China Products List
Laser welding equipment
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:I. Laser Welding Equipment Product Introduction1. High-power laser system capable of providing up to 6,000 watts of laser power2. CNC control system for precise control of the welding process3. High precision and accuracy, producing strong and uniform welds4. Capable of welding a variety of materials, including stainless steel, high-temperature alloys, titanium alloys, and other rare metals<img src="https://img-i-album.toocle.com/view/2023/05/05/fd/645461e4588fd.jpg" style="max-width:100%;"/>II. Product DescriptionLaser welding equipment is a specialized machine that uses laser energy to weld two or more pieces of metal together. The machine operates by melting the surfaces of the metals to be joined and fusing them together using a high-intensity laser beam. Laser welding is a precise and efficient method for joining metal components and is widely used in various industries such as automotive, aerospace, and electronics.The laser welding equipment is equipped with a high-power laser system capable of providing up to 6,000 watts of laser power. The machine is designed to operate with high precision and accuracy, ensuring strong and uniform welds. It is equipped with a CNC control system that allows for precise control of the welding process.<img src="https://img-i-album.toocle.com/view/2023/05/05/55/645461eddd855.jpg" style="max-width:100%;"/>III. Technical SpecificationsLaser PowerUp to 6,000 wattsWelding SpeedUp to 50 meters per minuteWork Area300 mm x 300 mm or customizedLaser Wavelength1.06 micrometersSpot Size0.2 mm - 2 mmCooling SystemWater cooling systemControl SystemCNC systemPower SupplyThree-phase 380V/50HzIV. ApplicationsLaser welding equipment is widely used in various industries for joining metal components. It is commonly used in the automotive industry for welding body parts and engine components. In the aerospace industry, it is used for welding aircraft components such as engine parts and structural elements. The equipment is also used in the electronics industry for welding electrical contacts and other components.V. Technical Advantages1. Precision and Accuracy: Laser welding produces precise and accurate welds due to the focused and concentrated nature of the laser beam. This allows for welding with a small heat-affected zone and minimal distortion, making it ideal for precision welding applications.2. Speed: Laser welding is a fast process, with welds completed quickly due to the high power density of the laser beam. This allows for high-volume production and reduces production time and costs.3. Versatility: Laser welding can be used to weld a wide range of materials, including metals, plastics, and ceramics. It can also be used for welding dissimilar materials, which is not possible with other welding methods.4. Non-Contact Welding: Laser welding is a non-contact welding process, meaning there is no physical contact between the welding tool and the workpiece. This eliminates the risk of contamination and reduces the need for post-weld cleaning.5. Minimal Heat Input: Laser welding produces minimal heat input, resulting in a smaller heat-affected zone and less distortion. This is particularly important for precision materials or components that are sensitive to heat.
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Application of Laser Quenching Technology in the Automotive Parts Manufacturing Process
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:Laser quenching, also known as laser transformation hardening technology, utilizes high-energy laser as a heat source to quench the metal surface through rapid heating and cooling, thereby completing the quenching process instantaneously and obtaining a high-hardness, ultra-fine martensitic structure. This method can enhance the hardness and wear resistance of the metal surface while forming compressive stress, thereby improving fatigue strength.Characteristics of laser quenching and several different expressions:1. High processing efficiency: Through rapid heating (105~106ºC/s) and rapid self-cooling (105 ºC/s), scanning speed and productivity can be improved, thereby replacing traditional quenching methods.2. Uniform and controllable quenching quality: Laser transformation hardening has higher hardness compared to conventional transformation hardening and can achieve an extremely fine hardened layer structure. Using high-power lasers, a hardened layer depth of up to 2mm can be achieved. The quenching quality is controllable, and laser transformation hardening has advantages over conventional transformation hardening, allowing for a finer hardened layer while using high-power lasers to increase the depth of the hardened layer to 2mm.3. Minimal processing deformation: Due to the fast laser heating speed, the heat-affected zone is relatively small. This results in relatively low transformation hardening stress and deformation.4. Selectable quenching areas: There are multiple options for areas that can be quenched, enabling the hardening of parts with complex shapes and those that cannot be treated using other conventional methods, such as parts with grooves.5. High degree of automation: The process can be automated through computer control, achieving a high level of automation. This high degree of automation allows the product production process to be integrated into automated production lines, thereby improving production efficiency.6. Environmentally friendly: Laser transformation hardening uses self-cooling through heat conduction, eliminating the need for cooling media such as water or oil, and does not require the addition of functional alloy materials, achieving environmental protection and energy savings.<img src="https://img-i-album.toocle.com/view/2023/08/03/c6/64cb1f3a789c6.jpg" style="max-width:100%;"/>Application BackgroundIn the automotive industry, the processing and manufacturing of most components rely on automotive molds. The quality and precision of automotive molds directly affect the processing quality, efficiency, and service life of automotive parts. Particularly during the manufacturing process, the surface processing quality, strength, and hardness of automotive molds are crucial. If the surface processing quality of automotive molds is substandard, it may cause damage to the mold surface during clamping and demolding processes, leading to a shortened service life. Traditional heat treatment processes require high control standards. Slight negligence can result in defects such as deformation, cracks, and dents in the workpiece, ultimately affecting its service life. Therefore, heat treatment technology has been widely applied in the treatment of automotive molds. With the rapid development of laser processing technology, laser quenching, as a new surface quenching process, has been further developed and applied. Laser quenching uses high-energy-density laser beams to irradiate the workpiece surface, making the quenching process more uniform and rapid, while significantly improving properties such as surface hardness, wear resistance, and corrosion resistance after quenching. Laser quenching offers the following advantages: First, the quenching process has a short temperature duration and high efficiency, greatly improving production efficiency; second, the surface hardness, wear resistance, and corrosion resistance of the workpiece are significantly enhanced after quenching, effectively extending the service life of the mold; additionally, laser quenching does not cause defects such as deformation, cracks, or dents in the workpiece, ensuring its precision and quality. Laser quenching has broad application prospects in the automotive industry, effectively improving the precision and quality of automotive molds, extending their service life, and enhancing production efficiency and workpiece quality.<img src="https://img-i-album.toocle.com/view/2023/08/03/49/64cb1f3b84d49.jpg" style="max-width:100%;"/>Application ExamplesIn recent years, with the rapid development of the automotive industry, laser surface quenching technology has been widely applied in the heat treatment of automotive molds. For example, quenching and strengthening of surfaces of automotive molds such as stamping molds, drawing molds, and injection molds have been widely used.Thanks to its unique advantages in the field of heat treatment, the application scope of laser quenching in automotive manufacturing is becoming increasingly broad. For instance, laser quenching can be used to strengthen automotive components such as gears, shafts, and structural parts, thereby extending their service life. In fact, many foreign automotive manufacturers have explicitly stipulated that certain components must be strengthened using laser quenching.Additionally, laser quenching can perform continuous constant-temperature heat treatment on cutting edges without causing edge collapse, thereby improving the hardness and lifespan of the edge area. Moreover, with the continuous popularization and development of laser technology, the application of laser quenching technology in the automotive industry will become increasingly widespread.
