Fabrication of Bi-doped YIG optical thin film for electric current sensor by pulsed laser deposition

Fabrication and characterization of Bi-substituted yttrium iron garnet films by pulsed laser deposition

“…6. The Bi:YIG (444) peak disappeared in the films prepared at T s of above 700 o C, which was consistent with the reports by Hayashi et al [14]. The Bi:YIG (444) peak position varied with T s , which was consistent with the dependency of Bi content on T s .…”

Recent advances in processing and applications of microwave ferrites

“…In the same paper, the deposition of polycrystalline thick (50-100 mm) films on gold-coated (1 0 0) Si wafers followed by rapid thermal annealing was reported. More recently, the magneto-optical properties of Ce [13,14] and Bi [15,16] substituted YIG films and YIG/GGG superlattices [17] grown by PLD on (111) GGG substrates have been investigated.…”

Plasmonic Analog of Electromagnetically Induced Absorption Leads to Giant Thin Film Faraday Rotation of 14°

“…Despite the need for low temperatures, EuS is well suited for studying plasmonic MO model systems, as it combines the above-mentioned benefits with simple fabrication by physical vapor deposition. This allows for the realization of complex hybrid magnetoplasmonic structure geometries, which are challenging when fabricated with commonly used magneto-optic materials, such as bismuth iron garnet [69] or yttrium iron garnet [70]. The reason is that the deposition of garnet films is a sophisticated process that usually involves pulsed laser deposition and hightemperature annealing that could damage any underlying plasmonic structures.…”