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Tag: Meteorology

  • Meteorites reveal likely origin of Earth’s volatile chemicals

    Meteorites reveal likely origin of Earth’s volatile chemicals

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    Newswise — By analysing meteorites, Imperial researchers have uncovered the likely far-flung origin of Earth’s volatile chemicals, some of which form the building blocks of life. 

    They found that around half the Earth’s inventory of the volatile element zinc came from asteroids originating in the outer Solar System – the part beyond the asteroid belt that includes the planets Jupiter, Saturn, and Uranus. This material is also expected to have supplied other important volatiles such as water. 

    Volatiles are elements or compounds that change from solid or liquid state into vapour at relatively low temperatures. They include the six most common elements found in living organisms, as well as water. As such, the addition of this material will have been important for the emergence of life on Earth. 

    Prior to this, researchers thought that most of Earth’s volatiles came from asteroids that formed closer to the Earth. The findings reveal important clues about how Earth came to harbour the special conditions needed to sustain life. 

    Senior author Professor Mark Rehkämper, of Imperial College London’s Department of Earth Science and Engineering, said: “Our data show that about half of Earth’s zinc inventory was delivered by material from the outer Solar System, beyond the orbit of Jupiter. Based on current models of early Solar System development, this was completely unexpected.” 

    Previous research suggested that the Earth formed almost exclusively from inner Solar System material, which researchers inferred was the predominant source of Earth’s volatile chemicals. In contrast, the new findings suggest the outer Solar System played a bigger role than previously thought. 

    Professor Rehkämper added: “This contribution of outer Solar System material played a vital role in establishing the Earth’s inventory of volatile chemicals. It looks as though without the contribution of outer Solar System material, the Earth would have a much lower amount of volatiles than we know it today – making it drier and potentially unable to nourish and sustain life.” 

    The findings are published today in Science

    To carry out the study, the researchers examined 18 meteorites of varying origins – eleven from the inner Solar System, known as non-carbonaceous meteorites, and seven from the outer Solar System, known as carbonaceous meteorites.  

    For each meteorite they measured the relative abundances of the five different forms – or isotopes – of zinc. They then compared each isotopic fingerprint with Earth samples to estimate how much each of these materials contributed to the Earth’s zinc inventory. The results suggest that while the Earth only incorporated about ten per cent of its mass from carbonaceous bodies, this material supplied about half of Earth’s zinc. 

    The researchers say that material with a high concentration of zinc and other volatile constituents is also likely to be relatively abundant in water, giving clues about the origin of Earth’s water. 

    First author on the paper Rayssa Martins, PhD candidate at the Department of Earth Science and Engineering, said: “We’ve long known that some carbonaceous material was added to the Earth, but our findings suggest that this material played a key role in establishing our budget of volatile elements, some of which are essential for life to flourish.” 

    Next the researchers will analyse rocks from Mars, which harboured water 4.1 to 3 billion years ago before drying up, and the Moon. Professor Rehkämper said: “The widely held theory is that the Moon formed when a huge asteroid smashed into an embryonic Earth about 4.5 billion years ago. Analysing zinc isotopes in moon rocks will help us to test this hypothesis and determine whether the colliding asteroid played an important part in delivering volatiles, including water, to the Earth.” 

    This work was funded by the Science and Technology Facilities Council (STFC – part of UKRI) and Rayssa Martins is funded by an Imperial College London Presidents’ PhD Scholarship. 

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  • Winter is more than halfway over, and many Northeast cities still await their first snow day | CNN

    Winter is more than halfway over, and many Northeast cities still await their first snow day | CNN

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    Editor’s Note: A version of this article originally appeared in the weekly weather newsletter, the CNN Weather Brief, which is released every Monday. You can sign up here to receive them every week and during significant storms.



    CNN
     — 

    While the western US has been piling up snowfall over the past several weeks, it has been the complete opposite across the Northeast and New England.

    We are more than halfway through meteorological winter, which runs from December through February, and cities such as New York, Philadelphia, Baltimore, and Washington, DC have yet to see measurable snow, defined as at least 0.1 inches.

