Aluminum alloy casting mold with high efficiency demoulding

Abstract

The present invention discloses an aluminum alloy casting mold with high efficiency demolding, which belongs to the technical field of casting molds. The present invention comprises a lower mold, an upper mold is arranged above the lower mold, and a mold cavity is opened in the middle of the lower mold, a mold core that matches the mold cavity is installed in the middle of the lower end of the upper mold, and a fluid channel is provided in the middle of the upper mold, a jacking demolding component is installed in the middle of the lower mold, and the jacking demolding component is used to eject the molded casting in the mold cavity when the mold is opened, and a movable heat dissipation component is installed on the side of the lower mold, and the movable heat dissipation component slows down the heat dissipation effect when liquid is passed through, and is used to restore heat dissipation during cooling. The aluminum alloy casting mold with high efficiency demolding is provided with an adjustable heat dissipation structure on the mold. When the molding liquid is added, the heat dissipation efficiency of the heat dissipation mechanism is reduced by adjusting the heat dissipation mechanism, thereby reducing the temperature difference of the high-temperature liquid.

Description

Technical Field

[0001] The invention relates to the technical field of casting molds, in particular to an aluminum alloy casting mold with high-efficiency demoulding. Background Art

[0002] Aluminum alloy casting molds are used in the casting process of aluminum alloy materials to inject molten aluminum alloy and cool and solidify it into parts or products of desired shape and size. These molds are usually made of high-strength, high-temperature resistant and wear-resistant materials to ensure that they can withstand the pressure of high-temperature molten metal during the casting process, maintain the stability of the mold shape, and produce castings with precise size and good surface quality.

[0003] For example, the publication date is: 2023-07-04, the patent name is: A heat-resistant casting mold, and the publication number is: CN116372108A, a Chinese patent, which includes a heat-resistant casting cooling box wall; a box cover body arranged directly above the heat-resistant casting cooling box wall; and a cylindrical mold body arranged inside the heat-resistant casting cooling box wall, and the top of the cylindrical mold body is integrally formed with an annular protrusion. The two ends of the box cover body are integrally formed with groove guide rails, and a "T"-shaped protrusion and a "T"-shaped return hook body are provided on the groove guide rail. Since an embedded groove is formed between the "T"-shaped protrusion and the "T"-shaped return hook body; a strip body is integrally formed and connected on both sides of the top of the heat-resistant casting cooling box wall, and the outer wall of the strip body is provided with a protruding groove and an angle limit connecting body is formed. The strip body and the angle limit connecting body form an embedded part, which is engaged and assembled with the embedded groove to realize the assembly between the heat-resistant casting cooling box wall and the box cover body.

[0004] Among them, the above-mentioned prior art has the following technical problems: in order to facilitate the heat dissipation efficiency of the existing casting mold during use, heat dissipation fins are set on the side of the mold. Although the heat dissipation fins can play a role in heat dissipation and cooling, after the molding liquid is gradually added to the mold cavity, the molding liquid that first enters the mold cavity is cooled by heat conduction by the heat dissipation fins, and it is easy to have a temperature difference with the subsequently poured liquid, thereby reducing the overall cooling and molding effect of the subsequent liquid.

[0005] Therefore, we propose an aluminum alloy casting mold with high efficiency demoulding to solve the problems raised above. Summary of the Invention

[0006] The purpose of the present invention is to provide an aluminum alloy casting mold with efficient demolding, so as to solve the problem raised in the above background technology that in order to facilitate the heat dissipation efficiency of the mold during use, the existing casting molds on the market are provided with heat dissipation fins on the side of the mold. Although the heat dissipation fins can play a role in heat dissipation and cooling, after the molding liquid is gradually added to the mold cavity, the molding liquid that first enters the mold cavity is cooled by heat conduction by the heat dissipation fins, and it is easy to have a temperature difference with the subsequently poured liquid, thereby reducing the overall cooling molding effect of the subsequent liquid.

