Experimental analysis of a corrugated plate photocatalytic reactor [An article from: Chemical Engineering Journal]
Book Details
PublisherElsevier
ISBN / ASINB000RQZ3IQ
ISBN-13978B000RQZ3I9
AvailabilityAvailable for download now
Sales Rank99,999,999
MarketplaceUnited States 🇺🇸
Description
This digital document is a journal article from Chemical Engineering Journal, published by Elsevier in 2004. The article is delivered in HTML format and is available in your Amazon.com Media Library immediately after purchase. You can view it with any web browser.
Description:
A corrugated plate reactor configuration was developed and assessed using 4-chlorophenol degradation experiments and mass transfer tests. Two other reactor systems, a flat plate reactor and a slurry reactor, were examined for comparative purposes. The corrugated plate reactor was found to be up to 150% faster and more energy-efficient than a similar flat plate reactor. Its electrical energy per order of concentration reduction (EE/O) was estimated to be as low as 37kWh/m^3 and was close to that of a slurry system. Mass transfer rates in corrugated plate reactors were found to be up to 600% higher than those in the flat plate reactor. The superior performance of this reactor is due primarily to its large illuminated catalyst surface area per unit volume, and its ability to effectively deliver both photons and reactants to the catalyst surfaces.
Description:
A corrugated plate reactor configuration was developed and assessed using 4-chlorophenol degradation experiments and mass transfer tests. Two other reactor systems, a flat plate reactor and a slurry reactor, were examined for comparative purposes. The corrugated plate reactor was found to be up to 150% faster and more energy-efficient than a similar flat plate reactor. Its electrical energy per order of concentration reduction (EE/O) was estimated to be as low as 37kWh/m^3 and was close to that of a slurry system. Mass transfer rates in corrugated plate reactors were found to be up to 600% higher than those in the flat plate reactor. The superior performance of this reactor is due primarily to its large illuminated catalyst surface area per unit volume, and its ability to effectively deliver both photons and reactants to the catalyst surfaces.
