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  • Infinix Hot 60i debuts with 120 Hz display and Helio G81 Ultimate chipset

    Infinix Hot 60i debuts with 120 Hz display and Helio G81 Ultimate chipset

    Infinix has unveiled a new affordable smartphone in the Hot 60 series, the Infinix Hot 60i. The company’s new entry-level smartphone brings a decent set of features for the price. A direct successor to last year’s Hot 50i comes with a single 50 MP camera on the back that supports 1080p 30 fps video recording. Plus, you’ll find an 8 MP selfie shooter on the front. 

    The smartphone retains same display specs from its predecessor, boasting a 6.7-inch IPS LCD display that outputs at 1600 x 720 pixels with a refresh rate of 120 Hz and a peak brightness of 700 nits. This time around, Infinix has used a slightly upgraded version of the Helio G81 in the smartphone, a similar processor found in the last-generation model. The Infinix Hot 60i is powered by the MediaTek Helio G81 Ultimate chipset. 

    Furthermore, it packs 4/6/8 GB of LPDDR4X RAM and 128/256 GB eMMC 5.1 internal storage, which is further expandable up to 1 TB. The battery capacity of the smartphone is now slightly bigger than before. A 5,160 mAh battery (up from 5,000 mAh of the Hot 50i) powers the internals and now supports 45 W wired charging, a step up from just 18 W on the 50i. 

    Dimensionally, the phone now comes in a slimmer profile compared to its predecessor, measuring just 7.7 mm (0.30 inch) in thickness and weighing around 188 grams (0.41 lbs). Other features include IP64 water and dust resistance, a 3.5 mm headphone jack, Wi-Fi 5, an IR blaster, XOS 15-based Android 15 OS, and up to 8 GB of extended RAM. 

    Available in six colorways, including sleek black, titanium silver, shadow blue, neon red, meadow green, and soul eye purple, the Infinix Hot 60i starts at BDT 14,000 (€98/$115) for the 6 GB + 128 GB model. While the 8 GB + 256 GB model is priced at BDT 16,500 (€115/$135). It’s now available via Infinix’ official website.

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  • This sun-powered sponge pulls drinking water straight from the ocean

    This sun-powered sponge pulls drinking water straight from the ocean

    Most of Earth’s water is in the oceans and too salty to drink. Desalination plants can make seawater drinkable, but they require large amounts of energy. Now, researchers reporting in ACS Energy Letters have developed a sponge-like material with long, microscopic air pockets that uses sunlight and a simple plastic cover to turn saltwater into freshwater. A proof-of-concept test outdoors successfully produced potable water in natural sunlight in a step toward low-energy, sustainable desalination.

    This isn’t the first time scientists have created spongy materials that use sunlight as a sustainable energy source for cleaning or desalinating water. For example, a loofah-inspired hydrogel with polymers inside its pores was tested on chromium-contaminated water and, when heated by the sun, the hydrogel quickly released a collectible, clean water vapor through evaporation. But while hydrogels are squishy and liquid-filled, aerogels are more rigid, containing solid pores that can transport liquid water or water vapor. Aerogels have been tested as a means of desalination, but they are limited by their evaporation performance, which declines as the size of the material increases. So, Xi Shen and colleagues wanted to design a porous desalination aerogel that maintained its efficiency at different sizes.

    The researchers made a paste containing carbon nanotubes and cellulose nanofibers and then 3D-printed it onto a frozen surface, allowing each layer to solidify before the next was added. This process formed a sponge-like material with evenly distributed tiny vertical holes, each around 20 micrometers wide. They tested square pieces of the material, ranging in size from 0.4 inches wide (1 centimeter) to about 3 inches wide (8 centimeters), and found that the larger pieces released water through evaporation at rates as efficient as the smaller ones.

