Tuesday, June 10, 2025

 

Fire ready?: White paper finds many US power utilities unprepared for wildfire risk



Stanford University





Evidence suggests that several of the catastrophic wildfires that struck Los Angeles earlier this year may have been sparked by electric utility infrastructure. As utilities prepare for record infrastructure demand driven by electrification, data centers, and renewables, the cost of inaction in the face of rising wildfire risk is mounting. Wildfires can cause billions of dollars in damages to communities, bankrupt utilities, and ultimately drive up rates for customers. A new report from Stanford University’s Climate and Energy Policy Program (CEPP) offers a clearer view of where risk is greatest—and where mitigation is falling short.

“This isn’t just about power lines and vegetation,” said Michael Mastrandrea, research director at CEPP and a senior research scholar at the Stanford Woods Institute for the Environment. “It’s about protecting homes, communities, and the integrity of our energy system in a changing world.”

The Stanford researchers examined how investor-owned utilities (IOUs) across the country are confronting the escalating threat of wildfires. The key takeaway: while progress has been made across many Western states, utilities in some potentially high-risk areas remain underprepared.

Using a combination of public data and wildfire hazard modeling, the research team assigned “tiers” to utility wildfire mitigation efforts. Tier 1 utilities have implemented comprehensive plans and technical measures—like fast-trip settings that can turn power lines off more quickly when an object touches them during high-fire-risk periods—to reduce the chance of ignitions. Tier 3 utilities, on the other hand, lack even a public plan describing their implementation of wildfire mitigation or safety shutoffs.

While utilities in California, Oregon, and Utah tend to cluster in Tier 1, many in the Southeast, Gulf Coast, and Upper Midwest remain at Tier 3, according to the paper. The researchers note that this uneven progress is partly due to regulatory barriers in states with less recent catastrophic wildfire history. In such places, concerns about affordability and reliability often outweigh momentum for fire safety upgrades—until disaster strikes.

The report also underscores how emerging legal trends are putting utilities on notice. Recent lawsuits tied to wildfires in Oregon and Hawaii suggest that utilities nationwide may be held accountable for not proactively cutting power or upgrading equipment when conditions demand it. The Los Angeles wildfires exposed a critical blind spot, according to the researchers: most wildfire mitigation plans focus on lower-voltage distribution lines, while higher-voltage transmission lines and deactivated infrastructure may be overlooked.

“We can’t afford to focus only on part of the problem,” said report lead author Eric Macomber, a wildfire legal fellow at CEPP and the Stanford Law School’s Environmental and Natural Resources Law and Policy Program. “We need wildfire planning that looks at the entire grid—public and private, active and inactive.”

To evaluate risk more accurately, the Stanford team used a model developed by the U.S. Forest Service (USFS). Unlike tools based solely on historical data, the USFS model incorporates climate conditions, vegetation, and topography to identify areas where severe wildfires are likely in the future. Overlaying utility service territories with USFS wildfire hazard maps allowed the team to visualize which utilities face the greatest threat.

Their analysis found that some IOUs with large portions of territory in potentially high-risk zones had made little or no progress on wildfire planning. The Stanford analysis framework also tracks whether utilities have implemented key mitigation elements, such as weather monitoring and programs to reduce harm to customers affected by planned shutoffs.

“The Forest Service maps helped us understand the wildfire hazards in these utilities’ territories, said report co-author Avery Bick, a data science fellow in the Environmental Natural Resources Law and Policy Program. “More open data on power lines would help to refine risk assessments even more.”

The white paper builds on ongoing CEPP work to assess and meet wildfire-related challenges facing U.S. utilities. A previous report reviewed wildfire risk exposure and mitigation planning for Western U.S. electric utilities as of the 2024 wildfire season. The researchers hope to continue to expand and refine their methodology.

 

Tradition meets AI as Leicester scientists help tackle Amazonian biodiversity crisis



Scientists led by University of Leicester will support traditional communities to monitor biodiversity in the Amazon




University of Leicester

Dr Ben Coles 

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Dr Ben Coles from the University of Leicester School of Geography, Geology and the Environment.

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Credit: University of Leicester




Traditional Amazonian communities will be using artificial intelligence to help scientists monitor biodiversity in the world’s largest tropical rainforest.

