mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for making a stereolithographic object , comprising: an element having a surface for disposing thereon a material used to make the stereolithographic object ; a platform for making the stereolithographic object thereon; a positioner operably coupled to at least one of the platform and the element and operable to change a distance between the platform and the element and so change the distance of a portion of the stereolithographic object when made and the surface to be the thickness of a stereolithographic layer of the stereolithographic object ; and characterized in that it comprises a force sensing system comprising a plurality of spaced apart force sensors supporting the element , wherein each of the plurality of spaced apart force sensors is configured to generate force information indicative of a portion of a force transferred between the element and the platform ; and a controller configured to generate force position information indicative of the position of the force on the element using the force information, and generate force information by processing the force information generated by each of the plurality of spaced apart force sensors ; wherein the force is transferred between the element and the platform by debris when disposed therebetween and the force information is indicative of the position of the debris when on the element . an element having a surface for disposing thereon a material used to make the stereolithographic object ; a platform for making the stereolithographic object thereon; a positioner operably coupled to at least one of the platform and the element and operable to change a distance between the platform and the element and so change the distance of a portion of the stereolithographic object when made and the surface to be the thickness of a stereolithographic layer of the stereolithographic object ; and characterized in that it comprises a force sensing system comprising a plurality of spaced apart force sensors supporting the element , wherein each of the plurality of spaced apart force sensors is configured to generate force information indicative of a portion of a force transferred between the element and the platform ; and a controller configured to generate force position information indicative of the position of the force on the element using the force information, and generate force information by processing the force information generated by each of the plurality of spaced apart force sensors ; wherein the force is transferred between the element and the platform by debris when disposed therebetween and the force information is indicative of the position of the debris when on the element .
Method for braking a vehicle having a hybrid brake system, wherein the vehicle is braked in a first phase (P1) of a braking manoeuvre by means of a non-hydraulic brake system and, in a subsequently second phase (P2), a hydraulic brake system is switched on in order further to build up braking torque or to compensate for a loss of braking force of the non-hydraulic brake system, characterized by the following steps: • bringing the hydraulic brake system in the first phase (P1) into a state of readiness for braking, for which purpose small hydraulic brake pressure is produced by means of a hydraulic pump, leading to the brake shoes moving in the direction of the brake element until they are located close to the brake element or lie against the latter with a small force, • holding the brake shoes in the state of readiness for braking, and • switching on the hydraulic brake system, at a later time, such that the overall braking torque builds up steadily without delay and, in the process, the profile of the vehicle deceleration continuously increases. • bringing the hydraulic brake system in the first phase (P1) into a state of readiness for braking, for which purpose small hydraulic brake pressure is produced by means of a hydraulic pump, leading to the brake shoes moving in the direction of the brake element until they are located close to the brake element or lie against the latter with a small force, • holding the brake shoes in the state of readiness for braking, and • switching on the hydraulic brake system, at a later time, such that the overall braking torque builds up steadily without delay and, in the process, the profile of the vehicle deceleration continuously increases.
A lipid composition comprising from 25 wt.% to 40 wt.% of n-3 DHA, from 6 wt. % to 10 wt. % n-6 DPA, and from 0 wt. % to 3 wt. % of n-3 EPA, further comprising: (i) 11 wt.% to 15 wt.% of myristic acid; or (ii) 3 wt.% to 7 wt.% of palmitoleic acid; or (iii) at least 1 wt.% carotenoid material. (i) 11 wt.% to 15 wt.% of myristic acid; or (ii) 3 wt.% to 7 wt.% of palmitoleic acid; or (iii) at least 1 wt.% carotenoid material.
