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New desalination technology being tested in California could lower costs of tapping seawater

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Friday, March 21, 2025

Californians could be drinking water tapped from the Pacific Ocean off Malibu several years from now — that is, if a company’s new desalination technology proves viable. OceanWell Co. plans to anchor about two dozen 40-foot-long devices, called pods, to the seafloor several miles offshore and use them to take in saltwater and pump purified fresh water to shore in a pipeline. The company calls the concept a water farm and is testing a prototype of its pod at a reservoir in the foothills of the Santa Monica Mountains. The pilot study, supported by Las Virgenes Municipal Water District, is being closely watched by managers of several large water agencies in Southern California. They hope that if the new technology proves economical, it could supply more water for cities and suburbs that are vulnerable to shortages during droughts, while avoiding the environmental drawbacks of large coastal desalination plants.“It can potentially provide us Californians with a reliable water supply that doesn’t create toxic brine that impacts marine life, nor does it have intakes that suck the life out of the ocean,” said Mark Gold, director of water scarcity solutions for the Natural Resources Defense Council. “If this technology is proven to be viable, scalable and cost-effective, it would greatly enhance our climate resilience.” OceanWell’s Mark Golay, left, and Ian Prichard, deputy general manager of Calleguas Municipal Water District, walk toward a prototype of the desalination pod being tested in Las Virgenes Reservoir. (Allen J. Schaben / Los Angeles Times) During a recent demonstration at Las Virgenes Reservoir, Tim Quinn, the company’s water policy strategist, watched as the 12-foot-long cylindrical prototype was lowered underwater on a cable. “We pull fresh water only up out of the ocean, and the salt stays down there in low concentrations, where it’s not an environmental problem,” Quinn said.The testing at Las Virgenes Reservoir will help the company’s engineers check how the system works in filtering out plankton and discharging it back into the water. When the pod was nearly 50 feet underwater, Mark Golay, the company’s director of engineering projects, turned on the pumps and water flowed from a spigot.The next step, expected later this year, will involve conducting trials in the ocean by lowering a pod from an anchored boat into the depths about 5 miles offshore.“We hope to be building water farms under the ocean in 2028,” Quinn said.Quinn previously worked for California water agencies for four decades, and he joined Menlo Park-based OceanWell two years ago believing the new technology holds promise to ease the state’s conflicts over water.“Ocean desal has never played a prominent role in California’s water future,” he said, “and this technology allows us to look to the ocean as a place where we can get significant sources of supply with minimal, if any, environmental conflict.”Managers of seven Southern California water agencies are holding monthly meetings on the project and studying what investments in new infrastructure — such as pipelines and pump stations — would be needed to transport the water the company plans to sell from the shore to their systems. Leaders of Las Virgenes Municipal Water District, who are spearheading the effort, are holding an event at the reservoir Friday to showcase how the technology is being tested. The pilot study is being supported by more than $700,000 in grants from the Metropolitan Water District of Southern California and the U.S. Bureau of Reclamation. The company still will need to secure additional permits from the federal government and the state. And it has yet to estimate how much energy the process will require, which will be a major factor in determining the cost.But water managers and other experts agree that the concept offers several advantages over building a traditional desalination plant on the coast.Significantly less electricity is likely to be needed to run the system’s onshore pumps because the pods will be placed at a depth of about 1,300 feet, where the undersea pressure will help drive seawater through reverse-osmosis membranes to produce fresh water.While the intakes of coastal desalination plants typically suck in and kill plankton and fish larvae, the pods have a patented intake system that the company says returns tiny sea creatures to the surrounding water unharmed. And while a plant on the coast typically discharges ultra salty brine waste that can harm the ecosystem, the undersea pods release brine that is less concentrated and allow it to dissipate without taking such an environmental toll. Golay lowers a prototype into Las Virgenes Reservoir for testing. (Allen J. Schaben / Los Angeles Times) If the technology proves viable on a large scale, Gold said, it would help make Southern California less reliant on diminishing imported supplies from the Sacramento-San Joaquin River Delta and the Colorado River.Research has shown that human-caused climate change is driving worsening droughts in the western United States. Gov. Gavin Newsom’s administration has projected that as rising temperatures diminish the snowpack and intensify droughts, the average amount of water available from the reservoirs and aqueducts of the State Water Project could shrink between 13% and 23% over the next 20 years.Southern California’s water agencies are moving ahead with plans to build new facilities that will transform wastewater into clean drinking water, and have also been investing in projects to capture more stormwater.In addition to the economic viability, other questions need to be answered through research, Gold said, including how well the system will hold up filtering tiny sea life, how much maintenance will be needed, and whether the pods and hoses could present any risk of entangling whales.OceanWell’s executives and engineers say their system is designed to protect marine life and eliminate the environmental negatives of other technologies. A conceptual illustration shows a so-called water farm that OceanWell plans to install off the California coast, with 40-foot-long pods anchored to the seafloor about 1,300 feet deep. (OceanWell) Robert Bergstrom, OceanWell’s chief executive, has been working on desalination projects since 1996, and previously built and operated plants in the U.S. Virgin Islands, the Bahamas and other Caribbean islands for the company Seven Seas Water, which he founded.When Bergstrom retired, he moved to California and eventually decided to go back to work to develop technology to help solve California’s water problems.“I had a big idea,” Bergstrom said. “I knew this was going to be just a huge lift to get this done, a moonshot.”OceanWell, founded in 2019, now has 10 employees. Its lead investor is Charlie McGarraugh, a former partner of the investment banking company Goldman Sachs. One of its major investors is Japan-based Kubota Corp. Building on Bergstrom’s concept, Chief Technology Officer Michael Porter and the engineering team have worked on the design. They built the first prototype in Porter’s kitchen in San Diego County, and did initial tests in a lab.“It was inspired by the environmental community in California pointing out problems that needed to be solved,” Bergstrom said.Desalination plants are operating in parts of California, including the nation’s largest facility, in Carlsbad, and a small-scale plant on Santa Catalina Island. But proposals for new coastal desalination plants have generated strong opposition. In 2022, the California Coastal Commission rejected a plan for a large desalination plant in Huntington Beach. Opponents argued the water wasn’t needed in the area and raised concerns about high costs and harm to the environment.The problem of traditional shallow intakes drawing in large amounts of algae, fish larvae and plankton goes away in the deep sea, Bergstrom said, because the perpetual darkness 1,300 feet underwater supports vastly less sea life.“We have much cleaner water to deal with,” Bergstrom said. “It’s pretty much a barren desert where we’ve chosen to locate, and as a result, we just don’t have that much stuff to filter out.”A specific site for the first water farm has not yet been selected, but the company plans to install it nearly 5 miles offshore, with a pipeline and a copper power cable connecting it to land.Putting the system deep underwater will probably reduce energy costs by about 40%, Bergstrom said, because unlike a coastal plant that must pump larger quantities of seawater, it will pressurize and pump a smaller quantity of fresh water to shore.Bergstrom and his colleagues tout their invention as a totally different approach. They say it’s not really desalinating seawater in the traditional sense, but rather harvesting fresh water from devices that function like wells in the ocean.After their first water farm, they envision building more along the coast. Bergstrom believes they will help solve water scarcity challenges in California and beyond.Various sites off California would be well-suited to develop water farms, from San Diego to Monterey, Bergstrom said, as would many water-scarce countries with deep offshore waters, such as Chile, Spain and North African nations.“I believe it’ll reshape the world more than just California water,” Quinn said, “because I think the globe is looking for something that is this environmentally friendly.”Under the company’s plans, the first water farm would initially have 20 to 25 pods, and would be expanded with additional pods to deliver about 60 million gallons of water per day, enough for about 250,000 households.Las Virgenes and six other water agencies — including L.A. Department of Water and Power, the city of Burbank and Calleguas Municipal Water District — are working together on a study of how water could be delivered directly from the project, and at what cost, as well as how inland agencies could benefit indirectly by exchanging supplies with those on the coast.“We’re very heavily dependent on imported water, and we need to diversify,” said David Pedersen, Las Virgenes’ general manager. “We need to develop new local water that’s drought resilient, and that can help us as we adapt to climate change.”His district, which depends almost entirely on imported supplies from the State Water Project, serves more than 75,000 people in Agoura Hills, Calabasas, Hidden Hills, Westlake Village and surrounding areas. Mike McNutt, public affairs and communications manager for Las Virgenes Municipal Water District, tastes water that flows from a spigot after passing through a prototype desalination system at Las Virgenes Reservoir. (Allen J. Schaben / Los Angeles Times) During the drought from 2020 to 2022, the district was under severe water restrictions and customers reduced usage nearly 40%. Pedersen hopes the district will be able to tap the ocean for water by around 2030. At Calleguas Municipal Water District, which delivers water for about 650,000 people in Ventura County, deputy general manager Ian Prichard said one of the big questions is how much energy the system will use.“If the technology works and they can bring it to market, and we can afford to bring the water into our service area, then that would be great,” Prichard said. “The big test is, can they produce water at a rate that we want to pay?”

