Flexible composite structure mold

By using a flexible composite mold structure, combined with a mold surface support mechanism and a detachable working mold surface, the problems of low mold processing efficiency and high cost are solved, and the mold is made lighter and more precise.

CN118699195BActive Publication Date: 2025-11-07JILIN UNIVERSITY
View PDF 2 Cites 0 Cited by

Patent Information

Application Number
CN202410987157.1
Authority / Receiving Office
CN · China
Patent Type
Patents(China)
Current Assignee / Owner
Filing Date
2024-07-23
Publication Date
2025-11-07
Estimated Expiration
2044-07-23

AI Technical Summary

Technical Problem

Existing mold manufacturing processes suffer from insufficient adaptability to different forming processes, low processing efficiency, and high costs. In particular, efficiency is even lower when processing complex curved surfaces, and the molds are heavy and costly.

Method used

The mold adopts a flexible composite structure, including a mold base, support rods and a detachable working mold surface. The mold surface support mechanism realizes the flexibility and lightweight of the mold. The mold surface support sleeve is adjusted by a stepper motor and screw. The mold surface and support mechanism are detachably connected by mortise and tenon and clamp structures.

Benefits of technology

It improves the forming efficiency of molds for different curved surface parts, reduces mold manufacturing costs, realizes mold lightweighting and reusability, and reduces precision problems caused by mismatch in thermal expansion coefficients.

✦ Generated by Eureka AI based on patent content.

Smart Images

  • Figure CN118699195B_ABST
    Figure CN118699195B_ABST
Patent Text Reader

Abstract

The application discloses a flexible composite structure mold and belongs to the technical field of mechanical molds. The mold base assembly comprises a mold base and a supporting mechanism guide sleeve fixing plate. A plurality of mold surface supporting mechanisms are evenly and vertically arranged in the mold base. The execution ends of the mold surface supporting mechanisms pass through the supporting mechanism guide sleeve fixing plate and are positioned at the bottom of the working mold surface. The mold surface supporting mechanism and the multi-point forming curved surface part are combined, the workload of mold processing is reduced, and the mold processing efficiency is improved. The mold quality and effective volume ratio are reduced by using the working mold surface with small thickness, the hollow base and the arrayed supporting rods, and the lightweight of the mold is realized. The working mold surface is connected to the base through the mold surface supporting mechanism, the working mold surface is detachable, the mold base is reused, and the mold manufacturing cost is reduced.
Need to check novelty before this filing date? Find Prior Art

Description

TECHNICAL FIELD

[0001] The application discloses a flexible composite structure mold and belongs to the technical field of mechanical molds. BACKGROUND

[0002] Mold processing is one of important methods of material forming, and has the advantages of high material utilization rate, low energy consumption and high production efficiency; in recent years, with the rapid development of the automobile, aerospace, modern building and other industries, the mold manufacturing scale in China gradually increases. Although the development of the mold industry is good at present, with the increase of the demand for personalized products, the related technology about mold manufacturing must develop towards the direction of simple production process and low cost. Nowadays, a large number of researchers widely explore and try new materials and new structures to manufacture high-performance molds at low cost, shorten the manufacturing time and improve the mold quality. However, at present, in the academic and industrial fields, the new related technology about mold manufacturing process is still scarce.

[0003] The development direction of mold manufacturing mainly includes the following aspects: improving the adaptability of the mold to different forming processes, lightening the mold, and reducing the mold manufacturing cost. At present, the mainstream mold manufacturing is still processed by a grinding machine. Since the plate material for processing the mold has a large volume, the workload of mold processing is increased, and when the required curved surface is complex, the mold processing efficiency is low, and one mold can only adapt to the processing and forming of the parts with a certain curved surface shape, so the adaptability of the mold to different part processing and forming needs to be improved. The new trend of mold manufacturing towards informationization, digitization and automation requires the mold to be lightened to adapt to the carrying capacity of the automatic machine. In addition, how to use the mold to reduce the cost of the whole material processing process is also an important development direction of mold manufacturing. SUMMARY

[0004] In view of the defects in the prior art, the application provides a flexible composite structure mold, which aims to use a combined structure of a mold base, a supporting rod and a detachable working mold surface to improve the flexibility of mold deformation, reduce the design, manufacturing and debugging cost of different curved surface parts, improve the forming and processing efficiency of the curved surface parts, realize mold lightening and reduce the mold manufacturing cost.

