Glass bottle mold capable of preventing bubbles from being generated

Abstract

The invention relates to the technical field, in particular to a glass bottle mold capable of preventing bubbles from being generated. The glass bottle mold capable of preventing the bubbles from being generated comprises mounting shells, outer molds are arranged on the inner sides of the two mounting shells, and the two outer molds are attached to each other to form a complete mold; the temperature adjusting mechanisms capable of quickly adjusting the temperature of the outer mold or keeping the temperature of the outer mold stable are arranged on the inner side of the outer mold; and the mold changing mechanisms capable of freely mounting and dismounting different glass bottle molds are symmetrically arranged on the side faces, close to each other, of the two outer molds. According to the invention, under the mutual cooperation of heating of the mold by the hairline assembly and heat conduction and temperature control of the mold by the liquid pump assembly, the temperatures in the outer mold and the inner mold are controlled to decrease in a gradient form, and under the action of air pressure, small bubbles in glass are absorbed and eliminated in molten glass.

Description

Technical Field

[0001] The invention relates to the technical field, and in particular to a glass bottle mold that prevents bubble generation. Background Art

[0002] Glass is also a common packaging material, especially in the field of containers. Glass containers occupy an important position in beverage packaging. The production process of glass bottles is mostly to crush, screen, ball mill, re-screen, dry, heat and melt, mold blow, and cool to form the raw materials. Mold blowing is to place molten glass into a glass bottle mold and blow air through the other end of the blowing tube to form the glass bottle.

[0003] In the actual glass production process, molten glass raw materials are prone to produce bubbles due to various production factors, and the bubbles in the cooled and hardened glass bottles are prone to cause the glass bottles to crack. In the mold forming stage, due to the large temperature difference between the glass bottle mold and the molten glass, when the molten glass comes into contact, bubbles will be generated during the molten glass forming process, resulting in poor quality of the finished product.

[0004] At present, conventional glass molds for preventing bubbles from forming usually increase their own temperature to avoid bubbles caused by temperature differences. However, increasing the temperature will affect the natural cooling and hardening of the glass, and it is difficult to achieve uniform cooling for some unconventional shaped glass bottles, which can easily lead to the formation of bubbles. For the bubbles that are generated, existing molds also lack effective means to eliminate the bubbles.

[0005] Therefore, it is necessary to design a glass bottle mold that prevents bubbles from being generated. Summary of the invention

[0006] In order to overcome the shortcomings of existing glass bottle molds that affect the natural cooling and hardening of glass, and that it is difficult to achieve uniform cooling for some unconventional shaped glass bottles, and that there is a lack of effective means for eliminating bubbles, the technical problem to be solved is: to provide a glass bottle mold that prevents bubble generation.

[0007] The technical solution of the present invention is: a glass bottle mold that prevents bubble generation, comprising: a mounting shell and an outer mold, the inner sides of the two mounting shells are each provided with an outer mold, and the two outer molds are fitted together to form a complete mold; a temperature control mechanism, the inner sides of the outer molds are each provided with a temperature control mechanism that can quickly adjust or maintain a stable temperature of the outer mold; a mold changing mechanism, the sides of the two outer molds that are close to each other are symmetrically provided with a mold changing mechanism that can freely install and disassemble different glass bottle molds.

[0008] In one of the embodiments, the temperature control mechanism specifically includes: a heating wire assembly, a heating wire assembly is provided on the inner side of the outer mold, one end of the heating wire assembly passes through the mounting shell and is electrically connected to the external controller; a circulating pipe, a circulating pipe is provided on the inner side of the outer mold, the circulating pipe is located between the heating wire assembly and the outer mold cavity, and the liquid inlet and liquid outlet ends of the circulating pipe both pass through the mounting shell; a liquid pump assembly, a liquid pump assembly is provided on the outer side of the mounting shell near the liquid inlet end of the circulating pipe, and the liquid pump assembly is connected to the liquid inlet end of the circulating pipe; a temperature sensor, a temperature sensor is provided on the outer side of the mounting shell to penetrate inward, and the temperature sensor passes through the outer mold.

