First issue is now available!

Read the inaugural issue of Environmental Science: Water Research & Technology

ESWRT Cake

Last week, we were tremendously excited to announce the publication of our first issue of Environmental Science: Water Research & Technology. This inaugural issue was introduced by David M. Cwiertny, Editor-in-Chief of the journal.

In his editorial ‘To new beginnings and a better alternative’, he stated our strong commitment to grow a footprint in the water and environmental research.

The launch of this journal would not have been possible without an incredibly professional and capable Editorial Board. Therefore, we included a Profile article with mini-biographies so you can meet them and read more about their background.

Cake cutting

This issue contained three HOT articles which obtained particularly high scores during peer review.

In the first of them, researchers from the Manchester Metropolitan University discussed the quantification of corrosion inhibitors used in the water industry for steam condensate treatment.

The second article was brought to us by Michael Templeton, who wrote an insightful perspective on achieving sustainable sanitation for all.

And last but not least, the group of Zhiyong Jason Ren presented a research on microbial capacitive desalination and energy production from unconventional natural gas produced water in our third HOT article.

In our office in Cambridge, this special event called for some celebration and we enjoyed an incredible cake with the cover of this first issue.

We hope you enjoy reading Issue 1 as much as we did. We are now relentlessly working on our next ones to keep up the incredible high standards set up in the inaugural issue. Be ready!

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Read our first issue:
01 January 2015, Issue 1,  Page 1 to 122
Environmental Science: Water Research & Technology
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Energy-water-food nexus: “All the pieces matter”

an article by webwriter Paramjeet Pati (PhD Candidate at @VTSuN)

As far as technical reports go, the Soggy Lettuce Report (2004) is as delightful a name as any. According to the report: “More money is wasted on food each year [in the United Kingdom] than any other category of goods and services – a whopping ₤424 per person.” But money isn’t the only loss – gone with the wasted soggy lettuce are its embodied energy and water.

The Nexus: Energy, water and food are inextricably intertwined. In a recent forum, Machell et al. discuss the interdependencies between the three (also called the Energy-Food-Water Nexus). “Food production consumes both water and energy in order to grow, harvest, clean and prepare food.” (Machell et al.) Water and energy are interdependent too. Water is indispensable for every phase of energy production. Steam generation for electricity, extraction of fossil fuels, and cultivation of biofuel crops – all of these depend on water. On the other hand, it takes energy to treat and distribute water for human use.Energy-Water-Food Nexus

So, letting food go to waste means we are also wasting water. Leaving a faucet running unnecessarily wastes not only water, but also the energy it took to extract, treat and send the water to that faucet. By leaving the lights on or letting an idling car needlessly guzzle fuel (petrol, diesel, and yes, even electricity), we are wasting energy that could have been used to clean water or grow food.

Policy implications: It is important that we develop future policies using the nexus perspective. “…[C]auses that might upset the nexus balance are increasingly requiring global solutions and there is a great need for joined-up activities between stakeholders to mitigate future resource conflicts.” (Machell et al.)

A deeper understanding of this nexus balance will help us change our perceptions and consumption patterns. That soggy lettuce that we throw away has far-reaching environmental implications as well as opportunities for energy recovery [1,2,3]. International trade [4], climate and water policies [5], renewable energy [6,7], and wastewater treatment [8] have interlinked environmental and social impacts [9] that can be identified only through comprehensive nexus analysis. As mentioned in the article, “The complex relationships in the water energy food nexus, require informed production and consumption decisions for the near future that can mitigate negative impacts on risk, security, and the environment.”

The Wire had it right: The interdependencies between energy, water and food cannot be compartmentalized and studied in isolation. Detective Lester Freamon said it best: “All the pieces matter.”