The scientists are developing an AI-driven digital toolkit to enable traditional Amazonian communities to monitor and maintain socio-biodiversity in the Amazon region, as well as facilitate their engagement with the bioeconomy.

The University of Leicester’s School of Geography, Geology and the Environment and Institute of Environmental Futures have launched a major new research initiative aimed at tackling the growing social-biodiversity and climate challenges facing the Amazon rainforest. Social biodiversity describes the importance of people, particularly traditional communities, to the maintenance of an ecosystem.

Led by Dr Ben Coles and bringing together an international and interdisciplinary team of researchers from Brazil and the UK, the £950,000 project is supported by UK Research and Innovation (UKRI) and is part the UKRI-CNPq Amazon+10 programme. It seeks to reshape how conservation and sustainable development are approached in one of the world’s most vital ecosystems.

Around 70 million people live in the Amazon region, with around 40% making their living in/through the forest and the rural environment. Traditional communities typically make their livings through forest resources, rather than cutting the forest for mechanised agriculture or ranching, and tend to have extremely intimate knowledges of their territories' flora and fauna, as well as knowledges of their 'work' as ecosystems.

Carried out in nine communities within three states in the Legal Amazon: Pará, Amazonas and Maranhão, researchers will collaborate with traditional Amazonian communities with the aim of developing an Artificial Intelligence (AI) platform that inventories traditional knowledges in these territories. The objectives for the project are to train communities in the digital and AI-monitoring of biodiversity in their territories; for this digital tool to record and scientifically validate traditional practices and knowledge of biodiversity and then to relate them to globally available scientific databases. The aim is to enable these communities to maintain control over their knowledge and consequently territories. As well as working closely with traditional communities, the project will involve NGOs and policy makers to ensure that outcomes support justice, equity, and long-term environmental stewardship.

The toolkit will enable traditional communities to track and monitor biodiversity by providing their own knowledges and understandings of flora and fauna, and ecosystem dynamics. The AI system underneath the toolkit will map this onto scientific databases and fed into conservation efforts. This catalogue of knowledge will enable these communities to engage with policymakers, as well as providing those communities with information to help them engage with the market for their work on their own terms.

Dr Coles will work with Professor Nirvia Ravena at Federal University of Para, and collaborators from nine other universities and institutions in Brazil, as part of the project, entitled ‘Participatory monitoring of traditional territories: digital platform for co-production of data on socio-biodiversity in Amazonian areas’.

As the Amazon faces unprecedented threats from deforestation, climate change, and political conflict, this project offers a timely and innovative approach to promoting resilience and transformation in the region.

Dr Ben Coles from the University of Leicester School of Geography, Geology and the Environment said: “The Amazon’s a big place. This exciting project is a crucial step towards understanding the region’s complex social and ecological dynamics on the ground.

“We’re not only studying social-biodiversity but hoping to enable traditional communities in the region to maintain control over their resources and territories, which are vital to region’s ecological as well as social sustainability. It's about making science more responsive and relevant to the people who live in, and depend on, the forest, as well as saving the Amazon for the future.”

  • The project is part of UKRI-CNPq Amazon+10 initiative to environmental challenges and will run until mid-2028.

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Photograph taken in the Amazon.

Photograph taken in the Amazon.

Credit

University of Leicester

About the University of Leicester  

The University of Leicester is the Daily Mail University of the Year 2025 and shortlisted for University of the Year for both the Times Higher Education Awards 2024 and the Times and Sunday Times Good University Guide 2025.

The University is led by discovery and innovation – an international centre for excellence renowned for research, teaching and broadening access to higher education. It is among the Top 30 universities in the Times Higher Education (THE)’s Research Excellence Framework (REF) 2021 rankings with 89% of research assessed as world-leading or internationally excellent, with wide-ranging impacts on society, health, culture, and the environment. In 2023, the University received an overall Gold in the Teaching Excellence Framework (TEF) 2023, making it one of a small number of institutions nationally to achieve TEF Gold alongside a top 30 REF performance. The University is home to more than 20,000 students and approximately 4,000 staff.

 

Summer solstice is an optimal day for plants — but climate change could disrupt this timing




University of British Columbia
Unfolding of new boxelder (Acer negundo) leaves in spring 

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Unfolding of new boxelder (Acer negundo) leaves in spring

 

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Credit: Credit: Christophe Rouleau-Desrochers





new study led by UBC researchers suggests that the summer solstice—the longest day of the year—may serve as a key cue for plant growth and reproduction. But in a changing climate, relying on this fixed signal may no longer help plants to survive or thrive.

