ECS believes that the key to sustainability is the ability to adapt. For over 115 years, ECS has been committed to publishing high quality, peer-reviewed research at the cutting edge of innovation.

But the demands of the research arena are always changing. As the scientific community develops new needs out in the field, so must ECS—as a leading nonprofit publisher—develop new avenues and more inclusive platforms for publication and dissemination.

To best accommodate the needs of contemporary scientific research, ECS’s journals, the Journal of The Electrochemical Society and the ECS Journal of Solid State Science and Technology, are open to article submission types beyond that of the standard-issue research paper. As of 2017, ECS accepts journal submissions of five different types.

Whether you’re an author, an editor, or a reader of ECS publications, it’s beneficial to be familiar with the five ECS journal article types.

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Lithium-ion batteries power a vast majority of the world’s portable electronics, from smartphones to laptops. A standard lithium-ion batteries utilizes a liquid as the electrolyte between two electrodes. However, the liquid electrolyte has the potential to lead to safety hazards. Researchers from MIT believe that by using a solid electrolyte, lithium-ion batteries could be safer and able to store more energy. However, most research in the area of all-solid-state lithium-ion batteries has faced significant barriers.

According to the team from MIT, a reason why research into solid electrolytes has been so challenging is due to incorrect interpretation of how these batteries fail.

This from MIT:

The problem, according to this study, is that researchers have been focusing on the wrong properties in their search for a solid electrolyte material. The prevailing idea was that the material’s firmness or squishiness (a property called shear modulus) determined whether dendrites could penetrate into the electrolyte. But the new analysis showed that it’s the smoothness of the surface that matters most. Microscopic nicks and scratches on the electrolyte’s surface can provide a toehold for the metallic deposits to begin to force their way in, the researchers found.

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Researchers are using genetically engineered E. coli to power micromotors, with the swimming bacteria causing the motors to rotate in a similar fashion to a river rotating a watermill.

“Our design combines a high rotational speed with an enormous reduction in fluctuation when compared to previous attempts based on wild-type bacteria and flat structures,” says Roberto Di Leonardo, co-author of the new research. “We can produce large arrays of independently controlled rotors that use light as the ultimate energy source. These devices could serve one day as cheap and disposable actuators in microrobots for collecting and sorting individual cells inside miniaturized biomedical laboratories.”

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A new issue of ECS Transactions (ECST) has just been published. This issue incorporates 333 papers from the upcoming 15th International Symposium on Solid Oxide Fuel Cells (SOFC-XV). This conference will be held in Hollywood, Florida, USA, July 23-28, 2017.

ECST Volume 78, Issue 1 is now available in the ECS Digital Library. This issue is also available for purchase as an electronic (PDF) edition through the ECS Online Store.

Learn more about this upcoming conference and find out more about ECST.

ECS is proud to announce its partnership with the Initiative for Open Citations (I4OC). By joining forces with I4OC, ECS has opened up citation data, further expanding accessibility to scientific knowledge by releasing into the public domain reference data published in ECS journals.

This partnership aligns directly with ECS’s Free the Science initiative, which seeks to make our peer-reviewed research free to all readers while remaining free for authors to publish.

“We applaud the efforts of I4OC. In addition to our significant amount of open access full-text content, we are excited to be able to provide yet another mechanism for researchers to freely access a very important part of ECS content,” says Mary Yess, chief content officer for ECS. “Opening up our citations will not only allow scientists and engineers easy access; but because the citations are in common, machine-readable formats, this will also allow them to data mine those citations. All of these open access opportunities are a critical to progress in our fields and others.”

Since its establishment in April, I4OC has worked to partner with publishers to provide accessible citation data. Citations are a central component to scholarly information, providing credibility to statements and bolstering overall discovery and dissemination by highlighting research.

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In an effort to expand South Australia’s renewable energy supply, the state has looked to business magnate Elon Musk to build the world’s largest lithium-ion battery. The goal of the project is to deliver a grid-scale battery with the ability to stabilize intermittency issues in the area as well as reduce energy prices.

An energy grid is the central component of energy generation and usage. By changing the type of energy that powers that grid in moving from fossil fuels toward more renewable sources, the grid itself changes. Traditional electrical grids demand consistency, using fossil fuels to control production for demand. However, renewable sources such as wind and solar provide intermittency issues that traditional fossil fuels do not. Researchers must look at how we can deliver energy to the electrical grid when the sun goes down or the wind stops blowing. This is where energy storage systems, such as batteries, play a pivotal role.

In South Australia, Musk’s battery is intended to sustain 100 megawatts of power and store that energy for 129 megawatt hours. To put it in perspective, that is enough energy to power 30,000 homes and, according to Musk, will be three times as powerful as the world’s current largest lithium-ion battery.

