Electrolytic tank electrode mesh assembly flatness measuring and shaping machine and measuring and shaping method

Abstract

The invention discloses an electrolytic bath electrode mesh assembly flatness measuring and shaping machine which comprises a main machine used for fixing an electrode mesh assembly, a feeding mechanism and a measuring and shaping module. A longitudinal moving space for the electrode mesh assembly to move in and out in the longitudinal direction is formed between the vertical frame type base and the movable frame type pressing plate; the feeding mechanism is arranged on one longitudinal side of the main machine; the measuring and shaping module comprises a measuring mechanism and a shaping mechanism; the measuring mechanism comprises an electrode frame end face flatness measuring device used for detecting the flatness of the two end faces of an electrode frame of the electrode mesh assembly, and an electrode mesh flatness measuring device used for detecting the flatness of the end face of an electrode mesh of the electrode mesh assembly. The shaping mechanisms are arranged on the two transverse sides of the main machine respectively and used for shaping and leveling the flatness of the electrode mesh. According to the invention, the flatness measurement precision and the measurement shaping efficiency of the electrode mesh assembly of the electrolytic cell are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of flatness measurement of electrode mesh assemblies for electrolytic cells, and particularly to a flatness measurement and shaping machine and a measurement and shaping method for electrode mesh assemblies of electrolytic cells. Background Art

[0002] The electrode mesh assembly of an electrolytic cell includes a cell frame, a partition plate disposed in the middle of the cell frame, and electrode meshes connected to the inner edge positions at both ends of the cell frame (one end is an anode electrode mesh and the other end is a cathode electrode mesh), which is a key component of the electrolytic cell. The flatness (also known as the planarity) of the end face of the cell frame of the electrode mesh assembly of the electrolytic cell directly affects the installation reliability of the electrolytic cell, and the flatness of the electrode mesh directly affects the electrolysis performance, efficiency, and service life of the electrolytic cell.

[0003] After the electrode mesh assembly of the electrolytic cell is manufactured in the prior art, it is usually necessary to measure the flatness of the electrode mesh assembly of the electrolytic cell to ensure that its flatness meets the design requirements. The typical method for measuring the flatness of the electrode mesh assembly of the electrolytic cell in the prior art is as follows: The electrode mesh assembly of the electrolytic cell is placed on a detection platform, and then multiple general measurement tools (such as a straightedge, a square, a height gauge, etc.) are used by the measurement personnel to perform multi-point measurement of the flatness of the cell frame and the electrode mesh. The problems existing therein are: The efficiency of manual multi-point measurement is low, the manual measurement accuracy is not high, and it is difficult to correct when it is found that the flatness of the electrode mesh is unqualified.

[0004] In view of the above problems, it is necessary to develop a new technology for measuring and shaping the flatness of the electrode mesh assembly of the electrolytic cell. Summary of the Invention

[0005] In order to solve the above problems, the present invention provides a flatness measurement and shaping machine and a measurement and shaping method for electrode mesh assemblies of electrolytic cells, aiming to improve the accuracy of flatness measurement and the efficiency of measurement and shaping of electrode mesh assemblies of electrolytic cells. The specific technical solutions are as follows: An electrolytic cell electrode mesh assembly flatness measurement and shaping machine, the electrode mesh assembly including a pole frame, support handles disposed at intermediate positions on the outer sides of both sides of the pole frame, and an electrode mesh connected within the pole frame; the electrolytic cell electrode mesh assembly flatness measurement and shaping machine includes a main body of the flatness measurement and shaping machine for fixing the electrode mesh assembly, and a feeding mechanism and a measurement and shaping module configured to be provided in a supporting manner with the main body. The main body includes a fixedly provided vertical frame-type base, and a movable frame-type pressing plate facing the vertical frame-type base and capable of moving away from or approaching the vertical frame-type base. A longitudinal movement space is formed between the vertical frame-type base and the movable frame-type pressing plate for the electrode mesh assembly to move into and out of longitudinally; wherein, the feeding mechanism is disposed on one longitudinal side of the main body, and is configured to longitudinally move the electrolytic cell electrode mesh assembly into the longitudinal movement space, and press and fix the pole frame of the electrolytic cell electrode mesh assembly fed into the longitudinal movement space by means of a lateral movement of the movable frame-type pressing plate towards the vertical frame-type base; the measurement and shaping module includes a measurement mechanism and a shaping mechanism; wherein, the measurement mechanism includes a pole frame end face flatness measurement device for performing flatness detection on both end faces of the pole frame of the electrode mesh assembly, which are respectively disposed on the vertical frame-type base and the movable frame-type pressing plate; the measurement mechanism further includes an electrode mesh flatness measurement device for performing flatness detection on the end faces of the electrode mesh of the electrode mesh assembly, and the number thereof is two sets and they are respectively disposed on both lateral sides of the main body; the number of the shaping mechanisms is two sets and they are respectively disposed on both lateral sides of the main body, and are configured to shape and level the flatness of the electrode mesh.

[0006] Preferably, in the main body of the flatness measurement and shaping machine, a plurality of mounting and connecting seats are respectively disposed at intervals longitudinally on the upper end face and the lower end face of the vertical frame-type base. The mounting and connecting seats extend laterally towards the side of the movable frame-type pressing plate, and tension cylinders are fixed on the mounting and connecting seats. A plurality of telescopic rod connecting blocks are respectively disposed at intervals longitudinally on the upper end face and the lower end face of the movable frame-type pressing plate. The telescopic rods of the plurality of tension cylinders are correspondingly connected to the plurality of telescopic rod connecting blocks. When the telescopic rods of the tension cylinders perform telescopic movement, the movable frame-type pressing plate is driven to perform a lateral movement away from or approaching the vertical frame-type base through the telescopic rod connecting blocks, so as to correspondingly clamp or release the pole frame of the electrode mesh assembly; wherein, the tension cylinders are tensioning oil cylinders or tensioning servo electric cylinders.

[0007] Preferably, side frames extending horizontally towards the side of the movable frame pressing plate are respectively arranged at the longitudinal two sides of the vertical frame base, and a plurality of mounting and connecting seats are arranged at intervals in the vertical direction on the side frames. A pressing cylinder for horizontally pressing the movable frame pressing plate is fixed on the mounting and connecting seats. A plurality of telescopic rod connecting blocks are respectively arranged at intervals in the vertical direction on the longitudinal two side end faces of the movable frame pressing plate. The telescopic rods of the plurality of pressing cylinders are correspondingly connected to the plurality of telescopic rod connecting blocks. The telescopic rods of the pressing cylinders and the telescopic rods of the tensioning cylinders move in the same direction, so as to drive the movable frame pressing plate to move horizontally away from or close to the vertical frame base through the telescopic rod connecting blocks, thereby correspondingly clamping or loosening the pole frame of the electrode mesh assembly; wherein, the pressing cylinder is an oil cylinder for pressing or a servo electric cylinder for pressing.

[0008] In the present invention, avoidance notches for preventing interference when the feeding mechanism conveys the electrolytic cell electrode mesh assembly into the longitudinal movement space are formed inside the extended sections of the mounting and connecting seats on the upper end face and the lower end face of the vertical frame base.

[0009] In the present invention, a long strip-shaped notch is arranged in the vertical direction on the side frame, which is used for the electrode mesh assembly to longitudinally move through the long strip-shaped notch and enter the longitudinal movement space.