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Bearing Housing Laser Cladding Repair Processing
Negotiable
Category:Hardware & Tools/Rolling Bearings/Other Bearings
Product Description:As a key component in mechanical equipment, the performance of bearing housings directly affects the operational efficiency and stability of the entire mechanical system. During long-term use, bearing housings often experience wear due to bearing heavy loads and friction, which can even lead to equipment failure in severe cases. To extend the service life of bearing housings and improve their performance, laser cladding repair processing technology has emerged.Laser cladding repair processing is an advanced metal surface modification technology. Its basic principle involves using a high-energy laser beam to rapidly heat the metal surface to a molten state while simultaneously spraying pre-prepared alloy powder into the molten area to achieve metallurgical bonding with the base material. This process can form a uniform, dense, and high-quality alloy layer on the surface of the bearing housing, significantly enhancing its hardness, wear resistance, corrosion resistance, and fatigue resistance.<img src="https://img-i-album.toocle.com/view/2025/02/07/32/67a578f657d32.jpg" style="max-width:100%;"/>Compared to traditional mechanical processing methods, laser cladding repair processing offers many unique advantages. First, laser cladding can strengthen and repair the surface without altering the microstructure and properties of the base material, greatly extending the service life of the component. Second, the laser cladding process has a small heat-affected zone and minimal deformation, preserving the original precision and dimensional stability of the part. Additionally, laser cladding processing is fast, efficient, and environmentally friendly. These advantages make laser cladding repair processing widely applicable in the repair of high-precision components such as bearing housings.The process flow for laser cladding repair of bearing housings typically includes pre-treatment, quality inspection, laser cladding, post-processing, and quality inspection and acceptance. The pre-treatment stage mainly involves degreasing, derusting, sandblasting, and pre-cladding treatment of the workpiece surface to ensure the cleanliness and flatness of the laser cladding area. The quality inspection stage employs methods such as magnetic particle inspection, X-ray inspection, fluorescent penetrant inspection, or developer inspection to examine the cleaned surface and identify any obvious defect areas.<img src="https://img-i-album.toocle.com/view/2025/02/07/33/67a5791ddb433.jpg" style="max-width:100%;"/>During the laser cladding stage, appropriate alloy powder must be configured based on the material and damage condition of the bearing housing, and the laser operating parameters must be adjusted, including laser power, scanning speed, and spot diameter. The setting of these parameters significantly affects the dilution rate, cracks, surface roughness, and density of the cladding layer, so suitable control methods must be employed to keep them within the allowable range of the cladding process. During laser cladding, the alloy powder and base material melt simultaneously under the action of the laser beam and rapidly solidify to form a robust alloy layer.The post-processing stage involves polishing and finishing the laser cladding area, and, if necessary, applying wear-resistant coatings to enhance the wear and corrosion resistance of the bearing housing. Finally, the quality inspection and acceptance stage again uses the same quality inspection methods as the pre-treatment stage to confirm that the part surface is defect-free after laser cladding treatment before acceptance.The application prospects of laser cladding repair processing technology for bearing housings are very broad. In various high-precision mechanical components, such as CNC machine tools, aerospace vehicles, and automotive engines, bearing housings are critical transmission components whose performance directly impacts the operational efficiency and stability of the entire mechanical system. Through laser cladding repair processing, a high-hardness, high-wear-resistant, and high-corrosion-resistant alloy layer can be formed on the surface of the bearing housing, significantly improving the service life and performance of mechanical components, reducing maintenance costs and downtime, and enhancing production efficiency and economic benefits.Additionally, laser cladding repair processing for bearing housings can be applied to various complex-shaped and difficult-to-process metal part surfaces. These parts are often challenging to repair using traditional mechanical processing methods due to their complex shapes or high dimensional accuracy requirements. Laser cladding repair processing, however, can form a high-quality alloy layer in these hard-to-process areas by precisely controlling parameters such as laser beam power, scanning speed, and alloy powder composition, thereby strengthening and repairing the entire part. This processing technology not only improves the performance and lifespan of components but also expands the application range and adaptability of metal parts.In practical applications, laser cladding repair processing for bearing housings has achieved remarkable results. For example, in the repair of bearing housings for equipment such as centrifugal fans, laser cladding repair technology can not only restore the original dimensions and precision of the bearing housing but also enhance its surface hardness and wear resistance, thereby extending the equipment's service life. At the same time, laser cladding repair processing can reduce equipment downtime and maintenance costs, improving operational efficiency and economic benefits.With the continuous development and advancement of technology, laser cladding repair processing technology will be applied and promoted in more fields. In the future, laser cladding repair processing technology will focus more on intelligent and automated development, introducing advanced control and computer technologies to achieve precise control and real-time monitoring of the laser cladding process. This will further enhance the quality and efficiency of laser cladding repair processing, injecting new vitality and momentum into the development of the mechanical manufacturing industry.In summary, laser cladding repair processing technology for bearing housings is a high-precision, high-efficiency metal processing technology with broad application prospects and significant economic value. Through laser cladding repair processing, the service life and performance of high-precision components such as bearing housings can be significantly improved, maintenance costs and downtime reduced, and production efficiency and economic benefits enhanced. In the future, with the continuous development and advancement of technology, laser cladding repair processing technology will be applied and promoted in more fields, making greater contributions to the development of the mechanical manufacturing industry.
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Laser cladding technology can enhance four major properties of agricultural machinery parts.