A new desalination technology is undergoing testing in Southern California. Water managers hope it will offer an environmentally friendly way of tapping the Pacific Ocean.

Californians could be drinking water tapped from the Pacific Ocean off Malibu several years from now — that is, if a company’s new desalination technology proves viable.

OceanWell Co. plans to anchor about two dozen 40-foot-long devices, called pods, to the seafloor several miles offshore and use them to take in saltwater and pump purified fresh water to shore in a pipeline. The company calls the concept a water farm and is testing a prototype of its pod at a reservoir in the foothills of the Santa Monica Mountains.

The pilot study, supported by Las Virgenes Municipal Water District, is being closely watched by managers of several large water agencies in Southern California. They hope that if the new technology proves economical, it could supply more water for cities and suburbs that are vulnerable to shortages during droughts, while avoiding the environmental drawbacks of large coastal desalination plants.

“It can potentially provide us Californians with a reliable water supply that doesn’t create toxic brine that impacts marine life, nor does it have intakes that suck the life out of the ocean,” said Mark Gold, director of water scarcity solutions for the Natural Resources Defense Council. “If this technology is proven to be viable, scalable and cost-effective, it would greatly enhance our climate resilience.”

Two men walk on a dock toward a prototype desalination pod that is being tested in a reservoir.

OceanWell’s Mark Golay, left, and Ian Prichard, deputy general manager of Calleguas Municipal Water District, walk toward a prototype of the desalination pod being tested in Las Virgenes Reservoir.

(Allen J. Schaben / Los Angeles Times)

During a recent demonstration at Las Virgenes Reservoir, Tim Quinn, the company’s water policy strategist, watched as the 12-foot-long cylindrical prototype was lowered underwater on a cable.

“We pull fresh water only up out of the ocean, and the salt stays down there in low concentrations, where it’s not an environmental problem,” Quinn said.

The testing at Las Virgenes Reservoir will help the company’s engineers check how the system works in filtering out plankton and discharging it back into the water. When the pod was nearly 50 feet underwater, Mark Golay, the company’s director of engineering projects, turned on the pumps and water flowed from a spigot.

The next step, expected later this year, will involve conducting trials in the ocean by lowering a pod from an anchored boat into the depths about 5 miles offshore.

“We hope to be building water farms under the ocean in 2028,” Quinn said.

Quinn previously worked for California water agencies for four decades, and he joined Menlo Park-based OceanWell two years ago believing the new technology holds promise to ease the state’s conflicts over water.

“Ocean desal has never played a prominent role in California’s water future,” he said, “and this technology allows us to look to the ocean as a place where we can get significant sources of supply with minimal, if any, environmental conflict.”

Managers of seven Southern California water agencies are holding monthly meetings on the project and studying what investments in new infrastructure — such as pipelines and pump stations — would be needed to transport the water the company plans to sell from the shore to their systems.

Leaders of Las Virgenes Municipal Water District, who are spearheading the effort, are holding an event at the reservoir Friday to showcase how the technology is being tested. The pilot study is being supported by more than $700,000 in grants from the Metropolitan Water District of Southern California and the U.S. Bureau of Reclamation.

