mhurhangee/ep-ind-claims huggingface dataset:
An X-ray source comprising: a liquid target source configured to provide a liquid target in an interaction region of the X-ray source; an electron source adapted to provide an electron beam directed towards the interaction region, such that the electron beam interacts with the liquid target to generate X-ray radiation; an electron collector arranged at a distance downstream of the interaction region, as seen along a travel direction of the electron beam; wherein: the electron collector comprises an impact portion configured to absorb electrons of the electron beam impinging thereon; and characterised in that the impact portion is arranged so as to be oblique with respect to the travel direction of the electron beam at the impact portion; wherein the impact portion forms part of an inner surface of a recess extending into the electron collector; and the recess is oriented so as to prevent the electron beam from directly impinging on a bottom of the recess. a liquid target source configured to provide a liquid target in an interaction region of the X-ray source; an electron source adapted to provide an electron beam directed towards the interaction region, such that the electron beam interacts with the liquid target to generate X-ray radiation; an electron collector arranged at a distance downstream of the interaction region, as seen along a travel direction of the electron beam; the electron collector comprises an impact portion configured to absorb electrons of the electron beam impinging thereon; and characterised in that the impact portion is arranged so as to be oblique with respect to the travel direction of the electron beam at the impact portion; wherein the impact portion forms part of an inner surface of a recess extending into the electron collector; and the recess is oriented so as to prevent the electron beam from directly impinging on a bottom of the recess.
A cooling device comprising a body having two opposite side walls, a door providing access into the body and at least one door opening mechanism providing the door to be opened/closed, wherein the door opening mechanism is having - a housing located on the front surface of the door and - at least one cover, fixed rotatably, entirely covering the front of the housing and enabling the door to be held, characterized in that the at least one cover is coplanar with the front surface of the door and the door opening mechanism is having a further cover, both covers fixed to two opposite edges of the housing so as to only rotate into the housing, almost entirely closing the front of the housing such that their free sides are adjacent and being almost coplanar with the front surface of the door when in the free state, such that the door opening mechanism is providing the door to be opened by the user pushing one cover inwards and further inserting his/her hand into the housing behind the other cover and pulling by holding the other cover from its rear surface. - a housing located on the front surface of the door and - at least one cover, fixed rotatably, entirely covering the front of the housing and enabling the door to be held,
A method, comprising: inverse quantizing (238, 330) transform coefficients of a block in an image to form de-quantized transform coefficients; inverse transforming (242, 340) the de-quantized transform coefficients to form prediction residuals; forming (246, 350) a reconstructed image block using the prediction residuals; filtering (250, 370) a set of pixels to form filtered pixels, the set of pixels comprising a plurality of pixels of the reconstructed image block and a plurality of pixels of reconstructed blocks adjacent to the block, wherein the filtered pixels comprising a first subset of pixels corresponding to the plurality of pixels of the reconstructed image block and a second subset of pixels corresponding to the plurality of pixels of the reconstructed blocks adjacent to the block; and replacing (250, 370) the plurality of pixels of the reconstructed image block with the first subset of filtered pixels to form a refined image block, wherein the refined image block is used to encode or decode another block of the image, the method being characterized in that the plurality of pixels of the reconstructed blocks adjacent to the block are not replaced by the second subset of filtered pixels. inverse quantizing (238, 330) transform coefficients of a block in an image to form de-quantized transform coefficients; inverse transforming (242, 340) the de-quantized transform coefficients to form prediction residuals; forming (246, 350) a reconstructed image block using the prediction residuals; filtering (250, 370) a set of pixels to form filtered pixels, the set of pixels comprising a plurality of pixels of the reconstructed image block and a plurality of pixels of reconstructed blocks adjacent to the block, wherein the filtered pixels comprising a first subset of pixels corresponding to the plurality of pixels of the reconstructed image block and a second subset of pixels corresponding to the plurality of pixels of the reconstructed blocks adjacent to the block; and replacing (250, 370) the plurality of pixels of the reconstructed image block with the first subset of filtered pixels to form a refined image block, wherein the refined image block is used to encode or decode another block of the image, the method being characterized in that the plurality of pixels of the reconstructed blocks adjacent to the block are not replaced by the second subset of filtered pixels.
