ECS will be offering three Short Courses at the 227th ECS Meeting this May in Chicago. Taught by industry experts, the small class size creates an excellent opportunity for personalized instruction helping both novices and experts advance their technical expertise and knowledge.

Register online today!

Short Course #2
Fundamentals of Electrochemistry – Basic Theory and Thermodynamic Methods
Jamie Noël, Instructor

This course covers the basic theory and application of electrochemical science. It is targeted toward people with a physical sciences or engineering background who have not been trained as electrochemists, but who want to add electrochemical methods to their repertoire of research approaches. There are many fields in which researchers originally approach their work from another discipline but then discover that it would be advantageous to understand and use some electrochemical methods to complement the work that they are doing. The course begins with a general, basic foundation of electrochemistry and uses it to develop the theory and experimental approaches to electrochemical problems of a thermodynamic nature. Read more.

About the Instructor
Dr. Jamie Noël is an established electrochemist and corrosion scientist. Throughout his career, he has worked on corrosion issues in the nuclear industry and entered into academia through his position as a research scientist and adjunct professor in the Department of Chemistry at the University of Western Ontario in London, Canada. Dr. Noël assists in training and directing students, carrying out fundamental and applied electrochemistry research projects, and teaching electrochemistry at the graduate level. He uses electrochemical and other surface analytical techniques to study the corrosion of nuclear reactor components and nuclear waste management systems material. He continues to refine techniques that combine electrochemical measurements with neutron-based materials science techniques.

Registration for the short courses has been extended through the start of the meeting.

Hubert Gasteiger of Technische Universität München’s Institute for Technical Electrochemistry will be awarded the 2015 Physical and Analytical Electrochemistry Division David C. Grahame Award for his work focusing on materials, electrodes, and diagnostics development for fuel cells and batteries.

The prestigious award was established in 1981 to encourage excellence in physical electrochemistry research.

Hubert A. Gasteiger has touched many aspects of electrochemical science, from academia to industry. He studied at UC Berkeley before he went on to do a one-year postdoctoral fellowship at the Lawrence Berkeley National Laboratory, followed by academic research with Jürgen Behm at Ulm University—where he established a research group in heterogeneous gas-phase catalysis and electrocatalysis.

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In honor of Alessandro Volta’s 270th birthday, Google is celebrating the man best known for inventing the first battery with today’s Google Doodle.

While Volta was a trained physicist, many consider him to be the first great electrochemist. By inventing the first battery, which he called the electric “pile”, he established the starting point of electrochemical science and technology with the first notable electrochemical storage device.

The turning point for Volta’s development of the battery came in 1780, when his collaborator Luigi Galvani discovered that the contact of two different metals with the muscle of a frog leg resulted in the generation of electric current.

Volta respectfully disagreed with Luigi’s theory that animal tissue was essential in the creation of electricity, arguing that the frog legs served only as an electroscope and further suggested that the true source of stimulation was the contact between dissimilar metals. With this theory, he began experimenting with metals alone in 1794.

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Long-time ECS member and past President of the Society (1985-1986), Dr. Alkire has been tremendously influential in the field of chemical engineering throughout his career.

His research activities include experimental investigations and mathematical modeling of localized corrosions, metal etching, high speed electrodeposition processes, porous electrodes, electro-organic synthesis, and plasma reactor design. Alkire received his M.S. and Ph.D. degrees in chemical engineering under ECS’s own Charles Tobias at the University of California Berkeley.

Take a moment to get to know him in this episode of ECS Talk.

Join Alkire and other top scientists in electrochemical and solid state science by joining the Society and attending our meetings!

And don’t forget to head over to the Digital Library to check out some of his published papers, including “Gravitational Effects on the Initial Stage of Cu Electrodeposition.”

An article by A. K. Shukla and T. Prem Kumar in the Fall 2008 issue of Interface.

Although there is some archaeological evidence which suggests that some form of a primitive battery (sometimes called a Baghdad battery) was used for electroplating in Mesopotamia ca. 200 BC, electrochemistry as we know it today had its genesis in the pile of crowns of Alessandro Volta in 1800. The inspiration for his studies might have come from the famous frog leg experiments of Galvani, who, however, was content to conclude that the phenomenon was of biological origin. A metamorphosis took place with seminal contributions from John Daniell and Michael Faraday. From such humble beginnings, electrochemistry today has matured into a multidisciplinary branch of study. Built on the precision of physics and depth of materials science, it encompasses chemistry, physics, biology, and chemical engineering.

