CN114054563B - Processing equipment for bearing parts of highway protective net - Google Patents

Processing equipment for bearing parts of highway protective net Download PDF

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Publication number
CN114054563B
CN114054563B CN202111264239.6A CN202111264239A CN114054563B CN 114054563 B CN114054563 B CN 114054563B CN 202111264239 A CN202111264239 A CN 202111264239A CN 114054563 B CN114054563 B CN 114054563B
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China
Prior art keywords
die
cylindrical section
mold
sides
section bar
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CN202111264239.6A
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CN114054563A (en
Inventor
王志平
王菲
王浩
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Lutongda Construction Engineering Co ltd
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Lutongda Construction Engineering Co ltd
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    • BPERFORMING OPERATIONS; TRANSPORTING
    • B21MECHANICAL METAL-WORKING WITHOUT ESSENTIALLY REMOVING MATERIAL; PUNCHING METAL
    • B21DWORKING OR PROCESSING OF SHEET METAL OR METAL TUBES, RODS OR PROFILES WITHOUT ESSENTIALLY REMOVING MATERIAL; PUNCHING METAL
    • B21D22/00Shaping without cutting, by stamping, spinning, or deep-drawing
    • B21D22/02Stamping using rigid devices or tools
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B21MECHANICAL METAL-WORKING WITHOUT ESSENTIALLY REMOVING MATERIAL; PUNCHING METAL
    • B21DWORKING OR PROCESSING OF SHEET METAL OR METAL TUBES, RODS OR PROFILES WITHOUT ESSENTIALLY REMOVING MATERIAL; PUNCHING METAL
    • B21D37/00Tools as parts of machines covered by this subclass
    • B21D37/04Movable or exchangeable mountings for tools
    • BPERFORMING OPERATIONS; TRANSPORTING
    • B21MECHANICAL METAL-WORKING WITHOUT ESSENTIALLY REMOVING MATERIAL; PUNCHING METAL
    • B21DWORKING OR PROCESSING OF SHEET METAL OR METAL TUBES, RODS OR PROFILES WITHOUT ESSENTIALLY REMOVING MATERIAL; PUNCHING METAL
    • B21D37/00Tools as parts of machines covered by this subclass
    • B21D37/14Particular arrangements for handling and holding in place complete dies

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  • Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • Punching Or Piercing (AREA)
  • Mounting, Exchange, And Manufacturing Of Dies (AREA)

Abstract

The invention provides a processing device for a road protection network bearing part in the technical field of road protection, which comprises: a powered core piece for inserting the sleeve-like profile and carrying it downwardly toward the stamping zone; the lower die part is arranged below the power die core piece and sequentially punches the cylindrical section bar on the power die core piece from the bottom to the two sides of the bottom; the positioning parts are arranged on the two sides of the top of the cylindrical section and inquire the middle points of the two sides of the top of the cylindrical section; and an upper die part which is arranged above the cylindrical section bar synchronously shifted to the inquiring midpoint of the positioning part and shifts the top of the cylindrical section bar to one side of the original center of the cylindrical section bar for traction and stamping. The invention has the advantages of high stamping efficiency of the cylindrical section bar on the anti-blocking block, uniform thickness after stamping forming and the like.

Description

Processing equipment for bearing parts of highway protective net
Technical Field
The invention relates to the technical field of road protection, in particular to a processing device for a road protection network bearing part.
Background
The anti-blocking block refers to an anti-blocking block of the road side corrugated beam guardrail and is a bearing component between the corrugated beam and the upright post. The road section is suitable for road sections in which traffic flow is complex in types and there is concern that collision vehicles possibly mix with the guardrail posts, or road sections in which the movement track of the collision vehicles is adversely affected by the curb. The anti-blocking block is an energy absorption mechanism, so that the guardrail can be gradually deformed after collision, thereby being beneficial to energy absorption and reducing the casualties of passengers; meanwhile, the anti-blocking block is fixed between the upright post and the wave beam, and after participating in the overall action of the guardrail, collision force can be distributed to more span structures, so that the overall strength of the guardrail is increased.
Chinese patent CN110695127a discloses a block-proof welded pipe unit and a block-proof processing method, which are used for solving the problems of difficult guarantee of product consistency, insufficient strength of welded parts and poor energy absorption effect in the prior art; according to the technical scheme, a feeding device, a die set, a welding device, a deburring device, a sizing set and a cutting device are sequentially arranged on a base, so that an anti-blocking block is gradually formed through a series of processing; the uniform die set is adopted for machining, the consistency of the geometric dimension of the product is guaranteed once, the high-frequency welding mode is adopted to enable the inner wall and the outer wall of the anti-blocking block to be in a full-welded state, and the energy absorption effect is good.
In the technical scheme, the sheet-shaped section bar is formed by welding after being formed into a cylinder shape by a die set, the working procedure is complex, the requirements on forming and welding precision are particularly high, and the product quality is difficult to ensure consistency.
