An ultra-low energy consumption door and window component combined processing device

Abstract

The present invention discloses an ultra-low energy consumption door and window component combined processing device, which relates to the technical field related to the construction and production of doors and windows, and comprises a workbench and a conveying mechanism arranged on the workbench; four workstations are arranged in sequence along the circumferential direction of the workbench, and the four workstations are: a loading station, a cutting station, a grinding station and a unloading station; four groups of clamping pieces are arranged in sequence along the circumferential direction of the conveying mechanism, and at the loading station, each group of clamping pieces clamps and fixes the profile on the conveying mechanism, and the conveying mechanism drives the profile to intermittently pass through the cutting station, the grinding station and the unloading station in sequence.

Description

Technical Field

[0001] The invention relates to the technical field related to door and window construction and production, and in particular to an ultra-low energy consumption door and window component assembly processing device. Background Art

[0002] As is known to all, door and window components refer to the various parts that make up doors and windows, including the main frame, glass, sealing strips, hardware accessories, etc. The main frame is used to support the structural part of the entire door and window, usually made of aluminum alloy, plastic steel or wood; glass provides light transmittance, heat insulation and sound insulation; sealing strips are used to increase the airtightness of doors and windows and prevent air and water penetration, usually made of rubber or other flexible materials; hardware accessories, including hinges, locks, pulleys, etc., are used to connect and operate doors and windows.

[0003] The main frame is the basic structural part of the doors and windows, responsible for supporting the weight of the entire doors and windows and ensuring their stability. It is mainly composed of two side frames and two cross frames alternately spliced ​​together, and the adjacent side frames and cross frames are connected by connectors. For the side frames and cross frames, both are profiles cut by fixed lengths and fixed angles. For example, the invention patent with publication number CN117773500A and publication date March 29, 2024, entitled "A Method and Device for Processing Aluminum Alloy Doors and Windows", relates to a method for processing aluminum alloy doors and windows, comprising the following steps: Step S1, use a strip threading device to thread insulation strips on aluminum alloy window profiles; Step S2, use an aluminum alloy door and window processing device to synchronously and symmetrically cut the aluminum alloy window profiles after the strip threading; Step S3, assemble the aluminum alloy window profiles of different lengths after the corner cutting by assembling connectors; Step S4, complete the assembly of the aluminum alloy window profiles after the corner assembly and install the window sashes. A processing device for aluminum alloy doors and windows is also provided, comprising a support column; two support frames, which are symmetrically arranged along the central axis of the support column; a clamping mechanism, which is radially arranged at the top of the support column; and two cutting mechanisms, which are arranged at the tops of the corresponding support frames. The present invention can synchronously perform bilateral symmetrical angle cutting on the aluminum alloy window profile after the strip is passed, thereby reducing the angle cutting processing steps of the aluminum alloy window profile, reducing the work intensity of the staff, and also improving the processing efficiency.

[0004] The shortcoming of the existing technology is that when the main frames of doors and windows are produced, the profiles need to be cut, and burrs will be generated on the rear end surface after cutting. These burrs will affect the fit of adjacent side frames and cross frames. Therefore, the burrs on the end surface of the profiles need to be cleaned. However, the existing production of main frames of doors and windows has poor linkage between profile cutting and burr removal after cutting. Summary of the invention

[0005] The purpose of the present invention is to provide an ultra-low energy consumption door and window component assembly processing device to solve the technical problems in the related art.

[0006] In order to achieve the above object, the present invention provides the following technical solutions:

[0007] An ultra-low energy consumption door and window component combined processing device comprises a workbench and a conveying mechanism arranged on the workbench; four workstations are arranged in sequence along the circumferential direction on the workbench, and the four workstations are: a loading station, a cutting station, a grinding station and a unloading station; four groups of clamping pieces are arranged in sequence along the circumferential direction on the conveying mechanism, and at the loading station, each group of clamping pieces clamps and fixes the profile on the conveying mechanism, and the conveying mechanism drives the profile to intermittently pass through the cutting station, the grinding station and the unloading station in sequence.

[0008] As mentioned above, the conveying mechanism includes a main shaft rotatably arranged on a workbench, two plates are arranged at both ends of the main shaft, a disc is fixedly connected to each plate, and each group of clamping members has two, one is arranged on each of the two discs.

