Production device for ultrathin metal sodium strip

Abstract

The utility model discloses a production device of an ultra-thin metal sodium strip, and relates to the technical field of sodium metal button half-cell sodium sheet processing devices. The utility model solves the problems of uneven thickness, rough surface and low production efficiency of the existing metal sodium strip production equipment. The rolling machine is arranged in a glove box, the top end of an upper primary roller unit and the bottom end of a lower primary roller unit are connected with the inner side wall of the glove box through two sets of elastic supporting assemblies respectively, and the top end of an upper secondary roller unit and the bottom end of a lower secondary roller unit are connected with the inner side wall of the glove box through two sets of rigid supporting assemblies respectively. In the sodium metal pressing process, a segmented pressing mode is adopted, and firstly, a sodium ingot is pressed into a strip shape through a primary roller mechanism; and then the strip-shaped sodium metal is pressed into an ultrathin strip-shaped sodium metal through the secondary roller mechanism. The device is used for improving the thickness uniformity of the metal sodium strip and improving the production efficiency of the metal sodium strip.

Description

Technical Field

[0001] The utility model relates to the technical field of sodium metal button half-cell sodium sheet processing devices, in particular to a handheld sodium metal button half-cell sodium sheet processing device, and specifically to a production device for an ultra-thin sodium metal strip. Background Art

[0002] Sodium is abundant on Earth, and room temperature sodium-ion batteries have surpassed lithium-ion batteries to become energy storage devices with great development potential. Similar to lithium metal anodes in lithium batteries, metallic sodium anodes are considered to be ideal rechargeable battery anode materials due to their low cost, high theoretical specific capacity, and high natural abundance. However, due to the large ionic radius, the slow kinetics of Na+ ions limits the migration efficiency of ions. The use of metallic sodium anodes in sodium metal batteries has been hampered by a series of fundamental challenges, including the formation of unstable SEI (full name solid electrolyte interface), the growth of Na dendrites, and large volume expansion. These challenges have hindered the development of sodium metal batteries.

[0003] The production of the negative electrode sodium sheet of the metal sodium battery is complicated. The sodium is usually preserved by soaking large sodium ingots in kerosene and sealing them in tin cans. When the sodium ingot is used, it needs to be moved to the glove box first. After taking out the sodium ingot from the glove box, it is rolled into a sodium sheet with uniform thickness with a rolling pin, and a round shot of the corresponding diameter is used to punch out the sodium sheet to obtain the metal sodium electrode of the button sodium battery.

[0004] Metallic sodium is a highly reactive metal with extremely active chemical properties and soft texture. Currently, there is no mature sodium sheet processing technology, and there are no commercial sodium sheets available for direct use. Due to the lack of professional processing tools or equipment, the flatness and smoothness of the produced sodium sheets are generally poor, and the thickness is also uneven, which has a great impact on the qualified rate of battery assembly, the evaluation of electrode materials, and the timeliness of experiments. Therefore, it is urgent to develop a production device for ultra-thin metallic sodium strips to produce sodium sheets. Utility Model Content

[0005] The utility model aims to solve the problems of uneven thickness, rough surface and low production efficiency in existing sodium metal strip production equipment, and further provides a production device for ultra-thin sodium metal strips.

[0006] The technical solution of the utility model is:

[0007] A production device for ultrathin metallic sodium strips comprises a glove box 1, wherein the right side wall of the glove box 1 is provided with an openable sealed discharge door 11, and the middle part of the left side wall of the glove box 1 is provided with an openable sealed feed window 12, and the glove box 1 further comprises a rolling mill 2 placed in the glove box 1, wherein the rolling mill 2 comprises a primary roller mechanism 21 and a secondary roller mechanism 22, and the primary roller mechanism 21 and the secondary roller mechanism 22 are sequentially arranged at the bottom of the glove box 1 from the feed side to the discharge side; the primary roller mechanism 21 comprises two primary chain transmission mechanisms, two groups of primary roller assemblies and two groups of elastic support assemblies, and the two groups of primary roller assemblies are sequentially arranged from front to back along the travel direction of the workpiece, and each group of primary roller assemblies comprises two primary roller units, and the two primary roller units are symmetrically arranged up and down with the center line of the glove box 1 as the center, and the top end of the upper primary roller unit and the bottom end of the lower primary roller unit are respectively connected to the inner wall of the glove box 1 through two groups of elastic support assemblies, The two upper primary roller units in the two groups of primary roller assemblies are separately connected to one of the primary chain transmission mechanisms, and the two lower primary roller units in the two groups of primary roller assemblies are separately connected to the other primary chain transmission mechanism; the secondary roller mechanism 22 includes two secondary chain transmission mechanisms, multiple groups of secondary roller assemblies and two groups of rigid support assemblies. The multiple groups of secondary roller assemblies are arranged in sequence from front to back along the travel direction of the workpiece. Each group of secondary roller assemblies includes two secondary roller units. The two secondary roller units are symmetrically arranged up and down with the center line of the glove box 1 as the center. The top end of the upper secondary roller unit and the bottom end of the lower secondary roller unit are respectively connected to the inner wall of the glove box 1 through two groups of rigid support assemblies, multiple upper secondary roller units in the multiple groups of secondary roller assemblies are separately connected to one of the secondary chain transmission mechanisms, and multiple lower secondary roller units in the multiple groups of secondary roller assemblies are separately connected to the other secondary chain transmission mechanism.

[0008] Furthermore, each primary roller unit includes a primary roller body 211 and a U-shaped primary roller support 212. Two coaxially arranged first shaft holes are provided on the two side wing plates of the U-shaped primary roller support 212. Two first bearings are coaxially embedded in the two first shaft holes. The opening of the U-shaped primary roller support 212 is provided with a primary roller body 211 arranged in parallel. Both ends of the core shaft of the primary roller body 211 are connected to the two first bearings respectively. Each primary chain transmission mechanism includes a primary roller driving motor 213, a primary driving sprocket 214, a primary driven sprocket 215, a first primary transmission chain 216, a first primary transmission chain 217, a first primary transmission chain 218, a first primary transmission chain 219, a first primary transmission chain 220, a first primary transmission chain 221, a first primary transmission chain 222, a first primary transmission chain 223, a first primary transmission chain 224, a first primary transmission chain 225, a first primary transmission chain 226, a first primary transmission chain 227, a first primary transmission chain 228, a first primary transmission chain 229, a first primary transmission chain 221, a first primary transmission chain 229, a first primary transmission chain 221, a first primary transmission chain 221, a first primary transmission chain 221, a first primary transmission chain 222, a first primary transmission chain 223, a first primary transmission chain 224, a first primary transmission chain 225, a first primary transmission chain 226, a first primary transmission chain 227, a first primary transmission chain 228, a first primary transmission chain 229, a first primary transmission chain 229, a first primary transmission chain 221, a first primary transmission chain 221, a first primary transmission chain 221, a first primary transmission chain 222, a first primary transmission chain 223, a first primary transmission chain 224, a first primary Two primary transmission chains 217 and two primary transmission sprockets 218, the primary roller driving motor 213 is installed on the middle web of the U-shaped primary roller bracket 212, and the primary driving sprocket 214 is installed at the end of the rotating shaft of the primary roller driving motor 213. A primary driven sprocket 215 is installed at one end of the core shaft of one primary roller body 211, and the primary driven sprocket 215 is connected to the primary driving sprocket 214 through the first primary transmission chain 216. A primary transmission sprocket 218 is installed at one end of the core shaft of each primary roller body 211, and all primary transmission sprockets 218 are connected through the second primary transmission chain 217.

