CN111452308A - Mould for spring swing hook parting-off pouring gate and translation core pushing piece - Google Patents

Abstract

Spring pendulum hook somatotype takes off some runner, translation core and pushes away the mould of piece, and it includes: a distance draw hook 295, a swing hook 305, a tension spring 325, a movable mold core 185, a translation mold core 165, a wear-resistant part 175 and an ejector fixing plate 145. The protrusion k of the spacing hook 295 contacts with the protrusion t at the upper end of the swing hook 305, so that the swing hook 305 is separated from the first positioning pin 315, and the second parting is completed. When the translating core 165 moves upwards, the inclined surface z of the translating core 165 contacts the vertical surface v of the wear-resistant part 175, so that the translating core 165 is forced to perform a translating action in the guiding slot f formed by the ejector fixing plate 145 and the ejector pad 125, and the reverse buckle of the workpiece 445 is released from the translating core 165.

Description

Mould for spring swing hook parting-off pouring gate and translation core pushing piece

Technical Field

The invention relates to a metal die-casting and plastic injection molding die, which is a die for parting a stripping point sprue and horizontally moving a core pushing piece by a spring swing hook.

Background

Aiming at a finished piece with an inverted buckle inside and high appearance requirement, the existing die finishes the separation of pouring and solidifying materials and the separation of the finished piece by adopting a mode of a slider secondary parting mechanism for parting a point sprue and manually separating the finished piece outside the die. The product shown in figure 1 is in a semi-arc cuboid shape, the rectangular mouth parts on two sides of the product are inverted as shown in figure 2, and the appearance of the product does not allow a large pouring trace to be left. In order to meet the quality requirement of a finished piece, when the finished piece is molded, the existing mold adopts the sliding block secondary parting mechanism to finish the stripping of pouring congealing materials, and the back-off of the mouth part of the finished piece is finished manually outside the mold. In order to simplify the structure of the mould, the arrangement of the mould adopts a mode of arranging a mould and a cavity. The secondary parting mechanism of the sliding block is characterized in that drag hooks are respectively arranged on the fixed die base plate and the movable die plate, the fixed die plate is provided with the sliding block and the limiting part, when the die is opened, the drag hook arranged on the movable die plate hooks the sliding block to enable the fixed die plate and the movable die plate to move backwards together, and the fixed die plate and the stripping die are opened due to the backward movement of the fixed die plate together with the movable die plate, so that the primary parting is completed. And continuing to open the mold, wherein the inclined surface of the sliding block collides with a draw hook arranged on the fixed mold base plate, so that the sliding block moves towards the inner side direction of the mold, and the sliding block is disengaged from the draw hook arranged on the movable template because the sliding block moves towards the inner side direction of the mold, and meanwhile, the fixed template is limited by a limiting part and does not move along with the movable template, so that the fixed template and the movable template are opened to complete secondary parting and disengage from the point gate solidified material. After the workpiece is pulled to the movable die side, the pushing mechanism pushes the workpiece and the formed part out of the die together, and then the formed part is taken out of the reverse buckle of the workpiece by workers outside the die. And after the workpiece is separated from the molding part, the molding part is installed in the mold by a worker for the next casting molding. Although the mold mechanism can automatically cut off the spot gate and the finished piece in the mold, the mechanism of the cut-off spot gate is complex, two groups of draw hooks are arranged on the fixed mold base plate and the movable mold plate, and two groups of slide blocks and limiting pieces are arranged in the fixed mold plate, so that a plurality of mold parts are caused, and the problems of increased mold volume, long mold manufacturing period and high mold manufacturing cost are caused because of more mold parts. The reverse buckling demoulding of the mouth part of the workpiece is realized by manually separating the workpiece outside a mould by workers, so that the labor intensity of the workers is high, and the workpiece is easy to scrap when the workpiece is separated from a formed part. The finished piece is separated from the forming part and then the forming part is placed in the die by workers, so that the safety of the workers cannot be guaranteed, industrial accidents occur occasionally, and the production efficiency is low due to the fact that the die adopts a die-cavity arrangement, and the normal production of the finished piece is difficult to meet. In order to overcome the defects of the prior art, the inventor combines a first-line design and manufacturing experience for many years, and particularly provides a die for solving the defects of the prior art.

