Atomized oil lubrication device for aluminum foil

Abstract

This invention discloses an aluminum foil atomizing lubrication device, including a lubrication atomizing top frame assembly. An atomizing nozzle frame assembly is mounted on the top frame assembly, forming a rocking lubrication atomization structure. The bottom of the atomizing nozzle frame assembly forms a structure that simultaneously lubricates and atomizes the top and bottom surfaces of the aluminum foil. In use, the atomizing nozzles on the first longitudinal atomizing nozzle atomize the upper surface of the aluminum foil, and the atomizing nozzles on the second longitudinal atomizing nozzle atomize the lower surface of the aluminum foil. This achieves a double-sided lubrication atomization structure. When the drive shaft rotates the handle, the bottom structure of the atomizing nozzle frame assembly rocking and atomizing the aluminum foil. This method ensures comprehensive lubrication and atomization of the aluminum foil, avoiding blind spots.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of aluminum foil paper processing, and particularly relates to an atomizing type oiling device for aluminum foil paper. BACKGROUND

[0002] Aluminum foil paper has a wide range of uses, such as aviation food packaging, ordinary meat packaging, cigarette packaging and the like. According to the different application characteristics, relevant experts divide it into more than 20 varieties. Due to the difference in economic development level, the aluminum foil consumption structure also has a big gap in different countries. In the developed countries in Europe and America, the aluminum foil products used for packaging account for 70% of the total demand. In the Chinese market, aluminum foil is mainly used as industrial raw and auxiliary materials, and packaging aluminum foil accounts for only 30% of the total domestic demand. Although the aluminum foil packaging develops late, the market grows rapidly, and the prospect is attractive.

[0003] The prior art has the following problems: in the processing of aluminum foil paper, in order to improve the toughness of the aluminum foil paper, oiling atomization treatment needs to be carried out on the aluminum foil paper processing process. The oiling atomization treatment refers to that the oil-water mixture is sprayed out through the atomizing nozzle, and the oil-water mixture is atomized and sprayed on the aluminum foil paper. After being absorbed by the aluminum foil paper, the toughness of the aluminum foil paper can be increased, and the product quality can be improved. However, the existing aluminum foil paper oiling atomization device is provided with parallel nozzles on the pipeline in rows. When the nozzle sprays, the cross structure of the atomizing spray may interfere, resulting in a blind area on the aluminum foil paper, reducing the product yield and quality. Therefore, an improved aluminum foil paper oiling atomization device is urgently needed to solve the above problems. SUMMARY

[0004] To solve the problems in the background art, the application provides an aluminum foil paper atomizing type oiling device, which has the characteristics of avoiding oiling atomization blind area.

[0005] To achieve the above purpose, the application provides the following technical scheme: an aluminum foil paper atomizing type oiling device, comprising an oiling atomization top frame assembly, an atomizing nozzle head frame assembly is arranged on the oiling atomization top frame assembly, the atomizing nozzle head frame assembly forms a rocking type oiling atomization structure on the oiling atomization top frame assembly, and the bottom of the atomizing nozzle head frame assembly forms a structure for synchronously oiling and atomizing the top surface and the bottom surface of the aluminum foil paper.

[0006] The oil atomizing top frame assembly includes a V-shaped support plate. An outer top seat tube is fixedly mounted on the top of the V-shaped support plate, and a spherical movable platform is fixedly mounted on the bottom of the V-shaped support plate. A mounting back plate is fixedly mounted on the back of the V-shaped support plate. Mounting waist holes are provided at both the top and bottom of the mounting back plate. A spherical movable groove is provided inside the spherical movable platform. A central armature sleeve is provided in the inner cavity of the top of the outer top seat tube. A cavity is provided between the central armature sleeve and the outer top seat tube. An energized coil is wound around the outside of the central armature sleeve. A drive shaft is rotatably mounted on the bottom of the outer top seat tube via a bearing seat. A spiral groove is provided at the top of the drive shaft, and a support side rod is fixedly mounted at the bottom of the drive shaft. A grip tube is fixedly mounted at the end of the support side rod. An outer seat tube is sleeved on the top of the drive shaft. A top magnet platform is fixedly mounted on the top of the outer seat tube. A return spring is provided between the top magnet platform and the top of the outer top seat tube. A guide convex slide head is provided on the inner wall of the outer seat tube.