The invention provides an innovative design for directly processing a cylindrical section bar into an anti-blocking block, and synchronously solves the technical problems that the excessive amount of the section bar cannot be punched and released by a final release point because the cylindrical section bar is punched in all directions simultaneously in the process of processing the cylindrical section bar into the anti-blocking block, and the section bar is greatly pulled to deform and aggravate when one side far from the punching point is punched, so that the quality consistency of continuously formed and processed products is ensured.
Disclosure of Invention
The invention aims at overcoming the defects of the prior art, and provides a processing device for a highway protective network bearing component, wherein a power mold core piece carries a cylindrical section bar to punch at the bottom and the two sides of the bottom at a lower mold part, a punching release material is extruded to the top and the two sides of the top, a positioning part locks the centers of the two sides of the top of the cylindrical section bar, and an upper mold part pulls the top side of the cylindrical section bar which is deviated along the locking center to deviate towards an original punching center to finish punching, so that the technical problem in the background art is solved.
In order to achieve the above purpose, the present invention provides the following technical solutions:
the utility model provides a highway protection network load-carrying member processing equipment which characterized in that includes: a powered core piece for inserting the sleeve-like profile and carrying it downwardly toward the stamping zone; the lower die part is arranged below the power die core piece and sequentially punches the cylindrical section bar on the power die core piece from the bottom to the two sides of the bottom; the positioning parts are arranged on the two sides of the top of the cylindrical section and inquire the middle points of the two sides of the top of the cylindrical section; and an upper die part which is arranged above the cylindrical section bar synchronously shifted to the inquiring midpoint of the positioning part and shifts the top of the cylindrical section bar to one side of the original center of the cylindrical section bar for traction and stamping.
Further, the lower die part includes: a mold base; the bottom die table is elastically arranged in the middle of the top of the die seat; the side die tables are arranged on two sides of the bottom die table in a sliding manner, and the bottom edge of the side die surface of the side die table in the initial state is lower than the top die surface of the bottom die table; the die table linkage assemblies are arranged at two sides of the bottom die table and are used for linking the lower movement of the bottom die table to the lifting of the side die table; and a die table locking assembly for locking the bottom die table when the descending cylindrical section bar convex surface is contacted with the bottom die table and unlocking the die table when the descending cylindrical section bar convex surface and the bottom die table are completely overlapped.
Further, the die table linkage assembly includes: the bottom die rack is arranged at the end part of the bottom die table and provided with tooth surfaces at two sides; a side die rack which is arranged at the end part of the side die table and is provided with a tooth surface at the side corresponding to the bottom die rack; and a middle gear which is arranged on the die seat and is respectively meshed with the bottom die rack and the side die rack in a transmission way.
Further, the die table locking assembly includes: the cam is arranged on the die seat, and the top side of the cam is propped against the bottom of the bottom die rack; and the linkage driving assembly is used for driving the cam to rotate by continuously moving power after the power mold core piece is flattened on the bottom mold table to the bottom of the cylindrical section.
Further, the linkage driving assembly includes: a sliding bracket mounted on the die holder; the sliding frame is arranged on the sliding support in a sliding manner and is elastically connected with the sliding support; the linkage gear is arranged in the sliding frame and connected with the cam; a linkage rack arranged on the inner side wall of the sliding frame; the pushing piece is movably inserted into the top of the sliding support, and the bottom of the pushing piece is connected with the sliding frame.
Further, the upper die part includes: the linkage support is connected with the power end of the power mold core piece; a stamping power assembly slidably mounted on the linkage support; an upper die table connected with the power end of the stamping power component; and a guide part which is arranged at one side of the upper die table and guides the upper die table which is offset to one side to the original center of the cylindrical section bar.
Further, the guide part includes: one end of the guide rod is connected with the upper die table; and the guide space is arranged on the linkage support, the width dimension of the guide space is continuously reduced from top to bottom to the width dimension of the guide rod, and the other end of the guide rod is inserted into the guide space.
Further, the positioning portion includes: a pushing frame sleeved on the upper die table; the positioning piece is elastically arranged below the pushing frame; and the storage driving assembly is arranged on the pushing frame and moves the positioning piece out of the lower part of the upper die table.
Further, the housing drive assembly includes: an upper die rack mounted on the upper die table; a storage rack movably inserted on the pushing frame; and the transmission gear is arranged on the pushing frame and is respectively meshed with the upper die rack and the storage rack in a transmission way.
Further, the positioning member includes: one end of the positioning rod is movably inserted into the storage rack; an elastic member connected between the positioning rod and the storage rack; and the ball is movably sleeved at the end part of the positioning rod which is contacted with the cylindrical section bar.