The company still will need to secure additional permits from the federal government and the state. And it has yet to estimate how much energy the process will require, which will be a major factor in determining the cost.

But water managers and other experts agree that the concept offers several advantages over building a traditional desalination plant on the coast.

Significantly less electricity is likely to be needed to run the system’s onshore pumps because the pods will be placed at a depth of about 1,300 feet, where the undersea pressure will help drive seawater through reverse-osmosis membranes to produce fresh water.

While the intakes of coastal desalination plants typically suck in and kill plankton and fish larvae, the pods have a patented intake system that the company says returns tiny sea creatures to the surrounding water unharmed. And while a plant on the coast typically discharges ultra salty brine waste that can harm the ecosystem, the undersea pods release brine that is less concentrated and allow it to dissipate without taking such an environmental toll.

A man watches as a cylindrical prototype is lowered into a reservoir.

Golay lowers a prototype into Las Virgenes Reservoir for testing.

(Allen J. Schaben / Los Angeles Times)

If the technology proves viable on a large scale, Gold said, it would help make Southern California less reliant on diminishing imported supplies from the Sacramento-San Joaquin River Delta and the Colorado River.

Research has shown that human-caused climate change is driving worsening droughts in the western United States. Gov. Gavin Newsom’s administration has projected that as rising temperatures diminish the snowpack and intensify droughts, the average amount of water available from the reservoirs and aqueducts of the State Water Project could shrink between 13% and 23% over the next 20 years.

Southern California’s water agencies are moving ahead with plans to build new facilities that will transform wastewater into clean drinking water, and have also been investing in projects to capture more stormwater.

In addition to the economic viability, other questions need to be answered through research, Gold said, including how well the system will hold up filtering tiny sea life, how much maintenance will be needed, and whether the pods and hoses could present any risk of entangling whales.

OceanWell’s executives and engineers say their system is designed to protect marine life and eliminate the environmental negatives of other technologies.

An illustration of the water farm with parts labeled

A conceptual illustration shows a so-called water farm that OceanWell plans to install off the California coast, with 40-foot-long pods anchored to the seafloor about 1,300 feet deep.

(OceanWell)

Robert Bergstrom, OceanWell’s chief executive, has been working on desalination projects since 1996, and previously built and operated plants in the U.S. Virgin Islands, the Bahamas and other Caribbean islands for the company Seven Seas Water, which he founded.

When Bergstrom retired, he moved to California and eventually decided to go back to work to develop technology to help solve California’s water problems.

“I had a big idea,” Bergstrom said. “I knew this was going to be just a huge lift to get this done, a moonshot.”

OceanWell, founded in 2019, now has 10 employees. Its lead investor is Charlie McGarraugh, a former partner of the investment banking company Goldman Sachs. One of its major investors is Japan-based Kubota Corp.

Building on Bergstrom’s concept, Chief Technology Officer Michael Porter and the engineering team have worked on the design. They built the first prototype in Porter’s kitchen in San Diego County, and did initial tests in a lab.

“It was inspired by the environmental community in California pointing out problems that needed to be solved,” Bergstrom said.

Desalination plants are operating in parts of California, including the nation’s largest facility, in Carlsbad, and a small-scale plant on Santa Catalina Island. But proposals for new coastal desalination plants have generated strong opposition. In 2022, the California Coastal Commission rejected a plan for a large desalination plant in Huntington Beach. Opponents argued the water wasn’t needed in the area and raised concerns about high costs and harm to the environment.

The problem of traditional shallow intakes drawing in large amounts of algae, fish larvae and plankton goes away in the deep sea, Bergstrom said, because the perpetual darkness 1,300 feet underwater supports vastly less sea life.

“We have much cleaner water to deal with,” Bergstrom said. “It’s pretty much a barren desert where we’ve chosen to locate, and as a result, we just don’t have that much stuff to filter out.”

A specific site for the first water farm has not yet been selected, but the company plans to install it nearly 5 miles offshore, with a pipeline and a copper power cable connecting it to land.

Putting the system deep underwater will probably reduce energy costs by about 40%, Bergstrom said, because unlike a coastal plant that must pump larger quantities of seawater, it will pressurize and pump a smaller quantity of fresh water to shore.

Bergstrom and his colleagues tout their invention as a totally different approach. They say it’s not really desalinating seawater in the traditional sense, but rather harvesting fresh water from devices that function like wells in the ocean.

After their first water farm, they envision building more along the coast. Bergstrom believes they will help solve water scarcity challenges in California and beyond.

Various sites off California would be well-suited to develop water farms, from San Diego to Monterey, Bergstrom said, as would many water-scarce countries with deep offshore waters, such as Chile, Spain and North African nations.

“I believe it’ll reshape the world more than just California water,” Quinn said, “because I think the globe is looking for something that is this environmentally friendly.”

Under the company’s plans, the first water farm would initially have 20 to 25 pods, and would be expanded with additional pods to deliver about 60 million gallons of water per day, enough for about 250,000 households.

Las Virgenes and six other water agencies — including L.A. Department of Water and Power, the city of Burbank and Calleguas Municipal Water District — are working together on a study of how water could be delivered directly from the project, and at what cost, as well as how inland agencies could benefit indirectly by exchanging supplies with those on the coast.

“We’re very heavily dependent on imported water, and we need to diversify,” said David Pedersen, Las Virgenes’ general manager. “We need to develop new local water that’s drought resilient, and that can help us as we adapt to climate change.”

His district, which depends almost entirely on imported supplies from the State Water Project, serves more than 75,000 people in Agoura Hills, Calabasas, Hidden Hills, Westlake Village and surrounding areas.

A man tastes water flowing from a spigot on a dock

Mike McNutt, public affairs and communications manager for Las Virgenes Municipal Water District, tastes water that flows from a spigot after passing through a prototype desalination system at Las Virgenes Reservoir.

(Allen J. Schaben / Los Angeles Times)

During the drought from 2020 to 2022, the district was under severe water restrictions and customers reduced usage nearly 40%. Pedersen hopes the district will be able to tap the ocean for water by around 2030.

