Wax pattern forming die convenient to drawing of patterns
Technical Field
The utility model relates to the technical field of wax molds, in particular to a wax mold forming mold convenient for demolding.
Background
Wax pattern refers to a model used in casting or mold manufacturing processes. After the same wax pattern is manufactured according to the shape and the size of the required casting, a shell is manufactured on the outer side wall of the wax pattern, then the wax pattern is heated, melted and flowed out to form a blank shell, and then molten metal is injected into the blank shell, cooled and the shell is removed, so that the metal casting with the shape consistent with that of the wax pattern is obtained. The wax pattern technology has wide application in various fields of aviation, automobiles, medical equipment and the like because of being capable of producing parts with high precision and complex shapes.
The complexity of the wax mold depends on the complexity of the product, and for the wax piece 20 shown in fig. 6, the wax piece has a lateral hole site 21, which means that the forming mold needs to use a lateral core pulling structure, and the existing lateral core pulling structure is mainly pulled out manually by workers. Therefore, in order to solve the technical problems, the wax pattern forming die convenient for demolding is provided.
Disclosure of utility model
The utility model aims to overcome the defects in the prior art and provides a wax mould forming mould which can replace a worker to manually loose cores to realize semi-automatic demoulding, thereby improving the forming quality and the forming efficiency of wax parts and facilitating demoulding.
The aim of the utility model is realized by the following technical scheme:
A wax pattern forming die for facilitating demolding, comprising:
The buckling assembly comprises two templates, a trough, a plurality of sliding grooves and a plurality of spaced grooves are formed in one side surface of the templates, each groove is communicated with the trough, each sliding groove is respectively communicated with each groove, each sliding groove extends to the outer side wall of the templates in a direction away from the trough, and
The mold closing assembly comprises an inclined push rod, a side sliding seat and a plurality of side sliding pieces, wherein the inclined push rod is arranged on one of the templates, the side sliding seat is arranged on the other template in a sliding mode, inclined holes are formed in the side sliding seat, the side sliding pieces are arranged on the side sliding seat, part structures of the side sliding pieces are respectively contained in sliding grooves, when the two templates are mutually buckled, the two material grooves jointly form a material cavity, the two material grooves jointly form a die cavity, the two sliding grooves jointly form a sliding way, the inclined push rod pushes against the inner side wall of the inclined holes, and the side sliding seat drives the side sliding pieces to extend into the die cavities respectively.
Optionally, the trough comprises a main trough and sub-troughs, each sub-trough is communicated with the main trough, and each sub-trough is respectively communicated with each profile trough.
Optionally, two inclined pushing rods are provided, two inclined holes are formed, and the two inclined pushing rods are respectively arranged in the two inclined holes in a penetrating mode.
Optionally, two closing module components are provided, and the two closing module components are respectively positioned at two opposite sides of the template.
Optionally, the side sliding piece comprises two side loose cores, and the two side loose cores are arranged on one side wall of the side sliding seat at intervals.
Optionally, the side core pulling comprises a core column, a spring and an embedded column, wherein one end of the core column is arranged on the side sliding seat, the other end of the core column is penetrated and clamped with the embedded column, the spring is sleeved on the outer side wall of the core column, and the spring is respectively abutted with the core column and the insert column, and the sideslip seat is used for pushing the insert column by the core column to jointly extend into the groove when the sideslip seat is close to the groove in a sliding manner.
Optionally, a first step is arranged on the inner side wall of the insert column, a second step is arranged on the outer side wall of the core column, which is positioned at one end of the insert column, and the first step is used for being clamped with the second step.
Optionally, an inner conical surface is arranged on the inner side wall of the insert column, an outer conical surface is arranged on the outer side wall of one end of the insert column, and the outer conical surface is used for adaptively pushing the inner conical surface.