Find out how by reading the full article for free*:

The water energy food nexus – challenges and emerging solutions
Environ. Sci.: Water Res. Technol., 2015, 1, 15-16
DOI: 10.1039/C4EW90001D

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About the webwriter

Paramjeet Pati is a PhD Candidate at the Virginia Tech Center for Sustainable Nanotechnology (@VTSuN).
You can find more articles by him in the VTSuN blog, where he writes using the name
coffeemug.

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*Access is free through a registered RSC account.

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Environmental Science: Water Research & Technology Special Issue

Environmental Science:Water Research & Technology introduce a special issue on recent advances associated with the potable reuse of water

Are you currently doing research in an area of potable water reuse?

We are delighted to announce a special themed issue, dedicated to recent advances associated with the potable reuse of water, which will be published in 2015 in Environmental Science: Water Research & Technology.

The Editor-in-Chief David. M Cwiertny, and Associate Editor Stuart Khan, are encouraging submissions highlighting research technology and engineering development at the leading edge of potable water reuse.

This special issue will combine a variety of topic areas that are relevant to Environmental Science: Water Research & Technology. Submissions in the following areas are welcome:

•           Technical innovations facilitating potable reuse

•           Human health risk assessment of potable reuse

•           The role and efficiency of environmental buffers in indirect potable reuse

•           Monitoring strategies in potable water reuse systems

•           Assessment and regulation of potable water reuse projects

•           Public perception of direct and indirect potable reuse

•           Sustainability assessment for potable reuse

•           Technical challenges, particularly relating to direct potable reuse

•           Novel applications of direct and indirect potable reuse

Submit your Paper!

We welcome original research papers, communications and Review articles.

For more information on the scope of Environmental Science: Water Research & Technology and our author guidelines, please visit our website or email us at ESWater-rsc@rsc.org

Submission Deadline: 15th February 2015

We hope to receive a manuscript from you or your group soon!

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Switching desalination plants from carbon dioxide source to sink

An Environmental Science: Water Research & Technology article highlighted in Chemistry World by Katie Lim

A UK researcher has proposed a new process to decompose waste desalination brine using solar energy that could allow desalination plants to act as a sink rather than a source of atmospheric carbon dioxide, and help to neutralise ocean acidity.

Desalination plants

Phil Renforth, a geo-environmental engineer from Cardiff University, highlights that a major advantage of Davies’ process is that it can be appended to existing technology. ‘This approach may allow the industry to transform itself from a carbon dioxide villain into a force for good in the climate change debate.’


Read the full article in Chemistry World.


Read the full research paper for free* in Environmental Science: Water Research & Technology:
Solar thermal decomposition of desalination reject brine for carbon dioxide removal and neutralisation of ocean acidity

P. A. Davies
Environ. Sci.: Water Res. Technol.
, 2015, Advance Article
DOI:
10.1039/C4EW00058G, Communication


*Access is free through a registered RSC account
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Environmental Science: Water Research & Technology

The benefits of publishing with us

Here is a few reminders of the great benefits of publishing with Environmental Science: Water Research & Technology:

Environmental Science Water
Free colour on all figures

– No page charges and no page limits

Fast Publication (average of 40 days from receipt to acceptance)

– Wide exposure: free access to all content for the first 2 years after launch*

– Individual promotion of HOT articles

– Papers processed by peers in the field

– High quality content

– Free electronic reprints

– Simple and effective submission process

Submit now!

*ES: Water Research & Technology was launched in 2015. Access is free through a registered RSC Publishing account.

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Removing phosphate from water

an article by our webwriter Paramjeet Pati (PhD Candidate at @VTSuN)

On 5th October 2014, Drake took a short swim in the lake in Lindon Harbor, Utah. Drake was a black Labrador retriever. Like most dogs, he loved to play in the water. After the swim, Drake started vomiting and became lethargic. Shortly after that, Drake died. “[D]og deaths have emerged as an unfortunate early warning…” An early warning of what?