The uniqueness of electrochemistry lies in the fact that the application of a potential or electric field can help overcome kinetic limitations at low temperatures. Moreover, electrochemical processes can be tuned to obtain chemically and sometimes stereochemically specific products. Electrochemical reactions are also sensitive to electrode-surface characteristics and electrolyte composition, which opens up several analytical and characterization avenues. Like many forward thinkers who have strived to make life easier for us to live, history pages are littered with the names, some of them long forgotten, of those who have made electrochemistry what it is today. This article is an attempt to provide a glimpse of these pillars of electrochemistry through their contributions.

Read the rest.

Ralph Brodd has become a pillar of electrochemical science and technology over his 40 year career in the electrochemical energy conversion business.

He joined The Electrochemical Society in 1954 and served as President from 1981-1982. His ties to the Society run deep, beginning with his studies in 1950 at the University of Texas under ECS legend Norman Hackerman.

Take a moment to get to know him in this episode of ECS Talk.

Join Brodd and other top scientists in electrochemical and solid state science by joining the Society and attending our meetings!

One brave man is distilling his own potent, yet drinkable, biofuel. Of course, there’s quite a bit of electrochemistry involved via this reflux still.

WARNING: Distilling alcohol is illegal in many places. (It can also be pretty dangerous for the novice distiller, so let’s leave this one to Hackett.)

An article by Christopher D. Taylor in the latest issue of Interface.

In the late 20th century, computer programs emerged that could solve the fundamental quantum mechanical equations that control the interactions of atoms that give rise to bonding. These tools, first applied to molecules and bulk solid materials, then began to be applied to surfaces and, in the early 21st century, to electrochemical environments. Commercial and open-source programs are now readily available and can be used on both desktop and high-performance computing platforms to solve for the electronic structure of a given configuration of atomic centers (nuclei) and, in so doing, provide the basis for determining a whole host of properties, including electronic and vibrational spectra, electrical moments such as the system dipole, and, most importantly, the energy and forces on the atoms. Other derived properties include the extent to which each atom is charged and bond-orders, although to compute these latter properties one of a variety of methods for dividing up and quantifying the electron density associated with each atom must be selected.

The physics behind these codes is complex, and, challengingly, has no rigorous analytical solution that can be obtained within a finite allotment of time. Thus, the computer programs themselves take advantage of approximations that allow for a feasible solution but, at the same time, constrain the accuracy of the result. Nonetheless, solutions can usually be reliably obtained for model systems representing materials, interfaces, or molecules that do not exceed thousands, and, more realistically, hundreds of atoms. Given that system sizes of hundreds or thousands of atoms amount to no more than the smallest nanoparticle of a substance, the question arises: What can atomistic simulations teach us about corrosion?

Read the rest.

Find openings in your area via the ECS job board.

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!

Post Doc (NIR/EIS)
Irstea – Montpellier, France
This Post Doc is integrated to a binational project, NEXT. The goal of this project is to investigate the in-line and real-time use of novel holistic sludge descriptors to measure, monitor, model and predict sludge behaviour through sludge treatment processes and use this knowledge for the optimization of design and operation of treatment processes. It will lean on previous works developed by two Irstea teams (on the one hand on organic fluids characterisation based on electrical measurements and rheology and on the other hand on near infrared (NIR) spectroscopy on turbid fluids and soils).

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From coffee breaks to technical demonstrations, exhibitors and sponsors help support the Chicago meeting while presenting their products and services to scientists and engineers from around the world.

“The main opportunity for us is to meet our customers… We gain valuable information about the newest techniques and the newest applications that people are trying to address.” —Bill Eggers, BioLogic USA

Exhibitors connect with customers—old and new—and stay on the cutting edge of research in their field.

If you are interested in partnering with ECS as an exhibitor or sponsor, please submit your application by February 20th to Becca Jensen Compton, becca.compton@electrochem.org.