Disclosure of Invention

The invention provides a die for parting a stripping point sprue and horizontally moving a core pushing piece by a spring swing hook. The core pulling mechanism adopts a two-plate secondary parting structure of a spring swing hook dropping gate and a translation type core with an inclined plane, and when a manufactured part is pushed out, the translation type core performs translation action again, so that the core pulling of two inner sides of the opening part of the product is completed. The die arrangement adopts a one-die two-cavity arrangement mode as shown in fig. 3 to increase the production efficiency.

Spring pendulum hook somatotype takes off some runner, translation core and pushes away mould of piece, characterized by: the die comprises a fixed die part and a movable die part, wherein the fixed die part is communicated with the movable die part through a guide pillar 355. The fixed die part consists of a fixed die base plate 245, a fixed die base plate 235 and a fixed die plate 225, the fixed die base plate 235 is fixedly connected with the fixed die plate 225 through a first screw 385, and the fixed die base plate 245 is communicated with the fixed die base plate 235 through a distance draw hook 295 fixed on the fixed die base plate 245 and a limit nail 415 fixed on the fixed die base plate 235. The movable mould part consists of a movable mould plate 205, a supporting plate 195, mould feet 395 and a movable mould seat plate 405, and the movable mould plate 205, the supporting plate 195, the mould feet 395 and the movable mould seat plate 405 are fastened and connected by screws.

After the implementation, the separation of the point gate solidified material and the workpiece can be automatically cut off in the mold, and the core pulling and the automatic pushing of the reverse buckle of the workpiece can be automatically completed in the mold, so that the problems of complex structure, single number of cavities, low production efficiency and high manufacturing cost of the conventional mold are solved; the problems that an existing die separates a workpiece outside the die, the labor intensity of workers is high, the size error of the workpiece is large, the rejection rate of the workpiece is high, and the safety of the workers cannot be guaranteed are solved.

Spring pendulum hook somatotype takes off some runner, translation core and pushes away mould of piece, and its beneficial effect is: the mold core is suitable for molding similar parts of metal die castings and plastic injection parts, adopts the arrangement of two cavities of one mold, has simple structure and small volume compared with the existing mold, can automatically cut off a sprue in the mold and automatically complete the back-off core-pulling of the parts, and simultaneously has the dual functions of back-off core-pulling and part pushing, thereby saving the manufacturing cost of the mold and improving the production efficiency.

Drawings

The invention is further described below with reference to the accompanying drawings.

Shown in the figure:

figure 1 is a top view of an article.

Fig. 2 is a schematic cross-sectional view of m-m in fig. 1.

Fig. 3 is a diagram of a row of two cavities in a mold.

Fig. 4 is a schematic view of the mold during mold clamping and casting.

Fig. 5 is a schematic view showing the connection between the swing hook 305 and the distance hook 295 of the mold opening mechanism when the mold is closed.

Fig. 6 is a top view of the moving core 165.

Fig. 7 is a schematic cross-sectional view of s-s in fig. 6.

Fig. 8 is a top view of the wear member 175.

Fig. 9 is a schematic cross-sectional view h-h in fig. 8.

FIG. 10 is a schematic view of the configuration of the material pulling rod 255 pulling the spot gate condensate out of the stationary mold insert 215 when the stationary mold plate 245 and the stationary mold back plate 235 are opened for the first parting of the mold.

FIG. 11 is a schematic view of the first parting of the mold, in which the swing hook 305 is pushed by the spacer hooks 295.

Fig. 12 is a schematic view of the mold second parting, with the stationary mold plate 225 and the movable mold plate 205 open, and the object 445 buckled onto the translating core 165 to release the cavity of the stationary mold insert 215.

Fig. 13 is a schematic diagram of the distance draw hook 295 pushing the swing hook 305 to rotate to disengage the swing hook 305 from the first positioning pin 315 during the second parting.

Fig. 14 is a schematic view of the central ram 425 and side rams 435 of an injection or die casting machine pushing the translating core 165 upward, which translates under the action of the wear part 175 while ejecting the part 445 and then withdrawing the part 445 to complete the back-off.

Fig. 15 is a schematic view of the mold after the article 445 is removed from the mold.

Fig. 16 is a schematic view of the structure in which the upper end of the reset rod 155 is in contact with the lower flat surface of the stationary platen 225 when the mold is reset after completion of one-shot molding.

Fig. 17 is a schematic structural view of the movable platen 205 and the fixed platen 225 when the mold is continuously returned.