[0010] Preferably, the initial position of the electrolytic cell electrode mesh is arranged outside the longitudinal one side of the main machine. A U-shaped arm facing the long strip-shaped notch is arranged at the outside position of the side frame on the longitudinal other side of the main machine. A longitudinal distance measuring sensor for detecting the longitudinal movement position of the electrolytic cell electrode mesh assembly is arranged on the U-shaped arm.

[0011] Wherein, the longitudinal distance measuring sensor is used to cooperate with the feeding mechanism to accurately position the electrolytic cell electrode mesh assembly entering the longitudinal movement space.

[0012] In the present invention, the feeding mechanism includes a horizontal longitudinal long guide rail, a vertical positioning sheet body frame movably arranged on the horizontal longitudinal long guide rail, a U-shaped opening arranged at the upper part of the vertical positioning sheet body frame for placing the electrode mesh assembly, a pair of positioning seats arranged at both sides of the upper part of the U-shaped opening of the vertical positioning sheet body frame, and a handle positioning groove arranged on the positioning seats for positioning the supporting handle; a pair of supporting handles on both sides of the electrode frame are correspondingly seated on a pair of positioning seats of the vertical positioning sheet body frame; an adaptive lateral offset floating device for realizing the adaptive lateral offset of the electrode frame is arranged between the vertical positioning sheet body frame and the positioning seats, and the adaptive lateral offset floating device includes a pair of seat plates fixedly arranged at both sides of the upper part of the U-shaped opening of the vertical positioning sheet body frame, a horizontal lateral short guide rail arranged on the seat plates and perpendicular to the horizontal longitudinal long guide rail, and a lateral slider arranged on the horizontal lateral short guide rail, and the positioning seats are fixed on the lateral sliders; a pair of baffles are correspondingly arranged on the lateral sides of the seat plates, a retaining tongue is arranged at the lower end of the positioning seat, the retaining tongue is located between the pair of baffles, and a pair of springs are correspondingly arranged between the retaining tongue and the pair of baffles; the horizontal longitudinal long guide rail enters the longitudinal movement space of the main machine longitudinally from the outside and is located below the longitudinal movement space of the main machine and passes through the avoidance notch on the installation and connection seat.

[0013] In the present invention, the flatness measuring device for the end face of the electrode frame in the measuring mechanism includes air blowing holes respectively arranged on the vertical frame base and the movable frame pressing plate in an array arrangement, the air blowing holes blow towards the end face of the electrode frame, and each of the air blowing holes is respectively connected to a constant pressure air supply system through a pneumatic pipeline.

[0014] In the present invention, the flatness measuring device for the electrode mesh in the measuring mechanism includes a wire mesh flatness detection rod arranged beside the main machine of the flatness measuring and shaping machine and capable of translating in the vertical and horizontal directions, and an inductive proximity sensor arranged on the wire mesh flatness detection rod; the inductive proximity sensor is arranged close to the electrode mesh of the electrolytic cell electrode mesh assembly.

[0015] Preferably, the wire mesh flatness detection rod is arranged at the lateral two sides beside the main machine of the flatness measuring and shaping machine to realize the flatness detection of the electrode mesh of the electrolytic cell electrode mesh assembly from both sides respectively.

[0016] Preferably, three-axis moving devices capable of realizing XYZ three-way movement are respectively arranged at the lateral two sides of the main machine of the flatness measuring and shaping machine, and the wire mesh flatness detection rod is arranged on the three-axis moving devices.

[0017] In the present invention, the inductive proximity sensor is connected to the control system of the flatness measuring and shaping machine.

[0018] In the present invention, frames are respectively arranged on both sides of the main body of the flatness measurement and shaping machine, and the three-axis moving device is respectively arranged on the frames on both sides of the main body of the flatness measurement and shaping machine.

[0019] Preferably, the three-axis moving device includes a column, a lifting seat arranged on the column, and a horizontal telescopic shaft for measurement arranged on the lifting seat, and the wire mesh flatness detection rod is arranged on the horizontal telescopic shaft for measurement of the three-axis moving device.

[0020] In the present invention, the shaping mechanism includes a wire mesh flatness shaping rod arranged beside the main body of the flatness measurement and shaping machine and capable of translating in the up-down direction, left-right direction, and front-back direction, and a shaping block arranged at the end of the wire mesh flatness shaping rod.

[0021] In the present invention, the three-axis moving device further includes a horizontal telescopic shaft for shaping arranged on the lifting seat, and the wire mesh flatness shaping rod is arranged on the horizontal telescopic shaft for shaping of the three-axis moving device.

[0022] A measurement and shaping method of an electrolytic cell electrode mesh assembly flatness measurement and shaping machine according to the present invention includes the following steps: (1) Preparation: Install the electrolytic cell electrode mesh assembly on the feeding mechanism; (2) Feeding: Move the electrolytic cell electrode mesh assembly longitudinally through the feeding mechanism into the longitudinal movement space inside the main body of the electrolytic cell electrode mesh assembly flatness measurement and shaping machine; (3) Clamping and fixing: Open the tension cylinder and the jacking cylinder on the main body, so that the movable frame-type pressing plate moves horizontally towards the direction of the vertical frame-type base, thereby clamping the electrode frame of the electrolytic cell electrode mesh assembly between the vertical frame-type base and the movable frame-type pressing plate; (4) Measurement of the flatness of the electrode frame end face: Supply constant pressure gas to each air blowing hole on the vertical frame-type base and the movable frame-type pressing plate respectively through the constant pressure gas supply system, and the control system respectively judges whether the gas reaching each air blowing hole leaks between the electrode frame and the vertical frame-type base and between the electrode frame and the movable frame-type pressing plate through the flow meters arranged on the pneumatic pipelines of each air blowing hole. When leakage occurs and the leakage amount reaches the set threshold, an alarm is issued, and the specific position information of the leakage part is indicated to facilitate the operator to perform corresponding processing; (5) Measurement of the flatness of the electrode mesh: The inductive proximity sensor at the front end of the wire mesh flatness detection rod arranged on the horizontal telescopic shaft for measurement of the three-axis moving device moves to a position close to the electrode mesh, and the flatness of the electrode mesh is measured through translation in the up, down, left, and right directions to obtain the flatness data of each part of the surface of the electrode mesh; (6) Electrode mesh shaping: Use a shaping mechanism to shape the parts of the electrode mesh surface with out-of-tolerance flatness.

[0023] After shaping is completed, loosen the tension cylinder and the clamping cylinder on the main machine, and use the feeding mechanism to withdraw the electrolytic cell electrode mesh assembly from the longitudinal movement space of the main machine to the outside of the main machine, and unload the electrolytic cell electrode mesh assembly.

[0024] Preferably, the vertical frame base, the movable frame pressing plate and the pole frame in the present invention are all rectangular frames. However, according to the working principle of this embodiment, the vertical frame base, the movable frame pressing plate and the pole frame can also be annular frames of other shapes.

