Environment-friendly and energy-saving bag making and edge sealing device

Abstract

The utility model discloses an environmental protection energy -conserving bag making and edge sealing device, including edge sealer main part, the front end of edge sealer main part is provided with drive mouth, and the drive mouth is assembled with heating edge sealing subassembly, heating edge sealing subassembly includes the upper edge sealing pressboard of installation in drive mouth, the bottom of upper edge sealing pressboard is assembled with edge sealing lower heating body, the left and right sides of upper edge sealing pressboard all are installed with the edge pressing assembly, and the edge pressing assembly includes the buffer of installation in the left and right sides of upper edge sealing pressboard, and this device sets up independent heating cavity in the edge sealing lower heating body, and will heating wire be built -in, make the concentrated effect of heat energy in the edge sealing area, reduced the heat loss to the external environment, and the energy utilization rate is improved 35% or above than traditional integral type heating block, and the energy consumption is reduced significantly.

Description

Technical Field

[0001] This utility model relates to the technical field of edge sealing devices, specifically an environmentally friendly and energy-saving bag sealing device. Background Technology

[0002] In the bag-making process of the packaging industry, edge sealing is a core process that determines the bag's sealing performance, strength, and product quality. Currently, the mainstream bag-sealing devices on the market are mainly divided into three categories: heat-fusion type, ultrasonic type, and needle-sewing type. Among them, the heat-fusion type accounts for over 60% of applications in low- to mid-range bag-making production lines due to its simple structure and wide range of applicable materials (such as polyethylene, polypropylene, and other plastic films and composite films). However, existing heat-fusion sealing devices have the following prominent problems in actual use: The edge banding quality is unstable and prone to deviations and damage. Existing equipment lacks effective guiding and holding mechanisms when conveying materials to be sealed. The material is prone to displacement due to fluctuations in conveying speed and uneven tension, resulting in skewed sealing positions. In addition, the contact between the sealing plate and the material is mostly a rigid collision without a buffer structure. For thin or easily stretchable film materials, this can easily cause excessive local stress and breakage; while for thicker materials, insufficient pressure may lead to weak fusion and cracking of the sealing edge. Utility Model Content

[0003] The purpose of this utility model is to provide an environmentally friendly and energy-saving bag sealing device to solve the problems mentioned in the background art.

[0004] To achieve the above objectives, this utility model provides the following technical solution: an environmentally friendly and energy-saving bag sealing device, comprising a sealing machine body, a drive port provided at the front end of the sealing machine body, and a heating sealing assembly installed inside the drive port; the heating sealing assembly includes an upper sealing pressure plate installed inside the drive port, and a lower sealing heating element installed at the bottom end of the upper sealing pressure plate; pressing assemblies are installed on both the left and right sides of the upper sealing pressure plate, and the pressing assemblies include buffer bodies installed on the left and right sides of the upper sealing pressure plate, a buffer spring installed at the bottom end of the buffer body, a buffer plate installed at the end of the buffer spring, and guide pressure rollers installed on both the left and right sides of the buffer plate.

[0005] As a preferred embodiment of the environmentally friendly and energy-saving bag sealing device of this utility model, the bottom left and right sides of the buffer body are provided with balance cavities, and the top left and right sides of the buffer plate are provided with balance rods, which are inserted into the balance cavities.

[0006] As a preferred embodiment of the environmentally friendly and energy-saving bag sealing device of this utility model, a balance plate is installed at the top of the balance rod, and the balance plate is disposed in the balance cavity.

[0007] As a preferred embodiment of the environmentally friendly and energy-saving bag sealing device of this utility model, equipment bodies are installed on both the left and right sides of the sealing lower heating body, a heating wire is installed between the two equipment bodies, a heating cavity is provided at the top of the sealing lower heating body, and the heating wire is placed in the heating cavity.

[0008] As a preferred embodiment of the environmentally friendly and energy-saving bag sealing device of this utility model, a guide plate is provided on the rear side wall of the sealing heating body.

[0009] As a preferred embodiment of the environmentally friendly and energy-saving bag sealing device of this utility model, the drive port is equipped with a hinge seat, and the rear side wall of the upper sealing pressure plate is equipped with a hinge plate, which is installed inside the hinge seat.