“Plants are known to use temperature to time things like leaf growth and flowering,” says lead author Dr. Victor Van der Meersch, a postdoctoral researcher at UBC’s faculty of forestry. “This study shows that the solstice is an optimal growth period and could also be an important trigger for reproduction.”

Scientists have long known that plants use daylength to time important seasonal events. But only recently have they begun to explore whether the solstice itself — typically around June 21 in the Northern Hemisphere — plays a specific role.

The idea has gained traction as researchers examine how climate change is affecting the natural cues plants rely on.

The study highlights that at the local level, climate change affects different areas in different ways. In warmer southern regions, heat arrives before the solstice, making plants flower early. In cooler northern areas, it’s still too cold in June for plants to start reproducing.

While plants have evolved to use both temperature and daylength for growth, temperature may now be the more reliable signal, say the researchers. “That’s because it’s directly tied to the actual climate conditions plants are experiencing,” said Van der Meersch. “But it’s still unclear how temperature and daylength interact to shape plant responses.”

“Daylength doesn’t change from year to year. But with temperatures fluctuating more, plants may be having trouble adjusting to both signals,” says co-author Dr. Elizabeth Wolkovich, a plant ecologist and associate professor at UBC.

The costs of mistimed growth

When plants mistime key events — flowering too early or too late — it can have serious effects on ecosystems. Pollinators may arrive at fields only to find flowers have already come and gone. Crops like apples or cherries could bloom too early, only to be hit by a late frost, or ripen weeks before harvesters or markets are ready. Forests may miss their best growing window, reducing how much carbon they can absorb each year.

“These timing problems can affect food security and biodiversity. We need to understand the signals plants use for key events like flowering and fruit ripening,” added Dr. Wolkovich. “By tracking these signals, we can help ecosystems and agriculture adapt to climate change.”

Researchers are calling for better models to understand how plant growth affects the climate — to help farmers and land managers protect the resilience of ecosystems.

The study was published this week in Proceedings of the National Academy of Sciences (PNAS).

 

Cloud observations in the southern ocean pave the way to better climate models



Researchers conduct shipboard measurements over a period of four months to better understand cloud characteristics in the Southern Ocean


Research Organization of Information and Systems

Cloud Observations at the Antarctic Coast for Better Climate Models 

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Researchers conducted cloud observations in the Southern Ocean over the course of four months to better understand the frequency and climate effects of supercooled liquid water clouds.

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Credit: Professor Jun Inoue from the National Institute of Polar Research, Japan





Climate models are essential tools for understanding our planet’s future, helping scientists predict global warming patterns, sea level rise, and extreme weather events. These sophisticated computer simulations play a key role in raising awareness about climate change and informing crucial policy decisions. Thus, they can shape our response to environmental challenges over the coming decades.

However, the accuracy of a model’s predictions hinges on how well it can simulate the complex behavior of Earth’s atmosphere. Clouds, in particular, greatly influence Earth’s temperature by controlling how much solar radiation reaches the surface and how much heat escapes back to space. In polar regions, this balance becomes even more critical, as small changes in cloud properties can dramatically affect ice sheet melting and global sea levels. Currently, most climate models struggle with a fundamental challenge: They tend to overestimate the formation of ice clouds while underestimating supercooled liquid water (SLW) clouds in polar regions. Since ice clouds reflect less solar radiation than SLW clouds, this misrepresentation leads models to overestimate surface heating and causes a significant source of uncertainty in climate projections.

To address this critical gap, a research team including Professor Jun Inoue and Assistant Professor Kazutoshi Sato from the National Institute of Polar Research, Japan, conducted an extensive four-month study of cloud behavior over the Southern Ocean in Antarctica. Their findings, published online in Scientific Reports on May 28, 2025, provide much-needed observational evidence about SLW clouds that could revolutionize how climate models simulate polar weather systems.

To conduct their investigation, the team embarked on a research cruise aboard the research vessel Shirase, traversing the Southern Ocean over four months from December 2022 to March 2023. They equipped the ship with a lidar ceilometer and a microwave radiometer—advanced instruments capable of providing detailed information about cloud height, phase, and temperature. “The ceilometer can monitor the cloud phase at the cloud base, whereas the microwave radiometer can obtain the air temperature at the cloud base,” explains Prof. Inoue. “This enables an estimation of the relationship between the cloud-base temperature and the frequency of SLW cloud occurrence.”

