TY - JOUR
T1 - Optimizing performance of plasmonic devices for photonic circuits
AU - Rosenzveig, Tiberiu
AU - Hermannsson, Pétur Gordon
AU - Boltasseva, Alexandra
AU - Leosson, Kristjan
PY - 2010
Y1 - 2010
N2 - We demonstrate the feasibility of fabricating thermo-optic plasmonic devices for variable optical attenuation and/or low-frequency (kHz) signal modulation. Results of finite-element simulations and experimental characterization of prototype devices indicate that a plasmonic device can reach specifications similar to or better than commercially available thermo-optic integrated optical components. Specifically, we have considered the insertion loss, power consumption, footprint, polarization-dependent loss, extinction ratio, and frequency response of the plasmonic devices, in addition to fabrication and material-related issues. The most serious fabrication challenge is to realize metallic nanowire waveguides with a sufficiently accurate cross-section to ensure low polarization-dependent loss at high extinction ratios.
AB - We demonstrate the feasibility of fabricating thermo-optic plasmonic devices for variable optical attenuation and/or low-frequency (kHz) signal modulation. Results of finite-element simulations and experimental characterization of prototype devices indicate that a plasmonic device can reach specifications similar to or better than commercially available thermo-optic integrated optical components. Specifically, we have considered the insertion loss, power consumption, footprint, polarization-dependent loss, extinction ratio, and frequency response of the plasmonic devices, in addition to fabrication and material-related issues. The most serious fabrication challenge is to realize metallic nanowire waveguides with a sufficiently accurate cross-section to ensure low polarization-dependent loss at high extinction ratios.
U2 - 10.1007/s00339-010-5862-2
DO - 10.1007/s00339-010-5862-2
M3 - Journal article
SN - 0947-8396
VL - 100
SP - 341
EP - 346
JO - Applied Physics A: Materials Science & Processing
JF - Applied Physics A: Materials Science & Processing
IS - 2
ER -