A kind of electronic chemical preparation reactor

Abstract

The invention discloses an electronic chemical preparation reactor, which comprises a stirring mechanism, an upper support frame and a reactor. The upper support frame is embedded in the top position of the reactor, and the stirring mechanism runs through the inner position of the upper support frame. When the stirring paddle stops rotating, the movable block can be pulled by a pull-back strip to slide and reset, so that the cleaning plate can scrape the adhesive layer attached to the outer surface of the plate surface, and the sliding plate can slide and extend outward along the bottom plate by turning the reactor upside down, and the inner wall of the sliding plate can be impacted and vibrated by the impact block, so that the adhesive solidification layer attached to the outer surface of the sliding plate can be vibrated to loosen, and the extension block can slide and extend outward along the combining plate by turning the reactor upside down, so that the extension block can push the loose adhesive solidification layer away from the outer surface of the sliding plate.

Description

Technical Field

[0001] The invention relates to the field of electronic chemical preparation, in particular to an electronic chemical preparation reaction kettle. Background Art

[0002] The electronic chemical preparation reactor is mainly used for reacting the raw materials for preparing electronic chemicals. By placing the raw materials for preparing electronic chemicals into the electronic chemical preparation reactor and stirring the raw materials for preparing electronic chemicals with a stirring paddle, the raw materials for preparing electronic chemicals can be fully reacted inside the electronic chemical preparation reactor. Based on the above description, the inventors have found that the existing electronic chemical preparation reactor mainly has the following deficiencies, such as:

[0003] Since the electronic chemical adhesive required for the manufacture of liquid crystal displays must be made through a mixed reaction of multiple raw materials, if the electronic chemical preparation reactor reacts the raw materials of the adhesive, part of the adhesive will adhere to the blades of the stirring paddle after the adhesive reaction is completed, and when manually cleaning it later, the thrust generated by the manual cleaning of the adhesive on the blades will cause the stirring paddle to rotate, making it difficult to quickly clean the adhesive on the blades. Summary of the invention

[0004] In view of the above problems, the present invention provides a reaction kettle for preparing electronic chemicals.

[0005] In order to achieve the above-mentioned purpose, the present invention is implemented through the following technical scheme: an electronic chemical preparation reactor, whose structure includes a stirring mechanism, an upper support frame, and a reactor, the upper support frame is embedded in the top position of the reactor, and the stirring mechanism runs through the internal position of the upper support frame; the stirring mechanism includes a driver, a stirring paddle, and a linkage shaft, the stirring paddle runs through the internal position of the upper support frame, the linkage shaft is connected to the bottom of the driver, and the stirring paddle is movably engaged with the lower end of the linkage shaft.

[0006] As a further optimization of the present invention, the stirring paddle includes an elastic strip, blades, and a rotating shaft. The rotating shaft is movably engaged with the lower end of the linkage shaft. The elastic strip is installed between the inner wall of the blade and the rotating shaft. The blade is movably engaged with the inside of the rotating shaft. Six blades are provided, and three are grouped together and are evenly distributed symmetrically on the left and right sides of the rotating shaft.

[0007] As a further optimization of the present invention, the blade includes a plate surface, a pull-back strip, and a movable block. The inner wall of the plate surface is connected to the elastic strip. The plate surface is movably engaged with the internal part of the rotating shaft. The pull-back strip is installed between the inner side of the movable block and the inner wall of the plate surface. The movable block is movably engaged with the internal part of the plate surface. The swinging force generated by the rotation of the mechanism can make the movable block slide outward along the plate surface.

[0008] As a further optimization of the present invention, the movable block includes a cleaning plate, an elastic ring, and a center block. The inner side of the cleaning plate is connected to the pull-back strip, the center block is movably engaged with the inner part of the plate surface, the inner side of the cleaning plate is connected to the elastic ring, and the elastic ring is embedded and connected to the outer end of the center block. Two cleaning plates are provided, and are evenly distributed symmetrically at the upper and lower ends of the center block through the cooperation of the elastic ring.