Procedure designed to modify at least an interim natural frequency which is inherent to a tube arrangement consisting of at least one tube (11, 12), - wherein the tube serves as a measuring tube of a vibronic-type transducer - and wherein the tube comprises a metal tube wall, particularly at least partially circular cylindrical, as well as a reinforcement body, particularly made of metal and/or a material that can be connected via a substance-to-substance connection to the material of the tube and/or lamellar, which is applied on the tube wall, particularly on an exterior lateral surface of the tube wall and co-determines said interim natural frequency of the tube arrangement, - wherein the reinforcement body is applied on the lateral surface of the tube by means of welding and/or soldering, particularly hard-soldering - and/or wherein the reinforcement body is formed by a solder material applied on the lateral surface, particularly in the form of ridges or points, wherein said procedure comprises a step consisting of the removal of partial volumes of the reinforcement body, wherein the step involving the removal of partial volumes of the reinforcement body is carried out and/or repeated until the interim natural frequency is adjusted to a target natural frequency specified for the tube arrangement, which is lower than the interim natural frequency. - wherein the tube serves as a measuring tube of a vibronic-type transducer - and wherein the tube comprises a metal tube wall, particularly at least partially circular cylindrical, as well as a reinforcement body, particularly made of metal and/or a material that can be connected via a substance-to-substance connection to the material of the tube and/or lamellar, which is applied on the tube wall, particularly on an exterior lateral surface of the tube wall and co-determines said interim natural frequency of the tube arrangement, - wherein the reinforcement body is applied on the lateral surface of the tube by means of welding and/or soldering, particularly hard-soldering - and/or wherein the reinforcement body is formed by a solder material applied on the lateral surface, particularly in the form of ridges or points, wherein said procedure comprises a step consisting of the removal of partial volumes of the reinforcement body, wherein the step involving the removal of partial volumes of the reinforcement body is carried out and/or repeated until the interim natural frequency is adjusted to a target natural frequency specified for the tube arrangement, which is lower than the interim natural frequency.
A method for the electrostatic separation of fine dust particles (9, 10, 11) from gases containing fine dust particles (9, 10, 11), wherein the gases flow through a housing, in which an electric field exists between one electrode on the housing input side and at least one electrode on the housing output side, wherein in the case of a polarity a), the electrode on the housing input side has negative polarity or is earthed and the at least one electrode on the housing output side has positive polarity or in the case of a polarity b), the electrode on the housing input side has positive polarity and the at least one electrode on the housing output side has negative polarity or is earthed, the fine dust particles (9, 10, 11) deposit on both sides on perforated plates arranged between the electrodes and and transversely to the direction of flow, wherein the perforated plates have openings for the gas flow and deposition surfaces (13, 12) on the inflow and outflow side for fine dust particles (9, 10, 11) and the openings of adjacent perforated plates (6.1, 6.2) are staggered in the direction of flow, characterized in that the perforated plates are not electrically conductive, in the case of the polarity a), the removal of negatively charged fine dust particles is effected by deposition on the deposition surfaces on the inflow side of the electrically non-conductive perforated plates, and the removal of positively charged fine dust particles is effected by deposition on the deposition surfaces on the outflow side of the electrically non-conductive perforated plates, and in the case of the polarity b), the deposition surfaces (12, 13) are coated with fine dust particles (9, 11) opposite in sign, the gas flow exiting from the openings of the electrically non-conductive perforated plates, on striking the deposition surface of the following perforated plate, creates a suction towards the deposition surface at its center, and a removal of fine dust particles without charge or of fine dust particles with too low a charge is carried out after the last perforated plate by means of charging in an ionization chamber and deposition on the deposition surface on the outflow side of the last perforated plate.
A method of controlling a vacuum cleaner having a dust collection unit in which dusts separated from air sucked by a suction motor are stored, the method comprising: operating the suction motor with a first driving force; determining an amount of the dusts stored in the dust collection unit; and operating the suction motor with a second driving force greater than the first driving force as the amount of the dusts increases, characterized in that the method further comprises a step of compressing the dusts stored in the dust collection unit, at least when the suction motor operates, by rotating at least one pressing member by means of a compression motor. operating the suction motor with a first driving force; determining an amount of the dusts stored in the dust collection unit; and operating the suction motor with a second driving force greater than the first driving force as the amount of the dusts increases, characterized in that the method further comprises a step of compressing the dusts stored in the dust collection unit, at least when the suction motor operates, by rotating at least one pressing member by means of a compression motor.