Fig. 18 is a schematic view after the mold is completely reset.

Fig. 19 is a plan view of the movable mold core 185.

Fig. 20 is a schematic cross-sectional view of e-e in fig. 19.

Fig. 21 is a plan view of the moving core 165, the moving core 185, the wear-resistant member 175, and the moving die plate 205 when they are fitted.

Fig. 22 is a schematic cross-sectional view of r-r in fig. 21.

Fig. 23 is an enlarged view of the support plate 195, the wear-resistant member 175, the moving core 165, the movable core 185, the pin fixing plate 145, and the pin pad 125 at the time of mold closing.

Fig. 24 is an enlarged view of the connection of the undercut of the product 445 to the structure in which the movable core 165 is pulled out when the movable core 165 is moved in a translational motion toward the movable core 185, the movable core 205, the support plate 195, the movable core 165, the wear-resistant member 175, the ejector fixing plate 145, and the ejector pad 125.

Fig. 25 is an enlarged view of the moving core 165 in contact with the wear part 175 when the mold is reset.

Fig. 26 is an enlarged view of structural connection of the mount n of the moving core 165 to the slide guide groove f formed by the needle fixing plate 145 and the needle pad plate 125.

Fig. 27 is a top view of the moving platen 205.

FIG. 28 is a schematic cross-sectional view of m1-m1 of FIG. 27.

Fig. 29 is a combined schematic enlarged view of the wear-resistant member 175, the moving core 165, and the movable core 185.

In the drawings, the numerical numbers respectively indicate:

115-screw 125-thimble cushion plate 145-thimble retaining plate

155-reset rod 165-translation core 175-wear-resistant part

185-moving mold core 195-supporting plate 205-moving mold plate

215-fixed mold insert 225-fixed mold plate 235-fixed mold backing plate

245 fixed die seat plate 255 pulling rod 265 locking screw

295-fixed-distance drag hook 305-swing hook 315-first positioning pin

325 tension spring 335, second screw 345 and third screw

355 guide post 365 positioning ring 375 sprue bush

385-first screw 395-mould foot 405-movable mould base plate

415-spacing pin 425-central mandril of injection machine or die casting machine

435-side ejector rod 445 of injection machine or die casting machine-part

455-compression spring

k-represents a protrusion on the spacer hook 295

c-shows an oval slot in the spacer drag 295

t-protrusion representing the upper end of swing hook 305

b-hook at the lower end of swing hook 305

n-represents a hanging table below the translating core 165

z-denotes a bevel below the translating core 165

p-denotes a bevel above translating core 165

x-represents the rectangular vertical plane of the moving mold core 185

k 3-vertical plane indicating the width of the moving core 185

z 1-indicating a vertical plane below bevel p above moving core 165

v-represents the vertical plane of the rectangular middle of the wear part 175

g 1-represents the vertical plane corresponding to the oblong vertical plane v in the wear part 175.

d-represents a lateral recess in the upper molding 445 of the translating core 165 that is inverted.

f denotes a guide groove formed by the needle fixing plate 145 and the needle pad plate 125.

a-vertical plane representing the upper part of the translating core 165

g-represents the vertical plane of the lower portion of the translating core 165

a 1-rectangular side wall vertical plane representing the through frame in the moving die plate 205

f 1-side wall vertical plane representing the width of the through frame in the moving platen 205

n 1-hanging stand for wear part 175

k 2-vertical plane representing the width of the moving core 165

k 1-vertical plane representing the width of the wear part 175

n-denotes a cradle for moving the core 165

m-A cross section of the article 445 of FIG. 1 in a width direction

s-represents a rectangular cross section of the moving core 165 of FIG. 6

e-A cross section showing a wide side of the movable mold core 185 in FIG. 19

r-r represents a rectangular cross section in FIG. 21 when the movable die plate 205, the wear-resistant member 175, the movable core 165, and the movable core 185 are combined

m1-m 1-showing the rectangular cross section of the movable die plate 205 in FIG. 27

The specific implementation mode is as follows:

the mold shown in the figure is a spring swing hook parting, take-off gate, translating core pusher. The mold is characterized in that secondary parting of a swing hook release point gate and cavity arrangement of a mold and a mold are adopted, and a translation mold core with an inclined surface is used, so that the translation mold core translates left and right in a guide sliding groove formed by a thimble fixing plate and a thimble base plate when the mold is opened and closed, and thus, molding and core pulling of back-off at two sides of the mouth of a workpiece are completed. Meanwhile, the translation mold core plays a role in pushing the workpiece out when the workpiece is pulled away from the reverse buckle. The construction connection relationship and the working principle of the device are explained in detail as follows:

firstly, constructing and connecting: the spring swing hook parting takes off the mould of the point runner, moving core pushing piece, it is made up of stationary mould part and moving die part; the stationary mold part and the stationary mold part are communicated by a guide column 355.

