Tag: 25-tesla split magnet
How do lasers help shine a light on MagLab research? Read and see for yourself!
Probing one of the prominent classes of atomically-thin materials, the transition metal dichalcogenides, researchers found that while dark excitons are not optically responsive, they do interact with bright excitons and as a result, affect the lifetime and coherence of the bright excitons. Understanding the interaction between dark and bright excitons is critical to the future use of these materials in quantum information technologies.
A new x-ray instrument will become the strongest of its kind thanks to the power of the MagLab’s flagship split helix magnet.
This world-unique magnet system with four ports required a complete rethinking of resistive magnet technology’s limits and some new inventions.
A scientist combines high magnetic fields with ultra short laser pulses to probe the mysteries of photosynthesis.
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- 100-tesla multi-shot magnet
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