[0007] Preferably, the atomizing nozzle holder assembly includes a nozzle holder ball head, a nozzle holder grip rod is fixedly mounted on the top of the nozzle holder ball head, and a ball head bottom rod is fixedly mounted on the bottom of the nozzle holder ball head. A first lubricating atomizing nozzle is fixedly mounted on the bottom of the ball head bottom rod, and a U-shaped support rod is fixedly mounted on one side of the bottom of the ball head bottom rod. A second lubricating atomizing nozzle is fixedly mounted on the bottom of the U-shaped support rod. A first longitudinal atomizing nozzle is mounted on both ends of the first lubricating atomizing nozzle, and a second longitudinal atomizing nozzle is mounted on both ends of the second lubricating atomizing nozzle. Atomizing nozzles are mounted on both the second and first longitudinal atomizing nozzles, and a feed end pipe is mounted on one end of both the second and first lubricating atomizing nozzles.

[0008] Preferably, the top magnet platform slides up and down inside the outer top seat tube, a guide protrusion is fixedly provided on the outer wall of the rear end of the top magnet platform, and a vertical sliding groove is provided on the outer wall of the rear end of the outer top seat tube. The guide protrusion on the top magnet platform slides up and down within the vertical sliding groove on the outer top seat tube.

[0009] Preferably, the top magnet platform is sleeved outside the drive shaft, and the top magnet platform slides up and down outside the drive shaft. The guide convex sliding head on the inner wall of the outer sleeve seat tube is inserted into the spiral sliding groove on the drive shaft. The grip tube is inclinedly arranged at the bottom of the drive shaft.

[0010] Preferably, the two ends of the return spring abut against the top magnet platform and the top tube of the outer sleeve top seat tube, respectively. Through the pushing of the return spring, the top magnet platform is in a naturally downward structure, and the outer sleeve seat tube is naturally at the bottom of the drive shaft.

[0011] Preferably, the energized coil is wound in the cavity between the central armature sleeve and the outer top seat tube, forming an electromagnetic structure between the energized coil and the central armature sleeve. The current intensity of the energized coil is different, and the magnetic force of the magnet formed by the energized coil and the central armature sleeve is different. The magnet formed by the energized coil and the central armature sleeve attracts the top magnet and drives the top magnet to move up. The extent to which the energized coil and the central armature sleeve drive the top magnet to move up is different depending on the magnetic force.

[0012] Preferably, the nozzle holder ball head moves omnidirectionally within the spherical movable groove of the spherical movable platform, the nozzle holder grip rod is sleeved inside the grip tube, the grip tube is inclined, the nozzle holder grip rod is inclined inside the grip tube, and the ball head bottom rod is inclined downward.

[0013] Preferably, a conveying gap is formed between the first longitudinal atomizing nozzles at both ends of the first lubricating atomizing nozzle and the second longitudinal atomizing nozzles at both ends of the second lubricating atomizing nozzle during aluminum foil conveying. The atomizing nozzles on the first longitudinal atomizing nozzles lubricate and atomize the upper surface of the aluminum foil, and the atomizing nozzles on the second longitudinal atomizing nozzles lubricate and atomize the lower surface of the aluminum foil.

[0014] Preferably, the first and second lubricating atomizing nozzles are connected to an external pressurized oil and water supply device through feed end pipes, and the lubricating atomizing top frame assembly is fixed to the reserved machine position by fastening bolts and mounting waist holes on the mounting back plate.

