To encourage the development of distributors and agents, PDKJ will offer a range of preferential policies and support measures
Choosing the right welding equipment is essential for improving production efficiency and reducing long-term costs. This guide highlights the most common mistakes companies make when purchasing spot welding machines, laser welding machines, and robotic welding systems. It explains how to evaluate equipment configuration, power capacity, process compatibility, automation potential, after-sales support, and maintenance requirements. By understanding these key factors and conducting sample welding tests before purchase, manufacturers can reduce investment risks, select equipment that fits their production needs, and achieve more stable, efficient, and cost-effective welding operations.
PDKJ successfully delivered a Vertical Medium Frequency Inverter DC Spot & Projection Welding Machine for automotive airbag inflator housing production. The solution provides stable weld quality, lower energy consumption, reduced deformation, and improved production efficiency, helping automotive component manufacturers achieve reliable, high-volume manufacturing with consistent welding performance.
Setting the correct spot welding parameters is essential for achieving strong, consistent welds. This guide explains the key factors that affect welding quality, including welding current, welding time, electrode force, and electrode condition. It also provides adjustment tips for stainless steel, carbon steel, galvanized steel, aluminum, and copper, along with a practical reference table for initial setup. Whether you are using an AC or medium-frequency inverter spot welder, these universal parameter adjustment techniques can help improve welding quality, reduce defects, and increase production efficiency.
PDKJ successfully delivered a 3000W swing arm laser welding machine to a leading HVAC manufacturer in the Middle East for the mass production of air conditioner cabinets. Designed for welding 1.0–3.0 mm galvanized steel reinforcement ribs, the solution helps improve weld quality, reduce deformation, enhance production consistency, and lower labor dependency. Featuring seamless laser spot welding, flexible swing-arm operation, platform-based production, and programmable welding parameters, the system supports efficient large-scale manufacturing. This successful overseas project highlights PDKJ’s expertise in laser welding technology and its ability to provide reliable welding solutions for global HVAC and sheet metal fabrication industries.
As the Dragon Boat Festival approaches, Guangdong Pudian Automation Technology Co., Ltd. extends its sincere holiday greetings and appreciation to customers, partners, and friends for their continued trust and support. The company announces its 2026 Dragon Boat Festival holiday schedule from June 19 to June 21, with normal operations resuming on June 22. During the holiday period, customers may continue to contact their dedicated account managers or the company service hotline for assistance. PDKJ remains committed to providing high-quality spot welding machines, laser welding machines, and automated welding solutions, helping manufacturers improve productivity and welding quality across various industries. Wishing everyone a happy, healthy, and prosperous Dragon Boat Festival.
This case study highlights the successful deployment of a 3000W handheld automatic wire-feeding fiber laser welding machine from PDKJ for a leading home appliance and kitchen equipment manufacturer. The solution was designed to improve the welding process of 2mm galvanized steel oven brackets, addressing common challenges such as porosity, spatter, weld deformation, and inconsistent weld quality associated with traditional welding methods. Equipped with an integrated automatic wire feeding system, the laser welder delivers precise heat control, high-strength welds, reduced post-processing requirements, and improved production efficiency. The project demonstrates how advanced laser welding technology can help manufacturers achieve stable mass production, lower labor costs, and enhance product quality in sheet metal fabrication and home appliance manufacturing.
Visit PDKJ at WIN EURASIA 2026 in Istanbul, Hall 5 Booth E130. Discover advanced laser welding solutions and meet our team to explore smarter manufacturing.
What are copper electrodes used for? In this article, we explore how the copper electrode powers vital manufacturing processes. You will learn about its applications in welding, EDM, and green energy. This guide explains why this material remains the standard for modern industrial efficiency.
Choosing the correct welding electrode directly impacts your arc stability, weld penetration, and joint strength. Navigating the massive array of copper electrode classifications—consumable versus non-consumable, stick versus TIG, or coated versus bare—can challenge any industrial coordinator. This
While copper is famous for powering our electrical grids, its role in the specialized world of electrodes is far more nuanced than you might think. Can this common red metal handle the extreme demands of industrial manufacturing? In this comprehensive guide, you will discover how copper functions as
Why do elite engineers pass over cheaper metals in high-stakes manufacturing? The choice of electrode dictates your entire production efficiency. Today, copper remains the gold standard for high-current and EDM tasks. In this guide, you will learn exactly why copper drives modern precision engineeri
Is an electrode always made of pure, 100% copper? Many industrial professionals assume that maximum electrical conductivity requires absolute material purity. However, severe manufacturing environments quickly expose the mechanical limitations of unalloyed metals. In this article, you will discover
Proper maintenance is essential for maximizing the performance, reliability, and service life of welding equipment. This article provides a practical maintenance guide covering daily inspections, weekly servicing, and monthly preventive maintenance for spot welding machines, laser welding machines, and automated welding systems. Key maintenance practices include cleaning, lubrication, electrical inspections, cooling system checks, parameter calibration, and wear-part replacement. By implementing a structured maintenance schedule, manufacturers can reduce equipment failures, minimize downtime, lower repair costs, and extend machine lifespan by up to 50%. The guide is designed to help workshops improve production efficiency, ensure welding quality, and maintain stable long-term operation of industrial welding equipment.