[0010] As a preferred embodiment of the environmentally friendly and energy-saving bag sealing device of this utility model, the bottom end of the sealing machine body is equipped with an equipment carrier plate, and the bottom end of the equipment carrier plate is equipped with a support frame.

[0011] Compared with the prior art, the beneficial effects of this utility model are: the design of this environmentally friendly and energy-saving bag sealing device is reasonable; This device concentrates heat energy on the edge-sealing area by setting an independent heating chamber within the heating element under the edge sealing, and embedding the heating wire inside. This reduces heat loss to the external environment, improving energy utilization by more than 35% compared to traditional integral heating blocks, significantly reducing energy consumption. Simultaneously, the precise matching design between the heating wire and the material avoids localized overheating and carbonization, reducing odor and VOC emissions, meeting environmental protection production requirements. Furthermore, the edge-sealing structure of the heating chamber reduces contamination of the heating element by external dust and impurities, extending its service life. The edge-sealing components on both sides of the upper edge-sealing plate achieve flexible contact during edge sealing through the cooperation of buffer bodies and buffer springs. The pressure can be automatically adjusted according to the material thickness, preventing damage to thin materials while ensuring sufficient fusion pressure for thick materials, thus improving edge sealing strength by more than 20%. Simultaneously, the guide rollers on both sides of the buffer plate can position and guide the material in real time, effectively preventing deviation during transport. The edge sealing position accuracy error is controlled within ±0.5mm, significantly reducing the defect rate. Attached Figure Description

[0012] Figure 1 This is a front-view three-dimensional structural schematic diagram of the present invention; Figure 2 This is a schematic diagram of the heated edge sealing assembly of this utility model; Figure 3 This is a schematic diagram of the heating element under the edge sealing of this utility model; Figure 4 This is a schematic diagram of the pressing edge assembly of this utility model.

[0013] In the diagram: 1. Support frame; 2. Equipment carrier plate; 3. Edge banding machine body; 4. Drive port; 5. Heating edge banding assembly; 6. Hinge seat; 7. Hinge plate; 8. Lower heating element for edge banding; 9. Upper edge banding pressure plate; 10. Pressure assembly; 11. Equipment body; 12. Heating chamber; 13. Heating wire; 14. Heating chamber; 15. Buffer body; 16. Buffer spring; 17. Buffer plate; 18. Guide pressure roller. Detailed Implementation

[0014] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0015] Please see Figure 1-4 This utility model provides a technical solution: In this technical solution, an environmentally friendly and energy-saving bag sealing device includes a sealing machine body 3. The front end of the sealing machine body 3 is provided with a drive port 4, and a heating sealing component 5 is assembled in the drive port 4. The heating sealing component 5 includes an upper sealing pressure plate 9 installed in the drive port 4, and a lower sealing heating body 8 is assembled at the bottom end of the upper sealing pressure plate 9. Sealing components 10 are installed on both the left and right sides of the upper sealing pressure plate 9. Sealing components 10 include buffer bodies 15 installed on the left and right sides of the upper sealing pressure plate 9. A buffer spring 16 is assembled at the bottom end of the buffer body 15, and a buffer plate 17 is installed at the end of the buffer spring 16. Guide pressure rollers 18 are installed on both the left and right sides of the buffer plate 17.

[0016] The main body 3 of the edge banding machine serves as the support and control core of the entire equipment. It is welded from Q235 cold-rolled steel plate, with dimensions of 1200mm × 600mm × 800mm (length × width × height). The surface of the main body is treated with electrostatic spraying (coating thickness 60-80μm), and the color is industrial gray (RAL7035), providing rust resistance and wear resistance. The main body integrates an electrical control box, drive motor, and power module. The control panel is located on the front right side of the main body, equipped with a 7-inch touchscreen (800×480 resolution) and physical buttons for emergency stop, start, and speed adjustment, enabling digital adjustment of edge banding temperature, pressure, and speed. Specific data: main body load-bearing capacity ≥500kg, control box protection level IP54, suitable working temperature -10℃~45℃, relative humidity ≤85% (non-condensing).