[0025] The beneficial effects of the present invention are: Adopt an integrated structure of feeding, clamping and fixing, measuring, shaping, and discharging. Under the control of the control system, it can realize the automatic fixing, automatic measurement and automatic flatness correction (shaping) of the electrode mesh assembly, thereby overcoming the disadvantages of the conventional measurement and shaping methods, such as troublesome operation and low measurement accuracy. It has high measurement accuracy and high efficiency of measurement and shaping. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 is a schematic structural diagram of the electrolytic cell electrode mesh assembly flatness measurement and shaping machine of the present invention; Figure 2 is Figure 1 the top view of Figure 3 is Figure 2 the three-dimensional structural diagram of the main machine part in Figure 4 is to Figure 3 the structural diagram after removing the movable frame pressing plate and the telescopic rod connecting block in Figure 5 is Figure 1 the structural diagram of the feeding mechanism in (the electrode mesh assembly is in the initial position); Figure 6 is Figure 5 the structural diagram of the part related to the adaptive lateral offset floating device in Figure 7 is Figure 6 the cross-sectional view of the part related to the adaptive lateral offset floating device in (left view, the electrode mesh assembly at this position has moved from the initial position to the position in the longitudinal movement space of the electrolytic cell electrode mesh assembly flatness measurement and shaping machine); Figure 8 is to Figure 5 the schematic diagram after removing the electrode mesh assembly in Figure 9 is the schematic structural diagram of the electrode mesh assembly.

[0027] Figure 10 It is a schematic structural diagram of a measuring mechanism; Figure 11 It is Figure 10 a partial enlarged view of; Figure 12 It is Figure 10 a schematic structural diagram of the structure where air blowing holes and grooves are provided on the end faces of the vertical frame base and the movable frame pressing plate in (the illustrated end face is the end face in contact with the end face of the pole frame); Figure 13 It is Figure 12 a partial enlarged view of.

[0028] Figure 14 It is a schematic structural diagram of a shaping mechanism; Figure 15 It is Figure 14 a schematic structural diagram (partial enlarged view) of the part related to the shaping block in; Figure 16 It is Figure 15 the left view of.

[0029] In the figure: 000, main machine; 001, vertical frame base; 002, movable frame pressing plate; 003, longitudinal movement space; 004, control system; 005, installation and connection seat; 006, tensioning cylinder (oil cylinder or servo electric cylinder); 007, telescopic rod connecting block; 008, longitudinal distance measuring sensor; 009, side frame; 010, jacking cylinder (oil cylinder or servo electric cylinder); 011, avoidance notch; 012, long strip-shaped notch; 013, U-shaped arm; 014, measuring and shaping module.

[0030] In the figure: 100, electrode mesh assembly; 101, pole frame; 102, support handle; 103, electrode mesh; 104, liquid outlet pipe.

[0031] In the figure: 200, feeding mechanism; 201, horizontal and longitudinal long guide rail; 202, vertical positioning piece body frame; 203, U-shaped opening; 204, positioning seat; 205, handle positioning groove; 209, leg; 210, longitudinal slider; 211, lateral horizontal guide rail; 212, lateral slider; 213, gear-rack transmission device; 214, rack; 215, reduction motor; 216, gear; 217, adaptive lateral offset floating device; 218, seat plate; 219, horizontal and lateral short guide rail; 220, lateral slider; 221, baffle; 222, retaining tongue; 223, spring; 224, pin hole; 225, pin shaft; 226, push-pull handle.

[0032] In the figure: 300, measuring mechanism; 301, flatness measuring device for the end face of the pole frame; 302, air blowing hole; 303, pneumatic pipeline; 304, constant pressure air supply system; 305, groove; 306, labyrinth non-contact winding dislocation; 307, flowmeter; 308, flatness measuring device for the electrode mesh sheet; 309, flatness detection rod for the wire mesh; 310, inductive proximity sensor; 311, three-axis moving device; 312, frame; 313, column; 314, lifting seat; 315, horizontally telescopic shaft for measurement; 316, upper guide rail of the frame; 317, lower guide rail of the frame; 318, moving block.

[0033] In the figure: 400, shaping mechanism; 401, flatness shaping rod for the wire mesh; 402, shaping block; 403, horizontally telescopic shaft for shaping; 404, thermosensitive adhesive layer; 405, temperature control element; 406, flexible skeleton; 407, flexible connecting plate; 408, flexible fastening nail; 409, flexible annular enclosing plate; 410, micro flat radial water pipe; 411, radial water inlet collecting pipe; 412, radial water outlet collecting pipe; 413, hot water circulation water supply system; 414, cold water circulation water supply system; 415, micro flat weft water pipe; 416, weft water inlet collecting pipe; 417, weft water outlet collecting pipe; 418, hot water circulation pipeline; 419, hot water circulation pump; 420, heating heat exchanger; 421, cold water circulation pipeline; 422, cold water circulation pump; 423, refrigeration heat exchanger; 424, water inlet three-way pipe; 425, water inlet switching three-way valve; 426, water outlet three-way pipe; 427, water outlet switching three-way valve.

[0034] Figure 3 In it: X is the longitudinal direction, and Y is the transverse direction; Figure 5 In it: A is the feeding and moving direction of the electrode mesh sheet assembly. Specific embodiments

[0035] The following combines the accompanying drawings and embodiments to further describe the specific embodiments of the present invention. The following embodiments are only used to more clearly illustrate the technical solutions of the present invention and cannot be used to limit the protection scope of the present invention. Embodiment 1:

[0036] As Figures 1 to 16The following shows an embodiment of a flatness measurement and shaping machine for an electrolytic cell electrode mesh assembly of the present invention. The electrode mesh assembly 100 includes a pole frame 101, support handles 102 provided at the middle positions on the outer sides of both sides of the pole frame 101, and an electrode mesh 103 connected within the pole frame 101. The flatness measurement and shaping machine for the electrolytic cell electrode mesh assembly includes a main body 000 of the flatness measurement and shaping machine for fixing the electrode mesh assembly 100, and a feeding mechanism 200 and a measurement and shaping module 014 provided in cooperation with the main body 000. The main body 000 includes a fixed vertical frame base 001, and a movable frame pressing plate 002 facing the vertical frame base 001 and capable of moving away from or approaching the vertical frame base 001. A longitudinal movement space 003 for the electrode mesh assembly 100 to move into and out of longitudinally is formed between the vertical frame base 001 and the movable frame pressing plate 002. Among them, the feeding mechanism 200 is provided on one longitudinal side of the main body 000. It is used to move the electrolytic cell electrode mesh assembly 100 longitudinally into the longitudinal movement space 003, and press and fix the pole frame 101 of the electrolytic cell electrode mesh assembly 100 fed into the longitudinal movement space 003 by the lateral movement of the movable frame pressing plate 002 towards the vertical frame base 001. The measurement and shaping module 014 includes a measurement mechanism 300 and a shaping mechanism 400. Among them, the measurement mechanism 300 includes a pole frame end face flatness measurement device 301 for detecting the flatness of both end faces of the pole frame 101 of the electrode mesh assembly 100, which are respectively provided on the vertical frame base 001 and the movable frame pressing plate 002. The measurement mechanism 300 further includes an electrode mesh flatness measurement device 308 for detecting the flatness of the end face of the electrode mesh 103 of the electrode mesh assembly 100. The number of the electrode mesh flatness measurement devices 308 is two sets and they are respectively arranged on the two lateral sides of the main body 000. The number of the shaping mechanisms 400 is two sets and they are respectively arranged on the two lateral sides of the main body 000. They are used to shape and level the flatness of the electrode mesh 103.

[0037] By moving the movable frame pressing plate 002 closer to the vertical frame base 001, the pole frame 101 of the electrode mesh assembly 100 can be pressed and fixed between the vertical frame base 001 and the movable frame pressing plate 002, thereby simulating the fixing method of the electrode mesh assembly 100 during the assembly of the electrolytic cell. After the electrode mesh assembly 100 is fixed, the flatness of the pole frame 101 and the flatness of the electrode mesh 103 can be detected.