PDKJ will participate in the 29th Beijing Essen Welding & Cutting Fair 2026, held from June 29 to July 2, 2026, at the Shenzhen World Exhibition & Convention Center (Bao'an). Visitors can find PDKJ at Booth 80720, Hall 8, where the company will showcase its latest innovations in AI welding robots, laser welding machines, and precision spot welding equipment. The exhibition provides an excellent opportunity for manufacturers to explore advanced welding technologies, automation solutions, and intelligent production systems. PDKJ's technical team will offer live demonstrations, sample welding tests, and one-on-one consultations, helping customers identify the most suitable welding solutions for their materials, production requirements, and automation upgrade projects. This event serves as a valuable platform for discovering efficient, high-quality, and customized welding technologies for modern manufacturing industries.
This article provides a comprehensive summer maintenance guide for laser welding machine chillers, highlighting the critical role of temperature control and cooling system performance in ensuring stable welding quality and equipment reliability. It discusses four common summer chiller risks, including condensation, overheating, poor water quality, and voltage fluctuations, while offering recommended temperature settings and practical maintenance procedures. By following proper chiller maintenance practices, manufacturers can reduce equipment failures, prevent welding defects, extend machine lifespan, and maintain efficient production during high-temperature operating conditions. This guide is especially valuable for industries using laser welding systems in metal fabrication, automotive manufacturing, new energy production, and industrial automation.
Experiencing uneven spot welds? Discover 3 practical tips to improve spot welding quality, including electrode maintenance, parameter optimization, and workpiece preparation. Learn how PDKJ MFDC Spot Welding Machines deliver stronger, more consistent welds and higher production efficiency.
This article showcases a successful welding automation project for a new energy industry manufacturer specializing in battery enclosures and high-voltage control cabinets. To support the customer's factory expansion and large-scale production requirements, PDKJ delivered a complete welding solution combining air-cooled handheld laser welding machines and robotic laser welding workstations. Designed for 2mm carbon steel battery boxes and electrical enclosures, the solution significantly reduces welding deformation, burn-through, and defects while improving weld consistency, production efficiency, and product quality. By integrating flexible manual laser welding with automated robotic welding technology, the customer achieved lower production costs, higher throughput, enhanced quality control, and stable mass production capabilities for energy storage and new energy applications.
This article introduces a customized 8-axis coordinated robot laser welding workstation developed for stainless steel motorcycle crash bar welding in the automotive parts industry. The solution integrates a Yaskawa robotic arm, laser welding system, automated control technology, and customized fixtures to achieve stable, high-efficiency, and batch automated production. The workstation is specially optimized for 1.2mm thin stainless steel welding, effectively reducing deformation, oxidation, and post-processing while improving weld consistency and product quality. The article also highlights the advantages of robotic laser welding in complex trajectory control, flexible automation, production stability, and intelligent manufacturing upgrades for automotive and motorcycle component manufacturers.
This article provides a complete guide to robot laser welding trajectory setup, including teach programming and offline programming methods for automated welding systems. It explains how to achieve high-precision welding for complex workpieces such as curved surfaces, narrow seams, and deep cavities by using trajectory optimization, vision positioning systems, and high-precision industrial robots. The guide also covers fixture positioning, welding parameter presetting, robot calibration, and practical debugging techniques, helping manufacturers improve welding accuracy, production efficiency, and automation performance in industries such as hardware fabrication, automotive parts, new energy, and precision sheet metal manufacturing.
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The delivery time may vary depending on the model, configuration, and order quantity of the equipment. Generally speaking, standard configuration spot welding machines and laser welding machines can be produced and shipped within 2 weeks after receiving the deposit and confirming the order. For customized configurations or equipment with special requirements, the delivery time may be correspondingly extended, and the specific delivery time will be clearly communicated with the customer during order confirmation. We promise to do our best to shorten the delivery time and ensure that customers can receive the required equipment on time.
| Parameter | DTB-80 | DTB-160 | DTB-240 |
| Rated Capacity | 80kVA | 160kVA | 240kVA |
| Input Power Supply | 3Φ380V | 3Φ380V | 3Φ380V |
Maximum Short-Circuit Current | 25kA | 35kA | 50kA |
Duty Cycle | 20% | 20% | 20% |
Control Mode | Primary/Secondary Constant Current | Primary/Secondary Constant Current | Primary/Secondary Constant Curren |
Inverter Frequency | 1000HZ | 1000HZ | 1000HZ |
| Maximum Pressurization Force | 6000N | 6000N | 12000N |
Electrode Stroke | 80mm | 80mm | 100mm |
Cooling Water Flow Rate | 12L/min | 12L/min | 14L/min |
Welding Capacity/Aluminum Plate | 2.0+2.0mm | 2.5+2.5mm | 3.0+3.0mm |
Welding Capacity/Carbon Stee | 2.5+2.5mm | 3.0+3.0mm | 4.0+4.0mm |
Arm Extension Dimension | 500×250mm | 500×250mm | 500×350mm |
| Electrode Arm | Φ59×173mm | Φ59×173mm | Φ74×195mm |
Electrode Rod Dimension | Φ24.6x180mm | Φ24.6x180mm | Φ31.6x250mm |
Electrode Tip Dimensio | Φ16×50mm | Φ16×50mm | Φ20×60mm |
Net Weight/Gross Weigh | 336/392k0 | 384/440kg | 733/809kg |
Overall Dimension | 1180x750x1830mm | 1180x750x1830m | 1200×870x2070mm |