[0009] As a further optimization of the present invention, the cleaning plate includes a vibration block, an internal connection cavity, and a connecting plate. The inner side of the connecting plate is connected to the elastic ring. The vibration block is installed at the internal position of the internal connection cavity. The internal connection cavity is embedded in the internal position of the connecting plate. The vibration block is made of alloy steel with a higher density.

[0010] As a further optimization of the present invention, the reactor includes an outer frame, a base plate, and a vibrating ball. The top of the outer frame is embedded and connected to the upper support frame, the base plate is embedded in the inner wall of the outer frame near the bottom, and the vibrating ball is installed in the inner position of the outer frame. There are six vibrating balls, and three are grouped together and evenly distributed symmetrically inside the left and right ends of the outer frame.

[0011] As a further optimization of the present invention, the base plate includes a sliding plate, an impact block, and a bottom plate. The bottom plate is embedded in the inner wall of the outer frame near the bottom. The sliding plate is movably engaged with the inside of the bottom plate. The impact block is installed between the upper ends of the bottom plate. Four impact blocks are provided and are evenly distributed in parallel at the upper end of the bottom plate.

[0012] As a further optimization of the present invention, the sliding plate includes a protruding block, a combining plate, and a connecting plate. The combining plate is movably engaged with the inside of the bottom plate, the protruding block is slidably matched with the inside of the combining plate, and the connecting plate is installed between the bottom of the protruding block and the inner wall of the combining plate. There are seven protruding blocks, which are evenly distributed in parallel on the combining plate.

[0013] The present invention has the following beneficial effects:

[0014] 1. The throwing force generated by the rotation of the stirring paddle can make the movable block slide outward along the plate surface, and the continuous pulling of the cleaning plate by the elastic ring can make the inner side of the cleaning plate fit tightly with the outer surface of the plate surface. When the stirring paddle stops rotating, the movable block can be pulled to slide and reset through the pull-back strip, so that the cleaning plate can scrape off the adhesive layer attached to the outer surface of the plate surface, effectively avoiding part of the adhesive from adhering to the blades of the stirring paddle. During cleaning, the stirring paddle will be rotated by manual thrust, resulting in difficulty in quickly cleaning the adhesive on the blades.

[0015] 2. By turning the reactor upside down, the sliding plate can slide outward along the bottom plate, and then the impact block can generate impact vibration on the inner wall of the sliding plate, so that the solidified adhesive layer attached to the outer surface of the sliding plate can be vibrated to loosen, and then the reactor can be turned upside down, so that the extension block can slide outward along the combining plate, so that the extension block can push the loosened solidified adhesive layer away from the outer surface of the sliding plate, effectively avoiding the situation that part of the adhesive will adhere to the bottom of the inner wall of the reactor and is difficult to clean. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 The present invention is a schematic structural diagram of a reaction kettle for preparing electronic chemicals.

[0017] Figure 2 It is a structural schematic diagram of a half-section of the stirring mechanism of the present invention in a front view.

[0018] Figure 3 It is a structural schematic diagram of a half-section of the stirring paddle of the present invention when viewed from the front.

[0019] Figure 4 It is a structural schematic diagram of a front view half section of a blade of the present invention.

[0020] Figure 5 It is a structural schematic diagram of a half-section of the movable block of the present invention in front view.

[0021] Figure 6 This is a schematic structural diagram of a front view of a half section of a cleaning plate of the present invention.

[0022] Figure 7 It is a structural schematic diagram of a half-section of the reactor of the present invention in front view.

[0023] Figure 8 This is a structural schematic diagram of a half-section of the base plate of the present invention.

[0024] Fig. 9 It is a structural schematic diagram of a half-section of the sliding plate of the present invention in front view.