[0005] The problem to be solved by the application is solved by the following technical scheme:

[0006] A flexible composite structure mold comprises a mold base assembly, the mold base assembly comprises a mutually buckling mold base and a supporting mechanism guide sleeve fixing plate, a plurality of mold surface supporting mechanisms are vertically arranged in the mold base, and the execution ends of the plurality of mold surface supporting mechanisms pass through the supporting mechanism guide sleeve fixing plate and are positioned in cooperation with the bottom of a working mold surface.

[0007] Preferably, the edge of the support mechanism guide sleeve fixing plate is provided with a connecting fence to surround several mold surface support mechanisms.

[0008] Preferably, the mold surface support mechanism is limited by the support mechanism guide sleeve fixing plate through the support rod positioning sleeve.

[0009] Preferably, the mold surface support mechanism includes a stepper motor arranged at one end of the mold base bottom, the main shaft of the stepper motor is connected with one end of the height adjusting screw through a shaft coupling, the outer side of the height adjusting screw is threadedly connected with a mold surface support sleeve, and the mold surface support sleeve is matched with the bottom of the working mold surface through a mortise and tenon structure.

[0010] Preferably, the mold surface support sleeve includes an upper mold surface support sleeve connected through an H-shaped connecting sleeve and a lower mold surface support sleeve matched with the height adjusting screw.

[0011] Preferably, the mortise and tenon structure includes a tenon and mortise structure arranged in the mold surface support sleeve and protruding at one end, the bottom of the working mold surface is provided with a ball tenon connecting part matched with the tenon and mortise structure, the tenon and mortise structure includes a reset elastic member nested in the opening at one end of the upper mold surface support sleeve, an L-shaped mortise and tenon claw is arranged in the reset elastic member, one end of the L-shaped tenon and mortise claw is provided with at least three arc-shaped tenon and mortise claws matched with the ball tenon connecting part, and the other end is provided with a circular ring capable of sliding in the upper mold surface support sleeve, a clamping spring is arranged on the cylindrical barrel between the arc-shaped tenon and mortise claw and the circular ring, the clamping spring is arranged in the upper mold surface support sleeve and between the reset elastic member and the circular ring, a side deviation reset pad and a sealing sliding block are further arranged in the upper mold surface support sleeve in sequence, the side deviation reset pad is matched with the circular ring, and the sealing sliding block forms an annular cavity with the top of the H-shaped connecting sleeve, the side surface of the upper mold surface support sleeve is provided with a tenon and mortise two-way valve communicated with the annular cavity, and a tenon and mortise rod with a large-diameter conical surface at one end is sequentially arranged through the L-shaped mortise and tenon claw, the side deviation reset pad and the sealing sliding block, and is matched with the middle partition plate and the snap spring of the H-shaped connecting sleeve.

[0012] Preferably, the mortise and tenon structure comprises a tenon structure arranged in the mold surface support sleeve and protruding from one end, the tenon structure comprises an L-shaped tenon claw nested in the opening at one end of the upper mold surface support sleeve, the L-shaped tenon claw is provided with at least three arc-shaped fillets at one end matched with the annular mortise sleeve arranged at the bottom of the working mold surface, the other end of the L-shaped tenon claw is an annular part arranged in the upper mold surface support sleeve matched with the top end of the H-shaped connecting sleeve, the inside of the L-shaped tenon claw penetrates a stepped cylinder, the small-diameter end of the stepped cylinder is threadedly connected with a cylindrical washer through the middle partition of the H-shaped connecting sleeve, the small-diameter end of the stepped cylinder is sleeved with an unlocking spring, the unlocking spring is matched with the middle partition and the cylindrical washer, the large-diameter end of the stepped cylinder is provided with an annular cavity at the bottom matched with the annular cavity at the top of the H-shaped connecting sleeve, and the side surface of the upper mold surface support sleeve is provided with a tenon two-way valve communicated with the annular cavity.

