Quantitative anode powder adding equipment for new energy battery assembly

Abstract

The utility model discloses quantitative anode powder adding equipment for assembling a new energy battery. The quantitative anode powder adding equipment comprises a rack as well as a powder bin system, a quantitative system and a shell rotary feeding system which are arranged on the rack from top to bottom, the inlet end of the quantifying system is located under the outlet end of the powder bin system, and the outlet end of the quantifying system is located above the shell rotary feeding system. The quantifying system comprises a support, a vibrator and a quantifying device, the vibrator is fixedly located at the top of the support, and the quantifying device is fixedly located at the top of the vibrator. The automatic powder adding device has the advantages of automatically completing the accurate powder adding operation of the new energy battery, saving labor and improving the production efficiency.

Description

Technical Field

[0001] The utility model relates to the field of new energy batteries, in particular to a quantitative anode powder adding device for assembling new energy batteries. Background Art

[0002] During the assembly process of new energy batteries, anode powder needs to be added into the shell of the new energy battery. However, the weight of the anode powder is difficult to control, and a quantitative packaging scale is generally used.

[0003] However, quantitative packaging scales are suitable for medium and large batches of commodity packaging. For small batches of packaging, there may be problems such as large measurement deviation and slow packaging speed. Moreover, although quantitative packaging scales have the ability to measure quickly and accurately, for some high-precision commodity packaging, such as crystals, metals, etc., the measurement accuracy and stability of quantitative packaging scales cannot meet the requirements.

[0004] Therefore, in order to solve the above problems, a quantitative anode powder adding device for new energy battery assembly is proposed. Utility Model Content

[0005] The utility model aims to provide a quantitative anode powder adding device for assembling new energy batteries, which has the advantages of automatically completing the precise powder adding operation of new energy batteries, saving labor and improving production efficiency.

[0006] The above technical objectives of the utility model are achieved through the following technical solutions:

[0007] A quantitative anode powder adding device for new energy battery assembly, comprising a frame and a powder bin system, a quantitative system and a shell rotating feeding system arranged on the frame from top to bottom;

[0008] The inlet end of the quantitative system is located directly below the outlet end of the powder silo system, and the outlet end of the quantitative system is located above the shell rotating feeding system;

[0009] The quantitative system comprises a bracket, a vibrator, and a quantitative device, wherein the vibrator is fixed on the top of the bracket, and the quantitative device is fixed on the top of the vibrator;

[0010] The quantitative device comprises a bottom plate, a first cylinder, a fixed block, a limiting block, a quantitative block, a threaded rod, a second cylinder, and a push block;

[0011] The vertical section of the bottom plate is in a "Z" shape, and the fixed block includes an upper fixed block and a lower fixed block, the upper fixed block is a square block with an opening downward and a "concave" shape in the longitudinal vertical section, and the lower fixed block is a square block with an opening upward and a "concave" shape in the longitudinal vertical section, the right side of the bottom of the lower fixed block is fixedly connected to the left side of the top of the bottom plate, the upper fixed block is fixedly connected to the lower fixed block, and a cavity is formed between the upper fixed block and the lower fixed block, a first circular through hole is opened on the left side of the bottom of the lower fixed block, and waist-shaped through holes are opened on the left and right sides of the top of the upper fixed block, the waist-shaped through hole on the left side of the top of the upper fixed block is located directly above the first circular through hole of the lower fixed block, and the waist-shaped through hole on the right side of the top of the upper fixed block is located directly below the outlet end of the powder silo system;

[0012] The first cylinder is fixedly located on the top right side of the bottom plate, the limiting block is slidably inserted into the cavity of the fixed block, and the telescopic rod of the first cylinder is fixedly connected to the right side of the limiting block;