A computer program product comprising one or more computer-readable storage media having thereon computer-executable instructions that are structured such that, when executed by one or more processors of a destination intermediary that serves a destination machine engaged in a multi-message flow from a source machine served by a source intermediary, causes the destination intermediary to perform a method for redirecting the multi-message flow so as to bypass a load balancer used in one or more previous network messages associated with the multi-message flow, the method comprising: in response to the destination intermediary receiving a network message belonging to the multi-message flow from the load balancer an act of determining that the source intermediary is to address subsequent network messages originated from the source machine and associated with the same multi-message flow to the destination machine in a manner that bypasses the load balancer; an act of dispatching an instruction message from the destination intermediary to the source intermediary instructing the source intermediary to address subsequent network messages from the source machine and associated with the same multi-message flow to the destination machine in the manner that bypasses the load balancer, wherein the dispatched instruction message is separate from a response message to the received network message. in response to the destination intermediary receiving a network message belonging to the multi-message flow from the load balancer an act of determining that the source intermediary is to address subsequent network messages originated from the source machine and associated with the same multi-message flow to the destination machine in a manner that bypasses the load balancer; an act of dispatching an instruction message from the destination intermediary to the source intermediary instructing the source intermediary to address subsequent network messages from the source machine and associated with the same multi-message flow to the destination machine in the manner that bypasses the load balancer, wherein the dispatched instruction message is separate from a response message to the received network message.
Apparatus for producing an object by means of additive manufacturing, said apparatus comprising: - a process chamber for receiving a bath of powdered material which can be solidified by exposure to electromagnetic radiation; - a support for positioning a part of said object in relation to a surface level of said bath of powdered material; - a solidifying device arranged for emitting a beam of electromagnetic radiation on said surface level for solidifying a selective part of a layer of said powdered material of said bath of powdered material; and characterised by a control device arranged for controlling an energy density of said beam of electromagnetic radiation at said surface level, by controlling a dimension (d1, d2) of said beam of electromagnetic radiation at said surface level, wherein said dimension (d1, d2) corresponds to the size of the beam of electromagnetic radiation at the surface level in a first direction and/or second direction that are mutually perpendicular and directed parallel to the surface level, during solidification of said selective part of said layer of said powdered material of said bath of powdered material, taking into account a position of said beam of electromagnetic radiation at said surface level such that at a constant power of said beam of electromagnetic radiation said energy density of said electromagnetic radiation at said surface level is maintained within a range of 10%, 5%, 3% or 1% along said surface level, preferably such that at a constant power of said beam of electromagnetic radiation said energy density of said electromagnetic radiation at said surface level is maintained constant along said surface level. - a process chamber for receiving a bath of powdered material which can be solidified by exposure to electromagnetic radiation; - a support for positioning a part of said object in relation to a surface level of said bath of powdered material; - a solidifying device arranged for emitting a beam of electromagnetic radiation on said surface level for solidifying a selective part of a layer of said powdered material of said bath of powdered material; and
A method for forming an oral product, comprising mixing liquid nicotine with cellulosic fiber to form a cellulosic fiber-nicotine mixture, wherein either said liquid nicotine is mixed with said cellulosic fiber such that the liquid nicotine absorbs into pores of the cellulosic fiber to form said cellulosic fiber-nicotine mixture; and wherein the method further comprises loosely depositing the cellulosic fiber-nicotine mixture within a container; or the method further comprises (a) mixing said cellulosic fiber-nicotine mixture with one or more binders to form an oral product pre-molding mixture, the one or more binders comprising a chewing gum base; and (b) molding the oral product pre-molding mixture into an oral product; wherein the cellulosic fiber in and comprises fibers selected from the group consisting of wood pulp, cotton, sugar beets, bran, citrus pulp fiber, grass fibers, Salix, tea, Populus, bamboo fibers, and combinations thereof. said liquid nicotine is mixed with said cellulosic fiber such that the liquid nicotine absorbs into pores of the cellulosic fiber to form said cellulosic fiber-nicotine mixture; and wherein the method further comprises loosely depositing the cellulosic fiber-nicotine mixture within a container; or the method further comprises (a) mixing said cellulosic fiber-nicotine mixture with one or more binders to form an oral product pre-molding mixture, the one or more binders comprising a chewing gum base; and (b) molding the oral product pre-molding mixture into an oral product; (a) mixing said cellulosic fiber-nicotine mixture with one or more binders to form an oral product pre-molding mixture, the one or more binders comprising a chewing gum base; and (b) molding the oral product pre-molding mixture into an oral product;
Energy storage device with a horizontally arranged flywheel, in which - the flywheel comprises a mass ring made of concrete and which is at least partially embedded in the soil, - the mass ring comprises a steel shell into which the concrete has been filled, characterized in that - the mass ring is mounted on steel wheels, - the steel wheels are running on rails which are arranged at the bottom of the steel shell and - motors for driving the flywheel and generators for decelerating the flywheel are arranged at the steel wheels. - the flywheel comprises a mass ring made of concrete and which is at least partially embedded in the soil, - the mass ring comprises a steel shell into which the concrete has been filled, characterized in that - the mass ring is mounted on steel wheels, - the steel wheels are running on rails which are arranged at the bottom of the steel shell and - motors for driving the flywheel and generators for decelerating the flywheel are arranged at the steel wheels.