At Calleguas Municipal Water District, which delivers water for about 650,000 people in Ventura County, deputy general manager Ian Prichard said one of the big questions is how much energy the system will use.

“If the technology works and they can bring it to market, and we can afford to bring the water into our service area, then that would be great,” Prichard said. “The big test is, can they produce water at a rate that we want to pay?”

Read the full story here.
Photos courtesy of

MIT Sea Grant students explore the intersection of technology and offshore aquaculture in Norway

AquaCulture Shock program, in collaboration with MIT-Scandinavia MISTI, offers international internships for AI and autonomy in aquaculture

Norway is the world’s largest producer of farmed Atlantic salmon and a top exporter of seafood, while the United States remains the largest importer of these products, according to the Food and Agriculture Organization. Two MIT students recently traveled to Trondheim, Norway to explore the cutting-edge technologies being developed and deployed in offshore aquaculture. Beckett Devoe, a senior in artificial intelligence and decision-making, and Tony Tang, a junior in mechanical engineering, first worked with MIT Sea Grant through the Undergraduate Research Opportunities Program (UROP). They contributed to projects focusing on wave generator design and machine learning applications for analyzing oyster larvae health in hatcheries. While near-shore aquaculture is a well-established industry across Massachusetts and the United States, open-ocean farming is still a nascent field here, facing unique and complex challenges. To help better understand this emerging industry, MIT Sea Grant created a collaborative initiative, AquaCulture Shock, with funding from an Aquaculture Technologies and Education Travel Grant through the National Sea Grant College Program. Collaborating with the MIT-Scandinavia MISTI (MIT International Science and Technology Initiatives) program, MIT Sea Grant matched Devoe and Tang with aquaculture-related summer internships at SINTEF Ocean, one of the largest research institutes in Europe. “The opportunity to work on this hands-on aquaculture project, under a world-renowned research institution, in an area of the world known for its innovation in marine technology — this is what MISTI is all about,” says Madeline Smith, managing director for MIT-Scandinavia. “Not only are students gaining valuable experience in their fields of study, but they’re developing cultural understanding and skills that equip them to be future global leaders.” Both students worked within SINTEF Ocean’s Aquaculture Robotics and Autonomous Systems Laboratory (ACE-Robotic Lab), a facility designed to develop and test new aquaculture technologies. “Norway has this unique geography where it has all of these fjords,” says Sveinung Ohrem, research manager for the Aquaculture Robotics and Automation Group at SINTEF Ocean. “So you have a lot of sheltered waters, which makes it ideal to do sea-based aquaculture.” He estimates that there are about a thousand fish farms along Norway’s coast, and walks through some of the tools being used in the industry: decision-making systems to gather and visualize data for the farmers and operators; robots for inspection and cleaning; environmental sensors to measure oxygen, temperature, and currents; echosounders that send out acoustic signals to track where the fish are; and cameras to help estimate biomass and fine-tune feeding. “Feeding is a huge challenge,” he notes. “Feed is the largest cost, by far, so optimizing feeding leads to a very significant decrease in your cost.”During the internship, Devoe focused on a project that uses AI for fish feeding optimization. “I try to look at the different features of the farm — so maybe how big the fish are, or how cold the water is ... and use that to try to give the farmers an optimal feeding amount for the best outcomes, while also saving money on feed,” he explains. “It was good to learn some more machine learning techniques and just get better at that on a real-world project.” In the same lab, Tang worked on the simulation of an underwater vehicle-manipulator system to navigate farms and repair damage on cage nets with a robotic arm. Ohrem says there are thousands of aquaculture robots operating in Norway today. “The scale is huge,” he says. “You can’t have 8,000 people controlling 8,000 robots — that’s not economically or practically feasible. So the level of autonomy in all of these robots needs to be increased.”The collaboration between MIT and SINTEF Ocean began in 2023 when MIT Sea Grant hosted Eleni Kelasidi, a visiting research scientist from the ACE-Robotic Lab. Kelasidi collaborated with MIT Sea Grant director Michael Triantafyllou and professor of mechanical engineering Themistoklis Sapsis developing controllers, models, and underwater vehicles for aquaculture, while also investigating fish-machine interactions. “We have had a long and fruitful collaboration with the Norwegian University of Science and Technology (NTNU) and SINTEF, which continues with important efforts such as the aquaculture project with Dr. Kelasidi,” Triantafyllou says. “Norway is at the forefront of offshore aquaculture and MIT Sea Grant is investing in this field, so we anticipate great results from the collaboration.”Kelasidi, who is now a professor at NTNU, also leads the Field Robotics Lab, focusing on developing resilient robotic systems to operate in very complex and harsh environments. “Aquaculture is one of the most challenging field domains we can demonstrate any autonomous solutions, because everything is moving,” she says. Kelasidi describes aquaculture as a deeply interdisciplinary field, requiring more students with backgrounds both in biology and technology. “We cannot develop technologies that are applied for industries where we don’t have biological components,” she explains, “and then apply them somewhere where we have a live fish or other live organisms.” Ohrem affirms that maintaining fish welfare is the primary driver for researchers and companies operating in aquaculture, especially as the industry continues to grow. “So the big question is,” he says, “how can you ensure that?” SINTEF Ocean has four research licenses for farming fish, which they operate through a collaboration with SalMar, the second-largest salmon farmer in the world. The students had the opportunity to visit one of the industrial-scale farms, Singsholmen, on the island of Hitra. The farm has 10 large, round net pens about 50 meters across that extend deep below the surface, each holding up to 200,000 salmon. “I got to physically touch the nets and see how the [robotic] arm might be able to fix the net,” says Tang. Kelasidi emphasizes that the information gained in the field cannot be learned from the office or lab. “That opens up and makes you realize, what is the scale of the challenges, or the scale of the facilities,” she says. She also highlights the importance of international and institutional collaboration to advance this field of research and develop more resilient robotic systems. “We need to try to target that problem, and let’s solve it together.”MIT Sea Grant and the MIT-Scandinavia MISTI program are currently recruiting a new cohort of four MIT students to intern in Norway this summer with institutes advancing offshore farming technologies, including NTNU’s Field Robotics Lab in Trondheim. Students interested in autonomy, deep learning, simulation modeling, underwater robotic systems, and other aquaculture-related areas are encouraged to reach out to Lily Keyes at MIT Sea Grant.