Musk hopes to complete the project by December, stating that “It’s a fundamental efficiency improvement to the power grid, and it’s really quite necessary and quite obvious considering a renewable energy future.”

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Around the world, the transportation sector is evolving. Globally, electric vehicle (EV) sales have more than doubled, showing a 72 percent increase in 2015, followed by 41 percent global increase in EV sales in 2016. Now, France is committing to a greener transportation sector by vowing to end the sale of gasoline and diesel vehicles by 2040, further pledging to become a carbon neutral country by 2050.

Currently, 95.2 percent of new car fleets in France are represented by gasoline and diesel vehicles. According to France’s Ecology Minister Nicolas Hulot, initiatives by automakers such as Volvo to go all electric in the coming years will help France start to phase out gasoline and diesel vehicles.

In order to become carbon neutral by 2050, France will also need to devote energy to ending the use of fossil fuels across the board, which includes ending hydrocarbon licenses in the country and stopping coal production by 2022.

While France’s goals are admirable, organizations such as Greenpeace believe that the measure falls short in terms of concrete measures.

“We are left wanting, on how these objectives will be achieved,” Greenpeace campaigner Cyrille Cormier said in a statement. “The goal to end the sale of gasoline and diesel vehicles by 2040 sends out a strong signal, but we would really like to know what are the first steps achieve this, and how to make this ambition something other than a disappointment.”

Scientists have created a nanoscale light detector that can convert light to energy, combining both a unique fabrication method and light-trapping structures.

In today’s increasingly powerful electronics, tiny materials are a must as manufacturers seek to increase performance without adding bulk. Smaller is also better for optoelectronic devices—like camera sensors or solar cells—which collect light and convert it to electrical energy.

Think, for example, about reducing the size and weight of a series of solar panels, producing a higher-quality photo in low lighting conditions, or even transmitting data more quickly.

However, two major challenges have stood in the way: First, shrinking the size of conventionally used “amorphous” thin-film materials also reduces their quality. And second, when ultrathin materials become too thin, they are almost transparent—and actually lose some ability to gather or absorb light.

The new nanoscale light detector, a single-crystalline germanium nanomembrane photodetector on a nanocavity substrate, could overcome both of these obstacles.

“We’ve created an exceptionally small and extraordinarily powerful device that converts light into energy,” says Qiaoqiang Gan, associate professor of electrical engineering in the University at Buffalo’s School of Engineering and Applied Sciences and one of the paper’s lead authors. “The potential applications are exciting because it could be used to produce everything from more efficient solar panels to more powerful optical fibers.”

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Instead of batteries, a new cell phone harvests the few microwatts of power it needs from a different source: ambient radio signals or light.

Researchers were also able to make Skype calls using the battery-free phone, demonstrating that the prototype—made of commercial, off-the-shelf components—can receive and transmit speech and communicate with a base station.

“We’ve built what we believe is the first functioning cell phone that consumes almost zero power,” says Shyam Gollakota, an associate professor of computer science & engineering at the University of Washington and coauthor of the paper.

“To achieve the really, really low power consumption that you need to run a phone by harvesting energy from the environment, we had to fundamentally rethink how these devices are designed.”

Researchers eliminated a power-hungry step in most modern cellular transmissions—converting analog signals that convey sound into digital data that a phone can understand. This process consumes so much energy that it’s been impossible to design a phone that can rely on ambient power sources.

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Nine new issues of ECS Transactions (ECST) have just been added to the ECS Online Store for pre-order. The following issues of ECST will be published from symposia held during the 232nd ECS Meeting in National Harbor, and will be available in limited quantities for pick-up at the meeting.

Electronic (PDF) editions will be made available for purchase beginning September 22, 2017. To pre-order a CD/USB edition, please follow the links below:

1. 1. Semiconductors, Dielectrics, and Metals for Nanoelectronics 15: In Memory of Samares Kar
2. 2. 15th International Symposium on Semiconductor Cleaning Science and Technology (SCST 15)
3. 3. Atomic Layer Deposition Applications 13
4. 4. Semiconductor Process Integration 10
5. 5. Thermoelectric and Thermal Interface Materials 3
6. 6. Low-Dimensional Nanoscale Electronic and Photonic Devices 10
7. 7. Gallium Nitride and Silicon Carbide Power Technologies 7
8. 8. Polymer Electrolyte Fuel Cells 17 (PEFC 17)
9. 9. Ionic and Mixed Conducting Ceramics 11 (IMCC 11)

Please be sure to place your order by September 1, 2017, to reserve your copy.

Questions? Contact ECST@electrochem.org for more information.