A device for handling piece goods moved in at least two parallel rows , comprising - at least one manipulator for piece goods and - wherein the device comprises three parallel transport devices , by way of which directly successive piece goods arranged in at least three parallel rows are transportable without interruption and/or at a continuous transport speed (v3) in a transport direction (TR) into a seizing range of the at least one manipulator , - wherein the at least one manipulator is designed for receiving at least one piece good in a clamping and/or force-locking and/or form-locking manner, as well as for separating and transferring the at least one piece good to a target position (P1, P2) and/or target alignment, the piece goods being transported into the seizing range of the manipulator by means of the at least one transport device ; characterized in that - piece goods in two directly adjacent rows are transported on two of the transport devices so close together, that the piece goods of the directly adjacent rows essentially contact each other and - wherein the third row on the third transport device is arranged laterally spaced apart from the rows of piece goods on the first two transport devices . - at least one manipulator for piece goods and - wherein the device comprises three parallel transport devices , by way of which directly successive piece goods arranged in at least three parallel rows are transportable without interruption and/or at a continuous transport speed (v3) in a transport direction (TR) into a seizing range of the at least one manipulator , - wherein the at least one manipulator is designed for receiving at least one piece good in a clamping and/or force-locking and/or form-locking manner, as well as for separating and transferring the at least one piece good to a target position (P1, P2) and/or target alignment, the piece goods being transported into the seizing range of the manipulator by means of the at least one transport device ; characterized in that - piece goods in two directly adjacent rows are transported on two of the transport devices so close together, that the piece goods of the directly adjacent rows essentially contact each other and - wherein the third row on the third transport device is arranged laterally spaced apart from the rows of piece goods on the first two transport devices .
A method for identifying the presence of partly liberated diamonds in a material stream, said method comprising the steps of: illuminating a material with a multi-wavelength beam comprising at least one monochromatic SWIR laser beam, and at least one IR scatter-/anti-scatter laser beam, capturing a portion of said at least one monochromatic SWIR laser beam after said monochromatic SWIR laser beam has been reflected and/or scattered by the material, producing a SWIR signal based on the captured portion of said at least one monochromatic SWIR laser beam, capturing a first portion of said at least one IR scatter-/anti-scatter laser beam after said at least one IR scatter-/anti-scatter laser beam has been scattered and optionally reflected by the material, separating and thereafter capturing a directly reflected portion of said at least one IR scatter-/anti-scatter laser beam after said at least one IR scatter-/anti-scatter laser beam has been directly reflected by the material from a portion of said at least one IR scatter-/anti-scatter laser beam after said at least one IR scatter-/anti-scatter laser beam has been scattered by the material, producing an IR scatter signal based on said captured first portion of said at least one IR scatter-/anti-scatter laser beam, producing an IR reflection signal based on said captured directly reflected portion of said at least one IR scatter-/anti-scatter laser beam, classifying the material as comprising diamond based on the presence of a diamond signature in the combination of the SWIR signal, the IR reflection signal and the IR scatter signal. illuminating a material with a multi-wavelength beam comprising at least one monochromatic SWIR laser beam, and at least one IR scatter-/anti-scatter laser beam, capturing a portion of said at least one monochromatic SWIR laser beam after said monochromatic SWIR laser beam has been reflected and/or scattered by the material, producing a SWIR signal based on the captured portion of said at least one monochromatic SWIR laser beam, capturing a first portion of said at least one IR scatter-/anti-scatter laser beam after said at least one IR scatter-/anti-scatter laser beam has been scattered and optionally reflected by the material, separating and thereafter capturing a directly reflected portion of said at least one IR scatter-/anti-scatter laser beam after said at least one IR scatter-/anti-scatter laser beam has been directly reflected by the material from a portion of said at least one IR scatter-/anti-scatter laser beam after said at least one IR scatter-/anti-scatter laser beam has been scattered by the material, producing an IR scatter signal based on said captured first portion of said at least one IR scatter-/anti-scatter laser beam, producing an IR reflection signal based on said captured directly reflected portion of said at least one IR scatter-/anti-scatter laser beam, classifying the material as comprising diamond based on the presence of a diamond signature in the combination of the SWIR signal, the IR reflection signal and the IR scatter signal.
A process for plugging an annular space between a casing and the formation in a hydrocarbon wellbore in a plug and abandon operation, including the step of reducing the pressure in the annular space so as to be between 2.76MPa and 27.6 MPa lower than the formation pressure so as to place the well in an underbalanced state, thereby promoting or inducing creep in formation surrounding the casing so as to form a seal around the casing .
A hearing device to be worn in the ear of a user, said hearing device comprises a housing for accommodating an electronic component, wherein said housing is formed with an indentation , said indentation providing a space at the outer side of the housing , wherein said hearing device further comprises an antenna inserted into the indentation , characterised in that said housing is made of titan as an electromagnetic wave shielding material and has a thickness of 0.2 - 0.4 mm.