[0013] Preferably, the bottom of the mold base is provided with mold positioning grooves at four corners, and is provided with ventilation hole grooves around.

[0014] The present application has the following beneficial effects compared with the prior art:

[0015] The present application discloses a flexible composite structure mold, which combines a mold surface support mechanism and a multi-point forming curved surface part, reduces the workload of mold processing, and improves the mold processing efficiency. The use of a working mold surface with small thickness, a hollow base and arrayed support rods reduces the mass-to-effective volume ratio of the mold, and realizes the lightweight of the mold. The working mold surface is connected to the base through the mold surface support mechanism, which gives the working mold surface detachability, realizes the reuse of the mold base, and reduces the manufacturing cost of the mold. The mold surface support mechanism and the working mold surface use the same material, which eliminates the mold precision problem caused by the mismatch of the thermal expansion coefficient. BRIEF DESCRIPTION OF DRAWINGS

[0016] Figure 1 is an isometric view of a flexible composite structure mold of the present application.

[0017] Figure 2 is a partial isometric view of an embodiment of a mold surface support mechanism in a flexible composite structure mold of the present application.

[0018] Figure 3 is a structure diagram of an embodiment of a mold surface support mechanism in a flexible composite structure mold of the present application.

[0019] Figure 4 is an enlarged view of A of an embodiment of a mold surface support mechanism in a flexible composite structure mold of the present application.

[0020] Figure 5 is a structure diagram of another embodiment of a mold surface support mechanism in a flexible composite structure mold of the present application.

[0021] Figure 6 is a structural diagram of another embodiment of the mold face support mechanism in the flexible composite structure mold.

[0022] Figure 7 is an enlarged view of B of another embodiment of the mold face support mechanism in the flexible composite structure mold.

[0023] Figure 8 is an enlarged view of C of another embodiment of the mold face support mechanism in the flexible composite structure mold.

[0024] Figure 9 is a partial structural diagram of the mold base of the flexible composite structure mold.

[0025] Figure 10 is a schematic diagram of the flexible composite structure mold before work.

[0026] Figure 11 is a schematic diagram of the flexible composite structure mold in the closed mold state.

[0027] Wherein, 100-mold base assembly, 200-mold face support mechanism, 300-connection coaming, 400-working mold face, 110-supporting rod positioning sleeve, 120-mold base, 130-mold positioning groove, 140-supporting mechanism guide sleeve fixing plate, 201-stepping motor, 202-coupling, 203-height adjusting screw, 204-lower mold face support sleeve, 205-H-shaped connecting sleeve, 206-upper mold face support sleeve, 207-return elastic element, 208-L-shaped claw mortise jaw, 209-L-shaped claw tenon jaw, 210-unlocking spring, 211-grasping spring, 212-lateral deviation return pad, 213-claw mortise two-way valve, 214-claw mortise rod, 215-sealing sliding block, 216-claw tenon two-way valve, 217-stepped cylinder, 401-ball tenon connecting part, 402-ring mortise sleeve, 2141-clasp spring, 2171-cylinder gasket, 2091-arc-shaped fillet. DETAILED DESCRIPTION

[0028] The technical solutions of the present application will be described below in conjunction with the accompanying drawings. Figures 1-11 The present application will be further described:

[0029] The technical solutions of the present application will be described below in conjunction with the accompanying drawings.

[0030] In the description of the present application, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer" and the like indicate the orientation or positional relationship based on the orientation or positional relationship shown in the drawings, and are only for the convenience of describing the present application and simplifying the description, and do not indicate or imply that the devices or elements referred to must have a particular orientation, be constructed and operated in a particular orientation, and therefore cannot be understood as a limitation on the present application.

