mhurhangee/patent-ind-claim-en huggingface dataset:
A method of maintaining a liquid level in a nebuliser cup during operation, the nebuliser cup having a base , an upwardly extending wall and an open top whereby nebulised mist can be generated directly from bulk liquid, in use, contained within the cup , said method comprising: providing a first element sensing the liquid at or below a position corresponding to a filled liquid level in a nebuliser cup ; providing a second element electrically isolated from the first element to contact the liquid at the position corresponding to the filled liquid level in the nebuliser cup ; providing sufficient liquid to the nebuliser cup to reach said filled liquid level thereby to complete an electrically coupled circuit between the first element, the liquid and the second element; and whereby a drop in the liquid level to below the filled liquid level triggers a break in the circuit between the first element, the liquid and the second element; and whereby the break in the circuit triggers dispensation of further liquid in the nebuliser cup , characterised in that nebulisation takes place on an intermittent basis and wherein sensing of the liquid level is conducted whilst nebulisation is off. providing a first element sensing the liquid at or below a position corresponding to a filled liquid level in a nebuliser cup ; providing a second element electrically isolated from the first element to contact the liquid at the position corresponding to the filled liquid level in the nebuliser cup ; providing sufficient liquid to the nebuliser cup to reach said filled liquid level thereby to complete an electrically coupled circuit between the first element, the liquid and the second element; and whereby a drop in the liquid level to below the filled liquid level triggers a break in the circuit between the first element, the liquid and the second element; and whereby the break in the circuit triggers dispensation of further liquid in the nebuliser cup ,
A data transmission method, wherein the method is applied to a connection comprising a plurality of paths, the paths are links between a sender and a receiver of the connection, and the method comprises: measuring, in a multipath transmission mode, a path characteristic of an aggregated path in the multipath transmission mode, wherein the multipath transmission mode is a transmission mode in which different data is transmitted on the plurality of paths, and the path characteristic of the aggregated path is a path characteristic of a single path when the plurality of paths are made equivalent to the single path; measuring, in a redundant transmission mode, the path characteristics of the plurality of paths in the redundant transmission mode, wherein the redundant transmission mode is a transmission mode in which same data is transmitted on the plurality of paths; when the path characteristic of a best single path is superior to the path characteristic of the aggregated path in the multipath transmission mode, transmitting data of the connection by using the best single path, wherein the best single path is a path that has a best path characteristic measured in the redundant transmission mode and that is in the plurality of paths; and when the path characteristic of the aggregated path in the multipath transmission mode is superior to the path characteristic of the best single path, transmitting the data of the connection by using the multipath transmission mode. measuring, in a multipath transmission mode, a path characteristic of an aggregated path in the multipath transmission mode, wherein the multipath transmission mode is a transmission mode in which different data is transmitted on the plurality of paths, and the path characteristic of the aggregated path is a path characteristic of a single path when the plurality of paths are made equivalent to the single path; measuring, in a redundant transmission mode, the path characteristics of the plurality of paths in the redundant transmission mode, wherein the redundant transmission mode is a transmission mode in which same data is transmitted on the plurality of paths; when the path characteristic of a best single path is superior to the path characteristic of the aggregated path in the multipath transmission mode, transmitting data of the connection by using the best single path, wherein the best single path is a path that has a best path characteristic measured in the redundant transmission mode and that is in the plurality of paths; and when the path characteristic of the aggregated path in the multipath transmission mode is superior to the path characteristic of the best single path, transmitting the data of the connection by using the multipath transmission mode.