[0025] In the figure: stirring mechanism-1, upper support frame-2, reactor-3, driver-11, stirring paddle-12, linkage shaft-13, elastic strip-a1, blade-a2, rotating shaft-a3, plate surface-a21, pull-back strip-a22, movable block-a23, cleaning plate-b1, elastic ring-b2, center block-b3, vibration block-b11, internal cavity-b12, connecting plate-b13, outer frame-c1, bottom plate-c2, vibration ball-c3, sliding plate-c21, impact block-c22, bottom plate-c23, protruding block-d1, combining plate-d2, connecting piece-d3. DETAILED DESCRIPTION

[0026] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0027] Example 1

[0028] As an example Figure 1 -example Figure 6 Shown:

[0029] The present invention provides an electronic chemical preparation reactor, which comprises a stirring mechanism 1, an upper support frame 2, and a reactor 3. The upper support frame 2 is embedded in the top position of the reactor 3, and the stirring mechanism 1 runs through the inner position of the upper support frame 2; the stirring mechanism 1 comprises a driver 11, a stirring paddle 12, and a linkage shaft 13. The stirring paddle 12 runs through the inner position of the upper support frame 2, the linkage shaft 13 is connected to the bottom of the driver 11, and the stirring paddle 12 is movably engaged with the lower end of the linkage shaft 13.

[0030] Among them, the stirring paddle 12 includes an elastic strip a1, a blade a2, and a rotating shaft a3. The rotating shaft a3 is movably engaged with the lower end of the linkage shaft 13. The elastic strip a1 is installed between the inner wall of the blade a2 and the rotating shaft a3. The blade a2 is movably engaged with the inside of the rotating shaft a3. The blade a2 is provided with six blades, and three are evenly distributed in a group on the left and right sides of the rotating shaft a3 in a symmetrical manner. The throwing force generated by the rotation of the rotating shaft a3 can make the blade a2 slide outward along the rotating shaft a3, thereby expanding the stirring range of the adhesive by the blade a2.

[0031] Among them, the blade a2 includes a plate surface a21, a pull-back strip a22, and a movable block a23. The inner wall of the plate surface a21 is connected to the elastic strip a1, the plate surface a21 is movably engaged with the internal part of the rotating shaft a3, the pull-back strip a22 is installed between the inner side of the movable block a23 and the inner wall of the plate surface a21, and the movable block a23 is movably engaged with the internal part of the plate surface a21. The swinging force generated by the rotation of the mechanism can make the movable block a23 slide outward along the plate surface a21, and the pull-back strip a22 can pull the movable block a23 to slide and reset along the plate surface a21 when the mechanism stops rotating.

[0032] Among them, the movable block a23 includes a cleaning plate b1, an elastic ring b2, and a center block b3. The inner side of the cleaning plate b1 is connected to the pull-back strip a22, and the center block b3 is movably engaged with the inner part of the plate surface a21. The inner side of the cleaning plate b1 is connected to the elastic ring b2, and the elastic ring b2 is embedded and connected to the outer end of the center block b3. The cleaning plates b1 are provided with two, and are evenly distributed symmetrically at the upper and lower ends of the center block b3 through the cooperation of the elastic ring b2. The cleaning plate b1 can be pulled tightly against the surface of the object by the elastic ring b2.

[0033] Among them, the cleaning plate b1 includes a vibration block b11, an internal cavity b12, and a connecting plate b13. The inner side of the connecting plate b13 is connected to the elastic ring b2. The vibration block b11 is installed in the internal position of the internal cavity b12. The internal cavity b12 is embedded in the internal position of the connecting plate b13. The vibration block b11 is made of alloy steel with a relatively high density. The inertial force generated by the sliding of the mechanism can make the vibration block b11 produce impact vibration on the inner wall of the internal cavity b12, so that the solidified layer of adhesive on the outside of the connecting plate b13 can be vibrated off.