Celebrating the advancement of technology leadership through policy analysis and guidance

The MIT Technology and Policy Program marked 50 years with a symposium exploring its history of education, research, and impact — while looking ahead to technology policy issues of the future.

In 1965, after completing his PhD in civil engineering at MIT, Professor Richard de Neufville joined the first class of White House Fellows, one of the nation’s most prestigious programs for leadership and public service, through which he spent an intensive year working full-time at the highest levels of government. Soon after, de Neufville joined the MIT faculty and led a steering committee that developed what would become the MIT Technology and Policy Program (TPP). TPP was approved in 1975 and launched in 1976 as an Institute-wide hub of education and research, and included a two-year, research-based master’s degree, with de Neufville serving as its founding chair.This October, TPP held a symposium and celebration at MIT, marking TPP’s 50th year as an interdisciplinary effort focused on advancing the responsible leadership of technology through the integration of technical expertise and rigorous policy analysis in critical areas such as energy, the environment, security, innovation, and beyond.As the 1988 “TPP Fact Book” stated: “The Technology and Policy Program educates men and women for leadership on the important technological issues confronting society. We prepare our graduates to excel in their technical fields, and to develop and implement effective strategies for dealing with the risks and opportunities associated with those technologies. This kind of education is vital to the future of our society.”Now in its 50th year, TPP’s legacy of education, research, and impact has shaped more than 1,500 alumni who are among the most distinguished technology policy leaders across the world. TPP alumni often describe the program as life-changing and transformative — an educational experience that shaped their understanding of purpose, systems, and leadership in ways that continue to guide their careers throughout their lives. Today, over 50 TPP graduate students conduct research across the Institute on topics such as energy grid modeling, environmental protection, nuclear safety, industrial decarbonization, space system engineering and public policy, technoeconomic modeling of materials value chains, and governance of global digital systems and artificial intelligence.Working to bring technically-informed and scientifically robust insights to technology policy is as urgent today as it was 50 years ago, says Christine Ortiz, Morris Cohen Professor of Materials Science and Engineering and the current director of TPP. “The role of technology policy is more essential than ever, helping to shape national and international priorities and underpinning societal and planetary well-being,” said Ortiz in her opening remarks. “Today’s symposium is convened with urgency amid a rapidly shifting landscape. We are situated here today at the epicenter of profound technological advancement, reaffirming our collective responsibility to ensure that innovation advances the well-being of humanity and the health of our planet.”North stars and new routesThe TPP 50th Anniversary Symposium — North Stars and New Routes — held on Oct. 11, convened more than 630 participants from 30 countries, both in-person and virtually. The gathering brought together alumni, faculty, students, and global leaders to celebrate five decades of impact while exploring bold new directions for the future of technology and policy.Over the course of seven thematic sessions and 45 speakers, the symposium offered a sweeping view of the current issues shaping the next era of technology policy. Discussions spanned a wide range of topics, including energy systems modeling, global environmental governance, ecologically neutral manufacturing, design of global digital systems, trust as national security infrastructure, the future of technology policy as a domain of scholarship, and the role of technology policy in the future of the research university.The day opened with a dynamic panel examining the technical frontiers and possibilities of interactive energy systems modeling. Speakers highlighted the dual role of simulation tools as both advanced instruments for understanding decision outcomes and uncertainties, as well participatory platforms for engaging policymakers and stakeholders.The next session, focused on global environmental governance, explored new approaches to planetary cooperation and emphasized how data-driven policy, equitable technology transfer, and accountability mechanisms can strengthen international climate action. Panelists called for adaptive and integrated governance frameworks that mirror the interconnectedness and complexity of the environmental systems they aim to protect.In a session on ecologically neutral manufacturing, participants discussed advances in circular materials design and life-cycle modeling that reduce industrial emissions and resource intensity. Speakers underscored the importance of policies promoting reuse, recycling, and cleaner production — linking manufacturing innovation with both economic competitiveness and ecological resilience.Turning to the design and governance of global digital systems, keynote speaker David Clark, senior research scientist at MIT’s Computer Science and Artificial Intelligence Laboratory and a pioneering architect of the internet, examined how the architecture of digital networks both reflects and shapes societal values, power, and accountability. He noted that the internet’s original open design — built for innovation and resilience — now faces pressing challenges of trust, privacy, and control. The next generation of digital infrastructure, he argued, must embed trust and accountability into its very foundations. The subsequent panel expanded on these themes, exploring how global digital ecosystems are influenced by the competing incentives of governments, corporations, and users. Speakers called for governance models that integrate technical, economic, and ethical considerations — emphasizing that true accountability depends not only on external regulation, but on embedding human values directly into the design of technology.The theme of trust carried into the next discussion, with the focus on trust as infrastructure for security policy, where experts emphasized that national and global security must evolve to encompass cyber-trust, space governance, and technological resilience as essential infrastructures for stability in an era defined by AI and geopolitical complexity and uncertainty.In the final session, which explored the role of technology policy in the future of the research university, panelists discussed how research institutions can strengthen their societal role by embedding technology policy and interdisciplinary scholarship into the institutional structure. Speakers emphasized the need for universities to evolve into more cohesive, outward-looking engines of policy innovation — coordinating existing centers of excellence, improving communication between research and government, and expanding educational pathways that integrate engineering, social science, and civic engagement.Technology, policy, and powerIn a keynote address, Senator Edward J. Markey, U.S. senator for Massachusetts, delivered a compelling call for moral and democratic leadership in governing the technologies shaping modern life. He warned that the rapid expansion of artificial intelligence and digital systems has outpaced the ethical and policy frameworks needed to protect society, declaring that “the privacy protections of all preceding generations have broken down.” Markey called for a renewed commitment to AI civil rights and accountability in the digital age, urging that technology must be harnessed as “a tool for connection, not addiction,” and developed to advance human dignity, fairness, and shared prosperity.Framing technology as both a source of immense potential and a concentration of power, Markey argued that the defining question of our era is who controls that power, and to what end. He urged policymakers, researchers, and citizens alike to ensure that innovation strengthens democracy rather than undermines it. Closing on a note of determination and hope, Markey reminded the audience that technology policy is inseparable from human and planetary well-being: “Technology is power … the question is, who wields it and for what purpose. We must ensure it serves democracy, equality, and the future of our planet.”New Institute-wide policy initiative announcedThe symposium concluded with the announcement of an exciting new Institute-wide initiative, Policy@MIT, introduced by Maria Zuber, E.A. Griswold Professor of Geophysics and Presidential Advisor for Science and Technology Policy. Zuber described the effort as a bold and unifying step to synergize and amplify policy initiatives across MIT, strengthening the Institute’s capacity to inform evidence-based policymaking. Building upon the foundational work of TPP — within which the program will serve as a core pillar — Policy@MIT aims to connect MIT’s deep technical expertise with real-world policy challenges, foster collaboration across schools and disciplines, and train the next generation of leaders to ensure that science and technology continue to serve humanity and the planet.Extending MIT TPP’s legacy of technology and policy leadership As MIT charts the next half-century of leadership at the intersection of technology, policy, and society, TPP continues to serve as a cornerstone of this mission. Operating within the MIT Institute for Data, Systems, and Society (IDSS), the MIT School of Engineering, and the MIT Schwarzman College of Computing, TPP distinctively engages and integrates state-of-the-art modeling, simulation, and analytical methods in information and decision systems, statistics and data science, and the computational social sciences, with a diverse range of foundational, emerging, and cross-disciplinary policy analysis methods. Sitting at the confluence of engineering, computer science, and the social sciences, TPP equips students and researchers to study some of the most important and complex emerging issues related to technology through systems thinking, technical rigor, and policy analysis.Founding IDSS director Munther Dahleh, the William A. Coolidge Professor in Electrical Engineering and Computer Science, described this integration as cultivating the “trilingual student” — someone fluent in data and information, social reasoning, and a technical domain. “What we’re trying to produce in the TPP program,” he explained, “is the person who can navigate all three dimensions of a problem.”Reflecting on TPP’s enduring mission, Ortiz concluded the symposium, “As we look ahead to the next 50 years, this is a pivotal moment for the Technology and Policy Program — both at MIT and globally. TPP holds tremendous potential for growth, translation, and impact as a leader in technology policy for the nation and the world.”