Optionally, the wax pattern forming mold convenient for demolding further comprises a mold insert seat and a vibrator, the mold plate close to the side sliding seat is further provided with a plurality of mold inserts, each mold insert is respectively located on the bottom wall of each groove, the mold insert seat is provided with a plurality of mold inserts, the mold plate is arranged on one side surface far away from the grooves, so that each mold insert is respectively accommodated in each mold insert hole in an adaptive manner, and the vibrator is arranged on one side surface far away from the mold plate.
Optionally, the wax pattern forming mold convenient for demolding further comprises a bottom plate, wherein the bottom plate is arranged on one side surface of the template, which is close to the insert seat, so that the vibrator is positioned between the bottom plate and the template.
Compared with the prior art, the utility model has at least the following advantages:
The utility model relates to a wax mould forming mould convenient for demoulding, which comprises a buckling component and a mould closing component, wherein the buckling component comprises two templates, one side surface of each template is provided with a material groove, a plurality of sliding grooves and a plurality of spaced-apart type grooves, each type groove is communicated with the material groove, each sliding groove is respectively communicated with each type groove, each sliding groove extends to the outer side wall of the template in a direction away from the material groove, the mould closing component comprises an inclined push rod, a side sliding seat and a plurality of side sliding pieces, the inclined push rod is arranged on one template, the side sliding seat is arranged on the other template in a sliding manner, inclined holes are formed in the side sliding seat, each side sliding piece is arranged on the side sliding seat, part of each side sliding piece is respectively accommodated in the sliding grooves, when the two templates are mutually buckled, so that two material grooves jointly form a material cavity, the two sliding grooves jointly form a sliding way, and the inclined push rods push the inner side walls of the inclined holes, so that the side sliding seat drives the side sliding pieces to respectively extend into each cavity. Therefore, the speeds of the side sliding piece, which are close to or far away from the groove, are directly determined by the opening and closing speeds of the two templates, so that the instability of manual core pulling is effectively avoided, the molding quality of the lateral hole site can be ensured, the manual core pulling operation is replaced, and the molding efficiency can be improved.
Drawings
In order to more clearly illustrate the technical solutions of the embodiments of the present utility model, the drawings that are needed in the embodiments will be briefly described below, it being understood that the following drawings only illustrate some embodiments of the present utility model and therefore should not be considered as limiting the scope, and other related drawings may be obtained according to these drawings without inventive effort for a person skilled in the art.
FIG. 1 is a schematic diagram of a wax pattern forming mold for facilitating demolding according to an embodiment of the present utility model;
FIG. 2 is a schematic diagram of an assembled structure of a mold plate and a sideslip seat according to an embodiment of the present utility model;
FIG. 3 is a schematic diagram illustrating an assembled structure of a formwork and a diagonal member according to an embodiment of the present utility model;
FIG. 4 is a schematic cross-sectional view of a side-pulling core according to an embodiment of the present utility model;
FIG. 5 is a schematic cross-sectional view of a mounting and vibrator according to an embodiment of the present utility model;
Fig. 6 is a schematic structural view of a wax member according to an embodiment of the present utility model.
Reference numerals illustrate:
20. Wax component, 21, lateral hole site, 10, wax mould forming mould convenient for demoulding, 100, fastening component, 200, closing component, 110, template, 111, trough, 112, chute, 113, trough, 210, inclined push rod, 220, sideslip seat, 221, inclined hole, 1111, main trough, 1112, sub-trough, 230, side core pulling, 231, core column, 232, spring, 233, inlaid column, 2331, first step, 2311, second step, 310, inlaid seat, 320, vibrator, 330, inlaid block, 340 and bottom plate.
Detailed Description
In order that the utility model may be readily understood, a more complete description of the utility model will be rendered by reference to the appended drawings. The drawings illustrate preferred embodiments of the utility model.