[0013] A square through-hole is provided on the left side of the top of the limiting block, the quantitative block is located in the square through-hole, a slider is provided at the lower left end of the front side and the rear side of the quantitative block, a slide groove is provided at the lower end of the middle position of the inner front side wall and the inner rear side wall of the square through-hole, the slider is slidably connected in the slide groove, a threaded through-hole is provided on the left side of the limiting block, the threaded rod is threadedly connected in the threaded through-hole, the right side of the threaded rod is rotatably connected to the left side of the quantitative block, and a fine-tuning hand wheel is provided on the left side of the threaded rod;

[0014] A support plate is fixedly provided on the left side of the rear side of the bottom plate, the second cylinder is fixedly located at the front side of the support plate, and a push block is fixedly provided at the bottom of the telescopic rod of the second cylinder, and the push block is located just above the waist-shaped groove on the left side of the upper fixed block.

[0015] The preferred solutions are as follows:

[0016] Preferably: the shell rotating loading system includes a rotating motor, a rotating plate, and two battery plug-ins. The rotating motor is fixedly connected to the frame, the rotating plate is fixedly located on the top of the rotating shaft of the rotating motor, and the two battery plug-ins are respectively fixedly located on the left and right sides of the top of the rotating plate.

[0017] Preferably: a feed guide block is fixedly provided on the top of the upper fixed block, the longitudinal vertical section of the feed guide block is "convex", a second circular perforation is opened on the top of the feed guide block, the top of the second circular perforation of the feed guide block is chamfered, and the second circular perforation is located directly above the waist-shaped perforation on the right side of the upper fixed block.

[0018] Preferably, a funnel is fixedly provided on the left side of the bottom of the lower fixed block, and the funnel is located directly below the first circular through hole.

[0019] Preferably, a chamfer is provided at the bottom of the pushing block.

[0020] Preferably, a first placement hole with a "convex" cross-section is provided on the left side of the top of the metering block. The distance from the front side to the rear side of the left opening of the first placement hole is one-half of the distance from the front side to the rear side of the right opening. A rotating block placed vertically longitudinally is fixedly provided on the right side of the threaded rod. The diameter of the rotating block is the same as the thickness of the metering block. The rotating block is located in the right opening of the first placement hole, and the right side of the threaded rod is located in the left opening of the first placement hole.

[0021] Preferably, a second placement hole with a "convex" cross-section is provided on the right side of the top of the limiting block. The distance from the front side to the rear side of the right opening of the second placement hole is one-half of the distance from the front side to the rear side of the left opening. A clamping block in the shape of a "worker" is provided in the second placement hole. The clamping block is placed horizontally. The middle recess of the clamping block is located in the right opening of the second placement slot. The right side of the clamping block is fixedly connected to the left side of the telescopic rod of the first cylinder. The left side of the clamping block is located in the left opening of the second placement slot.

[0022] Preferably, each battery insertion block is composed of four "L"-shaped baffles.

[0023] Preferably, trays are fixedly provided on both the left side and the right side of the lower fixing block.

[0024] In summary, the utility model has the following beneficial effects:

[0025] 1. Through the setting of the powder bin system, it can achieve the effect of feeding a certain amount of anode powder into the metering system.

[0026] 2. Through the setting of the metering system, by adjusting the position of the metering block and the distance between the metering block and the right side wall of the square perforation of the limiting block, it can achieve the effect of adjusting the amount of anode powder falling into the metering system, and further confirm the weight of the anode powder falling into the metering system.

[0027] 3. Through the setting of the housing rotating feeding system, it can achieve the effect of alternately replacing and filling the housings of two new energy batteries at any time, saving the filling time. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] Figure 1 is a schematic diagram of the overall structural shape of the embodiment;

[0029] Figure 2 is a schematic diagram of the overall structural shape of the metering system of the embodiment;

[0030] Figure 3 is a left sectional view of the metering system of the embodiment;

[0031] Figure 4 is an exploded view of the dosing device of the embodiment.