[0009] As mentioned above, a plurality of slideways are provided on the main shaft along the circumferential direction, the length direction of the slideways is parallel to the axial direction of the main shaft, and two slide rods are slidably provided in each slideway, and each disk body is connected to four slide rods correspondingly. The two plate bodies are controlled to move relative to each other in the axial direction by a screw transmission mechanism, and the distance dimension between the plate body and the connected disk body is the same as the length dimension that needs to be cut off at the end of each profile.

[0010] As mentioned above, each of the plate bodies is provided with a loading channel corresponding to the loading station and a unloading channel corresponding to the unloading station; the loading channel and the unloading channel are arranged at an angle, and after the profile to be processed enters the loading channel, it slides along the inclined direction to the loading station and is clamped by the clamping member, and the processed profile is breaking away from the clamping member at the unloading station and slides down along the unloading channel.

[0011] As mentioned above, the clamping member includes clamping rods arranged in sequence in the circumferential direction of the corresponding disk body, the clamping rods are slidably arranged between the disk body, and in the sliding direction, a first elastic member is provided between the disk body and the clamping rods, and the disk body is also provided with a block body that cooperates with each clamping rod to clamp the profile, and the block body is convex at the edge of the disk body, and a push rod is arranged on the feeding channel, and a locking member is also provided on the disk body; in the intermittent rotation stroke of the disk body, based on the extrusion effect of the push rod, the clamping rod slides and cooperates with the block body to clamp the profile, and after the profile is clamped, the locking member locks the position of the clamping rod; when the profile reaches the unloading station after processing, the locking member releases the lock on the clamping rod.

[0012] As mentioned above, the clamping rod is in an arc-shaped structure. During the travel in which the profile is squeezed by the push rod to push one end of the clamping rod, the other end of the clamping rod cooperates with the block to clamp the profile.

[0013] As mentioned above, the ends of the clamping rod and the block that cooperate to clamp the profile are made of rubber material.

[0014] As mentioned above, the end of the clamping rod and the block that cooperate to clamp the profile is in the shape of an elongated strip, and the length direction points to the center of the clamping rod.

[0015] As mentioned above, the feeding channel includes an entry section, a removal section and a placement section. The entry section and the removal section are arranged in a V shape, and the placement section is located at the junction of the two. A baffle is swingably provided at the placement section. One end of the push rod is arranged on the removal section, and the other end is arranged on the baffle. When the baffle blocks the entry section, support is provided for the profile to enter the removal section from the placement section. When the baffle blocks the removal section, the profile enters the placement section along the entry section.

[0016] As mentioned above, the push rod includes an elastic layer and a plurality of inelastic layers, and the plurality of inelastic layers are evenly arranged on the elastic layer along the track direction. When the baffle blocks the entry section, the plurality of inelastic layers abut against each other in sequence to form an extrusion support for the profile. When the baffle blocks the exit section, the elastic layer bends to provide power for the baffle to be reset.

[0017] The beneficial effect of the present invention is that by integrating cutting and grinding on the circumferential motion path of the conveying mechanism, each profile can be cut and ground in turn under the drive of the conveying mechanism, and the conveying mechanism is provided with clamping parts consistent with the number of workstations, so that when the previous profile is cut, the next profile can be loaded, or when the previous profile is being ground off the burrs, the next profile is being cut, so that the linkage between profile cutting and grinding can be effectively improved, thereby improving the production efficiency of door and window components. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the embodiments of the present application or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments recorded in the present invention. For ordinary technicians in this field, other drawings can also be obtained based on these drawings.

[0019] Figure 1 It is a schematic diagram of the planar structure of an ultra-low energy consumption door and window component assembly processing device provided in an embodiment of the present invention;

[0020] Figure 2 It is a schematic diagram of the planar structure of the first state when the conveying mechanism of the ultra-low energy consumption door and window component assembly processing device provided in an embodiment of the present invention drives the profile to intermittently move in the circumferential direction;

[0021] Figure 3 for Figure 2 A is an enlarged structural diagram;

[0022] Figure 4It is a schematic diagram of the planar structure of the second state when the conveying mechanism of the ultra-low energy consumption door and window component assembly processing device provided in an embodiment of the present invention drives the profile to intermittently move in the circumferential direction;

[0023] Figure 5 for Figure 4 The enlarged structural diagram at B in FIG.

