mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing plate parts of a heat exchanger, in which method a sheet material in the form of continuous sheeting is worked between two rolls (5, 6) with opposite surface patterns (7, 7', 8) to form profiled plate part blanks (3, 3', 3") comprising the grooves and the ridges between them into the sheet material, wherein the rolls (5, 6) are synchronized to rotate at substantially same rate by controlling the rotation of them in relation to each other with common synchronization gear, which gear is coupled to the rolls (5, 6) by means of shafts (10, 11) with disk pack or gear couplings so that the backlash is less than 0.1 mm, and wherein in the method two or more corrugated plate part blanks (3, 3', 3") of the heat exchanger are formed into the sheet material during one revolution of the rolls (5, 6), wherein the plate part blanks (3, 3', 3") with similar surface patterns are arranged to the opposite sides of the rolls and further checking patterns are formed into the sheet material on both sides of the plate part blank by the rolls, and the sheet material with profiled plate part blanks (3, 3', 3") is conveyed to the laser cutting equipment and the profiled plate part blanks (3, 3', 3") are cut off from the sheet material, wherein a function of the laser cutting equipment is synchronized with the rotation speed of the rolls (5, 6) and the checking patterns arranged on both side of the plate part blank to be cut are photographed and compared to the reference image for adjusting alignment of the laser cutting equipment. wherein the rolls (5, 6) are synchronized to rotate at substantially same rate by controlling the rotation of them in relation to each other with common synchronization gear, which gear is coupled to the rolls (5, 6) by means of shafts (10, 11) with disk pack or gear couplings so that the backlash is less than 0.1 mm, and wherein in the method two or more corrugated plate part blanks (3, 3', 3") of the heat exchanger are formed into the sheet material during one revolution of the rolls (5, 6), wherein the plate part blanks (3, 3', 3") with similar surface patterns are arranged to the opposite sides of the rolls and further checking patterns are formed into the sheet material on both sides of the plate part blank by the rolls, and the sheet material with profiled plate part blanks (3, 3', 3") is conveyed to the laser cutting equipment and the profiled plate part blanks (3, 3', 3") are cut off from the sheet material, wherein a function of the laser cutting equipment is synchronized with the rotation speed of the rolls (5, 6) and the checking patterns arranged on both side of the plate part blank to be cut are photographed and compared to the reference image for adjusting alignment of the laser cutting equipment.
Conveying system comprising: - two axially spaced supporting frames (2, 3) extending substantially in parallel along the feed direction of the conveying system; - at least one plurality of driving elements supported by said supporting frames (2, 3); - at least one motor for driving at least one portion of said plurality of driving elements; - at least one transmission assembly for transferring the motion from said motor to said at least one portion of the plurality of driving elements; - a control system for controlling the driving of said plurality of driving elements; - a power supply system for electrically supplying said control system and said at least one motor; - at least one housing compartment transversely extending between the two supporting frames (2, 3), from a supporting frame to the remaining one; - said at least one housing compartment comprising fastening means (13, 16) for constraining said at least one housing compartment between the two supporting frames (2, 3); characterized in that it comprises: - said power supply system comprises at least one power supply board configured to convert the mains voltage into at least one DC voltage; - said at least one housing compartment being provided with at least one housing seat for accommodating said at least one power supply board of said power supply system; - said at least one motor is arranged externally to said at least one housing compartment. - two axially spaced supporting frames (2, 3) extending substantially in parallel along the feed direction of the conveying system; - at least one plurality of driving elements supported by said supporting frames (2, 3); - at least one motor for driving at least one portion of said plurality of driving elements; - at least one transmission assembly for transferring the motion from said motor to said at least one portion of the plurality of driving elements; - a control system for controlling the driving of said plurality of driving elements; - a power supply system for electrically supplying said control system and said at least one motor; - at least one housing compartment transversely extending between the two supporting frames (2, 3), from a supporting frame to the remaining one; - said at least one housing compartment comprising fastening means (13, 16) for constraining said at least one housing compartment between the two supporting frames (2, 3); - said power supply system comprises at least one power supply board configured to convert the mains voltage into at least one DC voltage; - said at least one housing compartment being provided with at least one housing seat for accommodating said at least one power supply board of said power supply system; - said at least one motor is arranged externally to said at least one housing compartment.