[0009] In one of the embodiments, the mold changing mechanism specifically includes: a rotating rod, a plurality of rotating grooves are symmetrically and evenly spaced on both sides of one side of the outer mold close to the mold cavity, and rotating rods are threadedly provided in the rotating grooves; a clamping block, a clamping block is provided in the middle of the rotating rod, and the clamping block is slidably matched with the rotating groove; an inner mold, an inner mold is placed in the mold cavity of the outer mold, and a clamping groove is provided at the position of the inner mold facing the rotating groove, and the clamping block is clamped and matched with the clamping groove; a heat conduction block, a heat conduction block is provided through the inner side of the inner mold.

[0010] In one of the embodiments, the liquid pump assembly specifically includes: a shell, a shell is provided at a position on the outer side of the mounting shell near the liquid inlet end of the circulation pipeline, and the shell is connected to the liquid inlet end of the circulation pipeline; a servo motor, a servo motor is provided at a position on the mounting shell near the shell; a rotating wheel, a rotating wheel deviating from the central axis of the shell is rotatably provided on the inner side of the shell, and the rotating wheel is connected to the output shaft of the servo motor through a coupling; a baffle, a plurality of slide grooves are evenly spaced apart on the arc side of the rotating wheel, and a plurality of baffles are slidably provided in each slide groove; a first elastic member, a first elastic member is connected between the baffle and the slide groove; an electric push rod, an electric push rod is provided on the outer side of the shell; a moving tube, a moving tube is slidably penetrated at one end of the columnar shell away from the liquid inlet end of the circulation pipeline, and the end of the moving tube away from the shell is connected to the telescopic rod of the electric push rod; a sloped top plate, a sloped top plate is slidably provided on the inner side of the shell, the sloped top plate is in sliding contact with the rotating wheel, the sloped top plate is in contact and cooperate with the baffle, and the sloped top plate is connected and cooperated with the moving tube.

[0011] In one of the embodiments, a stabilization control mechanism is further included, which specifically includes: a first connecting pipe, two first connecting pipes with an inner diameter smaller than that of the circulating pipe are symmetrically arranged on the top of the circulating pipe with respect to the inner mold, and the first connecting pipe is connected to the circulating pipe; a heat-conducting pipe, heat-conducting pipes are symmetrically arranged on both sides of the radial direction of the mold cavity inside the inner mold; a second connecting pipe, two second connecting pipes connected to the heat-conducting pipe are arranged at the bottom of the heat-conducting pipe, and the second connecting pipes pass through the bottom of the inner mold and contact and cooperate with the first connecting pipe; a fixed block, a fixed block is arranged inside the second connecting pipe; a fixed column, a fixed column is arranged inside the first connecting pipe, and a through hole is opened on the surface of the fixed column; a sliding rod, a sliding rod is slidably passed through the middle of the fixed column; a sealing plate, a sealing plate is arranged on one end of the sliding rod located on the side of the fixed column close to the circulating pipe, and the sealing plate just blocks the through hole of the fixed column; a second elastic member, a second elastic member is connected between the sealing plate and the fixed column.

[0012] In one of the embodiments, it also includes: a vibration motor, and a vibration motor is arranged outside the mounting shell.

[0013] In one of the embodiments, it further comprises: a conical bump, wherein a plurality of conical bumps are evenly spaced in the mold cavity of the outer mold.

[0014] The present invention has the following advantages: 1. In the present invention, the temperature inside the outer mold and the inner mold is controlled to drop in a gradient form through the cooperation of the hairline component heating the mold and the liquid pump component conducting heat and controlling the temperature of the mold. Under the action of air pressure, small bubbles in the glass are absorbed and eliminated in the glass liquid.

[0015] 2. When the device is running, the electric push rod drives the moving tube and the inclined top plate to move, and the baffle position on the rotating wheel is constantly limited to reduce or increase the amount of liquid moved by the rotating wheel, so as to reduce the amount of liquid delivered by the liquid pump assembly to the circulation pipeline during the position time, and finally further strengthen the control of reducing and maintaining the temperature in the mold. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the three-dimensional structure of the present invention.