An enclosure (4; 104; 204; 304; 504) for enclosing a capacitive sensor (2; 102; 202; 302; 402; 502) for forming a capacitive sensing apparatus for sensing an object, the enclosure (4; 104; 204; 304; 504) comprising a contact side for contacting a person during sensing an electrophysiological signal of the person, wherein the enclosure (4; 104; 204; 304; 504) is adapted for sensing the electrophysiological signal of the person by the capacitive sensor (2; 102; 202; 302; 402; 502) through the contact side of the enclosure (4; 104; 204; 304; 504) and wherein the enclosure (4; 104; 204; 304; 504) is separable from the capacitive sensor (2; 102; 202; 302; 402; 502) for using the enclosure (4; 104; 204; 304; 504) as a disposable device, wherein the enclosure (4; 104; 204; 304; 504) comprises at least one surrounding element (8; 108; 208; 308; 508), which is arranged on the contact side and which is adapted to surround the capacitive sensor for holding the capacitive sensor in place, wherein the at least one surrounding element (8; 108; 208; 308; 508) is flexible for forming a clamping mechanism for holding the capacitive sensor in place, characterized in that the contact side of the enclosure is made of a conducting material.
An assembled half shell-shaped flanged bearing shell for a crankshaft bearing point in an internal combustion engine, having an axial direction, a circumferential direction concentric with respect to the axial direction, and a radial direction, and having a half shell-shaped radial bearing part and having a disk-shaped axial bearing part that is fastenable in the area of an axial end-face side of the radial bearing part, wherein the radial bearing part has a radially inner sliding surface facing a sliding partner, and an edge area that extends in the circumferential direction, and wherein the axial bearing part extends essentially in a radial plane, i.e., orthogonally with respect to the axial direction, and has at least two inwardly projecting retaining tongues that extend essentially in the radial plane and that are brought into engagement with a respective retaining recess in the edge area of the radial bearing part, wherein the axial bearing part is captively held at the radial bearing part, characterized in that the axial bearing part is formed from at least three segments that adjoin one another in the circumferential direction and that are nonreleasably joined together via a weld seam, preferably extending in the radial direction, between every two segments, wherein the respective weld seam does not include the radial bearing part, and wherein the segments with their retaining tongues are first arranged at the edge area of the radial bearing part so that the retaining tongues engage with the respective retaining recesses in the edge area of the radial bearing part, and only then is the respective weld seam applied between respective two segments, as a result of which the axial bearing part thus formed is captively held at the radial bearing part but with slight play, at least in the axial direction, and without the retaining tongues or the edge area of the radial bearing part having been processed in a material-deforming manner.
A method for configuring an analog process alarm in a digital control system, the method comprising: providing to a user, via a human-machine interface, an analog alarm virtual block diagram visualizing processing logic associated with an analog process variable within the digital control system, creating, within the digital control system, a plurality of templates, wherein each template includes one or more alias names for corresponding one or more analog alarm sub-variables associated with the analog process variable; receiving, from the user, a request to select a template from the plurality of templates; and characterized in based on the selection of the template, automatically generating the one or more alias names for the corresponding one or more analog alarm sub-variables of the analog process alarm, wherein the one or more alias names are defined directly on the analog process variable, and creating the plurality of templates in accordance with different naming conventions of aliases. providing to a user, via a human-machine interface, an analog alarm virtual block diagram visualizing processing logic associated with an analog process variable within the digital control system, creating, within the digital control system, a plurality of templates, wherein each template includes one or more alias names for corresponding one or more analog alarm sub-variables associated with the analog process variable; receiving, from the user, a request to select a template from the plurality of templates; and characterized in based on the selection of the template, automatically generating the one or more alias names for the corresponding one or more analog alarm sub-variables of the analog process alarm, wherein the one or more alias names are defined directly on the analog process variable, and creating the plurality of templates in accordance with different naming conventions of aliases.