A vehicle comprising: a drive wheel; an engine; a clutch; an idle speed control device for performing idle speed control to adjust an idle rotational speed of the engine; and an electronic continuously variable transmission having an input shaft and an output shaft (22a1); characterised by further comprising a control unit for suppressing or stopping the idle speed control when the clutch is engaged; wherein the clutch is located between the output shaft (22a1) and the drive wheel and is adapted to be engaged or disengaged according to the rotational speed of the output shaft (22a1). an engine; a clutch; an idle speed control device for performing idle speed control to adjust an idle rotational speed of the engine; and an electronic continuously variable transmission having an input shaft and an output shaft (22a1); characterised by further comprising a control unit for suppressing or stopping the idle speed control when the clutch is engaged; wherein the clutch is located between the output shaft (22a1) and the drive wheel and is adapted to be engaged or disengaged according to the rotational speed of the output shaft (22a1).
A cleaning system for a combine harvester includes a fan, and at least one duct having an interior passageway that is positioned to receive an air stream from the fan, the cleaning system further comprising a surface (230, 232, 302, 402, 504) defined within the interior passageway of the at least one duct that is configured to restrict a volume and increase a pressure of the flow of air passing through the at least one duct, characterized in that the surface (230, 232, 302, 402, 504) has an hour-glass shape as viewed in cross-section. the cleaning system further comprising a surface (230, 232, 302, 402, 504) defined within the interior passageway of the at least one duct that is configured to restrict a volume and increase a pressure of the flow of air passing through the at least one duct, characterized in that the surface (230, 232, 302, 402, 504) has an hour-glass shape as viewed in cross-section.
A sealing member comprising: an elastic member having an annular abutment portion formed as an annular protrusion; and a base member to which the elastic member is to be fixed, wherein the elastic member has a held portion having a tubular shape extending from the annular abutment portion and is fixed to the base member when the held portion is held in an annular groove formed in the base member, and a holding length over which the annular groove holds the held portion along a depth direction of the base member is longer than a width of the annular groove, wherein the elastic member has a reinforcing portion extending from the annular abutment portion and the held portion to an outside of the annular abutment portion, and at least part of the reinforcing portion is held in a groove formed in the base member, and characterized in that the base member has a through hole that is formed in a bottom portion of the annular groove in such a manner as to pass through the base member. an elastic member having an annular abutment portion formed as an annular protrusion; and a base member to which the elastic member is to be fixed, wherein the elastic member has a held portion having a tubular shape extending from the annular abutment portion and is fixed to the base member when the held portion is held in an annular groove formed in the base member, and a holding length over which the annular groove holds the held portion along a depth direction of the base member is longer than a width of the annular groove, wherein the elastic member has a reinforcing portion extending from the annular abutment portion and the held portion to an outside of the annular abutment portion, and at least part of the reinforcing portion is held in a groove formed in the base member, and characterized in that the base member has a through hole that is formed in a bottom portion of the annular groove in such a manner as to pass through the base member.
A system for identifying an end expirium, the system comprising: a catheter configured to be inserted into a cavity of a patient at least one sensor configured to detect a position of the catheter; and a processor (4, 4b) configured to (i) identify an initial end expirium prior to ablation among a plurality of end expiriums, (ii) determine a catheter velocity during ablation, and (iii) identify an estimated end expirium during ablation among the plurality of end expiriums when the velocity of the catheter is less than a predetermined velocity, and a location of the estimated end expirium is less than a predetermined distance from a location of the initial end expirium prior to ablation. a catheter configured to be inserted into a cavity of a patient at least one sensor configured to detect a position of the catheter; and a processor (4, 4b) configured to (i) identify an initial end expirium prior to ablation among a plurality of end expiriums, (ii) determine a catheter velocity during ablation, and (iii) identify an estimated end expirium during ablation among the plurality of end expiriums when the velocity of the catheter is less than a predetermined velocity, and a location of the estimated end expirium is less than a predetermined distance from a location of the initial end expirium prior to ablation.