As shown in fig. 1 to 3, a wax pattern forming mold 10 convenient for demolding comprises a buckling component 100 and a mold closing component 200, wherein the buckling component 100 comprises two templates 110, a trough 111, a plurality of sliding grooves 112 and a plurality of spaced-apart shaped grooves 113 are formed on one side surface of each template 110, each shaped groove 113 is communicated with the trough 111, each sliding groove 112 is respectively communicated with each shaped groove 113, each sliding groove 112 extends to the outer side wall of each template 110 in a direction far away from the trough 111, the mold closing component 200 comprises an inclined push rod 210, an inclined slide seat 220 and a plurality of side sliding pieces, the inclined push rod 210 is arranged on one template 110, the inclined slide seat 220 is arranged on the other template 110 in a sliding manner, inclined holes 221 are formed in the inclined slide seat 220, each side sliding piece is arranged on the side sliding seat 220, partial structures of each side sliding piece are respectively contained in the sliding grooves 112, when the two templates 110 are mutually buckled, so that the two trough 111 jointly form a material cavity, the two sliding grooves 112 jointly form a sliding way, and the inner side wall of the inclined push rod 210 pushes the inclined push rod 210 to enable the side sliding pieces to extend into the cavities respectively.
When the two templates 110 are engaged with each other, the cavity formed by the molding groove 113 is used for molding the wax member 20. When the two templates 110 are buckled, the side sliding seat 220 is pushed by the inclined pushing rod 210 to approach the groove 113, that is, the side sliding seat 220 drives each side sliding piece to slide and extend into the groove 113. When the two templates 110 are separated from each other, the side slide blocks 220 are pushed against the inclined push rods 210 to be away from the grooves 113, so that the side slides are pulled out from the side holes 21 of the molded wax piece 20. Thus, compared with the existing mode of pulling the slide seat 220 manually, the speed of the side sliding piece approaching or separating from the groove 113 is directly determined by the opening and closing speeds of the two templates 110, so that the instability of manual core pulling is effectively avoided, the molding quality of the lateral hole site 21 can be ensured, and the molding efficiency can be improved.
As shown in fig. 2, in one embodiment, the trough 111 includes a main trough 1111 and sub-troughs 1112, each sub-trough 1112 communicates with the main trough 1111, and each sub-trough 1112 communicates with each type of trough 113. Thus, the wax material enters the die plate 110 from the main groove 1111, and then flows into each of the grooves 113 through each of the sub grooves 1112.
In an embodiment, two inclined push rods 210 are provided, two inclined holes 221 are provided, and the two inclined push rods 210 are respectively arranged in the two inclined holes 221 in a penetrating manner. In this way, the side slider 220 is ensured to stably slide relative to the die plate 110, so that each side slider is driven to extend into the groove 113 or slide out of the groove 113.
In one embodiment, two mold closing assemblies 200 are provided, and the two mold closing assemblies 200 are respectively located on two opposite sides of the mold plate 110. In order to further improve the molding efficiency of the wax material 20, one mold closing assembly 200 is provided on each of the opposite sides of the mold plate 110, and a plurality of mold grooves 113 are provided on each of the opposite sides of the trough 111, so that a plurality of wax materials 20 can be molded at the same time to improve the production efficiency.
As shown in fig. 2, in one embodiment, the side sliding piece includes two side loose cores 230, and the two side loose cores 230 are disposed on a side wall of the side sliding seat 220 at intervals.
It should be noted that, each cavity (surrounded by the grooves 113 of the two templates 110) forms one wax piece 20, and the wax piece 20 has two lateral holes 21, so each cavity is provided with two side loose cores 230.
As shown in fig. 4, in one embodiment, the side core-pulling device 230 includes a core column 231, a spring 232 and an insert column 233, one end of the core column 231 is disposed on the side sliding seat 220, the other end of the core column 231 is inserted into and clamped to the insert column 233, the spring 232 is sleeved on the outer sidewall of the core column 231, and the spring 232 is respectively abutted with the core column 231 and the insert column 233, and the side sliding seat 220 is used for pushing the insert column 233 to jointly extend into the insert column 113 when being slid close to the insert slot 113.