    And it’s not just the coastal cities. Many locations across interior New England and the Northeast are seeing significantly below normal snowfall to date.

    “With the exception of some areas downwind of Lakes Erie and Ontario, and very small areas of interior New England, the East is certainly in a snow drought with some locations that normally have snow, down by as much as one to more than three feet,” the Weather Prediction Center Branch Chief Greg Carbin told CNN.

    Buffalo, New York was inundated with several feet of heavy snowfall earlier this winter.

    Carbin went on to explain there are two types of snow drought:

    • The first type is when there is an overall lack of winter precipitation, rain or snow, which contributes to drought conditions.
    • The second type is when overall precipitation amounts are near normal but instead of falling as snow, it falls mostly as rain.

    “Along the I-95 corridor from DC to Boston, the latter type of snow drought has been measured so far this winter,” Carbin said. “Precipitation amounts have been normal to slightly above normal, but it’s generally been too warm for precipitation to fall in the form of snow.”

    The period between snow events is likely to increase as the climate warms, and it may be especially true for coastal Northeastern cities. As the Northeast temperatures warm, the rain-snow line shifts farther north, leading to more rainy winter day along the coast and less snow, according to the US National Climate Assessment.

    And it’s not just the Northeast, winter (December, January, February) is also the fastest-warming season for 75% of 238 US locations, according to Climate Central’s data analysis.

    319

    Central Park in New York City has gone 319 days without measurable snow through Sunday, which currently ties for their third-longest streak. Central Park would have to be snowless through February 5, 2023, to break the record streak of 332 days set back in 2020.

    316

    Philadelphia, Baltimore, and Washington DC have all gone 316 days without measurable snow through Sunday, which rank 6th, 12th, and 19th respectively.

    1973

    Central Park is also approaching the latest date in the season for their first measurable snowfall since record keeping began in 1869.

    “The current record is Jan. 29, 1973, which went on to become the least-snowy winter in NYC history, with just 2.8 inches total snow accumulation,” Carbin said.

    “The pattern has been fairly consistent with the typical La Nina pattern across the Northeastern US so far this winter,” meaning the track of the storms and cold air have remained to the north and west of the Northeast, meteorologists at the National Weather Service office in New York City told CNN.

    Watch: Meteorologist Jennifer Gray explains the effects of La Niña

    La Niña, the counterpart of El Niño, is characterized by below-normal sea surface temperatures in the Pacific Ocean near the equator, a result of shifting wind patterns in the atmosphere, which has a direct effect on weather seen across the US in the winter.

    “There are of course variations in this pattern due to short term factors that are not predictable more than one to two weeks in advance, such as the arctic outbreak during Christmas,” the weather service office in New York City said. “But these variations have been brief.”

    The most active weather and heaviest snowfall in recent weeks have been focused across the West and California, where more than 15 feet of snow have fallen across portions of the Sierras from December 26, 2022, through January 17, 2023.

    “While the jet stream meanders and can occasionally quickly change to support snowstorms just about anywhere during the winter, this winter has been quite active across the West, with a weak but broad area of high pressure (and warmer than average temperatures) over the eastern 2/3rds of the contiguous United States,” Carbin said.

    There is a chance Central Park could see some light accumulating snow Wednesday but there is still some uncertainty in the forecast, the weather service office in New York City said.

    If the city does not see snow this week, their streak will stay alive. After Wednesday, the weather service is currently forecasting dry conditions through January 29.

    “We need to make up the whole seasonal snowfall since none has accumulated, which is 29.8 inches,” the weather service office in New York City said. “The record storm total snowfall is 27.5 inches on January 22 to 24, 2016, so that is very close to our seasonal snowfall. All it may take is one storm to get us back on track.”

    While this scenario is certainly possible, it is not very likely. There have only been seven storms on record to dump 20 inches of snow or more across Central Park in recorded history, according to the weather service.