[0015] Compared with the prior art, the beneficial effects of the present invention are as follows: When the present invention is used, a conveying gap is formed between the first longitudinal atomizing nozzles at both ends of the first lubricating atomizing nozzle and the second longitudinal atomizing nozzles at both ends of the second lubricating atomizing nozzle during aluminum foil conveying. The aluminum foil passes through this conveying gap. At this time, the first and second lubricating atomizing nozzles are respectively connected to an external pressurized oil and water supply device through the feed end pipe. The atomizing nozzles on the first longitudinal atomizing nozzle atomize the upper surface of the aluminum foil, and the second longitudinal atomizing nozzles... The atomizing nozzles atomize the lower surface of the aluminum foil, achieving a double-sided atomization structure. When the atomizing top frame assembly and the atomizing nozzle frame assembly are used together, the nozzle frame ball head moves omnidirectionally within the spherical groove of the spherical movable platform. The nozzle frame handle is fitted inside the handle tube, which is tilted. The bottom rod of the ball head is tilted downwards. When the drive shaft rotates the handle tube, the bottom structure of the atomizing nozzle frame assembly wobbles, atomizing the aluminum foil. The oil atomization method allows for comprehensive oil atomization of the aluminum foil, avoiding blind spots. Simultaneously, the energized coil is wound within the cavity between the central armature sleeve and the outer top seat tube, forming an electromagnetic structure. Different current intensities result in different magnetic forces in the magnets formed by the energized coil and the central armature sleeve. These magnets attract the top magnet platform, causing it to move upwards. The varying magnetic forces of the energized coil and the central armature sleeve further enhance this effect. The sleeve drives the top magnet to move up and down to different degrees. The top magnet is sleeved on the outside of the drive shaft and slides up and down on the outside of the drive shaft. The guide convex slide head on the inner wall of the outer sleeve is inserted into the spiral slide groove on the drive shaft. The grip tube is inclined at the bottom of the drive shaft. In this way, the drive shaft can be rotated by electricity. At the same time, when it is necessary to keep the bottom of the atomizing nozzle frame assembly in a relatively fixed position, the current is controlled to keep the bottom of the atomizing nozzle frame assembly in a relatively fixed lubrication atomization angle and position. Attached Figure Description

[0016] Figure 1 This is a perspective view of the present invention;

[0017] Figure 2 This is an exploded view of the present invention;

[0018] Figure 3 This is a perspective view of the oil atomizing top frame assembly of the present invention;

[0019] Figure 4 This is a cross-sectional view of the oil atomizing top frame assembly of the present invention;

[0020] Figure 5 This is a perspective view of a portion of the structure of the oil atomizing top frame assembly of the present invention;

[0021] Figure 6 This is a perspective view of the atomizing nozzle bracket assembly of the present invention;

[0022] In the diagram: 100, Oil atomizing top frame assembly; 101, V-shaped support plate; 102, mounting back plate; 103, mounting waist hole of back plate; 104, spherical movable groove; 105, spherical movable platform; 106, drive shaft; 107, outer sleeve; 108, top magnet platform; 109, outer top sleeve; 110, center armature sleeve; 111, energized coil; 112, return spring; 113, guide convex slide head; 114. Spiral groove; 115. Support side rod; 116. Handle tube; 200. Atomizing nozzle frame assembly; 201. Nozzle frame ball head; 202. Nozzle frame handle; 203. Ball head bottom rod; 204. First lubricating atomizing nozzle; 205. Feed end tube; 206. U-shaped support rod; 207. First longitudinal atomizing nozzle; 208. Atomizing nozzle; 209. Second longitudinal atomizing nozzle; 210. Second lubricating atomizing nozzle. Detailed Implementation

[0023] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0024] Please see Figures 1-6 The present invention provides the following technical solution: an aluminum foil atomizing lubrication device, including a lubrication atomizing top frame assembly 100, an atomizing nozzle frame assembly 200 disposed on the lubrication atomizing top frame assembly 100, the atomizing nozzle frame assembly 200 forming a rocking lubrication atomization structure on the lubrication atomizing top frame assembly 100, and the bottom of the atomizing nozzle frame assembly 200 forming a structure for synchronous lubrication atomization of the top and bottom surfaces of the aluminum foil;