Referring to fig. 4, the fixed mold part comprises a fixed mold base plate 245, a fixed mold base plate 235 and a fixed mold plate 225, wherein the fixed mold base plate 235 is tightly connected with the fixed mold plate 225 through a first screw 385; referring to FIG. 5, the fixed mold base plate 245 is communicated with the fixed mold base plate 235 through a distance draw hook 295 fastened to the side surface of the fixed mold base plate 245 and a limit pin 415 fastened to the side surface of the fixed mold base plate 235; referring to fig. 4, a positioning ring 365 is fixedly connected to the center of the upper plane of the fixed mold base plate 245 by a screw, a step hole is formed in the center of the fixed mold base plate 245, a sprue bush 375 is fixedly installed in the step hole, the lower end surface of the sprue bush 375 is flush with the lower plane of the fixed mold base plate 245, a main runner hole in the sprue bush 375 is communicated with a branch runner groove formed in the upper plane of the fixed mold insert 215, the branch runner groove is communicated with the large end of a conical runner formed in the fixed mold insert 215, the small end of the conical runner is communicated with a molding cavity of a workpiece, a material pulling rod 255 is further arranged in the fixed mold base plate 245, the upper end of the material pulling rod 255 is in contact with a locking screw 265, and the lower end of the material pulling rod 255 is inserted into the branch runner groove; referring to fig. 4, a step-shaped through frame is arranged at the center of the fixed mold backing plate 235 and the fixed mold plate 225, the fixed mold insert 215 is fixedly connected in the step-shaped through frame, two cavities are symmetrically distributed upwards on the lower plane of the fixed mold insert 215, the two cavities have the same size and shape, and the shape of the two cavities is the same as the shape of the outer surface of the workpiece 445 shown in fig. 1 and 2. When the mold is closed, the movable core 165 and the movable core 185 are inserted into the cavity to form a space, which is a molding position of the article. Referring to fig. 5, a distance hook 295 is arranged on the side surface of the fixed mold base plate 245, a swing hook 305 is arranged on the side surface of the fixed mold plate 225, the distance hook 295 is fixedly connected with the fixed mold base plate 245 through a screw, a protrusion k is arranged on the vertical surface of the distance hook 295, when the mold is opened, the protrusion k on the vertical surface of the distance hook 295 contacts with a protrusion t at the upper end of the swing hook 305, furthermore, an elliptical groove c is arranged in the distance hook 295, referring to fig. 11, when the mold is opened, the terminal point at the lower end of the elliptical groove c contacts with a limit nail 415 fixedly connected with the. Referring to fig. 5 or 11, the swing hook 305 is movably connected to the side surface of the fixed die plate 225 by a screw, a hook b provided at the lower end of the swing hook 305 is hooked on the first positioning pin 315, a second screw 335 is fastened to the swing hook 305, the second screw 335 is communicated with one end of a tension spring 325, and the other end of the tension spring 325 is communicated with a third screw 345 fastened to the side surface of the movable die plate 205. Referring to fig. 13, when the mold is opened, the swing hook 305 is disengaged from the first positioning pin 315, so that the fixed mold plate 225 and the movable mold plate 205 are opened. Referring to fig. 3, 5 and 13, the swing hook 305 and the distance hook 295 are symmetrically provided with two sets of swing hooks 305 and distance hooks 295, which have the same structure and the same connection relationship, on the same side of the mold, and the corresponding surfaces of the same side are also provided with another set of swing hooks 305 and distance hooks 295, which have the same structure and the same connection relationship and the same size. Referring to fig. 4, a compression spring 455 is arranged between the fixed mold base plate 245 and the fixed mold base plate 235, one end of the compression spring 455 abuts against the bottom of the hole in the fixed mold base plate 245, the other end of the compression spring 455 abuts against the upper plane of the fixed mold plate 225, the compression spring 455 is a rectangular spring with large elasticity, four compression springs 455 are arranged, the four compression springs 455 are symmetrically distributed and installed in the holes at the four corners of the fixed mold base plate 245 and the fixed mold base plate 235, and the four compression springs 455 have the same shape and size. Referring to fig. 4, the movable mold part comprises a movable mold plate 205, a support plate 195, mold legs 395 and a movable mold base plate 405, and the movable mold plate 205, the support plate 195, the mold legs 395 and the movable mold base plate 405 are fastened and communicated by screws. The movable mold base plate 405, the mold feet 395 and the support plate 195 are provided with an ejector pin cushion plate 125 and an ejector pin fixing plate 145 in a cavity formed by the movable mold base plate 405, the mold feet 395 and the support plate 195, four reset rods 155 and four translation cores 165 are symmetrically distributed in the ejector pin fixing plate 145, the lower ends of the reset rods 155 are inserted into holes of the ejector pin fixing plate 145 and are fixedly connected by screws 115, the upper ends of the reset rods 155 slide through