Glass vase forming device

Abstract

The utility model discloses a glass vase forming device and relates to the technical field of glass processing. The forming device comprises a forming supporting frame, a rotating frame and a discharging supporting frame, an extrusion air cylinder is clamped to the bottom of the forming supporting frame, a lifting air cylinder is arranged at the bottom of the forming supporting frame, the rotating frame is rotationally clamped in the forming supporting frame, a plurality of limiting grooves are formed in the top of the rotating frame in a penetrating mode, and a set of forming molds are inserted in each limiting groove in a penetrating mode. A discharging supporting frame is inserted into one side of the bottom of the forming supporting frame in a penetrating mode. By arranging the forming supporting frame, the rotating frame and the discharging supporting frame, the problems that when a glass vase is machined, cooling of raw materials between rough blank machining and blow molding planning functionality may affect machining efficiency, when a mold is replaced, potential safety hazards exist in manual replacement, replacement needs to be conducted after shutdown cooling is conducted for a certain time, and the production cost is low are solved. And meanwhile, the number of dies needing to be replaced is large.

Description

Technical Field

[0001] The utility model belongs to the technical field of glass processing, in particular to a glass vase forming device. Background Art

[0002] Vase is a kind of vessel, mostly made of ceramic or glass, with beautiful and smooth appearance. Glass vase is made of glass, which has the advantages of high transparency, light texture, various shapes, easy cleaning, etc. In the production and processing of glass vase, it is necessary to use a molding device to make the high-temperature glass raw material in the mold by blowing molding, but it still has the following disadvantages in actual use:

[0003] The utility model with publication number CN218262268U discloses a forming device for glass vase production, wherein a conveyor belt is arranged between the driving wheel and the driven wheel, and the conveyor belt is provided with supporting plates distributed at equal intervals, two supporting plates are symmetrically installed on the upper end surface of the workbench, a top plate is installed on the upper end of the supporting plate, a first hydraulic device is installed on the top plate, a blow molding device is installed at the end of the hydraulic rod of the first hydraulic device, a symmetrically distributed first mounting plate is installed on the side end of the supporting plate, the threaded rod is rotatably installed between the first mounting plates, and a screw on the threaded rod The groove is equipped with a movable block, and the side end of the movable block is equipped with a second hydraulic device. The ends of the hydraulic rods of the two second hydraulic devices are respectively equipped with a right mold and a left mold. When producing glass vases, the glass raw materials are often first squeezed by a pre-treatment structure to process the glass raw materials into rough blanks, and then the rough blanks can be blown by a blow molding device to process the glass rough blanks into a specified style through the mold, which makes it difficult for the glass vase forming device to process the glass vase continuously. The cooling of the raw materials between the two processing steps may affect the blow molding efficiency;

[0004] When the glass vase forming device is using a mold, when the mold needs to be replaced, since the forming device is usually at a high temperature, manual replacement poses a safety hazard, and the device needs to be shut down for a certain period of time to cool before replacement. At the same time, a large number of molds need to be replaced, which reduces processing efficiency. Utility Model Content

[0005] The utility model aims to provide a glass vase forming device, which solves the problem that when processing glass vases, a pre-treatment structure is used to process glass raw materials into rough blanks, and then the rough blanks in the mold are blow-molded by the blowing structure of the forming device. The cooling of the raw materials between the two processing steps may affect the blow molding efficiency. When the mold needs to be replaced, since the molding device is usually at a high temperature, manual replacement has safety hazards, and the replacement needs to be stopped for cooling for a certain period of time, and the number of molds that need to be replaced is large.

[0006] In order to solve the above technical problems, the utility model is realized by the following technical solutions:

[0007] The utility model discloses a glass vase forming device, comprising a forming support frame, a rotating frame and a discharging support frame, wherein an extrusion cylinder is clamped at the bottom of the forming support frame, a blower is clamped through the top of the forming support frame, a lifting cylinder is arranged at the bottom of the forming support frame, a rotating frame is rotatably clamped in the forming support frame, a plurality of limiting grooves are penetrated through the top of the rotating frame, a group of forming molds are inserted through each of the limiting grooves, a forming groove is penetrated through the center of the top of each group of forming molds, a discharging support frame is penetrated and inserted at one side of the bottom of the forming support frame, and a conveyor belt is rotatably clamped in the top of the discharging support frame;