A precision calibrating device for a magnetorheological polishing device including a polishing wheel and a support base configured to mount the polishing wheel, comprising: an arc-shaped support bracket, a sensor, a signal acquisition module, an industrial personal computer, and a motion control module; wherein the arc-shaped support bracket is detachably connected with the support base; the arc-shaped support bracket defines an arc-shaped surface attached to the polishing wheel; the sensor is fixed on the arc-shaped support bracket; the sensor is configured to detect a polishing gap between the polishing wheel and a surface of an optical element to be processed; wherein the signal acquisition module is connected with the sensor; the IPC is connected with the signal acquisition module and the motion control module; the motion control module is connected with a control system of the magnetorheological polishing device; the IPC is configured to send an instruction to the signal acquisition module and the motion control module; the signal acquisition module is configured to control the sensor to collect data; the motion control module is configured to send the instruction to the control system, so that the polishing wheel moves along a predetermined processing trajectory. an arc-shaped support bracket, a sensor, a signal acquisition module, an industrial personal computer, and a motion control module; wherein the arc-shaped support bracket is detachably connected with the support base; the arc-shaped support bracket defines an arc-shaped surface attached to the polishing wheel; the sensor is fixed on the arc-shaped support bracket; the sensor is configured to detect a polishing gap between the polishing wheel and a surface of an optical element to be processed; wherein the signal acquisition module is connected with the sensor; the IPC is connected with the signal acquisition module and the motion control module; the motion control module is connected with a control system of the magnetorheological polishing device; the IPC is configured to send an instruction to the signal acquisition module and the motion control module; the signal acquisition module is configured to control the sensor to collect data; the motion control module is configured to send the instruction to the control system, so that the polishing wheel moves along a predetermined processing trajectory.
A tagged excavation element including: an excavation element body (20, 30); and a tagging device securable to the excavation element body (20, 30); characterized in that the tagging device includes a radioactive source. an excavation element body (20, 30); and a tagging device securable to the excavation element body (20, 30); characterized in that the tagging device includes a radioactive source.
A method operable on a wireless mobile device comprising: receiving multimedia content over a first wireless communication channel established using one or more wireless modems from a first application of a source device; establishing, with the one or more wireless modems, a second wireless communication channel for enabling communication for a second application of a destination device; determining channel data corresponding to one or more characteristics associated with the second wireless communication channel; determining one or more profiles based on the source device or the destination device; determining resource data delineating the current utilization of resources within the mobile device; configuring, based on the channel data, the one or more profiles and the resource data, a multimedia bridge that transforms video data from a first format implemented by the source application to a second format implemented by the destination application; transforming, using the multimedia bridge, the received multimedia content from the first format implemented by the source application to the second format implemented by the destination application to produce transformed multimedia content; and forwarding, with the wireless modems, the transformed multimedia content to the second application. receiving multimedia content over a first wireless communication channel established using one or more wireless modems from a first application of a source device; establishing, with the one or more wireless modems, a second wireless communication channel for enabling communication for a second application of a destination device; determining channel data corresponding to one or more characteristics associated with the second wireless communication channel; determining one or more profiles based on the source device or the destination device; determining resource data delineating the current utilization of resources within the mobile device; configuring, based on the channel data, the one or more profiles and the resource data, a multimedia bridge that transforms video data from a first format implemented by the source application to a second format implemented by the destination application; transforming, using the multimedia bridge, the received multimedia content from the first format implemented by the source application to the second format implemented by the destination application to produce transformed multimedia content; and forwarding, with the wireless modems, the transformed multimedia content to the second application.
Bipolar plate for an electrochemical cell, comprising a flow field arranged between two plate elements (10, 12) with a flow inlet and a flow outlet for a coolant flowing through the flow field, wherein each plate element (10, 12) has a contact plane for contacting the respective other plate element (10, 12) and a plurality of protrusions (14, 24) projecting from the contact plane and facing away from the respective other plate element (10, 12) between the flow inlet and the flow outlet, which protrusions have apertures towards the contact plane, and wherein flow channels are formed by means of the apertures of the protrusions (14, 24) in that the protrusions (14, 24) of the two plate elements (10, 12) are offset relative to one another such that each protrusion (14, 24) only partially overlaps at least one protrusion (14, 24) of the respective other plate element (10, 12), characterised in that in the region of a connecting line corresponding to the shortest route between the flow inlet and the flow outlet, individual protrusions or at least one group comprising two or more smaller protrusions arranged immediately adjacent to one another, which individual protrusions or group are in each case surrounded on at least three sides by the remaining protrusions, are smaller than said remaining protrusions, so that the flow channels are constricted or interrupted in the region of the smaller protrusions, and bring about a diversion of the coolant deviating from the shortest route between the flow inlet and the flow outlet.
