light source configured to emit light; a light deflector configured to deflect the light emitted from the light source ; and a planar light transmission member disposed in an optical path between the light source and the light deflector , wherein the planar light transmission member is inclined with reference to an optical-axis direction of the optical path to reduce an astigmatic difference (ΔF) caused to the light deflected by the light deflector due to astigmatism; characterised in that the planar light transmission member is a light-intensity adjustable member configured to be adjusted to change the intensity of transmission light of the light emitted from the light source , wherein the planar light transmission member includes a plurality of transmissive areas configured to be disposed in the optical path, each of the plurality of transmissive areas having different intensity of transmission light of the light emitted from the light source ; and the optical scanner further comprises a transmission-light intensity adjuster configured to move the planar light transmission member such that a desired one of the plurality of transmissive areas is placed in the optical path to adjust intensity of transmission light of the light emitted from the light source on receipt of a signal from a control device ; a light source configured to emit light; a light deflector configured to deflect the light emitted from the light source ; and a planar light transmission member disposed in an optical path between the light source and the light deflector , wherein the planar light transmission member is inclined with reference to an optical-axis direction of the optical path to reduce an astigmatic difference (ΔF) caused to the light deflected by the light deflector due to astigmatism; characterised in that the planar light transmission member is a light-intensity adjustable member configured to be adjusted to change the intensity of transmission light of the light emitted from the light source , wherein the planar light transmission member includes a plurality of transmissive areas configured to be disposed in the optical path, each of the plurality of transmissive areas having different intensity of transmission light of the light emitted from the light source ; and the optical scanner further comprises a transmission-light intensity adjuster configured to move the planar light transmission member such that a desired one of the plurality of transmissive areas is placed in the optical path to adjust intensity of transmission light of the light emitted from the light source on receipt of a signal from a control device ;
A method comprising: receiving semi-structured data elements from a data source that is connected over a computer network, wherein the semi-structured data elements comprise common data elements and non-common data elements, and wherein the common data elements represent data elements belonging to the same group and collection of logically similar elements; performing statistical analysis on collections of the semi-structured data elements as they are added to a database; identifying the common data elements from within the semi-structured data based on the statistical analysis; combining the common data elements from the data source into separate pseudo-columns stored in a cache memory; storing the non-common semi-structured data elements in an overflow serialized column in computer memory; and deriving metadata corresponding to the pseudo-columns of the common data elements from the statistical analysis. receiving semi-structured data elements from a data source that is connected over a computer network, wherein the semi-structured data elements comprise common data elements and non-common data elements, and wherein the common data elements represent data elements belonging to the same group and collection of logically similar elements; performing statistical analysis on collections of the semi-structured data elements as they are added to a database; identifying the common data elements from within the semi-structured data based on the statistical analysis; combining the common data elements from the data source into separate pseudo-columns stored in a cache memory; storing the non-common semi-structured data elements in an overflow serialized column in computer memory; and deriving metadata corresponding to the pseudo-columns of the common data elements from the statistical analysis.
Silicon oxide-coated zinc oxide formed by coating surfaces of zinc oxide particles with a silicon oxide coating, wherein the amount of silicon oxide in the silicon oxide-coated zinc oxide is 12% by mass or more, an average primary particle diameter of the zinc oxide particles is more than 50 nm and 500 nm or less, the average primary particle diameter of the zinc oxide particles is a weight-averaged value of a primary particle diameter measured using a transmission electron microscope, and when held in a buffer solution having a pH of 5 for 1 hour, an elution ratio S of the zinc oxide defined by following Expression is 50% or less : Elution ratio S = amount of eluted zinc oxide / amount of zinc oxide in silicon oxide-coated zinc oxide
A method for producing packagings for tobacco products, in particular for cigarette packs, where packaging material which is provided with embossings (30, 33-35) is used, wherein the packaging material is conveyed as a continuous material web along a cutting device , which is coupled in particular to the machine clock and separates the material web into individual blanks , wherein embossed marks , which are spaced apart from one another in each case in the longitudinal direction, in each case influence the position of a separating cut and are tested in particular in a cyclical manner in a testing device along which the packaging material is conveyed, are applied by an embossing device onto the material web , in a preferred manner upstream in the same production process, wherein at least one electronic image is taken of the respective embossed mark to be tested by means of a testing body , preferably an electro-optical camera, and evaluated in accordance with predetermined criteria, wherein the actual position of the embossed mark is determined within the framework of the evaluation process, and wherein, in case that the actual position of the embossed mark does not meet a predetermined condition, in a preferred manner deviates from a predetermined required position, in particular beyond a predetermined extent, the speed of the material web is varied in accordance with the determined actual position in order to achieve a separating cut in the material web that is true to the embossed mark, characterized in that a) the respective embossed mark to be tested is lit by means of a lighting device in such a manner that it casts a shadow image (51-54"), b) at least one electronic image is taken of the embossed mark and of the shadow image (51-54") of the embossed mark , and c) the actual position of the embossed mark is determined in each case within the framework of the evaluation of the at least one electronic image taken of the embossed mark and of the shadow image (53-54") of the embossed mark . a) the respective embossed mark to be tested is lit by means of a lighting device in such a manner that it casts a shadow image (51-54"), b) at least one electronic image is taken of the embossed mark and of the shadow image (51-54") of the embossed mark , and c) the actual position of the embossed mark is determined in each case within the framework of the evaluation of the at least one electronic image taken of the embossed mark and of the shadow image (53-54") of the embossed mark .
