Welding, Laser Cutting & Metal Fabrication
Welding, laser cutting, and metal fabrication are essential processes in metalworking and industrial manufacturing.
Welding involves joining metals or thermoplastics using heat, pressure, or a combination of both to create strong, durable bonds. Laser cutting employs high-powered, precisely focused laser beams to cut, drill, or engrave metal with high accuracy, clean edges, and minimal heat-affected zones. Metal fabrication refers to the complete process of cutting, forming, welding, and assembling metal components into finished parts, equipment, and structural assemblies used in industries such as automotive, aerospace, construction, energy, and heavy manufacturing.
Chronos High-Speed Cameras allow for:
Captured using Chronos 1.4 & Helios lights
More Video Examples Below
Why High-Speed Imaging Matters
Capture Millisecond-scale Events
Metal processing involves ultra-fast phenomena such as melt pool formation, droplet transfer, crack initiation, and spatter ejection—events that occur within microseconds. High-speed cameras play a critical role in analyzing these processes by capturing rapid thermal and mechanical interactions in real time.
Study Metalworking Techniques
This level of visibility helps engineers optimize manufacturing parameters, improve material quality, reduce defects, and enhance the overall efficiency of metalworking techniques such as welding, laser machining, and additive manufacturing.
Key Use-Cases
Understanding heat distribution, melt flow, and keyhole collapse during welding or laser processing.
Observing real-time defect initiation to improve weld integrity.
Identifying causes of excess spatter to minimize waste and surface defects.
Providing students and researchers with slow-motion visualizations of complex metalworking phenomena, enhancing understanding and skill development.
Real-world Examples
Filmed with Chronos High-Speed Cameras
TIG Welding
Slow-motion visualization of TIG welding allows you to see the process up close, helping improve technique and overall weld quality.
Camera: Chronos 1.4 High-Speed Camera with Helios Welding System
Res x FPS: 1280x1024 @ 1069FPS
Shot by: Kron Technologies Team
Welding & Laser Cutting in Ultra Slow Motion
High-speed imaging of arc welding and laser cutting with the Helios Welding Visualization System, revealing rapid metal process details in ultra slow motion.
Camera: Chronos 1.4 High-Speed Camera with Helios Lights
Res x FPS: 1280x1024 @ 1069FPS
Shot by: Applied Science
MIG Welding
High-speed imaging of MIG welding brings the arc and molten pool into focus, highlighting metal transfer and spatter behavior.
Camera: Chronos 1.4 High-Speed Camera with Helios Welding System
Res x FPS: 1280x1024 @ 1069FPS
Shot by: Kron Technologies Team
Explore More Resources
Dive Deeper into Subject Research Using High-Speed Cameras
- Chronos in Publications
- Research Papers & References
- Norouzian, M., Khakpour, M., Orosnjak, M., Kumar, A. A., & Kedziora, S. A. (2025). Prediction of weld quality in laser welding of hardmetal and steel using high-speed imaging and machine learning methods. Journal of Advanced Joining Processes, Article 100318.
- Ma, H., Mao, Z., Feng, W., Yang, Y., Hao, C., Zhou, J., Liu, S., Xie, H., Guo, G., & Liu, Z. (2022). Online in-situ monitoring of melt pool characteristic based on a single high-speed camera in laser powder bed fusion process. Applied Thermal Engineering, 211, Article 118515.
- Mind Blowing Welding in Super Slow Motion [Video]. YouTube.
- [Video of welding/laser cutting process] [Video]. (n.d.). YouTube.
- Panchenko, O., Kurushkin, D., Isupov, F., Naumov, A., Kladov, I., & Surenkova, M. (2021). Gas metal arc welding modes in wire arc additive manufacturing of Ti-6Al-4V. Materials, 14(9), 2457.
- You, D., et al. (2014). Monitoring of high-power laser welding using high-speed photographing and image processing. Mechanical Systems and Signal Processing, 49(1–2), 39-52.
- Wen, Y. M., Huang, S. S., & Liu, G. X. (2011). Testing and Analysis of High-Speed Camera for Pulse MIG/MAG Welding Droplet Transition. Applied Mechanics and Materials, 103, 134–137.
- Norouzian, M., Khakpour, M., Orosnjak, M., Kumar, A. A., & Kedziora, S. A. (2025). Prediction of weld quality in laser welding of hardmetal and steel using high-speed imaging and machine learning methods. Journal of Advanced Joining Processes, Article 100318.
- Ma, H., Mao, Z., Feng, W., Yang, Y., Hao, C., Zhou, J., Liu, S., Xie, H., Guo, G., & Liu, Z. (2022). Online in-situ monitoring of melt pool characteristic based on a single high-speed camera in laser powder bed fusion process. Applied Thermal Engineering, 211, Article 118515.
- Mind Blowing Welding in Super Slow Motion [Video]. YouTube.
- [Video of welding/laser cutting process] [Video]. (n.d.). YouTube.
- Panchenko, O., Kurushkin, D., Isupov, F., Naumov, A., Kladov, I., & Surenkova, M. (2021). Gas metal arc welding modes in wire arc additive manufacturing of Ti-6Al-4V. Materials, 14(9), 2457.
- You, D., et al. (2014). Monitoring of high-power laser welding using high-speed photographing and image processing. Mechanical Systems and Signal Processing, 49(1–2), 39-52.
- Wen, Y. M., Huang, S. S., & Liu, G. X. (2011). Testing and Analysis of High-Speed Camera for Pulse MIG/MAG Welding Droplet Transition. Applied Mechanics and Materials, 103, 134–137.