A wave-absorbing material sticking and fastening device

Abstract

The utility model provides a kind of wave-absorbing material pasting fastening device, it is related to wave-absorbing material processing technical field, including clamping and positioning assembly, bearing damping component and vibration pressure mechanism, the workbench both sides bolt connection of clamping and positioning assembly have the bolt cross arm on bearing damping component, and the slotted plate upper outer side bolt connection of bolt cross arm outer end installation has the upper box of vibration pressure mechanism;The utility model mainly is to make clamping and positioning assembly for product clamping positioning by bearing damping component after carrying, cooperate the hydraulic crossbeam on vibration pressure mechanism and the hydraulic hanger post telescopic operation after making the force plate below motor base adhere to the upper of product and make vibration motor output operation to reach the effect of generating vibratory force, to effectively vibrate operation for product, let the adhesion material in material can effectively and evenly distribute, to improve the quality of equipment processing material.

Description

Technical Field

[0001] This utility model relates to the field of microwave absorbing material processing technology, and in particular to a microwave absorbing material bonding and fastening device. Background Technology

[0002] Microwave absorbing materials refer to a class of materials that can absorb or significantly reduce the electromagnetic wave energy received on their surface, thereby reducing electromagnetic wave interference. In engineering applications, in addition to requiring microwave absorbing materials to have a high absorption rate of electromagnetic waves over a wide frequency band, they are also required to have properties such as light weight, temperature resistance, moisture resistance, and corrosion resistance.

[0003] Existing microwave absorbing materials are generally processed using a mixture of graphene, graphite, carbon black, carbon fiber, carbon nanotubes, ferrite, magnetic iron nanomaterials, conductive polymers, chiral materials, and plasma materials. These materials are then bonded and fastened using adhesive processes. However, while existing technologies use positioning to secure the materials, the bonding process is prone to unevenness due to insufficient uniformity, affecting the material's subsequent use. Therefore, this invention proposes a microwave absorbing material bonding and fastening device to address the problems existing in the prior art. Utility Model Content

[0004] To address the aforementioned problems, this utility model proposes a wave-absorbing material bonding and fastening device. This device mainly utilizes a load-bearing shock-absorbing component to clamp and position the product. In conjunction with the hydraulic beam and hydraulic column of the vibration pressure mechanism, the force-applying plate below the motor base adheres to the top of the product, causing the vibration motor to output power and generate vibration force. This effectively vibrates the product, ensuring the even distribution of adhesive materials within the material and improving the quality of materials processed by the equipment.

[0005] To achieve the purpose of this utility model, the utility model is implemented through the following technical solution: a wave-absorbing material bonding and fastening device, including a clamping and positioning component, a bearing and shock-absorbing component, and a vibration pressure mechanism. The worktable on both sides of the clamping and positioning component is bolted to the bolt cross arms on the bearing and shock-absorbing component, and the upper outer side of the slotted plate installed at the outer end of the bolt cross arms is bolted to the upper box of the vibration pressure mechanism.

[0006] The vibration pressure application mechanism also includes a second lead screw, a sliding column, a hydraulic crossbeam, a hydraulic lifting column, a motor base, a vibration motor, and a force application plate. The upper box is threadedly connected to the sliding column via the second lead screw. A hydraulic crossbeam for mounting the hydraulic lifting column is provided above the sliding column, and a motor base for mounting the vibration motor is provided at the output end of the hydraulic lifting column. A force application plate is provided below the motor base.

[0007] In a preferred embodiment of this utility model, the hydraulic lifting column is symmetrically distributed around the central axis of the motor base, and the central axes of the motor base, the vibrating motor, and the force-applying plate are all on the same straight line.

[0008] In a preferred embodiment of the present invention, the clamping and positioning assembly further includes a cargo cabinet, a lower box, a drive motor, a first lead screw, and a first slider. The worktable is installed at the processing location via the cargo cabinet. The lower box is bolted to both ends of the worktable, and the lower box is provided with a first lead screw connected to the output end of the drive motor. The first lead screw is threadedly connected to the first slider.

[0009] In a preferred embodiment of this utility model, the clamping and positioning assembly further includes an assembly plate, a hydraulic lifting column, an electric rotating seat, a rotating hydraulic arm, a sleeve block, a hydraulic cylinder, and a pressure plate. The hydraulic lifting column, on which the electric rotating seat is mounted, is bolted to the top of the first slider via the assembly plate. The output end of the electric rotating seat is provided with a rotating hydraulic arm, and one end of the rotating hydraulic arm is provided with a sleeve block. The inner side of the sleeve block is provided with a hydraulic cylinder, and the output end of the hydraulic cylinder is provided with a pressure plate.

