Ocean engineer Emma Cotter supports the Triton Initiative's environmental monitoring projects.

IDREAM researchers assess the potential of photon-in/photon-out XFEL techniques to explore early time reaction steps and ultimately improve nuclear waste processing strategies.

The Triton Initiative highlights different creative science communications, including photography, writing, and science art, and the impact they have on the project's marine energy research.

Triton highlights research partners in environmental monitoring for marine energy.

Triton is piloting research on the interactions of receptors and anthropogenic light associated with marine energy devices.

New PNNL research provides the first direct evidence that amorphous intermediates influence subsequent crystallization outcomes using in situ imaging.

A strengthened softer alloy phase increases the toughness of a tungsten composite material.

The Triton Initiative introduces its next generation of projects focused on researching stressor/receptor interactions for marine energy applications.

Internship focused on detecting and characterized baleen whale vocalization activity near the future PacWave test site in Newport, Oregon.

The Triton Initiative supports projects funded through U.S. Department of Energy funding opportunity announcements developing environmental monitoring technologies for marine energy.

Voice for ocean-based climate solutions and strategist for PNNL’s Coastal Sciences Division, Simon Geerlofs, speaks about the Triton Initiative.

New study elucidates the complex relaxation kinetics of supercooled water using a pulsed laser heating technique at previously inaccessible temperatures.

Samantha Eaves discusses the future of marine energy and her role with Triton from the Department of Energy Water Power Technologies Office perspective.  

Coastal Sciences Division group leader, Meg Pinza, helped build Triton into a thought leader in the field of marine energy environmental monitoring.

Researchers developed a new tool that combines artificial intelligence and microscopy data to rapidly test new materials for fusion reactor use.

Researchers found that certain oxide interface configurations remain stable in extreme environments, suggesting ways to build better performing, more reliable devices for fuel cells, space-based electronics, and nuclear energy.