Electrical Steel.

LMDR can engineer electrical steel microstructure and magnetic domain geometries, and offer a high degree of control and customization potential which translates to better quality control, minimizing material waste, cost saving, and productivity gains.
 
Increased productivity: Faster and stable LMDR in-line production enables productivity increase, compared to traditional annealing methods.
Improved material properties and frequency responses: Plasma surface treatment minimizes defects, and pin domain wall effects, which resist demagnetization, and rapid laser surface hardening maintains smoother, more responsive domains near the surface.
Laser slicing technique can reduce laminate thickness which enables faster flux changes within the material, and controlled laser heating, melting and resolidification can optimize recrystallization for purified crystal structure aligned with the magnetic field.
Optimizing domain uniformity: Adaptive laser ablation and polishing patterns can improve consistent domains and tailor domain geometries for a particular application.
Environmental benefits: Reduced energy consumption and smaller component footprints translate to a lower environmental impact.
New application possibilities: LMDR opens doors for innovative research and applications in fields like laser surface treatment of collectors which increases rechargeable battery capacity by up to 60% and lifetime by 30%, OCR micro–imaging, and renewable energy devices.