Results 11 to 20 of about 70,198,860 (309)

Photonic crystal and photonic wire nano-photonics based on silicon on insulator [PDF]

, 2006
Silicon-on-insulator (SOI) is a strong candidate for application in future planar waveguide integration technology, whether or not luminescence is extracted from the silicon.
De La Rue, Richard, Gnan, Marco, Ciminelli, C., Camargo, Edilson, Zain, Ahmad Md, Johnson, Nigel, Zhang, Hua, Pottier, Pierre, Jin, Chongjun, Ciminelli, Caterina, Armenise, Mario, Zain, A.M., Pottier, P., Jin, C.J., Camargo, E., Zhang, H., Sorel, Marc, Chong, Harold, Gnan, M., Johnson, N., Armenise, M., Zain, A. M, Sorel, M., Chong, H., Jin, C., De la Rue, R., Ntakis, I., ARMENISE, Mario Nicola, Ntakis, Iraklis   +28 more
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Group IV platforms for the mid-infrared [PDF]

, 2013
We have investigated several material platforms for the mid-infrared including silicon on insulator (SOI), polycrystalline silicon, and suspended silicon structures.
Krauss, T.F., Reed, G.T., Peacock, A.C., M. Sorel, Ben Masaud, T.M., M. Muneeb, T. M. Ben Masaud, Chen, X., Mashanovich, G.Z., Chen, X, Mashanovich, GZ, Roelkens, Günther, Muneeb, M., H. M. H. Chong, Chong, HMH, M. Strain, Strain, M, G. T. Reed, A. C. Peacock, Ben Masaud, TM, Strain, M., Sorel, M., Roelkens, G.C., G. Z. Mashanovich, Krauss, TF, G. C. Roelkens, Nedeljković, M., Reed, GT, Peacock, AC, T. F. Krauss, Nedeljkovic, M, M. Nedeljkovic, Chong, H.M.H., X. Chen, Muneeb, Muhammad   +34 more
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Silicon-based photonic integration beyond the telecommunication wavelength range [PDF]

, 2014
In this paper we discuss silicon-based photonic integrated circuit technology for applications beyond the telecommunication wavelength range. Silicon-on-insulator and germanium-on-silicon passive waveguide circuits are described, as well as the ...
Malik, Aditya, Shimura, Y, Malik, A, Gassenq, Alban, Green, WMJ, Green, William M. J., Gencarelli, Federica, Healy, N, Roelkens, Roel, Uvin, Sarah, Tournie, E, Dave, Utsav Deepak, Shimura, Yosuke, Ryckeboer, Eva M.P., Peacock, Anna C., Osgood, Richard, Ryckeboer, Eva, Chen, Xia, Mashanovich, Goran, Z., Green, William W.M.J., Van Campenhout, Joris, Tournié, Eric, Leo, Francois, Loo, Roger, Nedeljkovic, M, Osgood, Richard M J R.M., Muneeb, Muhammad, Baets, Roel G. F., Van Campenhout, J, Gencarelli, F, Kuyken, Bart, Hu, Chen, Green, William M.J., Loo, R, Chen, X, Nedeljković, Miloš, Dave, Utsav, Hattasan, Nannicha, Cerutti, Laurent, Rodriguez, Jean-Baptiste, Mashanovich, Goran,, Sanchez, Dorian, Wang, Ruijun, Roelkens, Gunther, Baets, Roel, Rodriguez, Jean Baptiste, Healy, Noel, Shen, L, Vincent, Benjamin, Osgood, R, Healy, Noel V., Cerutti, L, Shen, Li, Mashanovich, Goran Z., Vincent, B, Liu, XP, Hens, Zeger, R'Ghif, Naima, Peacock, AC, Mashanovich, Goran, Rodriguez, JB, Mashanovich, G, Liu, Xiaoping   +62 more
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High-Q TeO₂–Si Hybrid Microring Resonators

Applied Sciences, 2022
We present the design and experimental measurement of tellurium oxide-clad silicon microring resonators with internal Q factors of up to 1.5 × 106, corresponding to a propagation loss of 0.42 dB/cm at wavelengths around 1550 nm.
Khadijeh Miarabbas Kiani, Dawson B. Bonneville, Andrew P. Knights, Jonathan D. B. Bradley   +3 more
doaj   +1 more source

Silicon-on-insulator nanophotonics [PDF]

SPIE Proceedings, 2005
Nanophotonics promise a dramatic scale reduction compared to contemporary photonic components. This allows the integration of many functions onto a chip. Silicon-on-insulator (SOI) is an ideal material for nanophotonics. It consists of a thin layer of silicon on top of an oxide buffer.
Wim Bogaerts, Pieter Dumon, Patrick Jaenen, Johan Wouters, Stephan Beckx, Vincent Wiaux, Dries Van Thourhout, Dirk Taillaert, Bert Luyssaert, Roel Baets   +9 more
openaire   +1 more source

CORNERSTONE’s Silicon Photonics Rapid Prototyping Platforms: Current Status and Future Outlook

Applied Sciences, 2020
The field of silicon photonics has experienced widespread adoption in the datacoms industry over the past decade, with a plethora of other applications emerging more recently such as light detection and ranging (LIDAR), sensing, quantum photonics ...
Callum G. Littlejohns, David J. Rowe, Han Du, Ke Li, Weiwei Zhang, Wei Cao, Thalia Dominguez Bucio, Xingzhao Yan, Mehdi Banakar, Dehn Tran, Shenghao Liu, Fanfan Meng, Bigeng Chen, Yanli Qi, Xia Chen, Milos Nedeljkovic, Lorenzo Mastronardi, Rijan Maharjan, Sanket Bohora, Ashim Dhakal, Iain Crowe, Ankur Khurana, Krishna C. Balram, Luca Zagaglia, Francesco Floris, Peter O’Brien, Eugenio Di Gaetano, Harold M.H. Chong, Frederic Y. Gardes, David J. Thomson, Goran Z. Mashanovich, Marc Sorel, Graham T. Reed   +32 more
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Novel Modulation and Detection Mechanisms in Silicon Nanophotonics [PDF]

, 2006
A number of nanophotonic integrated circuits are presented, which take advantage of the unique properties that light has when guided in very small waveguides to achieve novel functionality.
Baehr-Jones, Tom Wetteland
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Solid Phase Recrystallization in Arsenic Ion-Implanted Silicon-On-Insulator by Microsecond UV Laser Annealing

IEEE Journal of the Electron Devices Society, 2022
UV laser annealing (UV-LA) enables surface-localized high-temperature thermal processing to form abrupt junctions in emerging monolithically stacked devices, where the applicable thermal budget is restricted.
Toshiyuki Tabata, Fabien Roze, Pablo Acosta Alba, Sebastien Halty, Pierre-Edouard Raynal, Imen Karmous, Sebastien Kerdiles, Fulvio Mazzamuto   +7 more
doaj   +1 more source

Analysis of Leakage Loss in Silicon Photonics with Finite Gain Compensation

IEEE Photonics Journal, 2017
Silicon waveguides fabricated on silicon-on-insulator wafers are leaky in nature. This fact puts a lower bound on the insulator thickness in silicon photonic structures as integrated with compact electronic devices.
Po-Jui Chiang, Tien-Tsorng Shih
doaj   +1 more source

Ultra-Dense Nano- and Molecular-Electronic Circuits [PDF]

, 2007
This thesis describes research towards the realization of large-scale, ultra-dense nanowire-based circuits. The primary means for the construction of such circuits is the superlattice nanowire pattern transfer (SNAP) technique.
Green, Jonathan Earl
core   +1 more source