[0031] In the description of the present application, it should be noted that unless otherwise explicitly specified and limited, the terms "mounting", "connection", "connection" should be understood broadly, for example, it can be fixed connection, or detachable connection, or integral connection; it can be mechanical connection, or electrical connection; it can be directly connected, or indirectly connected through intermediate medium, or it can be the communication inside two elements. For those skilled in the art, the specific meaning of the above terms in the present application can be understood according to the specific circumstances.

[0032] As shown in Figure 1 and 9 The first embodiment of the present application provides a flexible composite structure mold on the basis of the prior art, which comprises a mold base assembly 100, the mold base assembly 100 comprises a mutually buckling mold base 120 and a support mechanism guide sleeve fixed plate 140, a plurality of mold surface support mechanisms 200 are uniformly and vertically arrayed and installed in the mold base 120, the execution end of the plurality of mold surface support mechanisms 200 penetrates through the support mechanism guide sleeve fixed plate 140 and cooperates with the bottom of the working mold surface 400 to position. This regular arrangement makes the pressure of the working mold surface 400 and the material to be processed uniformly distributed on each mold surface support mechanism 200, thereby improving the stability of the entire mold, and the array gap can create conditions for the flow of high-temperature gas, improving the convective heat transfer efficiency.

[0033] A connecting coaming 300 is installed at the edge of the support mechanism guide sleeve fixed plate 140 to surround the plurality of mold surface support mechanisms 200. The bottom corners of the mold base 120 are respectively provided with mold positioning grooves 130, and the periphery is provided with ventilation hole grooves. This is conducive to the flow of high-temperature gas in the mold base during heating, improving the convective heat transfer efficiency, thereby speeding up the mold heating and cooling speed, and at the same time, the mold can be used as a mechanical hand slot of a carrying machine during carrying, facilitating the carrying of the mold.

[0034] The mold surface support mechanism 200 is limited by the cooperation of the support rod positioning sleeve 110 and the support mechanism guide sleeve fixed plate 140. The support rod positioning sleeve 110 is provided with a square hole, and is fixed with the support mechanism guide sleeve fixed plate 140 through bolts; the square hole is slightly larger than the cross section of the support rod, so as to ensure the stability of the mold surface support mechanism 200 during adjustment.

[0035] The materials of the die base assembly 100 and the die face support mechanism 200, except the stepping motor, are selected to be the same as the working die face 400. The same material can effectively reduce or eliminate the error caused by the mismatch of the thermal expansion coefficients between the components of the die. The thickness of the working die face 400 can be selected according to the accuracy of the multi-point forming, and is usually about 1-2 mm thicker than the actual requirement to prevent the damage of the alloy plate surface during the finishing process; when the working die face 400 is processed according to the shape of the subsequent required curved surface composite material, the working die face 400 is installed on the adjusted die face support mechanism 200 to realize the reuse of the die base.

[0036] As shown in Figure 2 , the die face support mechanism 200 includes a stepping motor 201 installed at one end of the bottom of the die base 120, the main shaft of the stepping motor 201 is connected with one end of the height adjustment screw 203 through the shaft coupling 202, the height adjustment screw 203 is externally threaded with the die face support sleeve, the die face support sleeve is matched with the bottom of the working die face 400 through the mortise and tenon structure, and the die face support sleeve includes the upper die face support sleeve 206 through the H-shaped connecting sleeve 205 and the lower die face support sleeve 204 matched with the height adjustment screw 203. The following will introduce in detail two different embodiments of the mortise and tenon structure.