[0010] In a preferred embodiment of this utility model, the bearing and shock-absorbing component further includes a sliding frame, a through block, a shock absorber, and a bolt bearing seat. The sliding frame and the shock absorber are installed in the inner groove of the slotted plate. The sliding frame is slidably connected to the through block. Two sets of bolt bearing seats with bolt connections are provided on the inner side of the through block.

[0011] In a preferred embodiment of this utility model, the load-bearing damping component further includes a damping hinge strip, an outer hinge frame, an inner hinge frame, a lower connecting piece, and an upper connecting piece. The inner side of the bolt bearing is provided with a damping hinge strip, and the outer end of the damping hinge strip is provided with an outer hinge frame. The middle side of the damping hinge strip is provided with an inner hinge frame, and one end of the inner hinge frame is provided with a hinged lower connecting piece. One end of the outer hinge frame is provided with a hinged upper connecting piece.

[0012] The beneficial effects of this utility model are as follows:

[0013] This utility model mainly utilizes a load-bearing shock-absorbing component to clamp and position the product using a clamping and positioning assembly. Combined with the extension and retraction of the hydraulic beam and hydraulic column on the vibration pressure mechanism, the force plate below the motor base adheres to the top of the product, causing the vibration motor to output power and generate vibration force. This effectively vibrates the product, allowing for the even distribution of adhesive materials within the material, thereby improving the quality of materials processed by the equipment. Attached Figure Description

[0014] Figure 1 This is a three-dimensional structural diagram of the present invention;

[0015] Figure 2 This is a bottom-view three-dimensional structural diagram of the present invention;

[0016] Figure 3 This is a three-dimensional structural diagram of the clamping and positioning component of this utility model;

[0017] Figure 4 This is a schematic diagram of the load-bearing and shock-absorbing component structure of this utility model;

[0018] Figure 5 This is a schematic diagram of the vibration pressure application mechanism of this utility model.

[0019] The components include: 1. Clamping and positioning assembly; 101. Workbench; 102. Cargo cabinet; 103. Lower box; 104. Drive motor; 105. First lead screw; 106. First slider; 107. Assembly plate; 108. Hydraulic lifting column; 109. Electric rotating seat; 1010. Rotating hydraulic arm; 1011. Set block; 1012. Hydraulic cylinder; 1013. Pressure plate; 2. Bearing and shock absorption components; 201. Bolt cross arm; 202. Slotted plate; 2 03. Sliding frame; 204. Through block; 205. Shock absorber; 206. Bolt bearing; 207. Damping hinge strip; 208. Outer hinge frame; 209. Inner hinge frame; 2010. Lower connecting piece; 2011. Upper connecting piece; 3. Vibration pressure mechanism; 301. Upper box; 302. Second lead screw; 303. Sliding column; 304. Hydraulic crossbeam; 305. Hydraulic hanging column; 306. Motor base; 307. Vibration motor; 308. Force plate. Detailed Implementation

[0020] To deepen the understanding of this utility model, the following detailed description will be provided in conjunction with embodiments. These embodiments are only used to explain this utility model and do not constitute a limitation on the scope of protection of this utility model.

[0021] according to Figure 1-5 As shown, this embodiment proposes a wave-absorbing material bonding and fastening device, including a clamping and positioning component 1, a bearing and shock-absorbing component 2, and a vibration and pressure mechanism 3. The workbench 101 on the clamping and positioning component 1 is bolted to both sides of the bearing and shock-absorbing component 2, and the upper box 301 of the vibration and pressure mechanism 3 is bolted to the outer side of the slotted plate 202 installed at the outer end of the bolt cross arm 201.

[0022] The vibration pressure mechanism 3 also includes a second lead screw 302, a sliding column 303, a hydraulic crossbeam 304, a hydraulic lifting column 305, a motor base 306, a vibration motor 307, and a force application plate 308. The sliding column 303 is threadedly connected to the upper box 301 via the second lead screw 302. The hydraulic crossbeam 304, on which the hydraulic lifting column 305 is mounted, is provided above the sliding column 303. The motor base 306, on which the vibration motor 307 is mounted, is provided at the output end of the hydraulic lifting column 305. The force application plate 308 is provided below the motor base 306.

[0023] The hydraulic lifting column 305 is symmetrically distributed around the central axis of the motor base 306. The central axes of the motor base 306, the vibratory motor 307, and the force application plate 308 are all on the same straight line.