[0007] To achieve the above-mentioned objectives, the present invention provides the following technical solutions: an aluminum alloy casting mold with high-efficiency demolding, comprising a lower mold, an upper mold is arranged above the lower mold, and a mold cavity is opened in the middle of the lower mold, a mold core matching the mold cavity is installed in the middle of the lower end of the upper mold, and a fluid channel is provided in the middle of the upper mold, a jacking and demolding component is installed in the middle of the lower mold, and the jacking and demolding component is used to eject the molded casting in the mold cavity when the mold is opened, and a movable heat dissipation component is installed on the side of the lower mold, and the movable heat dissipation component slows down the heat dissipation effect when liquid is passed into it, and is used to restore heat dissipation during cooling.

[0008] Preferably, the lifting and demolding component includes an adjustment plate, and the adjustment plate is located inside the lower mold. The adjustment plate is connected to the inside of the lower mold through a first spring, and a resistance rod is fixedly connected to the upper end of the side of the adjustment plate, and a lifting block is fixedly installed in the middle of the adjustment plate.

[0009] By adopting the above technical solution, the first spring is provided to enable the adjustment plate to return to its original position and rebound after moving inside the lower die.

[0010] Preferably, the interference rod and the lifting block are both vertically distributed with respect to the adjustment plate, and the lifting block is symmetrically distributed with respect to the central axis of the adjustment plate.

[0011] By adopting the above technical solution, when the upper mold and the lower mold are closed, the upper mold can be used to squeeze the resistance rod so that the ejecting block on the adjustment plate is retracted into the mold cavity. When the molding is completed, the upper mold is opened, and the adjustment plate and the ejecting block move upward, so that the molding in the mold cavity is ejected outward by the ejecting block, thereby improving the demoulding efficiency.

[0012] Preferably, the movable heat dissipation component includes heat dissipation fins, and the heat dissipation fins are fixed to the inside of the lower mold, a guide groove is opened in the middle of the said heat dissipation fins, and the guide grooves inside adjacent fins are interconnected through an air outlet duct, one end of the air outlet duct opening extends out of the lower mold, an insulation column is provided at the end of the said heat dissipation fin facing the outside of the lower mold, and a heat conductive block is fixedly installed in the middle of the heat insulating column, the middle of the lower end of the heat insulating column is installed on the central tube, and the interiors of adjacent central tubes are interconnected through connecting grooves, one of the central tubes is connected to each other through an air supply pipe and an air pump, an air flow channel is provided in the middle of the heat conductive block, and an opening on one side of the air flow channel in the middle of the heat conductive block is interconnected with the first diversion groove, and an opening on the other side of the air flow channel in the middle of the heat conductive block is interconnected with the second diversion groove on the heat insulating column.

[0013] By adopting the above technical solution, when the heat-conducting block on the insulation column and the heat dissipation fins are attached to each other, the heat of the lower mold can be transferred to the heat-conducting block through the heat dissipation fins, and heat exchange and heat dissipation are achieved by utilizing the contact between the heat-conducting block and the outside air.

[0014] Preferably, one end of the heat dissipating fin close to the heat insulating column is in contact with the heat insulating column, and the heat insulating column can rotate on the central tube, and the central tube is connected to the air flow channel in the middle of the heat conducting block.

[0015] By adopting the above technical solution, the heat insulating column is rotated on the central tube, so that the heat conducting block can be in contact with or out of contact with the heat dissipating fins.

[0016] Preferably, the angle between the first diverter groove and the second diverter groove on the insulation column is 90°, and the outer wall of the insulation column and the inner wall of the lower mold fit together.

[0017] By adopting the above technical solution, the heat-insulating column is rotated so that the opening of the first diversion groove and the opening of the guide groove in the middle of the heat dissipating fin can be aligned or offset with each other.

[0018] Preferably, a knocking component is provided below the movable heat dissipation component, and the knocking component is installed on the side of the lower mold to reduce bubbles in the fluid.

[0019] By adopting the above technical solution, bubbles in the mold cavity can be reduced by the vibration of the knocking parts.

