mhurhangee/ep-ind-claims huggingface dataset:
Method for distributing at least one data packet in a network comprising a set of groups (G 1, G 2, G 3, G 4, G) of mobile nodes, said method including an intra-group distribution phase (P 1), during which at least one data packet is distributed to the mobile nodes belonging to the same group, said intra-group distribution phase (P 1) including an initial distribution step (E 3) during which a source node distributes (E 3) said at least one data packet to a set of neighbouring nodes (N 1, N 2, 3, 4, 5, 6, 10), said method being characterized in that said intra-group distribution phase (P 1) furthermore includes: - a step of choosing (E 4) two propagation nodes (N 1, N 2) moving in opposite directions and located on each side of the source node, during which a first neighbouring node of said source node is chosen as the first propagation node (N 1), provided that it is located downstream of the source node in relation to the direction of movement of the source node and that it moves in the same direction as the source node and during which a second neighbouring node of said source node is chosen as the second propagation node (N 2), provided that it is located upstream of the source node in relation to the direction of movement of the source node and that it moves in the opposite direction to the direction of movement of said source node. - a step of choosing (E 4) two propagation nodes (N 1, N 2) moving in opposite directions and located on each side of the source node, during which a first neighbouring node of said source node is chosen as the first propagation node (N 1), provided that it is located downstream of the source node in relation to the direction of movement of the source node and that it moves in the same direction as the source node and during which a second neighbouring node of said source node is chosen as the second propagation node (N 2), provided that it is located upstream of the source node in relation to the direction of movement of the source node and that it moves in the opposite direction to the direction of movement of said source node.
A lactic acid bacteria belonging to the genus of Lactococcus having an ability to produce daidzein from daidzin and having an ability to produce equol from daidzein.
A photochromic composition comprising, as two components, each of: a polyrotaxane having a composite molecular structure composed of an axial molecule and a plurality of cyclic molecules clathrating the axial molecule, wherein a side chain is introduced into at least part of the ring contained in each of the cyclic molecules; and a photochromic compound selected from a fulgide compound, a chromene compound, a spirooxazine compound and a combination of two or more thereof. a polyrotaxane having a composite molecular structure composed of an axial molecule and a plurality of cyclic molecules clathrating the axial molecule, wherein a side chain is introduced into at least part of the ring contained in each of the cyclic molecules; and a photochromic compound selected from a fulgide compound, a chromene compound, a spirooxazine compound and a combination of two or more thereof.
Valve arrangement for controlling a flow of a heating or cooling fluid, said valve arrangement comprising: a housing having an inlet and an outlet, and a pressure regulating valve being arranged between said inlet and said outlet and having a regulating valve element and a regulating valve seat, said regulating valve element being connected to a membrane, said membrane having a flexible part in form of a "U" having two deformable legs, characterized in that a radially inner expansion space is provided on a radially inner side of the flexible part of the membrane, into which a radially inner part of the flexible part can be deformed.
Method for operating a device comprising an electromechanical actuator (21; 31) driving a mobile closure or privacy element (24; 34) of an opening in a building, the actuator driving the mobile element in a first and in a second direction of displacement and comprising a means for automatically determining the direction of displacement of the mobile element for each direction (R1, R2) of rotation of the actuator, this means being active during any paths travelled by the mobile element during displacements, characterized in that the actuator, associated with a mobile control point, is capable of receiving a movement command of a first type and a movement command of a second type emitted by the mobile control point and in that the method comprises a step of automatic correlation between a direction of rotation of the actuator and a movement command, implemented by the reception of any one of a movement command of first type or of second type, without a particular displacement being imposed.
An end mill, which comprises: a bottom edge, which is composed of an arc-shaped cutting edge that is curved when seen from a direction perpendicular to the tool axis and a linear or curved medium-to-low inclination cutting edge that is consecutive to the arc-shaped cutting edge; and a peripheral edge; characterised in that when seen from a direction parallel to the tool axis, the arc-shaped cutting edge and a rim at the rearward side of the rotation at a flank of the arc-shaped cutting edge are curved with radii of curvatures (Ra, Rb), and the radius of curvature (Ra) of the arc-shaped cutting edge is smaller than the radius of curvature (Rb) of the rim at the rearward side of the rotation at the flank of the arc-shaped cutting edge, and the width (x) of the flank of the arc-shaped cutting edge becomes wider as it approaches the outer periphery and becomes largest at the outermost periphery of the end mill which is the connective part of the arc-shaped cutting edge and the peripheral edge. a bottom edge, which is composed of an arc-shaped cutting edge that is curved when seen from a direction perpendicular to the tool axis and a linear or curved medium-to-low inclination cutting edge that is consecutive to the arc-shaped cutting edge; and a peripheral edge; characterised in that when seen from a direction parallel to the tool axis, the arc-shaped cutting edge and a rim at the rearward side of the rotation at a flank of the arc-shaped cutting edge are curved with radii of curvatures (Ra, Rb), and the radius of curvature (Ra) of the arc-shaped cutting edge is smaller than the radius of curvature (Rb) of the rim at the rearward side of the rotation at the flank of the arc-shaped cutting edge, and the width (x) of the flank of the arc-shaped cutting edge becomes wider as it approaches the outer periphery and becomes largest at the outermost periphery of the end mill which is the connective part of the arc-shaped cutting edge and the peripheral edge.