[0024] In this embodiment, when compaction is required, the second lead screw 302 is used to operate, which causes the sliding column 303 to operate, which in turn causes the hydraulic crossbeam 304 to operate and adjust to a suitable position. Then, the hydraulic hanging column 305 is used to operate, which causes the force plate 308 to adhere to the material. Finally, the vibration motor 307 is driven to operate to generate vibration, so that the adhesive material is uniformly mixed.

[0025] The clamping and positioning assembly 1 also includes a cargo cabinet 102, a lower box 103, a drive motor 104, a first lead screw 105, and a first slider 106. The worktable 101 is installed at the processing location via the cargo cabinet 102. The two ends of the worktable 101 are bolted to the lower box 103, and the lower box 103 is provided with a first lead screw 105 connected to the output end of the drive motor 104. The first lead screw 105 is threadedly connected to the first slider 106.

[0026] In this embodiment, the materials to be installed are placed in advance by the cargo cabinet 102, and the drive motor 104 outputs power to run, which causes the first lead screw 105 on the lower box 103 to run and move the first slider 106 to a suitable position.

[0027] The clamping and positioning assembly 1 also includes an assembly plate 107, a hydraulic lifting column 108, an electric rotating seat 109, a rotating hydraulic arm 1010, a mounting block 1011, a hydraulic cylinder 1012, and a pressure plate 1013. The hydraulic lifting column 108, which mounts the electric rotating seat 109, is bolted to the top of the first slider 106 via the assembly plate 107. The output end of the electric rotating seat 109 is provided with a rotating hydraulic arm 1010, and one end of the rotating hydraulic arm 1010 is provided with a mounting block 1011. The inner side of the mounting block 1011 is provided with a hydraulic cylinder 1012, and the output end of the hydraulic cylinder 1012 is provided with a pressure plate 1013.

[0028] In this embodiment, when positioning is required, the drive motor 104 outputs power to move the first lead screw 105 and the first slider 106 to a suitable position, and the hydraulic lifting column 108 above the assembly plate 107 outputs power to adjust the electric rotating seat 109 and the rotating hydraulic arm 1010 to a suitable angle position. The hydraulic cylinder 1012 outputs power to press and position the product using the pressure plate 1013.

[0029] The load-bearing damping component 2 also includes a sliding frame 203, a through block 204, a shock absorber 205, and a bolt bearing 206. The sliding frame 203 and the shock absorber 205 are installed in the inner groove of the slotted plate 202. The sliding frame 203 is slidably connected to the through block 204. Two sets of bolt bearings 206 with bolt connection are provided on the inner side of the through block 204.

[0030] In this embodiment, during the vibration and pressure application process, the damping hinge strip 207, the outer hinge frame 208, and the inner hinge frame 209 cooperate with each other, and work with the shock absorber 205 on the through block 204 to achieve the shock absorption effect, thereby finally completing the fastening process of the material.

[0031] The load-bearing damping component 2 also includes a damping hinge strip 207, an outer hinge frame 208, an inner hinge frame 209, a lower connecting piece 2010, and an upper connecting piece 2011. The inner side of the bolt bearing 206 is provided with a damping hinge strip 207, and the outer end of the damping hinge strip 207 is provided with an outer hinge frame 208. The middle side of the damping hinge strip 207 is provided with an inner hinge frame 209, and one end of the inner hinge frame 209 is provided with a hinged lower connecting piece 2010. One end of the outer hinge frame 208 is provided with a hinged upper connecting piece 2011.

[0032] In this embodiment, the product to be processed is placed on top of the upper connecting piece 2011, and the adhered material is placed on it. After placement, multiple sets and layers are stacked so that the outer hinge frame 208, inner hinge frame 209, lower connecting piece 2010 and upper connecting piece 2011 can achieve the effect of bearing load after operation.

[0033] The working principle of the wave-absorbing material bonding and fastening device is as follows: The materials to be installed are pre-placed in the cargo container 102. The drive motor 104 outputs power, causing the first lead screw 105 on the lower box 103 to move the first slider 106 to a suitable position. The product to be processed is placed above the upper connecting piece 2011, and the bonded materials are placed on top. After placement, multiple layers are stacked to achieve a load-bearing effect after the outer hinge frame 208, inner hinge frame 209, lower connecting piece 2010, and upper connecting piece 2011 are in operation. When positioning is required, the drive motor 104 outputs power, causing the first lead screw 105 and the first slider 106 to move to a suitable position. This also causes the hydraulic lifting column 108 above the assembly tray 107 to rotate electrically. The seat 109 and the rotating hydraulic arm 1010 are adjusted to a suitable angle position, and the hydraulic cylinder 1012 outputs power to run, causing the pressure plate 1013 to press and position the product. When it is necessary to tighten, the second lead screw 302 is used to run, causing the sliding column 303 to run, which in turn causes the hydraulic crossbeam 304 to run and be adjusted to a suitable position. The hydraulic hanging column 305 is then used to run, causing the force plate 308 to adhere to the material. The vibration motor 307 is then driven to run to generate vibration, so that the material is uniformly bonded. During the vibration and pressure process, the damping hinge strip 207, the outer hinge frame 208, and the inner hinge frame 209 work together with the shock absorber 205 on the through block 204 to achieve the shock absorption effect, thereby finally completing the fastening process of the material.