[0009] Furthermore, each elastic support assembly includes an elastic support base plate 219 and eight elastic support units. The elastic support base plate 219 is horizontally arranged above the two upper primary roller units in the two groups of primary roller assemblies and / or below the two lower primary roller units in the two groups of primary roller assemblies. The elastic support base plate 219 is fixedly connected to the middle web of the U-shaped primary roller bracket 212. The upper surface and / or lower surface of the elastic support base plate 219 are provided with four elastic support units vertically arranged in a rectangular array; each elastic support unit includes a box connecting plate 2110, an inner sleeve 2111, an outer sleeve 2112, a support shaft 2113 and a spring 2114. The box connecting plate 2110 is horizontally arranged above and / or below the elastic support base plate 219. The box connecting plate 2110 is fixedly connected to the inner surface of the side wall of the glove box 1. The box connecting plate 2110 is provided with a first axial hole. One end of the inner sleeve 2111 is connected to the box The inner sleeve 2111 is connected to the outer sleeve 2112 by a connecting plate 2110, the outer sleeve 2111 is processed with an outer thread on the outer side of the other end, and the inner sleeve 2112 is processed with an inner thread on the inner side of one end. The inner sleeve 2111 is threadedly connected with the outer sleeve 2112, and the outer sleeve 2112 is provided with a sleeve end cover at the other end, and a second axial hole is provided on the sleeve end cover. The first axial hole, the second axial hole, the inner sleeve 2111 and the outer sleeve 2112 are coaxially arranged, and a support shaft 2113 is coaxially inserted inside the inner sleeve 2111. One end of the shaft 2113 passes through the first axial hole on the box connecting plate 2110 and is fixedly connected to the upper surface of the elastic support bottom plate 219, and the other end of the support shaft 2113 passes through the second axial hole on the sleeve end cover. The support shaft 2113 is provided with a shoulder at one end close to the box connecting plate 2110, and the diameter of the first axial hole is smaller than the diameter of the shoulder. A spring 2114 is sleeved on the support shaft 2113, and one end of the spring 2114 is against the shoulder, and the other end of the spring 2114 is against the sleeve end cover.

[0010] Furthermore, each secondary roller unit includes a secondary roller body 221 and a U-shaped secondary roller support 222. Two coaxially arranged second shaft holes are provided on the two side wing plates of the U-shaped secondary roller support 222. Two second bearings are coaxially embedded in the two second shaft holes. The opening of the U-shaped secondary roller support 222 is provided with a parallelly arranged secondary roller body 221. The two ends of the core shaft of the secondary roller body 221 are respectively connected to the two second bearings; each secondary chain transmission mechanism includes a secondary roller drive motor 223, a secondary active sprocket, and a secondary driven sprocket. , a first and second transmission chain, a second and second transmission chain and a plurality of secondary transmission sprockets, a secondary roller driving motor 223 is mounted on the middle web of the U-shaped secondary roller bracket 222, a secondary driving sprocket is mounted on the end of the rotating shaft of the secondary roller driving motor 223, a secondary driven sprocket is mounted on one end of the core shaft of one of the secondary roller bodies 221, the secondary driven sprocket is connected to the secondary driving sprocket through the first and second transmission chains, a secondary transmission sprocket is mounted on one end of the core shaft of each secondary roller body 221, and all the secondary transmission sprockets are connected through the second and second transmission chain.

[0011] Furthermore, each rigid support assembly includes a rigid support base plate 229 and eight rigid support units. The rigid support base plate 229 is horizontally arranged above multiple groups of upper secondary roller units in multiple groups of secondary roller assemblies and / or below multiple groups of lower secondary roller units in multiple groups of secondary roller assemblies. The rigid support base plate 229 is fixedly connected to the middle web of the U-shaped secondary roller bracket 222. Four rigid support units are vertically arranged in a rectangular array on the left and right sides of the rigid support base plate 229; each rigid support unit includes a support base 2210, a support long bolt 2211 and a side slide rail 2212. The support base 2210 is arranged below the rigid support base plate 229. The support base 2210 is provided with vertically arranged threaded holes. The long support bolts 2211 are screwed in the threaded holes. The ends of the long support bolts 2211 are against the lower surface of the rigid support base plate 229. The left and right ends of the rigid support base plate 229 are provided with four rectangular protrusions that slide with the rigid support unit. The side slide rails 2212 are vertically arranged on the sides of the rigid support base plate 229. The side slide rails 2212 are fixedly connected to the inner surface of the side wall of the glove box 1, and the slide grooves of the side slide rails 2212 slide with the rectangular protrusions of the rigid support base plate 229.

[0012] Furthermore, the rolling mill 2 also includes a feeding mechanism 23, which is arranged between the sealed feeding window 12 and the primary rolling roller mechanism 21. The feeding mechanism 23 includes a transverse movement component 231, a lifting component 232 and a workpiece clamping component 233. The transverse movement component 231 is a linear guide rail, and the lifting component 232 is installed on the slide of the linear guide rail. The workpiece clamping component 233 is installed at the top of the lifting component 232.

[0013] Furthermore, the lifting assembly 232 includes a lifting fixed frame 2321, a lifting movable frame 2322, a lifting cylinder 2323, four lifting slide rails 2324 and eight lifting sliders. The lifting fixed frame 2321 includes a rectangular steel structure frame. The lifting fixed frame 2321 is installed on the slide platform of the linear guide rail. The four lifting slide rails 2324 are vertically arranged on the front and rear sides of the lifting fixed frame 2321 in a rectangular array. The four lifting slide rails 2324 are respectively installed on the outer sides of the four rectangular columns of the lifting fixed frame 2321. A vertically arranged lifting cylinder 2323 is installed on the top crossbeam of 21, and the lifting movable frame 2322 includes a movable frame top plate and four angle steel columns. The four angle steel columns are respectively vertically arranged on the outside of the four rectangular columns of the lifting fixed frame 2321, and the upper and lower ends of the inner side of each angle steel column are respectively slidably connected with the corresponding lifting slide rail 2324 through two lifting sliders, the movable frame top plate is horizontally arranged above the four angle steel columns, the lower surface of the top plate is connected to the top ends of the four angle steel columns, and the piston rod end of the lifting cylinder 2323 is connected to the lower surface of the movable frame top plate.