A wheel milling window fixture, comprising a bottom plate fixed on a machine tool, end face blocks for placing the wheel thereon, a mandrel for radial positioning of the central hole of the wheel and pressure claws for pressing the wheel, characterized in that the wheel milling window fixture comprises guide blocks , clamping slide blocks , mounting keys , hydraulic cylinders , hydraulic pipelines , connecting blocks , rotating shafts I and rotating shafts II , arranged in such a way that the four guide blocks are fixed on the bottom plate , the clamping slide blocks slide in slots of the guide blocks , each end face block is fixed in a clamping slide block , the end face blocks and the clamping slide blocks are fixed on the bottom plate , the hydraulic cylinders are fixed on the clamping slide blocks by the mounting keys , the hydraulic pipelines are fixed on the hydraulic cylinders , the connecting blocks are fixed at the extension ends of the hydraulic cylinders , the pressure claws are articulated into holes of the connecting blocks via the rotating shafts I and simultaneously articulated to the end face blocks via the rotating shafts II ; and that the wheel milling window fixture further comprises a mandrel seat , a locking jackscrew , a mandrel height adjusting post , a mandrel guide post , a mandrel guide post locking screw , a locking ring , circumferential positioning posts and circumferential slide blocks , arranged in such a way that the mandrel seat is fixed on the bottom plate , the mandrel height adjusting post is in clearance fit in the hole of the mandrel seat , the mandrel guide post is in clearance fit in the hole of the mandrel height adjusting post , the locking ring and the mandrel guide post are locked by the mandrel guide post locking screw , the mandrel is fixed on the mandrel height adjusting post , and the circumferential positioning posts are fixed on the circumferential slide blocks .
A method of connecting an embedded device , preferably a field device, to a control unit of an industrial control, in particular to a programmable logic controller, in which the control unit provides a programming environment by means of which a sequence program of the control unit can be created or modified, wherein access to the programming environment takes place by means of a web server of the control unit , wherein the programming environment permits the input of source code and generates code which can be executed by the control unit from the source code, and wherein a data connection is established, preferably by means of a field bus, between the embedded device and the control unit , characterized in that the embedded device transmits all the necessary functional data to the control unit to operate the embedded device by means of the control unit , with the functional data including all the information necessary for the continued operation of the embedded device by the control unit and the functional data comprising functional blocks which include functions which can be executed by the embedded device , with the functional blocks being transmitted in a source code included in the functional data . the control unit provides a programming environment by means of which a sequence program of the control unit can be created or modified, wherein access to the programming environment takes place by means of a web server of the control unit , wherein the programming environment permits the input of source code and generates code which can be executed by the control unit from the source code, and wherein a data connection is established, preferably by means of a field bus, between the embedded device and the control unit , characterized in that the embedded device transmits all the necessary functional data to the control unit to operate the embedded device by means of the control unit , with the functional data including all the information necessary for the continued operation of the embedded device by the control unit and the functional data comprising functional blocks which include functions which can be executed by the embedded device , with the functional blocks being transmitted in a source code included in the functional data .
A system, comprising: a personal electronic device comprising an attachment element defining an opening; and a flexible member including a first magnetic feature arranged on an end of the flexible member wherein: the flexible member extends through the opening and loops around a portion of the attachment element ; and the first magnetic feature couples the end of the flexible member to a surface of the flexible member; a second magnetic feature is included in the flexible member , wherein the first magnetic feature is attachable to the second magnetic feature in a plurality of positions, wherein each of the first magnetic feature and the second magnetic member are fixed to the flexible member , and wherein the second magnetic feature is larger than the first magnetic feature. a personal electronic device comprising an attachment element defining an opening; and a flexible member including a first magnetic feature arranged on an end of the flexible member wherein: the flexible member extends through the opening and loops around a portion of the attachment element ; and the first magnetic feature couples the end of the flexible member to a surface of the flexible member; the flexible member extends through the opening and loops around a portion of the attachment element ; and the first magnetic feature couples the end of the flexible member to a surface of the flexible member; a second magnetic feature is included in the flexible member , wherein the first magnetic feature is attachable to the second magnetic feature in a plurality of positions, wherein each of the first magnetic feature and the second magnetic member are fixed to the flexible member , and wherein the second magnetic feature is larger than the first magnetic feature.
Patient table mounting frame comprising a first frame part and a second frame part , and adapted to receive a patient table between these frame parts which connect each other along a translatory guide that couples the frame parts to each other and enables the first frame part and the second frame part to move with respect to each other in a first direction (D1), wherein the first frame part and the second frame part each comprise a table engagement section adapted to releasably connect to a patient table or parts thereof, and wherein at least one of the first frame part and the second frame part includes a mounting section adapted to provide a releasable connection to a correspondingly formed mounting adaptor which does not form part of the patient table mounting frame.
