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The high-quality waveguide structure in the Dy 3 + -doped Y3Al5O 1 2 transparent ceramic is of significance for the application of integrated micro-light elements. However, there have been no reports on the preparation of optical waveguides by ion implantation in the Dy 3 + -doped Y3Al5O 1 2 transparent ceramic. The work reports on the formation of optical planar waveguides by using the proton implantation in the Dy 3 + -doped Y3Al5O 1 2 transparent ceramic. The acceleration energy and the dose of the protons are 400 keV and 8 × 1 0 1 6 ions/cm2, respectively. The structure of the fabricated waveguide is captured with the high-res/mag images by a metallurgical microscope. The dark-mode spectrum and the refractive index distribution are gained by the prism coupling system and the RCM software, respectively. The measurement and simulation of the near-field intensity distribution indicate the propagation of light field in the waveguide. The results are of potential to the compact devices in the photonics. [ABSTRACT FROM AUTHOR]

This work reports on the fabrication and characterization of a K9 glass planar waveguide structure. The helium ion implantation was employed to form the waveguide on the K9 glass. The choices of the energy of 0.4 MeV and the dose of 6. 0 × 1 0 1 6 ions/cm2 were conducted by the SRIM 2013. The m -line spectroscopy and the modal profile of the He + -irradiated K9 glass waveguide were performed by the prism-coupling system and the end-face coupling technique at 0.6328 μ m, which suggests the capability of light propagation. The He + -implanted K9 glass waveguides can serve as potential candidates for advanced integrated optoelectronic devices. [ABSTRACT FROM AUTHOR]

The 400 keV proton implantation with a fluence of 8. 0 × 1 0 1 6 ions/cm2 was applied on the Er 3 + / Yb 3 + co-doped phosphate glass to fabricate a planar waveguide structure. The mode profile at the end face of the waveguide was measured by the end-face coupling technique. The energy loss profile of the energetic protons was calculated by the SRIM 2013. The refractive index distribution was simulated by the reflectivity calculation method. Based on these results, the formation theory of the planar waveguides was discussed through simulating the energy loss distribution and analyzing the reconstructed refractive index profile, which could be used for applications in the future integrated optical systems. [ABSTRACT FROM AUTHOR]