[0024] Figure 6 A schematic diagram of the planar structure of a top rod of an ultra-low energy consumption door and window component assembly processing device provided in an embodiment of the present invention when a baffle is blocking an entry section;

[0025] Figure 7 It is a schematic diagram of the planar structure of the push rod of an ultra-low energy consumption door and window component combination processing device provided in an embodiment of the present invention when the baffle is blocking the entry and exit section.

[0026] Description of reference numerals:

[0027] 1. Workbench; 2. Cutting mechanism; 3. Grinding mechanism; 4. Spindle; 5. Plate body; 6. Disc body; 7. Slideway; 8. Slide rod; 9. Loading channel; 90. Entry section; 91. Removal section; 92. Placement section; 10. Unloading channel; 11. Clamping rod; 12. Block; 13. Push rod; 130. Elastic layer; 131. Non-elastic layer; 14. Rod body; 15. Locking teeth; 16. Locking rod; 17. Recessed portion; 18. Baffle; 19. Profile. DETAILED DESCRIPTION

[0028] In order to enable those skilled in the art to better understand the technical solution of the present invention, Figure 1 To Attachment Figure 7 The present invention is further described in detail.

[0029] An embodiment of the present invention provides an ultra-low energy consumption door and window component combination processing device, including a workbench 1 and a conveying mechanism arranged on the workbench 1; four workstations are arranged in sequence along the circumferential direction on the workbench 1, and the four workstations are: a loading station, a cutting station, a grinding station and a unloading station; four groups of clamps are arranged in sequence along the circumferential direction on the conveying mechanism, and at the loading station, each group of clamps clamps and fixes the profile 19 on the conveying mechanism, and the conveying mechanism drives the profile 19 to intermittently pass through the cutting station, the grinding station and the unloading station in sequence.

[0030] Specifically, there are many types of door and window components. The combined processing device involved in this embodiment processes one of the components, namely the main frame of the door and window, which is formed by two side frames and two cross frames arranged alternately and spliced ​​end to end, such as the common rectangular structure. When making the main frame, the profile 19 needs to be cut to a fixed length, and the cut end face needs to be polished and deburred after cutting. The end face of the fixed-length cut is wedge-shaped, and the cutting mechanism 2 should be adjusted according to the required shape of the cut end face. The deburring process can ensure that the adjacent side frames and cross frames fit better when spliced. In the prior art, the linkage between the cutting of the profile 19 and the removal of burrs after cutting is poor, that is, the cutting of the profile 19 and the removal of burrs on the end face are performed on two devices, which obviously has an adverse effect on the production efficiency of the door and window components.

[0031] Therefore, in this embodiment, four workstations are arranged on the workbench 1, and the four workstations are arranged in sequence in a clockwise direction. If each workstation occupies a quarter of a circle, the conveying mechanism drives each profile 19 to enter a certain workstation and stops after moving a certain distance. The conveying mechanism performs intermittent rotation in a clockwise direction (an intermittent rotation mechanism such as a groove wheel mechanism can be realized, which is the prior art and will not be repeated). The conveying mechanism is provided with four groups of clamps corresponding to the number of workstations, and each group of clamps clamps a profile 19. In the initial state, each clamp corresponds to a workstation.

[0032] That is, during operation, the conveying mechanism drives the four groups of clamps to move intermittently in a circumferential direction:

[0033] In the first step, the first profile 19 is placed at the loading station, the first group of clamps clamps the first profile 19, the conveying mechanism rotates for the first time, the clamped profile 19 arrives at the cutting station, the second group of clamps arrives at the loading station, the cutting station is provided with a cutting mechanism 2, the cutting mechanism 2 cuts both ends of the profile 19 at the same time, and at the same time the second group of clamps clamps the second profile 19 at the loading station;

[0034] In the second step, after the first profile 19 is cut, the conveying mechanism rotates for the second time, the first profile 19 arrives at the grinding station, the second profile 19 arrives at the cutting station, and the third profile 19 is clamped by the third group of clamps. The grinding mechanism 3 set at the grinding station grinds and deburrs the cut end surface of the first profile 19, and the cutting mechanism 2 cuts both ends of the second profile 19 at the same time;

[0035] In the third step, the first profile 19 is polished, the second profile 19 is cut, the conveying mechanism rotates for the third time, the first profile 19 arrives at the unloading station, the second profile 19 arrives at the polishing station, the polishing mechanism 3 polishes and deburrs the cut end surface of the second profile 19, the third profile 19 arrives at the cutting station, the cutting mechanism 2 simultaneously cuts both ends of the third profile 19, and the fourth profile 19 is clamped by the fourth group of clamps at the loading station;