[0032] In the figure, 1, frame; 2, powder silo system; 3, quantitative system; 4, shell rotating feeding system; 5, shell;

[0033] 311, bracket; 312, vibrator; 313, quantitative device; 314, bottom plate; 315, first cylinder; 316, fixed block; 317, limit block; 318, quantitative block; 319, threaded rod; 320, second cylinder; 321, push block; 322, upper fixed block; 323, lower fixed block; 324, slide block; 325, fine-tuning hand wheel; 326, support plate; 328, feed guide block; 329, funnel; 330, rotating block; 331, clamping block; 332, tray;

[0034] 411. Rotating motor; 412. Rotating plate; 413. Battery plug-in block; 414. Baffle. DETAILED DESCRIPTION

[0035] The utility model is further described in detail below in conjunction with the accompanying drawings.

[0036] The same components are denoted by the same reference numerals. It should be noted that the words "front", "rear", "left", "right", "upper" and "lower" used in the following description refer to directions in the drawings.

[0037] A quantitative anode powder adding device for new energy battery assembly, such as Figure 1-Figure 4 As shown, it includes a frame 1 and a powder bin system 2, a quantitative system 3 and a shell rotating feeding system 4 which are arranged on the frame 1 from top to bottom;

[0038] The inlet end of the quantitative system 3 is located directly below the outlet end of the powder silo system 2, and the outlet end of the quantitative system 3 is located above the shell rotating feeding system 4;

[0039] The powder silo system 2 is a mixing silo mentioned in the patent with publication number "CN211108311 U", which includes a cylindrical chamber and a conical hopper arranged at the lower end of the cylindrical chamber. A stirring and feeding device is arranged in the mixing silo, and the stirring and feeding device includes a hollow outer power shaft at the upper end and an inner power shaft concentrically sleeved in the outer power shaft. The outer power shaft is sleeved in the above-mentioned shaft hole, and the outer power shaft is driven to link the two stirring rods to rotate for stirring. The oblique scraping rods and stirring rods are fixed on both sides of the circumferential surface of the outer power shaft through connecting rods. The inclination and cone of the scraping rods are The taper of the conical hopper is the same and the outer side of the scraper rod fits with the inner side of the conical hopper, which can scrape off the powder adhered to the inner wall of the hopper. The lower end of the inner power shaft is fixedly connected with a spiral feeding push rod, and the lower end of the spiral feeding push rod is inserted into the above-mentioned cylindrical discharge nozzle. The spiral feeding push rod rotates to discharge the powder from the discharge barrel at a uniform speed; a feeding motor connected to the inner power shaft is provided in the middle of the upper end surface of the supporting connecting plate, and a stirring motor connected to the outer power shaft is provided on one side of the upper end surface. It can quantitatively feed anode powder into the quantitative system 3.

[0040] The quantitative system 3 includes a bracket 311 , a vibrator 312 , and a quantitative device 313 . The vibrator 312 is fixed on the top of the bracket 311 , and the quantitative device 313 is fixed on the top of the vibrator 312 . The vibrator 312 is used to make the anode powder in the quantitative device 313 filled evenly.

[0041] The quantitative device 313 includes a bottom plate 314, a first cylinder 315, a fixing block 316, a limiting block 317, a quantitative block 318, a threaded rod 319, a second cylinder 320, and a push block 321;

[0042] The vertical section of the bottom plate 314 is in a "Z" shape, and the fixed block 316 includes an upper fixed block 322 and a lower fixed block 323. The upper fixed block 322 is a square block with an opening facing downward and a "concave" vertical section. The lower fixed block 323 is a square block with an opening facing upward and a "concave" vertical section. The right side of the bottom of the lower fixed block 323 is fixedly connected to the left side of the top of the bottom plate 314, and the upper fixed block 322 and the lower fixed block 323 are fixedly connected to form a cavity between the upper fixed block 322 and the lower fixed block 323. The limiting block 317 is slidably inserted into the cavity of the fixed block 316.