[0008] The rotating frame can be used to drive multiple groups of molding molds to rotate. When the molding mold containing glass raw materials moves to the top of the extrusion cylinder, the extrusion cylinder drives the pressure rod to move up and down, so that the glass raw materials poured into the molding mold can be extruded to make the glass raw materials into rough blanks. Then, the rotating frame is used to move the rough blanks to the top of the molding air pump, and the rough blanks are formed in the molding mold by blow molding, which reduces the heat loss and enables a large number of glass vases to be formed continuously. When the molding mold needs to be replaced, the staff can put a large number of new molding molds that need to be used into the limiting tube. When the replaced molding mold reaches the lifting position, the staff can put a large number of new molding molds that need to be used into the limiting tube. When the top of the cylinder is lowered, the support plate is driven downward by the lifting cylinder, so that the molding mold that needs to be replaced can be quickly separated from the rotating frame, and the new molding mold can be quickly put into the rotating frame under the action of gravity. The structure is simple, the operation is convenient, and a large number of molding molds can be quickly replaced continuously. The blower can drive the circulation of air, and the air is heated by the heating pipe to further heat the molding tank, so as to avoid the large temperature difference between the glass raw material and the molding tank when the glass raw material is poured into the molding tank again, resulting in a decrease in the quality of the finished product. The formed glass vase can be driven to be discharged by the conveyor belt, thereby improving the degree of automation of the device.

[0009] Furthermore, a feed hopper is inserted through the top of the forming support frame, the feed hopper is attached to the top of a forming groove of a group of forming molds, a support base is fixed to the bottom of the outer peripheral surface of the forming support frame, the feed hopper is located between the extrusion cylinder and the blower, and the feed hopper is located on the other side of the forming support frame relative to the discharge support frame;

[0010] The glass raw materials are poured into the molding grooves of a group of molding molds through the feeding hopper, and the molding molds and the glass raw materials are moved to the next processing step through the rotation of the rotating frame. The rotating frame can drive multiple groups of molding molds to rotate in the molding support frame, so that the molding device can simultaneously feed the glass raw materials, press the rough blanks, blow mold, discharge the glass vases, replace the molding molds, and preheat the molding molds. The rotating frame can be limited by the molding support frame to avoid rapid heat loss of the molding molds when rotating, thereby ensuring the processing efficiency of the glass vase.

[0011] Furthermore, a pressure rod is slidably connected to the top of the extrusion cylinder, and the pressure rod is inserted into the bottom of the forming support frame, and the pressure rod is inserted into a forming groove of a group of forming molds. A forming air pump is inserted into the bottom of the forming support frame, and the forming air pump is connected to the forming groove of a group of forming molds, and the forming air pump is located between the extrusion cylinder and the discharge support frame;

[0012] The extrusion cylinder can drive the pressure rod to move up and down quickly to extrude the glass raw materials, so that the glass raw materials can be quickly processed into rough blanks. When the rough blanks rotate to the top of the forming air pump, the forming air pump draws air into the rough blanks, which can be blow-molded in the forming mold, thereby improving the degree of automation of the forming device.

[0013] Furthermore, a first telescopic tube is slidably connected to the top of the lifting cylinder, a support plate is connected to the top of the first telescopic tube, the support plate is inserted through the bottom of the forming support frame, the support plate is attached to the bottom of a group of forming molds, a limiting tube is welded through the top of the forming support frame, the limiting tube is suspended from the top of the support plate, a heating tube is connected to the top of the blower, the other end of the heating tube is connected through the bottom of the forming support frame, the blower, the heating tube and the forming groove of a group of forming molds are connected through and through, and the lifting cylinder is located between the discharge support frame and the blower;

[0014] When it is necessary to replace the molding mold, the staff can put a large number of new molding molds that need to be used into the limiting tube. When the replaced molding mold reaches the top of the lifting cylinder, the lifting cylinder drives the support plate to move downward, so that the molding mold that needs to be replaced can be quickly separated from the rotating frame, and the new molding mold can be quickly put into the rotating frame under the action of gravity. The structure is simple, the operation is convenient, and a large number of molding molds can be replaced quickly and continuously. The blower can drive the air to circulate in the molding tank and the heating tube, so that the air is heated by the heating tube, and the molding tank is further heated to avoid the large temperature difference between the glass raw material and the molding tank when the glass raw material is poured into the molding tank again, resulting in a decrease in the quality of the finished product.