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:The main techniques for traditional agricultural machinery repair include heat treatment, chromizing, arc spraying, etc., but it is difficult to meet the requirements of wear resistance, corrosion resistance, and pollution-free performance for agricultural machinery. With the continuous development of laser cladding technology, the performance of cladding layers has been improving. In addition to repairing damaged parts, laser cladding technology can also be used to enhance the performance of existing agricultural machinery components.Compared to high-end manufacturing fields such as industrial machinery, aerospace, and automotive, agricultural machinery manufacturing has always lagged behind. To promote the development of agricultural modernization, it is necessary to strengthen the application of laser cladding technology in the repair and reinforcement of agricultural machinery. Drawing on advanced technologies from other fields can provide direction for the repair and reinforcement of agricultural machinery. Therefore, to improve the reliability of agricultural machinery in complex soil environments, the following aspects can be analyzed:1. In-situ repair: Agricultural machinery repair involves high intensity and poor working conditions. Many agricultural machinery components are in an overloaded state during long-term use, making them prone to issues such as plastic deformation, wear, cracks, and corrosion. In-situ repair refers to the specific treatment of defective parts to restore their original dimensions. Laser cladding is one of the primary in-situ repair technologies, as repaired parts are less prone to deformation, have fast cooling rates, high precision, and excellent performance, making it widely used in agricultural machinery repair. For example, during the operation of agricultural machinery, gear components are subjected to strong alternating stresses, making them susceptible to issues like burrs, tooth chipping, and deformation. Laser cladding technology can restore damaged gears to their original dimensions. Gears repaired with laser cladding not only function normally but also exhibit significantly improved impact resistance, hardness, and wear resistance.<img src="https://img-i-album.toocle.com/view/2023/09/19/e4/650919f02d6e4.jpg" style="max-width:100%;"/>Additionally, shaft components are also among the parts that frequently require repair in agricultural machinery. In addition to enduring alternating stresses, shaft components are affected by friction and wear, with the latter being more significant and a primary cause of damage. The working environment of agricultural machinery is relatively harsh. During long-term rotation, high-hardness sand particles can penetrate the inner shaft, causing wear and deep scratches. These scratches intensify the effect of abrasive particles, further exacerbating the damage process and creating a vicious cycle. Applying laser cladding technology for in-situ repair of bearings can fill scratches and restore the surface morphology of the shaft. The coatings prepared by laser cladding technology are relatively thin, and operators can effectively control the thickness of the cladding layer, ensuring the geometric tolerance and dimensional accuracy of the repaired parts.2. Improving wear resistance: Wear in agricultural machinery is generally categorized as adhesive wear and abrasive wear, with abrasive wear being the most common. Abrasive wear occurs when the surface of a component rubs against relatively hard abrasive particles. Any direct contact with soil or sand during cultivation can lead to severe wear. There are various cladding materials available to improve wear resistance, with iron-based cladding materials being the most widely used in the agricultural machinery sector.3. Enhancing corrosion resistance: Agricultural machinery cultivation components often operate in damp and corrosive environments, such as those exposed to pesticides, fertilizers, and organic manure, which accelerates the deterioration of the machinery. The composition of laser cladding powder directly affects the corrosion resistance of the cladding layer. In research and exploration of corrosion resistance, nickel-based self-fluxing alloy powders are the most prominent in the study of laser cladding materials and are widely used in localized areas requiring corrosion-resistant component repair. The addition and control of external field conditions during the cladding process significantly impact the corrosion resistance of the cladding layer.4. Increasing hardness: Due to the presence of large rocks and plant roots beneath the soil, cultivation components such as rotary tillers and disc harrows may suffer significant impact damage during plowing, which demands higher hardness requirements for agricultural machinery. Under the same laser power and powder feeding conditions, Ni60 alloy cladding layers exhibit higher hardness but more crack defects, while Fe60 alloy has higher hardness in the bonding zone, with a flat overall hardness distribution, forming a good metallurgical bond without obvious defects. Compared to nickel-based alloys, iron-based alloy powders offer ideal comprehensive performance and are more suitable for laser cladding surface treatment of 45 steel. Proper control of the laser cladding process enables rapid melting and solidification of the cladding layer, forming a non-equilibrium, subgranular dendritic eutectic structure. After laser treatment, Si atom solid solution strengthening and fine-grained structural strengthening result in a high-quality, smooth, dense coating with minimal heat-affected zones, significantly improving coating hardness.Laser cladding with hard phase particles has garnered widespread attention in recent years. Hard phase particles include WC, NbC, TiC, TaC, and VC. The addition of WC particles has a positive effect on improving the microhardness of the substrate. Ni60/WC composite coatings prepared by laser cladding technology exhibit eutectic structural characteristics and high hardness. Hardness-enhanced metal matrix composite coatings, due to their high hardness and certain plastic strain capacity, are widely used on the surfaces of various mechanical components subjected to wear conditions.
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JZJP Series Roots-Water Jet Vacuum Unit
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:◆ Overview The Xin'anjiang brand series JZJP type Roots water jet vacuum unit is composed of a Roots pump (also known as a mechanical booster pump) as the main pump (including an intermediate pump, which comes in both corrosion-resistant and non-corrosion-resistant types; the corrosion-resistant type achieves excellent anti-corrosion effects after spraying treatment), with a water jet pump serving as the fore pump.◆ Features Using an all-plastic horizontal water jet vacuum unit as the fore pump, it can pump corrosive gases. The ultimate vacuum of a single-stage Roots pump can reach 150Pa, while that of a two-stage Roots pump can reach 25Pa.◆ Applications This unit is widely used in processes such as vacuum drying, vacuum distillation, and vacuum concentration, and has extensive applications in industries such as metallurgy, petrochemicals, papermaking, food, and electronics. Based on customer needs, multi-stage complete units can be designed to enhance the pumping capacity and vacuum level of the unit.◆ Model Description◆ Models and Performance Parameters The following data is based on clean water temperature of 25℃ModelPumping Speed L/sUltimate Pressure PaPump ModelMain PumpPower KWSpeed r/minIntermediate PumpPower KWSpeed r/minFore PumpPower KWSpeed r/minJZJP-70-18070150ZJC-702.21450------RPP-54-1807.52900JZJP-70-28070150ZJC-702.21450------RPP-65-280112900JZJP-150-360150150ZJC-1502.22900------RPP-80-360152900JZJP-150-500150150ZJC-1502.22900------RPP-80-500152900JZJP-300-500300150ZJC-30041450------RPP-80-500152900JZJP-70-30-1807025ZJC-702.21450ZJC-300.751450RPP-54-1807.5-112900JZJP-150-70-28015025ZJC-1502.22900ZJC-702.21450RPP-65-280152900JZJP-150-70-36015025ZJC-1502.22900ZJC-702.21450RPP-80-360152900JZJP-150-150-50015025ZJC-15032900ZJC-1502.22900RPP-80-500152900Note: ① The performance in the table is based on a gas temperature of 20℃, atmospheric pressure of 1013.25hpa (equivalent to 760mmHg), relative humidity of 70%, and water circulation supply temperature of 15℃.② Pumping speed tolerance ±10% ③ The vacuum level values in the table refer to the pressure below standard atmospheric pressure. (1mmHg = 1Torr = 133.3Pa, 0.1Mpa = 750mmHg)
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Bamboo Scaffold Board Punching Machine
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:
Bamboo Scaffold Board Drilling Machine
This machine is a specialized equipment that aligns and clamps bamboo strips horizontally with their sides facing downward, then drills holes in one go and directly threads screws through them.