    In an outdoor test, the researchers placed the material in a cup containing seawater, and it was covered by a curved, transparent plastic cover. Sunlight heated the top of the spongy material, evaporating just the water, not the salt, into water vapor. The vapor collected on the plastic cover as liquid, moving the now clean water to the edges, where it dripped into a funnel and container below the cup. After 6 hours in natural sunlight, the system generated about 3 tablespoons of potable water.

    “Our aerogel allows full-capacity desalination at any size,” Shen says, “which provides a simple, scalable solution for energy-free desalination to produce clean water.”

    The authors acknowledge funding from the National Natural Science Foundation of China, the Research Grants Council of Hong Kong SAR, the Environment and Conservation Fund of Hong Kong SAR, and the Hong Kong Polytechnic University.

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  • This Model Beats Docs at Predicting Sudden Cardiac Arrest

    This Model Beats Docs at Predicting Sudden Cardiac Arrest

    An artificial intelligence (AI) model has performed dramatically better than doctors using the latest clinical guidelines to predict the risk for sudden cardiac arrest in people with hypertrophic cardiomyopathy.

    The model, called Multimodal AI for ventricular Arrhythmia Risk Stratification (MAARS), is described in a paper published online on July 2 in Nature Cardiovascular Research. It predicts patients’ risk by analyzing a variety of medical data and records such as echocardiogram and radiology reports, as well as all the information contained in contrast-enhanced MRI (CMR) images of the patient’s heart.

    Natalia Trayanova, PhD, director of the Alliance for Cardiovascular Diagnostic and Treatment Innovation at Johns Hopkins University in Baltimore, led the development of the model. She said that while hypertrophic cardiomyopathy is one of the most common inherited heart diseases, affecting 1 in every 200-500 individuals worldwide, and is a leading cause of sudden cardiac death in young people and athletes, an individual’s risk for cardiac arrest remains difficult to predict.

    Current clinical guidelines from the American Heart Association and American College of Cardiology, and those from the European Society of Cardiology, identify the patients who go on to experience cardiac arrest in about half of cases.

    “The clinical guidelines are extremely inaccurate, little better than throwing dice,” Trayanova, who is also the Murray B. Sachs Professor in the Department of Biomedical Engineering at Johns Hopkins, told Medscape Medical News.

    Compared to the guidelines, MAARS was nearly twice as sensitive, achieving 89% accuracy across all patients and 93% accuracy for those 40-60 years old, the group of people with hypertrophic cardiomyopathy most at risk for sudden cardiac death.

    Building a Model

    MAARS was trained on data from 553 patients in The Johns Hopkins Hospital, Baltimore, hypertrophic cardiomyopathy registry. The researchers then tested the algorithm on an independent external cohort of 286 patients from the Sanger Heart & Vascular Institute hypertrophic cardiomyopathy registry in Charlotte, North Carolina.

    The model uses all of the data available from these patients, drawing on electronic health records, ECG readings, reports from radiologists and imaging technicians, and raw data from CMR.

    “All these different channels are fed into this multimodal AI predictor, which fuses it together and comes up with the risk for these particular patients,” Trayanova said.

    The inclusion of CMR data is particularly important, she said, because the imaging test can identify areas of scarring on the heart that characterize hypertrophic cardiomyopathy. But clinicians have yet to be able to make much use of those images because linking the fairly random patterns of scar tissue to clinical outcomes has been a challenge.

    But that is just the sort of task that deep neural networks  are particularly well-suited to tackle. “They can recognize patterns in the data that humans miss, then analyze and combine them with the other inputs into a single prediction,” Trayanova said.

    Clinical Benefits

    Better predictions of the risk for serious adverse outcomes will help improve care, by ensuring people get the right treatments to reduce their risk, and avoid the ones that are unnecessary, Trayanova said  The best way to protect against sudden cardiac arrest is with an implantable defibrillator — but the procedure carries potential risks that are best avoided unless truly needed.