[0025] The oil-lubricating atomizing top bracket assembly 100 includes a V-shaped support plate 101. An outer top seat tube 109 is fixedly mounted on the top of the V-shaped support plate 101, and a spherical movable platform 105 is fixedly mounted on the bottom of the V-shaped support plate 101. A mounting back plate 102 is fixedly mounted on the back of the V-shaped support plate 101. Mounting back plates 102 have mounting holes 103 at both the top and bottom. A spherical movable groove 104 is provided inside the spherical movable platform 105. A central armature sleeve 110 is provided in the inner cavity of the top of the outer top seat tube 109. A cavity is provided between the central armature sleeve 110 and the outer top seat tube 109. An energized coil 111 is wound around the outside of the central armature sleeve 110. The outer top seat tube 109... A drive shaft 106 is rotatably mounted at the bottom via a bearing seat. A spiral groove 114 is provided at the top of the drive shaft 106, and a support side rod 115 is fixedly mounted at the bottom of the drive shaft 106. A grip tube 116 is fixedly mounted at the end of the support side rod 115. An outer sleeve 107 is fitted onto the top of the drive shaft 106, and a top magnet platform 108 is fixedly mounted on the top of the outer sleeve 107. A return spring 112 is provided between the top magnet platform 108 and the top of the outer sleeve 109. A guide protrusion 113 is provided on the inner wall of the outer sleeve 107. The top magnet platform 108 slides up and down within the outer sleeve 109. A guide is fixedly mounted on the outer wall of the rear end of the top magnet platform 108. The guide protrusion on the top magnet 108 slides vertically within the vertical groove on the top magnet 109. The top magnet 108 is sleeved on the outside of the drive shaft 106 and slides vertically outside the drive shaft 106. The guide protrusion 113 on the inner wall of the top magnet 107 is inserted into the spiral groove 114 on the drive shaft 106. The grip tube 116 is inclined at the bottom of the drive shaft 106. The two ends of the return spring 112 abut against the top magnet 108 and the top tube of the top magnet 109, respectively. Through the push of the return spring 112, the top magnet 108 is in a natural position. With the structure shifted downwards, the outer sleeve 107 is naturally located at the bottom of the drive shaft 106. The energized coil 111 is wound in the cavity between the central armature sleeve 110 and the outer top sleeve 109. An electromagnetized structure is formed between the energized coil 111 and the central armature sleeve 110. The current intensity of the energized coil 111 is different, and the magnetic force of the magnet formed by the energized coil 111 and the central armature sleeve 110 is different. The magnet formed by the energized coil 111 and the central armature sleeve 110 attracts the top magnet platform 108 and drives the top magnet platform 108 to move upwards. The energized coil 111 and the central armature sleeve 110 with different magnetic forces drive the top magnet platform 108 to move upwards by different amounts.

[0026] The atomizing nozzle holder assembly 200 includes a nozzle holder ball head 201. A nozzle holder grip 202 is fixedly mounted on the top of the nozzle holder ball head 201, and a ball head base rod 203 is fixedly mounted on the bottom of the nozzle holder ball head 201. A first lubricating atomizing nozzle 204 is fixedly mounted on the bottom of the ball head base rod 203, and a U-shaped support rod 206 is fixedly mounted on one side of the bottom of the ball head base rod 203. A second lubricating atomizing nozzle 210 is fixedly mounted on the bottom of the U-shaped support rod 206. The oil-lubricating atomizing nozzle 204 has a first longitudinal atomizing nozzle 207 at each end, and the second oil-lubricating atomizing nozzle 210 has a second longitudinal atomizing nozzle 209 at each end. Atomizing nozzles 208 are provided on both the second longitudinal atomizing nozzle 209 and the first longitudinal atomizing nozzle 207. A feed pipe 205 is provided at one end of both the second oil-lubricating atomizing nozzle 210 and the first oil-lubricating atomizing nozzle 204. The nozzle holder ball head 201 is located within the spherical movable table 105. The nozzle holder 202 moves omnidirectionally within the movable slot 104. The nozzle holder grip 202 is fitted inside the grip tube 116, which is tilted. The ball-head base rod 203 tilts downwards. A conveying gap is formed between the first longitudinal atomizing nozzles 207 at both ends of the first lubricating atomizing nozzle 204 and the second longitudinal atomizing nozzles 209 at both ends of the second lubricating atomizing nozzle 210 during aluminum foil conveying. The atomizing nozzle 208 on the 07 atomizes the upper surface of the aluminum foil with oil, and the atomizing nozzle 208 on the second longitudinal atomizing nozzle 209 atomizes the lower surface of the aluminum foil with oil. The first oil atomizing nozzle 204 and the second oil atomizing nozzle 210 are respectively connected to the external pressurized oil and water supply device through the feed end pipe 205. The oil atomizing top frame assembly 100 is fixed to the reserved machine position by fastening bolts and the mounting waist hole 103 on the mounting back plate 102.