[0037] As shown in Figure 3 and 4 , the mortise and tenon structure includes a tenon structure arranged in the die face support sleeve and protruding at one end, and the bottom of the working die face 400 is provided with a ball tenon connecting part 401 matched with the tenon structure, the tenon structure includes a reset elastic member 207 nested in the opening at one end of the upper die face support sleeve 206, an L-shaped mortise and tenon claw 208 is arranged in the reset elastic member 207, one end of the L-shaped tenon and mortise claw 208 is provided with at least three arc-shaped tenon claws matched with the ball tenon connecting part 401, and the other end is provided with a circular ring capable of sliding in the upper die face support sleeve 206, a clamping spring 211 is sleeved on the cylindrical barrel between the arc-shaped tenon claw and the circular ring, the clamping spring 211 is installed in the upper die face support sleeve 206 and between the reset elastic member 207 and the circular ring, a side deviation reset pad 212 and a sealing sliding block 215 are sequentially installed in the upper die face support sleeve 206, the side deviation reset pad 212 is matched with the circular ring, the sealing sliding block 209 forms an annular cavity with the top of the H-shaped connecting sleeve 205, the die face support mechanism 200 is provided with a tenon and mortise two-way valve 213 communicated with the annular cavity, and a tenon and mortise rod 214 with a large-diameter conical surface at one end is sequentially passed through the L-shaped mortise and tenon claw 208, the side deviation reset pad 212 and the sealing sliding block 215, and is positioned and matched with the middle partition and the snap spring 2141 of the H-shaped connecting sleeve 205.

[0038] When disassembling the working die surface 400, the outer air pump passes through the mortise and tenon two-way valve 213 to inject high-pressure air into the annular cavity, the circular ring, the side offset reset pad 212 and the sealing sliding block 215 of the L-shaped mortise and tenon jaw 208 move upward, compress the gripping spring 211, and due to the cooperation of the mortise and tenon rod 214 with the three arc-shaped jaws, the three arc-shaped jaws are gradually expanded to separate the three arc-shaped jaws from the ball tenon connecting part 401, so that the working die surface 400 and the die surface supporting mechanism 200 are disassembled and completed.

[0039] When installing the working die surface 400, the outer air pump passes through the mortise and tenon two-way valve 213 to extract air from the annular cavity, the circular ring, the side offset reset pad 212 and the sealing sliding block 215 of the L-shaped mortise and tenon jaw 208 move downward, and the gripping spring 211 is restored. Due to the cooperation of the mortise and tenon rod 214 with the three arc-shaped jaws, the three arc-shaped jaws are gradually contracted to lock the three arc-shaped jaws with the mortise and tenon type ball tenon connecting part 401, so that the working die surface 400 and the die surface supporting mechanism 200 are installed and completed.

[0040] As shown in Figures 5-8 The mortise and tenon structure includes a mortise and tenon structure arranged in the die surface supporting sleeve and one end out, the mortise and tenon structure includes an L-shaped mortise and tenon jaw 209 nested in the upper die surface supporting sleeve 206 one end opening, the L-shaped mortise and tenon jaw 209 one end is provided with at least three arc-shaped inlays 2091 cooperating with the annular mortise sleeve 402 installed at the bottom of the working die surface 400, the other end of the L-shaped mortise and tenon jaw 209 is a ring-shaped part installed in the upper die surface supporting sleeve 206 and cooperates with the top of the H-shaped connecting sleeve 205, the inside of the L-shaped mortise and tenon jaw 209 passes through the stepped cylinder 217, the small diameter end of the stepped cylinder 217 passes through the middle spacer of the H-shaped connecting sleeve 205 and is threadedly connected with the cylindrical washer 2171, the small diameter end of the stepped cylinder 217 is sleeved with an unlocking spring 210, the unlocking spring 210 cooperates with the middle spacer and the cylindrical washer 2171, and the large diameter end of the stepped cylinder 217 is arranged in the annular cavity formed by the top of the H-shaped connecting sleeve 205 and the bottom of the upper die surface supporting sleeve 206. The side surface of the upper die surface supporting sleeve 206 is provided with a mortise and tenon two-way valve 216 in communication with the annular cavity.

[0041] When installing the working die surface 400, the outer air pump passes through the mortise and tenon two-way valve 216 to inject air into the annular cavity, the stepped cylinder 217 moves upward, and the unlocking spring 210 is compressed. Since the three arc-shaped inlays 2091 are initially concentrated together in a conical shape, when the stepped cylinder 217 moves upward, the large diameter cooperates with the three arc-shaped inlays 2091, the three arc-shaped inlays 2091 are gradually expanded, and the three arc-shaped inlays 2091 are matched with the annular mortise sleeve 402, so that the working die surface 400 and the die surface supporting mechanism 200 are installed and completed.