[0014] Furthermore, the workpiece clamping assembly 233 includes a U-shaped base 2331, a bidirectional screw mechanism 2332, a linear guide mechanism 2333, a clamping motor 2334, a clamping belt transmission mechanism 2335, a left clamping jaw 2336 and a right clamping jaw 2337. The bidirectional screw mechanism 2332 is horizontally arranged on the middle web of the U-shaped base 2331 along the width direction of the U-shaped base 2331. A linear guide mechanism 2333 is also arranged on the middle web of the U-shaped base 2331. Two nuts of the bidirectional screw mechanism 2332 are respectively connected by the linear guide mechanism 233 The two sliders of the linear guide mechanism 2333 are slidably connected with the two slide rails of the linear guide mechanism 2333. The left clamping jaw 2336 and the right clamping jaw 2337 have the same structure. The left clamping jaw 2336 and the right clamping jaw 2337 are respectively mounted on the upper surfaces of the two sliders of the linear guide mechanism 2333. Two rectangular brackets arranged opposite to each other are respectively arranged on the inner sides of the ends of the left clamping jaw 2336 and the right clamping jaw 2337. The clamping motor 2334 is mounted on the side wing plate of the U-shaped base 2331. The rotating shaft of the clamping motor 2334 is connected to the end of the bidirectional screw mechanism 2332 through the clamping belt transmission mechanism 2335.

[0015] Furthermore, the rolling mill 2 also includes a winding mechanism 24, which is arranged between the sealed discharge door 11 and the secondary roller mechanism 22. The winding mechanism 24 includes a winding roller 241, a winding bracket 242, a winding motor 243, a winding belt transmission mechanism and a belt receiving rubber strip. The winding bracket 242 is a U-shaped structure, and the middle web of the winding bracket 242 is horizontally installed on the inner wall of the glove box 1. The winding roller 241 is installed on the winding wing plates on both sides of the winding bracket 242. The winding wing plates are split structures. The winding wing plates include a rectangular vertical plate and a semicircular top plate. The semicircular top plate is arranged on the top of the rectangular vertical plate. Two flanges are respectively provided at the bottom of the outer side surfaces of the semicircular top plate and the rectangular vertical plate, and the two flanges are connected by locking bolts. Two semicircular holes of equal diameter and coaxial arrangement are respectively opened at the intersection of the semicircular top plate and the rectangular vertical plate, and bearings are embedded in the two semicircular holes. The two ends of the core shaft of the winding roller 241 are respectively inserted into the inner holes of the two bearing inner rings on the two winding wing plates. A winding motor 243 is installed at the bottom of the middle web of the winding bracket 242. The rotating shaft of the winding motor 243 is connected to the core shaft end of the winding roller 241 through a winding belt transmission mechanism, and a tape strip is bonded to the outer side surface of the winding roller 241 along the axial direction.

[0016] Furthermore, the glove box 1 includes gloves, an airtight box body 13 and an inert gas protection system. A circular socket is provided on the front side wall of the airtight box body 13, and the gloves are sealed at the circular socket. An air inlet and an air outlet are respectively provided on the front and rear side walls of the airtight box body 13, and both the air inlet and the air outlet are connected to the inert gas protection system through pipelines.

[0017] Compared with the prior art, the utility model has the following effects:

[0018] 1. The production device of the utility model can effectively improve the performance and quality of the ultra-thin sodium metal strip. The production device of the utility model is provided with a primary roller mechanism and a secondary roller mechanism at the same time. The primary roller mechanism is used to press the sodium metal into a strip shape. The secondary roller mechanism is used to press the strip sodium metal into an ultra-thin strip shape. The device ensures the thickness uniformity and surface smoothness of the ultra-thin sodium metal strip through a high-precision roller system and a precise transmission system. Compared with the prior art, this significantly improves the product quality.

[0019] 2. The production device of the utility model can effectively improve the production efficiency of ultra-thin metallic sodium strips. The optimized transmission system and automatic control system greatly improve the production efficiency. Compared with the prior art, the production speed is increased by about 50%.

[0020] 3. The production device of the utility model can effectively improve the safety of ultra-thin sodium metal strips. The airtight design of the glove box effectively prevents the sodium metal from contacting oxygen or moisture in the air, avoids the risk of oxidation and spontaneous combustion, and significantly improves the safety of operation.

[0021] 4. The production device of the utility model can effectively improve the material utilization rate. The precise feeding and rolling system reduces the waste of raw materials, improves the material utilization rate and reduces the production cost. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a side view of the production device of the ultra-thin sodium metal strip of the utility model after removing the right box plate;

[0023] Figure 2 It is a top view of the production device of the ultra-thin sodium metal strip of the utility model;

[0024] Figure 3 This is a front view of the production device of the ultra-thin sodium metal strip of the utility model;

[0025] Figure 4 It is an axonometric diagram of a production device for ultra-thin sodium metal strips of the utility model;

[0026] Figure 5 It is a side view of two primary roller units in a set of primary roller assemblies of the utility model and two primary chain transmission mechanisms driving them after being assembled;

[0027] Figure 6 It is a front view of two primary roller units in a set of primary roller assemblies of the utility model and two primary chain transmission mechanisms driving them after being assembled;

[0028] Figure 7 It is a side view of the workpiece clamping assembly of the utility model;

[0029] Figure 8 It is a top view of the workpiece clamping assembly of the utility model;

[0030] Fig. 9 It is a structural schematic diagram of the elastic support unit of the utility model;

[0031] Fig.10 It is a structural schematic diagram of the rigid support unit of the utility model.

[0032] In the figure: 1. glove box; 11. sealed discharge door; 12. sealed feed window; 13. airtight box body; 2. rolling mill; 21. primary rolling roll mechanism; 211. primary rolling roll body; 212. U-shaped primary rolling roll support; 213. primary rolling roll drive motor; 214. primary driving sprocket; 215. primary driven sprocket; 216. first primary transmission chain; 217. second primary transmission chain; 218. primary transmission sprocket; 219. elastic support bottom plate; 2110. box body connecting plate; 2111. inner sleeve; 2112. outer sleeve; 2113. support shaft; 2114. spring; 22. secondary rolling roll mechanism; 221. secondary rolling roll body; 222. U-shaped secondary rolling roll support; 223. secondary rolling roll drive motor; 224. secondary driving sprocket; 225. secondary driven sprocket; 226. first secondary transmission chain; 227. second secondary transmission chain; 228. secondary transmission sprocket; 229. rigid support bottom plate; 2210. support base; 2211. support long bolt; 2212. side slide rail; 23. feeding mechanism; 231. transverse movement assembly; 232. lifting assembly; 2321. lifting fixed frame; 2322. lifting movable frame; 2323. lifting cylinder; 2324. lifting slide rail; 233. workpiece clamping assembly; 2331. U-shaped base; 2332. bidirectional lead screw mechanism; 2333. linear guide rail mechanism; 2334. clamping motor; 2335. clamping belt transmission mechanism; 2336. left clamping jaw; 2337. right clamping jaw; 24. winding mechanism; 241. winding roll; 242. winding support; 243. winding motor. Detailed implementation mode