    “More accurate risk prediction means fewer patients might undergo unnecessary ICD implantation, which carries risks such as infections, device malfunction, and inappropriate shocks,” said Antonis Armoundas, PhD, from the Cardiovascular Research Center at Massachusetts General Hospital in Boston.

    The model could also help personalize treatment for patients with hypertrophic cardiomyopathy, Trayanova said. “It’s able to drill down into each patient and predict which parameters are the most important to help influence the management of the condition,” she said.

    Robert Avram, MD, MSc, a cardiologist at the Montreal Heart Institute, Montreal, Quebec, Canada, said the results are encouraging. “I’m especially interested in how a tool like this could streamline risk stratification and ultimately improve patient outcomes,” he said.

    But it is not yet ready for widespread use in the clinic. “Before it can be adopted in routine care, however, we’ll need rigorous external validation across diverse institutions, harmonized variable definitions, and unified extraction pipelines for each modality, along with clear regulatory and workflow-integration strategies,” Avram said.

    Armoundas said he would like to see the model tested on larger sample sizes, with greater diversity in healthcare settings, geographical regions, and demographics, as well as prospective, randomized studies and comparisons against other AI predictive models.

    “Further validation in larger cohorts and assessment over longer follow-up periods are necessary for its full clinical integration,” he said.

    Armoundas, Avram, and Trayanova reported having no relevant financial conflicts of interest.

    Brian Owens is a freelance journalist based in New Brunswick, Canada.

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  • Australian man dies from ‘extremely rare’ bat bite virus

    Australian man dies from ‘extremely rare’ bat bite virus

    SYDNEY – An Australian man has died from an “extremely rare” rabies-like infection transmitted by a bat bite, health officials said on July 3.

    The man in his 50s was bitten by a bat carrying Australian bat lyssavirus several months ago, the health service in New South Wales said.

    “We express our sincere condolences to the man’s family and friends for their tragic loss,” NSW Health said in a statement.

    “While it is extremely rare to see a case of Australian bat lyssavirus, there is no effective treatment for it.”

    The man from northern New South Wales, who has not been identified, was this week listed as being in a “critical condition” in hospital.

    Officials said he was treated following the bite and they were investigating to see whether other exposures or factors played a role in his illness.

    The virus – a close relative to rabies, which does not exist in Australia – is transmitted when bat saliva enters the human body through a bite or scratch.

    First symptoms can take days or years to appear.

    Early signs of the disease are flu-like – a headache, fever and fatigue, the health service said.

    The victim’s condition rapidly deteriorates, leading to paralysis, delirium, convulsions and death.

    There were only three previous cases of human infection by Australian bat lyssavirus since it was first identified in 1996 – all of them fatal.

    People should avoid touching or handling bats, as any bat in Australia could carry lyssavirus, the New South Wales health service said.

    Only wildlife handlers who are trained, protected, and vaccinated should interact with the flying mammals, it warned.

    “If you or someone you know is bitten or scratched by a bat, you need to wash the wound thoroughly for 15 minutes right away with soap and water and apply an antiseptic with anti-virus action,” it said.

    “Patients then require treatment with rabies immunoglobulin and rabies vaccine.”

    The virus has been found in species of flying foxes and insect-eating microbats, NSW Health said.

    The species of bat involved in the latest fatality has not been identified.

    “Australian bat lyssavirus is very closely related to rabies and will cause death in susceptible people if they become infected and are not treated quickly,” said Professor James Gilkerson, infectious diseases expert at the University of Melbourne.

    Australian bat lyssavirus was first identified in May 1996 by scientists at the national science agency Csiro, who examined brain tissue from a flying fox that had been showing “nervous signs” in New South Wales.

    Later that year, a bat handler in Queensland became ill.

    “The initial numbness and weakness suffered in her arm progressed to coma and death,” the science agency said in an online document on the virus.

    “Two further cases in Queensland – a woman in 1998 and an eight year old boy in 2013 – resulted in death after being bitten or scratched by a bat,” it said.