[0038] By moving the movable frame pressing plate 002 away from the vertical frame base 001, the electrode mesh component 100 can be loosened, thereby forming a longitudinal movement space between the vertical frame base 001 and the movable frame pressing plate 002, which facilitates the entry of the electrode mesh component 100 before the flatness detection and the exit after the flatness detection is completed.

[0039] Preferably, in the main body 000 of the flatness measuring and shaping machine, a plurality of mounting and connecting seats 005 are respectively arranged at intervals along the longitudinal direction on the upper end surface and the lower end surface of the vertical frame base 001. The mounting and connecting seats 005 extend horizontally towards the movable frame pressing plate 002. A tensioning cylinder 006 is fixed on the mounting and connecting seats 005. A plurality of telescopic rod connecting blocks 007 are respectively arranged at intervals along the longitudinal direction on the upper end surface and the lower end surface of the movable frame pressing plate 002. The telescopic rods of the plurality of tensioning cylinders 006 are correspondingly connected to the plurality of telescopic rod connecting blocks 007. When the telescopic rods of the tensioning cylinders 006 perform telescopic movement, the movable frame pressing plate 002 is driven to perform horizontal movement away from or towards the movable frame pressing plate 002 through the telescopic rod connecting blocks 007, thereby correspondingly clamping or loosening the pole frame 101 of the electrode mesh component 100.

[0040] Preferably, side frames 009 extending horizontally towards the movable frame pressing plate 002 are respectively arranged at the longitudinal two sides of the vertical frame base 001. A plurality of mounting and connecting seats 005 are arranged at intervals along the up and down direction on the side frames 009. A pressing cylinder 010 for horizontally pressing the movable frame pressing plate 002 is fixed on the mounting and connecting seats 005. A plurality of telescopic rod connecting blocks 007 are respectively arranged at intervals along the up and down direction on the longitudinal two side end surfaces of the movable frame pressing plate 002. The telescopic rods of the plurality of pressing cylinders 010 are correspondingly connected to the plurality of telescopic rod connecting blocks 007. The telescopic rods of the pressing cylinders 010 and the telescopic rods of the tensioning cylinders 006 perform telescopic movement in the same direction, thereby driving the movable frame pressing plate 002 to perform horizontal movement away from or towards the vertical frame base 001 through the telescopic rod connecting blocks 007, thereby correspondingly clamping or loosening the pole frame 101 of the electrode mesh component 100.

[0041] In this embodiment, avoiding notches for preventing interference are provided on the inner sides of the extending sections of the mounting and connecting seats 005 on the upper end surface and the lower end surface of the vertical frame base 001 when the feeding mechanism 200 conveys the electrolytic cell electrode mesh component 100 into the longitudinal movement space 003.

[0042] In this embodiment, a long strip-shaped notch 012 is provided on the side frame 009 in the vertical direction, which is used for the electrode mesh assembly 100 to enter the longitudinal movement space 003 along the longitudinal direction by moving through the long strip-shaped notch 012.

[0043] Preferably, the initial position of the electrolytic cell electrode mesh 100 is set outside the longitudinal side of the main body 000. A U-shaped arm 013 facing the long strip-shaped notch 012 is provided outside the side frame 009 on the other longitudinal side of the main body 000. A longitudinal distance measuring sensor 008 for detecting the longitudinal movement position of the electrolytic cell electrode mesh assembly 100 is provided on the U-shaped arm 013.

[0044] Among them, the longitudinal distance measuring sensor 008 is used to cooperate with the feeding mechanism 200 to accurately position the position where the electrolytic cell electrode mesh assembly 100 enters the longitudinal movement space 003.

[0045] In this embodiment, the feeding mechanism 200 includes a horizontal longitudinal long guide rail 201, a vertical positioning sheet body frame 202 movably arranged on the horizontal longitudinal long guide rail 201, a U-shaped opening 203 arranged on the upper part of the vertical positioning sheet body frame 202 for placing the electrode mesh assembly 100, a pair of positioning seats 204 arranged on both sides of the upper part of the U-shaped opening 203 of the vertical positioning sheet body frame 202, and a handle positioning groove 205 arranged on the positioning seats 204 for positioning the supporting handle 102; a pair of supporting handles 102 on both sides of the electrode frame 101 are correspondingly seated on a pair of positioning seats 204 of the vertical positioning sheet body frame 202; an adaptive lateral offset floating device 217 for realizing the adaptive lateral offset of the electrode frame 101 is arranged between the vertical positioning sheet body frame 202 and the positioning seats 204. The adaptive lateral offset floating device 217 includes a pair of seat plates 218 fixedly arranged on both sides of the upper part of the U-shaped opening 203 of the vertical positioning sheet body frame 202, a horizontal lateral short guide rail 219 arranged on the seat plates 218 and perpendicular to the horizontal longitudinal long guide rail 201, and a lateral slider 220 arranged on the horizontal lateral short guide rail 219. The positioning seat 204 is fixed on the lateral slider 220; a pair of baffles 221 are correspondingly arranged on the lateral sides of the seat plate 218, a retaining tongue 222 is arranged at the lower end of the positioning seat 204, the retaining tongue 222 is located between the pair of baffles 221, and a pair of springs 223 are correspondingly arranged between the retaining tongue 222 and the pair of baffles 221; the horizontal longitudinal long guide rail 201 enters the longitudinal movement space 003 of the main body 000 from the outside along the longitudinal direction and is located below the longitudinal movement space 003 of the main body 000 and passes through the avoidance notch 011 on the mounting connection seat 005.

[0046] The arrangement of the upper U-shaped opening 203 of the above-mentioned vertical positioning sheet body frame 202 facilitates the hoisting and positioning of the electrolytic cell electrode mesh assembly 100 on the vertical positioning sheet body frame 202.

[0047] Preferably, the number of the horizontal transverse short guide rails 219 is a pair.

[0048] Preferably, a pin hole is provided on the retaining tongue 222, and a pin shaft 225 passing through the pin hole 224 on the retaining tongue 221 is connected between the pair of baffles 221, and the spring is sleeved on the pin shaft.

[0049] Wherein, a gap is provided between the pin shaft 225 and the pin hole 224.

[0050] In this embodiment, a push-pull handle 226 is provided on the vertical positioning sheet body frame 202.

[0051] The working principle of the above-mentioned adaptive lateral offset floating device 217 is as follows: The positioning seat 204 of the support handle 102 for supporting the vertical positioning sheet body frame 202 is arranged to move transversely on a pair of horizontal transverse short guide rails 219. A pair of springs 223 located on both sides of the retaining tongue 222 automatically press the positioning seat 204 against the middle position between the pair of baffles 221; when the electrode mesh assembly 100 is transported by the feeding mechanism 200 to the position between the vertical frame base 001 and the movable frame pressing plate 002 of the electrolytic cell electrode mesh assembly flatness measuring and shaping machine, the movable frame pressing plate 002 acts to press the electrode frame 101 of the electrode mesh assembly 100 between the vertical frame base 001 and the movable frame pressing plate 002; during the process of the movable frame pressing plate 002 pressing the electrode frame 101, the electrode frame 101 is subjected to a lateral pressing thrust from the movable frame pressing plate 002 and undergoes a lateral offset, thereby driving the retaining tongue 222 at the lower end of the positioning seat 204 to make a synchronous lateral offset. One of the pair of springs 223 located on the lateral sides of the retaining tongue 222 is further compressed and the other spring 223 is loosened, so as to realize the adaptive movement of the electrode mesh assembly 100 along with the positioning seat 204; when the flatness measurement is completed and the movable frame pressing plate 002 is loosened, under the action of the pair of springs 223, the electrode mesh assembly 100 is reset to the original entry position (which is located at the middle position of the longitudinal movement space 003), so as to facilitate the electrode mesh assembly 100 to smoothly exit longitudinally along with the vertical positioning sheet body frame 202.