[0017] Figure 2 It is a partial three-dimensional structural schematic diagram of the present invention.

[0018] Figure 3 It is a schematic diagram of the three-dimensional structure of the temperature control mechanism of the present invention.

[0019] Figure 4 It is a partial three-dimensional structural schematic diagram of the temperature control mechanism of the present invention.

[0020] Figure 5 It is a partial three-dimensional structure explosion diagram of the temperature control mechanism of the present invention.

[0021] Figure 6 It is a partial three-dimensional structural schematic cross-sectional view of the mold changing mechanism of the present invention.

[0022] Figure 7 It is a partial three-dimensional structural schematic diagram of the mold changing mechanism of the present invention.

[0023] Figure 8 It is a three-dimensional structural schematic diagram of the liquid pump assembly, the electric push rod and the moving tube of the present invention.

[0024] Fig. 9 It is a schematic diagram of the three-dimensional structure of the rotating wheel, the baffle plate and the inclined top plate of the present invention.

[0025] Fig.10 It is a schematic cross-sectional view of the three-dimensional structure of the rotating wheel, the baffle and the first elastic member of the present invention.

[0026] Fig.11 It is a schematic diagram of the three-dimensional structure of the first connecting pipe, the circulation pipeline and the inner mold of the present invention.

[0027] Fig.12 It is a schematic diagram of the three-dimensional structure of the stability control mechanism of the present invention.

[0028] Fig.13 It is a partial three-dimensional structural schematic diagram of the stability control mechanism of the present invention.

[0029] Marked in the figure: 1-installation shell, 2-external mold, 3-temperature adjustment mechanism, 301-heating wire assembly, 302-circulation pipeline, 303-liquid pump assembly, 304-temperature sensor, 4-mold changing mechanism, 401-rotating groove, 402-rotating rod, 403-block, 404-inner mold, 405-slot, 406-heat conduction block, 501-servo motor, 502-housing, 503-rotating wheel, 504-slide, 505-baffle, 506-first elastic member, 507-electric push rod, 508-moving tube, 509-inclined top plate, 6-stabilization control mechanism, 601-first connecting tube, 602-second connecting tube, 603-heat conduction tube, 604-fixed block, 605-fixed column, 606-sliding rod, 607-sealing plate, 608-second elastic member, 7-vibration motor, 8-conical bump. DETAILED DESCRIPTION

[0030] The present invention will be further described below in conjunction with the embodiments shown in the accompanying drawings.

[0031] Example 1 like Figures 1 to 7 As shown, the present invention provides a glass bottle mold to prevent bubble generation, which specifically includes a mounting shell 1, an outer mold 2, a temperature regulating mechanism 3 and a mold changing mechanism 4; Wherein, the inner sides of the two mounting shells 1 are both provided with outer molds 2, and the two outer molds 2 are attached to each other to form a complete mold for shaping the glass liquid; The temperature regulating mechanism 3 is arranged inside the outer mold 2 to quickly regulate or keep the temperature of the outer mold 2 stable. The mold changing mechanism 4 is symmetrically arranged on the sides of the two outer molds 2 close to each other, and is used for freely installing and disassembling different glass bottle molds.

[0032] The temperature adjustment mechanism 3 specifically includes a heating wire assembly 301, a circulation pipeline 302, a liquid pump assembly 303 and a temperature sensor 304; A heating wire assembly 301 is provided on the inner side of the outer mold 2, and one end of the heating wire assembly 301 passes through the mounting shell 1 and is electrically connected to an external controller, so as to heat the outer mold 2 and increase the mold temperature. Among them, a circulation pipeline 302 is provided on the inner side of the outer mold 2, and the circulation pipeline 302 is located between the heating wire assembly 301 and the mold cavity of the outer mold 2. The liquid inlet end and the liquid outlet end of the circulation pipeline 302 both penetrate the mounting shell 1. A liquid pump assembly 303 is provided on the outer side of the mounting shell 1 near the liquid inlet end of the circulation pipeline 302. The liquid pump assembly 303 is connected to the liquid inlet end of the circulation pipeline 302, so as to realize adjustable rapid cooling of the outer mold 2; The temperature sensor 304 is arranged on the outside of the installation shell 1 in a through-type manner, and the temperature sensor 304 penetrates the outer mold 2 to monitor the temperature inside the outer mold 2, so as to facilitate quick adjustment.