The invention has the beneficial effects that:
(1) In the invention, through the mutual matching among the power mold core piece, the lower mold part and the upper mold part, in the process of stamping the cylindrical section, the power action of the power mold core piece is firstly utilized to descend to the lower mold part to stamp the bottom and the two sides of the cylindrical section, so that the stamped excessive section is extruded and released to the top and the two sides of the cylindrical section, and then the upper mold part is utilized to stamp the top and the two sides of the cylindrical section, so that the released section is gradually processed in the process of stamping, the problem that the release direction of the section cannot be controlled when the upper side and the lower side of the cylindrical section are directly extruded on the mold core is solved, the abrasion of the mold is reduced, and the section quantity is regularly released in the process of forming the cylindrical section, thereby ensuring that the thickness dimension after forming is more uniform;
(2) According to the invention, through the matching design between the power mold core piece and the lower mold, when the power mold core piece moves downwards for stamping, the bottom of the cylindrical section is stamped in advance through the bottom mold table, and then the two sides of the bottom of the cylindrical section are stamped through the side mold table, so that the bottom of the cylindrical section and the redundant sections on the two sides of the bottom are fully released on the top and the two sides of the top of the cylindrical section;
(3) According to the invention, through the linkage cooperation design among the power mold core piece, the mold platform locking assembly and the mold platform linkage assembly, the power mold core piece contacts the linkage mold platform locking assembly after the bottom of the cylindrical section bar in the locked state of the mold platform linkage assembly is stamped by the mold platform locking assembly, so that the mold platform locking assembly releases the locking of the mold platform power assembly, the bottom mold platform is in a free state and moves downwards along with the power of the power mold core piece, and then the side mold platform is pushed out to be contacted with the two sides of the bottom of the cylindrical section bar through the linkage of the mold platform linkage assembly, and the stamping action is completed, so that the bottom mold platform is in a supporting environment when the bottom of the cylindrical section bar is stamped, the locking of the bottom mold platform is rapidly released after the stamping is completed, and then the side mold platform is switched to the side mold platform for stamping;
(4) According to the invention, through the mutual matching between the positioning part and the upper die part, the multi-out section bar of the cylindrical section bar after being punched by the lower die part is extruded to the top and the space at the two sides of the top of the cylindrical section bar, then the initial punching position of the upper die part is adjusted under the condition that the positioning part deflects the two sides of the top of the cylindrical section bar, and the section bar deflected sideways is gradually pulled towards the original punching center during punching according to the initial punching position, so that the section bar quantity at the two sides of the top of the cylindrical section bar is punched in a corresponding state, and the problem that when the section bar quantity difference at the two sides of the cylindrical section bar is large, the section bar is pulled to be thinned or the section bar is stacked during punching is solved;
in conclusion, the invention is particularly suitable for the production of the anti-blocking block which is directly processed by adopting the cylindrical section bar.
Drawings
FIG. 1 is a schematic diagram of the overall structure of the present invention;
FIG. 2 is a schematic view of the structure of FIG. 1 with the housing removed;
FIG. 3 is a schematic view of the upper mold part of the present invention;
FIG. 4 is an enlarged view of the invention at A in FIG. 3;
FIG. 5 is a schematic view of another side structure of FIG. 4 in accordance with the present invention;
FIG. 6 is a schematic view of the lower mold part of the present invention;
FIG. 7 is an enlarged view of the invention at B in FIG. 6;
FIG. 8 is a cross-sectional, partial enlarged view of the upper die portion of FIG. 6 in accordance with the present invention;
fig. 9 is a schematic view showing a state of top stamping of a cylindrical section bar according to the present invention;
fig. 10 is a schematic view of the structure of the cylindrical section bar of the present invention after being sequentially punched.
Detailed Description
The following description of the embodiments of the present invention will be made clearly and completely with reference to the accompanying drawings, in which it is apparent that the embodiments described are only some embodiments of the present invention, but not all embodiments. All other embodiments, which can be made by those skilled in the art based on the embodiments of the invention without making any inventive effort, are intended to be within the scope of the invention.
In the description of the present invention, it should be understood that the terms "center", "longitudinal", "lateral", "length", "width", "thickness", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", "clockwise", "counterclockwise", etc. indicate orientations or positional relationships based on the orientations or positional relationships shown in the drawings are merely for convenience in describing the present invention and simplifying the description, and do not indicate or imply that the apparatus or elements referred to must have a specific orientation, be configured and operated in a specific orientation, and thus should not be construed as limiting the present invention. Furthermore, the terms "first," "second," and the like, are used for descriptive purposes only and are not to be construed as indicating or implying a relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defining "a first" or "a second" may explicitly or implicitly include one or more such feature. In the description of the present invention, the meaning of "a plurality" is two or more, unless explicitly defined otherwise.
Example 1
As shown in fig. 1 and 2, a highway protective net bearing component processing apparatus includes:
a powered core piece 100 for inserting a sleeve-like profile and carrying it down to the stamping zone;
a lower die part 200 which is arranged below the power die core piece 100 and sequentially punches the cylindrical profile on the power die core piece 100 from the bottom to the two sides of the bottom;
the positioning parts 300 are arranged on the two sides of the top of the cylindrical section and inquire the middle points of the two sides of the top of the cylindrical section; and
and an upper die part 400 which is arranged above the cylindrical section bar synchronously shifted to the inquiring midpoint of the positioning part 300 and shifts the top of the cylindrical section bar to the original center of the cylindrical section bar by one side for traction and stamping.
From the above, it is found that in the process of producing the anti-blocking block for processing the bearing component of the road protection network, particularly the cylindrical section bar, the cylindrical section bar is directly inserted and sleeved on the power mold core piece 100, and then the bottom-up press forming treatment of the cylindrical section bar without welding is realized.