[0036] Step 4: After the first profile 19 is unloaded, the first group of clamps arrives at the loading station, the second profile 19 arrives at the unloading station, the third profile 19 arrives at the grinding station, the grinding mechanism 3 performs grinding and deburring on the cut end surface of the third profile 19, the fourth profile 19 arrives at the cutting station, the cutting mechanism 2 simultaneously cuts both ends of the fourth profile 19, and the fifth profile 19 is clamped by the first group of clamps at the loading station;

[0037] By continuing to perform the above steps, the profiles 19 can be cut and polished in batches.

[0038] The beneficial effect of the present invention is that by integrating cutting and grinding on the circumferential motion path of the conveying mechanism, each profile can be cut and ground in turn under the drive of the conveying mechanism, and the conveying mechanism is provided with clamping parts consistent with the number of workstations, so that when the previous profile 19 is cut, the next profile 19 can be loaded, or when the previous profile 19 is being ground off the burrs, the next profile 19 is being cut, so that the linkage between the cutting and grinding of the profile 19 can be effectively improved, thereby improving the production efficiency of door and window components.

[0039] Preferably, the conveying mechanism includes a main shaft 4 rotatably arranged on the workbench 1, two plates 5 are arranged at both ends of the main shaft 4, each plate 5 is fixedly connected to a disk 6, and each group of clamps has two clamps, one is arranged on each of the two disks 6.

[0040] Specifically, the main shaft 4 is connected to the power output end of the intermittent transmission mechanism to drive each profile 19 to perform intermittent circumferential motion. The two clamping members of each group are arranged one on each of the two disks 6, and their positions correspond to each other in the axial direction of the main shaft 4 so as to clamp the same profile together.

[0041] Furthermore, a plurality of slideways 7 are provided on the main shaft 4 along the circumferential direction, the number of the plurality of slideways 7 is the same as the number of workstations, the length direction of the slideway 7 is parallel to the axial direction of the main shaft 4, and two slide rods 8 are slidably provided in each slideway 7, and each disk body 6 is connected to four slide rods 8, and the relative movement of the two plate bodies 5 in the axial direction is controlled by a screw transmission mechanism, and the distance dimension between the plate body 5 and the connected disk body 6 is the same as the length dimension that needs to be cut off at the end of each profile.

[0042] Specifically, the two plates 5 are controlled by a cylinder to move correspondingly in the axial direction, so the distance between the two plates 5 can be set to be the same as the length of the profile 19 to be processed, and the distance between the plate 5 and the connected disk 6 can be set to be the same as the length that needs to be cut off at the end of each profile 19. This eliminates the need to adjust the distance between the cutting tools of the two cutting mechanisms 2 corresponding to the two ends of the profile 19. The four sliding rods 8 connected to each disk 6 slide in their respective corresponding slideways 7, which can provide guiding stability for the plate 5 to push the disk 6 to move.

[0043] Preferably, each of the plate bodies 5 is provided with a loading channel 9 corresponding to the loading station and a unloading channel 10 corresponding to the unloading station; the loading channel 9 and the unloading channel 10 are arranged at an angle, and the profile to be processed enters the loading channel 9 and slides along the inclined direction to the loading station and is clamped by the clamping member, and the processed profile is detached from the clamping member at the unloading station and slides along the unloading channel 10.

[0044] Specifically, the loading channel 9 can facilitate the staff to place the profiles on the loading station from a distance, and can prevent the staff from being too close to the combined processing device of this embodiment, thereby ensuring operation safety. The unloading channel 10 can directly transport the processed profiles over a long distance, which is relatively safe for the staff's material collection operation.

[0045] Further, the clamping member includes clamping rods 11 arranged in sequence in the circumferential direction of the corresponding disc body 6, the clamping rods 11 are arranged to slide between the disc body 6, and in the sliding direction, a first elastic member is provided between the disc body 6 and the clamping rods 11, and the disc body 6 is also provided with a block 12 that cooperates with each clamping rod 11 to clamp the profile, and the block 12 is convex at the edge of the disc body 6, and a push rod 13 is arranged on the feeding channel 9, and a locking member is also provided on the disc body 6. Parts; in the intermittent rotation stroke of the disk body 6, based on the extrusion effect of the push rod 13, the clamping rod 11 slides and cooperates with the block 12 to clamp the profile. After the profile is clamped, the locking member locks the position of the clamping rod 11; when the profile reaches the unloading station after processing, the locking member releases the lock on the clamping rod 11; the clamping rod 11 is an arc-shaped structure. In the stroke in which the profile is squeezed by the push rod 13 and one end of the clamping rod 11 is pushed, the other end of the clamping rod 11 cooperates with the block 12 to clamp the profile.