[0020] Preferably, the knocking component includes a limit cover, and an air inlet hole is provided at the upper end of the limit cover, and an exhaust hole is provided at the lower end of the limit cover. A piston plate is installed inside the limit cover, and the piston plate is connected to the limit cover through a second spring. A vibration rod is provided on the side of the piston plate, and a power magnetic block is installed on one end of the vibration rod close to the piston plate and on the piston plate. The vibration rod is connected to the lower mold through a third spring.

[0021] By adopting the above technical solution, the second spring is provided so that the piston plate on the lower die can be reset and rebounded.

[0022] Preferably, the power magnetic block at the end of the vibration rod and the power magnetic block on the piston plate have opposite magnetic properties, and the power magnetic block at the end of the vibration rod and the power magnetic block on the piston plate correspond one to one.

[0023] By adopting the above technical solution, when the piston plate moves, the power magnetic block on it and the power magnetic block at the end of the vibration rod move away from each other, and the vibration rod can reset and rebound under the action of the third spring, and the reset vibration rod hits the lower mold.

[0024] Preferably, the diameter of the air inlet hole at the upper end of the limiting cover is larger than the diameter of the exhaust hole at the lower end, and the air inlet hole and the exhaust hole are both arranged on the side of the limiting cover close to the lower mold.

[0025] By adopting the above technical solution, the diameter of the air inlet is larger than the diameter of the air outlet, so that the air intake volume can be larger than the air outlet volume.

[0026] Compared with the prior art, the present invention has the following beneficial effects: the aluminum alloy casting mold with high-efficiency demoulding has an adjustable heat dissipation structure provided on the mold. When adding molding liquid, the heat dissipation efficiency of the heat dissipation structure is reduced by adjusting the heat dissipation structure, thereby reducing the temperature difference of the high-temperature liquid;

[0027] 1. A ejector block is provided. After the upper and lower molds are closed, the upper mold pushes the resistance rod to enable the adjustment plate, resistance rod and ejector block to move downward. After the molding is gradually completed, when the upper mold is opened, the ejector block and resistance rod can be reset and rebounded under the action of the first spring. After the reset, the ejector block can eject the molding space in the mold cavity outward, thereby improving the demoulding efficiency of each piece in the mold cavity;

[0028] 2. A heat-insulating column is provided. The rotation of the heat-insulating column can displace the heat-conducting block and the heat-dissipating fins when the flowing liquid is injected, thereby preventing the heat-dissipating fins from transferring heat outward through the heat-conducting block and reducing the amount of heat transferred. During cooling, the heat-insulating column can rotate to align the heat-conducting block with the heat-dissipating fins for normal heat conduction and cooling. At the same time, after the heat-conducting block and the heat-dissipating fins are aligned, the first diversion groove on the heat-conducting block and the diversion groove in the middle of the heat-dissipating fins are aligned with each other. An air pump is used to introduce air into the interior of the heat-conducting block. The air flow can flow along the heat-conducting block into the interior of the heat-dissipating fins and be discharged outward through the air outlet pipe. The flow of air can increase the cooling speed of the lower mold.

[0029] 3. A vibration rod is provided. When the heat insulation column rotates to cause the heat conductive block and the heat dissipating fin to be misaligned, the lower end opening of the second diverter groove on the heat insulation column is aligned with the air inlet hole on the limit cover. At this time, when the air pump supplies air to the central tube and the inside of the heat conductive block, the air flow can enter the inside of the limit cover through the second diverter groove and the air inlet hole. The increase in the air flow inside the limit cover can move the piston plate in the direction away from the lower mold. After the piston plate moves, the power magnetic block on it and the power magnetic block at the end of the vibration rod move away from each other. The vibration rod resets and rebounds under the action of the third spring. The reset vibration rod hits the lower mold. The vibration generated by the impact on the lower mold can reduce bubbles in the liquid injected into the mold cavity. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] Figure 1 This is a schematic diagram of the front three-dimensional structure of the present invention;

[0031] Figure 2 This is a schematic diagram of the upper mold and mold core structure of the present invention;