[0042] When the working die surface 400 is disassembled, the stepped cylinder 217 moves downward by the outside air pump through the tenon two-way valve 216 to the annular cavity, and the unlocking spring 210 is restored. When the stepped cylinder 217 moves downward, the large diameter is matched with the three arc-shaped fillets 2091, the three arc-shaped fillets 2091 are gradually contracted, the three arc-shaped fillets 2091 are separated from the inner edge of the annular mortise sleeve 402, and the working die surface 400 is disassembled with the die surface supporting mechanism 200.

[0043] As shown in Figure 10 and 11 The flexible composite structure mold is symmetrically arranged, first, the corresponding working die surface 400 is replaced according to the metal plate or non-metal plate to be processed, the alloy plate or non-metal plate is placed on the working die surface 400, the modeling is carried out in the flexible composite structure mold special software according to the numerical model of the plate curved surface part, the height data of each die surface supporting mechanism is calculated through the multi-point process, and the data (corresponding to the die surface supporting mechanism data) is sent to the motor circuit board of the specified die surface supporting mechanism, the motor is powered to rotate, the screw drives the cube to move up and down, and the program in the circuit board always compares the die surface supporting mechanism height (real-time) with the die surface supporting mechanism calculation height data (specific data). When the die surface supporting mechanism height is consistent with the die surface supporting mechanism calculation height data, the motor stops.

[0044] Suppose the screw pitch T=2mm, and the stepping motor rotates 0.18 degrees per pulse. Therefore, the motor needs 360 degrees / 0.18=2000 pulses to rotate one circle. The die surface supporting mechanism moves 2 / 2000=0.001mm per pulse. The stepping motor compares the die surface supporting mechanism height every pulse, and stops when the die surface supporting mechanism height is greater than the die surface supporting mechanism calculation height data. The maximum positioning error of the die surface supporting mechanism is 0.001mm. Therefore, the die surface supporting mechanism can be called accurate shaping. The thread between the lower die surface supporting sleeve and the screw is self-locking, so the die surface supporting mechanism will not retract no matter how large the force is. Only the motor driven die surface supporting mechanism cube can extend or retract the height. Therefore, the alloy plate or non-metal plate is pressed and formed by the upper and lower working die surfaces 400.

[0045] Although the embodiments of the present application have been disclosed as above, it is not limited to the application listed in the specification and the embodiments. It can be fully applied to various fields suitable for the present application. Those skilled in the art can easily make other modifications. Therefore, the present application is not limited to specific details and the figures shown and described herein without departing from the general concept defined by the claims and the equivalent scope.