Stone tool discovery suggests very first humans were inventors

The find shows that the technology was passed down through thousands of generations.

Stone tool discovery suggests very first humans were inventors Pallab GhoshScience CorrespondentDavid BraunThey look like simple stones, but they were state of the art tools millions of years ago, made with great skill and precisonThe very first humans millions of years ago may have been inventors, according to a discovery in northwest Kenya.Researchers have found that the primitive humans who lived 2.75 million years ago at an archaeological site called Namorotukunan used stone tools continuously for 300,000 years.Evidence previously suggested that early human tool use was sporadic: randomly developed and quickly forgotten.The Namorotukunan find is the first to show that the technology was passed down through thousands of generations.According to Prof David Braun, of George Washington University, in Washington DC, who led the research, this find, published in the journal Nature Communications, provides incredibly strong evidence for a radical shake-up in our understanding of human evolution."We thought that tool use could have been a flash in the pan and then disappeared. When we see 300,000 years of the same thing, that's just not possible," he said."This is a long continuity of behaviour. That tool use in (humans and human ancestors) is probably much earlier and more continuous than we thought it was."David BraunThe stone tools were so sharp that the researchers could cut their fingers on some of themArchaeologists spent ten years at Namorotukunan uncovering 1,300 sharp flakes, hammerstones, and stone cores, each made by carefully striking rocks gathered from riverbeds. These are made using a technology known as Oldowan and is the first widespread stone tool-making method.The same kinds of tools appear in three distinct layers. The deeper the layer the further back the snapshot in time. Many of the stones were specially chosen for their quality, suggesting that the makers were skilled and knew exactly what they were looking for, according to the senior geoscientist on the research team, Dr Dan Palcu Rolier of the University of São Paulo in Brazil."What we see here in the site is an incredible level of sophistication," he told BBC News."These guys were extremely astute geologists. They knew how to find the best raw materials and these stone tools are exceptional. Basically, we can cut our fingers with some of them."Geological evidence suggests that tool use probably helped these people survive dramatic changes in climate. The landscape shifted from lush wetlands to dry, fire-swept grasslands and semideserts," said Rahab N. Kinyanjui, senior scientist at the National Museums of Kenya.These sharp environmental changes would normally force animal populations to adapt through evolution or move away. But the toolmakers in the region managed to thrive by using technology rather than biological adaptation, according to Dr Palcu Rolier."Technology enabled these early inhabitants of East Turkana to survive in a rapidly changing landscape - not by adapting themselves, but adapting their ways of finding food."The evidence of stone tools at different layers shows that for a long and continuous period, these primitive people flew in the face of biological evolution, finding a way of controlling the world around them, rather than letting the world control them.And this happened at the very beginning of the emergence of humanity, according to Dr Palcu Rolier."Tool use meant that they did not have to evolve by modifying their bodies to adapt to these changes. Instead, they developed the technology they needed to get access to the food: tools for ripping open animal carcasses and digging up plants."David BraunThe Namorotukunan site, located in Kenya's Turkana Basin, lies close to the ancient course of a long dried up major river which once attracted settlements of early humans and their ancestorsThere is evidence for this at the site: of animal bones being broken, being cut with these stone tools, which means that through these changes, they were consistently able to use meat as a way of sustenance."The technology gives these early inhabitants an advantage, says Dr Palcu Rolier."They are able to access different types of foods as environments change, their source of sustenance is changing, but because they have this technology, they can bypass these challenges and access new food."David BraunArchaeologists excavate a 2.58 million year old site in northern Kenya at the site of NamorotukunanAt around 2.75 million years ago, the region was populated by some of the very first humans, who had relatively small brains. These early humans are thought to have lived alongside their evolutionary ancestors: a pre-human group, called australopithecines, who had larger teeth and a mix of chimpanzee and human traits.The tool users at Namorotukunan were most likely one of these groups or possibly both.And the finding challenges the notion held by many experts in human evolution that continuous tool use emerged much later, between 2.4 and 2.2 million years ago, when humans had evolved relatively larger brains, according to Prof Braun."The argument is that we're looking at a pretty substantial brain size increase. And so, often the assertion has been that tool use allowed them to feed this large brain."But what we're seeing at Namorotukunan is that these really early tools are used before that brain size increase.""We have probably vastly underestimated these early humans and human ancestors. We can actually trace the roots of our ability to adapt to change by using technology much earlier than we thought, all the way to 2.75 million years ago, and probably much earlier."

