Advanced Processing › Magnetic Field Processing
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ORNL has setup an Advanced Laser Structuring Facility in which interfering high-power laser beams provide a 2-dimensional periodic high-speed thermal or chemical treatment to surfaces. This leads to a direct structuring with perfect long-range ordered periodicity. Up to 50,000 lines or 2 billion dots can be created at a surface within a fraction of a second, turning ordinary surfaces into multi-functional composites and chemical structures. The feature sizes are nanoscaled, the feature spacing ranges from 0.2 to 50 µm while the structured area of a single shot lays in the range of mm² to cm².
With this system it is possible to functionalize material‘s surfaces by manipulation of the topography, the phase-microstructure, the texture, the residual stress situation and the formation of new phases being utilized in automotive and industrial applications and for tissue engineering and biomedical devices.
Contacts:
| LUDTKA, Gerald M. | ludtkagm1@ornl.gov | 865.574.5098 |
| RIOS, Orlando | rioso@ornl.gov | 865.574.3747 |
| MURPHY, Bart L. - technical support | murphybl@ornl.gov | 865.574.4360 |
Poster:
Fact Sheets:
- Isothermal Phase Transformation Cycling In Steel by Application of a High Magnetic Field
- Non-Contact Ultrasonic Treatment of Metals in a Magnetic Field
- Retained Austenite in Sae 52100 Steel Post Magnetic
- Texture Evolution in Fe-1%Si as a Function of High Magnetic Field
- Time-Resolved Analyses of Microstructure in Advanced Materials Under
- Magnetic Fields at Elevated Temperatures Using Neutrons
- Effect of 30 T Magnetic Field on Transformations in a Novel Bainitic Steel
- In Situ Evidence of Enhanced Transformation Kinetics in a Medium Carbon Steel Due To a High Magnetic Field
- Induction Heating Part of Innovative Manufacturing Processes
- The Effect of High Magnetic Field on Phase Stability in Fe-Ni
- Investigation of Phase Transformation Kinetics and Microstructural Evolution in 1045 And 52100 Steel Under Large Magnetic Fields
- Exploring Ultrahigh Magnetic Field Processing of Materials for Developing Customized Microstructures and Enhanced Performance