[0033] The mold changing mechanism 4 specifically includes: a rotating rod 402, a clamping block 403, an inner mold 404 and a heat conduction block 406; Among them, a plurality of rotating grooves 401 are symmetrically and evenly spaced on both sides of one side of the outer mold 2 close to the mold cavity, and a rotating rod 402 is threadedly provided in each rotating groove 401, and a clamping block 403 is provided in the middle of each rotating rod 402, and the clamping block 403 is slidably matched with the rotating groove 401 to fix the position of the inner mold 404; The inner mold 404 is placed in the mold cavity of the outer mold 2, and the inner mold 404 is provided with a clamping groove 405 at a position facing the rotating groove 401. The clamping block 403 is clamped and matched with the clamping groove 405, so that when producing glass bottles of different specifications and shapes, it is convenient to achieve the production purpose by replacing different inner molds 404 when only one set of molds is used; A heat conduction block 406 is provided through the inner side of the inner mold 404 to achieve a uniform cooling effect at different positions of the glass bottle by changing the heat conduction effect at different positions during cooling.

[0034] For example, during installation, the liquid outlet end of the circulation pipe 302 and the liquid inlet end of the liquid pump assembly 303 are connected to the external heat transfer medium storage box respectively. Before use, the rotating rod 402 is controlled by a tool to rotate forward, so that it drives the block 403 to be received in the rotating groove 401, and then the inner mold 404 of the corresponding product specification shape is selected and placed in the mold cavity of the outer mold 2. After placement, the rotating rod 402 is controlled by a tool to rotate in the opposite direction, so that the block 403 is stuck in the slot 405 of the inner mold 404, and the inner mold 404 is fixed. When the glass bottle is formed, the heating wire assembly 301 is first started to heat the two outer molds 2 to increase their temperature, and then the molten glass liquid is placed in the mold. The two mounting shells 1 drive the two outer molds 2 and the inner mold 404 to approach each other and define the position, and then blow air into the glass liquid through the blowing tube to form the glass bottle. During the cooling process of the glass liquid, the temperature sensor 304 continuously detects the temperature of the inner mold 404 and transmits the detection result back to the external controller, and the external controller controls the start and operation of the liquid pump assembly 303 through the data. During the operation time, the heat transfer medium is pumped into the circulation pipe 302 through the liquid pump component 303 so that it passes through the inside of the outer mold 2 and carries the corresponding heat, so as to achieve the effect of rapid cooling of the outer mold 2. The inner mold 404 will also transfer the temperature to the outer mold 2, and the heat conduction block 406 can change the heat transfer effect of the specific position of the inner mold 404 to ensure the uniform cooling effect of the glass bottle. In this way, under the cooperation of the hair component and the liquid pump component 303, the temperature inside the outer mold 2 and the inner mold 404 is controlled to decrease in a gradient form, that is, the temperature drops rapidly to a certain value and then maintains for a period of time, and the above process is repeated. In this way, during the cooling process of the glass liquid, the gas becomes colder and the bubble will become smaller under the condition that the gas pressure remains unchanged. At the same time, due to the surface tension of the glass, the pressure inside the bubble increases due to the decrease in radius. When cooling, the saturated pressure of the gas in the glass liquid is lower than the pressure of the gas in the bubble, and the gas in the bubble is released into the glass liquid. Due to the release of gas, the bubble radius decreases again, and the surface tension of the glass liquid causes the pressure inside the bubble to further increase until the bubble is completely absorbed by the glass liquid.

