ECS’s Nate Lewis is propelling his vision of efficient and affordable alternative energy sources with the new development of an “artificial leaf” system that splits water through solar energy to create hydrogen fuel.

(PS: Make sure to catch Nate Lewis’ presentation this October at the fifth international Electrochemical Energy Summit held during the 228th ECS Meeting!)

“This new system shatters all of the combined safety, performance, and stability records for artificial leaf technology by factors of 5 to 10 or more,” says Lewis, a 33-year ECS member and scientific director of the Joint Center for Artificial Photosynthesis.

Shattering Water Splitting Records

He and his team, including postdoctoral scholar and ECS member Ke Sun, were able to achieve recording-setting outcomes through the development of a advice with three novel components: two electrodes, one photoanode and one photocathode, and a membrane.

This from Futurity:

The photoanode uses sunlight to oxidize water molecules, generating protons and electrons as well as oxygen gas. The photocathode recombines the protons and electrons to form hydrogen gas.

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ECS publishes special or “focus” issues in order to highlight scientific and technological areas of current interest and future promise that are expanding rapidly or have taken a new direction.

The editors of the Journal of The Electrochemical Society (JES) and the ECS Journal of Solid State Science and Technology (JSS) are calling for papers for these upcoming focus issues:

Defect Characterization in Semiconductor Materials and Devices
Submission Deadline: October 21, 2015
In recent years, a rapidly growing interest and concern have developed within the microelectronics industry and research community with respect to defect characterization in hetero-epitaxial layers and nano-structures for CMOS and photonic applications. Read more.

Honoring Allen J. Bard
Submission Deadline: September 30, 2015
ECS welcomes original research contributions to a special issue of the Journal of The Electrochemical Society honoring Allen J. Bard. Prof. Bard has been a pioneer of modern electrochemistry for over 60 years and a long-standing member of the Society. For his 80th birthday, The Electrochemical Society founded the Allen J. Bard Award in 2013 to honor his extensive contributions to the field of electrochemistry; the first award was given in May 2015. Read more.

Henry White and Allen J. Bard at the 227th ECS Meeting in Chicago, IL

This past May, ECS presented Dr. Henry White with the first ever Allen J. Bard Award at the 227^th ECS Meeting in Chicago. A former student of Bard himself, Dr. White has worked with his research team to advance new methods to determine the structure of biological polymers like DNA, develop novel batteries with increased energy storage capacity, and investigate the delivery of drugs through human skin via electrical currents. ECS is delighted to begin the tradition of the Allen J. Bard Award so auspiciously.

Yet, the inaugural presentation of the Bard Award at the 227^th ECS Meeting was also a culmination: the satisfying conclusion to a story of hard work and generosity and the enduring connection between an educator and the lives he impacted. The desire to create an award in honor of Dr. Bard first arose in May 2013. Through the generous outpouring of many of Bard’s former students, ECS was able to fully endow the award in only two years. Thanks to this support, the Allen J. Bard Award will continue to honor the achievements of outstanding electrochemists for years to come. Below, please see a timeline of the Allen J. Bard Award, including some of Dr. Bard’s major accomplishments.

To further celebrate the impact of Dr. Bard, ECS now hopes to establish a symposium in his honor, which will occur in conjunction with the presentation of the award. Topics for the symposium will be guided by the award winner and by that spirit of creativity and intellectual adventurousness characteristic of Bard and his work.

To support the Bard Award endowment, please consider donating online.

More and more people are looking toward nanomaterials to help solve issues in the energy infrastructure. Not only could this technology lead to more efficient and cost effective renewable energy sources, but could also help the development of devices that remove pollutants from the air and water. In fact, nanotechnology has such a vast scope that there is potential for it to impact almost all areas of society.

“There is not a field that is not touched,” said nanomaterials expert Francis D’Souza of the University of North Texas. “It is a group of very eminent scientists exploring the possibilities in every single field. You can expect big discoveries and breakthroughs.”

While nanomaterials are infiltrating everything from electronics to biomedical applications, many scientists have shift their primary focus to energy harvesting.

“There are so many new capabilities that can be exploited with nanotechnology, from dramatic improvements to solar conversion efficiency to battery systems with higher storage capacity and faster charging and discharging cycles to miniaturized power management systems, so we can have energy storage that can last for a long time,” said IBM’s Lili Deligianni.