An atomization assembly, comprising a high frequency heating module; wherein the high frequency heating module comprises a metal screen and a magnetic induction coil; the metal screen is disposed in the magnetic induction coil and is configured to heat a smoke material placed on the metal screen in a power-on state; characterized in that: the high frequency heating module further comprises a magnet and a handle; the magnet is disposed on a top end of the metal screen and attracts the handle.
Gravimetric measuring device, comprising a weighing chamber having a vertical weighing chamber wall which is designed as a support structure with cover modules which are detachably fastened thereto on the weighing chamber side and which each comprise a module front wall on the weighing chamber side and cover the support structure at least in regions, wherein the cover modules have locking cantilevers directed towards the support structure, characterized in that the locking cantilevers are provided with vertically oriented through-openings which align with corresponding openings (20, 22) of the support structure, wherein the cover modules are locked to the support structure by means of locking rods which penetrate the mutually aligned openings (40; 20, 22) of the cover modules and of the support structure. wherein the cover modules have locking cantilevers directed towards the support structure, characterized in that the locking cantilevers are provided with vertically oriented through-openings which align with corresponding openings (20, 22) of the support structure, wherein the cover modules are locked to the support structure by means of locking rods which penetrate the mutually aligned openings (40; 20, 22) of the cover modules and of the support structure.
A box moving device for changing the position of a box having four side surfaces (C11, C12, C13, C14) that are connected to each other in a loop, the box moving device comprising: a conveyor (21, 22) that has at least a holding mode in which it holds at least one of the side surfaces (C11, C12, C13, C14) of the box; and a movement control unit that drives the conveyor (21, 22) to cause the box to move along a moving direction from a first position to a second position, wherein the conveyor (21, 22) can alternately switch between a first state, in which it is contracted along the moving direction, and a second state, in which it is extended along the moving direction, and the movement control unit causes the box to move from the first position to the second position while holding at least one of the side surfaces (C11, C12, C13, C14) of the box, by driving the conveyor (21, 22) that is in the holding mode and simultaneously switching the conveyor (21, 22) from the first state to the second state. a conveyor (21, 22) that has at least a holding mode in which it holds at least one of the side surfaces (C11, C12, C13, C14) of the box; and a movement control unit that drives the conveyor (21, 22) to cause the box to move along a moving direction from a first position to a second position, wherein the conveyor (21, 22) can alternately switch between a first state, in which it is contracted along the moving direction, and a second state, in which it is extended along the moving direction, and the movement control unit causes the box to move from the first position to the second position while holding at least one of the side surfaces (C11, C12, C13, C14) of the box, by driving the conveyor (21, 22) that is in the holding mode and simultaneously switching the conveyor (21, 22) from the first state to the second state.
A method comprising capturing current and past data frames of a vehicle scenery with an automotive imaging sensor, reading, by means of a recurrent neural network, the current and past data frames as input vectors, and predicting, by means of the recurrent neural network, the future position of a moving object in the vehicle scenery based on the current and past data frames, wherein predicting the future position of the moving object comprises calculating a predicted data frame based on the captured data frames and identifying the moving object in the predicted data frame. capturing current and past data frames of a vehicle scenery with an automotive imaging sensor, reading, by means of a recurrent neural network, the current and past data frames as input vectors, and predicting, by means of the recurrent neural network, the future position of a moving object in the vehicle scenery based on the current and past data frames, wherein predicting the future position of the moving object comprises calculating a predicted data frame based on the captured data frames and identifying the moving object in the predicted data frame.
Granules containing one or more bleaching catalysts selected from the group of manganese salts or manganese complexes and at least one binder selected from the group of acidic organic compounds, wherein the granules are coated with 0.1 to 3 % by weight, referring to the total amount of the granules, with a polyvinyl alcohol containing coating, wherein the coating comprises at least 80 % by weight of polyvinyl alcohol or mixtures thereof, in relation to the total weight of the coating.