    There are subtle differences between the lysssavirus in flying foxes and insectivorous bats, the science agency has found.

    Infected bats can transmit the virus to people, other bats and other mammals. AFP

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  • Company’s carbon credits raise questions about unproven ocean technology to fight global warming

    Company’s carbon credits raise questions about unproven ocean technology to fight global warming

    The startup Gigablue announced with fanfare this year that it reached a historic milestone: selling 200,000 carbon credits to fund what it describes as a groundbreaking technology in the fight against climate change.

    Formed three years ago by a group of entrepreneurs in Israel, the company says it has designed particles that when released in the ocean will trap carbon at the bottom of the sea. By “harnessing the power of nature,” Gigablue says, its work will do nothing less than save the planet.

    But outside scientists frustrated by the lack of information released by the company say serious questions remain about whether Gigablue’s technology works as the company describes. Their questions showcase tensions in an industry built on little regulation and big promises — and a tantalizing chance to profit.

    Jimmy Pallas, an event organizer based in Italy, struck a deal with Gigablue last year. He said he trusts the company does what it has promised him — ensuring the transportation, meals, and electricity of a recent 1,000-person event will be offset by particles in the ocean.

    Gigablue’s service is like “an extra trash can” where Pallas can discard his unwanted emissions, he said.

    “Same way I use my trash can — I don’t follow where the truck that comes and picks up my trash brings it to,” he said. “I’ll take their word for it.”

    Gigablue has a grand vision for the future of carbon removal. It was originally named “Gigaton” after the one billion metric tons of carbon dioxide most scientists say will be necessary to remove from the atmosphere each year to slow global warming.

    The company began trials in the South Pacific Ocean last year, and says it will work with country authorities to create a “sequestration field” — a dedicated part of the ocean where “pulses” of particles will be released on a seasonal basis.

    Gigablue says its solution is affordable, too — priced to attract investors.

    “Every time we go to the ocean, we generate hundreds of thousands of carbon credits, and this is what we’re going to do continuously over the upcoming years and towards the future, in greater and greater quantities,” co-founder Ori Shaashua said.

    Carbon credits, which have grown in popularity over the last decade, are tokens that symbolize the removal of one metric ton of carbon dioxide from the atmosphere. On paper, companies that buy credits achieve a smaller carbon footprint without needing to reduce their own emissions — for instance, by paying another vendor to plant trees or capture carbon dioxide from the air.

    Only a few countries have required local industries to purchase carbon credits. Most companies that buy them, including Microsoft and Google, do so voluntarily.

    The credits have helped fund a band of startups like Gigablue that are eager to tackle the climate crisis, but they are also unevenly regulated, scientifically complex, and have in some cases been linked to fraud.

    Gigablue’s 200,000 credits are pledged to SkiesFifty, a newly formed company investing in greener practices for the aviation industry. It’s the largest sale to date for a climate startup operating in the ocean, according to the tracking site CDR.fyi, making up more than half of all ocean-based carbon credits sold last year.

    And it could beckon a rapid acceleration of the company’s work. Gigablue hopes to reach a goal this year of capturing 10 metric tons of carbon dioxide for each ton of particles it deploys, Shaashua said. At that rate, Gigablue would disperse at least 20,000 tons of particles in the ocean.

    Gigablue wouldn’t reveal what it earned in the sale, and SkiesFifty’s team declined to be interviewed for this story. Most credits are sold for a few hundred dollars each — but a chart on Gigablue’s website suggests its prices are lower than almost any other form of carbon capture on the market.

    The startup is the brainchild of four entrepreneurs hailing from the tech industry. According to their LinkedIn profiles, Gigablue’s CEO previously worked for an online grocery startup, while its COO was vice president of SeeTree, a company that raised $60 million to provide farmers with information on their trees.