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Lili Deligianni is a Research Scientist and Principal Investigator at IBM’s Thomas J. Watson Research Center. Her innovative work in chemical engineering has led to cutting-edge developments in chip technology and thin film solar cells. Lili has been with ECS for many years and currently serves as the Society’s Secretary.

Listen to the podcast and download this episode and others for free through the iTunes Store, SoundCloud, or our RSS Feed. You can also find us on Stitcher.

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ECS’s job board keeps you up-to-date with the latest career opportunities in electrochemical and solid state science. Check out the latest openings that have been added to the board.

P.S. Employers can post open positions for free!

Electroanalytical Sales Scientist
Pine Research Instrumentation – Durham, NC
The position encompasses critical aspects of sales and support for the electrochemical instrumentation product line offered by Pine Research Instrumentation. This position couples deep understanding of electrochemical science with the ability to communicate and interact with other people. Successful individuals in this position enjoy the unique chance to blend interpersonal skills (for sales and marketing purposes) with scientific knowledge (for technical support and advice).

PhD Student in Electrochemical Conversion of Biomass
Ohio University – Athens, OH
The Center for Electrochemical Engineering Research (CEER) at Ohio University is searching for PhD students to join a team of researchers working on electrochemical conversion of biomass. The successful candidate will develop materials and processes for electrochemical conversion of biomass to fuels and industrial chemicals, including developing electrocatalysts and reactor systems. Product stream analysis is an integral component of this program.

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Logan Streu, ECS Content Associate & Assistant to the CCO, recently came across a video from The Scholarly Kitchen explaining how ORCID works (with dolls as visual aids).

Learn more about ORCID! Check out Logan’s articles on the benefits of ORCID identifiers:

• “Have You Registered for Your ORCID ID Yet?“
• “ORCID Brings Author Level Metrics to the Table“

Find out more about signing-up for ORCID!

In an effort to address climate change, President Obama is setting the United States on the path towards a clean energy economy.

Recently, President Obama announced the country’s plan to drive alternative energy innovation and accelerate the transition to clean energy. Growing on the already established ENERGY STAR program, the executive actions focus on implementing clean, efficient, and affordable energy technologies across multiple sectors of the United States.

Highlights

• More funding for energy projects utilizing innovative technology, including an additional $1 billion
• A total of 11 projects across the country will receive $24 million for projects that have the potential to double the amount of energy a solar panel can produce
• Bringing a 485-megawatt photovoltaic facility to produce enough energy to power more than 145,000 homes
• PACE (Property-Assessed Clean Energy) project to make alternative energy more easily accessible for single-families

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The science behind climate change is alarming. Concentrations of greenhouse gases are rising at an alarming rate, land ice is dropping by 258 billion metric tons per year, and every passing year is proving to be the warmest year on record. Even with all of this information, it is difficult for some to grasp the complications climate change is causing due to the fact that an average person’s day-to-day life has remained relatively unharmed.

“You can tell people that all these fossil fuels we’re using and all the CO₂ that’s building up in the air is going to cause terrific problems. It’s only going to be when lower Manhattan is underwater that they’re going to start to respond,” said Allen J. Bard, the unofficial father of modern electrochemistry.

What Does Climate Change Look Like?

In order to make the reality of climate change more tangible, scientists with the Department of Energy are launching their SPRUCE (Spruce and Peatland Responses Under Climatic and Environmental Change) project to naturally demonstrate what the world could look like if there is no action taken on climate change.

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Fuel cells have been receiving a lot of attention in the scientific domain as one of the most promising alternative energy sources. When applying fuel cell technology to both the grid and automobiles, one issue is persistent: cost. Researchers at Argonne National Laboratory (ANNL) have been looking for a way to combat the price issues. Now, a team of researchers led by ECS member Di-Jia Liu have found a potential way to utilize fuel cells without the high cost of development and commercialization.

A New Catalyst

The team’s development revolves around the notion of using naturally abundant materials without sacrificing efficiency. Current, fuel cells work off a platinum catalyst, which is both expensive and scarce. The new catalyst eliminates the need for the precious material, all while demonstrating performance rates comparable to that of a platinum catalyst.

The scientists developed the new catalyst via the synthesis of a highly efficient, nanofibrous non-precious metal catalyst. If this technique proves to be commercially viable, it transition into automotive technology and extend the range of electric vehicles and potentially eliminate the need for charging.

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