It should be noted that, when the bottom and two sides of the bottom of the cylindrical section are formed by punching, the power mold core piece 100 moves down onto the lower mold portion 200, then on the lower mold portion 200, the bottom of the cylindrical section is first contacted with the lower mold portion 200, after punching, two sides are moved to punch the bottom two sides of the cylindrical section, so that the material when the cylindrical section is punched into the anti-blocking block is sequentially processed from bottom to top, when the upper mold portion 400 is used for punching, friction between the material and each position of the mold is reduced, and when the upper mold portion 400 is used for punching, since the bottom and two sides of the cylindrical section are far from the upper mold portion 400, the bottom and two sides of the cylindrical section are firstly punched in advance by the lower mold 200, and the punching space for extruding the multi-output section to the upper mold portion 400 can be realized.
It should be further noted that, as shown in fig. 9 and 10, when the top and the top sides of the cylindrical section after the stamping of the lower die portion 200 are stamped, because the extrusion of the excess material is extruded to the space between the top and the top sides of the cylindrical section under the stamping of the lower die portion 200, and the top sides of the cylindrical section are irregularly offset toward a certain side, the offset directions of the top and the top sides of the cylindrical section are located and queried by the locating portion 300, and are located to the midpoint position between the top sides of the cylindrical section, and the initial stamping position of the upper die portion 400 is adjusted according to the midpoint position, and then the top and the top sides of the cylindrical section are stamped by the upper die portion 400 based on the initial stamping position, and when the query center is moved downward, the cylindrical section is gradually moved toward the center point of the power core member 100 just sleeved with the cylindrical section before being stamped, and the center point can be understood as the center point of the top die member 100, so that the top and the top sides of the cylindrical section at the offset positions are pulled, and the top sides of the cylindrical section tend to be stamped by a relatively small amount, and the top sides of the cylindrical section tends to be stamped by a relatively small amount, and the top sides of the top sides tend to be stamped when the top and the top sides are stamped is much more easily.
As shown in fig. 6, the lower mold part 200 includes:
a die holder 21;
a bottom die table 22 elastically installed in the middle of the top of the die seat 21;
side mold tables 23 attached to both sides of the bottom mold table 22 in a sliding manner, wherein the bottom edge of the side mold surface of the side mold table 23 in an initial state is lower than the top mold surface of the bottom mold table 22;
mold table linkage assemblies 24 disposed at both sides of the bottom mold table 22 and configured to move the bottom mold table 22 downward to be linked to the lifting of the side mold table 23; and
and a die table locking unit 25 for locking the die table 22 when the lowered cylindrical profile convex surface contacts the die table 22 and unlocking the die table when the two are completely overlapped.
In this embodiment, in the process that the power mold core piece 100 carries the cylindrical section bar and moves down to the lower mold portion 200, the bottom of the cylindrical section bar contacts the top mold surface of the bottom mold table 22 extending out of the bottom edge of the side mold table 23 in the process of gradually moving down, and when contacting, the mold table locking assembly 25 limits the linkage of the mold table linkage assembly 24, so that the bottom mold table 22 and the side mold table 23 are in a static state, and as the power mold core piece 100 gradually descends, the bottommost part of the cylindrical section bar is stamped first, and after stamping is completed, as the power mold core piece 100 moves down and contacts the mold table locking assembly 25, the mold table locking assembly 25 releases the locking of the mold table linkage assembly 24, and then the bottom mold table 22 is subjected to the pressure of the power mold core piece 100 and moves down through the linkage of the mold table linkage assembly 24, and the side mold table 23 is gradually moved up to stamp the bottom two sides of the cylindrical section bar.
As shown in fig. 7 and 8, the die table linkage assembly 24 includes:
a bottom die rack 241 mounted at the end of the bottom die table 22 and having tooth surfaces at both sides;
a side die rack 242 mounted on the end of the side die table 23 and having a tooth surface on the side corresponding to the bottom die rack 241; and
intermediate gears 243 mounted on the die holder 21 and respectively in driving engagement with the bottom die racks 241 and the side die racks 242.
In this embodiment, the die table linkage assembly 24 is locked by the die table locking assembly 25, the die table 22 under the pressure of the power die core member 100 moves downward, and the downward moving die table 22 moves the die rack 241 downward, so that the linkage intermediate gear 243 drives the side die rack 242, and the side die table 23 connected with the side die rack 242 is driven to move upward, so as to punch the bottom two sides of the cylindrical profile.
As shown in fig. 7 and 8, the die table locking assembly 25 includes:
a cam 251 mounted on the die holder 21 and having a top side abutting against the bottom of the bottom die rack 241;
and the linkage driving assembly 252 is used for driving the cam 251 to rotate by the continuous moving power of the power mold core piece 100 after flattening the bottom of the cylindrical profile on the bottom mold table 22.