A method comprising: causing a dialysate to flow through a dialysis fluid passage extending between inlet and outlet ports of a dialysis fluid chamber of a dialysis system that comprises a dialysis machine (105, 110), the dialysis fluid chamber comprising first and second apertures adjacent the fluid passage, a pH reactive material disposed over the first aperture, and a gas-permeable and waterproof membrane disposed over the second aperture, wherein the dialysis fluid chamber is removably attached to the dialysis machine (105, 110); determining an amount of carbon dioxide (CO 2) in the dialysate flowing through the dialysis fluid chamber of the dialysis system using a CO 2 sensor associated with the dialysis system, wherein the membrane aligns with the CO 2 sensor; determining, using a pH sensor associated with the dialysis machine (105, 110) of the dialysis system, a pH level of the dialysate, wherein pH reactive material aligns with the pH sensor; and calculating a level of bicarbonate in the dialysate based at least in part on the determined amount of CO 2 in the dialysate and the determined pH level of the dialysate. causing a dialysate to flow through a dialysis fluid passage extending between inlet and outlet ports of a dialysis fluid chamber of a dialysis system that comprises a dialysis machine (105, 110), the dialysis fluid chamber comprising first and second apertures adjacent the fluid passage, a pH reactive material disposed over the first aperture, and a gas-permeable and waterproof membrane disposed over the second aperture, first and second apertures adjacent the fluid passage, a pH reactive material disposed over the first aperture, and a gas-permeable and waterproof membrane disposed over the second aperture, wherein the dialysis fluid chamber is removably attached to the dialysis machine (105, 110); determining an amount of carbon dioxide (CO 2) in the dialysate flowing through the dialysis fluid chamber of the dialysis system using a CO 2 sensor associated with the dialysis system, wherein the membrane aligns with the CO 2 sensor; determining, using a pH sensor associated with the dialysis machine (105, 110) of the dialysis system, a pH level of the dialysate, wherein pH reactive material aligns with the pH sensor; and calculating a level of bicarbonate in the dialysate based at least in part on the determined amount of CO 2 in the dialysate and the determined pH level of the dialysate.
A computing system configured for rendering oversized glyphs to a monospace grid, the computing system comprising: a processor; a memory in operable communication with the processor; a display in operable communication with the processor, the display configured to display contents of glyphs in a monospace grid having at least two orthogonal axes and having grid cells; and a glyph renderer comprising rendering software which upon execution by the processor performs at least the following: (a) collects changed cells, namely, grid cells that upon being redrawn will get visible replacement glyph content; (b) collects affected cells, namely, to changed cells add cells that a changed cell or an affected cell overlaps; (c) clears the contents of changed or affected cells; and (d) redraws the contents of changed or affected cells in a redraw sequence which complies with a predefined grid traversal order, thereby replacing the contents of affected cells with their respective replacement glyph content, while avoiding redrawing visible cells which are not affected cells. a processor; a memory in operable communication with the processor; a display in operable communication with the processor, the display configured to display contents of glyphs in a monospace grid having at least two orthogonal axes and having grid cells; and a glyph renderer comprising rendering software which upon execution by the processor performs at least the following: (a) collects changed cells, namely, grid cells that upon being redrawn will get visible replacement glyph content; (b) collects affected cells, namely, to changed cells add cells that a changed cell or an affected cell overlaps; (c) clears the contents of changed or affected cells; and (d) redraws the contents of changed or affected cells in a redraw sequence which complies with a predefined grid traversal order, thereby replacing the contents of affected cells with their respective replacement glyph content, while avoiding redrawing visible cells which are not affected cells.
A process for purifying wastewater formed during the process of producing melamine from urea by technologies applying alkali metal hydroxides water solutions for melamine purification and separation by means of two stage wastewater treatment including thermal hydrolysis of wastewater characterized in that the main thermal hydrolysis is performed at the first stage at a temperature of 180 to 270°C to degrade 95.0 to 99.9% of triazine derivatives present in the wastewater, the water treated at the first stage is recycled at the amount of 20 to 80% into the process of producing melamine; and the final thermal hydrolysis of the other part of the wastewater treated at the first stage is performed at the second stage at a temperature of 180 to 270°C.
