Advanced Optical Materials· 2026Q1
Ce 3+ ‐Activated BASL Glass With High Verdet Constants and Efficient Luminescence
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- Q1SCImago
- 2026year
Short summary
A novel boron–aluminosilicate–lanthanide (BASL) glass system enables stable incorporation of Ce 3+ at an ultrahigh concentration of 11.2 × 10 21 ions cm −3, the highest reported for an oxide glass, leading to efficient luminescence and strong magneto-optical properties.
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Key points
- Developed a stable BASL glass capable of incorporating ultrahigh Ce 3+ concentrations (11.2 × 10 21 ions cm −3).
- Achieved the highest reported Ce 3+ concentration in an oxide glass.
- The Ce 3+ ‐activated glass shows efficient broadband luminescence with suppressed concentration quenching.
- Exhibits strong magneto-optical response, with Verdet constants up to 77% of TGG at 450 nm.
AI-generated from the title and abstract; the full text is not read.
Abstract
ABSTRACT Trivalent cerium (Ce 3+ )‐activated optical materials are important for magneto‐optical devices, radiation detection, and advanced photonic systems; however, their performance in oxide glasses has been limited by the instability of Ce 3+ at high concentrations during glass processing. In silicate glasses, this limitation has restricted the achievable Ce 3+ concentration to ≤3.7 × 10 20 ions cm −3 due to the facile oxidation to Ce 4+ . Here, we report a boron–aluminosilicate–lanthanide (BASL) glass system that enables stable incorporation of Ce 3+ in a robust oxide host. By using Ce 2 O 3 as the source of cerium in combination with redox‐controlled processing, a stable BASL glass with an ultrahigh Ce 3+ concentration of 11.2 × 10 21 ions cm −3 is achieved, which, to the best of our knowledge, is the highest reported for an oxide glass. The Ce 3+ ‐activated glass exhibits efficient broadband luminescence with suppressed concentration quenching, no detectable Ce 4+ , and a strong magneto‐optical response, with Verdet constants reaching up to 77% of those of terbium gallium garnet (TGG) at 450 nm and approximately 63–69% over the rest of the visible and near‐infrared spectral regions. These results establish Ce 3+ ‐activated BASL glass as a multifunctional optical material and identify it as a promising silicate glass system for luminescent and magneto‐optical applications.
The authors' abstract, as published at the source. Advanced Optical Materials, 2026 · DOI ↗
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Field: Ceramics and Composites
Ceramics and CompositesMaterials Science