    “February and March are months in which big snows have fallen in the cities of the Northeast, so there remains some hope for snow lovers,” Carbin said. “Although, the later in the season you get started, the more likely you are to finish the season with lackluster snowfall.”

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  • UAlbany Meteorologist Available to Discuss California Storms

    UAlbany Meteorologist Available to Discuss California Storms

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    Newswise — ALBANY, N.Y. – A series of strong storm systems known as “atmospheric rivers” have dumped massive amounts of rain and snow on California since late December, producing deadly flooding, mudslides, severe thunderstorms and tornadoes.

    California officials reported on Tuesday that the storms have claimed the lives of at least 17 people, which is more than the death toll of wildfires in the region over the past two years combined. More severe weather is expected to hit this weekend.

    Ryan Torn, chair and professor at the University at Albany’s Department of Atmospheric and Environmental Sciences, is an expert on atmospheric predictability and numerical weather prediction (NWP) models. Currently, he’s leading research in collaboration with the Center for Western Weather and Water Extremes that seeks to improve our ability to predict atmospheric rivers along the U.S. West Coast, including where to take additional observations to reduce forecast uncertainty.  

    The goal is to develop and test targeted airborne and buoy observations over the Northeast Pacific to improve forecasts of where atmospheric rivers will make landfall, and their potential impacts, with lead times of at least one to five days.

    “The recent heavy precipitation has helped alleviate some of the multi-year drought for California, yet the precipitation has come too quickly to avoid some of the hazardous impacts, like river flooding and mudslides,” Torn said. “Thankfully, advancements in past and current research of atmospheric rivers have improved our ability to forecast these events, often several days in advance.”

    Torn is available for phone or live/taped interviews. UAlbany also has an on-campus television studio for satellite interviews.

    About the University at Albany:

    A comprehensive public research university, the University at Albany-SUNY offers more than 120 undergraduate majors and minors and 125 master’s, doctoral and graduate certificate programs. As a Carnegie-classified R1 institution, signifying the highest level of doctoral and research activity, UAlbany is a leader among New York colleges and universities in diverse fields like atmospheric and environmental sciences, businesseducation, public health, health sciences, criminal justice, emergency preparedness, engineering and applied sciences, informatics, public administration, social welfare and sociology, taught by an extensive roster of faculty experts. It also offers expanded academic and research opportunities for students through an affiliation with Albany Law School. With a curriculum enhanced by 600 study-abroad opportunities, UAlbany launches great careers.

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    University at Albany, State University of New York

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  • Opening the eye of the storm

    Opening the eye of the storm

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    Newswise — For the first time, high-energy muon particles created in the atmosphere have allowed researchers to explore the structures of storms in a way that traditional visualization techniques, such as satellite imaging, cannot. The detail offered by this new technique could aid researchers modeling storms and related weather effects. This could also lead to more accurate early warning systems.

    It’s hard not to notice the number of stories in the news about heavy storms in different parts of the world, often attributed to climate change. Weather prediction and early warning systems have always been important, but with increased storm activity it seems especially so these days. A team of researchers, led by Professor Hiroyuki Tanaka from Muographix at the University of Tokyo, offer the world of meteorology a novel way of detecting and exploring tropical cyclones using a quirk of particle physics that takes place above our heads all the time.

    “You’ve probably seen photographs of cyclones taken from above, showing swirling vortices of clouds. But I doubt you’ve ever seen a cyclone from the side, perhaps as a computer graphic, but never as actual captured sensor data,” said Tanaka. “What we offer the world is the ability to do just this, visualize large-scale weather phenomena like cyclones from a 3D perspective, and in real time too. We do this using a technique called muography, which you can think of like an X-ray, but for seeing inside truly enormous things.”