[0027] The working principle and usage process of this invention: When this invention is used, a conveying gap is formed between the first longitudinal atomizing nozzles 207 at both ends of the first lubricating atomizing nozzle 204 and the second longitudinal atomizing nozzles 209 at both ends of the second lubricating atomizing nozzle 210 during aluminum foil conveying. The aluminum foil passes through this conveying gap. At this time, the first lubricating atomizing nozzle 204 and the second lubricating atomizing nozzle 210 are respectively connected to an external pressurized oil and water supply device through the feed end pipe 205. The atomizing nozzles 208 on the first longitudinal atomizing nozzle 207 atomize the upper surface of the aluminum foil, and the atomizing nozzles 208 on the second longitudinal atomizing nozzle 209 atomize the aluminum foil. The lower end face is oil-lubricated and atomized, thus achieving a double-sided oil-lubricating and atomizing structure. When the oil-lubricating and atomizing top frame assembly 100 and the atomizing nozzle frame assembly 200 are used together, the nozzle frame ball head 201 moves omnidirectionally within the spherical movable groove 104 of the spherical movable platform 105. The nozzle frame handle 202 is fitted inside the handle tube 116, which is tilted. The ball head bottom rod 203 tilts downwards. When the drive shaft 106 drives the handle tube 116 to rotate, through the cooperation of the above structures, the bottom structure of the atomizing nozzle frame assembly 200 will perform a shaking-like oil-lubricating and atomizing process on the aluminum foil. In this way, the aluminum foil can be fully oiled and atomized, avoiding blind spots. Simultaneously, the energized coil 111 is wound within the cavity between the central armature sleeve 110 and the outer top seat tube 109, forming an electromagnetic structure between them. Different current intensities result in different magnetic forces in the magnets formed by the energized coil 111 and the central armature sleeve 110. These magnets attract the top magnet platform 108, causing it to move upwards. The varying magnetic forces of the energized coil 111 and the central armature sleeve 110... The top magnet platform 108 moves upward to different degrees. The top magnet platform 108 is sleeved on the outside of the drive shaft 106 and slides up and down on the outside of the drive shaft 106. The guide convex slide head 113 on the inner wall of the outer sleeve 107 is inserted into the spiral slide groove 114 on the drive shaft 106. The grip tube 116 is inclined at the bottom of the drive shaft 106. In this way, the drive shaft 106 can be rotated by electricity. At the same time, when it is necessary to keep the bottom of the atomizing nozzle frame assembly 200 in a relatively fixed position, the current is controlled to keep the bottom of the atomizing nozzle frame assembly 200 in a relatively fixed lubrication atomization angle and position.

[0028] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An aluminum foil paper atomized oiling device, comprising an oiling atomizing top frame assembly (100), characterized in that: The oiling atomization top frame assembly (100) is provided with an atomizing nozzle frame assembly (200), which forms a rocking oiling atomization structure on the oiling atomization top frame assembly (100), and the bottom of the atomizing nozzle frame assembly (200) forms a structure for synchronously oiling and atomizing the top and bottom surfaces of aluminum foil paper. The oiling atomization top frame assembly (100) comprises a V-shaped support plate (101), the top of which is fixedly provided with an outer sleeve top seat pipe (109), and the bottom of the V-shaped support plate (101) is fixedly provided with a spherical movable table (105), the back of the V-shaped support plate (101) is fixedly provided with a mounting back seat plate (102), the top and bottom of the mounting back seat plate (102) are provided with back seat plate mounting waist holes (103), the inside of the spherical movable table (105) is provided with a spherical movable groove (104), the inside cavity of the top of the outer sleeve top seat pipe (109) is provided with a center armature sleeve pipe (110), a cavity is arranged between the center armature sleeve pipe (110) and the outer sleeve top seat pipe (109), the outside of the center armature sleeve pipe (110) is provided with an energizing coil (111), the bottom of the outer sleeve top seat pipe (109) is rotatably provided with a driving shaft rod (106) through a bearing seat, the top of the driving shaft rod (106) is provided with a spiral chute (114), and the bottom of the driving shaft rod (106) is fixedly provided with a support side rod (115), the end of the support side rod (115) is fixedly provided with a handle pipe (116), the top of the driving shaft rod (106) is sleeved with an outer sleeve seat pipe (107), the top of the outer sleeve seat pipe (107) is fixedly provided with a top magnet table (108), a return spring (112) is arranged between the top magnet table (108) and the top of the outer sleeve top seat pipe (109), and a guide convex sliding head (113) is arranged on the inner wall of the outer sleeve seat pipe (107).

