Multi-frequency lithium niobate thin-film resonators

S. Bhave
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Abstract

Summary form only given. To satisfy the ever-increasing demand for spectrum, commercial markets desire integrated multi-frequency “band”-select duplexer and diplexer filters, with fractional bandwidth (BW) ranging from 3% to 10% and steep roll-off for high stop band rejection. The achievable bandwidth of such filters is ultimately limited by the electro-mechanical coupling factor (kt2) of the resonators, while the roll-off is determined by resonator quality factor (Q). Therefore, resonators with both high kt2 and high Q are desired for large BW steep roll-off filters. In this talk I present the fabrication technology and design of thin-film lithium niobate (LN) contour-mode resonators. By carefully positioning the inter-digital transducer (IDT), we 2 achieved CMRs with kt2×Q of 148 (IDT @ node) and very high kt2 resonators with spur-attenuated response (IDT @ anti-node) [1,2] . We have demonstrated resonators with frequencies ranging from 400MHz to 1.9GHz on a single chip. Additionally, we have demonstrated high optical Q, GHz FSR photonic resonators on the same platform paving the way for high-bandwidth and efficient chip-scale microwave photonics [3].
多频铌酸锂薄膜谐振器
只提供摘要形式。为了满足不断增长的频谱需求,商业市场需要集成多频“带”选择双工器和双工器滤波器,其分数带宽(BW)范围为3%至10%,并且具有高阻带抑制的陡峭滚降。这种滤波器的可实现带宽最终受到谐振器的机电耦合因子(kt2)的限制,而滚降则由谐振器质量因子(Q)决定。因此,对于大BW陡滚降滤波器,需要具有高kt2和高Q的谐振器。在这次演讲中,我介绍了薄膜铌酸锂(LN)轮廓模谐振器的制造技术和设计。通过仔细定位数字间换能器(IDT),我们2实现了具有kt2×Q = 148 (IDT @节点)和具有刺激衰减响应(IDT @反节点)的非常高kt2谐振器的cmr[1,2]。我们已经在单个芯片上演示了频率范围从400MHz到1.9GHz的谐振器。此外,我们已经在同一平台上展示了高光学Q, GHz FSR光子谐振器,为高带宽和高效的芯片级微波光子学铺平了道路[3]。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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