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Dr. Richard Carlin, director of the Sea Warfare and Weapons Department in the Office of Naval Research (ONR), was honored with the 2010 Fuel Cell Seminar and Exposition Award on Oct. 19 at the Henry B. Gonzalez Convention Center in San Antonio.

In the world of science and technology (S&T), getting a new product to warfighters in less than five years is nearly unheard of—unless you are talking about the TechSolutions program, which puts newly developed prototypes into warfighters’ hands in 12 months or less.

In a first-of-its-kind transatlantic hybrid event, the Royal Navy and U.S. Navy recently converged at His Majesty’s Naval Base (HMNB) Portsmouth and Downtown Norfolk, Virginia, to explore how cutting-edge computer vision technologies can revolutionize the maintenance and sustainment of platforms across air, land, and maritime domains, bolstering overall warfighting capabilities.

The Aerodynamics program is part of the Office of Naval Research's Naval Air Warfare and Weapons Department.

The Aerospace Structures and Materials program is part of the Office of Naval Research's Naval Air Warfare and Weapons Department.

Non-Destructive Evaluation and Prognostics is a two-tiered research area within the Office of Naval Research's Sea Warfare and Weapons Department.

The Office of Naval Research's Structural Metals program emphasizes developing the fundamental understanding needed to discover, design, and produce high-performance structural metals.

The Office of Naval Research's Corrosion Science and Corrosion Control Technologies program has a primary focus to create a science-based understanding of corrosion through damage evolution mechanisms, develop corrosion-informed materials concepts, and evolve surface protection and modification sciences.

The Office of Naval Research's Energetic Materials (EM) program explores materials/synthetic chemistry, advanced dynamic diagnostics and theoretical/computational/predictive approaches to provide novel energetic material concepts (explosives, propellants, reactive materials) that maximize molecular and formulation energy densities, synthesis efficiencies and predicted properties to achieve performance goals.