An image pickup apparatus comprising: a camera unit including an image pickup element; a tilt support member that supports the camera unit in a rotatable manner in a tilt direction; a pan support member that supports the tilt support member in a rotatable manner in a pan direction; a pan rotation shaft that is a center of rotation when the pan support member rotates in the pan direction; a base member disposed on an opposite side of the camera unit with respect to the pan support member in a pan rotation shaft direction; a substrate supported by the pan support member ; and a ring-shaped ultrasonic motor including a vibrator that is connected to the substrate and that is made to vibrate by being applied a voltage thereto, and a sliding member that is in contact with the vibrator , the ring-shaped ultrasonic motor being disposed coaxially with the pan rotation shaft and rotationally driving the pan support member in the pan direction, wherein the vibrator of the ultrasonic motor moves relative to the sliding member by being supported by the pan support member and by vibrating, and wherein the sliding member of the ultrasonic motor is supported by the base member . a tilt support member that supports the camera unit in a rotatable manner in a tilt direction; a pan support member that supports the tilt support member in a rotatable manner in a pan direction; a pan rotation shaft that is a center of rotation when the pan support member rotates in the pan direction; a base member disposed on an opposite side of the camera unit with respect to the pan support member in a pan rotation shaft direction; a substrate supported by the pan support member ; and a ring-shaped ultrasonic motor including a vibrator that is connected to the substrate and that is made to vibrate by being applied a voltage thereto, and a sliding member that is in contact with the vibrator , the ring-shaped ultrasonic motor being disposed coaxially with the pan rotation shaft and rotationally driving the pan support member in the pan direction, wherein the vibrator of the ultrasonic motor moves relative to the sliding member by being supported by the pan support member and by vibrating, and wherein the sliding member of the ultrasonic motor is supported by the base member .
A Global Navigation Satellite System (GNSS) receiver of a client device configured to receive one or more GNSS satellite signals from one or more GNSS satellites , the GNSS receiver comprising: one or more processors configured to: receive, from a first correction system , first correction data including at least a first orbit correction value, a first clock correction value, and a first code or phase bias correction value; sum the first orbit correction value, the first clock correction value, and the first code or phase bias correction value to produce a first full range-level correction value; receive, from a second correction system , second correction data including at least a second orbit correction value, a second clock correction value, a second code or phase bias correction value, and an atmospheric correction value; sum the second orbit correction value, the second clock correction value, and the second code or phase bias correction value to produce a second full range-level correction value; calculate a full range-level difference correction value as a difference between the second full range-level correction value and the first full range-level correction value; adjust the atmospheric correction value, received from the second correction system , utilizing the full range-level difference correction value to produce an adjusted atmospheric correction value; and calculate a position utilizing the GNSS satellite signals, the first correction data, and the adjusted atmospheric correction value. receive, from a first correction system , first correction data including at least a first orbit correction value, a first clock correction value, and a first code or phase bias correction value; sum the first orbit correction value, the first clock correction value, and the first code or phase bias correction value to produce a first full range-level correction value; receive, from a second correction system , second correction data including at least a second orbit correction value, a second clock correction value, a second code or phase bias correction value, and an atmospheric correction value; sum the second orbit correction value, the second clock correction value, and the second code or phase bias correction value to produce a second full range-level correction value; calculate a full range-level difference correction value as a difference between the second full range-level correction value and the first full range-level correction value; adjust the atmospheric correction value, received from the second correction system , utilizing the full range-level difference correction value to produce an adjusted atmospheric correction value; and calculate a position utilizing the GNSS satellite signals, the first correction data, and the adjusted atmospheric correction value.