holes in the support plate 195 and the movable mold plate 205, and the upper end surfaces of the reset rods 155 are in contact with the lower plane of the fixed mold plate. Referring to fig. 6, the translation core 165 is a cuboid, a transverse groove d is formed above the translation core 165, when the mold is closed and the casting is performed, the reverse of the workpiece 445 is formed in the transverse groove d above the translation core 165, a hanging table n is arranged below the translation core 165, and referring to fig. 26, the hanging table n is slidably mounted in a guide chute f formed by the ejector pin fixing plate 145 and the ejector pin pad 125. Referring to fig. 7, an inclined plane p is disposed above the translation core 165, an inclined plane z is disposed below the translation core 165, a vertical plane a is disposed above the inclined plane p disposed above the translation core, a vertical plane z1 is disposed below the inclined plane p, a vertical plane z2 is disposed above the inclined plane z, and a vertical plane g is disposed below the inclined plane z. Referring to fig. 4, during the mold clamping casting, the vertical surface a of the moving core 165 is in contact with the vertical surface x of the movable core 185, and the vertical surface z2 of the moving core 165 is in contact with the vertical surface v of the wear 175. Referring to fig. 14, when the mold is opened to eject the article, the vertical surface g of the moving core 165 contacts the vertical surface v of the wear-resistant member 175, and the vertical surface z1 of the moving core 165 contacts the vertical surface x of the movable core 185. Further, when the translating core 165 moves upward, the inclined surface z of the translating core 165 first comes into contact with the vertical surface v of the wear-resistant member 175, and the wear-resistant member 175 forces the translating core 165 to perform a translational sliding motion toward the movable core 185 in the guide groove f formed by the ejector fixing plate 145 and the ejector pad plate 125, and when the translating core 165 pushes out the article while moving upward, the translating core 165 performs a translational motion toward the movable core 185 in the guide groove f formed by the ejector fixing plate 145 and the ejector pad plate 125, and the translational sliding motion is stopped. Referring to fig. 14 and 15, when the translation core 165 translates toward the movable core 185, the undercut of the article 445 is withdrawn from the lateral recess d above the translation core 165. Further, referring to fig. 16 and 17, when the movable core 165 is reset, the needle fixing plate 145 and the needle pad 125 of the movable core 165 are moved downward by the reset rod 155 to reset the movable core 165, and when the reset rod is reset, firstly, the inclined surface p of the movable core 165 contacts with the vertical surface x of the movable core 185, the movable core 185 forces the hanging platform n of the movable core 165 to move closer to the wear resistant member 175 in the guide groove f formed by the needle fixing plate 145 and the needle pad 125, and when the vertical surface a of the movable core 165 contacts with the vertical surface x of the movable core 185, referring to fig. 17, the vertical surface z2 of the movable core 165 contacts with the vertical surface v of the wear resistant member 175, and the movable core 165 stops the translation movement to the wear resistant member 175. Referring to fig. 21 and 20 in conjunction with fig. 6 and 7, further, the wide vertical surface k2 of the moving core 165 is in contact with the rectangular vertical surface a1 of the through frame in the moving platen 205. Referring to fig. 4, the wear-resistant members 175 are fixedly connected to the step frames of the movable platen 205 and the support platen 195 by brazing, and four wear-resistant members are symmetrically distributed in the step frames of the movable platen 205 and the support platen 195. Further, referring to fig. 8 and 9, the wear-resistant member 175 is provided in a rectangular parallelepiped shape with a hanging table, referring to fig. 21 and 20 in combination with fig. 8, 9 and 4, a vertical surface g1 of the wear-resistant member 175 contacts with a wide vertical surface f1 of the through frame of the movable die plate 205, and a hanging table n1 of the wear-resistant member 175 is fastened to a step of the step frame of the movable die plate 205 by brazing. Referring to fig. 4 and 10, the support plate 195 is fastened to the movable mold core 185 with screws. Further, referring to fig. 21 in conjunction with fig. 19 and 20, the movable core 185 is a stepped rectangular parallelepiped, two screw coupling holes are provided in the movable core 185, the movable core 185 is symmetrically provided in two pieces in the support plate 195, and the shape, size, and coupling manner of the two pieces of the movable core 185 are the same. Further, the wide vertical surface k3 of the movable mold core 185 contacts the rectangular vertical surface a1 of the through frame in the movable mold plate 205. Referring to fig. 26 in conjunction with fig. 4, 6 and 7, the hanging platform n of the moving core 165 is in sliding fit with the guide slot f formed by the thimble fixing plate 145 and the thimble pad 125. Further, when the moving core 165 moves upward, it moves toward the center of the needle holding plate 145 in the guide groove f shown in fig. 26, and when the moving core 165 returns downward, it moves toward both sides of the needle holding plate 145 in the guide groove f shown in fig. 26.