    Muography creates X-ray-like images of large objects, including volcanoes, the pyramids, bodies of water, and now, for the first time, atmospheric weather systems. Special sensors called scintillators are joined together to make a grid, a little like the pixels on your smartphone’s camera sensor. However, these scintillators don’t see optical light, but instead see particles called muons which are created in the atmosphere when cosmic rays from deep space collide with the atoms in the air. Muons are special because they pass through matter easily without scattering as much as other types of particles. But the small amount they do deviate by as they pass through solid, liquid, or even gaseous matter, can reveal details of their journey between the atmosphere and the sensors. By capturing a large number of muons passing through something, an image of it can be reconstructed.

    “We successfully imaged the vertical profile of a cyclone, and this revealed density variations essential to understanding how cyclones work,” said Tanaka. “The images show cross sections of the cyclone which passed through Kagoshima Prefecture in western Japan. I was surprised to see clearly it had a low-density warm core that contrasted dramatically with the high-pressure cold exterior. There is absolutely no way to capture such data with traditional pressure sensors and photography.”

    The detector the researchers used has a viewing angle of 90 degrees, but Tanaka envisages combining similar sensors to create hemispherical and therefore omnidirectional observation stations which could be placed along the length of a coastline. These could potentially see cyclones as far away as 300 kilometers. Although satellites already track these storms, the extra detail offered by muography could improve predictions about approaching storms.

    “One of the next steps for us now will be to refine this technique in order to detect and visualize storms at different scales,” said Tanaka. “This could mean better modeling and prediction not only for larger storm systems, but more local weather conditions as well.”

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    Journal article: Hiroyuki K.M. Tanaka, Jon Gluyas, Marko Holma, Jari Joutsenvaara, Pasi Kuusiniemi, Giovanni Leone, Domenico Lo Presti, Jun Matsushima, László Oláh, Sara Steigerwald, Lee F. Thompson, Ilya Usoskin, Stepan Poluianov, Dezső Varga, Yusuke Yokota. “Atmospheric Muography for Imaging and Monitoring Tropic Cyclones”Scientific Reports.

     

    About The University of Tokyo
    The University of Tokyo is Japan’s leading university and one of the world’s top research universities. The vast research output of some 6,000 researchers is published in the world’s top journals across the arts and sciences. Our vibrant student body of around 15,000 undergraduate and 15,000 graduate students includes over 4,000 international students. Find out more at www.u-tokyo.ac.jp/en/ or follow us on Twitter at @UTokyo_News_en.

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    University of Tokyo

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  • Avoid doing these 5 activities at home during a thunderstorm, says a meteorologist and storm chaser

    Avoid doing these 5 activities at home during a thunderstorm, says a meteorologist and storm chaser

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    When it’s raining outside and thunder follows, it’s likely that lightning is pretty close behind and there are some places you shouldn’t be for your own safety — mostly outdoors.

    “When thunder roars, go indoors and stay there for 30 minutes after the last clap of thunder,” the National Weather Service advises in its lightning safety rules. The greatest potential harm during a thunderstorm is lightning.

    You might think getting struck by lightning is only possible if you’re outside, and that you’re completely safe as long as you’re at home, but that isn’t always the case, according to the Centers for Disease Control and Prevention.

    The agency reports that “about one-third of lightning-strike injuries occur indoors.”

    And while you may have seen advice against showering during a thunderstorm trending in the news, there are other activities you should avoid doing at home until after a storm passes as well, according to John Homenuk, a meteorologist and founder of New York Metro Weather.

    5 activities to avoid at home during a thunderstorm

    Homenuk, the National Weather Service and the CDC all recommend avoiding doing these activities at home during a lightning storm:

    1. Taking a shower
    2. Washing dishes
    3. Standing near windows, doors, porches and concrete
    4. Touching electronic equipment connected to an electrical outlet (i.e. computers, laptops, game systems, washers, dryers or stoves)
    5. Using corded phones

    Stay away from water

    As a starting point, Homenuk warns against being near or in water during a thunderstorm.

    Showering, bathing or washing dishes can all pose a risk if lightning is occurring near your home.

    “When lightning happens, it generally travels on the path of least resistance, which is often going to take it into metal which can go through the pipes,” he says. “And obviously that would not be great if you were in the shower.”

