An organic molecule used in dyes and antibiotics may be the key to less expensive, more efficient redox flow batteries.

New technique developed by PNNL successfully joins thicker aluminum alloys to steel

When it comes to the special sauce of batteries, PNNL researchers say it's all about the salt concentration.

Inaugural meeting of battery science pros launched in China.

PNNL and UW announce the joint Northwest Institute for Materials Physics, Chemistry and Technology — or NW IMPACT — to advance materials science.

PNNL researchers report in the journal Chem, that inexpensive materials called metal-organic frameworks have been very successful in separating xenon.

PNNL scientists have created new tiny tubes that could help with water purification and tissue engineering studies.

PNNL leads team to accelerate development of affordable carbon fiber composites

PNNL wins seven R&D 100 awards – total tops 100

Grid modernization, improved energy storage goals of agreement between PNNL and East Coast energy company.

Winners named in PNNL's 2017 Science as Art contest

Six energy technologies that do everything from protect fish to monitor the health of flow batteries are getting a boost at PNNL with support from DOE's Technology Commercialization Fund.

PNNL will lead two new projects to advance resilient distribution systems and partner on three additional demonstrations aimed at validating new approaches and technologies to make the aging grid more resilient and secure.

New spin makes lightweight magnesium auto parts more useful.

PNNL chief engineer, Jeff Dagle, helps roll out National Academies report on grid resilience.

PNNL will help companies make lighter weight vehicles.

El-Khoury and Johnson are exploring the properties of extremely small structures that could, one day, change how we produce energy and manufacture chemicals.

A giant inflatable 'plug' helps safeguard subway tunnels against flood waters.

Detailed view of a troubling layer offers insights for a better battery.

Forces push and pull on tiny particles as they assemble themselves into larger crystals.