[0034] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. Those skilled in the art should understand that this utility model is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of this utility model. Various changes and modifications can be made to this utility model without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed utility model. The scope of protection of this utility model is defined by the appended claims and their equivalents.

Claims

1. A device for bonding and fastening microwave absorbing material, comprising a clamping and positioning assembly (1), a load-bearing and shock-absorbing component (2), and a vibration applying mechanism (3), characterized in that: The workbench (101) on the clamping and positioning assembly (1) is bolted to both sides of the bearing and shock-absorbing component (2) with bolt cross arms (201), and the upper outer side of the slotted plate (202) installed at the outer end of the bolt cross arm (201) is bolted to the upper box (301) of the vibration pressure mechanism (3). The vibration pressure mechanism (3) also includes a second lead screw (302), a sliding column (303), a hydraulic crossbeam (304), a hydraulic lifting column (305), a motor base (306), a vibration motor (307), and a force application plate (308). The upper box (301) is threadedly connected to the sliding column (303) by the second lead screw (302). The upper part of the sliding column (303) is provided with a hydraulic crossbeam (304) for mounting the hydraulic lifting column (305), and the output end of the hydraulic lifting column (305) is provided with a motor base (306) for mounting the vibration motor (307). The lower part of the motor base (306) is provided with a force application plate (308).

2. The microwave absorbing material bonding and fastening device according to claim 1, characterized in that: The hydraulic lifting column (305) is symmetrically distributed around the central axis of the motor base (306), and the central axes of the motor base (306), the vibrating motor (307), and the force-applying plate (308) are all on the same straight line.

3. The microwave absorbing material bonding and fastening device according to claim 1, characterized in that: The clamping and positioning assembly (1) also includes a cargo cabinet (102), a lower box (103), a drive motor (104), a first lead screw (105), and a first slider (106). The workbench (101) is installed at the processing location via the cargo cabinet (102). The lower box (103) is bolted to both ends of the workbench (101), and the lower box (103) is provided with a first lead screw (105) connected to the output end of the drive motor (104). The first lead screw (105) is threadedly connected to the first slider (106).

4. The microwave absorbing material bonding and fastening device according to claim 3, characterized in that: The clamping and positioning assembly (1) also includes an assembly plate (107), a hydraulic lifting column (108), an electric rotating seat (109), a rotating hydraulic arm (1010), a sleeve block (1011), a hydraulic cylinder (1012), and a pressure plate (1013). The first slider (106) is bolted to the top of the assembly plate (107) to install the hydraulic lifting column (108) on the electric rotating seat (109). The output end of the electric rotating seat (109) is provided with a rotating hydraulic arm (1010), and one end of the rotating hydraulic arm (1010) is provided with a sleeve block (1011). The inner side of the sleeve block (1011) is provided with a hydraulic cylinder (1012), and the output end of the hydraulic cylinder (1012) is provided with a pressure plate (1013).

5. The microwave absorbing material bonding and fastening device according to claim 1, characterized in that: The bearing and shock-absorbing component (2) also includes a sliding frame (203), a through block (204), a shock absorber (205), and a bolt bearing (206). The sliding frame (203) and the shock absorber (205) are installed in the inner groove of the slotted plate (202). The sliding frame (203) is slidably connected to the through block (204). Two sets of bolt bearings (206) with bolt connections are provided on the inner side of the through block (204).

6. The microwave absorbing material bonding and fastening device according to claim 5, characterized in that: The bearing damping component (2) further includes a damping hinge strip (207), an outer hinge frame (208), an inner hinge frame (209), a lower connecting piece (2010), and an upper connecting piece (2011). The inner side of the bolt bearing (206) is provided with a damping hinge strip (207), and the outer end of the damping hinge strip (207) is provided with an outer hinge frame (208). The middle side of the damping hinge strip (207) is provided with an inner hinge frame (209), and one end of the inner hinge frame (209) is provided with a hinged lower connecting piece (2010). One end of the outer hinge frame (208) is provided with a hinged upper connecting piece (2011).

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