[0032] Figure 3 This is a schematic structural diagram of the adjustment plate and the top material block of the present invention;

[0033] Figure 4 This is a schematic diagram of the structure of the heat-insulating column and the heat-conducting block of the present invention;

[0034] Figure 5 This is a schematic diagram of the heat dissipation fin and heat insulation column structure of the present invention;

[0035] Figure 6 Schematic diagram of the structure of the first diversion trough and the second diversion trough of the present invention;

[0036] Figure 7 For the present invention Figure 4 A in the middle is an enlarged structural diagram;

[0037] Figure 8 This is a schematic diagram of the structure of the heat-insulating column and the central tube of the present invention;

[0038] Figure 9 For the present invention Figure 5 The enlarged structural diagram at B in the middle;

[0039] Figure 10 This is a schematic diagram of the piston plate and vibration rod structure of the present invention.

[0040] In the figure: 1. lower mold; 2. upper mold; 3. mold cavity; 4. mold core; 5. fluid channel; 6. jacking and demoulding component; 601. adjustment plate; 602. first spring; 603. resistance rod; 604. ejector block; 7. movable heat dissipation component; 701. heat dissipation fin; 702. guide groove; 703. air outlet pipe; 704. heat insulation column; 705. heat conduction block; 706. center pipe; 707. connecting groove; 708. air supply pipe; 709. air pump; 7010. first diversion groove; 7011. second diversion groove; 8. knocking component; 801. limit cover; 802. air inlet hole; 803. exhaust hole; 804. piston plate; 805. second spring; 806. vibration rod; 807. power magnetic block; 808. third spring. DETAILED DESCRIPTION

[0041] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. 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 making creative efforts are within the scope of protection of the present invention.

[0042] Example 1: Please refer to Figures 1-10In order to improve the heat dissipation efficiency of the mold during use, the existing casting mold is provided with a heat sink on the side of the mold. Although the heat sink can play a role in heat dissipation and cooling, after the molding liquid is gradually added to the mold cavity, the molding liquid that first enters the mold cavity is cooled by the heat conduction of the heat sink, and it is easy to have a temperature difference with the subsequent poured liquid, thereby reducing the overall cooling molding effect of the subsequent liquid. In order to solve this technical problem, the following technical content is disclosed in this embodiment: an aluminum alloy casting mold with high efficiency demolding, comprising a lower mold 1, an upper mold 2 is provided above the lower mold 1, and a mold cavity 3 is opened in the middle of the lower mold 1, a mold core 4 matching the mold cavity 3 is installed in the middle of the lower end of the upper mold 2, and a mold core 4 is provided in the middle of the upper mold 2. There is a fluid channel 5, a jacking and demolding component 6 is installed in the middle of the lower mold 1, and the jacking and demolding component 6 is used to eject the molded casting in the mold cavity 3 when the mold is opened, and a movable heat dissipation component 7 is installed on the side of the lower mold 1, and the movable heat dissipation component 7 slows down the heat dissipation effect when the liquid is passed through, and is used to restore heat dissipation during cooling. The jacking and demolding component 6 includes an adjustment plate 601, and the adjustment plate 601 is located inside the lower mold 1, and the adjustment plate 601 is connected to the inside of the lower mold 1 through the first spring 602, and the upper end of the side of the adjustment plate 601 is fixedly connected to a resistance rod 603, and a ejection block 604 is fixedly installed in the middle of the adjustment plate 601, and the resistance rod 603 and the ejection block 604 are vertically distributed with the adjustment plate 601, and the ejection block 604 is closed. The movable heat dissipation component 7 is symmetrically distributed about the central axis of the adjustment plate 601. The heat dissipation component 7 includes heat dissipation fins 701, and the heat dissipation fins 701 are fixed inside the lower mold 1. A guide groove 702 is opened in the middle of the heat dissipation fin 701, and the guide grooves 702 inside adjacent heat dissipation fins 701 are interconnected through an air outlet pipe 703. One end of the air outlet pipe 703 extends out of the lower mold 1. An insulation column 704 is provided at one end of the heat dissipation fin 701 facing the outside of the lower mold 1, and a heat conduction block 705 is fixedly installed in the middle of the insulation column 704. The middle of the lower end of the insulation column 704 is installed on the central tube 706, and the interiors of adjacent central tubes 706 are interconnected through a connecting groove 707. One of the central tubes 706 is connected to the air supply pipe 708. It is interconnected with the air pump 709, an air flow channel is provided in the middle of the heat-conducting block 705, and one side opening of the air flow channel in the middle of the heat-conducting block 705 is interconnected with the first diverter groove 7010, and the other side opening of the air flow channel in the middle of the heat-conducting block 705 is interconnected with the second diverter groove 7011 on the heat-insulating column 704, and the end of the heat dissipating fin 701 close to the heat-insulating column 704 is in contact with the heat-insulating column 704, and the heat-insulating column 704 can rotate on the center tube 706, and the center tube 706 is interconnected with the air flow channel in the middle of the heat-conducting block 705, the angle between the first diverter groove 7010 and the second diverter groove 7011 on the heat-insulating column 704 is 90°, and the outer wall of the heat-insulating column 704 and the inner wall of the lower mold 1 are in contact with each other.