Printing process in which a substrate to be printed is disposed opposite an ink carrier having an ink layer, wherein the ink layer is regionally heated in such a way that bulges are formed in the ink layer, wherein the bulges contact the substrate and wherein ink splitting is brought about by relative movement between substrate and ink carrier.
A system for heart strain determination comprising: - a computing unit , designed to receive a series of 2D-slice images (SI) that have been recorded at different times of the cardiac cycle as input, to host several modules , to pass intermediate result-data from an output of one module to an input of another module and to output a result, - a pose estimation module , designed to estimate a slicing-pose, a position and orientation in space, of the inputted series of 2D-slice images (SI) in the heart, - a 3D deformation estimation module , designed for estimating a 3D deformation field (DF) from the series of 2D-slice images (SI) and the estimated slicing-pose, wherein the 3D deformation estimation module is a machine learning model that has been trained with results of the pose estimation module , - a strain measurement module , designed for computing a heart strain measure from the 3D deformation field (DF) and predefined definitions for strain computation. - a computing unit , designed to receive a series of 2D-slice images (SI) that have been recorded at different times of the cardiac cycle as input, to host several modules , to pass intermediate result-data from an output of one module to an input of another module and to output a result, - a pose estimation module , designed to estimate a slicing-pose, a position and orientation in space, of the inputted series of 2D-slice images (SI) in the heart, - a 3D deformation estimation module , designed for estimating a 3D deformation field (DF) from the series of 2D-slice images (SI) and the estimated slicing-pose, wherein the 3D deformation estimation module is a machine learning model that has been trained with results of the pose estimation module , - a strain measurement module , designed for computing a heart strain measure from the 3D deformation field (DF) and predefined definitions for strain computation.
Method for determining the total acidity of an aqueous solution A1 comprising a strong acid or a mixture of strong acids, which comprises at least the following steps: a) providing an aqueous solution A5 by mixing: - a volume V1 of the solution A1, - a volume V2 of an aqueous solution A2 of pH denoted pHA2, comprising a compound selected from a weak acid, a weak base, a salt of a weak acid or a salt of a weak base, and - a volume V4 of a solution A4 comprising a pH-sensitive dye having an acid form and a base form, and a transition range between a first pH and a second pH, the second pH being higher than the first pH but lower than pHA2; b) determining the UV-visible absorbance spectrum of the dye present in solution A5 by using the solution A2 as a measuring blank; c) determining the concentration of at least one of the acid and base forms of the dye in the solution A5 from the absorbance spectrum obtained in step b); d) determining the pH, denoted pHA5, of the solution A5 from the concentration determined in step c); and e) determining the total acidity of the solution A1 from the pHA5 determined in step d); and wherein pHA2 is such that a mixture of the volumes V1 and V2 has a pH which is in the transition range of the dye. a) providing an aqueous solution A5 by mixing: - a volume V1 of the solution A1, - a volume V2 of an aqueous solution A2 of pH denoted pHA2, comprising a compound selected from a weak acid, a weak base, a salt of a weak acid or a salt of a weak base, and - a volume V4 of a solution A4 comprising a pH-sensitive dye having an acid form and a base form, and a transition range between a first pH and a second pH, the second pH being higher than the first pH but lower than pHA2; - a volume V1 of the solution A1, - a volume V2 of an aqueous solution A2 of pH denoted pHA2, comprising a compound selected from a weak acid, a weak base, a salt of a weak acid or a salt of a weak base, and - a volume V4 of a solution A4 comprising a pH-sensitive dye having an acid form and a base form, and a transition range between a first pH and a second pH, the second pH being higher than the first pH but lower than pHA2; b) determining the UV-visible absorbance spectrum of the dye present in solution A5 by using the solution A2 as a measuring blank; c) determining the concentration of at least one of the acid and base forms of the dye in the solution A5 from the absorbance spectrum obtained in step b); d) determining the pH, denoted pHA5, of the solution A5 from the concentration determined in step c); and e) determining the total acidity of the solution A1 from the pHA5 determined in step d);
Method for exhaust gas recirculation (EGR), in particular on internal combustion engines, for reducing NOx emissions, by actuating an EGR valve and/or a throttle flap , in which during a predetermined period of time after determination of an NOx value for the determination of the values for actuating the EGR valve and/or the throttle flap a mathematical model is employed, in which the currently determined NOx values, the period of time that has elapsed since the completion of the NOx measurement, and those parameters of the internal combustion engine which are relevant for NOx reduction are included, wherein the NOx emissions in transient operation are estimated from various variables by means of a mathematical relationship, characterized in that , the current state of the NOx content or the current NOx fraction in the exhaust gas is determined and stored by means of a physical model of the internal combustion engine , wherein the physical model is operated in parallel with the mathematical model and in that , depending on the operating state of the internal combustion engine, the control device selects the lowest NOx prediction from the mathematical model or the physical model and converts it into corresponding control signals, in particular control signals for the EGR valve 2 and the throttle flap 3.