[0052] By arranging an adaptive lateral offset floating device 217 between the vertical positioning sheet body frame 202 and the positioning seat 204, the movable frame type pressing plate 002 can adaptively shift during one-way moving and pressing the pole frame 101 of the electrode mesh component 100 without forced interference. Thus, the clamping and fixing method of the electrolytic cell electrode mesh component 100 can be greatly simplified, and the equipment cost is reduced.

[0053] In this embodiment, a pair of legs 209 are arranged on the front and rear sides along the longitudinal direction at the lower part of the vertical positioning sheet body frame 202. A pair of longitudinal sliders 210 are arranged on the horizontal longitudinal long guide rail 201, and the pair of legs 209 are correspondingly fixed on the pair of longitudinal sliders 210.

[0054] Preferably, the horizontal longitudinal long guide rail 201 is a rolling guide rail, and the longitudinal slider 210 is a longitudinal rolling slider.

[0055] In order to improve the stability of the longitudinal movement of the vertical positioning sheet body frame 202, preferably, a lateral horizontal guide rail 211 parallel to the horizontal longitudinal long guide rail 201 is arranged on the side of the vertical positioning sheet body frame 202 facing the vertical frame type base 001. A lateral slider 212 is movably arranged on the lateral horizontal guide rail 211, and the lateral slider 212 is fixed at the outer part of the lower position of the vertical frame type base 001.

[0056] In order to realize the automatic longitudinal movement of the horizontal longitudinal long guide rail 201, a gear and rack transmission device 213 for driving the vertical positioning sheet body frame 202 to move longitudinally along the horizontal longitudinal long guide rail 201 is further arranged between the vertical frame type base 001 and the vertical positioning sheet body frame 202. The gear and rack transmission device 213 includes a rack 214 horizontally arranged at the lower part of the vertical positioning sheet body frame 202, a reduction motor 215 arranged at the outer part of the vertical frame type base 001, and a gear 216 arranged on the motor shaft of the reduction motor 215 and meshing with the rack 214.

[0057] In this embodiment, the pole frame end face flatness measuring device 301 in the measuring mechanism includes air blowing holes 302 respectively arranged on the vertical frame type base 001 and the movable frame type pressing plate 002 in an array arrangement. The air blowing holes 302 blow towards the end face of the pole frame 101, and each air blowing hole 302 is respectively connected to a constant pressure air supply system 304 through a pneumatic pipeline 303.

[0058] By arranging the air blowing holes 302 in an array on the end face in contact with the pole frame 101 of the electrode mesh assembly 100 as described above, it is possible to simultaneously and quickly measure the flatness of all parts of the end face of the pole frame 101 with high precision. The control system 004 can detect the air leakage of all parts of the end face of the pole frame 101 through the flowmeter 307, and judge whether the flatness of each part meets the requirements according to the air leakage volume. When the air leakage volume exceeds the preset threshold, an alarm message is sent, and the regional position of the part where the flatness exceeds the standard is given to notify the relevant personnel for processing.

[0059] Before measurement and shaping, the movable frame pressing plate 002 moves away from the vertical frame base 001 to form a space for the electrode mesh assembly 100 to move longitudinally into between the vertical frame base 001 and the movable frame pressing plate 002; then the electrode mesh assembly 100 is moved into the space between the vertical frame base 001 and the movable frame pressing plate 002; during measurement and shaping, the movable frame pressing plate 002 moves closer to the vertical frame base 001 to press the pole frame 101 of the electrode mesh assembly 100 between the vertical frame base 001 and the movable frame pressing plate 002.

[0060] As a further improvement of this embodiment, grooves 305 are sequentially and adjacently arranged on the surface of the vertical frame base 001 in contact with the pole frame 101 along the direction parallel to the edge of the pole frame 101. The air blowing holes 302 communicate with the grooves 305, and different air blowing holes 302 communicate with different grooves 305.

[0061] Among them, grooves 305 are sequentially and adjacently arranged on the surface of the movable frame pressing plate 002 in contact with the pole frame 101 along the direction parallel to the edge of the pole frame 101. The air blowing holes 302 communicate with the grooves 305, and different grooves 305 are not communicated with each other, and different grooves 305 communicate with different air blowing holes 302.

[0062] In order to prevent missed detection in the blind area between adjacent grooves 305, a further improvement scheme is that the adjacent grooves 305 are arranged in a mutually offset manner at their adjacent parts, and the mutual offset between adjacent grooves 305 is a labyrinth non-contact winding offset 306, so as to achieve no missed detection parts along the entire circumference near the edge of the pole frame 101 on the end face of the pole frame 101.

[0063] In this embodiment, flowmeters 307 are respectively arranged on the pneumatic pipelines 303 connecting different air blowing holes 302, and each flowmeter 307 is respectively connected to the control system 004 of the electrolytic cell electrode mesh assembly flatness measurement and shaping machine.

[0064] By successively and adjacently arranging grooves 305 along the circumference of the end face of the pole frame 101 and correspondingly connecting each groove 305 with each air blowing hole 302, the structure for measuring the flatness of the end face of the pole frame 101 can be greatly simplified, the number of flow meters 307 configured can be reduced, each groove 305 can detect a region on the pole frame 101 respectively, and through the labyrinth non-contact winding and dislocation arrangement between adjacent grooves 305, the entire circumference of the end face of the pole frame 101 can be detected, eliminating the detection blind area, thereby improving the reliability of measuring the flatness of the end face of the pole frame 101.

[0065] In this embodiment, the electrode mesh flatness measuring device 308 in the measuring mechanism 300 includes a wire mesh flatness detection rod 309 disposed beside the main body 000 of the flatness measuring and shaping machine and capable of translating in the vertical and horizontal directions, and an inductive proximity sensor 310 disposed on the wire mesh flatness detection rod 309; the inductive proximity sensor 310 is disposed close to the electrode mesh 103 of the electrolytic cell electrode mesh assembly.

[0066] Preferably, the wire mesh flatness detection rod 309 is vertically directed at the electrode mesh 103.

[0067] Preferably, the inductive proximity sensor 310 is composed of an LC high-frequency oscillator and an amplification and processing circuit. When the inductive proximity sensor 310 approaches the electrode mesh 103, eddy currents will be generated inside the metal electrode mesh 103, resulting in the attenuation of the oscillation ability of the oscillation circuit and the change of internal circuit parameters, thereby identifying the distance of the metal electrode mesh 103. The closer the electrode mesh 103 is to the inductive proximity sensor 310, the stronger the induced current generated, causing the load in the oscillation circuit to increase and the oscillation to weaken or stop. The control system can obtain the flatness data of each part of the surface of the pole frame 101 by acquiring the detection signal data of the inductive proximity sensor 310.