II, the working principle is as follows:

when it is desired to cast the molded article 445, the stationary mold part is mounted on the side of the injection or die casting machine that is not movable and the movable mold part is mounted on the side of the injection or die casting machine that is movable. After the casting molding shown in fig. 4, the injection molding machine or the die casting machine drives the movable mold part to move backward, and in this action, the compression spring 455 loses pressure to bounce and pushes the movable mold plate 225 to drive the fixed mold backing plate 235 to move towards the movable mold; as shown in fig. 10, then the fixed mold base plate 245 and the fixed mold base plate 235 are opened, i.e., the first parting is completed. When opened, the sprue bar 255 secured in the stationary die plate 245 pulls the sprue condensate from the stationary die insert 215, while a robot on the injection or die-casting machine extends into the open gap between the stationary die plate 245 and the stationary die back plate 235 to clamp the sprue condensate from the sprue bar 255 out of the mold. When the mold is opened continuously, the protrusion k on the spacing hook 295 contacts with the protrusion t at the upper end of the swing hook 305, and then the protrusion k on the spacing hook 295 pushes the swing hook 305 to rotate. The injection machine or the die casting machine continues to drive the movable mold part to move backwards, at this time, the lower terminal point of the elliptical groove c in the distance hook 295 fixedly connected to the fixed mold base plate 245 is contacted with the limit nail 415 fixedly connected to the fixed mold base plate 235, and then the distance hook 295 limits the fixed mold base plate 235 and the fixed mold plate 225 to continue to move towards the movable mold. Meanwhile, the apex of the protrusion k of the spacer hook 295 is engaged with the apex of the protrusion t of the upper end of the swing hook 305, so that the spacer hook 295 forces the hook b of the lower end of the swing hook 305 to disengage from the first stopper pin 315 fastened to the side of the movable platen 205. After the swing hook 305 is disengaged from the first stopper pin 315, the movable mold part continues to move backward, and the fixed mold plate 225 and the fixed mold backing plate 235 are restrained by the distance-measuring hooks 295 and do not move in the direction of the movable mold. Then the movable template 205 and the fixed template 225 are opened, and the second typing is completed. Referring to FIG. 12, the injection or die casting machine continues to move the movable mold part backward while the undercut of the part snaps into the transverse recess d of the translating core 165 and the part 445 is pulled by the translating core 165 from the cavity of the stationary mold insert 215 to the movable mold side. When the opening distance between the fixed mold plate 225 and the movable mold plate 205 does not affect the release of the object 445, the movable mold part stops moving backward. At this time, the center lift pin 425 and the side lift pins 435 of the injection molding machine or the die casting machine extend into the holes of the movable mold base plate 405 to push the ejector pin pad plate 125 to drive the translational core 165 to move upward, and during the upward movement, the translational core 165 pushes the workpiece 445 out of the movable mold core 185, and the translational core 165 performs a sliding translational movement toward the movable mold core 185 in the guide groove f formed by the ejector pin fixing plate 145 and the ejector pin pad plate 125. When the translation core 165 performs sliding translation action, the reverse buckle of the workpiece 445 is released from the transverse groove d at the upper part of the translation core 165, and after the reverse buckle is separated from the translation core 165, the workpiece falls out of the die by self weight and shaking force of an injection machine or a die-casting machine. (note: the action principle of the sliding translational motion of the translating core 165 is that, when the translating core 165 moves upward, the vertical surface a of the upper portion of the translating core 165 is completely separated from the vertical surface x of the movable core 185, while the inclined surface z of the translating core 165 is now in contact with the vertical surface v of the wear-resistant member 175, and when the translating core 165 continues to move upward, the vertical surface v of the wear-resistant member 175 forces the translating core 165 to perform the sliding translational motion in the guide groove f formed by the ejector pin fixing plate 145 and the ejector pad plate 125).