    Shaashua, who often serves as the face of Gigablue, said he specializes in using artificial intelligence to pursue positive outcomes in the world. He co-founded a data mining company that tracked exposure risks during the COVID-19 pandemic, and led an auto startup that brokered data on car mileage and traffic patterns.

    “Three years ago, I decided to take the same formula, so to say, to climate,” Shaashua said.

    Under his guidance, he said, Gigablue created an AI-driven “digital twin” of the ocean based on dozens of metrics to determine where to release the particles.

    Chief technology officer Sapir Markus-Alford earned a bachelor’s degree in earth and environmental sciences from Israel’s Ben-Gurion University in 2021, shortly before founding Gigablue.

    Markus-Alford said she began her studies and eventual path to Gigablue after seeing bleached coral reefs and other impacts of warming waters on a series of diving trips around the world.

    “I understood that the best thing we could do for the ocean is to be able to remove CO2,” Markus-Alford said.

    A spokesperson for Gigablue did not answer whether the other co-founders have graduate degrees in oceanography or environmental science, but said the company’s broader team holds a total of 46 Ph.D.s with expertise in biology, chemistry, oceanography, and environmental science. Markus-Alford said that figure includes outside experts and academics and “everyone that supports us.”

    The company’s staffing has expanded from Israel to hubs in New York and New Zealand, Shaashua said.

    In social media posts advertising open jobs, Gigablue employees encouraged applicants to “Join Our Mission to Save the World!”

    The particles Gigablue has patented are meant to capture carbon in the ocean by floating for a number of days and growing algae, before sinking rapidly to the ocean floor.

    “We are an elevator for carbon,” Shaashua said. “We are exporting the carbon from the top to the bottom.”

    Algae — sometimes referred to as phytoplankton — has long been attractive to climate scientists because it absorbs carbon dioxide from the surrounding water as it grows. If the algae sinks to the deep sea or ocean floor, Gigablue expects the carbon to be trapped there for hundreds to thousands of years.

    The ultimate goal is to lower carbon dioxide levels so drastically that the ocean rebalances with the atmosphere by soaking up more CO2 from the air. It’s a feat that would help slow climate change, but one that is still under active study by climate scientists.

    Gigablue’s founders have said the company’s work is inspired by nature and “very, very environmentally safe.” The company’s particles and sinking methods simply recreate what nature has been doing “since forever,” Shaashua said.

    Gigablue ran its first trial sinking particles in the Mediterranean in March last year.

    Later, on two voyages to the South Pacific, the company released 60 cubic meters — about two shipping containers — of particles off the coast of New Zealand.

    While Gigablue has made several commercial deals, it has not yet revealed what its particles are made of. Partly this is because the company says it will build different particles tailored to different seasons and areas of the ocean.

    “It’s proprietary,” Markus-Alford said.

    Documents provide a window into the possible ingredients. According to information on the permit, Gigablue’s first New Zealand trial last year involved releasing particles of pure vermiculite, a porous clay often used in potting soil.

    In the second New Zealand trial, the company released particles made of vermiculite, ground rock, a plant-based wax, as well as manganese and iron.

    A patent published last year hints the particles could also be made of scores of other materials, including cotton, rice husks or jute, as well as synthetic ingredients like polyester fibers or lint. The particles contain a range of possible binding agents, and up to 18 different chemicals and metals, from iron to nickel to vanadium.

    Without specifying future designs, Markus-Alford said Gigablue’s particles meet certain requirements: “All the materials we use are materials that are natural, nontoxic, nonhazardous, and can be found in the ocean,” she said. She wouldn’t comment on the possible use of cotton or rice, but said the particles won’t include any kind of plastic.

    When asked about vermiculite, which is typically mined on land and heated to expand, Markus-Alford said rivers and erosion transport most materials including vermiculite to the ocean. “Almost everything, basically, that exists on land can be found in the ocean,” she said.

    The company said it had commissioned an environmental institute to verify that the particles are safe for thousands of organisms, including mussels and oysters. Any materials in future particles, Gigablue said, will be approved by local authorities.

