Magneto-Optical Organic Semiconductors with Spin Amplification (MOOS)

MOOS探索有机半导体中磁光效应的自旋放大：研究先进光学磁场传感器中的新材料、机制和应用。磁光效应源于偏振光与磁场中材料的相互作用。这已经出现并仍在出现的应用，从通信中的光控制到可以监测大脑和心脏活动的高灵敏度磁场传感器。磁光材料的未来应用需要在性能和加工性能上的阶跃变化，这要求在磁性、结晶无机材料的规范之外的方法上的阶跃变化。建立磁光有机半导体的新领域的研究是由英国（Evans）、法国和德国之间的国际合作实现的。（Favereau）和德国（里切特）的早期职业研究人员，他们是先进材料设计互补领域的专家，MOOS通过对固态薄膜中具有稳定自由基的激发态动力学进行分子工程，为磁光半导体推进了新的光和自旋物理学。MOOS将展示有机材料与偏振光的自旋增强相互作用，使磁场检测极限比现有技术低几个数量级。

MOOS explores spin amplification of magneto-optical effects in organic semiconductors: studying new materials, mechanisms and applications in advanced optical magnetic field sensors.Magneto-optical effects arise from the interaction of polarised light with materials in a magnetic field. This has present and still emerging applications that span from light control in communications to high sensitivity magnetic field sensors that could monitor brain and heart activity. Future applications of magneto-optics require step changes in performance and processability, which demands a step change in approach outside the norm of magnetic, crystalline inorganic materials.Research towards establishing a new field of magneto-optical organic semiconductors is enabled by an international collaboration between UK (Evans), France (Favereau) and Germany (Richert) early-career researchers, who are experts in complementary fields of advanced materials design, spectroscopy and thin-film devices.MOOS advances new photo- and spin physics for magneto-optical semiconductors by molecular engineering of excited state dynamics with stable radicals in solid-state films. MOOS will demonstrate spin enhanced interactions of organic materials with polarised light to enable orders of magnitude lower magnetic field detection limit than the current state of the art.