    The CDC states that the risk of lightning traveling through your plumbing is lower for those with plastic pipes as opposed to metal pipes.

    However, the agency still advises you to “avoid any contact with plumbing and running water during a lightning storm to reduce your risk of being struck.”

    Washing dishes may pose a lower risk than taking a bath or a shower because your whole body isn’t submerged in water or standing directly under a metal showerhead as the pipes are running, says Homenuk.  

    “But still, generally if you can, you [should] wait for the storm to pass instead of utilizing the water and the pipes that can be a pathway for that electricity to travel,” he notes.

    These are the safest places to be indoors and out

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  • Noru became a super typhoon in 6 hours. Scientists say powerful storms are becoming harder to forecast | CNN

    Noru became a super typhoon in 6 hours. Scientists say powerful storms are becoming harder to forecast | CNN

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    CNN
     — 

    Residents on the small resort island of Polillo are accustomed to severe weather – their island sits in the northeastern Philippines, on the edge of the Pacific Ocean where storms typically gather strength and turn into typhoons.

    But even they were stunned by the intensity of Typhoon Noru, known locally as Typhoon Karding, that turned from a typhoon into a super typhoon in just six hours before hitting the region earlier this week.

    “We’re used to typhoons because we’re located where storms usually land,” said Armiel Azas Azul, 36, who owns the Sugod Beach and Food Park on the island, a bistro under palm trees where guests drink coconut juice in tiny thatched huts.

    “But everything is very unpredictable,” he said. “And (Noru) came very fast.”

    The Philippines sees an average of 20 tropical storms each year, and while Noru didn’t inflict as much damage or loss of life as other typhoons in recent years, it stood out because it gained strength so quickly.

    Experts say rapidly developing typhoons are set to become much more common as the climate crisis fuels extreme weather events, and at the same time it will become harder to predict which storms will intensify and where they will track.

    “The challenge is accurately forecasting the intensity and how fast the categories may change, for example from just a low-pressure area intensifying into a tropical cyclone,” said Lourdes Tibig, a meteorologist and climatologist with the Institute for Climate and Sustainable Cities.

    The same happened in the United States last week when Hurricane Ian turned from a Category 1 storm into a powerful Category 4 hurricane before making landfall along the southwestern coast of Florida on Wednesday.

    Such rapid intensification, as it’s known in meteorological terms, creates challenges for residents, authorities and local emergency workers, including those in the Philippines, who increasingly have no choice but to prepare for the worst.

    When Azul received warning that Typhoon Noru was approaching the Philippines last Saturday, he began his usual preparations of setting up his generator and tying down loose items.

    At that stage, Noru was predicted to make landfall on Sunday as the equivalent of a Category 1 hurricane.

    But as the storm grew closer, it strengthened into a super typhoon, the equivalent of a Category 5 hurricane, making landfall Sunday evening with ferocious winds that lifted waves and lashed properties on the shoreline.

    Typhoon Noru toppled beach huts and coconut trees at Sugod Beach and Food Park on Polillo Island, Quezon province, in the Philippines.

    Azul said his community was fortunate to have TV signal in the resort, and as soon as they found out that the typhoon was much stronger than forecast, his staff brought in all the bistro’s outdoor furniture and tied down the roofs of their guesthouses, while local government units evacuated people living near the shore.

    “But other parts of the island which don’t have internet connectivity and only rely on radio signals might not have got the message in time,” he said.

    The typhoon damaged the resort town, as strong winds toppled beach huts and damaged nearby fishing cages.

    Azul added that coconut trees planted across the island about a decade ago after Typhoon Ketsana (Ondoy) battered the area had just started to bear fruit but were now completely wiped out.

    “We have to pick up the pieces, and rebuild again,” he said.

    Typhoon Noru lashed through Sugod Beach and Food Park on Polillo Island, Quezon province, in the Philippines.

    On the main island of Luzon, Noru left a trail of destruction in the province of Nueva Ecija, known as the “rice granary” of the country.