    Shaashua has said the particles are so benign that they have zero impact on the ocean.

    “We are not changing the water chemistry or the water biology,” Shaashua said.

    Ken Buesseler, a senior scientist with the Woods Hole Oceanographic Institution who has spent decades studying the biological carbon cycle of the ocean, says that while he’s intrigued by Gigablue’s proposal, the idea that the particles don’t alter the ocean is “almost inconceivable.”

    “There has to be a relationship between what they’re putting in the ocean and the carbon dioxide that’s dissolved in seawater for this to, quote, work,” Buesseler said.

    Buesseler co-leads a nonprofit group of scientists hoping to tap the power of algae in the ocean to capture carbon. The group organizes regular forums on the subject, and Gigablue presented in April.

    “I left with more questions than answers,” Buesseler said.

    Several scientists not affiliated with Gigablue interviewed by The Associated Press said they were interested in how a company with so little public information about its technology could secure a deal for 200,000 carbon credits.

    The success of the company’s method, they said, will depend on how much algae grows on the particles, and the amount that sinks to the deep ocean. So far, Gigablue has not released any studies demonstrating those rates.

    Thomas Kiørboe, a professor of ocean ecology at the Technical University of Denmark, and Philip Boyd, an oceanographer at the University of Tasmania who studies the role of algae in the Earth’s carbon cycle, said they were doubtful algae would get enough sunlight to grow inside the particles.

    It’s more likely the particles would attract hungry bacteria, Kiørboe said.

    “Typical phytoplankton do not grow on surfaces, and they do not colonize particles,” Kiørboe said. “To most phytoplankton ecologists, this would just be, I think, absurd.”

    The rates at which Gigablue says its particles sink — up to a hundred meters (yards) per hour — might shear off algae from the particles in the quick descent, Boyd said.

    It’s likely that some particles would also be eaten by fish — limiting the carbon capture, and raising the question of how the particles could impact marine life.

    Boyd is eager to see field results showing algae growth, and wants to see proof that Gigablue’s particles cause the ocean to absorb more CO2 from the air.

    “These are incredibly challenging issues that I don’t think, certainly for the biological part, I don’t think anyone on the planet has got solutions for them,” he said.

    James Kerry, a senior marine and climate scientist for the conservation group OceanCare and senior research fellow at Australia’s James Cook University, has closely followed Gigablue’s work.

    “What we’ve got is a situation of a company, a startup, upfront selling large quantities of credits for a technology that is unproven,” he said.

    In a statement, Gigablue said that bacteria does consume the particles but the effect is minimal, and its measurements will account for any loss of algae or particles as they sink.

    The company noted that a major science institute in New Zealand has given Gigablue its stamp of approval. Gigablue hired the National Institute of Water and Atmospheric Research, a government-owned company, to review several drafts of its methodology.

    In a recent letter posted to Gigablue’s website, the institute’s chief ocean scientist said his staff had confidence the company’s work is “scientifically sound” and the proposed measurements for carbon sequestration were robust.

    Whether Gigablue’s methods are deemed successful, for now, will be determined not by regulators — but by another private company.

    Puro.earth is one of several companies known as registries that serve the carbon credit market.

    Amid the lack of regulation and the potential for climate startups to overstate their impact, registries aim to verify how much carbon was really removed.

    The Finnish Puro.earth has verified more than a million carbon credits since its founding seven years ago. But most of those credits originated in land-based climate projects. Only recently has it aimed to set standards for the ocean.

    In part, that’s because marine carbon credits are some of the newest to be traded. Dozens of ocean startups have entered the industry, with credit sales catapulting from 2,000 in 2021 to more than 340,000, including Gigablue’s deal, last year.