[0068] Preferably, the inductive proximity sensor 310 can also be replaced by other types of proximity sensors.

[0069] Preferably, the wire mesh flatness detection rod 309 is disposed at the lateral two sides beside the main body 000 of the flatness measuring and shaping machine to detect the flatness of the electrode mesh 103 of the electrolytic cell electrode mesh assembly 100 from both sides respectively.

[0070] Preferably, three-axis moving devices 311 capable of realizing XYZ three-way movement are respectively disposed at the lateral two sides of the main body 000 of the flatness measuring and shaping machine, and the wire mesh flatness detection rod 309 is disposed on the three-axis moving devices 311.

[0071] In this embodiment, the inductive proximity sensor 310 is connected to the control system 004 of the flatness measuring and shaping machine.

[0072] By arranging an inductive proximity sensor 310 on a three-axis moving device 311, rapid and high-precision measurement of the flatness of the electrode mesh 103 of the electrolytic cell electrode mesh assembly is achieved. The inductive proximity sensor 310 can be adjusted to a position close to the optimal detection distance from the electrode mesh 103 through the measuring horizontal telescopic shaft 315 of the three-axis moving device 311, and the horizontal movement of the inductive proximity sensor 310 is realized through the upper guide rail 316 and the lower guide rail 317 on the frame, and the up-and-down movement of the inductive proximity sensor 310 is realized through the lifting seat 314, so as to achieve full-area detection of the flatness of the electrode mesh 103.

[0073] In this embodiment, frames 312 are respectively arranged on both sides of the flatness measurement and shaping machine main body 000, and the three-axis moving devices 311 are respectively arranged on the frames 312 on both sides of the flatness measurement and shaping machine main body 000.

[0074] Preferably, the three-axis moving device 311 includes a column 313, a lifting seat 314 arranged on the column 313, and a measuring horizontal telescopic shaft 315 arranged on the lifting seat 314, and the wire mesh flatness detection rod 309 is arranged on the measuring horizontal telescopic shaft 315 of the three-axis moving device 311.

[0075] Preferably, an upper frame guide rail 316 and a lower frame guide rail 317 are respectively horizontally arranged at the upper and lower ends of the frame 312, moving blocks 318 are respectively arranged on the upper frame guide rail 316 and the lower frame guide rail 317, and the upper and lower ends of the column 313 are respectively fixedly connected to the moving blocks 318 on the upper frame guide rail 316 and the lower frame guide rail 317.

[0076] In this embodiment, the shaping mechanism 400 includes a wire mesh flatness shaping rod 401 arranged beside the flatness measurement and shaping machine main body 000 and capable of translating in the up-and-down direction, left-and-right direction, and front-and-back direction, and a shaping block 402 arranged at the end of the wire mesh flatness shaping rod 401.

[0077] Preferably, the wire mesh flatness shaping rod 401 is vertically directed at the electrode mesh 103.

[0078] In this embodiment, the three-axis moving device 311 further includes a shaping horizontal telescopic shaft 403 arranged on the lifting seat 314, and the wire mesh flatness shaping rod 403 is arranged on the shaping horizontal telescopic shaft 403 of the three-axis moving device 311.

[0079] By using the numerically controlled three-axis moving device 311, the shaping points can be accurately positioned and the shaping amount can be accurately controlled.

[0080] As a further improvement of this embodiment, the shaping block 402 is a push-pull type shaping block 103 that has a pushing and pulling effect on the electrode mesh 103; the push-pull type shaping block 103 includes a layer of thermosensitive adhesive layer 404 provided at the front end of the shaping block 103, and a temperature control element 405 for heating and cooling the thermosensitive adhesive layer 404 is buried inside the thermosensitive adhesive layer 404.

[0081] Wherein, the thermosensitive adhesive layer 404 obtains adhesive force when heated to a set temperature range and loses adhesive force when cooled to a set temperature range.

[0082] Preferably, a flexible framework 406 is provided at the front end of the shaping block 402. The flexible framework 406 includes a flexible connecting plate 407 fixedly provided on the front end face of the shaping block 402, a plurality of flexible fastening nails 408 spaced apart on the front end face of the flexible connecting plate 407, and a flexible annular enclosing plate 409 provided on the periphery of the front end face of the flexible connecting plate 407. The thermosensitive adhesive layer 404 is filled inside the flexible annular enclosing plate 409.

[0083] Preferably, the temperature control element 405 includes a plurality of micro flat longitudinal water pipes 410 arranged at intervals in the longitudinal direction. Both ends of each micro flat longitudinal water pipe 410 are respectively connected to a longitudinal water inlet collecting pipe 411 and a longitudinal water outlet collecting pipe 412.

[0084] Preferably, the temperature control element 405 further includes a plurality of micro flat transverse water pipes 415 arranged at intervals in the transverse direction. Both ends of each micro flat transverse water pipe 415 are respectively connected to a transverse water inlet collecting pipe 416 and a transverse water outlet collecting pipe 417.

[0085] A woven structure in which the micro flat longitudinal water pipes 410 arranged in the longitudinal direction and the micro flat transverse water pipes 415 arranged in the transverse direction are interspersed with each other is formed.

[0086] In this embodiment, the longitudinal water inlet collecting pipe 411 and the latitudinal water inlet collecting pipe 416 correspondingly connect two ports of a water inlet three-way pipe 424. The third port of the water inlet three-way pipe 424 is connected to the first port of a water inlet switching three-way valve 425. The longitudinal water outlet collecting pipe 412 and the latitudinal water outlet collecting pipe 417 correspondingly connect two ports of a water outlet three-way pipe 426. The third port of the water outlet three-way pipe 426 is connected to the first port of a water outlet switching three-way valve 427. A hot water circulating water supply system 413 is connected between the second port of the water inlet switching three-way valve 425 and the second port of the water outlet switching three-way valve 427. A cold water circulating water supply system 414 is connected between the third port of the water inlet switching three-way valve 425 and the third port of the water outlet switching three-way valve 427. The hot water circulating water supply system 413 includes a hot water circulation pipeline 418 connected between the second port of the water inlet switching three-way valve 425 and the second port of the water outlet switching three-way valve 427, a hot water circulation pump 422 and a heating heat exchanger 423 arranged on the hot water circulation pipeline 418. The cold water circulating water supply system 414 includes a cold water circulation pipeline 421 connected between the third port of the water inlet switching three-way valve 425 and the third port of the water outlet switching three-way valve 427, a cold water circulation pump 422 and a refrigerating heat exchanger 423 arranged on the cold water circulation pipeline 421. The water inlet three-way switching valve 425, the water outlet three-way switching valve 427, the hot water circulation pump 419, the heating heat exchanger 420, the cold water circulation pump 422 and the refrigerating heat exchanger 423 are respectively connected to the control system of the electrolytic cell electrode mesh assembly flatness measuring and shaping machine.

[0087] Preferably, water supplement pipes are respectively connected to the hot water circulation pipeline 418 and the cold water circulation pipeline 421.

[0088] As one of the preferred solutions of the three-axis moving device in this embodiment, the three-axis moving device 311 is a manually operated three-axis moving device, which can realize manual auxiliary shaping.

[0089] As one of the preferred solutions of the three-axis moving device in this embodiment, the three-axis moving device 311 is a numerically controlled three-axis moving device, which can realize automatic shaping.