It is widely used for drilling operations in bamboo springboards and scaffold boards. It employs pneumatic alignment and clamping, high-speed positioning drill bits for drilling, safer electrical controls,
more user-friendly operation settings, convenient control and operation, maintenance-free, and high efficiency.
Technical Parameters:
Drilling Depth: Less than 30cm
Drilling Diameter: 6mm-10mm
Output: >150 pieces/8 hours (taking a 3-meter long, 6-hole springboard as an example)
Control Method: Pneumatic Control
Material Rack Size: 1.5M*0.52m*0.65 (adjustable height)
Total Machine Power: 1.5kw
Machine Dimensions: 1.5m*1.0m*0.7m
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F4, PO, PE lined straight pipes and pipe fittings
Negotiable
Category:Hardware & Tools/Pipe Fittings/Tee Fittings
Product Description:
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Application of Laser Quenching Technology on Steel
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:Laser quenching is a process that uses high-power density laser to heat the surface of a metal workpiece and then rapidly cool it. Also known as pulsed laser quenching, it is a new technology. This technique was proposed in the 1960s and is referred to as "laser surface strengthening." It utilizes high-power density, high-brightness pulsed radiation generated by a pulsed laser to irradiate the metal workpiece surface with laser pulses. Due to the extremely high power density, the laser pulse can heat the metal surface to a temperature above (approximately 1000 degrees) and rapidly harden it. Because a large amount of energy is absorbed, the metal surface layer quickly softens. During the cooling process, the workpiece surface is heated to a temperature below the quenching temperature (approximately 500-700 degrees). This process is highly effective for quenching metal workpieces.<img src="https://img-i-album.toocle.com/view/2023/09/19/a0/65094bafd17a0.jpg" style="max-width:100%;"/>Main characteristics of laser quenching technology:1. Higher energy density is used, with fast cooling speed, and no need for cooling media such as water or oil;2. Fast heating speed, minimal workpiece deformation, easy control of heating layer depth and heating trajectory, easy automation, no need to design corresponding induction coils for different part sizes as in induction quenching, and no limitations from furnace size for chemical heat treatments like carburizing quenching when processing large parts;3. No quenching media required, environmentally friendly and pollution-free;4. Easy to automate; capable of rapidly strengthening large metal parts;5. Laser quenching can significantly alter the microstructure and properties of the workpiece surface layer within a range of 0.1~2.0mm.Application of laser quenching technology on steel:Laser quenching is flexible, stable in quality, precise in positioning, with minimal workpiece deformation and low stress, making it suitable for fields such as mechanical manufacturing, metallurgy, coal mining, petroleum, petrochemicals, and aerospace. The laser quenching depth is generally 0.8~1.0mm, with hardness 2~3 HRC higher than traditional quenching. The laser quenching equipment developed by Guosheng Laser can achieve a quenching depth of up to 2mm. For example, the quenching depth for large valve seats is 1-3mm. The quenching depth for 75CrMo rollers is 2mm, with hardness increased from HS40 to HS85, and service life extended by 6 times. The three-dimensional curved surface laser hardening layer of steam turbine blades has uniform depth and hardness, controllable between 0.2~0.8mm, and hardness controllable between HV400~490. The service life of corrugated rollers after laser quenching is increased by 5 times.Xi'an Guosheng Laser Quenching Equipment uses advanced lasers, high-end industrial robots, and control systems to form a multi-axis flexible laser processing system. Customized specialized models are developed based on the shape of the parts and process requirements. They have now developed eight-axis quenching equipment and mobile laser quenching equipment, making it more convenient to process and repair workpieces that cannot be moved.The company has a complete range of laser equipment, advanced processes, scientific testing methods, standardized quality management, and has passed ISO quality management system certification. It undertakes various laser quenching processing businesses, including rollers, shafts, gears, molds, valves, and other products. All are welcome to inquire and visit.
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Application of Laser Quenching Technology in Automotive Molds
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:1. The quenched convex R position of the wire drawing die and surfaces with high material flow require high wear resistance, i.e., high hardness.Due to the large quenching area, conventional flame quenching or induction quenching can cause significant thermal deformation of the workpiece, making it impossible to ensure the precision of the mold. This necessitates additional process measures to guarantee quality, inevitably leading to a longer mold processing cycle and potential instability in hardness. Therefore, we have adopted laser quenching, which results in minimal or even no deformation of the workpiece, eliminating the need for additional processes to meet quality requirements.We applied laser quenching to the inner door panel of a certain vehicle model. By using blue light scanning to detect surface changes before and after quenching, we confirmed that the mold surface after laser quenching meets precision requirements.<img src="https://img-i-album.toocle.com/view/2023/08/03/4a/64cb1dde4ac4a.jpg" style="text-align: left; max-width: 100%;"/>2. Surface quenching of inserts: Surface quenching of inserts in automotive molds mainly refers to the quenching of trimming inserts in trimming dies and the quenching of forming inserts in shaping dies.For trimming or forming inserts, conventional flame quenching causes significant deformation, requiring secondary processing to eliminate the distortion. This extends the production cycle and makes it difficult to control the quenching hardness. Particularly for forming inserts, which require quenching over large surface areas, tempering is highly likely to occur, leading to substandard surface hardness. Through research and practice, we found that laser quenching can effectively control deformation and hardness issues in inserts.3. Optimizing mold processing with laser quenching: Compared to traditional flame quenching, laser quenching optimizes the mold processing workflow, effectively shortening the manufacturing cycle and reducing costs. Below is a comparison of the process flows for flame quenching and laser quenching.Flame quenching process flow: Rough surface machining → Semi-finishing → Flame quenching → Machining to eliminate deformation → Fitter assembly → Surface finishing → Debugging → Research → Delivery.Laser quenching process flow: Rough surface machining → Semi-finishing → Fitter assembly → Surface finishing → Laser quenching → Debugging and matching.Using laser quenching, surface finishing is performed before quenching, not only avoiding deformation and improving finishing efficiency but also increasing mold processing efficiency by over 30% compared to flame quenching.4. Impact of laser quenching on mold surface quality: Compared to traditional quenching methods, laser quenching results in minimal deformation and uniform hardness. Therefore, quenching is performed after surface finishing is completed.Molds using flame quenching often exhibit step differences on the finished surface, leading to substandard quality. In contrast, molds finished before laser quenching do not face this issue, as the surface lacks hardness during finishing. After finishing, laser quenching ensures minimal deformation, resulting in excellent mold surface quality that meets customer requirements.The industry is approaching the "Industry 4.0" era. The automotive sector faces increasing demands from end customers for信息化,智能化,个性化, and环保化 products. Automakers require shorter development cycles and higher quality for body molds. Laser quenching technology not only ensures stable hardness and quality but also significantly shortens the manufacturing cycle, reduces costs, and addresses issues that traditional heat treatment processes cannot resolve. Therefore, laser quenching technology will be increasingly widely applied in automotive molds.