An adjusting device for adjusting a position of a headlight, comprising: a holding element for holding the adjusting device at an adjusting screw and a transmission element for changing the position of the headlight depending on the position of the holding element at the adjusting screw , wherein the holding element comprises at least two parts which are movable with respect to each other and which could at least partially enclose the cross-sectional area of the adjusting screw , and wherein the transmission element is provided with two moving means , each of which is arranged at one of the at least two parts of the holding element and wherein the two moving means are arranged at the at least two parts in such a way that by moving the two moving means towards each other the at least two parts move away from one another in order to arrange the holding element of the adjusting device at the adjusting screw , and such that the at least two parts move towards one another in order for the at least two parts of the holding element to hold the adjusting device at the adjusting screw . a holding element for holding the adjusting device at an adjusting screw and a transmission element for changing the position of the headlight depending on the position of the holding element at the adjusting screw , wherein the holding element comprises at least two parts which are movable with respect to each other and which could at least partially enclose the cross-sectional area of the adjusting screw , and wherein the transmission element is provided with two moving means , each of which is arranged at one of the at least two parts of the holding element and wherein the two moving means are arranged at the at least two parts in such a way that by moving the two moving means towards each other the at least two parts move away from one another in order to arrange the holding element of the adjusting device at the adjusting screw , and such that the at least two parts move towards one another in order for the at least two parts of the holding element to hold the adjusting device at the adjusting screw .
A pipeline apparatus comprising a reducing bush apparatus having a reducing bush , and a pipe fitting upstream of the reducing bush , the pipe fitting being one of a T-fitting, elbow fitting, angle fitting or straight pipe, and comprising a threaded socket ; the reducing bush having: an outer surface , the outer surface comprising a threaded portion at a first end connected to the threaded socket of the pipe fitting ; a bore extending from a first end to a second end; the bore having an inner surface ; wherein the inner surface comprises: a first threaded portion threadably engaged with an attachment comprising a filter at its first end on an inside of the pipe fitting , and a second threaded portion threadably engaged with a further attachment comprising a nozzle at its second end on an outside of the pipe fitting ; wherein the first threaded portion has a larger diameter than the second threaded portion ; wherein the outer surface has a larger diameter than the second end of the inner surface . an outer surface , the outer surface comprising a threaded portion at a first end connected to the threaded socket of the pipe fitting ; a bore extending from a first end to a second end; the bore having an inner surface ; a first threaded portion threadably engaged with an attachment comprising a filter at its first end on an inside of the pipe fitting , and a second threaded portion threadably engaged with a further attachment comprising a nozzle at its second end on an outside of the pipe fitting ;
Method of production of an object in stone and composite material by means of the application of layers of said composite material to said object in stone, said method comprising: - a first phase of definition of a physical or virtual model of an object; - a second and subsequent phase of evaluation of a piece of stone of natural type; - a phase of working by means of milling a piece of natural stone selected in advance to the end of reducing the size and the shape thereof to that indicated in said physical or virtual model; - a phase of verifying the curvature and the roughness of the surface of the milled natural stone, so that they are lower than the minimum necessary for the application of the composite material; - a phase of selecting the composite material and the direction of fibers of said composite material according to the shape of the object in stone and composite material to be created; - a phase of cutting said composite material according to the shape of the object in stone and composite material to be created. - a subsequent phase of application of layers of composite material on a surface of said piece of milled natural stone by means of gluing on said surface and without a step of polishing, wherein said layers of composite material are superimposed one over the other deposing one layer of glue between a layer of composite material and the other; wherein said plurality of layers of composite material are of a flexible type and said plurality of layers of composite material are oriented with a direction of the fibers distinguished one layer of composite material with respect to the other layer of composite material. - a first phase of definition of a physical or virtual model of an object; - a second and subsequent phase of evaluation of a piece of stone of natural type; - a phase of working by means of milling a piece of natural stone selected in advance to the end of reducing the size and the shape thereof to that indicated in said physical or virtual model; - a phase of verifying the curvature and the roughness of the surface of the milled natural stone, so that they are lower than the minimum necessary for the application of the composite material; - a phase of selecting the composite material and the direction of fibers of said composite material according to the shape of the object in stone and composite material to be created; - a phase of cutting said composite material according to the shape of the object in stone and composite material to be created. - a subsequent phase of application of layers of composite material on a surface of said piece of milled natural stone by means of gluing on said surface and without a step of polishing, wherein said layers of composite material are superimposed one over the other deposing one layer of glue between a layer of composite material and the other;