[0043] A first circular perforation is provided on the left side of the bottom of the lower fixed block 323, and waist-shaped perforations are provided on the left and right sides of the top of the upper fixed block 322. The waist-shaped perforation on the left side of the top of the upper fixed block 322 is located directly above the first circular perforation of the lower fixed block 323, and the waist-shaped perforation on the right side of the top of the upper fixed block 322 is located directly below the outlet end of the powder silo system 2. A square perforation is provided on the left side of the top of the limiting block 317, and the quantitative block 318 is located in the square perforation. Slide blocks 324 are provided at the lower left ends of the front and rear sides of the quantitative block 318, and sliding grooves are provided at the lower ends of the middle positions of the inner front side wall and the inner rear side wall of the square perforation. The slider 324 is slidably connected in the sliding groove, and the slider 324 is aligned with the inner bottom wall of the lower fixed block 323 and the sliding groove. A limit is formed, thereby facilitating the quantitative block 318 to slide in the square perforation through the slider 324. A threaded perforation is provided on the left side of the limit block 317, and the threaded rod 319 is threadedly connected in the threaded perforation. The right side of the threaded rod 319 is rotatably connected to the left side of the quantitative block 318. A fine-tuning handwheel 325 is provided on the left side of the threaded rod 319, and the threaded rod 319 is driven to rotate in the threaded perforation by the fine-tuning handwheel 325. Then, under the action of the two sliders 324 and the slide groove limit, the quantitative block 318 moves left and right in the square perforation of the limit block 317, thereby changing the distance between the quantitative block 318 and the right side wall of the square perforation of the limit block 317, and changing the amount of anode powder entering between the quantitative block 318 and the right side wall of the square perforation.

[0044] The first cylinder 315 is fixedly located on the top right side of the bottom plate 314, and the telescopic rod of the first cylinder 315 is fixedly connected to the right side of the limiting block 317. In the initial state, the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 is located directly below the waist-shaped perforation on the right side of the upper fixed block 322, and the anode powder falls into the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 through the waist-shaped perforation on the right side of the upper fixed block 322. Then the telescopic rod of the cylinder is extended to push the limiting block 317 to move to the left. The anode powder in the limiting block 317 is evenly filled after being shaken by the vibrator 312, and then it is scraped flat through the waist-shaped perforation on the right side of the upper fixed block 322, and reaches the waist-shaped perforation on the left side of the upper fixed block 322 and the first circular perforation of the lower fixed block 323. Then, the anode powder falls through the first circular perforation of the lower fixed block 323.

[0045] On the left side of the rear part of the bottom plate 314, a support plate 326 is fixedly provided. The second cylinder 320 is fixedly located at the front part of the support plate 326. At the bottom of the telescopic rod of the second cylinder 320, a push block 321 is fixedly provided. The push block 321 is directly above the waist-shaped groove on the left side of the upper fixed block 322. Since the anode powder is vibrated and compacted by the vibrator 312, the second cylinder 320 can drive the push block 321 to push the anode powder through the waist-shaped perforation on the left side of the upper fixed block 322, causing the anode powder to fall. In order to facilitate pushing and reduce the resistance of the push block 321 when inserting into the anode powder, a chamfer is provided at the bottom of the push block 321.

[0046] To facilitate feeding, a feeding guide block 328 is fixedly provided on the top of the upper fixed block 322. The longitudinal vertical section of the feeding guide block 328 is in a "convex" shape. A second circular perforation is provided at the top of the feeding guide block 328. A chamfer is provided at the top of the second circular perforation of the feeding guide block 328. The second circular perforation is directly above the waist-shaped perforation on the right side of the upper fixed block 322.

[0047] To facilitate discharging, a funnel 329 is fixedly provided on the left side of the bottom of the lower fixed block 323. The funnel 329 is directly below the first circular perforation.

[0048] On the top left side of the metering block 318, a first placement hole with a cross-section in a "convex" shape is provided. The distance from the front side to the rear side of the left opening of the first placement hole is half of the distance from the front side to the rear side of the right opening. On the right side of the threaded rod 319, a vertically longitudinally placed rotating block 330 is fixedly provided. The diameter of the rotating block 330 is the same as the thickness of the metering block 318. The rotating block 330 is located in the right opening of the first placement hole. The right side of the threaded rod 319 is located in the left opening of the first placement hole. The rotating block 330 can be limited and rotated in the first placement hole and can move the metering block 318 left and right.