[0046] Specifically, for the clamping of each profile at the loading station, the clamping member can be active or passive. In the present embodiment, based on the circumferential intermittent rotation of the disc body 6, the clamping member adopts a passive method to clamp each profile to be processed. This can reduce the use of the driving source to reduce the energy consumption in the profile processing process. That is, the clamping rod 11 included in the clamping member has an arc-shaped structure, which moves circumferentially on the corresponding disc body 6 with its own central axis as the axis of rotation. When the profile is not clamped, based on the elastic force of the first elastic member, one end of the clamping rod 11 is basically aligned with the edge of the disc body 6, wherein the push rod 13 has an arc-shaped structure, and its arc-arched side faces the disc body 6. During the circumferential movement of each clamping rod 11 driven by the disc body 6 In the process, the other end of the clamping rod 11 will not contact the profile when entering the loading station. When the disc body 6 drives the clamping rod 11 to move circumferentially in the loading station, after the block 12 contacts the profile, it will push the profile, that is, the profile will move with the block 12 at this time. After the profile contacts the push rod 13, the push rod 13 has an extrusion effect on the profile, so that the profile has an extrusion effect on one end of the clamping rod 11, then one end of the clamping rod 11 gradually retracts into the disc body 6, and the other end gradually extends out of the disc body 6 until the other end abuts against the profile, and then cooperates with the block 12 to clamp the profile. After the profile is clamped, the locking member locks the position of the clamping rod 11 to prevent the clamping rod 11 from moving in the opposite direction due to the rebound force of the first elastic member and failing to lock the profile.

[0047] Therefore, in a preferred embodiment, the locking member includes a rod body 14 fixed to the workbench 1, the spindle 4 is sleeved on the rod body 14, and each clamping rod 11 is arranged with a plurality of locking teeth 15, and the plurality of locking teeth 15 are arranged in sequence on the trajectory of the clamping rod 11, and each slide bar 8 is slidably arranged on the disk body 6, and in the sliding direction, a second elastic member is provided between the slide bar 8 and the disk body 6, and under the elastic force of the second elastic member, the slide bar 8 has a tendency to always approach the center line of the spindle 4, and four locking plug rods 16 are also slidably provided on the disk body 6, and each slide bar 8 corresponds to a locking plug rod 16, and each locking plug rod 16 corresponds to a clamping rod 11, and each locking plug rod 16 can be connected with the corresponding The locking teeth 15 on the position clamping rod 11 cooperate with the insertion to lock the position of the clamping rod 11, and a third elastic member is provided between the slide bar 8 and the corresponding locking plug rod 16, and a recessed portion 17 is provided on the rod body 14, and the recessed portion 17 corresponds to the blanking station. When the slide bar 8 corresponds to the recessed portion 17, the slide bar 8 drives the corresponding locking plug rod 16 away from the clamping rod 11 through the third elastic member, and the locking plug rod 16 is disengaged from the corresponding locking teeth 15. Then, the clamping rod 11 corresponding to the locking teeth 15 is reset under the action of the rebound force of the first elastic member, and the profile 19 at the blanking station enters the blanking channel 10, and the other parts of the slide bar 8 and the rod body 14 except the recessed portion 17 When corresponding, the slide bar 8 is squeezed by the rod body 14, so that the slide bar 8 drives the corresponding locking rod 16 to be plugged into the locking teeth 15 through the third elastic member. The rebound force of the first elastic member causes the clamping rod 11 and the corresponding block 12 to remove the clamping of the profile. When clamping the profile, the clamping rod 11 has to move again due to the squeezing of the profile. Therefore, the matching plug-in mode between the locking teeth 15 and the locking rod 16 is similar to the ratchet pawl mechanism, that is, when the locking rod 16 is plugged into the corresponding locking teeth 15, the unidirectional movement restriction of the clamping rod 11 can be achieved. For example, when clamping the profile, the clamping rod 11 needs to rotate counterclockwise. Under the rebound force of the first elastic member, the clamping rod 11 can be locked. Under the action of the first elastic member, the clamping rod 11 rotates clockwise. At this time, there is no wedge fit between the locking teeth 15 and the locking rod 16, and the extrusion action cannot be achieved, and the third elastic member cannot be squeezed. In this way, the clamping rod 11 in the corresponding position is locked, so that after the profile is clamped at the loading station, it remains clamped at the cutting station and the grinding station.