    But the ocean remains a hostile and expensive place in which to operate a business or monitor research. Some ocean startups have sold credits only to fold before they could complete their work. Running Tide, a Maine-based startup aimed at removing carbon from the atmosphere by sinking wood chips and seaweed, abruptly shuttered last year despite the backing of $50 million from investors, leaving sales of about 7,000 carbon credits unfulfilled.

    In June, Puro.earth published a draft methodology that will be used to verify Gigablue’s work, which it designed in consultation with Gigablue. Once finalized, Gigablue will pay the registry for each metric ton of carbon dioxide that it claims to remove.

    Marianne Tikkanen, head of standards at Puro.earth, said that although this methodology was designed with Gigablue, her team expects other startups to adopt the same approach.

    “We hope that there will be many who can do it and that it stimulates the market,” she said.

    It remains to be seen whether New Zealand officials will grant permission for the expanded “sequestration field” that Gigablue has proposed creating, or if the company will look to other countries.

    New Zealand’s environmental authority has so far treated Gigablue’s work as research — a designation that requires no formal review process or consultations with the public. The agency said in a statement that it could not comment on how it would handle a future commercial application from Gigablue.

    But like many climate startups, Gigablue was involved in selling carbon credits during its research expeditions — not only inking a major deal, but smaller agreements, too.

    Pallas, the Italian businessman, said he ordered 22 carbon credits from Gigablue last year to offset the emissions associated with his event in November. He said Gigablue gave them to him for free — but says he will pay for more in the future.

    Pallas sought out carbon credits because he sees the signs of climate change all around him, he says, and expects more requirements in Italy for businesses to decarbonize in coming years. He chose Gigablue because they are one of the largest suppliers: “They’ve got quantity,” he said.

    How authorities view Gigablue’s growing commercial activity could matter in the context of an international treaty that has banned certain climate operations in the ocean.

    More than a decade ago, dozens of countries including New Zealand agreed they should not allow any commercial climate endeavor that involves releasing iron in the ocean, a technique known as “iron fertilization.” Only research, they said, with no prospect of economic gain should be allowed.

    Iron is considered a key ingredient for spurring algae growth and was embedded in the particles that Gigablue dispersed in October in the Pacific Ocean. Several scientific papers have raised concerns that spurring iron-fueled algae blooms on a large scale would deplete important nutrients in the ocean and harm fisheries.

    The startup denies any link to iron dumping on the basis that its particles don’t release iron directly into the water and don’t create an uncontrolled algae bloom.

    “We are not fertilizing the ocean,” Markus-Alford said.

    “In fact, we looked at iron fertilization as an inspiration of something to avoid,” Shaashua said.

    But the draft methodology that Puro.earth will use to verify Gigablue’s work notes many of the same concerns that have been raised about iron fertilization, including disruptions to the marine food web.

    Other scientists who spoke with AP see a clear link between Gigablue’s work and the controversial practice. “If they’re using iron to stimulate phytoplankton growth,” said Kerry, the OceanCare scientist, “then it is iron fertilization.”

    For now, scientific concerns don’t seem to have troubled Gigablue’s buyers. The company has already planned its next research expedition in New Zealand and hopes to release more particles this fall.

    “They mean well, and so do I,” said Pallas, of his support for Gigablue. “Sooner or later, I’ll catch a plane, go to New Zealand, and grab a boat to see what they’ve done.”

    This story was supported by funding from the Walton Family Foundation. The AP is solely responsible for all content.

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    Contact AP’s global investigative team at Investigative@ap.org or https://www.ap.org/tips/

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  • Tom Lee Park / SCAPE + Studio Gang

    Tom Lee Park / SCAPE + Studio Gang

    Tom Lee Park / SCAPE + Studio Gang - Image 2 of 17Tom Lee Park / SCAPE + Studio Gang - Image 3 of 17Tom Lee Park / SCAPE + Studio Gang - Exterior Photography, Wood, ConcreteTom Lee Park / SCAPE + Studio Gang - Exterior PhotographyTom Lee Park / SCAPE + Studio Gang - More Images+ 12