When blooms aren’t beautiful and nutrients don’t nourish

Recent dog deaths have pointed to one suspect: pond scum – or more specifically – harmful algal blooms. Some algae produce toxins that have been linked to the deaths of cattle, elks, fishes, and even endangered species such as sea otters. These toxins can also bioaccumulate in shellfish and oysters. Eat enough seafood seasoned with these toxins, and you are at risk too.

What’s causing these algal blooms?

Natural waters contain small amounts of nutrients (mostly nitrate and phosphate). Under normal conditions, planktons and algae grow using these nutrients, fish feed on the plankton, and things are in balance.

But excess nutrients in the water can skew the balance in favour of the algae, allowing them to spread unchecked like weeds. Even if they don’t produce toxins the algae block light as they sun themselves on the water surface. These harmful algal blooms alter marine and freshwater habitats, smothering other forms of aquatic life. This map gives an idea of how bad the situation has become.

Why are nutrient concentrations increasing?

Excess nutrients enter the water when rain washes fertilizers from agricultural land into the nearby water bodies. Other major sources of nutrients are industrial and domestic wastewater. In short, the blame falls squarely on us humans – me and you.

Water treatment and nutrient removal

It is our mess and we have to clean it. Researchers have been actively developing more efficient ways for removing nutrients from drinking water and wastewater. In a recent article, Lalley et al. reported a novel method for removing phosphate (a growth-limiting nutrient).

The authors present clever modifications of an absorptive medium (originally developed for removing arsenic from water) using silver and manganese nanoparticles. One of these modifications involves tea extract.

What could the humble tea have to do with this method for phosphate removal? Find out by reading the full article for free*:

Phosphate removal using modified Bayoxide® E33 adsorption media
Environ. Sci.: Water Res. Technol., 2015, Advance Article
DOI: 10.1039/C4EW00020J

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About the webwriter

Paramjeet Pati is a PhD Candidate at the Virginia Tech Center for Sustainable Nanotechnology (@VTSuN).
You can find more articles by him in the VTSuN blog, where he writes using the name
coffeemug.

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*Access is free through a registered RSC account – click here to register

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Arsenic removal enhanced by humic acid

Schematic diagram of humic acid coating

Schematic diagram of humic acid coating on iron-based graphene composites

After tragic events like the devastating arsenic poisoning in Bangladesh in 2010, the exposure of drinking water to arsenic is a very serious concern worldwide.

Past studies have shown that removal of arsenic by nanoparticles in the presence of Humic Acid (HA) has a negative role. Now, for the first time, Blain Paul and colleagues have reported a positive influence of HA on graphene–Fe3O4 nano-composites for the removal of arsenic in water.

Contradictory to the general belief that HA has a negative effect on the ability of any system to absorb arsenic from water, this remarkable study demonstrates a role reversal of HA where it actually enhances the ability of graphene-Fe3O4 nano-composite to remove arsenic from ground water.

Researchers from the University of Johannesburg assembled Fe3O4 nanoparticles on graphene oxide sheets and coated with humic acid. The humic acid coating not only enhanced the nano-composites absorption ability, but almost doubled the removal efficiency of As(III) and As(V), opening a new dimension in the practical utilisation of nanotechnology in water research for arsenic removal.

Download the full paper for free* to find out how humic acid coating could significantly alter mechanism through π–π interactions, positively enhancing the removal of arsenic from water:

Graphene in the Fe3O4 nano-composite switching the negative influence of humic acid coating into an enhancing effect in the removal of arsenic from water
Blain Paul, Vyom Parashara and Ajay Mishra
Environ. Sci.: Water Res. Technol., 2015, Advance Article
DOI: 10.1039/ C4EW00034J

*Access is free through a registered RSC account – click here to register

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Introducing Editorial Board Member, Lutgarde Raskin

We are delighted to introduce Lutgarde Raskin as an Editorial Board Member for our new journal Environmental Science: Water Research & Technology.

