Optical nanocavity enabling hyper resolution in 2D and 3D two photon direct writing lithography towards flat metalens

Giseppe Emanuele Lio, Antonio Ferraro, T. Ritacco, D. Aceti, A. De Luca, M. Giocondo, R. Caputo
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Abstract

An increasing amount of research is being devoted to improve the spatial resolution in direct laser writing (DLW) technique allowing the fabrication of complex 2D and 3D nanoscale devices. Among the various possibilities, we exploited uncommon features as extraordinary transmittance, zero re ectance, giant dephasing and epsilon-near-zero relative permittivity of a metal/insulator/metal/insulator (MIMI) planar multilayer to upgrade a standard two-photon DLW process to hyper resolution. The improved resolution opens new opportunities in the fabrication of next-generation nanoscale devices such as metalenses, photonic circuits to name a few and in thermoplamonics. A high writing resolution is crucial for industrial applications in fields like anti-counterfeiting and at optics. Having reduced the voxel size by 89% in height and 50% in width, we fabricated full-dielectric broadband metalenses and in order to demonstrate the full capability of the achieved hyper resoution flat detailed bas-relief of Da Vinci’s ”Lady with an Ermine” has been realized.
光学纳米腔实现了二维和三维双光子直写光刻的超分辨率
越来越多的研究致力于提高空间分辨率的直接激光写入(DLW)技术允许制造复杂的二维和三维纳米级器件。在各种可能性中,我们利用了金属/绝缘体/金属/绝缘体(MIMI)平面多层的超常透射率、零反射率、巨减相和epsilon-近零相对介电常数等不寻常的特征,将标准的双光子DLW工艺提升到超分辨率。提高的分辨率为制造下一代纳米级器件(如超透镜、光子电路等)和热平面电子学开辟了新的机会。高书写分辨率对于防伪和光学等工业应用至关重要。我们将体素的高度减少了89%,宽度减少了50%,制作了全介电宽带超透镜,并实现了达芬奇“抱银鼠的女士”的超分辨率平面详细浅浮雕的全部功能。
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