[0034] Detailed usage and function of this embodiment:

[0035] In the present invention, the driver 11 on the stirring mechanism 1 drives the shaft inside the linkage shaft 13 to rotate, so that the linkage shaft 13 can drive the stirring paddle 12 to rotate rapidly, so that the stirring paddle 12 can stir the adhesive inside the reactor 3, and then the throwing force generated by the rotation of the stirring paddle 12 can make the blade a2 slide outward along the rotating shaft a3, so as to expand the stirring range of the adhesive inside the reactor 3, and then the throwing force generated by the rotation of the stirring paddle 12 can make the movable block a23 slide outward along the plate surface a21, and the continuous pulling of the cleaning plate b1 by the elastic ring b2 can make the inner side of the cleaning plate b1 and the plate surface The outer surface of a21 fits tightly. When the stirring paddle 12 stops rotating, the pull-back strip a22 can pull the movable block a23 to slide and reset, so that the cleaning plate b1 can scrape off the adhesive layer attached to the outer surface of the plate a21. The inertial force generated by the sliding of the mechanism can cause the vibration block b11 to impact and vibrate the inner wall of the internal cavity b12, so that the solidified adhesive layer on the outside of the connecting plate b13 can be vibrated off, effectively avoiding part of the adhesive from adhering to the blade a2 of the stirring paddle 12. During cleaning, the stirring paddle 12 will be rotated by manual thrust, resulting in difficulty in quickly cleaning the adhesive on the blade a2.

[0036] Example 2

[0037] As an example Figure 7 -example Fig. 9 Shown:

[0038] Among them, the reactor 3 includes an outer frame c1, a base plate c2, and a vibrating ball c3. The top of the outer frame c1 is embedded and connected to the upper support frame 2, the base plate c2 is embedded in the inner wall of the outer frame c1 near the bottom, and the vibrating ball c3 is installed in the inner position of the outer frame c1. There are six vibrating balls c3, and three are evenly distributed in a group at the left and right ends of the outer frame c1 in a symmetrical manner. By turning the outer frame c1 upside down, the vibrating ball c3 can produce multiple impacts on the inner wall of the outer frame c1.

[0039] Among them, the base plate c2 includes a sliding plate c21, an impact block c22, and a bottom plate c23. The bottom plate c23 is embedded in the inner wall of the outer frame c1 near the bottom. The sliding plate c21 is movably engaged with the internal part of the bottom plate c23. The impact block c22 is installed between the upper ends of the bottom plate c23. There are four impact blocks c22, which are evenly distributed in parallel at the upper end of the bottom plate c23. By turning the object upside down, the impact block c22 can generate collision vibration on the inner side of the sliding plate c21, so that the adhesive solidification layer on the surface of the sliding plate c21 can be vibrated to loosen.

[0040] Among them, the sliding plate c21 includes a protruding block d1, a combining plate d2, and a connecting piece d3. The combining plate d2 is movably engaged with the inside of the bottom plate c23. The protruding block d1 is slidably matched with the inside of the combining plate d2. The connecting piece d3 is installed between the bottom of the protruding block d1 and the inner wall of the combining plate d2. The protruding blocks d1 are provided with seven and are evenly distributed in parallel on the combining plate d2. By flipping and inverting the mechanism, the protruding blocks d1 can be extended outward along the combining plate d2, so that the protruding blocks d1 can push the loosened adhesive solidification layer away from the surface of the combining plate d2.

[0041] Detailed usage and function of this embodiment:

[0042] In the present invention, since the adhesive is poured out after the stirring reaction is completed, part of the adhesive will adhere to the bottom of the inner wall of the reactor 3 due to its own viscosity and is difficult to be cleaned up, and will solidify at the bottom of the inner wall of the reactor 3. If accumulated for a long time, the internal space of the reactor 3 will gradually shrink. By turning the reactor 3 upside down, the adhesive that has completed the stirring reaction inside the reactor 3 can be poured out, and the throwing force generated by the inverted flipping of the reactor 3 can make the vibration ball c3 vibrate and impact the inner wall of the outer frame c1, so that the adhesive on the side of the outer frame c1 can be discharged cleanly, and then By turning the reactor 3 upside down, the sliding plate c21 can slide outward along the bottom plate c23, and then the impact block c22 can generate impact vibration on the inner wall of the sliding plate c21, so that the solidified adhesive layer attached to the outer surface of the sliding plate c21 can be vibrated to loosen, and then the reactor 3 can be turned upside down, so that the extending block d1 can slide outward along the combining plate d2, so that the extending block d1 can push the loosened solidified adhesive layer away from the outer surface of the sliding plate c21, effectively avoiding the situation where part of the adhesive adheres to the bottom of the inner wall of the reactor 3 and is difficult to clean.