Through meticulous observation and analysis, the researchers revealed a striking dominance of SLW clouds in the mid-troposphere, typically existing as thin layers less than 200 meters thick. Remarkably, these clouds constituted about 95% of the observed mid-level clouds, even when cloud-base temperatures dropped below −25 °C. Since these clouds are optically thick, they reflect a lot of incoming shortwave radiation from the sun. Interestingly, the team also showed that the inaccurate portrayal of these mid-tropospheric clouds at the altitude of phase transitions in the climate models results in an overestimation of net downward radiation reaching the surface.

Taken together, these findings challenge previous assumptions and provide valuable insights for accurately modelling the polar climate. “Our observational results provide ideas for improving existing models because they have difficulty reproducing SLW clouds instead of ice clouds,” noted Prof. Inoue. Worth noting, the team’s analysis of air mass movements revealed that persistent SLW clouds are primarily maintained by local atmospheric circulation during calm periods, making them crucial for understanding regional energy balance.

The results of this work have profound implications for climate science and global warming predictions. An improved representation of SLW clouds will help us resolve longstanding discrepancies in climate models, leading to more reliable projections of ice sheet melting, sea level rise, and regional climate changes that would ultimately affect billions of people worldwide. As climate scientists continue refining these essential tools for understanding our planet’s future, this piece of Antarctic research will serve as a stepping stone towards more accurate climate predictions.
 

Funding information

This study was supported by the Science Program of the Japanese Antarctic Research Expedition (JARE) as Prioritized Research Projects (AJ1005 and AJ1003), JSPS KAKENHI (grant numbers: JP23H00523 and JP24H02341), and the National Institute of Polar Research (NIPR) through research projects KP-402 and KC-401.

 

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About National Institute of Polar Research, Japan
The National Institute of Polar Research (NIPR) engages in comprehensive research via observation stations in Arctic and Antarctica as a member of the Research Organization of Information and Systems (ROIS). It provides researchers throughout Japan and other countries with infrastructure and support for polar observations and works actively to promote polar science. By working under the same frameworks as various international academic organizations, NIPR is the core Japanese representative institution operating in both poles, conducting cutting-edge research on polar ecosystems, polar climate science, geology, sustainability in polar regions, and more.
Website: https://www.nipr.ac.jp/english/index.html

About Professor Jun Inoue from the National Institute of Polar Research, Japan
Dr. Jun Inoue obtained his master’s and PhD degrees from Hokkaido University, Japan, in 1999 and 2001, respectively. He currently serves as a Professor at the National Institute of Polar Research. His research interests lie in the fields of atmospheric and hydrosphere science, particularly in the Arctic and Antarctic regions. He has published over 100 papers on these topics and has received awards from the Japan Meteorological Society on three occasions.

About the Research Organization of Information and Systems (ROIS)
ROIS is a parent organization of four national institutes (National Institute of Polar Research, National Institute of Informatics, the Institute of Statistical Mathematics and National Institute of Genetics) and the Joint Support-Center for Data Science Research. It is ROIS's mission to promote integrated, cutting-edge research that goes beyond the barriers of these institutions, in addition to facilitating their research activities, as members of inter-university research institutes.

Tangled humpback whale sparks rescue mission off Australia


By AFP
June 9, 2025


Image grab taken from video footage provided by whale rescue group Organisation for the Rescue and Research of Cetaceans in Australia (ORRCA) on June 9, 2025 shows a distressed humpback whale tangled in a rope swimming south of Sydney Harbou - Copyright AFP ANDREW CABALLERO-REYNOLDS

Wildlife rescue teams scoured Australia’s east coast on Monday to find and free a distressed humpback whale tangled in a rope.

Aerial footage showed the whale swimming south of Sydney Harbour trailing a rope attached to a floating buoy.

“It makes it more difficult for the whale to dive,” said Pip Jacobs from whale rescue group ORRCA.

“It’s tiring for the whale, which is already in a state of distress being tangled.”

The whale was about eight metres (25 feet) long, Jacobs said, indicating it was still “quite young”.