[0017] The drive port 4 is a rectangular opening located at the center of the front end of the edge banding machine body 3, with dimensions of 400mm × 150mm × 80mm (length × width × depth). The edges of the opening are rounded (radius R5) to prevent scratching the components. A linear guide rail (model MGN15C) is installed on the inner wall of the drive port. The heated edge banding assembly 5 is slidably connected to the guide rail via a slider. A servo motor (model 110STM06030) drives a ball screw (lead 10mm) to achieve up-and-down reciprocating motion with a motion accuracy of ±0.02mm. Specific data: The steel plate thickness of drive port 4 is 10mm, the effective stroke of the linear guide is 120mm, the rated power of the servo motor is 600W, the rated speed is 3000r / min, and the maximum thrust is 5000N.

[0018] The upper edge sealing plate 9 is a rectangular metal plate made of 6061 aluminum alloy (T6 heat treated), with dimensions of 380mm × 50mm × 15mm (length × width × thickness). The bottom surface is mirror polished (roughness Ra≤0.8μm) to reduce frictional resistance with the material. The top of the plate is fixedly connected to the slider in the drive port by bolts (M8×20 hex socket bolts). The connection hole adopts a countersunk head design to ensure a flat surface.

[0019] Specific data: Aluminum alloy density 2.7g / cm³, tensile strength ≥310MPa, pressure plate weight ≤1.5kg, bolt tightening torque 15N・m.

[0020] The lower heating element 8 of the edge sealing is a groove-shaped structure, which is detachably connected to the upper edge sealing plate 9 by high-temperature resistant bolts (M6×16, material 304 stainless steel), with a connection gap ≤0.1mm. The heating element is made of die-cast aluminum (model ADC12) and integrates a temperature sensor (PT100 platinum resistance) to provide real-time feedback of the heating temperature to the control system, realizing closed-loop control. Specific data: Heating element dimensions 380mm×40mm×25mm (length×width×height), weight ≤2kg, temperature sensor measurement range 0-300℃, accuracy ±0.5℃, bolt temperature resistance ≥300℃.

[0021] The edge-sealing components 10 are symmetrically distributed on the left and right sides of the upper edge-sealing plate 9, and are fixed to the plate by L-shaped connectors (made of Q235 steel). The connectors are 8mm thick and are connected to the plate by four M5×12 bolts. The center distance between the two sets of edge-sealing components is 320mm, which can accommodate the edge-sealing requirements of bags with a width of 200-300mm.

[0022] Specific data: Each pressing component weighs ≤0.8kg, the load-bearing capacity of the connector is ≥100N, and the bolt tightening torque is 8N・m.

[0023] The buffer body 15 is a cylindrical structure made of nylon 66 material (with 20% glass fiber reinforcement). Its dimensions are Φ30mm×50mm (diameter×height). The top end is fixed to the L-shaped connector by a threaded connection (M20×2.5). The bottom end has a groove with a diameter of 25mm and a depth of 30mm for installing the buffer spring. Specific data: Nylon 66 density 1.14 g / cm³, Shore hardness 75D, tensile strength ≥80MPa, threaded connection torque 12N・m.

[0024] The buffer spring 16 is a cylindrical helical compression spring made of piano wire (model SWP-B), with a wire diameter of 3mm, an outer diameter of 22mm, a free length of 40mm, and a working stroke of 15mm. The top of the spring is inserted into the groove at the bottom of the buffer body by interference fit, and the bottom is welded and fixed to the spring seat at the top of the buffer plate. Specific data: spring stiffness 5N / mm, maximum compressive load 150N, fatigue life ≥100,000 cycles, operating temperature -20℃~120℃.

[0025] The buffer plate 17 is a rectangular steel plate made of 304 stainless steel (5mm thick) with dimensions of 100mm×40mm×5mm (length×width×thickness). A spring seat (Φ25mm×10mm) is welded to the top center, and a 1mm thick silicone pad (Shore hardness 50A) is pasted on the bottom surface to increase friction with the material and prevent scratches. Specific data: tensile strength of stainless steel plate ≥520MPa, temperature resistance of silicone pad ≥200℃, coefficient of friction ≥0.4.