[0033] Detailed implementation mode one: Combine Figures 1 to 10The present embodiment is described. The present embodiment is a production device for an ultrathin sodium metal strip, which includes a glove box 1. The right side wall of the glove box 1 is provided with an openable sealed discharge door 11, and the middle part of the left side wall of the glove box 1 is provided with an openable sealed feed window 12. The glove box 1 also includes a rolling machine 2 placed in the glove box 1. The rolling machine 2 includes a primary roller mechanism 21 and a secondary roller mechanism 22. The primary roller mechanism 21 and the secondary roller mechanism 22 are sequentially arranged at the bottom of the glove box 1 from the feed side to the discharge side; the primary roller mechanism 21 includes two primary chain transmission mechanisms, two groups of primary roller assemblies and two groups of elastic support assemblies. The two groups of primary roller assemblies are sequentially arranged from front to back along the direction of travel of the workpiece. Each group of primary roller assemblies includes two primary roller units. The two primary roller units are symmetrically arranged up and down with the center line of the glove box 1 as the center. The top of the upper primary roller unit and the bottom of the lower primary roller unit are respectively connected to the glove box through two groups of elastic support assemblies. 1 is connected to the inner wall of the glove box 1, the two upper primary roller units in the two groups of primary roller assemblies are separately connected to one of the primary chain transmission mechanisms, and the two lower primary roller units in the two groups of primary roller assemblies are separately connected to the other primary chain transmission mechanism; the secondary roller mechanism 22 includes two secondary chain transmission mechanisms, multiple groups of secondary roller assemblies and two groups of rigid support assemblies, the multiple groups of secondary roller assemblies are arranged in sequence from front to back along the travel direction of the workpiece, each group of secondary roller assemblies includes two secondary roller units, the two secondary roller units are symmetrically arranged up and down with the center line of the glove box 1 as the center, the top end of the upper secondary roller unit and the bottom end of the lower secondary roller unit are respectively connected to the inner wall of the glove box 1 through the two groups of rigid support assemblies, the multiple upper secondary roller units in the multiple groups of secondary roller assemblies are separately connected to one of the secondary chain transmission mechanisms, and the multiple lower secondary roller units in the multiple groups of secondary roller assemblies are separately connected to the other secondary chain transmission mechanism.

[0034] Specific implementation method 2: Combination Figures 1 to 10The present embodiment is described. Each primary roller unit of the present embodiment includes a primary roller body 211 and a U-shaped primary roller support 212. Two coaxially arranged first shaft holes are provided on the two side wing plates of the U-shaped primary roller support 212. Two first bearings are coaxially embedded in the two first shaft holes. The opening of the U-shaped primary roller support 212 is provided with a primary roller body 211 arranged in parallel. Both ends of the core shaft of the primary roller body 211 are connected to the two first bearings respectively. Each primary chain transmission mechanism includes a primary roller driving motor 213, a primary driving sprocket 214, a primary driven sprocket 215, a first primary transmission chain 2 16. A second primary transmission chain 217 and two primary transmission sprockets 218, a primary roller drive motor 213 is mounted on the middle web of the U-shaped primary roller support 212, a primary driving sprocket 214 is mounted on the end of the rotating shaft of the primary roller drive motor 213, a primary driven sprocket 215 is mounted on one end of the mandrel of one primary roller body 211, the primary driven sprocket 215 is connected to the primary driving sprocket 214 through the first primary transmission chain 216, a primary transmission sprocket 218 is mounted on one end of the mandrel of each primary roller body 211, and all primary transmission sprockets 218 are connected through the second primary transmission chain 217. In this way, each group of primary roller assemblies includes two upper and lower primary roller units for pressing metallic sodium into a strip shape. The primary chain transmission mechanism is used to drive the primary roller body 211 to rotate. The primary roller drive motor 213 reduces the rotation speed through the primary driving sprocket 214, the primary driven sprocket 215 and the first primary transmission chain 216, and drives the roller to rotate at an appropriate speed. The power is transmitted from the primary roller drive motor 213 to the roller through the second primary transmission chain 217 and the two primary transmission sprockets 218 to ensure the synchronous rotation of the roller. The high-precision roller and transmission system ensure that the thickness of the metallic sodium strip is uniform and the surface is smooth. Other components and connection relationships are the same as those in the first embodiment.

[0035] Specific implementation method three: Combination Figures 1 to 10Describing this embodiment, each elastic support assembly of this embodiment includes an elastic support base plate 219 and eight elastic support units. The elastic support base plate 219 is horizontally arranged above the two upper primary roller units in the two groups of primary roller assemblies and / or below the two lower primary roller units in the two groups of primary roller assemblies. The elastic support base plate 219 is fixedly connected to the middle web of the U-shaped primary roller bracket 212. The upper surface and / or lower surface of the elastic support base plate 219 are provided with four elastic support units vertically arranged in a rectangular array; each elastic support unit includes a box connecting plate 2110, an inner sleeve 2111, an outer sleeve 2112, a support shaft 2113 and a spring 2114. The box connecting plate 2110 is horizontally arranged above and / or below the elastic support base plate 219. The box connecting plate 2110 is fixedly connected to the inner surface of the side wall of the glove box 1. The box connecting plate 2110 is provided with a first axial hole, and the inner sleeve 2111 One end is connected to the box connecting plate 2110, the other end of the inner sleeve 2111 is processed with an external thread on the outer side, and the inner side of one end of the outer sleeve 2112 is processed with an internal thread, the inner sleeve 2111 is threadedly connected with the outer sleeve 2112, and the other end of the outer sleeve 2112 is provided with a sleeve end cover, and the sleeve end cover is provided with a second axial hole, the first axial hole, the second axial hole, the inner sleeve 2111 and the outer sleeve 2112 are coaxially arranged, and a support shaft 2113 is coaxially inserted inside the inner sleeve 2111. One end of the support shaft 2113 passes through the first axial hole on the box connecting plate 2110 and is fixedly connected to the upper surface of the elastic support bottom plate 219. The other end of the support shaft 2113 passes through the second axial hole on the sleeve end cover. The support shaft 2113 is provided with a shoulder at one end close to the box connecting plate 2110. The diameter of the first axial hole is smaller than the diameter of the shoulder. A spring 2114 is sleeved on the support shaft 2113. One end of the spring 2114 abuts against the shoulder, and the other end of the spring 2114 abuts against the sleeve end cover. With such a configuration, the device adopts a segmented pressing method during the sodium metal pressing process. First, the sodium ingot is pressed into a strip shape by the primary rolling mechanism 21; and then the strip sodium metal is pressed into an ultra-thin strip shape by the secondary rolling mechanism 22. Since the sodium metal is in the form of a thick sodium ingot before processing, the device connects two elastic support components to the upper and lower ends of the two primary roller units in each group of primary roller assemblies. When the sodium ingot contacts the rollers of the two primary roller units, the spring 2114 in the elastic support unit is compressed. However, due to the support force of the spring, the sodium ingot can smoothly enter the upper and lower rollers and can be pressed at the same time. Since the metallic sodium has been pressed into a strip shape by the primary roller mechanism 21 before entering the secondary roller mechanism 22, the uniformity of the pressing of the sodium metal can be improved when entering the secondary roller mechanism 22. In addition, the inner sleeve 2111 and the outer sleeve 2112 of the device are connected by threads, so that the initial support force of the spring 2114 can be adjusted. Other components and connection relationships are the same as those of the first or second specific implementation.