A welding process, in particular a cold metal transfer welding process for build-up welding, with a consumable welding wire, which is fed to a welding torch guided by a welding robot, wherein a welding procedure is formed by cyclic alternating of an arc phase and a short circuit phase, and the welding wire is moved in the direction of a workpiece during the arc phase up to contact with a workpiece and subsequently, after formation of a short circuit, during the short circuit phase the wire feeding is reversed and the welding wire is moved away from the workpiece, and wherein to establish the welding procedure a plurality of welding parameters (P i) are set, wherein during the welding procedure a preset melt-off efficiency (Ab) of the welding wire is kept substantially constant, by the average wire feed (v mean) of the welding wire being controlled, wherein the latest wire feed (v(t)) is measured and the average measured wire feed (v mean) is compared with a specified average wire feed (v soll_mean) corresponding to the desired melt-off efficiency (Ab), characterized in that in accordance with the deviation (Δv) of the average measured wire feed (v mean) from the specified average wire feed (v soll_mean) as control deviation, the welding current, the free wire length of the welding wire, the distance of the contact tube of the welding torch from the workpiece (CTWD Contact Tip to Work Distance) and/or the inclination angle of the welding torch are changed as welding parameters (P i).
Apparatus (100; 200) comprising a housing which encloses at least one apparatus mechanism with a functional part (12, 13) having a front face accessible to the user, wherein the housing comprises a base (110; 210) having a peripheral side wall (112, 212) with an external face (112B, 212B) and a front edge (112A, 212A) which delimits a front opening, and wherein a finishing block (140; 240) is provided, having a solid shape with a rear face (143; 243), a front face (142A; 242A), an external lateral face (141, 241) extending between the rear and front faces in the extension of the external face (112B, 212B) of the lateral wall (112, 212) of the base (110, 210) of the housing, and an internal lateral face (144; 244) which delimits a central through-housing (145; 244A, 244B) which opens out through openings (142B, 143B; 242B, 243B) on the front (142A; 242A) and rear (143; 243) faces, the finishing block (140; 240) forming with the base (110; 210) a single volume constituting the overall volume of the apparatus of which the overall volume of the finishing block (140; 240) represents a part, characterised in that the front opening of the base (110; 210) is closed by a closing wall (120, 220), around a central envelope (130; 230) receiving each apparatus mechanism, this central envelope (130; 230) rising a certain height above the front face of said closing wall (120; 220) in a direction perpendicular thereto so that the front face of the functional part (12, 13) of each apparatus mechanism is situated in height above the front face of the closure wall (120; 220), and in that the dimensions of said central housing (145; 244A, 244B) of the finishing block correspond, within the clearance, to the external dimensions of said central envelope (130; 230) and the surface of said rear face (143, 243) of the finishing block (140; 240) being provided so that when the finishing block (140; 240) is removably fitted to the front face of said closure wall (120; 220) around said central envelope (130; 230), the rear face (143; 243) of said finishing block (140; 240) covers the front face of said closure wall (120; 220), and the inner side face (144; 244) of this finishing block (140; 240) fits around the outer peripheral surface of the central envelope (130; 230) of the housing so that the edge of each opening (142B; 242B) opening onto the front face (142A; 242A) of said finishing block (140; 240) runs along the outer edge of the functional part of each apparatus mechanism and the front face (142A; 242A) of the finishing block (140; 240) extends around and touches the front face of the functional part (12, 13) of each apparatus mechanism to form with the front face of the functional part (12, 13) of each apparatus mechanism the front face of said apparatus.
A vacuum pump, in particular a turbomolecular pump, comprising a stator and a rotor which rotates relative to the stator about an axis of rotation in operation, between which stator and rotor at least one radial magnetic bearing is arranged which has bearing packages (21, 25) which are disposed coaxially in one another with respect to the axis of rotation and which are each composed of a plurality of axially consecutive permanent magnet rings (31, 35), wherein at least one of the bearing packages is axially clamped between two adjustment sections (17, 19) of an adjustment device, wherein the adjustment sections (17, 19) behave in such a manner under the influence of heat that an axial displacement of the bearing package clamped between the adjustment sections (17, 19) results, characterized in that at least one of the adjustment sections comprises at least one adjustment element which is at least partly composed of a bimetal, with the adjustment element being configured such that, starting from a flat or slightly curved state, it transitions into a curved or more curved state on a temperature change, with preferably the adjustment element being shaped like a plate spring in the curved or more curved state, or with the adjustment element being configured as a wave spring in which the amplitude of its wave form changes on a temperature change. wherein at least one of the bearing packages is axially clamped between two adjustment sections (17, 19) of an adjustment device, wherein the adjustment sections (17, 19) behave in such a manner under the influence of heat that an axial displacement of the bearing package clamped between the adjustment sections (17, 19) results, characterized in that at least one of the adjustment sections comprises at least one adjustment element which is at least partly composed of a bimetal, with the adjustment element being configured such that, starting from a flat or slightly curved state, it transitions into a curved or more curved state on a temperature change, with preferably the adjustment element being shaped like a plate spring in the curved or more curved state, or with the adjustment element being configured as a wave spring in which the amplitude of its wave form changes on a temperature change.