The rope appeared to be tangled around the whale’s left pectoral fin, she said.

“The way it is moving is quite erratic,” Jacobs told AFP.

“It’s moving south which is unusual.

“They should be heading north as part of their migration.”

Teams of volunteers and wildlife rescue experts were searching the coastline to pinpoint the whale’s location, she said.

But efforts had been hindered by choppy waters and blustery winds.

“If conditions allow and we have eyes on the whale, the best-case scenario is we have a successful disentanglement.

“If they are dragging gear it hinders their ability to swim freely. The worst-case scenario is the whale can’t feed or swim.”
China carefully assembling a deep-sea mining strategy

BAN DEEP SEA MINING & TRAWLING


By AFP
June 9, 2025


So-called polymetallic nodules like those seen in this 2016 photograph from Japan are at the heart of the race to mine ocean floors for valuable minerals and metals
 - Copyright JAMSTEC/AFP HO


Amelie Bottolier-Depois with Mary Yang in Beijing


In a world hungry for crucial resources, China may not be poised to start deep-sea mining but it is planting seeds for such operations in a meticulously planned economic and geopolitical strategy.

The world’s oceans, both international waters and those under national jurisdiction, are rich in minerals and metals, like cobalt, nickel and copper.

These are important for building electric car batteries, for instance, and other technologies as countries try to transition away from fossil fuels.

China “is an energy-thirsty country. It will look for resources everywhere,” including the deep sea, said Julia Xue of Shanghai Jiao Tong University.

But she said China is not particularly anxious over the issue, although recent developments — one company is itching to be the first to start mining the sea bed — may put more pressure on Beijing.

A Canadian firm, The Metals Company, has filed an application with the United States to begin undersea mining in international waters.

Using its American subsidiary, it acted after President Donald Trump, bypassing international negotiations, signed an executive order in April to speed up the permit-issuing process for such mining in US and international waters.

Trump cited an obscure 1980 US law that says American citizens can explore for and recover deep sea minerals in areas beyond the country’s jurisdiction.

Environmental groups are outraged by Trump’s order, arguing that a wild hunt for the potato-sized, metal-containing nodules could harm fragile undersea ecosystems.

The Canadian company initially said it would submit its request to the International Seabed Authority (ISA), a body which has jurisdiction over the ocean floor in international waters.

The Metals Company says it ignored this authority because of its slow pace in talks on adopting a mining code that establishes rules for exploiting seabed resources. The United States is not an ISA member.

A long-time observer of those talks who spoke on condition of anonymity said China is not particularly worried about who starts mining first.

“For them it’s more about dominance, staying competitive in the game, and giving the impression that you can’t mess with us,” the observer said.

With that goal in mind “they’re definitely developing the technology and putting the strategic agreements in place,” Alex Gilbert, a researcher at the Payne Institute for Public Policy at Colorado School of Mines, told AFP.

For instance, China has reached an agreement with the Cook Islands to explore for minerals in that Pacific country’s waters.

Another tiny Pacific nation, Kiribati, also says it is exploring a deep-sea mining partnership with China.

This approach is “more geopolitical than economic,” said Emmanuel Hache of the French Institute for International and Strategic Affairs, noting Beijing is using undersea mining as a lure to cement greater diplomatic support as it exerts power.

China holds five contracts handed out by the ISA to look for resources in the Pacific and Indian Ocean sea beds and these contracts cover all types of undersea mineral resources. China’s is the largest number of the 22 contracts the organization has granted.

– Years behind –

“From a research perspective, we have been continuously getting closer. And from a technical perspective, we have been continuously improving,” said Chen Xuguang, a researcher at Ocean University of China.

In 2024 a Chinese prototype deep-sea mining vehicle called Pioneer II, developed by Shanghai Jiao Tong University, set a national record by operating at a depth of more than 4,000 meters (13,100 feet).

State-owned Beijing Pioneer Hi-Tech Development Corporation told AFP that later this year it plans a seabed nodule collection test.

Still, China is not as advanced technologically as The Metals Company, experts say.

“I would characterize China as being two to four years behind them in terms of their technology,” said Gilbert in Colorado.

Hache, the French expert, put the gap at five years.

But China has an advantage over firms like the Canadian one in recovering and processing nodules: its companies are supported by the state and China has infrastructure for processing metals.