In this embodiment, when the die table locking assembly 25 locks the die table linkage assembly 24 and the power die core member 100 gradually moves down to contact with the die table 22, the power die core member 100 gradually contacts the linkage driving assembly 252 along with the bottom of the cylindrical section bar being parallel to the die surface of the die table 22, so that the linkage driving assembly 252 drives the cam 251 to rotate, and the die table 22 connected with the die table rack 241 moves down under the pressure of the power die core member 100 during the continuous rotation of the cam 251 to separate from the bottom of the die table rack 241, so that the die table rack 241 moves upwards in linkage with the side die table 23, and the stamping action is performed on the two sides of the bottom of the cylindrical section bar.
It should be added that the power mold core piece 100 includes a mold core body 11, a power output seat 12, a slide seat 13 slidably mounted on the power output seat 12 and connected to a power end of the power output seat 12, and a pressing seat 14 mounted on two sides of the mold core body 11 and corresponding to the linkage driving assembly 252, where one end of the mold core body 11 is connected to the slide seat 13.
In this embodiment, the power output of the power output seat 12 may be provided by the power of the hydraulic push rod, when the power output seat 12 outputs power, the mold core body 11 moves down to the lower mold portion 200 to complete the punching process of the bottom and two sides of the bottom of the cylindrical section, and when the bottom of the cylindrical section is punched, the pressing seats 14 on two sides of the mold core body 11 contact the linkage driving assembly 252 after the bottom of the cylindrical section is punched, so as to drive the linkage driving assembly 252 to perform the punching process on two sides of the bottom of the cylindrical section.
It is also necessary to supplement that the core body 11 has a prism-like structure with a concave top.
In this embodiment, the top recess is a conventional means for processing a cylindrical profile, and the top recess of the core body 11 is used as a release point for the punched multi-out profile during punching, so that the profile released to the top and both sides of the cylindrical profile after punching by the lower die 200 is finally punched into the top recess, thereby completing the punching process.
As shown in fig. 7 and 8, the linkage driving assembly 252 includes:
a slide bracket 2521 mounted on the die holder 21;
a sliding frame 2522 slidably disposed on the sliding frame 2521 and elastically connected to the sliding frame 2521;
a link gear 2523 provided in the slide frame 2522 and connected to the cam 251;
a linked rack 2524 disposed inside the sliding frame 2522;
a pushing member 2525 movably inserted into the top of the sliding frame 2521 and having a bottom connected to the sliding frame 2522.
In this embodiment, when the linkage driving assembly 252 links the pressing seat 14 on the mold core body 11 moving downward, the pressing seat 14 contacts the pushing seat 2525 and presses the pushing seat 2525 to move downward, so that the sliding frame 2522 is pushed to move downward on the sliding frame 2521, and during the downward movement, the linkage rack 2524 on the sliding frame 2522 rotates with the linkage gear 2523 connected with the cam 251, so that the linkage gear 2523 makes the cam 251 follow rotation, so that during the rotation of the cam 251, the bottom die rack 241 on the top of the cam 251 is unlocked and moves downward, so that the linkage makes the side die table 23 move upward, and the bottom two sides of the cylindrical profile are subjected to punching processing.
It should be noted that the pushing element 2525 includes a push rod 25251 inserted at the top of the sliding frame 2521 and having one end connected to the sliding frame 2522, a first spring 25252 sleeved on the push rod 25251 and connected between the sliding frame 2522 and the sliding frame 2521, and a top seat 25253 disposed at the other end of the push rod 25251 and corresponding to the pressing seat 14.
In this embodiment, in the process of moving the pressing seat 14 downward, the top seat 25253 is pushed to move downward, so that the push rod 25251 pushes the sliding frame 2522 on the sliding support 2521 to move along the guiding direction of the push rod 25251, and at this time, the first spring 25252 is in a stretched state, and after the pressing seat 14 leaves, the first spring 25252 pulls the sliding frame 2522 to move upward to the initial position.
It is further added that, as shown in fig. 7, the linkage driving assembly 252 further includes a bottom elastic assembly 2526 for guiding the bottom side of the sliding frame 2522 on the sliding frame 2521, and the bottom elastic assembly 2526 includes a bottom guide rod 25261 and a second spring 25262 connected between the bottom side of the sliding frame 2522 and the bottom of the sliding frame 2521.
In the present embodiment, by utilizing the elastic action of the bottom elastic component 2526 on the sliding frame 2522, the sliding frame 2522 can be quickly returned to the original position under the combined action of the first spring 25252 after being pressed down by the pressing seat 14.
As shown in fig. 3, the upper mold part 400 includes:
a linkage mount 41 coupled to the power end of the power core piece 100;
a punching power assembly 42 slidably mounted on the linkage mount 41;
an upper die table 43 connected to the power end of the punching power assembly 42; and
and a guide 44 provided on one side of the upper die 43 and guiding the upper die 43 to the original center of the tubular profile.