A method for reducing thermal wake proximate to an optical element of a telescope, the method comprising: generating signals related to respective temperatures of support struts supporting the optical element; determining the respective temperatures of the support struts based on the signals; heating, with a respective heating element disposed on each support strut, each of the respective support struts based on the respective temperature of the respective support strut, wherein heating a given support strut causes the given support strut to thermally expand, each of the support struts being at least partially enclosed along with the corresponding heating element by a corresponding shroud, wherein airspaces are disposed between individual ones of the support struts and the corresponding shrouds; and ejecting heat emitted in the respective airspaces from the respective heating elements away from the optical element to prevent a thermal wake from reaching a volume proximate to the optical element; wherein ejecting the heat includes generating airflows in the airspaces disposed between individual ones of the support struts and the corresponding shrouds by airflow generation devices; and wherein, for each airflow generation device, a transition apparatus couples the airflow generation device to an exhaust duct, the transition apparatus having a circular opening coupled to the airflow generation device and a rectangular opening coupled to the exhaust duct, wherein the circular opening is larger than the rectangular opening and the rectangular opening is narrower than the circular opening. generating signals related to respective temperatures of support struts supporting the optical element; determining the respective temperatures of the support struts based on the signals; heating, with a respective heating element disposed on each support strut, each of the respective support struts based on the respective temperature of the respective support strut, wherein heating a given support strut causes the given support strut to thermally expand, each of the support struts being at least partially enclosed along with the corresponding heating element by a corresponding shroud, wherein airspaces are disposed between individual ones of the support struts and the corresponding shrouds; and ejecting heat emitted in the respective airspaces from the respective heating elements away from the optical element to prevent a thermal wake from reaching a volume proximate to the optical element; wherein ejecting the heat includes generating airflows in the airspaces disposed between individual ones of the support struts and the corresponding shrouds by airflow generation devices; and wherein, for each airflow generation device, a transition apparatus couples the airflow generation device to an exhaust duct, the transition apparatus having a circular opening coupled to the airflow generation device and a rectangular opening coupled to the exhaust duct, wherein the circular opening is larger than the rectangular opening and the rectangular opening is narrower than the circular opening.
A vehicle door system comprising: a door; and a check mechanism comprising: a check arm housing mounted within the door cavity; and a check arm arranged for connection to a vehicle body, the door is formed from a plurality of panels which define a door cavity, one of the panels having an aperture therein at a hinged end of the door; and the check arm extends through the aperture and through the check arm housing, and is movable through the check arm housing to allow opening and closing of the door, wherein the check arm includes flow restriction means formed on the check arm and arranged to restrict the flow of water along the check arm through the aperture, characterised in that the check arm housing is spaced from the aperture, and the flow restriction means is arranged to be located between the check arm housing and the aperture when the door is closed. a door; and a check mechanism comprising: a check arm housing mounted within the door cavity; and a check arm arranged for connection to a vehicle body, a check arm housing mounted within the door cavity; and a check arm arranged for connection to a vehicle body, the door is formed from a plurality of panels which define a door cavity, one of the panels having an aperture therein at a hinged end of the door; and the check arm extends through the aperture and through the check arm housing, and is movable through the check arm housing to allow opening and closing of the door,
Process for preparing isononylamines starting out from 2-ethylhexanol, characterized in that (a) 2-ethylhexanol is dehydrated in the presence of a catalyst to form octene; (b) the octene obtained in step a) is reacted with carbon monoxide and hydrogen in the presence of a transition metal compound of group VIII of the Periodic Table of the Elements to form isononanal; and (c) the isononanal obtained in step b) is converted into isononylamines. (a) 2-ethylhexanol is dehydrated in the presence of a catalyst to form octene; (b) the octene obtained in step a) is reacted with carbon monoxide and hydrogen in the presence of a transition metal compound of group VIII of the Periodic Table of the Elements to form isononanal; and (c) the isononanal obtained in step b) is converted into isononylamines.