[0035] Example 2 like Figures 8 to 10As shown, on the basis of Example 1, the liquid pump assembly 303 specifically includes a housing 502, a servo motor 501, a rotating wheel 503, a baffle 505, a first elastic member 506, an electric push rod 507, a moving tube 508 and a bevel top plate 509, a housing 502 is provided at a position near the liquid inlet end of the circulation pipe 302 on the outside of the mounting housing 1, the housing 502 is communicated with the liquid inlet end of the circulation pipe 302, a servo motor 501 is provided at a position near the housing 502 of the mounting housing 1, a rotating wheel 503 deviating from the central axis of the housing 502 is rotatably provided on the inside of the housing 502, the rotating wheel 503 is connected to the output shaft of the servo motor 501 through a coupling, and the arc side of the rotating wheel 503 There are multiple slide grooves 504 evenly spaced apart on the surface, and multiple baffles 505 are slidably provided in each slide groove 504. A first elastic member 506 is connected between the baffle 505 and the slide groove 504. An electric push rod 507 is provided on the outside of the shell 502. A moving tube 508 is slidably penetrated at the end of the columnar shell 502 away from the liquid inlet end of the circulation pipe 302. The end of the moving tube 508 away from the shell 502 is connected to the telescopic rod of the electric push rod 507. A sloped top plate 509 is slidably provided on the inside of the shell 502. The sloped top plate 509 is in sliding contact with the rotating wheel 503, the sloped top plate 509 is in contact and cooperate with the baffle 505, and the sloped top plate 509 is connected and cooperated with the moving tube 508.

[0036] After the liquid pump assembly 303 is started, the servo motor 501 is started by external control. The servo motor 501 drives the rotating wheel 503 to rotate, and the rotating wheel 503 drives the baffle 505 in the slide groove 504 to rotate. Since the rotating wheel 503 is set off the central axis relative to the shell 502, when the rotating wheel 503 rotates, the baffle 505 is continuously driven by the inner wall of the shell 502 to move back and forth in the slide groove 504. The space formed by the two adjacent baffles 505 and the rotating wheel 503 is constantly expanding and shrinking, thereby transmitting the heat transfer medium into the circulation pipe 302, and the electric push rod 507 in the initial state remains in an extended state, and the moving tube 508 and the inclined top plate 509 are driven to remain away from the center of the shell 502. When it is necessary to reduce the amount of liquid pump assembly 303 transmitted to the circulation pipe 302 per unit time. When the amount of liquid is reduced, the external controller shell controls the electric push rod 507 to be received, thereby driving the moving tube 508 and the inclined top plate 509 to move toward the center of the outer shell 502. The inclined top plate 509 continuously squeezes the baffle 505 into the slide groove 504 during the movement, and the moving tube 508 limits the position of the baffle 505. In this way, the amount of liquid moved by the rotating wheel 503 is reduced, so as to achieve the purpose of reducing the amount of liquid delivered by the liquid pump assembly 303 to the circulation pipe 302 during the positioning time. The flow rate and flow rate of the liquid in the circulation pipe 302 are reduced, and the temperature reduction rate in the mold will also be slowed down accordingly. In this way, firstly, the reduction and maintenance of the temperature in the mold can be controlled more conveniently, and secondly, slowing down the temperature change rate to a certain extent can avoid the internal stress of the hardened glass bottle being affected and the glass bottle being broken.

[0037] like Figure 11 to Figure 13 As shown, on the basis of Example 1, a stabilizing control mechanism 6 is further included, and the stabilizing control mechanism 6 specifically includes a first connecting pipe 601, a heat conducting pipe 603, a second connecting pipe 602, a fixing block 604, a fixing column 605, a sliding rod 606, a sealing plate 607 and a second elastic member 608. The top of the circulation pipeline 302 is symmetrically provided with two first connecting pipes 601 with an inner diameter smaller than that of the circulation pipeline 302 about the inner mold 404, and the first connecting pipe 601 is connected to the circulation pipeline 302. The inner mold 404 is symmetrically provided with heat conducting pipes 603 at both sides of the mold cavity in the radial direction, and the bottom of the heat conducting pipe 603 is provided with two A second connecting tube 602 is connected thereto, the second connecting tube 602 passes through the bottom of the inner mold 404 and contacts and cooperates with the first connecting tube 601, a fixing block 604 is provided inside the second connecting tube 602, a fixing column 605 is provided inside the first connecting tube 601, a through hole is opened on the surface of the fixing column 605, a sliding rod 606 is slidably penetrated in the middle of the fixing column 605, a sealing plate 607 is provided on one end of the sliding rod 606 located on the side of the fixing column 605 close to the circulation pipe 302, the sealing plate 607 just blocks the through hole of the fixing column 605, and a second elastic member 608 is connected between the sealing plate 607 and the fixing column 605.