[0043] When aluminum alloy casting is required, the heat insulating column 704 is rotated. After the heat insulating column 704 rotates, it can drive the heat conducting block 705 on it to rotate synchronously, so that the heat conducting block 705 and the heat dissipation fins 701 inside the lower mold 1 are offset from each other, thereby isolating the heat dissipation of the heat dissipation fins 701 to the outside, slowing down the heat dissipation effect of the lower mold 1 when injecting liquid, and covering the upper mold 2 on the lower mold 1. After covering, the upper mold 2 can apply pressure to the resistance rod 603, so that the resistance rod 603 and the adjustment plate 601 moves downward, and the adjustment plate 601 moves downward to drive the ejecting block 604 to move synchronously, injecting liquid into the fluid channel 5, and the liquid flows into the mold cavity 3. When the fluid injection is completed and the mold needs to be cooled, the heat insulating column 704 is rotated in the opposite direction. After the heat insulating column 704 rotates, the heat conducting block 705 on it can overlap with the heat dissipation fin 701 again. At this time, the heat dissipation fin 701 can transfer heat to the heat conducting block 705, and the heat conducting block 70 5 is in contact with the outside air for normal heat dissipation. After the heat conducting block 705 and the heat dissipating fins 701 are aligned with each other, the first diverter groove 7010 on the heat conducting block 705 and the guide groove 702 on the heat dissipating fins 701 are aligned with each other. At this time, the air pump 709 supplies air to the interior of the central tube 706. After the air is supplied to the interior of the central tube 706, the air flow can enter the interior of the heat conducting block 705. After the air enters the heat conducting block 705, the air flow can pass through the first diverter groove 7010 and the guide groove 702. After entering the interior of the heat dissipation fin 701, the air flow absorbs the heat of the heat dissipation fin 701 and is discharged outward through the air outlet duct 703, thereby improving the cooling effect of the lower mold 1. After the lower mold 1 has finished cooling, the upper mold 2 is opened. After the upper mold 2 and the lower mold 1 are opened, the resistance rod 603, the adjustment plate 601 and the ejection block 604 are reset and rebounded under the action of the first spring 602. The reset ejection block 604 ejects the molded casting in the mold cavity 3 outward, thereby improving the overall demoulding efficiency.