In this embodiment, in the process of moving down the power mold core piece 100, the linkage support 41 is driven to move down synchronously, and after the bottom and bottom sides of the cylindrical section are stamped on the lower mold 200, the top two sides of the cylindrical section are searched by the positioning portion 300, meanwhile, the upper mold portion 400 is searched by the positioning portion 300 for the middle point positions of the top two sides of the cylindrical section, the linkage makes the upper mold base 43 follow and deviate to the center of the search center as the initial position, then moves down to stamp the top and top two sides of the cylindrical section, in the process of searching the center of the top two sides of the cylindrical section by the positioning portion 300, the stamping power component 42 on the linkage support 41 is pushed to move left and right and to stop following the positioning portion 300 to the position behind the middle point of the cylindrical section, then the initial position of the upper mold base 43 is determined, the stamping power component 42 drives the top and top two sides of the cylindrical section is stamped, and in the process of moving down by the upper mold base 43, and in the process of moving down the upper mold base 43, since the upper mold base 43 does not correspond to the center of the power piece, the upper mold base 43 is gradually guided to the center by the guide portion 44, then the upper mold base 43 is gradually moves down to the center of the guide portion, the top two sides of the cylindrical section is gradually pulled up to the top two sides of the cylindrical section is gradually, and the top two sides of the cylindrical section is correspondingly drawn up to the top side of the cylindrical section is correspondingly, and the top side is correspondingly drawn by the top side of the cylindrical section is gradually and the top side is in the opposite side opposite to the top side of the top side is in the opposite side and has a side opposite drawing amount opposite side amount and is gradually left side opposite side.
It should be added that the punching power assembly 42 includes a punching seat 422, a punching power member 421 mounted on the punching seat 422 and having a power end connected to the upper die table 43, a track slot 411 is formed on one side of the linkage support 41, and one end of the punching seat 422 is slidably mounted in the track slot 411.
In this embodiment, when the positioning portion 300 queries the middle of the top two sides of the cylindrical section, the stamping seat 422 is pulled to move back and forth in the track slot 411 to adjust the position, and in order to better reduce the moving friction of the stamping seat 422, the upper and lower sides of the stamping seat 422 are movably provided with rollers (not shown in the figure) that are in contact with the track slot 411.
As shown in fig. 5, the guide portion 44 includes:
a guide bar 441 having one end connected to the upper die table 43; and
the guide space 442 is provided on the linkage support 41, the width of which is continuously reduced from top to bottom to the width of the guide rod 441, and the other end of the guide rod 441 is inserted into the guide space 442.
In this embodiment, the positioning portion 300 makes the upper die table 43 move along during searching for the middle points of the two sides of the top of the cylindrical section bar, so that the guide rod 441 moves back and forth to adjust the position on the top side of the guide space 442 with a larger width, and after determining that the middle points of the two sides of the top of the cylindrical section bar are completed, the upper die table 43 moves downward under the power of the punching power assembly 42, while the upper die table 43 moves downward, the guide rod 441 gradually moves downward in the guide space 442, and the width of the cavity in the guide space 442 gradually decreases from top to bottom to the width of the guide rod 441, so that the guide rod 441 gradually makes the upper die table 43 move towards the original punching center under the guide action of the inner wall of the guide space 442, so that the deflected sections on the two sides of the top of the cylindrical section bar are pulled towards the original punching center, and the forming effect of the section bar is better.
Example two
As shown in fig. 4, wherein the same or corresponding parts as those in the first embodiment are denoted by the corresponding reference numerals as in the first embodiment, only the points of distinction from the first embodiment will be described below for the sake of brevity. The second embodiment is different from the first embodiment in that: the positioning part 300 includes:
a pushing frame 31 sleeved on the upper die table 43;
the positioning piece 32 is elastically arranged below the pushing frame 31; and
and a storage driving assembly 33 which is arranged on the pushing frame 31 and moves the positioning piece 32 out of the lower part of the upper die table 43.
In this embodiment, the positioning portion 300 gradually increases the amounts of the top and the top of the cylindrical section bar in the process of pressing the bottom and the bottom of the cylindrical section bar on the lower mold portion 200 by moving the power mold core member 100 downward, and then irregularly deflects to one of the two sides, and when the elastic pressing forces of the two sides of the elastically pressed positioning member 32 return to the equal state, the push frame 31 adapts to the recovery state and adjusts the positions left and right, so that the push frame 31 pulls the sleeved upper mold table 43 to adjust the positions back and forth, and the center position of the adjusted upper mold table 43 always coincides with the midpoint position between the positioning members 32 on the two sides of the cylindrical section bar.
Further, the storage driving assembly 33 includes:
an upper die rack 331 mounted on the upper die table 43;
a storage rack 332 movably inserted in the push frame 31;
and a transmission gear 333 mounted on the push frame 31 and respectively engaged with the upper mold rack 331 and the storage rack 332 in a transmission manner.
In this embodiment, when the positioning member 32 is driven to withdraw from the bottom area of the upper die table 43, the storage driving assembly 33 moves down by the upper die table 43, and simultaneously descends by the upper die rack 331 connected to the upper die table 43, and is linked to the transmission gear 333, so that the transmission gear 333 drives the storage rack 332 to move in a direction away from the bottom side of the upper die table 43, and is separated from the bottom punch-down space of the upper die table 43.
More specifically, the positioning member 32 includes:
a positioning rod 321 with one end movably inserted in the storage rack 332;
an elastic member 322 connected between the positioning rod 321 and the storage rack 332; and
and the ball 323 is movably sleeved at the end part of the positioning rod 321 which is contacted with the cylindrical profile.