[0026] The guide roller 18 is made of polyurethane (Shore hardness 85A), with a roller body size of Φ25mm × 15mm (diameter × width). It is connected to the axle at the center via a bearing (model 608ZZ). The axle is made of 45# steel (chrome-plated) and is fixed to the shaft holes on both sides of the buffer plate by nuts. The guide roller can rotate 360° around the axle, with a rotational resistance ≤0.5N. Specific data: polyurethane wheel temperature resistance ≥120℃, bearing rated dynamic load 1.8kN, wheel axle diameter 8mm, length 30mm.

[0027] In some technical solutions, the bottom left and right sides of the buffer body 15 are provided with balance cavities 21, and the top left and right sides of the buffer plate 17 are provided with balance rods 19, which are inserted into the balance cavities 21.

[0028] The balancing cavity 21 is a cylindrical blind hole, located on both sides of the bottom end of the buffer body 15. The hole diameter is Φ12mm, the depth is 35mm, and the hole wall roughness Ra≤1.6μm. The balancing rod 19 is a No. 45 steel round rod (diameter Φ11.8mm, length 40mm), with a surface hardened (hardness HRC40-45). The top end is fixed to the buffer plate 17 by welding, and the bottom end is in clearance fit with the balancing cavity (clearance 0.1-0.2mm), allowing it to slide along the axial direction of the balancing cavity. Specific data: straightness of the balance bar ≤ 0.05 mm / m, coaxiality of the balance cavity and the buffer body ≤ 0.1 mm, welding strength ≥ 200 MPa.

[0029] In some technical solutions, a balance plate 20 is installed at the top of the balance bar 19, and the balance plate 20 is set inside the balance cavity 21.

[0030] The balance plate 20 is a circular steel plate (made of 304 stainless steel), with a diameter of Φ20mm and a thickness of 3mm. Its center is fixed to the top of the balance rod 19 by an interference fit, and its edge is fitted with the inner wall of the balance cavity 21 with a clearance of 0.5mm. The balance plate can slide with the balance rod in the balance cavity, which can limit the radial displacement of the balance rod and ensure that the buffer plate is horizontal. Specific data: flatness of the balance plate ≤ 0.02mm, coaxiality with the balance bar ≤ 0.05mm, sliding resistance ≤ 1N.

[0031] In some technical solutions, equipment bodies 11 are installed on both the left and right sides of the edge-sealing heating body 8, and a heating wire 13 is installed between the two equipment bodies 11. A heating cavity 12 is provided at the top of the edge-sealing heating body 8, and the heating wire 13 is placed in the heating cavity 12.

[0032] The device body 11 is made of ceramic (alumina ceramic, 95% purity), with dimensions of Φ20mm × 30mm (diameter × length). It is fixed to both sides of the heating element 8 under the sealing edge via a threaded connection (M16 × 1.5). Internal terminals are provided for connecting the heating wire power supply. The heating wire 13 is a nickel-chromium alloy wire (model Cr20Ni80), 0.8mm in diameter, wound into a spiral shape (3mm pitch, 10mm outer diameter), with a total length of 2m. Both ends are fixed to the terminals on the device body with bolts. The heating cavity 14 is a rectangular groove (370mm × 10mm × 10mm), located at the top of the heating element 8 under the sealing edge. A 0.5mm thick mica sheet (high-temperature resistant and insulating) is adhered to the inner wall, and the heating wire is placed between the mica sheets. Specific data: Insulation resistance of the equipment body ≥100MΩ (500VDC), rated power of heating wire 1.5kW, surface load ≤15W / cm², and temperature resistance of mica sheet ≥600℃.

[0033] In some technical solutions, a guide plate 14 is provided on the rear side wall of the edge-sealing heating element 8.

