BRAIN RESEARCH, HUMAN MEMORY BOOKS, MOLECULAR BIOLOGY, LAPTOP, NOTEBOOK, COMPUTER, and ELECTRONICS

Search
 Shop

Electronics

PC Hardware

Saltwater Fishing

Brain

Home

Design of novel direct contact membrane distillation membranes [An article from: Desalination]

Design of novel direct contact membrane distillation membranes [An article from: Desalination]
Email a friendEmailView larger imageZoom

Design of novel direct contact membrane distillation membranes [An article from: Desalination]

 
 
Our Price: $10.95
Shipping: Eligible for FREE Super Saver Shipping on orders over $25.
 
SKU:  

In Stock
Availability:   Usually ships in 1 business days
 
 

Note: Item may be sold and shipped by another company. Learn more.


Description

This digital document is a journal article from Desalination, published by Elsevier in 2006. 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:
The desired characteristics needed for a membrane to be used in direct contact membrane distillation (DCMD) are outlined. A new approach for the design of novel membranes for desalination by DCMD is proposed. Porous hydrophobic/hydrophilic composite membranes have been prepared in one casting step, using the traditional phase inversion method of polymer solutions containing a hydrophilic host polymer and a fluorinated surface modifying macromolecule. The membranes comply with the conditions and properties required in DCMD process. Membranes of different mean pore sizes, pore size distributions, porosities, roughnesses, liquid entry pressures of water and thicknesses can be formed by varying the membrane preparation conditions. The structural characteristics and the DCMD performance of the first proposed porous composite membranes were compared with those of the commercial membranes most frequently used in this kind of process. The proposed membranes have potential to be used in DCMD for desalination because, compared to the commercial ones, these membranes possess a thinner hydrophobic porous top-layer responsible for the water vapour transport in DCMD and a thicker hydrophilic porous sub-layer filled with water to lower the conductive heat loss. The thickness of the hydrophobic layer was found to be an order of magnitude lower than that of the commercial membranes.


Product Details
Author:M. Khayet
Digital:6 pages
Publisher:Elsevier
Publication Date:May 10, 2006

Customer Reviews
Write an online review and share your thoughts with other customers.



 About UsContact Us
Web business powered by Amazon WebStore