[0036] Specific implementation method four: Combination Figures 1 to 10 The present embodiment is described. Each secondary roller unit of the present embodiment includes a secondary roller body 221 and a U-shaped secondary roller support 222. Two side wing plates of the U-shaped secondary roller support 222 are provided with two coaxially arranged second shaft holes, and two second bearings are coaxially embedded in the two second shaft holes. The opening of the U-shaped secondary roller support 222 is provided with a parallelly arranged secondary roller body 221, and the two ends of the core shaft of the secondary roller body 221 are respectively connected to the two second bearings; each secondary chain transmission mechanism includes a secondary roller driving motor 223, a secondary active sprocket, a second The secondary roller drive motor 223 is mounted on the middle web of the U-shaped secondary roller support 222. The secondary roller drive motor 223 is mounted on the end of the rotating shaft of the secondary roller drive motor 223. A secondary driving sprocket is mounted on one end of the mandrel of one secondary roller body 221. The secondary driven sprocket is connected to the secondary driving sprocket through the first and second transmission chains. A secondary transmission sprocket is mounted on one end of the mandrel of each secondary roller body 221. All secondary transmission sprockets are connected through the second and second transmission chains. In this way, each group of secondary roller assemblies includes two upper and lower secondary roller units. The primary roller mechanism 21 presses the metallic sodium into a strip shape, and then the strip metallic sodium is pressed into an ultra-thin strip shape through the secondary roller mechanism 22. The secondary chain transmission mechanism is used to drive the secondary roller body 221 to rotate. The secondary roller drive motor 223 reduces the rotation speed through the secondary driving sprocket, the secondary driven sprocket and the first and second transmission chains, and drives the roller to rotate at an appropriate speed. The second secondary transmission chain and multiple secondary transmission sprockets transmit power from the secondary roller drive motor 223 to the rollers to ensure synchronous rotation of the rollers. The high-precision rollers and transmission system ensure that the thickness of the metallic sodium strip is uniform and the surface is smooth. Other components and connection relationships are the same as those of the first, second or third specific embodiments.

[0037] Specific implementation method five: Combination Figures 1 to 10To explain this embodiment, each rigid support assembly of this embodiment includes a rigid support base plate 229 and eight rigid support units. The rigid support base plate 229 is horizontally arranged above multiple groups of upper secondary roller units in multiple groups of secondary roller assemblies and / or below multiple groups of lower secondary roller units in multiple groups of secondary roller assemblies. The rigid support base plate 229 is fixedly connected to the middle web of the U-shaped secondary roller bracket 222. Four rigid support units are vertically arranged in a rectangular array on the left and right sides of the rigid support base plate 229. Each rigid support unit includes a support base 2210, a support long bolt 2211 and a side slide rail 2212. 212, the support base 2210 is arranged below the rigid support bottom plate 229, the support base 2210 is provided with a vertically arranged threaded hole, the support long bolt 2211 is screwed into the threaded hole, the end of the support long bolt 2211 is against the lower surface of the rigid support bottom plate 229, the left and right ends of the rigid support bottom plate 229 are provided with four rectangular protrusions that slide with the rigid support unit, the side slide rail 2212 is vertically arranged on the side of the rigid support bottom plate 229, the side slide rail 2212 is fixedly connected to the inner surface of the side wall of the glove box 1, and the slide groove of the side slide rail 2212 slides with the rectangular protrusion of the rigid support bottom plate 229. With such a configuration, the difference between the rigid support assembly and the elastic support assembly is that the secondary rolling mechanism 22 is the last process in the sodium metal pressing process, and the processing requirements of the sodium metal need to be guaranteed, so it is necessary to ensure that the gap between the upper and lower rollers in the secondary rolling mechanism 22 is consistent with the thickness requirements of the processed sodium metal. In addition, the gap between the upper and lower rollers in the rigid support unit of the device can be adjusted by screwing the long support bolt 2211 into the depth, so as to adapt to the pressing of metallic sodium with different thickness requirements. The other components and connection relationships are the same as those of the first, second, third or fourth embodiments.

[0038] Specific implementation method six: Combination Figures 1 to 10 To explain this embodiment, the rolling mill 2 of this embodiment further includes a feeding mechanism 23, which is arranged between the sealed feeding window 12 and the primary rolling roller mechanism 21. The feeding mechanism 23 includes a traverse assembly 231, a lifting assembly 232 and a workpiece clamping assembly 233. The traverse assembly 231 is a linear guide rail, and the lifting assembly 232 is installed on the slide of the linear guide rail. The top of the lifting assembly 232 is installed with a workpiece clamping assembly 233. With such an arrangement, the feeding mechanism 23 is used to feed the metallic sodium raw material into the rolling area. Other components and connection relationships are the same as those of the specific embodiments one, two, three, four or five.

[0039] Specific implementation method seven: Combination Figures 1 to 10The lifting assembly 232 of the present embodiment includes a lifting fixed frame 2321, a lifting movable frame 2322, a lifting cylinder 2323, four lifting rails 2324 and eight lifting sliders. The lifting fixed frame 2321 includes a rectangular steel structure frame. The lifting fixed frame 2321 is installed on the slide of the linear guide rail. The four lifting rails 2324 are vertically arranged on the front and rear sides of the lifting fixed frame 2321 in a rectangular array. The four lifting rails 2324 are respectively installed on the outer sides of the four rectangular columns of the lifting fixed frame 2321. A vertically arranged lifting cylinder 2323 is installed on the top crossbeam of the fixed frame 2321. The lifting movable frame 2322 includes a movable frame top plate and four angle steel columns. The four angle steel columns are respectively arranged vertically on the outside of the four rectangular columns of the lifting fixed frame 2321. The upper and lower ends of the inner side of each angle steel column are respectively slidably connected to the corresponding lifting slide rail 2324 through two lifting sliders. The movable frame top plate is horizontally arranged above the four angle steel columns, and the lower surface of the top plate is connected to the top of the four angle steel columns. The piston rod end of the lifting cylinder 2323 is connected to the lower surface of the movable frame top plate. In this way, the lifting assembly 232 is used to adjust the height of the workpiece clamping assembly 233, and then adjust the position of the sodium metal installed on the workpiece clamping assembly 233 to the middle of the upper and lower secondary roller bodies 221, so as to improve the rolling accuracy of the sodium metal. Other components and connection relationships are the same as those of the specific embodiments one, two, three, four, five or six.

