@article{yang_rouskas_2006, title={Adaptive path selection in OBS networks}, volume={24}, number={8}, journal={Journal of Lightwave Technology}, author={Yang, L. and Rouskas, G. N.}, year={2006}, pages={3002–3011} }
 @article{chin_yang_ollis_2006, title={Formaldehyde removal from air via a rotating adsorbent combined with a photocatalyst reactor: Kinetic modeling}, volume={237}, ISSN={["1090-2694"]}, DOI={10.1016/j.jcat.2005.10.013}, abstractNote={A novel rotating honeycomb adsorbent coupled with a photocatalytic reactor demonstrated by Shiraishi et al. is modeled here. In operation, the air pollutant formaldehyde was adsorbed from a simulated room (10 m3) onto a slowly rotating honeycomb, which then passed slowly through a small chamber (0.09 m3) in which locally recirculated heated air desorbed the formaldehyde and carried it through a photocatalytic reactor, which oxidized the desorbed material. The regenerated rotor-adsorbent then rotated back into the airtight chamber. This system was modeled at steady states and transient states to determine adsorption, desorption, and photocatalyst pseudo-first-order rate constants at the appropriate temperatures (ambient temperature for adsorption, 120–180 °C for desorption and photocatalysis). Intensity-corrected values for the photocatalytic rate constant kcat (cm2/(mW s)) deduced from fitting our model to the data of Shiraishi et al. were in good agreement with those calculated from five literature reports for formaldehyde photocatalytic destruction.}, number={1}, journal={JOURNAL OF CATALYSIS}, author={Chin, P and Yang, LP and Ollis, DF}, year={2006}, month={Jan}, pages={29–37} }