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Mobile Laser Cladding Equipment
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:Equipment IntroductionThe mobile laser cladding equipment mainly consists of a front-end actuator and a back-end system. The front-end actuator includes a multi-axis industrial robot, a mobile trolley with electrical control systems, a powder feeding mechanism, a laser cladding head, and a cladding nozzle. The back-end system comprises a high-power fiber laser, a water chiller, a power supply cabinet, and a protective gas unit. Mobile cladding equipment is often the only viable repair solution for large-scale equipment maintenance on-site, especially for components that cannot be disassembled or transported.This equipment not only addresses the urgent need for rapid repair in ensuring the continuous and reliable operation of major成套 equipment in large enterprises but also eliminates the processes of disassembly, transportation, off-site repair, and reassembly. It reduces labor intensity and time for maintenance workers, minimizes equipment downtime, and avoids the costs associated with replacing new parts and transportation. The overall comprehensive benefits are tens to hundreds of times greater than those of traditional methods.<img src="https://img-i-album.toocle.com/view/2023/09/19/db/650917ea1badb.jpg" style="text-align: left; max-width: 100%;"/><img src="http://www.gshenglaser.com/UploadCenter/productcenter/UploadPic/image/20230829/20230829094480248024.jpg"/>Product DetailsTraditional repair methods for high-value large components mainly include argon arc surfacing and conventional laser surfacing. Argon arc surfacing is simple, flexible, and low-cost. However, it involves high heat input, deep heat-affected zones in the base material, poor surfacing precision, complex post-processing, limited applicability, and difficulty in repairing high-hardness materials.The main advantages of laser repair are its high power density and minimal thermal impact on the component base. It can repair materials that argon arc surfacing cannot. The drawbacks of laser repair are also evident: difficulty in creating drawings before laser processing, challenges in applying digital models, extensive programming workload due to complex 3D models requiring layer-by-layer coding, cumbersome program modifications, difficulty in achieving 3D positioning during processing after model establishment, and the inability to perform on-site repairs for large components because laser repair equipment is too bulky to transport.Xi'an Guosheng's mobile laser repair equipment is characterized by providing high repair accuracy, flexible repair motion trajectories, and the ability to establish scanning models and repair processes within the same coordinate system. It ensures high-precision scanning and repair, offering a freely movable robotic arm for fast and simple repairs.<img src="https://img-i-album.toocle.com/view/2023/09/19/4d/650917f8db64d.jpg" style="max-width:100%;"/>Main Features★ Excellent mobility★ High repair accuracy★ Fast and simple repairs★ High power density with minimal thermal impact on the component matrix★ Eliminates the need for disassembly, transportation, off-site repair, and reassembly of large components<img src="https://img-i-album.toocle.com/view/2023/09/19/01/6509180a52501.jpg" style="max-width:100%;"/>SpecificationsLaserFiber LaserLaser Power2000W-6000WPower Instability≤±3%Laser Wavelength1080±10nmOperating ModeContinuous/ModulatedMotion Operation MechanismSix-Axis Industrial RobotMotion Repeatability Accuracy±0.05mmPowder Feed Rate1-200g/minWorking Range750-2000mmCladding Efficiency≥3cm³/minControl SystemPLC Control
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Gear Laser Hardening Process and Its Advantages
Negotiable
Category:Hardware & Tools/Pipe Fittings/Tee Fittings
Product Description:Gears are widely used components in the mechanical manufacturing industry. To enhance the load-bearing capacity of gears, surface hardening treatment is required. However, traditional gear quenching processes, such as surface chemical treatments like carburizing and nitriding, induction surface hardening, and flame surface hardening, primarily suffer from two issues: significant deformation after heat treatment and difficulty in obtaining a uniformly distributed hardened layer along the tooth profile. This affects the service life of gears. Below, the process and advantages of laser quenching for gears are introduced.Gear Laser Quenching Process:1. Surface Pre-treatment Coating: To improve the absorption rate of laser by the metal surface, the material's surface must be treated before laser heat treatment. This involves applying a coating with high laser absorption capability on the metal surface where laser treatment is needed. Common surface pre-treatment methods include phosphating, surface roughness improvement, oxidation, spraying (brushing) paint, and coating, with spraying (brushing) paint being the most commonly used.2. Axial Tooth-by-Tooth Scanning: Gear laser quenching axial tooth-by-tooth scanning is a method that uses a broadband laser beam to perform laser quenching on gears. The broadband laser beam scanning typically employs multiple beams to form a wide band. The laser beam moves along the axial direction of the gear for scanning, covering one tooth surface at a time. After the indexing motion rotates by one tooth pitch, the laser beam scans another tooth surface, proceeding tooth by tooth until all tooth surfaces of the entire gear are scanned.<img src="https://img-i-album.toocle.com/view/2023/09/19/ec/65094bea2d3ec.jpg" style="text-align: left; max-width: 100%;"/><img src="http://www.gshenglaser.com/UploadCenter/news/UploadPic/image/20230720/20230720090422402240.jpg"/>Advantages of Gear Laser Quenching:1. Special Advantage: After laser quenching, the gear tooth surface becomes hard while the root remains soft.2. High Wear Resistance: Gears treated with laser quenching exhibit high hardness and fine metallurgical structure, offering better wear resistance compared to traditional quenching processes. Laser quenching induces compressive stress in the structure, enhancing the gear's fatigue resistance.3. Minimal Deformation: Laser quenching results in tooth profile deformation of less than 0.01mm, with no cracks, and maintains the original surface roughness. Gears after laser quenching can be directly installed and used.4. Short Production Cycle: Due to minimal deformation from laser quenching, gears generally do not require regrinding, simplifying the production process, improving production efficiency, and reducing production costs.5. Expanded Material Selection for Gears: Lower-cost steel grades can be used to manufacture gears, with laser quenching applied to enhance tooth surface hardness, ensuring performance requirements are met.For 8 years since its establishment, Guosheng Laser has focused on R&D technology and production. The company has established Xi'an Aerospace R&D Design Center and Weinan Production Base. Guosheng Laser is a high-tech enterprise specializing in the R&D, manufacturing, and sales of automated laser cladding equipment, high-speed laser cladding equipment, laser quenching equipment, laser welding equipment, and 3D printing equipment. It provides customers with comprehensive solutions for structurally and functionally integrated laser additive manufacturing technology. Guosheng Laser always emphasizes innovation and R&D, with an engineering team covering project R&D, design, development, testing, analysis, and pre-sales and after-sales services for laser cladding equipment and other projects. Leveraging extensive technical resources, strong R&D capabilities, advanced production technology, fast delivery cycles, and flexible technical services, the company offers high-cost-effective products and services to customers.Laser quenching technology enables low-grade materials to achieve high-performance surface modification, combining low-cost part manufacturing with high-performance working surfaces, and resolving the contradiction between overall strengthening and other surface strengthening methods that are difficult to overcome. It has had a significant beneficial impact on the selection, matching, design, and manufacturing of materials and performance for critical components, also creating considerable economic and social benefits. It is no exaggeration to say that laser heat treatment can address almost all issues related to metal surface heat treatment, but its processes require continuous exploration, discussion, and validation.