[0034] The guide plate 14 is made of stainless steel (material 304, thickness 3mm), with an L-shaped structure (horizontal section length 50mm, vertical section height 30mm), and is fixed to the rear side wall of the edge-sealing heating element 8 by three M4×10 bolts. A 1mm thick polytetrafluoroethylene coating (temperature resistance ≥260℃) is pasted on the top of the horizontal section of the guide plate to guide the material to be edge-sealed into the edge-sealing station and prevent material displacement. Specific data: parallelism between guide plate and heating element ≤ 0.1 mm, friction coefficient of PTFE coating ≤ 0.05, bolt tightening torque 5 N·m.

[0035] In some technical solutions, the drive port 4 is equipped with a hinge seat 6, and the rear side wall of the upper sealing plate 9 is equipped with a hinge plate 7, which is installed inside the hinge seat 6.

[0036] The hinge seat 6 is made of cast steel (model ZG270-500) and has a U-shaped structure (opening width 20mm, height 50mm). It is fixed to the inner wall of the drive port 4 by four M8×25 bolts. The hinge plate 7 is made of Q235 steel plate (thickness 10mm, size 80mm×50mm). It is fixed to the rear side wall of the upper edge sealing plate 9 by welding. A Φ12mm pin hole is opened in the middle, and a pin (material 40Cr, diameter Φ12mm) is used to connect to the hinge seat 6 to realize the flip adjustment of the upper edge sealing plate (flip angle 0-30°). Specific data: The hinged seat has a load-bearing capacity of ≥1000N, the pin shaft clearance is 0.05-0.1mm, and the overturning torque is ≤20N・m.

[0037] In some technical solutions, the bottom end of the edge banding machine body 3 is equipped with an equipment carrier plate 2, and the bottom end of the equipment carrier plate 2 is equipped with a support frame 1.

[0038] The equipment carrier plate 2 is made of Q235 steel plate (12mm thick, 1300mm×700mm in size), with a phosphated surface. It is fixed to the bottom of the edge banding machine body 3 with eight M10×30 expansion bolts. A 50mm high guardrail is installed along the edge of the carrier plate (to prevent tools from falling). The support frame 1 is a welded square tube structure (square tube specifications 50mm×50mm×3mm, Q235 material), with a total of four support legs. Adjustable feet (Φ80mm, height adjustment 0-50mm) are installed at the bottom. The support legs are connected by cross braces (to enhance stability).

[0039] Specific data: Equipment carrier plate load capacity ≥1000kg, overall support frame height 600mm, adjustable feet load capacity ≥500kg / piece, weld point strength ≥300MPa.

[0040] Work process: I. Preparation Phase Equipment debugging and parameter setting The operator starts the equipment via the 7-inch touchscreen (800×480 resolution) on the front right side of the main body 3 of the edge banding machine. After entering the control interface, the operator sets key parameters according to the material of the material to be edge banded (such as polyethylene film, composite film) and its thickness (0.05-0.5mm): edge banding temperature (120-250℃, accuracy ±0.5℃), pressing speed of the upper edge banding plate 9 (5-15mm / s), pressing pressure (50-200N), and conveying speed (1-3m / min). After the parameters are set, the system issues commands through the PLC (such as Siemens S7-200SMART) in the electrical control box to start the drive motor and heating module. Heating element preheating and temperature calibration The nickel-chromium alloy heating wire 13 (model Cr20Ni80, power 1.5kW) inside the heating element 8 under the edge sealing is energized and generates heat. The heat is conducted to the heating chamber 14 through the die-cast aluminum (ADC12) heating element. The built-in PT100 platinum resistance temperature sensor collects temperature data in real time and feeds it back to the temperature controller (such as Omron E5CC) to form a closed-loop control, ensuring that the heating chamber temperature is stable at the set value. The preheating process usually lasts 2-5 minutes. After the touch screen displays "Temperature Ready", the equipment enters standby mode. Mechanical component reset check A servo motor (model 110STM06030, power 600W) drives a ball screw (lead 10mm) to raise the upper sealing plate 9 along the linear guide rail (MGN15C) to the initial position (50mm from the top of the heating element); the buffer spring 16 of the sealing assembly 10 is in a free state (length 40mm), the guide pressure roller 18 remains horizontal, and the balance bar 19 extends fully out of the balance cavity 21 to ensure that there is no jamming or offset of any component. II. Material Transportation and Guiding Stage Material introduction and preliminary positioning The bag material to be sealed is conveyed to the front end of the equipment by the production line conveyor (such as a conveyor belt). The edge of the material enters the sealing station along the guide plate 14 on the rear side wall of the sealing heating body 8. The guide plate 14 is an L-shaped 304 stainless steel structure (horizontal section length 50mm), with a 1mm thick polytetrafluoroethylene coating (friction coefficient ≤0.05) on the surface, which can effectively guide the material to move in a straight line and avoid lateral deviation. Guide roller preload and straightening When the material enters below the edge-sealing assembly 10, the upper edge-sealing plate 9 moves downward by 10mm, so that the guide roller 18 contacts the material surface. The guide roller 18 is made of polyurethane (Shore hardness 85A, Φ25mm×15mm). Under the preload (approximately 30N) of the buffer spring 16, it adheres tightly to the material and moves synchronously with the material through the rotation of the bearing (608ZZ), while simultaneously correcting the edge of the material to ensure that the edge-sealing position is aligned with the heating chamber 14 (deviation ≤0.5mm). balancing mechanism synergy During the process of the guide roller contacting the material, the buffer plate 17 may tilt slightly due to uneven material thickness. At this time, the balance rod 19 (Φ11.8mm, quenched steel No. 45) at the top of the buffer plate slides axially along the balance cavity 21 (Φ12mm). The balance plate 20 (Φ20mm×3mm) restricts the radial displacement of the balance rod in the balance cavity, ensuring that the buffer plate is always in a horizontal state and avoiding uneven guide pressure that causes material wrinkles.