[0049] On the top right side of the limit block 317, a second placement hole with a cross-section in a "convex" shape is provided. The distance from the front side to the rear side of the right opening of the second placement hole is half of the distance from the front side to the rear side of the left opening. A clamping block 331 in a "工" shape is provided in the second placement hole. The clamping block 331 is horizontally placed. The middle concave part of the clamping block 331 is located in the right opening of the second placement groove. The right side of the clamping block 331 is fixedly connected to the left side of the telescopic rod of the first cylinder 315. The left side of the clamping block 331 is located in the left opening of the second placement groove. Since the vertical section of the bottom plate 314 is in a "Z" shape, the height of the limit block 317 is increased, while reducing the thickness of the lower fixed block 323, facilitating the first cylinder 315 to drive the limit block 317 to move left and right.

[0050] Since the vertical section of the bottom plate 314 is in a "Z" shape, the lower fixing block 323 is raised, so that the trays 332 are fixedly provided on the left and right sides of the lower fixing block 323 for collecting the fallen anode powder.

[0051] The shell rotating loading system 4 includes a rotating motor 411, a rotating plate 412, and two battery plug-ins 413. The rotating motor 411 is fixedly connected to the frame 1. The rotating plate 412 is fixedly located at the top of the rotating shaft of the rotating motor 411. The two battery plug-ins 413 are respectively fixed at the left and right sides of the top of the rotating plate 412. A shell 5 of a new energy battery is inserted into each battery plug-in 413. Each battery plug-in 413 is composed of four "L"-shaped baffles 414. The rotating plate 412 is driven to rotate by the rotating motor 411, thereby driving the two battery plug-ins 413 located on the left and right sides of the top of the rotating plate 412 to be alternately located at the bottom of the funnel 329, thereby saving time for replacing the battery shell 5 and increasing work efficiency.

[0052] Specific implementation process:

[0053] Step 1: The battery plug-in blocks 413 on the top left and top right of the rotating plate 412 of the shell rotating feeding system 4 are not plugged with the shell 5 of the new energy battery;

[0054] The telescopic rod of the first cylinder 315 of the dosing system 3 is extended;

[0055] Turn the fine adjustment hand wheel 325 of the quantitative system 3 to adjust the distance between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 according to the amount of anode powder to be poured, and roughly confirm the amount of anode powder entering between the quantitative block 318 and the right side wall of the square perforation;

[0056] The telescopic rod of the first cylinder 315 of the quantitative system 3 is retracted, so that the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 is located directly below the waist-shaped perforation on the right side of the upper fixed block 322;

[0057] Step 2: Insert the outer shell 5 of the new energy battery into the battery plug block 413 on the top left side of the rotating plate 412;

[0058] Step 2: The rotating motor 411 works to drive the rotating plate 412 to rotate, and the rotating plate 412 with the housing 5 of the new energy battery plugged in is rotated from the left side to the right side, and the rotating plate 412 without the housing 5 of the new energy battery plugged in is rotated from the right side to the left side. At this time, the housing 5 of the new energy battery is located directly below the funnel 329;

[0059] Step 3: The powder silo system 2 works, the vibrator 312 works, and at the same time, the housing 5 of the new energy battery is inserted into the battery plug block 413 on the top left side of the rotating plate 412;

[0060] When the powder bin is working, the anode powder inside it falls quantitatively into the feed guide block 328 of the quantitative system 3 under the operation of the powder bin system 2, passes through the feed guide block 328 and enters the waist-shaped perforation on the right side of the upper fixed block 322, and then enters the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317. The vibrator 312 works to fill the anode powder in the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 evenly.