[0048] Preferably, the ends of the clamping rod 11 and the block 12 that cooperate to clamp the profile are made of rubber material; specifically, the ends of the rubber material can undergo elastic deformation, thereby expanding the contact surface with the profile, and cooperating with the locking rod 16 and the locking teeth 15, based on the elastic deformation, the locking rod 16 and the locking teeth 15 are tightly matched, avoiding the problem that the locking rod 16 can move back and forth between adjacent locking teeth 15, thereby ensuring that the profile is firmly clamped.

[0049] Preferably, the ends of the clamping rod 11 and the block 12 that cooperate to clamp the profile are in the shape of long strips, and the length direction points to the center of the clamping rod 11; specifically, the cross-section of the profile is generally a rectangular structure, and its cross-sectional size varies according to actual use. Therefore, the ends of the clamping rod 11 and the block 12 that cooperate to clamp the profile are in the shape of long strips. When processing profiles of different specifications, the clamping rod 11 can cooperate with the block 12 to clamp the profile.

[0050] Furthermore, the feeding channel 9 includes an entry section 90, a removal section 91 and a placement section 92. The entry section 90 and the removal section 91 are arranged in a V shape, and the placement section 92 is located at the junction of the two. A baffle 18 is swingably provided at the placement section 92. One end of the push rod 13 is arranged on the removal section 91, and the other end is arranged on the baffle 18. When the baffle 18 blocks the entry section 90, it provides support for the profile to enter the removal section 91 from the placement section 92. When the baffle 18 blocks the removal section 91, the profile enters the placement section 92 along the entry section 90; the push rod 13 includes an elastic layer 130 and a plurality of inelastic layers 131. The plurality of inelastic layers 131 are evenly arranged on the elastic layer 130 along the trajectory direction. When the baffle 18 blocks the entry section 90, the plurality of inelastic layers 131 are sequentially abutted to form an extrusion support for the profile. When the baffle 18 blocks the removal section 91, the elastic layer 130 bends to provide power for the reset of the baffle 18.

[0051] Specifically, in order to facilitate the pre-placement of the next profile at the loading station after the previous profile is clamped, in this embodiment, the loading channel 9 is divided into an entry section 90, a removal section 91 and a placement section 92. The entry section 90 and the removal section 91 are arranged in a V shape, and the placement section 92 is located at the junction of the two. The entry section 90 is inclined and points to the placement section 92. The placement section 92 and the removal section 91 are in an arc shape, and the center of the circle is on the central axis of the main shaft 4. The baffle 18 is swingably set in the placement section 92, and the profile is placed in the entry section. After the profile passes through the placement section 90, it slides to the placement section 92 along the inclined direction. During this process, the baffle 18 is squeezed and swung by the profile to remove the blockage of the entry section 90. When the block 12 pushes the profile to move from the placement section 92 to the removal section 91, the next profile is not placed in the entry section 90 at this time. The baffle 18 swings in the opposite direction to block the entry section 90, and the baffle 18 is in an arc-shaped structure, providing an arc-shaped transition and support for the profile to enter the removal section 91 from the placement section 92. When the baffle 18 removes the blockage of the entry section 90, it is squeezed by the profile. When the profile needs to enter the removal section 91 from the placement section 92, the baffle 18 needs to swing in the opposite direction to block the entry section 90. Therefore, in this embodiment, the push rod 13 is configured as an elastic layer 130 and a plurality of inelastic layers 131. The plurality of inelastic layers 131 are evenly arranged on the elastic layer 130 along the track direction. When the baffle 18 blocks the entry section 90, the plurality of inelastic layers 131 abut against each other in sequence to form an extrusion support for the profile. When the baffle 18 blocks the removal section 91 (that is, when the blockage of the entry section 90 is removed), the elastic layer 131 is pressed against the profile. The bending of 130 provides power for the reset of the baffle 18. Then, when the profile needs to enter the removal section 91 from the placement section 92, the baffle 18 can swing in the opposite direction under the action of the rebound force of the elastic layer 130 to block the entry section 90. When several non-elastic layers 131 are successively abutted to form an extrusion support for the profile, the baffle 18 blocks the entry section 90. At this time, the next profile can be placed in the entry section 90. When the previous profile leaves the loading station, the next profile can squeeze the baffle 18 and enter the placement section 92 to wait to be clamped.