[0041] III. Heating and Sealing Stage The upper pressure plate presses down precisely. Once the material is positioned, the PLC issues a command, and the servo motor drives the upper sealing plate 9 to continue moving downwards at a set speed (e.g., 8 mm / s) until the top of the lower heating element 8 is in close contact with the material. At this time, the pressure applied by the plate is transmitted to the edge of the material through the heating element, and the pressure sensor (integrated in the plate) provides real-time feedback of the pressure value to ensure that the pressure remains stable within the set range (e.g., 100 N). Heating, fusion and sealing The heat generated by the heating wire 13 within the heating chamber 14 is transferred to the material edge through the heating element, causing the material to reach its melting temperature (e.g., 160℃ for polyethylene). The heating chamber is a rectangular groove (370mm × 10mm × 10mm), with mica sheets (temperature resistance ≥ 600℃) adhered to its inner wall. This concentrates heat on the material contact area, reducing heat loss (energy utilization is 35% higher than traditional devices). Under the combined action of heat and pressure, the material melts and fuses, forming a continuous sealing edge. Precise temperature and time control The heating and sealing time is set according to the material thickness (0.5-2 seconds) and strictly timed by the PLC. During this time, the temperature sensor continuously monitors the temperature of the heating element. If temperature fluctuations occur (such as exceeding the set value by 5°C), the system automatically adjusts the heating wire power to prevent the material from overheating and carbonizing or insufficient fusion. At the same time, the equipment body 11 (95% alumina ceramic, Φ20mm×30mm) ensures that the heating wire terminals are insulated (resistance ≥100MΩ) to prevent the risk of leakage. IV. Buffering and Pressing Stage Flexible edge pressing and pressure holding During the heating and fusion process, the buffer spring 16 of the edge pressing assembly 10 is further compressed as the upper pressure plate presses down (working stroke 15mm, compressed length 25mm). The silicone pad (Shore hardness 50A, 1mm thick) at the bottom of the buffer plate 17 is tightly attached to the edge of the material, applying flexible pressure (50-80N). The silicone pad can avoid material damage caused by rigid contact, while enhancing the sealing effect and preventing molten material from overflowing. Multi-component collaborative pressure holding During the pressure holding process, the upper sealing plate 9 maintains stable pressure, the guide roller 18 continues to move slightly with the material (if the conveying does not stop), and the balancing mechanism continuously maintains the level of the buffer plate. At the end of the pressure holding period, the heating wire reduces its power (e.g., to 500W) to allow the material to cool and solidify slowly under pressure, avoiding cracking of the sealing edge due to sudden cooling. V. Completion and Reset Phase The upper pressure plate rises and separates from the material. After the pressure holding time ends, the servo motor drives the upper sealing plate 9 to rise at a speed of 10mm / s. The guide pressure roller 18 leaves the material surface with the pressure plate, the buffer spring 16 gradually returns to its free state, and the balance bar 19 extends out of the balance cavity 21 under the action of the spring force. All components return to their initial positions. Edge banding material output and testing The sealed material is conveyed to the next process (such as cutting or quality inspection) by a conveyor. The quality inspection process can detect the sealing width (set to 5-10mm) and sealing performance (no bubbles or cracks) through a visual sensor. If a defective product is found, the system will alarm and record the parameters through the touch screen, which will facilitate the operator to make adjustments. Equipment Continuous Operation and Maintenance Tips The equipment repeats the above process for continuous edge sealing. When the cumulative running time reaches the set value (e.g., 200 hours), the touch screen prompts to add grease (e.g., lithium-based grease LG2) to the linear guide rail, check the heating wire resistance (normal range 5-8Ω) and the fatigue condition of the buffer spring, to ensure long-term stable operation of the equipment.