[0044] Embodiment 2: The technical content disclosed in this embodiment is a further improvement made on the basis of the above-mentioned embodiment 1. The following technical content is disclosed in this embodiment: a knocking component 8 is provided below the movable heat dissipation component 7, and the knocking component 8 is installed on the side of the lower mold 1 to reduce the bubbles in the fluid, the knocking component 8 includes a limit cover 801, and the upper end of the limit cover 801 is provided with an air inlet hole 802, the lower end of the limit cover 801 is provided with an exhaust hole 803, a piston plate 804 is installed inside the limit cover 801, and the piston plate 804 is connected to the limit cover 801 through a second spring 805, and the side of the piston plate 804 is provided with a second spring 805. A vibration rod 806 is provided, and a power magnet 807 is installed on the end of the vibration rod 806 close to the piston plate 804 and on the piston plate 804. The vibration rod 806 is connected to the lower mold 1 through a third spring 808. The power magnet 807 at the end of the vibration rod 806 and the power magnet 807 on the piston plate 804 have opposite magnetic properties. The power magnet 807 at the end of the vibration rod 806 and the power magnet 807 on the piston plate 804 correspond one to one. The diameter of the air inlet 802 at the upper end of the limit cover 801 is larger than the diameter of the exhaust hole 803 at the lower end, and the air inlet hole 802 and the exhaust hole 803 are both arranged on the side of the limit cover 801 close to the lower mold 1.

[0045] When liquid is injected into the interior of the mold core 4 through the fluid channel 5, the heat insulating column 704 is rotated. After the heat insulating column 704 is rotated, the heat conducting block 705 and the heat dissipating fin 701 can be displaced with each other. After the heat insulating column 704 and the heat conducting block 705 are rotated, the first diverter groove 7010 and the diverter groove 702 on the heat dissipating fin 701 can be displaced with each other, and the lower end opening of the second diverter groove 7011 is aligned with the air inlet 802 on the limit cover 801. The pump 709 introduces air into the interior of the central tube 706. The air inside the central tube 706 passes through the heat conducting block 705, the second diverter groove 7011 and the air inlet 802 and enters the interior of the limit cover 801. Since the diameter of the air inlet 802 is larger than the diameter of the exhaust hole 803, when the air is injected into the limit cover 801, although part of the air flows out, it will also cause the internal air flow of the limit cover 801 to increase, thereby pushing the piston plate 804 into the interior of the limit cover 801. After the piston plate 804 moves, the powered magnetic block 807 and the powered magnetic block 807 on the vibration rod 806 move away from each other, and the vibration rod 806 is reset and rebounded by the third spring 808. After the reset, the vibration rod 806 hits the lower mold 1. The vibration generated by the impact of the vibration rod 806 on the lower mold 1 can break the bubbles in the mold cavity 3. At the same time, when the vibration rod 806 needs to move back and forth continuously, after the vibration rod 806 hits once, the air pump 709 stops supplying air, and the air flow inside the limit cover 801 is discharged outward through the exhaust hole 803. The piston plate 804 is reset under the action of the second spring 805. After the piston plate 804 is reset, the powered magnetic block 807 on it is close to the powered magnetic block 807 on the vibration rod 806 again, and the magnetic attraction force is used to make the vibration rod 806 move away from the lower mold 1. Thereafter, the air supply by the air pump 709 is continued to achieve the collision of the vibration rod 806 again, and this reciprocating cycle is repeated.

[0046] The contents not described in detail in this specification belong to the prior art known to those skilled in the art.