Method for electropneumatically triggering a manually operable RtR valve in a trailer vehicle comprising a pneumatic braking system and an air suspension system , wherein - the RtR valve returns from a non-driving position to a driving position by being triggered, - and the RtR valve , in order to be triggered, is activated by an electrical pulse (E) when the vehicle has reached a minimum speed as the speed increases, characterized in that the trailer vehicle comprises separate reservoirs for the braking system and for the air suspension system, in that compressed air from the reservoir for the braking system flows into the reservoir of the air suspension system only after an overflow pressure has been reached and only the reservoir of the air suspension system provides compressed air for triggering the RtR valve , and in that the RtR valve is triggered on the basis of the minimum speed and a reservoir pressure (B) in the braking system. - the RtR valve returns from a non-driving position to a driving position by being triggered, - and the RtR valve , in order to be triggered, is activated by an electrical pulse (E) when the vehicle has reached a minimum speed as the speed increases,
An apparatus for steering an edge of a moving web comprising a moving conveyor , and two pairs of rolls adjacent to at least one edge side of said moving conveyor , comprising per pair of rolls a first roll above and a second roll below said moving conveyor , wherein for each pair of rolls said first roll above and/or said second roll below can be moved along a vertical axis (v) in relation to one another, wherein said two pairs of rolls are mounted with their central axes perpendicular to the travel direction (t) of said moving conveyor , and wherein said two pairs of rolls comprise a first pair of rolls mounted in a fixed position along a transversal direction (I) of said moving conveyor and a second pair of rolls movably mounted along said transversal direction (I) of said moving conveyor , such that the distance (d) between adjacent rolls of said first and second pair respectively above and below said moving conveyor is variable along said transversal direction (I).
A method for testing an electronic device , the method comprising: - while program code is being executed by one or more processors of the electronic device , a test equipment performing measurements on the electronic device to obtain first data; - the test equipment receiving, from a debug interface of the electronic device , debug information from monitoring execution of the program code ; - the test equipment deriving second data from the debug information; - the test equipment coordinating the measurements with said monitoring of the execution of the program code by controlling the measurements depending on the second data, characterized in that said controlling of the measurements comprises, if the debug information indicates that a certain type of software routine is being executed, narrowing a measurement range to a corresponding range of interest and increasing a measurement sensitivity, and, if the debug information indicates that another type of software routine is being executed, widening the measurement range and decreasing the measurement sensitivity. - while program code is being executed by one or more processors of the electronic device , a test equipment performing measurements on the electronic device to obtain first data; - the test equipment receiving, from a debug interface of the electronic device , debug information from monitoring execution of the program code ; - the test equipment deriving second data from the debug information; - the test equipment coordinating the measurements with said monitoring of the execution of the program code by controlling the measurements depending on the second data, characterized in that said controlling of the measurements comprises, if the debug information indicates that a certain type of software routine is being executed, narrowing a measurement range to a corresponding range of interest and increasing a measurement sensitivity, and, if the debug information indicates that another type of software routine is being executed, widening the measurement range and decreasing the measurement sensitivity.