[0038] When the outer mold 2 is not in contact with the inner mold 404, the first connecting tube 601 on the outer mold 2 is not in contact with the second connecting tube 602 on the inner mold 404, and the sliding rod 606 and the sealing plate 607 completely block the through hole of the fixed column 605 under the action of the second elastic member 608, and the liquid in the circulation pipeline 302 will not flow out. When the inner mold 404 is set in the mold cavity of the outer mold 2, the fixed block 604 in the second connecting tube 602 of the inner mold 404 squeezes the sliding rod 606, so that the sliding rod 606 moves with the sealing plate 607 away from the fixed column 605. The sealing plate 607 no longer blocks the through hole of the fixed column 605, and the heat conduction medium of the circulation pipeline 302 can flow into the heat conduction pipe 603 through the first connecting tube 601 and the second connecting tube 602, further enhancing the temperature adjustment effect on the inner mold 404.

[0039] like Figure 2 As shown, based on the embodiment 1, a vibration motor 7 is specifically included, and the vibration motor 7 is arranged outside the mounting shell 1.

[0040] The vibration motor 7 mounted outside the shell 1 can drive the mold to vibrate slightly at high speed before the molten glass liquid is hardened, thereby accelerating the volume increase and rise of bubbles in the molten glass liquid, and then the bubbles float out of the glass surface and break and disappear.

[0041] like Figure 3 As shown, based on the first embodiment, a conical protrusion 8 is specifically included, and a plurality of conical protrusions 8 are evenly spaced in the mold cavity of the outer mold 2 .

[0042] The conical protrusion 8 in the mold cavity of the outer mold 2 can increase the contact area and contact degree between the outer mold 2 and the inner mold 404, so that the outer mold 2 and the inner mold 404 can achieve a heat exchange effect.

[0043] The embodiments of the present invention are described in detail above with reference to the accompanying drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge scope of those skilled in the art without departing from the spirit of the present invention.

Claims

1. A glass bottle mold for preventing bubble generation, characterized in that: include: A mounting shell (1) and an outer mold (2), wherein the inner sides of the two mounting shells (1) are each provided with an outer mold (2), and the two outer molds (2) are fitted together to form a complete mold; A temperature regulating mechanism (3), wherein the inner side of the outer mold (2) is provided with a temperature regulating mechanism (3) capable of quickly regulating the temperature of the outer mold (2) or maintaining a stable temperature; A mold changing mechanism (4) is symmetrically provided on the sides of the two outer molds (2) close to each other, and the mold changing mechanism (4) is capable of freely installing and removing different glass bottle molds.

2. A bubble-proof glass bottle mold according to claim 1, characterized in that: The temperature adjustment mechanism (3) specifically includes: A heating wire assembly (301), wherein the inner side of the outer mold (2) is provided with a heating wire assembly (301), and one end of the heating wire assembly (301) penetrates through the mounting shell (1) and is electrically connected to an external controller; A circulation pipeline (302), wherein the inner side of the outer mold (2) is provided with a circulation pipeline (302), the circulation pipeline (302) is located between the heating wire assembly (301) and the mold cavity of the outer mold (2), and the liquid inlet end and the liquid outlet end of the circulation pipeline (302) both penetrate the mounting shell (1); A liquid pump assembly (303) is provided on the outside of the mounting shell (1) at a position close to the liquid inlet end of the circulation pipeline (302), and the liquid pump assembly (303) is communicated with the liquid inlet end of the circulation pipeline (302); A temperature sensor (304) is provided in a penetrating manner from the outside of the mounting shell (1) to the inside, and the temperature sensor (304) penetrates the outer mold (2).