[0015] Furthermore, a rotating motor is clamped at the bottom of the rotating frame, and the rotating motor penetrates and is clamped at the bottom of the forming support frame, and magnetic positioning tubes are clamped at both sides of each group of the forming molds, and limiting cylinders are arranged on both sides of each group of the forming molds, and one end of the limiting cylinder is slidably clamped with a second telescopic tube, and the other end of the second telescopic tube is clamped with an electromagnetic positioning rod, and the electromagnetic positioning rod is inserted into one end of the magnetic positioning tube, and multiple limiting cylinders are respectively clamped in multiple limiting grooves, and each group of the forming molds is attached to the top and bottom of the forming support frame;

[0016] The rotating motor can drive the rotating frame to rotate, which can further drive the multiple groups of molding molds to rotate, so that the multiple groups of molding molds can respectively perform the feeding of glass raw materials, pressing of rough blanks, blow molding, discharging of glass vases, replacement of molding molds, and preheating of molding molds through the molding support frame, thereby improving the processing efficiency of the molding device on glass vases. The limit cylinder drives the extension and retraction of the second telescopic tube, which further drives the movement of the molding mold, facilitates the discharging of the glass vase in the molding mold, facilitates the replacement of the molding mold, and further improves the automation degree of the molding device.

[0017] Furthermore, a driving rod is rotatably connected in the discharging support frame, the conveyor belt is attached to the outer peripheral surface of the driving rod, a driving motor is connected through one side of the discharging support frame, the driving motor is connected to the driving rod through the discharging support frame, a shock-absorbing support frame is connected in the discharging support frame, the shock-absorbing support frame is located in the conveyor belt, a plurality of positioning grooves are opened through the outer peripheral surface of the conveyor belt, and a group of forming grooves of the forming mold is suspended from the top of a positioning groove;

[0018] The processed glass vase falls into a positioning groove under the action of gravity. The bottom of the glass vase can be shock-proofed by the shock-absorbing support frame, and the glass vase is limited by the positioning groove to prevent it from tipping over. The conveyor belt is driven by the driving motor to rotate, which can further drive the movement and discharge of the glass vase.

[0019] The utility model has the following beneficial effects:

[0020] The utility model solves the problem that, when producing glass vases, a pre-treatment structure is often used to extrude glass raw materials first to process the glass raw materials into rough blanks before the rough blanks are blown by a blow molding device to process the glass rough blanks into a specified style through a mold, which causes the glass vase forming device to be difficult to continuously process the glass vase, and the cooling of the raw materials between two processing steps may affect the blow molding processing efficiency. After the glass raw materials are poured into a group of forming molds, the rotating frame is driven by a rotating motor to rotate, so that the forming mold can be moved to the top of the extrusion cylinder, and the pressure rod is driven by the extrusion cylinder to move upward to process the glass raw materials into rough blanks. Then, when the rotating frame is rotated, the forming mold and the rough blank are moved to the top of the forming air pump, and air is pumped into the rough blank by the forming air pump, so that the rough blank is blow-molded in the forming mold. The forming support frame can prevent heat from being lost quickly during the rotation of the rotating frame, thereby ensuring the temperature in the forming mold, further ensuring the quality of the glass vase, and enabling multiple glass vases to be continuously processed, thereby improving the processing efficiency of the forming device.

[0021] The utility model solves the problem that when a glass vase forming device is using a mold and needs to replace the mold, since the forming device is usually at a high temperature, manual replacement has safety hazards, and the machine needs to be stopped for cooling for a certain period of time before replacement. At the same time, a large number of molds need to be replaced, which reduces the processing efficiency. When the rotating frame drives the forming mold to move to the bottom of the limiting tube, when the forming mold needs to be replaced, a specified number of new forming molds are taken according to needs, and the forming molds are poured into the limiting tube, the limiting cylinder is controlled to release the lock on the forming mold, and the supporting plate is driven downward by the lifting cylinder, so that the forming mold that needs to be replaced can be quickly separated from the rotating frame, and the new forming mold can be quickly entered into the rotating frame under the action of gravity. The operation is simple and convenient, and a large number of forming molds can be quickly replaced continuously. BRIEF DESCRIPTION OF THE DRAWINGS

[0022] Figure 1 It is a structural effect diagram of the utility model;

[0023] Figure 2 This is a structural diagram of the forming support frame of the utility model;

[0024] Figure 3 This is a bottom view of the forming support frame of the utility model;

[0025] Figure 4 This is a structural diagram of the rotating frame and the forming mold of the utility model;

[0026] Figure 5 This is a structural diagram of the molding die of the utility model;

[0027] Figure 6This is a structural diagram of the discharging support frame of the utility model.