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MHCYG Chemical Degreaser
Negotiable
Category:Hardware & Tools/Rolling Bearings/Self-Lubricating Bearings
Product Description:
MHCYG Chemical Oil Remover
MHCYG Chemical Oil Remover
Overview
The chemical oil removal method involves adding chemical agents. Through mixing and reaction, oil, oxidized scale, and other suspended solids in water are separated via coagulation and flocculation sedimentation to achieve water purification. When the influent contains 35-45 mg/L of oil and around 200 mg/L of SS, the effluent contains less than 10 mg/L of oil and less than 25 mg/L of SS. Two types of agents are added separately: the first is an electrolyte agent added to the first mixing chamber, and the second is a specially formulated polymer oil flocculant added to the second mixing chamber. The first agent must be added before the second, and the order cannot be reversed. Both agents are non-toxic and harmless. After dosing and passing through the first and second mixing stages, the wastewater enters an inclined tube sedimentation tank. The oil (floating oil and emulsified oil) and suspended solids form large flocs through coagulation and flocculation, settling into the lower sludge hopper. The clear water at the top is discharged via an overflow weir and outlet pipe. The sludge at the bottom can be discharged periodically, typically every 8 hours for 2-3 minutes each time. The discharged sludge can be sent to the cyclone pool (or primary scale sedimentation tank) slag pit and transported out along with coarse scale, or it can be separately filtered and recycled.
Compared to the old process, it saves on the secondary sedimentation tank and filter, with reliable equipment operation, long service life, and minimal maintenance. The turbid circulating water system operates in a良性循环状态, providing reliable assurance for high-quality production in enterprises.
The MHCYG series chemical oil remover is the second-generation product following the CYCWG type chemical oil remover. Compared to the first generation, the second generation offers the following advantages:
I. Improved treatment efficiency. The MHCYG chemical oil remover allows the sludge accumulated in the sedimentation tank to circulate, colliding, contacting, and adsorbing with the impurities (fine oxidized scale particles) and oil (floating oil and emulsified oil) in the raw water, fully utilizing the added agents and enhancing treatment efficiency and effectiveness.
2. Further reduced operating costs. Due to the full utilization of agents, the dosage can be reduced, and energy consumption is lowered. Compared to the first-generation chemical oil remover, it saves over 30% in agent dosage and over 50% in energy consumption, resulting in significant cost savings.
3. Stable operation and strong adaptability. The large equipment volume increases resistance to冲击力 from varying influent flow rates, and the partial回流 of wastewater enhances the chances of agent collision and attachment in the water. This accelerates the flocculation and sedimentation speed of suspended solids and oil, ensuring stable, reliable, and thorough treatment.
4. More convenient management. The CYCWG series chemical oil remover replaces multi-hopper sludge discharge with single-hopper discharge, featuring a large sludge hopper volume and flexible sludge discharge cycle adjustment. Sludge回流 can be adjusted simply by raising or lowering the impeller device to the optimal setting. The new process for treating oily wastewater in steel enterprises has received high attention from the Ministry of Metallurgy and was certified in May 1996 as technologically advanced and leading domestically.
The development and application of the MHCYG series chemical oil remover have resolved long-standing challenges in treating oily wastewater in steel enterprises. Currently, it is widely used in many steel enterprises across the country and has received一致好评 from both new and existing users!