[0040] Specific implementation method eight: Combination Figures 1 to 10The present embodiment is described. The workpiece clamping assembly 233 of the present embodiment includes a U-shaped base 2331, a bidirectional screw mechanism 2332, a linear guide mechanism 2333, a clamping motor 2334, a clamping belt transmission mechanism 2335, a left clamping jaw 2336 and a right clamping jaw 2337. The bidirectional screw mechanism 2332 is horizontally arranged on the middle web of the U-shaped base 2331 along the width direction of the U-shaped base 2331. A linear guide mechanism 2333 is also arranged on the middle web of the U-shaped base 2331. Two nuts of the bidirectional screw mechanism 2332 are respectively connected by the linear guide mechanism. The two sliders of the structure 2333 are slidably connected with the two slide rails of the linear guide mechanism 2333, the left clamp 2336 and the right clamp 2337 have the same structure, the left clamp 2336 and the right clamp 2337 are respectively mounted on the upper surfaces of the two sliders of the linear guide mechanism 2333, the inner sides of the ends of the left clamp 2336 and the right clamp 2337 are respectively provided with two rectangular support blocks arranged relatively, the clamping motor 2334 is mounted on the side wing plate of the U-shaped base 2331, and the rotating shaft of the clamping motor 2334 is connected to the end of the bidirectional screw mechanism 2332 through the clamping belt transmission mechanism 2335. In this way, the preservation of sodium generally soaks the bulk sodium ingot in kerosene and seals it with a tin can. When the sodium ingot is used, it is first moved to the glove box, and then the spacing between the left clamp 2336 and the right clamp 2337 is adjusted in advance according to the size of the sodium ingot. Specifically, first, the clamping motor 2334 is started to drive the bidirectional screw mechanism 2332 to rotate, and the two nuts of the bidirectional screw mechanism 2332 are close to each other at the same time. When the two nuts of the bidirectional screw mechanism 2332 are moved to the specified position, the clamping motor 2334 is paused. Then, after the operator takes out the sodium ingot from the glove box with the help of gloves, the sodium ingot is placed on the upper surface of the rectangular support block of the left clamping jaw 2336 and the right clamping jaw 2337. Finally, the clamping motor 2334 is started again to drive the bidirectional screw mechanism 2332 to rotate until the left clamping jaw 2336 and the right clamping jaw 2337 clamp the sodium ingot, and at this time the sodium ingot is located in the middle of the roller. The other components and connection relationships are the same as those of the specific embodiments one, two, three, four, five, six or seven.

[0041] Specific implementation method nine: Combination Figures 1 to 10The rolling mill 2 of the present embodiment further comprises a winding mechanism 24, which is arranged between the sealing discharge door 11 and the secondary roller mechanism 22. The winding mechanism 24 comprises a winding roller 241, a winding support 242, a winding motor 243, a winding belt transmission mechanism and a belt receiving rubber strip. The winding support 242 is a U-shaped structure. The middle web of the winding support 242 is horizontally mounted on the inner side wall of the glove box 1. The winding roller 241 is mounted on the winding wing plates on both sides of the winding support 242. The winding wing plates are split structures. The winding wing plates comprise a rectangular vertical plate and a semicircular top plate. The semicircular top plate is arranged on the rectangular vertical plate. Two flanges are respectively provided at the top of the vertical plate, the bottom of the outer side of the semicircular top plate and the rectangular vertical plate, and the two flanges are connected by locking bolts. Two semicircular holes of equal diameter and coaxial arrangement are respectively opened at the intersection of the semicircular top plate and the rectangular vertical plate, and bearings are embedded in the two semicircular holes. The two ends of the mandrel of the winding roller 241 are respectively inserted into the inner holes of the two bearing inner rings on the two winding wing plates. A winding motor 243 is installed at the bottom of the middle web of the winding bracket 242. The rotating shaft of the winding motor 243 is connected to the mandrel end of the winding roller 241 through the winding belt transmission mechanism, and the outer side of the winding roller 241 is bonded with a tape adhesive strip along the axial direction. With such a configuration, the winding mechanism 24 is used to roll the rolled sodium metal strip into a roll for easy storage and transportation. Specifically, the operator first uses gloves to stick the edge of the sodium metal strip that has just been rolled out of the secondary roller mechanism 22 to the surface of the winding roller 241 through the tape adhesive strip. Then, the winding motor 243 is started to drive the winding roller 241 to rotate, and the sodium metal strip is wound into a roll; when the sodium metal strip is wound, the locking bolts connecting the rectangular vertical plate and the semicircular top plate are removed, and the winding roller 241 wound with the sodium metal strip is removed from the winding bracket 242 as a whole, and the rolled sodium metal strip is taken down for storage. The other components and connection relationships are the same as those of the specific embodiments one, two, three, four, five, six, seven or eight.

[0042] Specific implementation method ten: Combination Figures 1 to 10This embodiment is described. The glove box 1 of this embodiment includes gloves, an airtight box 13 and an inert gas protection system. A circular jack is provided on the front side wall of the airtight box 13, and gloves are sealed at the circular jack. Inlet and outlet ports are provided on the front and rear side walls of the airtight box 13, respectively, and both the inlet and outlet ports are connected to the inert gas protection system through pipelines. In this way, the gloves are installed on the front panel of the airtight box 13, and the operator can operate the internal equipment through the gloves. The airtight box 13 is made of airtight material and is filled with inert gas (such as argon) to prevent the reaction of metallic sodium with oxygen or moisture in the air. An observation window is installed on the front panel of the glove box to allow the operator to observe the internal operation. All connection ports use airtight interfaces to prevent gas leakage. The airtight design of the glove box 1 prevents the reaction of metallic sodium with oxygen or moisture in the air. The efficient inert gas protection system ensures the safety of the working environment. The humanized design inside the glove box 1 allows the operator to easily operate the rolling mill. The observation window design facilitates real-time monitoring of the production process. Other components and connection relationships are the same as those of the first, second, third, fourth, fifth, sixth, seventh, eighth or ninth embodiment.

[0043] In this embodiment, the inert gas protection system includes an argon storage tank, an air pump, a gas collection tank, a solenoid valve and a gas connecting pipeline. The argon storage tank is connected to the air inlet of the airtight box 13 through the gas connecting pipeline, and the air pump and the solenoid valve are installed on the gas connecting pipeline. The air outlet of the airtight box 13 is connected to the gas collection tank through the gas connecting pipeline, and the air pump and the solenoid valve are installed on the gas connecting pipeline.

[0044] How it works

[0045] Combination Figures 1 to 10 The working principle of the production device of the ultra-thin sodium metal strip of the utility model is described as follows:

[0046] Preparation stage: put the sodium metal raw material into the feeding mechanism 23, start the inert gas protection system in the glove box 1. Set the working parameters of the rollers, start the primary roller drive motor 213 of the primary roller mechanism 21 and the secondary roller drive motor of the secondary roller mechanism 22;

[0047] Primary rolling process: Sodium metal enters between the upper and lower rollers of the primary rolling mechanism 21 through the feeding mechanism 23. The upper and lower rollers rotate synchronously under the drive of the transmission mechanism to press the sodium metal into a strip shape.

