
Automated core equipment built for high-load operational environments, executing getter welding tasks with superior precision and extreme stability. Recommended as a pivotal node by a leading vacuum flask line manufacturer, this system seamlessly integrates with tube forming, assembly, and vacuuming stages, redefining efficiency standards in modern manufacturing facilities.

Utilizing constant Argon Arc Welding technology under inert gas protection to execute microsecond-level spot welding, completely eliminating weld oxidation and false welding risks, ensuring an extremely low leakage defect rate for vacuum flasks.
Engineered for pipelined mass production, the system can achieve a high throughput of 6000-8000 pcs per single shift (8 hours) under maximum load, ensuring stable output without thermal degradation.
The overall system power consumption is strictly controlled at the 1KW level. Through a servo-grade power control network, it achieves green, low-carbon operation and a drastic reduction in factory electricity costs.
As a professional getter welding machine supplier, our equipment features an advanced PLC control system enabling 24/7 continuous operation for the complex internal welding of metal containers.
| Specifications | Values |
|---|---|
| Model | JSB-J1 |
| Welding Type | Argon Arc Welding |
| Yield (8h Shift) | 6000 - 8000 pcs |
| Power Consumption | 1 KW |
A deep dive into streamlining manufacturing workflows and seamlessly embedding getter welding systems into high-efficiency automated production lines.
Read Full ArticleProviding professional guidance for manufacturing enterprises on how to select the most optimized welding technology among numerous manufacturer offerings.
Read Full ArticleEstablishing rigorous industrial-grade selection criteria to ensure procurement decisions truly empower core productivity on the factory floor.
Read Full Article"After integrating this welding machine into our new vacuum flask tube line, the argon arc welding sealing at the bottom received a massive physical upgrade. The defect rate dropped by nearly 40%, and the machine runs extremely stably."
"The energy consumption performance is amazing. The entire sequence is continuous with only 1KW of power usage. It requires very little from operators, making it the most correct investment in our factory's automation upgrade."
"Even under a full load schedule of 8000 pieces per day, this getter welding machine maintains an extremely high yield. The response speed of the after-sales support team during the early commissioning phase was also satisfactory."
The MOQ for this equipment is 1 unit. The delivery cycle for standard models is typically 30-45 working days after receiving the advance payment, while customized integration solutions are evaluated separately based on line complexity.
We provide global technical support. Our technical team can travel to client facilities for complete equipment installation and integration debugging, as well as provide detailed operation and maintenance training for on-site personnel.
We maintain a year-round inventory of core components and consumable parts, ensuring clients can quickly obtain original spares throughout the equipment's lifecycle to guarantee uninterrupted production.
The system employs a precision inert gas (argon) protection mechanism and high-frequency, high-voltage arc ignition technology. This ensures the weld seam is uniform and oxidation-free, physically eliminating micro-pores and cracks to guarantee the high sealing integrity of the vacuum insulation layer.
Through integrated and optimized variable frequency control technology and high-efficiency transformer modules, the equipment can output extremely high welding currents momentarily while minimizing energy consumption during standby and auxiliary actions, achieving an ultimate industrial energy efficiency ratio.
Absolutely. The system reserves standardized industrial communication interfaces (such as PLC I/O nodes) and automated robotic arm docking ports, allowing for easy linkage and joint control with upstream tube forming processes and downstream vacuuming processes.










