Developing the synergy between magnetism and light

  • Cesar de Julian... profile
    Cesar de Julian...
    30 April 2016 - updated 4 years ago
    Total votes: 16

Novel optical materials and structures that allow the intertwining and the synergy between the magnetism and photonics will be a dream for the next generation of magneto-opto-electronics devices, recording technologies and biomedical. The state-of-art demonstrates that EU community puts  the first pillars of these phenomena overcoming the classical magneto-optical effects. The call will work on:

a) Photon driven magnetic state effects and devices. Different approaches could be developed: photomagnetic effect using photo-chemical magnetic transitions, inverse –Faraday effects, light induced thermal driven demagnetization process or plasmon driven demagnetization processes. These envisage important improves but also alternatives to the  advance magnetic recording technologies.

b) Magnetoplasmonic effects that allows to create structures with enhanced magneto-optical effects and high figure of merit and the high active magnetic-driven modulation of the plasmonic resonance. These phenomena can be extended from the Vis range to the IR and microwave (magnetic plasmons in magnonics) ranges.  The integration of magneto-optical elements in Si based opto-electronic devices will be envisageable. The integration between photonics and spintronics could be dreamed.  

c)  Hybrid structures  for health and environment applications. The combination or coupling of fluorescence, plasmonic and magnetic effects in hybrid nanostructures could be employed for multi-approach theracnotic approaches in cancer therapy but also for detection other illnesses. Plasmon based biochemical and chemical sensors will improve the selectivity and sensibility thanks to the activation by external magnetic fields and the concentration and manipulation of hybrid carriers, drugs, etc. with magnetic fields.

Research and development of  novel magnetic materials with small optical losses, adequate magneto-optical response, and nanostructures that allow the near-field control of the optical and magneto-optical properties will be fascinating issues.