
Harnessing the ocean to power transportation
WHOI scientists are part of a team working to turn seaweed into biofuel
Casting a wider net
The future of a time-honored fishing tradition in Vietnam, through the eyes of award-winning photographer Thien Nguyen Noc
Gold mining’s toxic legacy
Mercury pollution in Colombia’s Amazon threatens the Indigenous way of life
How do you solve a problem like Sargassum?
An important yet prolific seaweed with massive blooms worries scientists
Ancient seas, future insights
WHOI scientists study the paleo record to understand how the ocean will look in a warmer climate
Rising tides, resilient spirits
As surrounding seas surge, a coastal village prepares for what lies ahead

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Our Ocean. Our Planet. Our Future.
Whistle! Chirp! Squeak! What does it mean?
Avatar Alliance Foundation donation helps WHOI researcher decode dolphin communication
We can’t do this alone
For marine chemist Adam Subhas, ocean-climate solutions don’t happen without community
How WHOI helped win World War II
Key innovations that cemented ocean science’s role in national defense
Life at the margins
Scientists investigate the connections between Ghana’s land, air, sea and blue economy through the Ocean Margins Initiative
Grits, storms, and cosmic patience
As storms stall liftoff, Europa Clipper Mission Team member Elizabeth Spiers patiently awaits the biggest mission of her life
New underwater vehicles in development at WHOI
New vehicles will be modeled after WHOI’s iconic remotely operated vehicle, Jason
Learning to see through cloudy waters
How MIT-WHOI student Amy Phung is helping robots accomplish dangerous tasks in murky waters
A rare black seadevil anglerfish sees the light
A viral video shows a denizen of the ocean’s twilight zone making an unusual trip to the surface
Unseen Ocean
Artist Janine Wong and scientist Jing He capture the art of currents in “Submesoscale Soup”
Five marine animals that call shipwrecks home
One man’s sunken ship is another fish’s home? Learn about five species that have evolved to thrive on sunken vessels

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Deep-sea amphipod name inspired by literary masterpiece
Name pays tribute to Cervantes’ Don Quixote and reinforces themes of sweetness and beauty
5 Takeaways for the Ocean from the COP29 Climate Conference
Explore the key outcomes from this year’s UN Climate Conference
Go with the flow
Mike Singleton, relief captain, R/V Neil Armstrong describes the intricate dance of navigating ocean currents during scientific expeditions
A gift for ocean research
Boater and oceanography enthusiast Steven Grossman supports innovative WHOI projects with $10 million donation
Nature’s Language
Using applied math (and chalk) to understand the dynamic ocean
Navigating new waters
The engineering team at the Ocean Observatories Initiative overcomes the hurdles of deploying the coastal pioneer array at a new site
Ocean in Motion
How the ocean’s complex and chaotic physics defines life on our planet
The case for preserving deep-sea biodiversity
WHOI biologist Annette Govindarajan offers her takeaways from the COP16 UN Convention on Biological Diversity in Colombia
An immersive twilight zone exhibit
An ARTECHOUSE and WHOI collaboration in Washington, D.C. is transporting visitors to a hidden layer of the ocean
Marine Snow and Fecal Pellets
Until about 130 years ago, scholars believed that no life could exist in the deep ocean. The abyss was simply too dark and cold to sustain life. The discovery of many animals living in the abyssal environment by Sir Charles Wyville Thompson during HMS Challenger’s 1872-1876 circumnavigation stunned the late 19th century scientific community far more than we can now imagine.
Extreme Trapping
One of oceanography’s major challenges is collection of data from extraordinarily difficult environments. For those who use sediments traps, two examples of difficult environments are the deepest oceans and the permanently ice-covered Arctic Basin.
The Rain of Ocean Particles and Earth’s Carbon Cycle
WHOI Phytoplankton photosynthesis has provided Earth’s inhabitants with oxygen since early life began. Without this process the atmosphere would consist of carbon dioxide (CO2) plus a small amount of nitrogen, the atmospheric pressure would be 60 times higher than the air we breathe, and the planet’s air temperatures would hover around 300°C. (Conditions similar to these are found on Earth’s close sibling Venus.
Deploying the Rain Catchers
Deployment of a deep-ocean sediment trap mooring begins with the ship heading slowly into the wind.
Monsoon Winds and Carbon Cycles in the Arabian Sea
The monsoon, a giant sea breeze between the Asian massif and the Indian Ocean, is one of the most significant natural phenomena that influences the everyday life of more than 60 percent of the world’s population.
A New Way to Catch the Rain
The carbon budget of the upper ocean includes an important loss to the deep ocean due to a very slowly falling rain of organic particles, usually called sediment. As this sediment falls through the upper water column it is consumed, mainly by bacteria, and the carbon is recycled into nonsinking forms (dissolved or colloidal organic carbon or inorganic forms). Thus the sediment rain decreases with increasing depth in the water column, and only a tiny fraction reaches the deep sea floor, less than about one percent.
Continental Margin Particle Flux
The boundaries between the oceans and the continents are dynamic regions for the production, recycling, and deposition of sedimentary particles. In general, rates of biological productivity along continental margins are significantly higher than in the open ocean. This is due to a variety of factors including coastal upwelling of nutrient-rich waters and nutrient input from continental runoff. While continental margins account for only about 10 percent of the global ocean area, 50 percent of the total marine organic carbon production is estimated to occur in this limited region, with much of it exported to the deep sea.
Geochemical Archives Encoded in Deep-Sea Sediments Offer Clues for Reconstructing the Ocean’s Role in Past Climatic Changes
Geochemical Archives Encoded in Deep-Sea Sediments Offer Clues for Reconstructing the Ocean’s Role in Past Climatic Changes
Paleoceanographers are trying to understand the causes and consequences of global climate changes that have occurred in the geological past. One impetus for gaining a better understanding of the factors that have affected global climate in the past is the need to improve our predictive capabilities for future climate changes, possibly induced by the rise of anthropogenic carbon dioxide (CO2) in the atmosphere.
Ground-Truthing the Paleoclimate Record
Sediment Trap Observations Aid Paleoceanographers
The geological record contains a wealth of information about Earth’s past environmental conditions. During its long geological history the planet has experienced changes in climate that are much larger than those recorded during human history; these environmental conditions range from periods when large ice sheets covered much of the northern hemisphere, as recently as 20,000 years ago, to past atmospheric concentrations of greenhouse gases that warmed Earth’s polar regions enough to melt all of the ice caps 50 million years ago. Since human civilization has developed during a fairly short period of unusually mild and stable climate, humans have yet to experience the full range of variability that the planet’s natural systems impose. Thus, the geological record has become an extremely important archive for understanding the range of natural variability in climate, the processes that cause climate change on decadal and longer time scales, and the background variability from which greenhouse warming must be detected
Catching the Rain: Sediment Trap Technology
WHOI Senior Engineer Ken Doherty developed the first sediment trap in the late 1970s for what has come to be known as the WHOI PARFLUX (for “particle flux”) group. Working closely with the scientific community, Doherty has continued to improve sediment traps for two decades, and these WHOI-developed instruments are widely used both nationally and internationally in the particle flux research community.
Replacing the Fleet
When R/V Atlantis arrived in Woods Hole for the first time on a bright, beautiful April 1997 day, it represented not only a welcome addition to the WHOI fleet but also the culmination of a 15-year UNOLS fleet modernization.
WHOI and Access to the Sea
In the mid-term future, two WHOI ships (Knorr in about 2006 and Oceanus in about 2009) will reach the end of their planned service lives. There is general agreement that WHOI should work to replace them with two vessels.