After the pouring is completed and the die is reset, referring to fig. 16, the injection machine or the die-casting machine drives the movable mold part to move toward the fixed mold part in the opposite direction when the movable mold part is opened, and the upper end surface of the reset rod 155 is firstly contacted with the lower plane of the fixed mold plate 225. The mold closing is continued, the reset lever 155 pushes the stationary mold plate 225 and the stationary mold base plate 235 toward the stationary mold base plate 245, at this time, the protrusion t at the upper end of the swing hook 305 is separated from the protrusion k of the spacer 295, so that the tension spring 325 is retracted without tension, and pulls the swing hook 305 to reset and hook the first positioning pin 315, the mold closing is continued, the reset rod 155 pushes the fixed mold plate 225 and the fixed mold backing plate 235 to reset to the initial state of mold opening, the reset rod 155 is reset by itself under the action of the counter-thrust of the fixed mold plate 225, and pushes the thimble pad 125 to drive the translation core 165 installed in the thimble fixing plate 145 to reset, when the translation core 165 is reset, the inclined surface p of the upper portion of the translating core 165 is brought into contact with the vertical surface x of the movable core 185 in the backward movement of the ejector fixing plate 145, so that the translating core 165 is forced to perform a sliding translation movement toward the wear-resistant member 175 in the slide groove f defined by the ejector fixing plate 145 and the ejector pad 125 by the movable core 185. When the vertical surface a of the moving core 165 is retracted to be in contact with the vertical surface x of the moving core 185, at this time, the vertical surface z2 of the moving core 165 comes into contact with the vertical surface v of the wear 175, so that the moving core 165 stops the translational action, and the translating core 165 performs only the downward returning action with the ejector pin fixing plate 145 and the ejector pad plate 125. After returning to the condition shown in fig. 18, the injection machine or the die casting machine performs the next cycle of casting to the mold.

Claims (10)

1. Spring pendulum hook somatotype takes off some runner, translation core and pushes away mould of piece, characterized by: the device consists of a fixed die part and a movable die part; the movable die part is communicated with the fixed die part through a guide pillar (355), the fixed die part comprises a fixed die base plate (245), a fixed die base plate (235) and a fixed die plate (225), the fixed die base plate (235) is fixedly communicated with the fixed die plate (225) through a first screw (385), and the fixed die base plate (245) is communicated with the fixed die base plate (235) through a distance draw hook (295) fastened on the side surface of the fixed die base plate (245) and a limit nail (415) fastened on the fixed die base plate (235); the movable mould part comprises a movable mould plate (205), a supporting plate (195), mould feet (395) and a movable mould base plate (405), wherein the movable mould plate (205), the supporting plate (195), the mould feet (395) and the movable mould base plate (405) are fastened and communicated by screws.

2. The spring swing hook parting gate, translating core pusher mold of claim 1, wherein: the fixed die base plate (245) is internally provided with a material pulling rod (265), and the material pulling rod (265) is inserted into a flow dividing channel groove arranged on the upper plane of the fixed die insert (215).

3. The spring swing hook parting gate, translating core pusher mold of claim 1, wherein: compression springs (455) are arranged in holes of the fixed die base plate (245) and the fixed die base plate (235), and the compression springs (455) are symmetrically distributed and installed in holes at four corners of the fixed die base plate (245) and the fixed die base plate (235).