The observer of the international seabed talks said China does not need seabed mining for metal supply, “but maybe geopolitically, in the context of maintaining their control over the commodities market.”

China wants to keep its options open, this person said.

And while it supports an international mining code, China does not need one now and “they’re not going to put pressure until they’ve decided strategically that they’re ready,” said Gilbert.

IRONY

Gifts from the sea: Molecules derived from coral may help fight harmful bacteria




Ben-Gurion University of the Negev





BEER-SHEVA, Israel, June 10, 2025 – Pus, strep throat, and even tuberculosis—most infectious diseases are characterized by a cluster of pathogenic bacteria that can be stubborn and resistant to antibiotics. Researchers from Ben-Gurion University of the Negev have found another method to combat these bacteria using naturally sourced molecules found in corals. The research findings were published in the journal BMC Biology (https://doi.org/10.1186/s12915-025-02234-7last month.

Groups of bacteria in a fixed location recognize each other through communication based on chemical molecules. Based on this communication method, called 'quorum sensing,' a research group led by Prof. Ariel Kushmaro, with Dr. Karina Golberg from the Environmental Biotechnology Lab in the Avram and Stella Goldstein-Goren Department of Biotechnology Engineering at Ben-Gurion University of the Negev, turned to nature and asked: Can these communication properties be used to inhibit harmful bacteria?

Biofilm is a "glue-like" layer characterized by a high concentration of bacteria that can communicate with each other, thereby creating protection from the environment, including antibiotics and the immune system. To try and "break" this defense, over 120 bacteria living on corals near the Interuniversity Institute for Marine Sciences in Eilat were collected and isolated. After laboratory tests, the researchers successfully found chemical molecules from the bisindole (BISINDOLE) group in the bacteria that alter the properties of harmful bacteria and their ability to form biofilms.

"The bacteria we found on corals secrete these molecules, which selectively target the virulence of harmful bacteria," says Dr. Golberg. "The molecules found are unique in that they weaken the ability of resistant bacteria to cause harm without killing them. The molecules disrupt properties controlled by bacterial communication, thereby helping prevent these bacteria from producing antibiotic-resistant biofilm. In addition, the molecules reduce the toxicity of these bacteria, their virulent properties, and even make antibiotics (such as tobramycin) work better, ultimately killing the bacteria even when they form a biofilm."

The study examined four pathogenic bacterial strains known for their high antibiotic resistance and their ability to cause severe infections, mainly in hospitals. The research itself focused on two main bacteria—Pseudomonas aeruginosa and Acinetobacter baumannii—which received special attention due to their high lethality and direct link to chronic infections in the lungs and bloodstream. The combination of bisindole molecules with the bacteria significantly reduced the virulence of the bacteria, and in combination with antibiotics (tobramycin), it was found that one of the molecules increased antibiotic penetration into the biofilm, allowing for more effective killing of the bacteria.

"The central innovation of the study is the development of a new treatment strategy for pathogenic bacteria that allows for the modification of the bacteria's virulent properties without killing them. Until now, treatments using antibiotics cause the death of bacteria and/or an increase in antibiotic resistance and can also harm beneficial bacteria that are part of the human microbiome," explained Prof. Kushmaro.

The research results present an innovative approach where the combination of natural substances that disrupt chemical communication in bacteria can help us tackle antibiotic-resistant bacteria. The research advances us one step further towards the development of new and effective drugs that can act without harming essential bacteria.

The research group included: Karina Golberg, Bat-El Kagan, Marilou Shagan, Netta Shemesh, Esti Kramarsky-Winter, Anat Ben-Zvi, Yaffa Mizrahi Nebenzahl z"l, Robert S. Marks, Ariel Kushmaro from Ben-Gurion University of the Negev, and Kamal Elouarzaki from the School of Materials Science and Engineering at Nanyang Technological University, Singapore.

This work was supported by the National Institute of Biotechnology in the Negev (NIBN), with financial support under grant number 8528620 “Bioactive compounds.”

Dr. Karina Golberg's photo. Photo credit: Dani Machlis, Ben-Gurion University of the Negev: https://mediagraph.io/shares/2c70397bfedaa040-

Link to a photo of the research process from coral/corals, through bacteria isolation and identification of new molecules: https://mediagraph.io/shares/e87a877c50e4a260

Permission to use these images without compensation is granted for this news item only.