[0061] The telescopic rod of the first cylinder 315 is extended, driving the limiting block 317 to move to the left, and the anode powder in the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 is scraped off through the waist-shaped perforation on the right side of the upper fixed plate. At this time, the right side of the limiting block 317 is provided with a square perforation located directly below the waist-shaped perforation on the right side of the upper fixed plate, and blocks the waist-shaped perforation on the right side of the upper fixed plate; the anode powder in the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 is located directly below the waist-shaped perforation on the right side of the upper fixed plate, and directly above the first circular perforation of the lower fixed block 323;

[0062] The second cylinder 320 of the quantitative device 313 works to push the push block 321 downward, and the push block 321 cooperates with the vibrator 312 to push the anode powder in the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 downward, and the anode powder passes through the first circular perforation of the lower fixed block 323 and the funnel 329 and falls into the housing 5 of the new energy battery on the right side;

[0063] Subsequently, the second cylinder 320 drives the push block 321 to rise, and the telescopic rod of the first cylinder 315 of the quantitative system 3 contracts, so that the cavity formed between the quantitative block 318 and the right side wall of the square perforation of the limiting block 317 is located directly below the waist-shaped perforation on the right side of the upper fixed block 322;

[0064] Step 4: The rotating motor 411 works to drive the rotating plate 412 to rotate, and the housing 5 of the new energy battery filled with anode powder is rotated from the right side to the left side, and the housing 5 of the new energy battery not filled with anode powder is rotated from the left side to the right side;

[0065] Step 5: The operator removes the outer shell 5 of the new energy battery filled with anode powder for weighing;

[0066] If the error is found to be within the set range, the equipment debugging is completed and the perfusion begins;

[0067] If the error is found to be outside the set range, the fine-tuning hand wheel 325 of the quantitative system 3 is continuously adjusted and the filling and weighing are continued until the error is within the set range.

[0068] This specific embodiment is merely an explanation of the present invention and is not a limitation of the present invention. After reading this specification, those skilled in the art may make non-creative modifications to the present embodiment as needed, but such modifications are protected by patent law as long as they are within the scope of the claims of the present invention.

Claims

1. A quantitative anode powder adding device for new energy battery assembly, characterized in that: It comprises a frame (1), a powder bin system (2), a quantitative system (3) and a shell rotating feeding system (4) which are arranged on the frame (1) from top to bottom; The inlet end of the quantitative system (3) is located directly below the outlet end of the powder silo system (2), and the outlet end of the quantitative system (3) is located above the shell rotating feeding system (4); The quantitative system (3) comprises a support (311), a vibrator (312), and a quantitative device (313), wherein the vibrator (312) is fixedly located on the top of the support (311), and the quantitative device (313) is fixedly located on the top of the vibrator (312); The quantitative device (313) comprises a bottom plate (314), a first cylinder (315), a fixing block (316), a limiting block (317), a quantitative block (318), a threaded rod (319), a second cylinder (320), and a pushing block (321); The bottom plate (314) has a vertical section in a "Z" shape. The fixed block (316) comprises an upper fixed block (322) and a lower fixed block (323). The upper fixed block (322) is a square block with an opening facing downward and a vertical section in a "concave" shape. The lower fixed block (323) is a square block with an opening facing upward and a vertical section in a "concave" shape. The right side of the bottom of the lower fixed block (323) is fixedly connected to the left side of the top of the bottom plate (314). The upper fixed block (322) and the lower fixed block (323) are connected to each other. ) are fixedly connected, a cavity is formed between the upper fixing block (322) and the lower fixing block (323), a first circular through hole is opened on the left side of the bottom of the lower fixing block (323), waist-shaped through holes are opened on the left and right sides of the top of the upper fixing block (322), the waist-shaped through hole on the left side of the top of the upper fixing block (322) is located directly above the first circular through hole of the lower fixing block (323), and the waist-shaped through hole on the right side of the top of the upper fixing block (322) is located directly below the outlet end of the powder silo system (2); The first cylinder (315) is fixedly located on the top right side of the bottom plate (314), the limiting block (317) is slidably inserted into the cavity of the fixed block (316), and the telescopic rod of the first cylinder (315) is fixedly connected to the right side of the limiting block (317); A square through hole is provided on the left side of the top of the limiting block (317), and the quantitative block (318) is located in the square through hole. A slider (324) is provided at the lower left end of the front side and the rear side of the quantitative block (318). A slide groove is provided at the lower end of the middle position of the inner front side wall and the inner rear side wall of the square through hole. The slider (324) is slidably connected in the slide groove. A threaded through hole is provided on the left side of the limiting block (317), and the threaded rod (319) is threadedly connected in the threaded through hole. The right side of the threaded rod (319) is rotatably connected to the left side of the quantitative block (318), and the left side of the threaded rod (319) is provided with a fine-tuning hand wheel (325); A support plate (326) is fixedly provided on the left side of the rear side of the bottom plate (314), the second cylinder (320) is fixedly located on the front side of the support plate (326), and a push block (321) is fixedly provided on the bottom of the telescopic rod of the second cylinder (320), and the push block (321) is located directly above the waist-shaped groove on the left side of the upper fixed block (322).

