This document appears to be a collection of papers and figures related to silicon photonics. It includes papers on two-photon absorption and Kerr coefficients of silicon, photon-pair generation in silicon-on-insulator at micron wavelengths, coherency-broken Bragg filters for overcoming on-chip rejection limitations, and fundamental building blocks in silicon photonics design. Figures show the coupling scheme of a nanofibre tip to a silicon nanowire, mode field profiles of a coupled nanotapered fiber coupler, and the transmission of a nanotapered coupler system with misalignment. The length of one device is listed as 8mm and monolithic integration is mentioned.

7. Bristow, Alan D., Nir Rotenberg, and Henry M. Van Driel. "Two-photon absorption and Kerr
coefficients of silicon for 850–2200nm." Applied physics letters 90.19 (2007).

8. DA Sulway, Y Yonezu, LM Rosenfeld, P Jiang, T Aoki, JW Silverstone
arXiv preprint arXiv:2209.08931
Render of the coupling scheme. The input nanofibretip (left,
transparent) is coupled to a nanotapered,suspended siliconnanowire
(purple) with selectively etched buried-oxide (BOX, grey)
Mode field profiles of the coupled NTFC at 𝑧 = 0 μm
and 𝑧 = 30 μm.
Normalised transmission of the two nanotapered
coupler system with varying degrees of lateral
misalignment on one of the couplers.

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D. A. Sulway, S. G. Currie, L. M. Rosenfeld,and J. W. Silverstone, "Photon-
pair generation in standard silicon-on-insulator at2 micronswavelength,"

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Oser, D., et al., Coherency‐Broken Bragg Filters: Overcoming On‐Chip
Rejection Limitations.
Chrostowski, L., & Hochberg, M. (2015). FundamentalBuildingBlocks.
In SiliconPhotonics Design: From Devices to Systems (pp. 92-161)

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15. Length of the device L= 8mm.
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17. MONOLITHIC
INTEGRATION
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