Lutgarde Raskin

Having completed her Ph.D. in Environmental Engineering at the University of Illinois at Urbana-Champaign in 1993, Lutgarde is now the Altarum/ERIM Russell O’Neal Professor of Engineering at the University of Michigan.

Lutgarde has worked on a variety of biological water treatment processes.  Her current research focusses on anaerobic microbial processes for energy recovery from waste streams, and microbial processes in drinking water systems, including biological filtration, disinfection, and microbial ecology of distribution systems and premise plumbing.  In her research, she uses cutting-edge molecular tools to characterize and optimize water quality process performance.

Lutgarde’s Inspiration:

I am inspired by the complexity of the microbial world and the astonishing progress we have made in microbial ecology over the past few decades. This progress continuously motivates me to rethink engineered systems so we can better harness the power of microorganisms to treat water and recover resources from waste streams.

Lutgarde Raskin, Editorial Board Member, Environmental Science: Water Research &Technology


Make sure you don’t miss out on the latest journal news by registering your details to receive the regular Environmental Science: Water Research & Technology e-alert.

Follow us on Twitter @ESWater_RSC.

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Energy positive treatment for fracking water

$5 billion (£3 billion) is the estimated annual cost for disposing of contaminated water produced during shale gas extraction. Now, researchers in the US have developed a new technology that could reduce the cost of dealing with this water by 30–40%.

Reclaimed fracking fluid is a significant environmental impediment to the energy industry © FLPA / Alamy

Hydraulic fracturing, the process used to extract oil and gas from underground rock formations, produces over 20 billion barrels of contaminated water every year. Current methods, such as underground injection, to dispose of these vast quantities of contaminated water have risks, including a chance of initiating earthquakes. Reuse of this water avoids disposal issues, but requires multiple treatment processes to remove contaminants such as salts and organic hydrocarbons.

Zhiyong Jason Ren and colleagues from the University of Colorado Boulder have developed a technique that can simultaneously remove organic pollutants and salinity from contaminated water whilst producing energy. ‘The beauty of this technology is that it can replace five or six current processes with one to kill multiple birds with one stone,’ he says.

To read the full article please visit Chemistry World.

Congratulations to the team at CU-Boulder who were recently awarded first place in the National Science Foundation’s Innovation Corps Program for the development of this technology.

With energy companies eager to test the technology in the field, Ren’s team is now working to scale up the process. You can access their full research paper, which is part of our Fracking in Perspective web collection for free* by clicking the link below.

Environ. Sci.: Water Res. Technol., 2015, Advance Article
DOI: 10.1039/C4EW00050A, Paper
From themed collection Fracking in perspective

*Access is free through a registered RSC account – click here to register.

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Introducing Editorial Board Member, Long Nghiem

We are delighted to introduce Long Nghiem as an Editorial Board Member for our new journal Environmental Science: Water Research & Technology.

Long Nghiem

Long is an Associate Professor for the School of Civil Mining and Environmental Engineering at the University of Wollongong in Australia where he completed his PhD in 2005.

Long’s research expertise covers a range of membrane separation processes, including pressure driven membrane filtration, forward osmosis, membrane distillation, facilitated transport membrane, membrane electrolysis, and membrane bioreactor. Current research work of his membrane separation laboratory focuses on the development of a membrane separation platform for the recovery of clean water, energy, and nutrients from wastewater. Long was the Vice President of the Membrane Society of Australasia from 2010 – 2014 and is currently a member of the Managing Committee of the IWA Membrane Specialty Group.

My aim:

To provide clean and affordable drinking water to all and to transform wastewater treatment into ‘biorefineries’ for energy and fertilizer production through innovative membrane processes.

Long Nghiem, Editorial Board Member, Environmental Science: Water Research &Technology


Make sure you don’t miss out on the latest journal news by registering your details to receive the regular Environmental Science: Water Research & Technology e-alert.

Follow us on Twitter @ESWater_RSC.

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