In this embodiment, when the positioning member 32 inquires the lateral deviation of the top and the bottom sides of the cylindrical section, the positioning rod 321 is abutted against the surfaces of the top and the bottom sides of the cylindrical section through the rotation action of the balls 323, and as the punching action of the bottom and the bottom sides of the cylindrical section proceeds, the excessive amount of the cylindrical section is extruded to the top and the top sides of the cylindrical section, the top and the top sides of the cylindrical section are opened and may incline to one side, and when the positioning rod 321 is inclined, the positioning rod 321 extrudes the accommodating rack 332 to adjust the position, and finally the elastic members 322 on the left and the right sides push the pushing frame 31 to move left and right for adapting to the equal elastic force, so as to adjust the initial position of the upper die table 43.
The working steps are as follows:
step one, bottom stamping, namely, the power mold core piece 100 carries a cylindrical section bar to descend to the lower mold part 200, the upper mold part 400 arranged above the power mold core piece 100 synchronously moves along with the power mold core piece 100, and when the cylindrical section bar moves downwards, the bottom of the cylindrical section bar is contacted with the bottom mold table 22 locked by the mold table locking assembly 25, and then the bottom of the cylindrical section bar is stamped to be parallel to the mold surface of the bottom mold table 22 along with the continuous downward movement of the power mold core piece 100;
step two, stamping at two sides of the bottom, when the power mold core piece 100 moves to a state that the bottom of the cylindrical section is parallel to the bottom mold table 22, the power mold core piece 100 continuously downwards triggers the mold table locking assembly 25 to unlock the mold table linkage assemblies 24 at two sides of the bottom mold table 22, so that the bottom mold table 22 is downwards moved by the downward power of the power mold core piece 100, and when moving, the side mold table 23 is upwards moved by unlocking the mold table linkage assemblies 24, and gradually released and gradually stamped with the two sides of the bottom of the cylindrical section, so that the two sides of the bottom of the cylindrical section are parallel to the mold surface of the side mold table 23;
step three, top stamping inquiry, namely, in the process that the bottom and the bottom sides of a tubular section bar are stamped by a power mold core piece 100 on a lower mold 200, the excessive output of the section bar is extruded to the top and the top sides of the tubular section bar, the tubular section bar is supported and is not regularly biased to one side under the extrusion of the excessive output section bar, and when the tubular section bar is biased to one side, the positioning part 300 is abutted through the elasticity of a positioning piece 32, and when the elastic components of the positioning piece 32 on the left side and the right side of the tubular section bar tend to be in an equal state, a pushing frame 31 connected with the positioning piece 32 pushes an upper mold table 43 to correspondingly adjust the position on a linkage support 41 through a stamping power component 42, so that the center point between the positioning rods 32 coincides with the initial stamping center when the upper mold table 43 is stamped;
step four, after the initial position of the upper die table 43 is determined, the upper die table 43 is driven by the stamping power component 42 to move downwards, and in the moving process, the upper die table 43 gradually moves towards the original stamping center while stamping under the guiding action of the guiding part 44, so that when the two sides of the top of the cylindrical section bar which is pulled to one side to be laterally deviated are stamped by the upper die table 43, the top of the cylindrical section bar is pulled to the original stamping center, and the left and right sides of the cylindrical section bar which is laterally deviated at the top are stamped in a corresponding state;
step five, the stamping is linked, in the process of downward stamping movement of the upper die table 43, the upper die table 43 is linked to store the driving assembly 33, so that the positioning piece 32 moves towards two sides, and the positioning piece 32 withdraws from the stamping power space where the upper die table 43 moves downwards while the upper die table 43 moves downwards.
It should be noted that the above steps are only one of the sub-steps in the processing process of the anti-blocking block by the processing equipment of the road protection network bearing component, and further include sleeving the cylindrical section bar on the power mold core piece 100 in the initial state before the upper mold part 400 and the lower mold part 200 before punching, wherein, the sleeving manner such as manual transportation or equipment transportation can be adopted; and after the block is stamped, the block is quickly removed from the power core piece 100 by the blanking machine.
The foregoing description of the preferred embodiments of the invention is not intended to be limiting, but rather is intended to cover all modifications, equivalents, and alternatives falling within the spirit and principles of the invention.

Claims (9)

1. The utility model provides a highway protection network load-carrying member processing equipment which characterized in that includes:
a powered core piece (100) for inserting the sleeve-like profile and carrying it down to the stamping zone;
a lower die part (200) which is arranged below the power die core piece (100) and sequentially punches the cylindrical section bar on the power die core piece (100) from the bottom to the two sides of the bottom;
the positioning parts (300) are arranged on two sides of the top of the cylindrical section and are used for inquiring the middle points of the two sides of the top of the cylindrical section; and
an upper die part (400) which is arranged above the cylindrical section bar synchronously shifted to the inquiring midpoint of the positioning part (300) and shifts the top of the cylindrical section bar to one side of the original center of the cylindrical section bar for traction and stamping;
the lower die part (200) comprises:
a die holder (21);
a bottom die table (22) elastically mounted in the middle of the top of the die seat (21);
side mold tables (23) which are adhered to two sides of the bottom mold table (22) in a sliding manner, wherein the bottom edge of a side mold surface of the side mold table (23) in an initial state is lower than the top mold surface of the bottom mold table (22);
a die-table linkage assembly (24) which is arranged at both sides of the bottom die table (22) and links the lower movement of the bottom die table (22) to the lifting of the side die table (23); and
and a die table locking unit (25) for locking the die table (22) when the lowered cylindrical profile convex surface is contacted with the die table (22) and unlocking the die table when the two are completely overlapped.