2. The aluminum foil paper atomizing oiling device according to claim 1, characterized in that: The atomizing nozzle frame assembly (200) comprises a nozzle frame ball head (201), the top of which is fixedly provided with a nozzle frame handle rod (202), and the bottom of the nozzle frame ball head (201) is fixedly provided with a ball head bottom rod (203), the bottom of the ball head bottom rod (203) is fixedly provided with a first oiling atomization nozzle pipe (204), one side of the bottom of the ball head bottom rod (203) is fixedly provided with a U-shaped support rod (206), the bottom of the U-shaped support rod (206) is fixedly provided with a second oiling atomization nozzle pipe (210), the two ends of the first oiling atomization nozzle pipe (204) are respectively provided with first longitudinal atomization nozzle pipes (207), the two ends of the second oiling atomization nozzle pipe (210) are respectively provided with second longitudinal atomization nozzle pipes (209), the second longitudinal atomization nozzle pipes (209) and the first longitudinal atomization nozzle pipes (207) are all provided with atomizing nozzles (208), and one end of the second oiling atomization nozzle pipe (210) and the first oiling atomization nozzle pipe (204) is provided with an inlet end pipe (205).

3. The aluminum foil paper atomizing oiling device according to claim 1, characterized in that: The top magnet platform (108) reciprocates up and down in the outer sleeve top base tube (109), a guide convex rod is fixed on the rear end outer wall of the top magnet platform (108), a vertical sliding groove is formed on the rear end outer wall of the outer sleeve top base tube (109), and the guide convex rod on the top magnet platform (108) limits and slides up and down in the vertical sliding groove on the outer sleeve top base tube (109).

4. The aluminum foil paper atomizing oiling device according to claim 1, characterized in that: The top magnet platform (108) is sleeved outside the driving shaft rod (106) and slides up and down outside the driving shaft rod (106), the guide convex sliding head (113) on the inner wall of the outer sleeve base tube (107) is inserted into the spiral sliding groove (114) on the driving shaft rod (106), and the holding pipe (116) is obliquely arranged at the bottom of the driving shaft rod (106).

5. The aluminum foil paper atomizing oiling device according to claim 1, characterized in that: The two ends of the reset spring (112) abut against the top magnet platform (108) and the top pipe body of the outer sleeve top base tube (109) respectively, the top magnet platform (108) is in a natural downward moving structure through the pushing of the reset spring (112), and the outer sleeve base tube (107) is naturally at the bottom of the driving shaft rod (106).

6. The aluminum foil paper atomizing oiling device according to claim 1, characterized in that: The energized coil (111) is arranged in the cavity between the center armature sleeve tube (110) and the outer sleeve top base tube (109), an energized magnetization structure is formed between the energized coil (111) and the center armature sleeve tube (110), the current intensity of the energized coil (111) is different, the magnetic force of the magnet formed by the energized coil (111) and the center armature sleeve tube (110) is different, the magnet formed by the energized coil (111) and the center armature sleeve tube (110) forms an attractive force on the top magnet platform (108) and drives the top magnet platform (108) to move upward, and the energized coil (111) and the center armature sleeve tube (110) driven by the magnet of different magnetic forces move the top magnet platform (108) to different amplitudes.

7. The aluminum foil paper atomizing oiling device according to claim 2, characterized in that: The nozzle holder ball head (201) is omnidirectionally movable in the spherical movable groove (104) in the spherical movable platform (105), the nozzle holder holding rod (202) is sleeved in the holding pipe (116), the holding pipe (116) is obliquely arranged, the nozzle holder holding rod (202) is obliquely arranged in the holding pipe (116), and the ball head bottom rod (203) is downwardly inclined.

8. The aluminum foil paper atomizing oiling device according to claim 2, characterized in that: The first longitudinal atomizing nozzle (207) at the two ends of the first oil lubricating atomizing nozzle (204) and the second longitudinal atomizing nozzle (209) at the two ends of the second oil lubricating atomizing nozzle (210) form a conveying gap during conveying of aluminum foil paper, the atomizing nozzles (208) on the first longitudinal atomizing nozzle (207) atomize oil on the upper end surface of the aluminum foil paper, and the atomizing nozzles (208) on the second longitudinal atomizing nozzle (209) atomize oil on the lower end surface of the aluminum foil paper.

9. The aluminum foil paper atomizing oiling device according to claim 2, characterized in that: The first oil lubricating atomizing nozzle (204) and the second oil lubricating atomizing nozzle (210) are respectively communicated with the external pressurized oil feeding device through the feeding end pipe (205), and the oil lubricating atomizing top frame assembly (100) is fixed on the reserved machine position through the fastening bolt and the back seat plate mounting waist hole (103) on the mounting back seat plate (102).

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