Claims

1. A flexible composite structure mold characterized by, Including mould base assembly (100), mould base assembly (100) includes mutually interlocking mould base (120) and support mechanism guide sleeve fixed plate (140), several mould surface support mechanisms (200) are uniformly vertically arranged in mould base (120), the execution end of several mould surface support mechanisms (200) is worn out support mechanism guide sleeve fixed plate (140) and is positioned with the bottom of working mould surface (400) cooperation; The mould surface support sleeve includes the upper mould surface support sleeve (206) connected through the H type connecting sleeve (205) and the lower mould surface support sleeve (204) matched with the height adjusting screw (203); The mortise and tenon structure includes the tenon and mortise structure that is set in the mould surface support sleeve and one end is worn out, the bottom of working mould surface (400) is equipped with the ball tenon connecting portion (401) matched with the tenon and mortise structure, the tenon and mortise structure includes the reset elastic element (207) nested in the one end aperture of upper mould surface support sleeve (206), the L type tenon and mortise claw (208) is arranged in reset elastic element (207), the L type tenon and mortise claw (208) one end is equipped with at least three arc-shaped tenon and mortise claws and is matched with ball tenon connecting portion (401), the other end is equipped with the circular ring that can slide in upper mould surface support sleeve (206), the cylindrical barrel is set with the gripping spring (211) between the arc-shaped tenon and mortise claw and the circular ring, the gripping spring (211) is set in upper mould surface support sleeve (206) and is between reset elastic element (207) and circular ring, the side offset reset pad (212) and sealing sliding block (215) are sequentially arranged in upper mould surface support sleeve (206), the side offset reset pad (212) is matched with circular ring, the sealing sliding block (215) and H type connecting sleeve (205) top form annular cavity, the upper mould surface support sleeve (206) side is equipped with the tenon and mortise two-way valve (213) that is communicated with annular cavity, the tenon and mortise rod (214) one end for the taper surface of large diameter in outer end passes through L type tenon and mortise claw (208), side offset reset pad (212) and sealing sliding block (215) and the middle spacer of H type connecting sleeve (205) and snap spring (2141) matched positioning in proper order. Including mould base assembly (100), mould base assembly (100) includes mutually interlocking mould base (120) and support mechanism guide sleeve fixed plate (140), several mould surface support mechanisms (200) are uniformly vertically arranged in mould base (120), the execution end of several mould surface support mechanisms (200) is worn out support mechanism guide sleeve fixed plate (140) and is positioned with the bottom of working mould surface (400) cooperation; 2. A flexible composite structure mold characterized by, ​ The mold face support mechanism (200) comprises a stepper motor (201) arranged at one end of the bottom of the mold base (120), a main shaft of the stepper motor (201) is connected with one end of a height adjusting screw (203) through a shaft coupling (202), an outer side of the height adjusting screw (203) is threadedly connected with a mold face support sleeve, and the mold face support sleeve is matched with the bottom of a working mold face (400) through a mortise and tenon structure. The mold face support sleeve comprises an upper mold face support sleeve (206) connected with the H-shaped connecting sleeve (205) and a lower mold face support sleeve (204) matched with the height adjusting screw (203). The mortise and tenon structure comprises a tenon structure arranged in the mold face support sleeve and protruding at one end, the tenon structure comprises an L-shaped tenon jaw (209) nested in a hole at one end of the upper mold face support sleeve (206), the L-shaped tenon jaw (209) is provided with at least three arc-shaped fillets (2091) at one end and is matched with an annular mortise sleeve (402) arranged at the bottom of the working mold face (400), the other end of the L-shaped tenon jaw (209) is an annular part arranged in the upper mold face support sleeve (206) and matched with the top end of the H-shaped connecting sleeve (205), the L-shaped tenon jaw (209) is penetrated by a stepped cylinder (217) inside, a small-diameter end of the stepped cylinder (217) is threadedly connected with a cylindrical gasket (2171) through a middle partition of the H-shaped connecting sleeve (205), the small-diameter end of the stepped cylinder (217) is sleeved with an unlocking spring (210), the unlocking spring (210) is matched with the middle partition and the cylindrical gasket (2171), a large-diameter end of the stepped cylinder (217) is arranged at the bottom of the annular cavity formed by the H-shaped connecting sleeve (205), and the upper mold face support sleeve (206) is provided with a tenon and mortise two-way valve (216) in communication with the annular cavity.

3. A flexible composite structure mold according to claim 1 or 2, wherein The connecting fence (300) is arranged at the edge of the support mechanism guide sleeve fixing plate (140) to surround a plurality of mold face support mechanisms (200).

4. A flexible composite structure mold according to claim 1 or 2, wherein The mold face support mechanism (200) is limited by the support mechanism guide sleeve fixing plate (140) through the support rod positioning sleeve (110).

5. A flexible composite structure mold according to claim 1 or 2, wherein The bottom of the mold base (120) is provided with a mold positioning groove (130) at each corner, and is provided with a ventilation hole groove around.

Citation Information

Patent Citations

  • Mounting, fixing and dismounting way for point units of multi-point mold

    CN106180423A

  • Manually adjusted flexible mold for forming curved surface aluminum decorating plates

    CN203649151U