[0090] In this embodiment, by arranging a temperature-controllable thermosensitive adhesive layer on the shaping block, the shaping block obtains a strong adhesive force, which facilitates the shaping of the electrode mesh with a flatness concave error. In addition, the micro flat longitudinal water pipe and the micro flat latitudinal water pipe for controlling the temperature of the thermosensitive adhesive layer form a woven structure of longitude and latitude interweaving, so that the temperature of the thermosensitive adhesive layer can be controlled quickly and evenly, thereby improving the shaping efficiency.

[0091] In this embodiment, the temperatures of the hot water circulating water supply system and the cold water circulating water supply system can be precisely controlled separately, and rapid switching can be achieved through the inlet switching three-way valve and the outlet switching three-way valve, which is beneficial to further improve the accuracy of the temperature control of the thermosetting adhesive and the shaping efficiency. Embodiment 2:

[0092] The shaping method of the shaping mechanism of a flatness measurement and shaping machine for an electrolytic cell electrode mesh assembly is as follows: (1) Measurement: The measurement mechanism of the flatness measurement and shaping machine for the electrolytic cell electrode mesh assembly measures the flatness of the electrode mesh and issues an alarm message and the position information of the part with out-of-tolerance flatness; (2) Positioning: The three-axis moving device 311 is turned on, and the shaping block 402 at the front end of the wire mesh flatness shaping rod 401 is moved to the position on the electrode mesh 103 that needs to be shaped and aligned with the part to be shaped; (3) Shaping: According to the flatness of the electrode mesh obtained by measurement in step (1), in the following two different cases, the following shaping treatment procedures are respectively adopted: (1) Shaping for the convex error of the electrode mesh 103: The shaping horizontal telescopic shaft 403 of the three-axis moving device 311 is advanced, so that the shaping block 402 at the front end of the wire mesh flatness shaping rod 401 contacts and presses on the electrode mesh 103, and the downward pressure of the shaping block 402 is controlled by the control system according to the specific data of the convex error; after reaching the position, the shaping horizontal telescopic shaft 403 retreats and resets; (2)Rectification of the concave error of the electrode mesh 103: The control system turns on the heating mode, and through the water inlet switching three-way valve 425 and the water outlet switching three-way valve 427, the micro flat radial water pipe 410 and the micro flat weft water pipe 415 located at the front end of the shaping block 402 and buried in the thermosensitive adhesive layer 404 are connected to the hot water circulation pipeline 418 of the hot water circulation water supply system 413, heating the thermosensitive adhesive layer 404 to the set gluing and adhesion temperature, so that the thermosensitive adhesive layer 404 obtains gluing and adhesion force; turn on the shaping horizontal telescopic shaft 403 of the three-axis moving device 311 to move forward, so that the shaping block 402 at the front end of the wire mesh flatness shaping rod 401 contacts the electrode mesh 103 and glues and adheres to the electrode mesh 103, and then turn on the shaping horizontal telescopic shaft 403 of the three-axis moving device 311 to move backward, driving the shaping block 402 to move backward to pull the concave part of the electrode mesh 103 outward, realizing the rectification of the concave error of the electrode mesh 103; wherein, the pulling amount of the shaping block 402 on the electrode mesh 103 is set by the control system according to the specific data of the concave error; after reaching the position, the control system turns on the cooling mode, and through the water inlet switching three-way valve 425 and the water outlet switching three-way valve 427, the micro flat radial water pipe 410 and the micro flat weft water pipe 415 located at the front end of the shaping block 402 and buried in the thermosensitive adhesive layer 404 are connected to the cold water circulation pipeline 421 of the cold water circulation water supply system 414, cooling the thermosensitive adhesive layer 404 to the set non-adhesive temperature, so that the thermosensitive adhesive layer 404 loses gluing and adhesion force, so that the shaping block 402 is separated from the electrode mesh 103; (4)Re-inspection: After the rectification is completed, re-inspect the flatness error of the electrode mesh 103. If necessary, repeat the rectification treatment process (1) or (2) until the flatness error of the electrode mesh meets the design requirements.

[0093] Preferably, the adjustment of the shaping amount can be realized by changing the pressing holding time or the pulling holding time of the shaping block 402 on the electrode mesh 103. Example 3:

[0094] A measurement and shaping method of an electrolytic cell electrode mesh assembly flatness measurement and shaping machine includes the following steps: (1)Preparation: Install the electrolytic cell electrode mesh assembly 100 on the feeding mechanism 200; (2)Feeding: Through the feeding mechanism 200, move the electrolytic cell electrode mesh assembly 100 longitudinally into the longitudinal movement space 003 inside the main body 000 of the electrolytic cell electrode mesh assembly flatness measurement and shaping machine; (3) Clamping and fixing: Turn on the tensioning cylinder 006 and the jacking cylinder 010 on the main machine 000, so that the movable frame-type pressing plate 002 moves horizontally towards the vertical frame-type base 001, thereby clamping the electrode frame 101 of the electrolytic cell electrode mesh assembly 100 between the vertical frame-type base 001 and the movable frame-type pressing plate 002; (4) Measuring the flatness of the electrode frame end face: The constant pressure air supply system 304 supplies constant pressure air to each air blowing hole 302 on the vertical frame-type base 001 and the movable frame-type pressing plate 002 respectively. The control system 004 judges whether the gas reaching each air blowing hole 302 leaks between the electrode frame 101 and the vertical frame-type base 001 and between the electrode frame 101 and the movable frame-type pressing plate 002 respectively through the flow meters 307 on the pneumatic pipelines 303 of each air blowing hole 302. When leakage occurs and the leakage amount reaches the set threshold, an alarm is issued, and the specific position information of the leakage part is indicated to facilitate the operator to perform corresponding processing; (5) Measuring the flatness of the electrode mesh: The inductive proximity sensor 310 at the front end of the wire mesh flatness detection rod 309 arranged on the measuring horizontal telescopic shaft 315 of the three-axis moving device 311 moves to a position close to the electrode mesh 103, and the flatness of the electrode mesh 103 is measured by translating it up, down, left and right to obtain the flatness data of each part of the surface of the electrode mesh 103; (6) Shaping the electrode mesh: Use the shaping mechanism 400 to shape the parts of the surface of the electrode mesh 103 with out-of-tolerance flatness.

[0095] After the shaping is completed, loosen the tensioning cylinder 006 and the jacking cylinder 010 on the main machine 000, and the electrolytic cell electrode mesh assembly 100 is withdrawn from the longitudinal moving space 003 of the main machine 000 to the outside of the main machine 000 through the feeding mechanism 200, and the electrolytic cell electrode mesh assembly 100 is unloaded.

[0096] The above is only the preferred embodiment of the present invention. It should be pointed out that for those of ordinary skill in the art, without departing from the technical principle of the present invention, several improvements and refinements can be made, and these improvements and refinements should also be regarded as the protection scope of the present invention.