3. A bubble-proof glass bottle mold according to claim 2, characterized in that: The mold changing mechanism (4) specifically includes: A rotating rod (402), a plurality of rotating grooves (401) are symmetrically and evenly spaced on both sides of a side of the outer mold (2) close to the mold cavity, and the rotating rods (402) are threadedly provided in the rotating grooves (401); A clamping block (403) is provided at the middle of the rotating rod (402), and the clamping block (403) is slidably matched with the rotating groove (401); The inner mold (404) is placed in the mold cavity of the outer mold (2), and a clamping groove (405) is provided at a position of the inner mold (404) facing the rotating groove (401), and the clamping block (403) is clamped and matched with the clamping groove (405); A heat conduction block (406) is provided on the inner side of the inner mold (404) in a penetrating manner.

4. A bubble-proof glass bottle mold according to claim 3, characterized in that: The liquid pump assembly (303) specifically comprises: A housing (502) is provided on the outside of the mounting shell (1) at a position close to the liquid inlet end of the circulation pipe (302), and the housing (502) is in communication with the liquid inlet end of the circulation pipe (302); A servo motor (501) is provided at a position of the mounting shell (1) close to the outer shell (502); A rotating wheel (503) is rotatably provided inside the housing (502) and deviates from the central axis of the housing (502), and the rotating wheel (503) is connected to the output shaft of the servo motor (501) via a coupling; Baffles (505), a plurality of slide grooves (504) are evenly spaced on the arc side surface of the rotating wheel (503), and a plurality of baffles (505) are slidably arranged in each slide groove (504); A first elastic member (506), wherein the baffle (505) and the slide groove (504) are both connected with the first elastic member (506); An electric push rod (507), the outer side of the housing (502) is provided with an electric push rod (507); A moving tube (508) is provided on the columnar housing (502) at one end away from the liquid inlet end of the circulation pipe (302) in a sliding manner, and the end of the moving tube (508) away from the housing (502) is connected to the telescopic rod of the electric push rod (507); The inclined top plate (509) is slidably provided inside the housing (502), the inclined top plate (509) is in sliding contact with the rotating wheel (503), the inclined top plate (509) is in contact and cooperation with the baffle (505), and the inclined top plate (509) is connected and cooperated with the moving tube (508).

5. A bubble-proof glass bottle mold according to claim 4, characterized in that: The invention also includes a stabilization control mechanism (6), which specifically includes: The first connecting pipe (601) and the top of the circulation pipe (302) are both symmetrically provided with two first connecting pipes (601) having an inner diameter smaller than that of the circulation pipe (302) about the inner mold (404), and the first connecting pipe (601) is in communication with the circulation pipe (302); Heat conducting pipes (603), heat conducting pipes (603) are symmetrically arranged inside the inner mold (404) at positions on both sides of the mold cavity in a radial direction; The second connecting tube (602) and the bottom of the heat conducting tube (603) are each provided with two second connecting tubes (602) in communication therewith, and the second connecting tubes (602) penetrate the bottom of the inner mold (404) and are in contact with the first connecting tube (601); A fixing block (604), wherein the second connecting tube (602) is provided with a fixing block (604); A fixing column (605), wherein the first connecting tube (601) is provided with a fixing column (605) inside, and a through hole is opened on the surface of the fixing column (605); A sliding rod (606) is provided in a sliding manner through the middle of the fixed column (605); A sealing plate (607), a sealing plate (607) is provided on one end of the sliding rod (606) located on a side of the fixed column (605) close to the circulation pipe (302); A second elastic member (608) is connected between the sealing plate (607) and the fixing column (605).

6. A bubble-proof glass bottle mold according to claim 5, characterized in that: Also includes: A vibration motor (7) is provided on the outside of the mounting shell (1).

7. A bubble-proof glass bottle mold according to claim 6, characterized in that: Also includes: Conical convex blocks (8), a plurality of conical convex blocks (8) are evenly spaced in the mold cavity of the outer mold (2).

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