[0028] Reference numerals:

[0029] 1. Forming support frame; 101. Feed hopper; 102. Extrusion cylinder; 103. Press rod; 104. Limiting tube; 105. Blower; 106. Heating tube; 107. Support base; 108. Forming air pump; 109. Lifting cylinder; 110. First telescopic tube; 111. Support plate; 2. Rotating frame; 201. Limiting groove; 202. Forming mold; 203. Rotating motor; 204. Forming groove; 205. Magnetic positioning tube; 206. Limiting cylinder; 207. Electromagnetic positioning rod; 208. Second telescopic tube; 3. Discharging support frame; 301. Conveyor belt; 302. Driving rod; 303. Driving motor; 304. Shock-absorbing support frame; 305. Positioning groove. DETAILED DESCRIPTION

[0030] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the accompanying drawings in the embodiments of the present invention.

[0031] See also Figure 1-6 As shown, the utility model is a glass vase forming device, comprising a forming support frame 1, a rotating frame 2 and a discharging support frame 3, the bottom of the forming support frame 1 is clamped with an extrusion cylinder 102, the top of the forming support frame 1 is penetrated and clamped with a blower 105, the bottom of the forming support frame 1 is provided with a lifting cylinder 109, the rotating frame 2 is rotatably clamped in the forming support frame 1, a plurality of limiting grooves 201 are penetrated and opened on the top of the rotating frame 2, a group of forming molds 202 are penetrated and inserted in each limiting groove 201, a forming groove 204 is penetrated and opened in the center of the top of each group of forming molds 202, a discharging support frame 3 is penetrated and inserted on one side of the bottom of the forming support frame 1, and a conveyor belt 301 is rotatably clamped in the top of the discharging support frame 3;

[0032] When the glass vase is being formed, the forming device is turned on, and the molten quantitative glass raw material is poured into the feeding hopper 101. The raw material falls into a group of forming molds 202 under the action of gravity. The rotating motor 203 drives the rotating frame 2 to rotate, so that a group of forming molds 202 rotate to the top of the extrusion cylinder 102. The extrusion cylinder 102 controls the pressure rod 103 to move upward to extrude the raw material in the forming mold 202, so that the raw material is processed into a rough blank. The rotating frame 2 rotates again to drive the forming mold 202 to move to the top of the forming air pump 108. Air is pumped into the rough blank by the forming air pump 108, so that the rough blank is blow-molded in the forming mold 202. The rotating frame 2 drives the forming mold 202 and the glass vase to rotate again. When it rotates to the upper side of the discharge support frame 3, the limit cylinder 206 drives the forming mold 202 to open, so that the glass vase falls to the upper side of the shock-absorbing support frame 304 under the action of gravity, and the glass vase is discharged by the rotation of the conveyor belt 301. When it is not necessary to form the glass vase, the rotating frame 202 is turned on. When the mold 202 is replaced, when the rotating frame 2 drives the forming mold 202 to rotate to the bottom of the blower 105, the blower 105 drives the flow of air, so that the air enters the heating tube 106 for heating and then flows back to the forming mold 202, so as to heat the forming mold 202 and ensure the stability of the temperature difference between the forming mold 202 and the molten glass raw material. When the forming mold 202 needs to be replaced, the new forming mold 202 is inserted into the limiting tube 104, and the rotating frame 2 drives the forming mold 202 to rotate to the bottom of the blower 105. When the tool 202 moves to the bottom of the limiting tube 104, the electromagnetic positioning rod 207 is powered off and the limiting cylinder 206 drives the electromagnetic positioning rod 207 to move to release the positioning of the molding mold 202. The lifting cylinder 109 drives the support plate 111 to move downward, so that the molding mold 202 is separated from the limiting groove 201, and the new molding mold 202 falls into the limiting groove 201 under the action of gravity. The limiting cylinder 206 drives the electromagnetic positioning rod 207 to move in the opposite direction to position the new molding mold 202.

