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Hydrodynamics Related to Subsurface Vehicles (SSV)
The Office of Naval Research's Hydrodynamics Related to Subsurface Vehicles (SSV) program supports the Navy’s interest in advanced sea platform performance science and technology, submarine science and technology, and naval engineering.
Propulsor Hydrodynamics, Hydroacoustics and Structural Dynamics
The Office of Naval Research's Propulsor Hydrodynamics and Hydroacoustics program explores science and technology related to the physics of fluid flow around propulsors to improve the Navy’s propulsor design capability for improved stealth, efficiency and mobility.
Ship Signatures (Radar, Infrared, Acoustic)
The Office of Naval Research's Ship Signatures program supports the Navy’s interest in advanced sea platform survivability science and technology, and submarine science and technology.
Ship Structural Reliability
The Office of Naval Research's Ship Structural Reliability program is focused on the development of reliability-based knowledge and tools to improve performance and affordability of naval ship hull structures from cradle to grave.
Subsurface Platform Science & Technology
The Office of Naval Research's Subsurface Platform Science & Technology program is focused on preserving and advancing the advantage of U.S. Navy platforms over adversaries.
Surface Ship Hydrodynamics and Dynamics
The goal of the surface ship hydrodynamics and dynamics research area is to develop increased understanding and predictive simulation capabilities of nonlinear interaction of surface ship and ocean environment, free surface turbulence, surface ship dynamics, and hydrodynamic loads in relevant operation environment.
Unmanned Surface Vehicle and Small Combatant Craft
The Office of Naval Research's Unmanned Surface Vehicle and Small Combatant Craft program supports the Navy’s interest in advanced sea platform performance, advanced sea platform and autonomy technologies.
Tea and Technology Brings Commercial Innovation to the London Tech Bridge
When in Rome, as the saying goes, do as the Romans do. So, when in Britain, the Office of Naval Research (ONR) Global does what the British do – take tea at least once a month with potential industry partners. Jeffrey Brewer, co-director, ONR Global London Tech Bridge (LTB), said the Tea and Tech engagement is more than just a fun event. Its aim is to find solutions to problems that have been identified by U.S. Navy and Marine personnel or by the Royal Navy. Most of the companies that are invited are based in the U.K., although other European-based companies as well as U.S. companies may be approached. “We meet with several innovative companies in a rapid-fire format,” said Brewer. “Companies have a limited time to make their pitches, and we have subject matter experts from both navies on hand to ask questions and provide feedback. It’s almost a “Shark Tank” format.”
History-Making Oceanographer and Ret. Navy Captain Dies at 92
Retired U.S. Navy Capt. Don Walsh, best known for his daring dive to the deepest spot on Earth, nearly 36,000 feet below the ocean’s surface, has died at age 92. Walsh was a co-pilot of the Trieste bathyscaphe, a deep submergence vehicle acquired by the Office of Naval Research (ONR) in 1958. Two years later, on January 23, 1960, Walsh and Swiss engineer Jacques Piccard, son of the inventor of the bathyscaphe, became the first humans to descend into the Challenger Deep, located in the Pacific Ocean’s Mariana Trench. “ONR sponsored the Trieste, but it was then-Lt. Don Walsh who made the very daring decision to make the first descent into the deepest spot of the earth’s ocean. Walsh was a Navy officer, a submariner, an adventurer, and an oceanographer. To his family, we extend our deepest condolences and gratitude for allowing him to explore, and share his extraordinary experiences and knowledge with us,” said Chief of Naval Research Rear Adm. Kurt Rothenhaus.
Multi-scale Mechanics
The Office of Naval Research's multi-scale mechanics research area endeavors to develop multiscale and multiphysics mechanics theories that bridge the nano scale to the continuum scale to predict material and structural strength.