3D Nano-Printing in Integrated Optics: From Laboratory Experiments to Industrial Production
- Institute of Microstructure Technology, Karlsruhe Institute of Technology (KIT)
christian [dot] koos [at] kit [dot] edu
Multi-photon lithography has become a powerful tool for additive 3D fabrication on the micro- and nano-scale. This talk will give an overview on our progress in leveraging lithographic 3D nano-printing as a tool for integrated optics. We exploit the technique for fabrication of 3D freeform single-mode waveguides, so-called photonic wire bonds, that can efficiently connect optical chips within a chip-scale package, without the need for high-precision active alignment steps. Photonic wire bonding builds the base of highly flexible photonic multi-chip modules that combine different optical integration platforms in a hybrid approach. 3D nano-printing also allows fabrication of freeform micro-optical elements with highest precision directly on the facets of integrated optical devices. Such facet-attached elements allow for beam-shaping, low-loss coupling with high alignment tolerance, or wafer-level probing of optical devices. While the viability of these concepts has been demonstrated in laboratory experiments in a first step, they are now made available to industrial applications through dedicated production tools along with robust and scalable fabrication processes.
@inproceedings{koos2020h7,
author = {Koos, Christian},
title = {{3D Nano-Printing in Integrated Optics: From Laboratory Experiments to Industrial Production}},
booktitle = {DGaO-Proceedings 2020},
series = {DGaO-Proceedings},
eventtitle = {121. Jahrestagung der DGaO},
eventdate = {2020-06-03/2020-06-06},
venue = {Bremen},
publisher = {Deutsche Gesellschaft für angewandte Optik e.V.},
year = {2020},
pages = {H7},
langid = {english},
url = {https://dgao-proceedings.de/paper/121-h7}
}