4. The spring swing hook parting gate, translating core pusher mold of claim 1, wherein: a distance draw hook (295) is fixedly connected to the side surface of the fixed die base plate (245), a swing hook (305) is movably connected to the side surface of the fixed die plate (225), an elliptical groove c and a protrusion k are arranged on the distance draw hook (295), a protrusion t and a hook b are arranged on the swing hook (305), the lower end point of the elliptical groove c in the distance draw hook (295) is contacted with a limit nail (415) fixedly connected to the side surface of the fixed die base plate (235) when the die is opened, the protrusion k on the distance draw hook (295) is contacted with the protrusion t on the swing hook (305), the swing hook (305) rotates to force the hook b on the swing hook (305) to be separated from a first positioning pin (315) fixedly connected to the side surface of the movable die plate (205), the swing hook (305) is fixedly connected with a second screw (335), the second screw (335) is communicated with one end of a tension spring (325), and the other end of the tension spring (325) is communicated with a third screw (345) fastened on the side surface of the movable template (205).

5. The spring swing hook parting gate, translating core pusher mold of claim 4, wherein: the distance draw hook (295) and the swing hook (305) are symmetrically provided with two groups of swing hooks (305) and distance draw hooks (295) which have the same connection relationship, the same shape and the same size on the same side of the die, and the other two groups of swing hooks (305) and distance draw hooks (295) which have the same connection relationship, the same shape and the same size are arranged on the corresponding surface of the same side of the die.

6. The spring swing hook parting gate, translating core pusher mold of claim 1, wherein: the center of the movable mould plate (205) and the center of the support plate (195) are provided with step frames, four wear-resistant parts (175) are connected in the step frames through brazing, two movable mould cores (185) are symmetrically distributed in the support plate (195), the shapes and the sizes of the two movable mould cores (185) are the same, and the movable mould cores (185) are fixedly communicated with the support plate (195) through screws.

7. The spring swing hook parting gate, translating core pusher mold of claim 1, wherein: the supporting plate (195), the die leg (395) and the movable die base plate (405) are communicated to form a cavity, and the cavity is internally provided with an ejector pin fixing plate (145) and an ejector pin base plate (125).

8. The spring swing hook parting gate, translating core pusher mold of claim 7, wherein: four reset rods (155) are symmetrically distributed on four corners of the thimble fixing plate (145) and the thimble cushion plate (125), furthermore, the reset rods (155) are fixedly connected with the thimble fixing plate (145) and the thimble cushion plate (125) by screws (115), and the reset rods (155) are in sliding fit with through holes in the movable mould plate (205) and the supporting plate (195).

9. The spring swing hook parting gate, translating core pusher mold of claim 7, wherein: four guide sliding grooves f with the same size and the same shape are symmetrically distributed in the thimble fixing plate (145) and the thimble cushion plate (125), furthermore, a movable mold core (165) is arranged in the guide sliding grooves f, four movable mold cores (165) are arranged, the movable mold core (165) is in a cuboid shape with a hanging table, a transverse groove which is the same as the inverted buckle of a workpiece (445) is arranged above the movable mold core (165), a hanging table n is arranged below the movable mold core (165), an inclined plane p is arranged above the movable mold core (165), an inclined plane z is arranged below the movable mold core (165), furthermore, the joint surface between the upper side of the inclined plane p and the inclined plane p is a vertical plane a, the joint surface between the lower side of the inclined plane p and the inclined plane p is a vertical plane z1, and the joint surface between the upper side of the inclined plane z and the inclined plane z.

10. The spring swing hook parting gate, translating core push mold of claim 9, wherein: the hanging table n of the movable core (165) is slidably mounted in a guide chute f formed by the ejector pin fixing plate (145) and the ejector pin cushion plate (125), further, when the movable core (165) moves upwards, the inclined surface z of the movable core (165) is in contact with the vertical surface v of the wear-resistant piece (175), the movable core (165) is forced to perform translation movement towards the movable core (185), the reverse buckle of the workpiece (445) is extracted from the transverse groove d above the movable core (165), further, when the movable core (165) moves downwards and is reset, the inclined surface p of the movable core (165) is in contact with the vertical surface x of the movable core (185), and the vertical surface x of the movable core (185) forces the movable core (165) to perform translation movement towards the vertical surface v of the wear-resistant piece (175).

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