An X-ray source, comprising a vacuum chamber with an X-ray window for outputting an X-ray beam generated in an interaction zone of an electron beam with a liquid-metal target , with the liquid-metal target is an annular layer of molten fusible metal located in an annular groove implemented in a rotating anode assembly , while the annular groove has a surface profile preventing an ejection of material of the liquid-metal target in a radial direction and in both directions along the axis of rotation of the rotating anode assembly , characterized by further comprising a debris shield that is rigidly mounted to surround the interaction zone , said shield comprising a first opening for the entrance of the electron beam to the liquid-metal target , and a second opening for the exit of the X-ray beam from the interaction zone to the X-ray window , wherein the debris shield is separated from the rotating anode assembly by a clearance, so that the interaction zone is located in a cavity formed by surfaces of the groove and the debris shield . the liquid-metal target is an annular layer of molten fusible metal located in an annular groove implemented in a rotating anode assembly , while the annular groove has a surface profile preventing an ejection of material of the liquid-metal target in a radial direction and in both directions along the axis of rotation of the rotating anode assembly , characterized by further comprising a debris shield that is rigidly mounted to surround the interaction zone , said shield comprising a first opening for the entrance of the electron beam to the liquid-metal target , and a second opening for the exit of the X-ray beam from the interaction zone to the X-ray window , wherein the debris shield is separated from the rotating anode assembly by a clearance, so that the interaction zone is located in a cavity formed by surfaces of the groove and the debris shield .
Method for charging an intermediate-circuit capacitor in a precharging unit, wherein the intermediate-circuit capacitor is charged via a current source , the current of which is adjusted in such a way that a constant power loss is produced in the current source during the entire charging operation, characterized in that the constant power loss is adjusted by means of a Zener diode in combination with a resistor, wherein the current source is realized by means of a current mirror with an appropriate current ratio.
Machine for separatively machining a planar workpiece by means of a machining beam , comprising: a first movement device for moving the workpiece in a first direction (X), a second movement device for moving a machining head which orients the machining beam onto the workpiece in a second direction (Y) perpendicular to the first direction, two workpiece support surfaces for supporting the workpiece , between which a gap extending along the second direction (Y) is formed, at least one, preferably at least two support carriages which are movable in the second direction (Y) and have a support surface being arranged within the gap for supporting workpieces cut during separative machining, the at least one support carriage being movable in the direction of gravity (Z), characterized by , a control device which, during the movement of the at least one support carriage in the second direction (Y), is designed to move the support surface of the support carriage in a controlled manner to a predefined, in particular location-independent position (Z UA = 0, Z UB = 0) in the direction of gravity (Z), at which the support surface is preferably aligned with the two workpiece support surfaces , the control device being designed to execute the controlled movement of the support surface on the basis of a previously determined relationship between a position (Z UA , Z UB ) of the support surface in the direction of gravity (Z) and the position (Y UA , Y UB ) of the support carriage in the second direction (Y). a first movement device for moving the workpiece in a first direction (X), a second movement device for moving a machining head which orients the machining beam onto the workpiece in a second direction (Y) perpendicular to the first direction, two workpiece support surfaces for supporting the workpiece , between which a gap extending along the second direction (Y) is formed, at least one, preferably at least two support carriages which are movable in the second direction (Y) and have a support surface being arranged within the gap for supporting workpieces cut during separative machining, the at least one support carriage being movable in the direction of gravity (Z), characterized by , a control device which, during the movement of the at least one support carriage in the second direction (Y), is designed to move the support surface of the support carriage in a controlled manner to a predefined, in particular location-independent position (Z UA = 0, Z UB = 0) in the direction of gravity (Z), at which the support surface is preferably aligned with the two workpiece support surfaces , the control device being designed to execute the controlled movement of the support surface on the basis of a previously determined relationship between a position (Z UA , Z UB ) of the support surface in the direction of gravity (Z) and the position (Y UA , Y UB ) of the support carriage in the second direction (Y).
