Madeleine Jacobs, Chief Executive Officer and Executive Director of the American Chemical Society.
Credit: Peter Cutts

Madeline Jacobs has held steadfast to the idea of improving lives through the transforming power of chemistry during her career. Now, after seeing all she set out accomplish during her time as the American Chemical Society’s director and chief executive officer come to fruition, Jacobs is ready to move on to something new.

Jacobs started her career with the American Chemical Society (ACS) as a reporter for Chemical & Engineering News in 1969. Here, she rose in the ranks – becoming the magazine’s editor-in-chief in 1995.

Her work at Chemical & Engineering News prepared her for the role that she would take on in 2003 as ACS’s executive director.

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Researchers from the University of Sydney have recently published their findings that quantum dots made of graphene can improve bio-imaging and LEDs.

The study was published in the journal Nanoscale, where the scientists detailed how activating graphene quantum dots produced a dot that would shine nearly five times bright than the conventional equivalent.

Essentially, the dots are nano-sized semiconductors, which are fluorescent due to their surface properties. However, this study introduces the utilization of graphene in the quantum dot, which produces an extra-bright dot that has the potential to help medicine.

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The skin is embedded with ultrathin, single crystalline silicone nanoribbon, which enables an array of sensors.
Credit: Kim et al./Nature Communications

We’ve talked about the advancements in prosthetic limbs in the past, but now a group of researchers out of Seoul National University are taking innovation in prosthetics one step further with this new “smart skin.”

Researchers from the Republic of Korea have developed a stretchy synthetic skin embedded with sensors, which will be able to help those with prosthetics regain their sense of touch.

This from “Stretchable silicon nanoribbon electronics for skin prosthesis” in the journal Nature Communications:

This collection of stretchable sensors and actuators facilitate highly localized mechanical and thermal skin-like perception in response to external stimuli, thus providing unique opportunities for emerging classes of prostheses and peripheral nervous system interface technologies.

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The SparyLD system developed by University of Toronto researchers can spray colloidal quantum dots onto flexible surfaces.
Credit: University of Toronto

Teams of scientists from around the world have been working on a way to produce spray-on solar cells for some time now. Recently, a team from the University of Toronto Faculty of Applied Science & Engineering has moved to the forefront of the race due to their latest breakthrough involving a new method for spraying solar cells onto flexible surfaces.

The prototype applies colloidal quantum dots via spray. These dots are a type of nanotechnology material that are light-sensitive.

This from Gizmag:

In such spray on solar cells, quantum dots would act as the absorbing photovoltaic material. Because they have a band gap that can be tuned by altering the size of their nanoparticles, they can be made to soak up different parts of the solar spectrum. This could prove particularly valuable if they were to be used in multi-junction solar cells, where dots small and large could sit alongside each other to widen the cells’ energy harvesting potential.

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A recently conducted experiment may give us a better understanding of how the Earth possibly began.

Scientists took to the lab with a powerful 500-foot laser to re-create what might have been the original spark of life on Earth.

This from Associated Press:

The researchers zapped clay and a chemical soup with the laser to simulate the energy of a speeding asteroid smashing into the planet. They ended up creating what can be considered crucial pieces of the building blocks of life.

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After 30 years of research at Argonne National Laboratory, ECS’s Zoltan Nagy edits and updates his Electrochemistry Knowledge Base and serves as the ECS Historian.

What is electrochemistry? Why should society as a whole care?

Long time ECS member, Zoltan Nagy, is partnering with The Electrochemical Society in an attempt to answer these questions with the relaunch of his Electrochemistry Knowledge Base.

Since the late 90s, Nagy has been compiling this huge network of electrochemical knowledge in order to showcase why electrochemistry is so vital to the growth and nourishment of society.

“It may sound selfish, but I think electrochemistry is very important for society and people know very little about it,” says Nagy.

He began compiling the site during the infancy of the internet – around the second half of the 90s.

“I decided to put together a website for the education of the public,” Nagy says. “The articles are written in every simple language so that people can understand and see what electrochemistry does for society.”

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Can you answer this question? Join the ECS LinkedIn group and share.

This is from our ECS LinkedIn group. You can reply here or join our group on LinkedIn.

I am trying to trouble shoot a problem I am having with the ASTM method G5-13. It appears that my polarization plot has shifted about 40mV. As a result I am just outside of specs. Before you say reference electrode, that has been completely checked out.

Answer over on LinkedIn.

Request to join our group.

Vilas Pol has assisted in the discovery of a nanoparticle network that could bring fast-charging batteries. He joined the Society in 2012.
Credit: Argonne National Laboratory

The Electrochemical Society’s Vilas Pol, along with a team of Purdue University researchers, has developed a nanoparticle network that could produce very fast-charging batteries.

This new electrode design for lithium-ion batteries has been shown to potentially reduce the charging time from hours to minutes, all by replacing the conventional graphite electrode with a network of tin-oxide nanoparticles.

This from Purdue University:

The researchers have performed experiments with a “porous interconnected” tin-oxide based anode, which has nearly twice the theoretical charging capacity of graphite. The researchers demonstrated that the experimental anode can be charged in 30 minutes and still have a capacity of 430 milliamp hours per gram (mAh g−1), which is greater than the theoretical maximum capacity for graphite when charged slowly over 10 hours.

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The Lowline is not just a design project. It’s not just an example of innovative technology. It’s not just an effort to revitalize a community. The Lowline is an example of how science and drive can improve and transform the landscape of modern cities.

If you haven’t yet heard of Lowline, it will essentially be an underground park powered by innovative solar technology located in the 116-year-old abandoned Williamsburg Bridge Trolley Terminal in the Lower East Side of Manhattan.

The technology is designed by James Ramsay of Raad Studio, who looks to overcome subterranean limitations with his underground oasis of plants and trees.

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The image to your right may look like a fine art print of an ocean scene at night, but it’s actually just a close-up of some dried Glenlivet 162, or for those of you who aren’t avid alcohol connoisseurs – it’s simply a photo of whiskey.

Maybe “simple” is not the best word to describe the chemical process that takes place, but the discovery that whiskey can make these beautiful images had a humble beginning.

Professional artist and photographer Ernie Button started creating photos of the patterns formed after letting a drop or two of whiskey dry at the bottom of a glass, which resulted in these clear and rhythmic images.

Though he loved the aesthetic value, Button wanted to understand why the images looked the way they looked.

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