[0033] Among them Figure 1-3 As shown, a feed hopper 101 is clamped through the top of the forming support frame 1, and the feed hopper 101 is attached to the top of a forming groove 204 of a group of forming molds 202. A support base 107 is clamped and fixed to the bottom of the outer peripheral surface of the forming support frame 1. The feed hopper 101 is located between the extrusion cylinder 102 and the blower 105. The feed hopper 101 is located on the other side of the forming support frame 1 relative to the discharge support frame 3. A pressure rod 103 is slidably clamped on the top of the extrusion cylinder 102. The pressure rod 103 is inserted through the bottom of the forming support frame 1, and the pressure rod 103 is inserted into the forming groove 204 of a group of forming molds 202. A forming air pump 108 is clamped through the bottom of the forming support frame 1. The forming air pump 108 is connected to the forming groove 204 of a group of forming molds 202, and the forming air pump 108 is located between the extrusion cylinder 102 and the discharge support frame 3.

[0034] The top of the lifting cylinder 109 is slidably connected with a first telescopic tube 110, and the top of the first telescopic tube 110 is connected with a support plate 111, which penetrates and is inserted into the bottom of the forming support frame 1, and the support plate 111 is attached to the bottom of a group of forming molds 202. The top of the forming support frame 1 penetrates and is welded with a limiting tube 104, and the limiting tube 104 is suspended from the top of the support plate 111. The top of the blower 105 is connected with a heating tube 106, and the other end of the heating tube 106 penetrates and is connected to the bottom of the forming support frame 1. The blower 105, the heating tube 106 and the forming groove 204 of a group of forming molds 202 are connected, and the lifting cylinder 109 is located between the discharge support frame 3 and the blower 105;

[0035] The glass raw material is poured into the molding groove 204 of a group of molding molds 202 through the feeding hopper 101, and the molding mold 202 and the glass raw material are moved to the top of the extrusion cylinder 102 by the rotation of the rotating frame 2. The extrusion cylinder 102 drives the pressure rod 103 to move up and down quickly to extrude the glass raw material and process the glass raw material into a rough blank. When the rough blank is rotated to the top of the molding air pump 108 through the rotating frame 2, the molding air pump 108 draws air into the rough blank so that the rough blank is blow-molded in the molding groove 204. When the molding mold 202 moves to the bottom of the blower 105, the blower 105 drives air to blow between the molding groove 204 and the heating tube 104. 06, so that the air circulates through the heating tube 106 to heat the inside of the molding groove 204, thereby ensuring the stability of the temperature difference between the molding mold 202 and the molten glass raw material. When the molding mold 202 needs to be replaced, the new molding mold 202 is placed in the limiting tube 104. When the replaced molding mold 202 moves to the top of the lifting cylinder 109, the lifting cylinder 109 drives the first telescopic tube 110 to contract, further driving the support plate 111 to move downward, so that the molding mold 202 to be replaced quickly leaves the rotating frame 2, and at the same time, the new molding mold 202 quickly enters the rotating frame 2 under the action of gravity.

[0036] Among them Figure 1 , 4 As shown in , 5, a rotating motor 203 is clamped at the bottom of the rotating frame 2, and the rotating motor 203 penetrates and is clamped at the bottom of the forming support frame 1. Magnetic positioning tubes 205 are clamped on both sides of each group of molding molds 202. Limiting cylinders 206 are arranged on both sides of each group of molding molds 202. One end of the limiting cylinder 206 is slidably clamped with a second telescopic tube 208, and the other end of the second telescopic tube 208 is clamped with an electromagnetic positioning rod 207, which is inserted into one end of the magnetic positioning tube 205. Multiple limiting cylinders 206 are respectively clamped in multiple limiting grooves 201, and each group of molding molds 202 fits the top and bottom of the molding support frame 1;