[0043] Utilizing the technical solution of the present invention, or those skilled in the art designing similar technical solutions inspired by the technical solution of the present invention to achieve the above-mentioned technical effects, all fall within the protection scope of the present invention.

Claims

1. A reaction kettle for preparing electronic chemicals, comprising a stirring mechanism (1), an upper support frame (2), and a reaction kettle (3), wherein the upper support frame (2) is embedded at the top of the reaction kettle (3), and characterized in that: The stirring mechanism (1) passes through the inner position of the upper support frame (2); The stirring mechanism (1) comprises a driver (11), a stirring paddle (12), and a linkage shaft (13); the stirring paddle (12) penetrates the inner position of the upper support frame (2); the linkage shaft (13) is connected to the bottom of the driver (11); and the stirring paddle (12) is movably engaged with the lower end of the linkage shaft (13); The stirring paddle (12) comprises an elastic strip (a1), a blade (a2), and a rotating shaft (a3); the rotating shaft (a3) ​​is movably engaged with the lower end of the linkage shaft (13); the elastic strip (a1) is installed between the inner wall of the blade (a2) and the rotating shaft (a3); and the blade (a2) is movably engaged with the inside of the rotating shaft (a3); The blade (a2) comprises a plate surface (a21), a pull-back strip (a22), and a movable block (a23); the inner wall of the plate surface (a21) is connected to the elastic strip (a1); the plate surface (a21) is movably engaged with the inside of the rotating shaft (a3); the pull-back strip (a22) is installed between the inner side of the movable block (a23) and the inner wall of the plate surface (a21); the movable block (a23) is movably engaged with the inside of the plate surface (a21); the pull-back strip (a22) is installed on the inner wall of the plate surface (a21) on a side close to the rotating shaft (a3); The movable block (a23) comprises a cleaning plate (b1), an elastic ring (b2), and a central block (b3); the inner side of the central block (b3) is connected to the pull-back strip (a22); the central block (b3) is movably engaged with the inner side of the plate surface (a21); the inner side of the cleaning plate (b1) is connected to the elastic ring (b2); the elastic ring (b2) is embedded and fixedly connected to the outer end of the central block (b3); The cleaning plate (b1) comprises a vibration block (b11), an inner connection cavity (b12), and a connecting plate (b13); the inner side of the connecting plate (b13) is connected to the elastic ring (b2); the vibration block (b11) is installed at an inner position of the inner connection cavity (b12); and the inner connection cavity (b12) is embedded in an inner position of the connecting plate (b13); The reaction kettle (3) comprises an outer frame (c1), a base plate (c2), and a vibrating ball (c3); the top of the outer frame (c1) is embedded and connected to the upper support frame (2), and the vibrating ball (c3) is installed at an inner position of the outer frame (c1); The bottom plate (c2) comprises a sliding plate (c21), a collision block (c22), and a bottom plate (c23); the bottom plate (c23) is embedded in the inner wall of the outer frame (c1) near the bottom; the sliding plate (c21) is movably engaged with the inner part of the bottom plate (c23); the collision block (c22) is installed between the upper end of the bottom plate (c23) and the sliding plate (c21); The sliding plate (c21) includes a protruding block (d1), a connecting plate (d2), and a connecting piece (d3); the connecting plate (d2) is movably engaged with the inside of the bottom plate (c23); the protruding block (d1) is slidably matched with the inside of the connecting plate (d2); and the connecting piece (d3) is installed between the bottom of the protruding block (d1) and the inner wall of the connecting plate (d2).

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