The above-described structure is provided to avoid deformation of the lateral hole 21 when the side pin 230 is away from the lateral hole 21 of the wax member 20. Thus, when the side sliding seat 220 drives the stem 231 to approach the slot 113, the stem 231 pushes the compression spring 232, and finally the end of the insert 233 and the end of the stem 231 extend into the slot 113 together. After the wax element 20 is formed, the side sliding seat 220 drives the stem 231 to be far away from the mold groove 113, and the stem 233 can temporarily keep a state of unchanged relative position with the mold groove 113 due to the elastic thrust of the spring 232, that is, the stem 231 can slide out relative to the stem 233, so that the center of the stem 233 is kept away, the stem 233 is cooled, the side surface of the stem 233, which is in contact with the wax element 20, is separated from the wax element 20, and the stem 233 slides away from the mold groove 113 along with the stem 231 when the stem 231 slides and blocks the stem 233. Thus, the lateral hole 21 of the wax element 20 is ensured not to be deformed during demolding, and the molding quality is improved.
As shown in fig. 4, in one embodiment, a first step 2331 is disposed on an inner side wall of the insert 233, a second step 2311 is disposed on an outer side wall of the core 231 at one end of the insert 233, and the first step 2331 is used for clamping the second step 2311.
It should be noted that, when the stem 231 slides relative to the insert 233 to make the first step 2331 and the second step 2311 clamped, the stem 231 drives the insert 233 to slide out from the slot 113 to achieve demolding.
As shown in fig. 4, in one embodiment, the inner side wall of the insert 233 is provided with an inner conical surface, and the outer side wall of the core 231 at one end of the insert 233 is provided with an outer conical surface for adaptively pushing against the inner conical surface. Thus, when the outer tapered surface is fittingly pushed against the inner tapered surface, it means that both the stem 231 and the insert 233 extend into the groove 113 to complete the mold closing operation.
As shown in fig. 5, in one embodiment, the wax pattern forming mold 10 for facilitating demolding further includes a mold insert 310 and a vibrator 320, the mold plate 110 near the side slide 220 is further provided with a plurality of mold inserts, each mold insert is located on the bottom wall of each mold groove 113, the mold insert 310 is provided with a plurality of mold inserts 330, the mold insert 310 is disposed on a side surface of the mold plate 110 away from the mold grooves 113, so that each mold insert 330 is respectively accommodated in each mold insert, and the vibrator 320 is disposed on a side surface of the mold insert 310 away from the mold plate 110.
In order to further improve the demolding effect of the wax member 20, the insert 330 is disposed on the bottom wall of the mold groove 113, wherein the insert 330 is disposed on the insert seat 310, and in one embodiment, the insert seat 310 and the insert 330 are integrally formed. The vibrator 320 is fixedly mounted on a side of the insert 310 remote from the insert 330. Thus, after the two templates 110 are separated, the vibrator 320 vibrates, so that the wax member 20 can rapidly vibrate and fall off the inner side wall of the mold groove 113 to realize demolding. The vibrator 320 may be a commercially available vibrator, as long as it can generate vibration.
As shown in fig. 1 and 5, in one embodiment, the wax pattern forming mold 10 for facilitating demolding further includes a bottom plate 340, wherein the bottom plate 340 is disposed on a side of the mold plate 110 near the insert 310, such that the vibrator 320 is located between the bottom plate 340 and the mold plate 110.
The form 110 is fixedly mounted on the base 340 by bolts, and a space is provided between the base 340 and the form 110, and the vibrator 320 is located between the base 340 and the form 110. In one embodiment, the bottom plate 340 is provided with a U-shaped hole, so that the bottom plate 340 is conveniently fixed on the wax injection machine by using bolts.
The above examples illustrate only a few embodiments of the utility model, which are described in detail and are not to be construed as limiting the scope of the utility model. It should be noted that it will be apparent to those skilled in the art that several variations and modifications can be made without departing from the spirit of the utility model, which are all within the scope of the utility model. Accordingly, the scope of protection of the present utility model is to be determined by the appended claims.