[0048] Secondary rolling process: The strip-shaped metallic sodium passes through the primary rolling mechanism 21 and enters between the upper and lower rollers of the secondary rolling mechanism 22. The upper and lower rollers rotate synchronously under the drive of the transmission mechanism to press the strip-shaped metallic sodium into an ultra-thin strip.

[0049] Coiling process: The rolled ultra-thin sodium metal strip is sent to the coiling mechanism 24 through the secondary roller mechanism 22, and the coiling mechanism 24 winds the sodium metal strip into a coil for subsequent processing.

[0050] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features may be replaced by equivalents. However, these modifications or replacements do not deviate the essence of the corresponding technical solutions from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A production device for ultrathin sodium metal strips, comprising a glove box (1), the right side wall of the glove box (1) is provided with an openable sealed discharge door (11), and the middle part of the left side wall of the glove box (1) is provided with an openable sealed feed window (12), characterized in that: The invention also comprises a rolling machine (2) arranged in the glove box (1), the rolling machine (2) comprising a primary rolling mechanism (21) and a secondary rolling mechanism (22), the primary rolling mechanism (21) and the secondary rolling mechanism (22) being arranged in sequence at the bottom of the glove box (1) from the feeding side to the discharging side; the primary rolling mechanism (21) comprising two primary chain transmission mechanisms, two groups of primary rolling assemblies and two groups of elastic support assemblies, the two groups of primary rolling assemblies being arranged in sequence from front to back along the direction of travel of the workpiece, each group of primary rolling assemblies comprising two primary rolling units, the two primary rolling units being arranged symmetrically up and down with the center line of the glove box (1) as the center, the top end of the upper primary rolling unit and the bottom end of the lower primary rolling unit being connected to the inner wall of the glove box (1) via the two groups of elastic support assemblies respectively, the two upper primary rolling units in the two groups of primary rolling assemblies being connected to one of the primary rolling units. The first and second primary roller assemblies are connected separately to the first chain transmission mechanism, and the two lower primary roller units in the two groups of primary roller assemblies are connected separately to the other primary chain transmission mechanism; the secondary roller mechanism (22) comprises two secondary chain transmission mechanisms, multiple groups of secondary roller assemblies and two groups of rigid support assemblies, the multiple groups of secondary roller assemblies are arranged in sequence from front to back along the direction of travel of the workpiece, each group of secondary roller assemblies comprises two secondary roller units, the two secondary roller units are arranged symmetrically up and down with the center line of the glove box (1) as the center, the top end of the upper secondary roller unit and the bottom end of the lower secondary roller unit are respectively connected to the inner wall of the glove box (1) through the two groups of rigid support assemblies, the multiple upper secondary roller units in the multiple groups of secondary roller assemblies are connected separately to one of the secondary chain transmission mechanisms, and the multiple lower secondary roller units in the multiple groups of secondary roller assemblies are connected separately to the other secondary chain transmission mechanism.

2. The production device of an ultra-thin metallic sodium ribbon according to claim 1, characterized in that: Each primary roller unit comprises a primary roller body (211) and a U-shaped primary roller support (212); two coaxially arranged first shaft holes are provided on the two side wing plates of the U-shaped primary roller support (212); two first bearings are coaxially embedded in the two first shaft holes; a primary roller body (211) arranged in parallel is provided at the opening of the U-shaped primary roller support (212); two ends of the core shaft of the primary roller body (211) are respectively connected to the two first bearings; each primary chain transmission mechanism comprises a primary roller driving motor (213), a primary driving sprocket (214), a primary driven sprocket (215), a first primary transmission chain (216), a second primary transmission chain (217); 17) and two primary transmission sprockets (218), a primary roller drive motor (213) is mounted on the middle web of a U-shaped primary roller support (212), a primary driving sprocket (214) is mounted on the end of the rotating shaft of the primary roller drive motor (213), a primary driven sprocket (215) is mounted on one end of the mandrel of one primary roller body (211), the primary driven sprocket (215) and the primary driving sprocket (214) are connected via a first primary transmission chain (216), a primary transmission sprocket (218) is mounted on one end of the mandrel of each primary roller body (211), and all the primary transmission sprockets (218) are connected via a second primary transmission chain (217).

3. The production device of an ultra-thin metallic sodium ribbon according to claim 2, characterized in that: Each elastic support assembly comprises an elastic support base plate (219) and eight elastic support units. The elastic support base plate (219) is horizontally arranged above two upper primary roller units in the two groups of primary roller assemblies and / or below two lower primary roller units in the two groups of primary roller assemblies. The elastic support base plate (219) is fixedly connected to the middle web of the U-shaped primary roller support (212). The upper surface and / or the lower surface of the elastic support base plate (219) are provided with four elastic support units vertically arranged in a rectangular array. Support unit; each elastic support unit comprises a box connecting plate (2110), an inner sleeve (2111), an outer sleeve (2112), a support shaft (2113) and a spring (2114); the box connecting plate (2110) is horizontally arranged above and / or below the elastic support bottom plate (219); the box connecting plate (2110) is fixedly connected to the inner surface of the side wall of the glove box (1); a first axial hole is provided on the box connecting plate (2110); one end of the inner sleeve (2111) is connected to the box connecting plate (2113); 10) connection, the outer side surface of the other end of the inner sleeve (2111) is processed with an external thread, the inner side surface of one end of the outer sleeve (2112) is processed with an internal thread, the inner sleeve (2111) is threadedly connected with the outer sleeve (2112), the other end of the outer sleeve (2112) is provided with a sleeve end cover, the sleeve end cover is provided with a second axial hole, the first axial hole, the second axial hole, the inner sleeve (2111) and the outer sleeve (2112) are coaxially arranged, a support shaft (2113) is coaxially inserted inside the inner sleeve (2111), and the support shaft (2113) is coaxially inserted inside the inner sleeve (2111). One end of the support shaft (2113) passes through the first axial hole on the box connecting plate (2110) and is fixedly connected to the upper surface of the elastic support bottom plate (219), and the other end of the support shaft (2113) passes through the second axial hole on the sleeve end cover. The support shaft (2113) is provided with a shoulder at one end close to the box connecting plate (2110), and the diameter of the first axial hole is smaller than the diameter of the shoulder. A spring (2114) is sleeved on the support shaft (2113), and one end of the spring (2114) is against the shoulder, and the other end of the spring (2114) is against the sleeve end cover.

4. The production device of an ultra-thin sodium metal ribbon according to claim 1, characterized in that: Each secondary roller unit comprises a secondary roller body (221) and a U-shaped secondary roller support (222). Two side wing plates of the U-shaped secondary roller support (222) are provided with two coaxially arranged second shaft holes, and two second bearings are coaxially embedded in the two second shaft holes. The opening of the U-shaped secondary roller support (222) is provided with a parallelly arranged secondary roller body (221), and two ends of the core shaft of the secondary roller body (221) are respectively connected to the two second bearings; each secondary chain transmission mechanism comprises a secondary roller driving motor (223), a secondary driving sprocket, and a secondary driven sprocket. , a first and second transmission chain, a second and second transmission chain and a plurality of secondary transmission sprockets, a secondary roller driving motor (223) is mounted on the middle web of a U-shaped secondary roller support (222), a secondary driving sprocket is mounted on the end of the rotating shaft of the secondary roller driving motor (223), a secondary driven sprocket is mounted on one end of the mandrel of one of the secondary roller bodies (221), the secondary driven sprocket is connected to the secondary driving sprocket via the first and second transmission chain, a secondary transmission sprocket is mounted on one end of the mandrel of each secondary roller body (221), and all the secondary transmission sprockets are connected via the second and second transmission chain.