[0037] When processing the glass vase, the rotating motor 203 drives the rotating frame 2 to rotate, and further drives the multiple groups of molding molds 202 to rotate, so that the multiple groups of molding molds 202 can respectively feed the glass raw materials, press the rough blanks, blow mold, discharge the glass vases, replace the molding molds 202, and preheat the molding molds 202 through the molding support frame 1. When the glass vase is discharged, the limit cylinder 206 drives the second telescopic tube 208 to contract, and further drives a group of molding molds 202 to open, so that the glass vase is discharged under the action of gravity. It falls into the discharge support frame 3. When the forming mold 202 is replaced, the electromagnetic positioning rod 207 is powered off to release the lock on the magnetic positioning tube 205. The limiting cylinder 206 drives the second telescopic tube 208 to contract, so that the electromagnetic positioning rod 207 is disengaged from the magnetic positioning tube 205. After the new forming mold 202 enters the rotating frame 2, the limiting cylinder 206 drives the electromagnetic positioning rod 207 to move in the opposite direction so that it is inserted into the magnetic positioning tube 205. The electromagnetic positioning rod 207 is powered on to adsorb and position the magnetic positioning tube 205.

[0038] Among them Figure 1 , 6 As shown, a driving rod 302 is rotatably clamped in the discharging support frame 3, and the conveyor belt 301 is attached to the outer peripheral surface of the driving rod 302. A driving motor 303 is penetrated and clamped on one side of the discharging support frame 3, and the driving motor 303 is connected to the driving rod 302 through the discharging support frame 3. A shock-absorbing support frame 304 is clamped in the discharging support frame 3, and the shock-absorbing support frame 304 is located in the conveyor belt 301. A plurality of positioning grooves 305 are penetrated and opened on the outer peripheral surface of the conveyor belt 301, and a group of molding grooves 204 of the molding mold 202 are suspended on the top of a positioning groove 305;

[0039] The processed glass vase falls into a positioning groove 305 under the action of gravity, and the bottom of the glass vase is protected by the shock-absorbing support frame 304. The glass vase is limited by the positioning groove 305 to prevent the glass vase from tipping over. The driving motor 303 drives the driving rod 302 to rotate, and further drives the conveyor belt 301 to rotate, so that the glass vase moves and discharges along the moving direction of the conveyor belt 301.

[0040] The specific working principle of the utility model is as follows: when processing a glass vase, glass raw materials are poured into a forming groove 204 of a group of forming molds 202 through a feed hopper 101, and the forming molds 202 and the glass raw materials are moved to the top of the extrusion cylinder 102 by the rotation of the rotating frame 2. The extrusion cylinder 102 drives the pressure rod 103 to move up and down quickly to extrude the glass raw materials, so that the glass raw materials are processed into rough blanks. When the rough blanks are rotated to the top of the forming air pump 108 through the rotating frame 2, the forming air pump 108 draws air into the rough blanks, so that the rough blanks are in the forming grooves 204. 4, the rotating frame 2 drives the forming mold 202 and the glass vase to move to the top of the discharge support frame 3, the limit cylinder 206 drives the second telescopic tube 208 to contract, further drives a group of forming molds 202 to open, so that the glass vase falls into a positioning groove 305 under the action of gravity, and the bottom of the glass vase is shock-proofed by the shock-absorbing support frame 304. The driving motor 303 drives the rotation of the driving rod 302, further drives the conveyor belt 301 to rotate, so that the glass vase moves and discharges along the moving direction of the conveyor belt 301, and the forming mold 202 is closed. 02, when the rotating frame 2 drives the forming mold 202 to move to the bottom of the blower 105, the blower 105 drives the air to circulate in the forming groove 204 and the heating tube 106, so that the air is heated by the heating tube 106, and the forming groove 204 is further heated. When the forming mold 202 needs to be replaced, the new forming mold 202 is placed in the limiting tube 104. When the replaced forming mold 202 moves to the top of the lifting cylinder 109, the electromagnetic positioning rod 207 is powered off, the lock of the magnetic positioning tube 205 is released, and the limiting cylinder 2 06 drives the second telescopic tube 208 to contract, so that the electromagnetic positioning rod 207 is separated from the magnetic positioning tube 205, and the lifting cylinder 109 drives the first telescopic tube 110 to contract, further driving the support plate 111 to move downward, so that the forming mold 202 that needs to be replaced can quickly separate from the rotating frame 2, and at the same time, the new forming mold 202 can quickly enter the rotating frame 2 under the action of gravity, and the limiting cylinder 206 drives the electromagnetic positioning rod 207 to move in the opposite direction so that it can be inserted into the magnetic positioning tube 205, and the electromagnetic positioning rod 207 is energized to make it adsorb and position the magnetic positioning tube 205.