A wearing part arrangement provided with a holder attachable to a supporting surface , the holder providing releasable attachment of a wearing part by means of a socket-and-pin type quick-fit coupling, wherein the holder comprises a pair of opposing first guide portions providing lateral support to the wearing part , being arranged to face corresponding supporting faces provided on the wearing part , and a pair of second guide portions facing the supporting surface and providing vertical support to the wearing part , being arranged to face corresponding top faces of the wearing part , and wherein one of the pair of the opposing first guide portions and the corresponding side supporting faces of the wearing part is provided with at least one elevation , and the other one of the pair of the opposing first guide portions and the corresponding side supporting faces is provided with a corresponding recess arranged for receipt of the elevation by applying a force on the wearing part in a longitudinal direction of the holder to engagement of the wearing part with the holder , characterised in that the first guide portions are provided with a gradually decreasing height towards a rear end portion of first guide portions , and the top faces of the wearing-part are arranged to slide along the top support faces of the holder when the wearing part is mating with the holder , providing a bottom surface of the wearing part to restingly abut the supporting surface of the implement when the wearing part is located in an operative position on the implement . the first guide portions are provided with a gradually decreasing height towards a rear end portion of first guide portions , and the top faces of the wearing-part are arranged to slide along the top support faces of the holder when the wearing part is mating with the holder , providing a bottom surface of the wearing part to restingly abut the supporting surface of the implement when the wearing part is located in an operative position on the implement .
A method comprising: measuring, with measuring tools within each of a plurality of wellbores, a respective plurality of well logs each comprising data regarding a plurality of rock properties of rock surrounding the respective wellbore; creating, by a computer system, a geocellular model of an underground formation having the plurality of wellbores, the creating by: for each wellbore of the plurality of wellbores, reading a measured value of the plurality of rock properties associated with a first well log, and associating the values of the plurality of rock properties with a respective cell of a plurality of cells (104-116) of the geocellular model; assigning a value of the plurality of rock properties to each cell of the plurality of cells based on the measured values and a datum of information, the datum of information distinct from the measured values and derived from a variogram regarding the rock property; and determining a rock type for each cell based on the values of the plurality of rock properties assigned to that cell. measuring, with measuring tools within each of a plurality of wellbores, a respective plurality of well logs each comprising data regarding a plurality of rock properties of rock surrounding the respective wellbore; creating, by a computer system, a geocellular model of an underground formation having the plurality of wellbores, the creating by: for each wellbore of the plurality of wellbores, reading a measured value of the plurality of rock properties associated with a first well log, and associating the values of the plurality of rock properties with a respective cell of a plurality of cells (104-116) of the geocellular model; assigning a value of the plurality of rock properties to each cell of the plurality of cells based on the measured values and a datum of information, the datum of information distinct from the measured values and derived from a variogram regarding the rock property; and determining a rock type for each cell based on the values of the plurality of rock properties assigned to that cell. for each wellbore of the plurality of wellbores, reading a measured value of the plurality of rock properties associated with a first well log, and associating the values of the plurality of rock properties with a respective cell of a plurality of cells (104-116) of the geocellular model; assigning a value of the plurality of rock properties to each cell of the plurality of cells based on the measured values and a datum of information, the datum of information distinct from the measured values and derived from a variogram regarding the rock property; and determining a rock type for each cell based on the values of the plurality of rock properties assigned to that cell.
A two-dimensional hydrogen boride-containing sheet, comprising: a two-dimensional network that consists of (HB) n (n ≥ 4), wherein in a X-ray photoelectron spectroscopy, a spectrum showing a peak attributable to B1s of a negatively charged boron at 188 eV and no peak attributable to magnesium is obtained, and in an electron energy loss spectroscopy, a spectrum showing a peak attributable to sp2 structure of boron at 191 eV is obtained. in a X-ray photoelectron spectroscopy, a spectrum showing a peak attributable to B1s of a negatively charged boron at 188 eV and no peak attributable to magnesium is obtained, and in an electron energy loss spectroscopy, a spectrum showing a peak attributable to sp2 structure of boron at 191 eV is obtained.
An apparatus for cooling a body or body part for medical or performance-enhancing purposes, consisting of one or more cooling elements , wherein the cooling element comprises a cover which is filled with a meltable cooling solid , wherein an additional apparatus for displacing the already melted portion of the cooling solid from the contact surface to the body is provided inside the cover , characterised in that the apparatus further comprises a dimensionally stable additional cover in which the cover can be stored during freezing and wherein the additional cover preferably serves as packaging.