5. The production device of an ultra-thin metallic sodium ribbon according to claim 4, characterized in that: Each rigid support assembly comprises a rigid support base plate (229) and eight rigid support units. The rigid support base plate (229) is horizontally arranged above multiple groups of upper secondary roller units in multiple groups of secondary roller assemblies and / or below multiple groups of lower secondary roller units in multiple groups of secondary roller assemblies. The rigid support base plate (229) is fixedly connected to the middle web of the U-shaped secondary roller support (222). Four rigid support units are vertically arranged in a rectangular array on the left and right sides of the rigid support base plate (229). Each rigid support unit comprises a support base (2210), a support long bolt (2211) and a side slide rail (2212). The support base (221 0) is arranged below the rigid support base plate (229), a support base (2210) is provided with a vertically arranged threaded hole, a support long bolt (2211) is screwed into the threaded hole, an end of the support long bolt (2211) is against the lower surface of the rigid support base plate (229), four rectangular protrusions that slide with the rigid support unit are provided at the left and right ends of the rigid support base plate (229), a side slide rail (2212) is vertically arranged on the side of the rigid support base plate (229), the side slide rail (2212 is fixedly connected to the inner surface of the side wall of the glove box (1), and the slide groove of the side slide rail (2212) slides with the rectangular protrusion of the rigid support base plate (229).

6. The production device of an ultra-thin metallic sodium ribbon according to claim 1, 3 or 5, characterized in that: The rolling mill (2) also includes a feeding mechanism (23), which is arranged between the sealed feeding window (12) and the primary rolling roller mechanism (21). The feeding mechanism (23) includes a transverse movement component (231), a lifting component (232) and a workpiece clamping component (233). The transverse movement component (231) is a linear guide rail, the lifting component (232) is installed on a slide of the linear guide rail, and the workpiece clamping component (233) is installed at the top of the lifting component (232).

7. The production device of an ultra-thin sodium metal ribbon according to claim 6, characterized in that: The lifting assembly (232) includes a lifting fixed frame (2321), a lifting movable frame (2322), a lifting cylinder (2323), four lifting slide rails (2324) and eight lifting sliders. The lifting fixed frame (2321) includes a rectangular steel structure frame. The lifting fixed frame (2321) is installed on a slide table of a linear guide rail. The four lifting slide rails (2324) are vertically arranged on the front and rear sides of the lifting fixed frame (2321) in a rectangular array. The four lifting slide rails (2324) are respectively installed on the outer sides of four rectangular columns of the lifting fixed frame (2321). A vertically arranged lifting cylinder (2323) is installed on the top crossbeam of (2321), and the lifting movable frame (2322) includes a movable frame top plate and four angle steel columns. The four angle steel columns are respectively vertically arranged on the outside of the four rectangular columns of the lifting fixed frame (2321). The upper and lower ends of the inner side of each angle steel column are slidably connected to the corresponding lifting slide rail (2324) through two lifting sliders. The movable frame top plate is horizontally arranged above the four angle steel columns, and the lower surface of the top plate is connected to the top ends of the four angle steel columns. The piston rod end of the lifting cylinder (2323) is connected to the lower surface of the movable frame top plate.

8. The production device of an ultra-thin sodium metal ribbon according to claim 7, characterized in that: The workpiece clamping assembly (233) comprises a U-shaped base (2331), a bidirectional screw mechanism (2332), a linear guide mechanism (2333), a clamping motor (2334), a clamping belt transmission mechanism (2335), a left clamping jaw (2336) and a right clamping jaw (2337). The bidirectional screw mechanism (2332) is horizontally arranged on the middle web of the U-shaped base (2331) along the width direction of the U-shaped base (2331). A linear guide mechanism (2333) is also arranged on the middle web of the U-shaped base (2331). Two nuts of the bidirectional screw mechanism (2332) are respectively connected to the linear guide mechanism (2333). The two sliders are slidably connected with the two slide rails of the linear guide mechanism (2333), the left clamping jaw (2336) and the right clamping jaw (2337) have the same structure, the left clamping jaw (2336) and the right clamping jaw (2337) are respectively installed on the upper surface of the two sliders of the linear guide mechanism (2333), and two rectangular supporting blocks arranged opposite to each other are respectively provided on the inner sides of the ends of the left clamping jaw (2336) and the right clamping jaw (2337), the clamping motor (2334) is installed on the side wing plate of the U-shaped base (2331), and the rotating shaft of the clamping motor (2334) is connected to the end of the bidirectional screw mechanism (2332) through the clamping belt transmission mechanism (2335).

9. The production device of an ultra-thin sodium metal ribbon according to claim 8, characterized in that: The rolling mill (2) further comprises a winding mechanism (24), the winding mechanism (24) being arranged between the sealed discharge door (11) and the secondary roller mechanism (22), the winding mechanism (24) comprising a winding roller (241), a winding support (242), a winding motor (243), a winding belt transmission mechanism and a belt receiving rubber strip, the winding support (242) being a U-shaped structure, the middle web of the winding support (242) being horizontally mounted on the inner side wall of the glove box (1), the winding roller (241) being mounted on winding wing plates on both sides of the winding support (242), the winding wing plates being a split structure, the winding wing plates comprising a rectangular vertical plate and a semicircular top plate, the semicircular top plate being arranged on the rectangular vertical plate and ... The top of the rectangular vertical plate, the semicircular top plate and the bottom of the outer side of the rectangular vertical plate are respectively provided with two flanges, the two flanges are connected by locking bolts, and the intersection of the semicircular top plate and the rectangular vertical plate is respectively provided with two semicircular holes with equal diameters and arranged coaxially, and bearings are embedded in the two semicircular holes, and the two ends of the mandrel of the winding roller (241) are respectively inserted into the inner holes of the two bearing inner rings of the two winding wing plates, and a winding motor (243) is installed at the bottom of the middle web of the winding bracket (242), and the rotating shaft of the winding motor (243) is connected to the mandrel end of the winding roller (241) through a winding belt transmission mechanism, and a tape adhesive strip is bonded to the outer side of the winding roller (241) along the axial direction.

10. The production device of an ultra-thin sodium metal ribbon according to claim 1, characterized in that: The glove box (1) comprises gloves, an airtight box body (13) and an inert gas protection system. A circular plug hole is provided on the front side wall of the airtight box body (13), and the gloves are sealedly connected to the circular plug hole. An air inlet and an air outlet are respectively provided on the front and rear side walls of the airtight box body (13), and the air inlet and the air outlet are connected to the inert gas protection system through pipelines.

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