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Volume 3, Issue 2 (Suppl)

Ind Chem

ISSN: 2469-9764, ICO an open access journa

Industrial Chemistry 2017

May 22-23, 2017

May 22-23, 2017 Las Vegas, USA

2

nd

World Conference on

Industrial Chemistry and Water Treatment

Adele Brunetti, Ind Chem 2017, 3:2 (Suppl)

http://dx.doi.org/10.4172/2469-9764-C1-005

Membrane condensers as emerging technology for water recovery from waste gaseous streams

Adele Brunetti

The University of Calabria, Italy

T

he shortage of potable water has become an environmental issue more and more pressing owing to the continuous growth

in water demand not balanced by an adequate recharge. If we think the water use in power generation for boilers, cooling

and cleaning purposes account for around 22% of global water consumption. Separation and recovery of water contained in

the waste gaseous streams can be considered as a new water source, also simply pursuing the possibility that industry can close

the own water cycle by capturing evaporated water, minimizing the make-up from external sources. In this work, an emerging

technology, so-called membrane condenser for the selective removal of water from the evaporated industrial waste will be

introduced. In this system, the feed (super-saturated industrial gas) is brought into contact with hydrophobic microporous

membranes in membrane contactor configuration. The water condenses onto the membrane surface and the hydrophobic

nature of the latter prevents the penetration of the liquid into the pores, letting the dehydrated gases pass through the membrane

and retaining the liquid water at the retentive side. An experimental and simulation study is developed for predicting the

membrane-based process performance. Feed flow rate, interfacial membrane area, temperature difference between the fed flue

gas and the membrane module result the driving parameters controlling the process. The analysis of the potentialities of this

new technology is supported by the introduction of process intensification metrics which provide an alternative and innovative

point of view regarding the unit performance, highlighting important aspects characterizing the technology and not identified

by the conventional analysis. In the end, this presentation aims to give a point of view on the approach to be used for a proper

evaluation of emerging membrane technologies performance and comparison with conventional units.

Biography

Adele Brunetti has obtained her PhD in Chemical Engineering in 2008 at the University of Calabria. In 2004, she worked at ITM-CNR in the framework of several

projects at international and national level. In 2012, she has worked as a Researcher at ITM-CNR. She is the author of 50 papers published on referenced

international scientific journals, 9 book chapters edited by Elsevier, Wiley, Royal Society of Chemistry and about 150 international conference proceedings. She is

a Referee of several scientific journal of international level. Her research interest includes membrane condensers for water recovery; catalytic membrane reactors

for high temperature reactions; design of membrane separation unit for the recovery of high purity hydrogen; study of integrated membrane plants for high purity

(CO<10 ppm) hydrogen production; membrane gas separation; CO

2

capture by membrane technology; testing and characterization of polymeric, zeolitic, ceramic

membranes for gas separation, also in controlled relative humidity conditions.

brunetti@itm.cnr.it