[0047] Although the present invention has been described in detail with reference to the aforementioned embodiments, it is still possible for those skilled in the art to modify the technical solutions described in the aforementioned embodiments, or to make equivalent substitutions for some of the technical features therein. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. An aluminum alloy casting mold with high efficiency demoulding, comprising a lower mold (1), an upper mold (2) is arranged above the lower mold (1), and a mold cavity (3) is opened in the middle of the lower mold (1), a mold core (4) matching the mold cavity (3) is installed in the middle of the lower end of the upper mold (2), and a fluid channel (5) is arranged in the middle of the upper mold (2), characterized in that: A demoulding component (6) is installed in the middle of the lower mold (1), and the demoulding component (6) is used to eject the molded casting in the mold cavity (3) when the mold is opened. A movable heat dissipation component (7) is installed on the side of the lower mold (1), and the movable heat dissipation component (7) slows down the heat dissipation effect when liquid is introduced, and is used to restore heat dissipation during cooling. The movable heat dissipation component (7) includes a heat dissipation fin (701), and the heat dissipation fin (701) is fixed inside the lower mold (1), a guide groove (702) is opened in the middle of the heat dissipation fin (701), and the guide grooves (702) inside adjacent heat dissipation fins (701) are interconnected through an air outlet pipe (703), and one end of the air outlet pipe (703) extends out of the lower mold (1), and an insulation column (704) is provided at one end of the heat dissipation fin (701) facing the outside of the lower mold (1), and a heat conduction block (705) is fixedly installed in the middle of the insulation column (704), the middle of the lower end of the insulation column (704) is installed on the central tube (706), and the interiors of adjacent central tubes (706) are interconnected through a connecting groove (707), and one of the central tubes (706) is connected to the gas supply pipe (708) and the gas supply pipe (709). The pumps (709) are connected to each other, an air flow channel is provided in the middle of the heat-conducting block (705), and one side opening of the air flow channel in the middle of the heat-conducting block (705) is connected to the first diverter groove (7010), and the other side opening of the air flow channel in the middle of the heat-conducting block (705) is connected to the second diverter groove (7011) on the heat-insulating column (704), one end of the heat-dissipating fin (701) close to the heat-insulating column (704) is in contact with the heat-insulating column (704), and the heat-insulating column (704) can rotate on the central tube (706), and the central tube (706) and the air flow channel in the middle of the heat-conducting block (705) are in contact with each other, the angle between the first diverter groove (7010) and the second diverter groove (7011) on the heat-insulating column (704) is 90°, and the outer wall of the heat-insulating column (704) and the inner wall of the lower mold (1) are in contact with each other.

2. The aluminum alloy casting mold with high efficiency demoulding according to claim 1, characterized in that: The lifting and demoulding component (6) includes an adjustment plate (601), and the adjustment plate (601) is located inside the lower mold (1). The adjustment plate (601) is connected to the inside of the lower mold (1) through a first spring (602), and the upper end of the side of the adjustment plate (601) is fixedly connected to a resistance rod (603), and the middle part of the adjustment plate (601) is fixedly installed with a lifting block (604).

3. The aluminum alloy casting mold with high efficiency demoulding according to claim 2, characterized in that: The resisting rod (603) and the lifting block (604) are both vertically distributed with respect to the regulating plate (601), and the lifting block (604) is symmetrically distributed with respect to the central axis of the regulating plate (601).

4. The aluminum alloy casting mold with high efficiency demoulding according to claim 1, characterized in that: A knocking component (8) is provided below the movable heat dissipation component (7), and the knocking component (8) is installed on the side of the lower mold (1) to reduce bubbles in the fluid.

5. The aluminum alloy casting mold with high efficiency demoulding according to claim 4, characterized in that: The knocking component (8) includes a limiting cover (801), and the upper end of the limiting cover (801) is provided with an air inlet (802), and the lower end of the limiting cover (801) is provided with an exhaust hole (803). A piston plate (804) is installed inside the limiting cover (801), and the piston plate (804) and the limiting cover (801) are connected to each other through a second spring (805). A vibration rod (806) is provided on the side of the piston plate (804), and a power magnetic block (807) is installed on one end of the vibration rod (806) close to the piston plate (804) and on the piston plate (804). The vibration rod (806) is connected to the lower mold (1) through a third spring (808).

6. The aluminum alloy casting mold with high efficiency demoulding according to claim 5, characterized in that: The power magnetic block (807) at the end of the vibration rod (806) and the power magnetic block (807) on the piston plate (804) have opposite magnetic properties, and the power magnetic block (807) at the end of the vibration rod (806) and the power magnetic block (807) on the piston plate (804) correspond one to one.

7. The aluminum alloy casting mold with high efficiency demoulding according to claim 6, characterized in that: The diameter of the air inlet (802) at the upper end of the limiting cover (801) is larger than the diameter of the exhaust hole (803) at the lower end, and both the air inlet (802) and the exhaust hole (803) are arranged on the side of the limiting cover (801) close to the lower mold (1).

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