Rewriting the Story of Human Migration: Scientists Uncover Lost Land Bridge to Europe

An “emotional and inspiring” archaeological find of Paleolithic tools has revealed a long-lost prehistoric passage that may have enabled movement between Ayvalık and Europe. Continuous stretches of land, now lying beneath the sea, may once have allowed early humans to move between what is now Türkiye and Europe, according to groundbreaking research in a region [...]

A Paleolithic handaxe with a broken distal end, discovered during the Ayvalık survey. Credit: Kadriye, Göknur, and HandeAn “emotional and inspiring” archaeological find of Paleolithic tools has revealed a long-lost prehistoric passage that may have enabled movement between Ayvalık and Europe. Continuous stretches of land, now lying beneath the sea, may once have allowed early humans to move between what is now Türkiye and Europe, according to groundbreaking research in a region that has remained largely unexamined. The findings, published on 19 September 2025 in the peer-reviewed Journal of Island and Coastal Archaeology, document the first evidence of a Paleolithic presence in Ayvalık. More significantly, they may reshape our understanding of how humans entered Europe. For decades, the prevailing view has been that Homo sapiens reached the continent mainly through the Balkans and the Levant, traveling from Africa into the Middle East. Yet, the recent discovery of 138 stone tools across 10 sites spanning 200 km² suggests a different possibility: long before Ayvalık became known for its olive groves and coastal landscapes, its northeastern Aegean shoreline may have provided an alternative pathway for humans adapting to a shifting prehistoric world. “Our archaeological discovery has unveiled that this now-idyllic region once potentially offered a vital land bridge for human movement during the Pleistocene era—when sea levels dropped and the now-submerged landscape was briefly exposed,” explains Dr Göknur Karahan, from the Department of Archaeology-Prehistory, at Hacettepe University, in Turkey, who was part of a fully female team of expert archaeologists from the country. General view of the Ayvalık region, where the Paleolithic survey was conducted. Credit: Kadriye, Göknur, and Hande“We are very excited and delighted with this discovery. These findings mark Ayvalık as a potential new frontier in the story of human evolution, placing it firmly on the map of human prehistory – opening up a new possibility for how early humans may have entered Europe.   “It feels like we are adding an entirely new page to the story of human dispersal. Our research raises exciting possibilities for future exploration, and we hope it emerges as a body of work that will shift the approach of Pleistocene archaeology for decades to come.”  How were these findings possible?  During the Ice Age, sea levels were more than 100 meters lower than today, revealing broad stretches of land that are now submerged. In that period, the islands and peninsulas of modern Ayvalık were connected as part of a single landmass, creating a natural corridor between Anatolia and Europe. The newly uncovered tools lie along the present coastline, offering direct evidence of people inhabiting and traveling across these landscapes that later disappeared beneath the sea. During the field survey in Ayvalık. from left to right, Göknur, Kadriye, and Hande. Credit: Göknur, Kadriye, and HandeUntil now, factors such as environmental changes and the depth at which remains are buried have made it difficult to identify and preserve archaeological evidence in the Ayvalık region. “In all these periods, the present-day islands and peninsulas of Ayvalık would have formed interior zones within an expansive terrestrial environment,” explains co-author Professor Kadriye Özçelik, from Ankara University.  “These paleogeographic reconstructions underscore the importance of the region for understanding hominin dispersals across the northeastern Aegean during the Pleistocene.”  What was found?   The region’s shifting geology and active coastlines in the North Aegean made preservation difficult and the number of items uncovered “limited.” However, this research team managed to uncover Levallois technologies from various Paleolithic periods, as well as handaxes and cleavers.     Among the most significant finds include Levallois-style flake tools, sophisticated implements linked to the Middle Paleolithic Mousterian tradition – these are often associated with Neanderthals and early Homosapiens.    “These large cutting tools are among the most iconic artifacts of the Paleolithic and are instantly recognizable even today, so are a very important find,” explains Dr Karahan.    “The presence of these objects in Ayvalık is particularly significant, as they provide direct evidence that the region was part of wider technological traditions shared across Africa, Asia, and Europe.” Field survey in Ayvalık from left to right, Kadriye, Göknur, and Hande. Credit: Kadriye, Göknur, and Hande Describing the initial discovery of the 131 items, Dr Karahan adds: “It was a truly unforgettable moment for us. Holding the first tools in our hands was both emotional and inspiring.  “And each find from there on was a moment of excitement for the whole team.   “Holding these objects —after walking across landscapes where no one had ever documented Paleolithic remains before— was unforgettable.”  What does this discovery tell us about early humans? The experts’ key argument hinges on the potential of Ayvalık as a dynamic site for interaction and exchange, facilitating early human movement between the Anatolia peninsula and Europe.   Exploring how Anatolia, with a specific focus on Ayvalık, and Europe were linked during glacial sea-level low stands offers alternative pathways for how early humans moved around the region beyond dominantly emphasised northern mainland-centered routes.  Addressing a gap in the scholarship, the authors’ work provides a new foundation for examining resources and migration routes in which Ayvalık may have featured as part of a mobility corridor.  The survey’s yield of tools demonstrates a “consistent use of Levallois technology and flake production… and a diversified toolkit,” whilst all artefacts together offer what the team state are “valuable insights into early human presence, raw material preferences, and technological variability.” “The findings paint a vivid picture of early human adaptation, innovation, and mobility along the Aegean,” Dr Karahan explains.  “The results confirmed that Ayvalık – which had never before been studied for its Paleolithic potential – holds vital traces of early human activity.”  Incredible recoveries, hundreds of thousands of years later  As this was a survey (carried out across a two-week period in June 2022) rather than an excavation, the team could not be certain of what they would find when they set off. They knew from the region’s geology and paleogeography that there was potential. They explored – often muddy, (particularly in lowland basins and coastal plains) – sites by foot.  What followed was a “discovery of such a diverse and well-preserved set of artifacts, which exceeded our expectations,” Dr Karahan says.   Although these recovery efforts were not without challenges, the authors explore what both the challenges and findings reveal in the paper.   They state: “The widespread, muddy cover was considered a limiting factor for the preservation and detectability of Paleolithic materials.   “However, despite these constraints, high-quality raw material sources, such as flint and chalcedony, were identified in multiple locations, including areas affected by alluvial deposition.” Future potential   Fellow author Dr Hande Bulut, from Düzce University, adds: “Ultimately, the results underline Ayvalık’s potential as a long-term hominin habitat and a key area for understanding Paleolithic technological features in the eastern Aegean.  “While preliminary, the current findings underscore the region’s potential to contribute to broader debates on Aegean connectivity and technological evolution during the Pleistocene.  “Excitingly, the region between the North Aegean and the Anatolian mainland, may still hold valuable clues to early occupation despite the challenges posed by active geomorphological processes.”  The team recommends future research uses a multidisciplinary approach to outline absolute dating, stratigraphic excavation, and paleoenvironmental reconstruction, which they describe as “essential to clarify the temporal depth and functional character of the Ayvalık assemblage.” Reference: “Discovering the Paleolithic Ayvalık: A Strategic Crossroads in Early Human Dispersals Between Anatolia and Europe” by Hande Bulut, Göknur Karahan and Kadriye Özçelik, 17 September 2025, Journal of Island and Coastal Archaeology.DOI: 10.1080/15564894.2025.2542777 Never miss a breakthrough: Join the SciTechDaily newsletter.Follow us on Google, Discover, and News.