Claims

1. A flatness measuring and shaping machine for electrolytic cell electrode mesh components, characterized in that: The electrode mesh component includes a pole frame, supporting handles arranged at the middle positions on the outer sides of both sides of the pole frame, and an electrode mesh connected within the pole frame; the flatness measurement and shaping machine for the electrolytic cell electrode mesh component includes a main body of the flatness measurement and shaping machine for fixing the electrode mesh component, and a feeding mechanism and a measurement and shaping module arranged in a supporting manner with the main body. The main body includes a fixedly arranged vertical frame base, and a movable frame pressing plate facing the vertical frame base and capable of moving away from or approaching the vertical frame base. A longitudinal movement space for the electrode mesh component to move into and out of longitudinally is formed between the vertical frame base and the movable frame pressing plate; wherein, the feeding mechanism is arranged on one longitudinal side of the main body, and is used for longitudinally moving the electrolytic cell electrode mesh component into the longitudinal movement space, and pressing and fixing the pole frame of the electrolytic cell electrode mesh component fed into the longitudinal movement space through the lateral movement of the movable frame pressing plate towards the vertical frame base; the measurement and shaping module includes a measurement mechanism and a shaping mechanism; wherein, the measurement mechanism includes a pole frame end face flatness measurement device for detecting the flatness of both end faces of the pole frame of the electrode mesh component, which are respectively arranged on the vertical frame base and the movable frame pressing plate; the measurement mechanism further includes an electrode mesh flatness measurement device for detecting the flatness of the end face of the electrode mesh of the electrode mesh component, and the number of the electrode mesh flatness measurement devices is two sets and they are respectively arranged on the lateral sides of the main body; the number of the shaping mechanisms is two sets and they are respectively arranged on the lateral sides of the main body, and are used for shaping and leveling the flatness of the electrode mesh.

2. The flatness measurement and shaping machine for the electrolytic cell electrode mesh assembly according to claim 1, wherein In the main body of the flatness measurement and shaping machine, a plurality of mounting and connecting seats are respectively arranged at intervals longitudinally on the upper end face and the lower end face of the vertical frame base. The mounting and connecting seats extend laterally towards the side of the movable frame pressing plate, and a tension cylinder is fixed on the mounting and connecting seats. A plurality of telescopic rod connecting blocks are respectively arranged at intervals longitudinally on the upper end face and the lower end face of the movable frame pressing plate. The telescopic rods of a plurality of the tension cylinders are correspondingly connected to a plurality of the telescopic rod connecting blocks. When the telescopic rods of the tension cylinders make telescopic movements, the movable frame pressing plate is driven to make a lateral movement away from or approaching the vertical frame base through the telescopic rod connecting blocks, so as to clamp or loosen the pole frame of the electrode mesh component accordingly; wherein, the tension cylinder is a tension oil cylinder or a tension servo electric cylinder.

3. The flatness measurement and shaping machine for the electrolytic cell electrode mesh assembly according to claim 2, characterized in that, On the longitudinal two sides of the vertical frame base, side frames extending horizontally towards the side of the movable frame pressing plate are respectively arranged, and a number of mounting connection seats are arranged at intervals in the vertical direction on the side frames. A pressing cylinder for horizontally pressing the movable frame pressing plate is fixed on the mounting connection seat. On the longitudinal two side end faces of the movable frame pressing plate, a number of telescopic rod connection blocks are arranged at intervals in the vertical direction. The telescopic rods of a number of the pressing cylinders are correspondingly connected to a number of the telescopic rod connection blocks. The telescopic rods of the pressing cylinders and the telescopic rods of the tensioning cylinders move in the same direction in a telescopic manner, so as to drive the movable frame pressing plate to move horizontally away from or close to the vertical frame base through the telescopic rod connection blocks, thereby correspondingly clamping or loosening the pole frame of the electrode mesh component; wherein, the pressing cylinder is an oil cylinder for pressing or a servo electric cylinder for pressing.

4. The electrolytic cell electrode mesh assembly flatness measuring and shaping machine according to claim 3, characterized in that: On the inner sides of the extension sections of the mounting connection seats on the upper end face and the lower end face of the vertical frame base, avoiding notches are provided for preventing interference when the feeding mechanism conveys the electrolytic cell electrode mesh component into the longitudinal movement space.

5. An electrolytic cell electrode mesh assembly flatness measurement and shaping machine according to claim 3, characterized in that, A long strip-shaped notch is arranged in the vertical direction on the side frame, and it is used for the electrode mesh component to longitudinally move through the long strip-shaped notch and enter the longitudinal movement space.

6. An electrolytic cell electrode mesh assembly flatness measurement and shaping machine according to claim 5, characterized in that, The initial position of the electrolytic cell electrode mesh is arranged outside the longitudinal one side of the main machine. On the outer side position of the side frame on the longitudinal other side of the main machine, a U-shaped arm facing the long strip-shaped notch is arranged, and a longitudinal distance measuring sensor for detecting the longitudinal movement position of the electrolytic cell electrode mesh component is arranged on the U-shaped arm.

7. An electrolytic cell electrode mesh component flatness measurement and shaping machine according to claim 4, characterized in that, The feeding mechanism includes a horizontal longitudinal long guide rail, a vertical positioning sheet body frame movably arranged on the horizontal longitudinal long guide rail, a U-shaped opening arranged at the upper part of the vertical positioning sheet body frame for placing the electrode mesh assembly, a pair of positioning seats arranged at the positions on both sides of the upper part of the U-shaped opening of the vertical positioning sheet body frame, and a handle positioning groove arranged on the positioning seats for positioning the supporting handle; a pair of supporting handles on both sides of the electrode frame are correspondingly seated on a pair of positioning seats of the vertical positioning sheet body frame; an adaptive lateral offset floating device for realizing the adaptive lateral offset of the electrode frame is arranged between the vertical positioning sheet body frame and the positioning seats, and the adaptive lateral offset floating device includes a pair of seat plates fixedly arranged at the positions on both sides of the upper part of the U-shaped opening of the vertical positioning sheet body frame, a horizontal lateral short guide rail arranged on the seat plates and perpendicular to the horizontal longitudinal long guide rail, and a lateral slider arranged on the horizontal lateral short guide rail, and the positioning seats are fixed on the lateral sliders; a pair of baffles are correspondingly arranged on the lateral sides of the seat plates, a retaining tongue is arranged at the lower end of the positioning seat, the retaining tongue is located between the pair of baffles, and a pair of springs are correspondingly arranged between the retaining tongue and the pair of baffles; the horizontal longitudinal long guide rail enters the longitudinal movement space of the main machine from the outside along the longitudinal direction and is located below the longitudinal movement space of the main machine and passes through the avoidance notch on the installation and connection seat.

8. An electrolytic cell electrode mesh assembly flatness measurement and shaping machine according to claim 1, characterized in that, The flatness measuring device for the end face of the electrode frame in the measuring mechanism includes air blowing holes respectively arranged in an array manner on the vertical frame base and the movable frame pressing plate, the air blowing holes blow towards the end face of the electrode frame, and each of the air blowing holes is respectively connected to a constant pressure air supply system through a pneumatic pipeline.

9. An electrolytic cell electrode mesh assembly flatness measurement and shaping machine according to claim 1, characterized in that, The flatness measuring device for the electrode mesh in the measuring mechanism includes a wire mesh flatness detection rod arranged beside the main machine of the flatness measuring and shaping machine and capable of translating in the up-down direction and the left-right direction, and an inductive proximity sensor arranged on the wire mesh flatness detection rod; the inductive proximity sensor is arranged close to the electrode mesh of the electrolytic cell electrode mesh assembly.

10. The flatness measurement and shaping machine for the electrolytic cell electrode mesh assembly according to claim 1, wherein, The shaping mechanism includes a wire mesh flatness shaping rod arranged beside the main machine of the flatness measuring and shaping machine and capable of translating in the up-down direction, the left-right direction and the front-back direction, and a shaping block arranged at the end of the wire mesh flatness shaping rod.

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