A fixed vane turbocharger , comprising: an impeller ; a housing including, inside thereof, an impeller housing space which accommodates the impeller , a scroll flow passage formed on a radially outer side of the impeller , and a communication flow passage which brings the impeller housing space and the scroll flow passage into communication; and at least one fixed vane unit disposed in the communication flow passage and fixed to a portion of the housing on an inner side of the scroll flow passage with respect to a radial direction of the impeller , wherein each of the at least one fixed vane unit includes at least two vane portions and a coupling portion coupling the two vane portions , each of the vane portions comprising a vane having a pressure surface and a suction surface, the coupling portion coupling each of the side edges of the two vane portions , and wherein each of the at least one fixed vane unit has a shape formed by bending or curving a single sheet metal member , characterized in that the at least one fixed vane unit includes a plurality of fixed vane units disposed at intervals in a circumferential direction, and each of the two vane portions has a leg portion configured to be disposed so as to protrude from an end portion of the vane portion in an axial direction toward an opposite side to the coupling portion in a circumferential direction of the impeller . an impeller ; a housing including, inside thereof, an impeller housing space which accommodates the impeller , a scroll flow passage formed on a radially outer side of the impeller , and a communication flow passage which brings the impeller housing space and the scroll flow passage into communication; and at least one fixed vane unit disposed in the communication flow passage and fixed to a portion of the housing on an inner side of the scroll flow passage with respect to a radial direction of the impeller , wherein each of the at least one fixed vane unit includes at least two vane portions and a coupling portion coupling the two vane portions , each of the vane portions comprising a vane having a pressure surface and a suction surface, the coupling portion coupling each of the side edges of the two vane portions , and wherein each of the at least one fixed vane unit has a shape formed by bending or curving a single sheet metal member , characterized in that the at least one fixed vane unit includes a plurality of fixed vane units disposed at intervals in a circumferential direction, and each of the two vane portions has a leg portion configured to be disposed so as to protrude from an end portion of the vane portion in an axial direction toward an opposite side to the coupling portion in a circumferential direction of the impeller .
A downhole drilling vibration analysis method , comprising: measuring orientation data downhole while drilling with a drilling assembly ; determining toolface orientations of the drilling assembly using the measured orientation data, the toolface orientations including a plurality of bins dividing a 360-degree rotation of the drilling assembly relative to a toolface reference direction; determining toolface velocity values (Section B) for the toolface orientations for a plurality of revolutions of the drilling assembly , each toolface velocity value being a velocity of the downhole assembly specific to one of the toolface orientations in one of the revolutions, each specific velocity derived from toolface measurement occurring at a feed rate in one of the bins at said one toolface orientation of said one revolution of the drilling system ; calculating variation of the toolface velocity values (Section B) for each of the revolutions of the drilling assembly ; and determining detrimental vibration in the drilling assembly by determining whether the calculated variation exceeds a threshold (T1, T2), and finding a repetitive pattern (A, W, I) in at least one of the calculated variation and the toolface velocity values (Section B), the repetitive pattern covering an extent of the revolutions. measuring orientation data downhole while drilling with a drilling assembly ; determining toolface orientations of the drilling assembly using the measured orientation data, the toolface orientations including a plurality of bins dividing a 360-degree rotation of the drilling assembly relative to a toolface reference direction; determining toolface velocity values (Section B) for the toolface orientations for a plurality of revolutions of the drilling assembly , each toolface velocity value being a velocity of the downhole assembly specific to one of the toolface orientations in one of the revolutions, each specific velocity derived from toolface measurement occurring at a feed rate in one of the bins at said one toolface orientation of said one revolution of the drilling system ; calculating variation of the toolface velocity values (Section B) for each of the revolutions of the drilling assembly ; and determining detrimental vibration in the drilling assembly by determining whether the calculated variation exceeds a threshold (T1, T2), and finding a repetitive pattern (A, W, I) in at least one of the calculated variation and the toolface velocity values (Section B), the repetitive pattern covering an extent of the revolutions.