[0052] The above description is only by way of illustration of certain exemplary embodiments of the present invention. It is undoubted that those skilled in the art can modify the described embodiments in various ways without departing from the spirit and scope of the present invention. Therefore, the above drawings and descriptions are illustrative in nature and should not be construed as limiting the scope of the protection of the present invention.

Claims

1. An ultra-low energy consumption door and window component assembly processing device, characterized in that: It includes a workbench and a conveying mechanism arranged on the workbench; The workbench is provided with four workstations arranged in sequence along the circumference, and the four workstations are: a loading station, a cutting station, a grinding station and a unloading station; The conveying mechanism is provided with four groups of clamping members in sequence along the circumferential direction. At the loading station, each group of clamping members clamps and fixes the profile on the conveying mechanism. The conveying mechanism drives the profile to intermittently pass through the cutting station, the grinding station and the unloading station in sequence. The conveying mechanism comprises a main shaft rotatably arranged on a workbench, two plates are arranged at both ends of the main shaft, a disc is fixedly connected to each plate, and each set of clamping members has two, one is arranged on each of the two discs; The main shaft is provided with a plurality of slideways along the circumference, the length direction of the slideways is parallel to the axial direction of the main shaft, and two slide bars are slidably arranged in each slideway, and each disc body is connected to four slide bars, and the two plate bodies are controlled to move relative to each other in the axial direction by a screw transmission mechanism, and the distance dimension between the plate body and the connected disc body is the same as the length dimension that needs to be cut off at the end of each profile; Each of the plate bodies is provided with a loading channel corresponding to the loading station and a unloading channel corresponding to the unloading station; the loading channel and the unloading channel are arranged obliquely, and the profile to be processed enters the loading channel and slides along the oblique direction to the loading station to be clamped by the clamping member, and the processed profile is released from the clamping member at the unloading station and slides along the unloading channel; The clamping member includes clamping rods arranged in sequence in the circumferential direction of the corresponding disc body, the clamping rods are slidably arranged between the disc body, and a first elastic member is provided between the disc body and the clamping rod in the sliding direction, the disc body is also provided with a block body that cooperates with each clamping rod to clamp the profile, the block body is convex at the edge of the disc body, a push rod is arranged on the feeding channel, and a locking member is also provided on the disc body; in the intermittent rotation stroke of the disc body, based on the extrusion effect of the push rod, the clamping rod slides and cooperates with the block body to clamp the profile, and after the profile is clamped, the locking member locks the position of the clamping rod; when the profile reaches the unloading station after processing, the locking member releases the lock on the clamping rod; The clamping rod is in an arc-shaped structure. When the profile is squeezed by the push rod and one end of the clamping rod is pushed, the other end of the clamping rod cooperates with the block to clamp the profile. The feeding channel includes an entry section, a removal section and a placement section. The entry section and the removal section are arranged in a V shape. The placement section is located at the junction of the two. A baffle is swingably provided at the placement section. One end of the ejector rod is arranged on the removal section, and the other end is arranged on the baffle. When the baffle blocks the entry section, support is provided for the profile to enter the removal section from the placement section. When the baffle blocks the removal section, the profile enters the placement section along the entry section. The push rod includes an elastic layer and a plurality of inelastic layers, wherein the plurality of inelastic layers are evenly arranged on the elastic layer along the track direction. When the baffle blocks the entry section, the plurality of inelastic layers abut against each other in sequence to form an extrusion support for the profile. When the baffle blocks the exit section, the elastic layer bends to provide power for the baffle to be reset.

2. The ultra-low energy consumption door and window component assembly processing device according to claim 1 is characterized in that: The ends of the clamping rod and the block that cooperate to clamp the profile are made of rubber material.

3. The ultra-low energy consumption door and window component assembly processing device according to claim 1, characterized in that: The end of the clamping rod and the block that cooperate to clamp the profile is in a long strip shape, and the length direction points to the center of the clamping rod.

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