[0041] The above are only preferred embodiments of the present invention and do not limit the present invention. Any modification to the technical solutions recorded in the aforementioned embodiments and any equivalent replacement of some of the technical features therein, any modification, equivalent replacement, and improvement made are all within the protection scope of the present invention.

Claims

1. A glass vase forming device, comprising a forming support frame (1), a rotating frame (2) and a discharging support frame (3), characterized in that: The bottom of the forming support frame (1) is clamped with an extrusion cylinder (102), the top of the forming support frame (1) is penetrated and clamped with a blower (105), the bottom of the forming support frame (1) is provided with a lifting cylinder (109), the inside of the forming support frame (1) is rotatably clamped with a rotating frame (2), the top of the rotating frame (2) is penetrated with a plurality of limiting grooves (201), each of the limiting grooves (201) is penetrated and inserted with a group of forming molds (202), the top center of each group of forming molds (202) is penetrated with a forming groove (204), the bottom side of the forming support frame (1) is penetrated and inserted with a discharge support frame (3), and the top of the discharge support frame (3) is rotatably clamped with a conveyor belt (301).

2. A glass vase forming device according to claim 1, characterized in that: A feed hopper (101) is inserted through the top of the molding support frame (1) and is clamped to the top of a molding groove (204) of a group of molding dies (202). A support base (107) is clamped and fixed to the bottom of the outer peripheral surface of the molding support frame (1). The feed hopper (101) is located between the extrusion cylinder (102) and the blower (105). The feed hopper (101) is located on the other side of the molding support frame (1) relative to the discharge support frame (3).

3. A glass vase forming device according to claim 1, characterized in that: A pressure rod (103) is slidably connected to the top of the extrusion cylinder (102), and the pressure rod (103) is inserted into the bottom of the forming support frame (1). The pressure rod (103) is inserted into a forming groove (204) of a group of forming molds (202). A forming air pump (108) is inserted into the bottom of the forming support frame (1), and the forming air pump (108) is connected to the forming groove (204) of a group of forming molds (202). The forming air pump (108) is located between the extrusion cylinder (102) and the discharge support frame (3).

4. A glass vase forming device according to claim 3, characterized in that: The top of the lifting cylinder (109) is slidably clamped with a first telescopic tube (110), the top of the first telescopic tube (110) is clamped with a support plate (111), the support plate (111) is inserted through the bottom of the forming support frame (1), the support plate (111) is attached to the bottom of a group of forming molds (202), the top of the forming support frame (1) is penetrated by a welded limit tube (104), the limit tube (104) is suspended from the top of the support plate (111), the top of the blower (105) is clamped with a heating tube (106), the other end of the heating tube (106) is penetrated and clamped to the bottom of the forming support frame (1), the blower (105), the heating tube (106) and the forming groove (204) of a group of forming molds (202) are penetrated and connected, and the lifting cylinder (109) is located between the discharge support frame (3) and the blower (105).

5. The glass vase forming device according to claim 1, characterized in that: A rotating motor (203) is clamped at the bottom of the rotating frame (2), and the rotating motor (203) penetrates and is clamped at the bottom of the forming support frame (1). Magnetic positioning tubes (205) are clamped on both sides of each group of the forming molds (202). Limit cylinders (206) are arranged on both sides of each group of the forming molds (202). One end of the limit cylinder (206) is slidably clamped with a second telescopic tube (208), and the other end of the second telescopic tube (208) is clamped with an electromagnetic positioning rod (207). The electromagnetic positioning rod (207) is plugged into one end of the magnetic positioning tube (205). Multiple limit cylinders (206) are respectively clamped in multiple limit grooves (201), and each group of the forming molds (202) is attached to the top and bottom of the forming support frame (1).

6. The glass vase forming device according to claim 1, characterized in that: A driving rod (302) is rotatably clamped in the discharge support frame (3), the conveyor belt (301) is attached to the outer peripheral surface of the driving rod (302), a driving motor (303) is penetrated and clamped on one side of the discharge support frame (3), the driving motor (303) is connected to the driving rod (302) through the discharge support frame (3), a shock-absorbing support frame (304) is clamped in the discharge support frame (3), the shock-absorbing support frame (304) is located in the conveyor belt (301), a plurality of positioning grooves (305) are penetrated and opened on the outer peripheral surface of the conveyor belt (301), and a group of molding grooves (204) of the molding mold (202) are suspended on the top of a positioning groove (305).

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