2. The quantitative anode powder adding device for new energy battery assembly according to claim 1 is characterized in that: The shell rotating loading system (4) comprises a rotating motor (411), a rotating plate (412), and two battery plug-ins (413); the rotating motor (411) is fixedly connected to the frame (1); the rotating plate (412) is fixedly located on the top of the rotating shaft of the rotating motor (411); and the two battery plug-ins (413) are respectively fixedly located on the left and right sides of the top of the rotating plate (412).

3. The quantitative anode powder adding device for new energy battery assembly according to claim 1 is characterized in that: A feed guide block (328) is fixedly provided on the top of the upper fixed block (322); the longitudinal vertical section of the feed guide block (328) is convex; a second circular through hole is opened on the top of the feed guide block (328); the top of the second circular through hole of the feed guide block (328) is chamfered; the second circular through hole is located directly above the waist-shaped through hole on the right side of the upper fixed block (322).

4. The quantitative anode powder adding device for new energy battery assembly according to claim 1 is characterized in that: A funnel (329) is fixedly provided on the left side of the bottom of the lower fixed block (323), and the funnel (329) is located directly below the first circular through hole.

5. The quantitative anode powder adding device for new energy battery assembly according to claim 1 is characterized in that: The bottom of the push block (321) is provided with a chamfer.

6. The quantitative anode powder adding device for new energy battery assembly according to claim 1 is characterized in that: A first placement hole with a convex cross-section is provided on the left side of the top of the quantitative block (318); the distance from the front side to the rear side of the left opening of the first placement hole is half the distance from the front side to the rear side of the right opening; a rotating block (330) is fixedly provided on the right side of the threaded rod (319) and is placed vertically in the longitudinal direction; the diameter of the rotating block (330) is consistent with the thickness of the quantitative block (318); the rotating block (330) is located in the right opening of the first placement hole; and the right side of the threaded rod (319) is located in the left opening of the first placement hole.

7. The device for quantitatively adding anode powder for assembling new energy batteries according to claim 6, characterized in that: A second placement hole with a convex cross-section is provided on the right side of the top of the limiting block (317); the distance from the front side to the rear side of the right opening of the second placement hole is half the distance from the front side to the rear side of the left opening; a clamping block (331) in the shape of a "G" is provided in the second placement hole; the clamping block (331) is placed horizontally; the middle recess of the clamping block (331) is located in the opening on the right side of the second placement slot; the right side of the clamping block (331) is fixedly connected to the left side of the telescopic rod of the first cylinder (315); and the left side of the clamping block (331) is located in the opening on the left side of the second placement slot.

8. The device for quantitatively adding anode powder for assembling new energy batteries according to claim 2, characterized in that: Each of the battery plug-in blocks (413) is composed of four "L"-shaped baffles (414).

9. The device for quantitatively adding anode powder for assembling new energy batteries according to claim 1, characterized in that: A tray (332) is fixedly provided on the left side and the right side of the lower fixed block (323).

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