[0042] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0043] Although the present invention has been described above with reference to embodiments, various modifications can be made and components can be replaced with equivalents without departing from the scope of the present invention. In particular, as long as there is no structural conflict, the features in the embodiments disclosed in this invention can be combined with each other in any way. The lack of an exhaustive description of these combinations in this specification is merely for the sake of brevity and resource conservation. Therefore, the present invention is not limited to the specific embodiments disclosed herein, but includes all technical solutions falling within the scope of the claims.

Claims

1. An environmentally friendly and energy-saving bag sealing device, comprising a sealing machine body (3), characterized in that, The front end of the edge banding machine body (3) is provided with a drive port (4), and a heating edge banding component (5) is assembled inside the drive port (4). The heated edge sealing assembly (5) includes an upper edge sealing pressure plate (9) installed in the drive port (4), and the bottom end of the upper edge sealing pressure plate (9) is equipped with an edge sealing lower heating body (8). The upper edge sealing plate (9) is equipped with edge pressing components (10) on both the left and right sides. The edge pressing components (10) include buffer bodies (15) installed on the left and right sides of the upper edge sealing plate (9). The bottom end of the buffer body (15) is equipped with a buffer spring (16). The end of the buffer spring (16) is equipped with a buffer plate (17). The left and right sides of the buffer plate (17) are equipped with guide pressure rollers (18).

2. The environmentally friendly and energy-saving bag sealing device according to claim 1, characterized in that, The bottom left and right sides of the buffer body (15) are provided with balance cavities (21), and the top left and right sides of the buffer plate (17) are provided with balance rods (19), which are inserted into the balance cavities (21).

3. The environmentally friendly and energy-saving bag sealing device according to claim 2, characterized in that, The top of the balance bar (19) is fitted with a balance plate (20), which is located inside the balance cavity (21).

4. The environmentally friendly and energy-saving bag sealing device according to claim 1, characterized in that, The sealing heating body (8) has a device body (11) installed on both the left and right sides, and a heating wire (13) is installed between the two device bodies (11). An environmentally friendly and energy-saving bag sealing device is provided at the top of the sealing heating body (8), and the heating wire (13) is installed inside the environmentally friendly and energy-saving bag sealing device.

5. The environmentally friendly and energy-saving bag sealing device according to claim 1, characterized in that, The rear side wall of the sealing lower heating body (8) is provided with a guide plate (14).

6. The environmentally friendly and energy-saving bag sealing device according to claim 1, characterized in that, The drive port (4) is equipped with a hinge seat (6), and the rear side wall of the upper sealing plate (9) is equipped with a hinge plate (7), which is installed inside the hinge seat (6).

7. The environmentally friendly and energy-saving bag sealing device according to claim 1, characterized in that, The bottom end of the edge banding machine body (3) is equipped with an equipment carrier plate (2), and the bottom end of the equipment carrier plate (2) is equipped with a support frame (1).

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