2. The highway protective network load bearing member processing apparatus as claimed in claim 1, wherein the die table linkage assembly (24) comprises:
a bottom die rack (241) which is arranged at the end part of the bottom die table (22) and has tooth surfaces at both sides;
a side die rack (242) mounted on the end of the side die table (23) and having a tooth surface on the side corresponding to the bottom die rack (241); and
and an intermediate gear (243) which is arranged on the die seat (21) and is respectively in transmission engagement with the bottom die rack (241) and the side die rack (242).
3. A highway protective network load bearing member processing apparatus according to claim 2, wherein the die station locking assembly (25) comprises:
a cam (251) mounted on the die base (21) and having a top side abutting against the bottom of the bottom die rack (241); and the linkage driving assembly (252) is used for driving the cam (251) to rotate by the continuous moving power of the power mold core piece (100) after flattening the bottom of the cylindrical section on the bottom mold table (22).
4. A highway protective network load bearing member processing apparatus as claimed in claim 3, wherein the linkage drive assembly (252) comprises:
a slide bracket (2521) mounted on the die holder (21);
a slide frame (2522) slidably provided on the slide holder (2521) and elastically connected to the slide holder (2521);
a link gear (2523) provided in the slide frame (2522) and connected to the cam (251);
a linked rack (2524) arranged on the inner side wall of the sliding frame (2522);
and a pushing piece (2525) which is movably inserted into the top of the sliding bracket (2521) and the bottom of which is connected with the sliding frame (2522).
5. The highway protective network load bearing member processing apparatus as claimed in claim 1, wherein the upper die portion (400) comprises:
a linkage support (41) connected to the power end of the power core piece (100);
a punching power assembly (42) slidably mounted on the linkage mount (41);
an upper die table (43) connected with the power end of the stamping power component (42); and
and a guide part (44) which is arranged on one side of the upper die table (43) and guides the upper die table (43) which is offset to one side to the original center of the cylindrical section bar.
6. The highway protective network load bearing member processing apparatus as claimed in claim 5, wherein the guide (44) comprises:
a guide rod (441) having one end connected to the upper die table (43); and
and the guide space (442) is arranged on the linkage support (41) and the width dimension of the guide space is continuously reduced from top to bottom to the width dimension of the guide rod (441), and the other end of the guide rod (441) is inserted into the guide space (442).
7. The highway protective network bearing component processing apparatus according to claim 5, wherein the positioning portion (300) includes:
a pushing frame (31) sleeved on the upper die table (43);
a positioning piece (32) which is elastically arranged below the pushing frame (31); and
and a storage driving assembly (33) which is arranged on the pushing frame (31) and moves the positioning piece (32) out of the lower part of the upper die table (43) in a stamping mode.
8. The highway protective network load bearing member processing apparatus as claimed in claim 7, wherein the storage drive assembly (33) comprises:
an upper die rack (331) mounted on the upper die table (43);
a storage rack (332) movably inserted in the push frame (31);
and a transmission gear (333) which is arranged on the pushing frame (31) and is respectively in transmission engagement with the upper die rack (331) and the storage rack (332).
9. The highway protective network load bearing member processing apparatus as claimed in claim 8, wherein the positioning member (32) comprises:
a positioning rod (321) with one end movably inserted into the storage rack (332);
an elastic member (322) connected between the positioning rod (321) and the storage rack (332); and
and the ball (323) is movably sleeved at the end part of the positioning rod (321) which is contacted with the cylindrical section bar.
CN202111264239.6A 2021-10-28 2021-10-28 Processing equipment for bearing parts of highway protective net Active CN114054563B (en)

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* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
CN114951380A (en) * 2022-07-28 2022-08-30 江苏兴锻智能装备科技有限公司 Square tube stand column block-proof processing machine tool for traffic highway engineering

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CN213469310U (en) * 2020-09-30 2021-06-18 苏州工业园区盛善发精密机械有限公司 Die carrier for QDC hardware die
CN213728924U (en) * 2020-11-21 2021-07-20 重庆合众电气工业有限公司 Centrifugal central air conditioning motor rotor punching die

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JPH0584530A (en) * 1991-09-27 1993-04-06 Honda Motor Co Ltd Positioning device for press die
CN206464351U (en) * 2017-01-26 2017-09-05 郝鑫颖 A kind of wheel hub manufacturing equipment
CN109261842A (en) * 2018-07-27 2019-01-25 江西世普精密科技有限公司 One kind using stamping equipment for C-shaped sealing ring production
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