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Characteristics and Applications of Broadband Laser Cladding Equipment
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:With the continuous advancement of industrial technology, laser cladding technology, as an advanced surface modification technique, has been widely applied in areas such as material surface strengthening, repair, and remanufacturing. Broadband laser cladding technology, as a type of laser cladding, offers advantages such as high energy beam density, high heating efficiency, and high cladding quality, making it a research hotspot in the field of laser cladding.<img src="https://img-i-album.toocle.com/view/2024/03/21/1a/65fbda43a3d1a.jpg" style="max-width:100%;"/>I. Composition of Broadband Laser Cladding EquipmentBroadband laser cladding equipment mainly consists of a laser, optical system, control system, powder feeding system, and processing platform. Among these, the laser is the core component, with its output power and wavelength determining the thickness and composition of the cladding layer. The optical system is responsible for transmitting the laser beam to the processing area, typically using optical components such as mirrors and focusing lenses. The control system precisely manages all parts of the equipment to ensure the stability and consistency of the cladding process. The powder feeding system uniformly delivers the cladding material to the processing area, ensuring the quality and uniformity of the cladding layer. The processing platform holds the workpiece and can be controlled automatically or manually to achieve rapid positioning and processing of the workpiece.II. Working Principle of Broadband Laser Cladding EquipmentThe working principle of broadband laser cladding equipment involves using a high-energy broadband laser beam to rapidly melt the cladding material, forming a dense cladding layer on the workpiece surface. During the cladding process, the laser beam scans the workpiece surface at a certain speed, while the cladding material is uniformly delivered to the irradiated area via the powder feeding system, melting quickly under the laser's action. The molten material metallurgically bonds with the substrate, forming a high-performance cladding layer. By adjusting process parameters such as laser power, scanning speed, and powder feed rate, the thickness, composition, and microstructure of the cladding layer can be controlled.<img src="https://img-i-album.toocle.com/view/2024/03/21/af/65fbda4d993af.jpg" style="max-width:100%;"/>III. Characteristics of Broadband Laser Cladding Equipment1. High energy beam density: Broadband lasers have high output power and concentrated energy, enabling rapid heating and melting of the cladding material in a short time.2. High heating efficiency: Due to the shorter wavelength of broadband lasers, their energy is easily absorbed by the cladding material, improving heating efficiency and reducing processing time.3. High cladding quality: Broadband laser cladding equipment uses advanced control and optical systems to ensure the stability and uniformity of the laser beam, enhancing the density and bonding strength of the cladding layer.4. Wide application range: Broadband laser cladding equipment can be used for surface strengthening, repair, and remanufacturing of various materials, such as steel, non-ferrous metals, and ceramics.5. Environmental and energy-saving benefits: Compared to traditional heat treatment and surface treatment technologies, broadband laser cladding technology offers high efficiency, energy savings, and pollution-free advantages.<img src="https://img-i-album.toocle.com/view/2024/03/21/e5/65fbda5fcd4e5.jpg" style="max-width:100%;"/>IV. Applications of Broadband Laser Cladding Equipment1. Mold surface strengthening: By applying broadband laser cladding to mold surfaces, the wear resistance, corrosion resistance, and fatigue resistance of molds can be improved, extending their service life.2. Mechanical part repair: For critical mechanical parts such as crankshafts and gears, broadband laser cladding technology can repair surface damage or wear, restoring their dimensions and performance.3. Metal surface remanufacturing: Using broadband laser cladding technology for metal surface remanufacturing can produce high-performance surface coatings, enhancing the corrosion resistance, oxidation resistance, and wear resistance of metal materials.4. 3D printing technology: Broadband laser cladding technology can be applied in the field of 3D printing to achieve rapid prototyping and manufacturing of metal parts.5. Composite material preparation: Using broadband laser cladding technology to prepare composite materials can yield high-quality composite coatings and composites.In summary, broadband laser cladding equipment, as an advanced surface modification technology, has broad application prospects. With continuous technological development and refinement, its application in industrial production will become even more extensive and in-depth.
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Bearing Base Laser Cladding Repair Processing
Negotiable
Category:Hardware & Tools/Rolling Bearings/Other Bearings
Product Description:In industrial production, bearing bases, as critical support components, endure long-term loads, friction from mechanical operation, and erosion from the external environment, making them highly susceptible to damage such as wear, cracks, and deformation. Once a bearing base fails, it not only disrupts the normal operation of the entire equipment but may also lead to severe production accidents, resulting in significant economic losses. The emergence of laser cladding repair technology offers an efficient and high-quality solution for the restoration of bearing bases.Laser cladding repair technology utilizes a high-energy laser beam to create a molten pool on the damaged area of the bearing base, while simultaneously feeding specific alloy powder into the pool. This causes the powder and the base material to rapidly melt and solidify, forming a cladding layer that is firmly bonded to the substrate and exhibits excellent performance. This process features extremely high energy density and precise control, enabling accurate repair of damaged areas.<img src="https://img-i-album.toocle.com/view/2025/09/05/03/68ba4dddb3603.jpg" style="max-width:100%;"/>Compared to traditional repair methods, laser cladding repair for bearing bases offers numerous significant advantages. In terms of bonding strength, the cladding layer formed by laser cladding achieves a metallurgical bond with the substrate, providing extremely high adhesion that far surpasses coatings formed by conventional methods such as welding or spraying. This ensures the repaired bearing base can withstand various forces during operation, guaranteeing stability and reliability. In precision control, the laser beam's focus diameter can be as small as 0.1 mm, allowing for precise repair of minute damaged areas with a minimal heat-affected zone—typically only tens to hundreds of micrometers—avoiding secondary damage like deformation or cracking due to heat exposure, thus preserving the base's original performance to the greatest extent. Additionally, the alloy powder used in laser cladding can be flexibly tailored based on the bearing base's working environment and performance requirements, endowing the cladding layer with superior wear resistance, corrosion resistance, and high-temperature resistance. This extends the service life of the bearing base and may even enhance its performance beyond that of a new component.<img src="https://img-i-album.toocle.com/view/2025/09/05/cb/68ba4de858ccb.jpg" style="max-width:100%;"/>Laser cladding repair for bearing bases is applicable to various types of damage. For surface-worn bearing bases, laser cladding can form a wear-resistant cladding layer on the affected area, restoring dimensional accuracy and surface performance. When cracks appear, laser cladding technology can fill and fuse the cracks, eliminating safety hazards. For issues such as localized dimensional deficiencies due to casting defects or machining errors, laser cladding also enables effective filling and repair.When performing laser cladding repair on bearing bases, a strict process must be followed.1. First, conduct a comprehensive inspection of the bearing base's damage to determine the location, size, depth, and other details, providing a basis for the subsequent repair plan. Then, select the appropriate alloy powder based on the inspection results and pre-treat the base surface to remove contaminants such as oil, rust, and scale, ensuring good bonding between the cladding layer and the substrate.2. Next, set the laser cladding process parameters, such as laser power, scanning speed, spot size, and powder feed rate, as these directly affect the quality of the cladding layer. During the cladding process, monitor the molten pool's status in real time to ensure stable operation.3. After cladding, post-processing and inspection of the repaired bearing base are necessary, including grinding, polishing, hardness testing, and non-destructive testing, to ensure the base's performance meets usage requirements.<img src="https://img-i-album.toocle.com/view/2025/09/05/f7/68ba4e2313bf7.jpg" style="max-width:100%;"/>In summary, laser cladding repair for bearing bases is an advanced restoration technology that enables efficient repair of damaged components while ensuring performance, extending equipment service life, reducing production costs, and holding broad application prospects in the industrial sector.