EPA grants air permit, clears way for new deep-water oil port off Southeast Texas coast

The Texas GulfLink would be about 30 miles off the coast of Freeport. It's touted for first-of-its-kind technology to reduce emissions. Environmentalists and Brazoria County residents still have concerns.

This August 2014 shows the Gulf shoreline in Texas’ Bolivar Peninsula.The U.S. Environmental Protection Agency (EPA) has issued an air-quality permit for a proposed deep-water crude oil port about 30 miles off the shore of Freeport, a Gulf Coast town south of Houston. Its supporters say it takes an extra step toward reducing emissions, while environmental advocacy groups and some nearby residents worry it will still exacerbate pollution. The Texas GulfLink deep-water port would implement a "first-of-its-kind use of vapor capture and control technology mounted on an offshore support vessel," according to a news release issued Monday by the EPA. The agency notes that such technology has been used on shuttle tankers for decades with 96% emission-control efficiency. "Sentinel Midstream is proud to unveil a groundbreaking vapor control application that will revolutionize the loading of Very Large Crude Carriers in the Gulf of America," said Jeff Ballard, the CEO of Sentinel Midstream, of which Texas GulfLink is a subsidiary, in the EPA news release. "Developed by our Texas GulfLink team in close collaboration with the EPA, this innovative approach significantly reduces volatile organic compounds, setting a new industry standard for environmental performance and advances the implementation of Best Available Control Technology." Air pollutants that are emitted during the process of obtaining crude oil "will be captured at the tanker and routed via flexible hose to a control system located on an adjacent, dynamically positioned offshore support vessel," according to Brad Toups, an EPA official who wrote the permit and presented it during a public hearing in June. Those emissions, referred to as volatile organic compounds, are either stored and sold, or they're used as fuel. Sentinel Midstream did not immediately respond a request for comment Tuesday. The permit, under the Clean Air Act, is one piece of the puzzle toward the rig's development. The other is approval from the U.S. Department of Transportation's Maritime Administration, or MARAD. In February, MARAD issued a Record of Decision, indicating its approval of the project. RELATED: EPA approves long-awaited plan to clean up San Jacinto River waste pits near Houston Though the project takes steps toward reducing emissions, clean energy advocacy groups have expressed criticisms of the Texas GulfLink deep-water port. "Approving yet another massive offshore oil terminal like this will only worsen a global climate crisis that is already slamming Texans with flooding, heat waves, and drought," Jen Duggan, executive director of the Environmental Integrity Project, told Houston Public Media. "This terminal is expected to release more than 21,000 tons of greenhouse gases per year, as much as much as 4,321 cars and trucks driven for a year. It is good that the Trump Administration says the terminal will be using some pollution controls. But we should remember that ‘unleashing' more dirty fossil fuels like this also means more air and water pollution released upstream during the fracking, drilling, and processing of the oil before it even arrives at the oil export terminal. And then more pollution again when it is burned — all to the detriment of the climate and local communities." During a public EPA hearing in June, members of the Brazoria County community also shared concerns about the initiative. "This project doesn't benefit people in Brazoria County, it only benefits rich executives who continue to squeeze profits at the expense of communities like Freeport," said Riley Bennington, a Brazoria County resident, according to an EPA transcript of the hearing. "As a kid growing up in Texas, I really thought we'd be past this by now. We've had renewable energy figured out. Why is this even being considered?" Though most of the testimony during the June 25 public hearing opposed Texas GulfLink, the initiative wasn't completely without praise. Amy Dinn, an attorney from Lone Star Legal Aid representing Better Brazoria, said GulfLink's permits are "much better and more protective of the environment" than other such projects, though she still expressed concerns that not enough research was done on the ozone emissions and impacts of severe weather.

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