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Plastic Tray Hot Plate Welding Machine
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:The large pallet automatic welding machine utilizes the drawer-type hot plate welding principle, employing a temperature-controlled heating plate to weld plastic parts. The plastic pallet automatic welding machine is controlled by a programmable logic controller (PLC) and a touch screen human-machine interface (HMI). The movement of each cylinder is driven by pneumatic pressure, offering easy operation, reliable performance, and compact dimensions, thereby enhancing production efficiency and quality. To facilitate the welding of large parts and improve the operability of special welding components, the main machine base plate can be equipped with a sliding plate device, allowing the lower mold to extend out of the main machine cavity for easier loading of workpieces and enhanced operational safety.<img src="https://img-i-album.toocle.com/view/2023/10/07/f8/6520f61843cf8.jpg" style="max-width:100%;"/>Product Features:Equipment Frame• Equipment dimensions: (Length) 6764 × (Width) 3860 × (Height) 2755 MM• The frame is welded using high-quality domestic A3 rectangular square tubes δ5X60X100MM, with a surface spray coating treatment. The door panels are processed by CNC bending machines and punch presses, followed by surface spray coating.• The outer cover parts are made of cold-rolled sheet material, precisely processed and formed according to the dimensions of different positions.• Except for parts that have undergone anti-rust treatment, all other surfaces are spray-coated, and the color can be customized according to customer requirements.• Equipped with an independent electrical control box, with electrical, hydraulic, and pneumatic control cabinets separated.Hot Plate Moving Mechanism• The moving heating mechanism consists of cylinders, chains, slider guides, hot plates, and other components. A chain motor serves as the power source, driving the hot plate mechanism to move linearly along two slider guides.• Hot plate components: Composed of hot molds and heating plates. The hot molds and heating plates are connected to the hot plate moving mechanism via quick positioning and fastening mechanisms. The upper and lower hot mold materials are copper/aluminum alloy.• The structural feature: The hot plate moves smoothly with minimal movement clearance. The hot plate mechanism includes heating plates, upper and lower hot molds, and a quick connection mechanism for fixing the hot molds to the heating plate, enabling efficient and rapid replacement of different products, optimizing its application range, and improving production efficiency.Hot Plate Mold• The hot plate mold template is connected to the moving plate of the equipment using bolts.• The hot plate modules adopt a single-point independent temperature control method, allowing each module to be individually adjusted and controlled.• Uses integrated electric heating cartridges and thermocouples in electric heating modules, with a power rating of 5500W.• The fixed hole positions of the mold template are based on the 3D product drawings of the welded pallets, ensuring positioning accuracy through CNC machining.Product Parameters:Machine Name: Plastic Pallet Hot Plate Welding MachineModel: NC-YYRRJHot Plate Size: 1500mm x 1400mm (Customizable)Power Supply: 380VAC 50/60Hz Three-phase five-wire systemHeating Power: 1-55KW (Max)Power Consumption: 1-15KWHot Plate Vertical Stroke: 0-175/250mmHot Plate Horizontal Stroke: 0-500mm (Single Side)Pressure Holding Time: 0-9.9 minutes adjustableTemperature Control Deviation: ±2℃Welding Cycle: 50-70s/piece (Excluding loading and unloading time)Equipment Capacity: 3 shifts per day, 8 hours per shiftMain Machine Dimensions: 6764 (L) * 3860 (W) * 2755 (H) (mm)Equipment Weight: Approximately 8T (Subject to actual product)<img src="https://img-i-album.toocle.com/view/2023/10/07/9e/6520f52f24d9e.jpg" style="max-width:100%;" width="750.53" height="454.23"/>Operation Method: (Fully automatic process, only requires placing and removing parts, and pressing the start button)Manually place the pallet workpiece → Press both green start buttons simultaneously → The pallet workpiece automatically enters the hot plate welding area → The upper fixture descends and clamps the pallet → The upper fixture and the upper half of the pallet rise → The hot plate advances → The upper fixture and the upper half of the pallet descend → Melting → The upper fixture and the upper half of the pallet quickly rise → The hot plate retracts → The upper fixture and the upper half of the pallet quickly descend → Pressure holding and curing → The upper fixture releases → The upper fixture rises (Hot plate welding of the pallet is completed) → Enters the automatic part removal area → Remove the pallet workpiece → Cycle repeats sequentiallyWelding Effect:<img src="https://img-i-album.toocle.com/view/2023/10/07/1b/6520f627b071b.jpg" style="max-width:100%;"/>
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Automobile Oil Tank Hot Plate Welding Machine
Negotiable
Category:Hardware & Tools/Cutting Power Tools/Drill Bits
Product Description:The automotive oil reservoir hot plate welding machine is an industrial equipment specifically designed for welding plastic components of automotive oil reservoirs (such as brake fluid reservoirs, fuel tanks, etc.), achieving high-strength sealed welding through heat conduction. The following aspects are introduced from core functions, working principles, technical features, and application scope:I. Core Functions and PositioningThis equipment is primarily used for welding large or irregular plastic workpieces in the automotive manufacturing industry, such as brake fluid reservoirs, fuel tanks, and coolant tanks. It melts the plastic surface through precisely controlled temperature hot plates, then presses and cools to form a strong, sealed weld, replacing traditional bonding processes and improving production efficiency and product quality.II. Working Principle1. Heating Stage: Workpieces are placed on both sides of the hot plate, which heats up to the set temperature (typically for thermoplastic materials like PP and PE), causing the contact surfaces to melt.2. Pressing Stage: After the hot plate is removed, the two workpieces are quickly pressed together, allowing the molecular chains of the molten layers to interdiffuse, forming a high-strength weld upon cooling.3. Parameter Control: Parameters such as temperature, pressure, heating/cooling time can be programmatically adjusted to accommodate different materials and structural requirements.III. Technical Features1. High Efficiency and Stability:Utilizes pneumatic, hydraulic, or servo drives for fast welding speed and high yield rates.Automated control systems reduce manual intervention, supporting semi-automatic or fully automatic modes.2. Strong Adaptability:Capable of welding large and irregularly shaped workpieces without area limitations, supporting customized specifications for various oil reservoirs. Compatible with a wide range of thermoplastic materials such as PP, PE, ABS, and nylon.3. Quality Assurance:Weld strength approaches that of the base material, with excellent sealing performance (watertight/airtight). Equipped with visual inspection or real-time monitoring systems to ensure weld consistency.4. Safety and Environmental Friendliness:Multiple safety protection devices (such as pneumatic buffering and electronic limit switches) ensure operational safety. Energy-saving designs reduce power consumption with no pollution emissions.IV. Application ScopeIn addition to automotive oil reservoirs, it is widely used for: automotive components such as headlights, center armrests, glove compartments, instrument panels, carbon canisters, and other plastic part welding.Other industries: environmental filter elements, home appliance casings, plastic containers, etc.SummaryThe automotive oil reservoir hot plate welding machine, with its advantages of high efficiency, stability, and strong adaptability, has become a key equipment in the manufacturing of automotive plastic components. Its intelligent parameter control and high-quality welding results significantly enhance production automation levels and product reliability. For specific models or technical parameters, please contact us at Wuxi Nick Ultrasonic Equipment Co., Ltd. (Wuxi Dezhong Ultrasonic Technology Co., Ltd.).
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