    Ruel Ladrido, 46, a farmer owner in Laur, Nueva Ecija, said his rice fields were not flooded but strong winds damaged his crops.

    “It didn’t rain hard near me, but the winds uprooted some of my fields. It will affect our harvest this season, but what can we do? I don’t know the extent of the damage yet, but we’ll have to plant again,” he told CNN on Tuesday.

    High winds brought by Typhoon Noru flattened rice fields at the Ladrido Farm in Laur, Nueva Ecija ,in the Philippines.

    As of Friday, 12 people had died in the aftermath of Noru, including five rescue workers in Bulacan province, according to the National Disaster Risk Reduction and Management Council (NDRRMC).

    The estimated damage to agriculture ballooned to some 3 billion Philippine pesos (about $51 million), affected 104,500 farmers and fisher folk, and damaged over 166,630 thousand hectares of crop land, according to the NDRRMC.

    The Philippines, an archipelago of more than 7,600 islands, is already vulnerable to typhoons, but as sea levels rise and ocean temperatures warm, the storms expected to become more powerful, according to research published in 2018.

    The study found that the stronger typhoons carry more moisture and track differently. They are also “aggravated by sea level rise, one of the most certain consequences of climate change.”

    A separate study published last year, by researchers at the Shenzhen Institute of Meteorological Innovation and the Chinese University of Hong Kong, found that typhoons in east and southeast Asia now last between two and nine hours longer and travel an average of 100 kilometers (62 miles) further inland than they did four decades ago. By the end of the century, they could have double the destructive power.

    As such, it’ll become more difficult to forecast their track and predict ones that will quickly gain strength, or undergo rapid intensification – defined as when wind speeds increase by at least 35 miles per hour (56 kilometers per hour) in 24 hours or less.

    Although rare, the Philippines is no stranger to this phenomenon as 28% of all tropical cyclones that made landfall in the country dating back to 1951 underwent rapid intensification based on official data, according to Gerry Bagtasa, a professor with the University of the Philippines’ Institute of Environmental Science and Meteorology.

    Bagtasa said factors such as high moisture, warm ocean surface temperatures and low wind shear determine the scale of rapid intensification, but those weather readings “don’t have to be extraordinary in their values” to create rapid intensification.

    He remarked that Typhoon Noru’s track across the Philippine Sea before making landfall was “just average for this season” and the wind shear – or the change of wind speed and strength with height in the atmosphere – was not extraordinarily low.

    Bagtasa also said forecasters find it difficult to predict rapid intensification in the Pacific, because even though satellite monitoring has improved, there isn’t enough data to forecast worsening weather events.

    “There are also many unprecedented events happening recently worldwide, and since forecasters typically rely on their past experiences, new events can ‘throw off’ forecasts, so to speak,” he said.

    Mirian Abadilla, a doctor and municipal health officer in Cabangan, Zambales province, on the Philippine island of Luzon, has been involved in her community’s disaster management response since 1991.

    She says in that time, typhoons have become harder to forecast, and her community has no choice but to prepare for the worst.

    “The typhoons are definitely getting stronger because of climate change, and getting harder to predict,” she said. “But each time we get hit with a typhoon, we try to keep improving our disaster response – that’s the only way for us to stay alert.”

    She said local governments held meetings as Typhoon Noru approached the coast to go over relief and rescue plans.

    “Filipinos are getting better at disaster preparedness … because we have to be,” she said.

    Every province, city, municipality and barangay in the Philippines is required to follow national disaster risk reduction and management system under an act imposed in 2010 to address the island nation’s climate vulnerability.

    Local governments must conduct preemptive evacuation based on the projected warnings from the national weather department, and it’s recommended they hold regular disaster rescue drills with responders and host briefing seminars for communities.

    Residents wade through waist-deep flood waters after Super Typhoon Noru, in San Miguel, Bulacan province, Philippines, September 26, 2022.

    In a press briefing on Monday, Philippine President Ferdinand “Bongbong” Marcos Jr. praised local government units for “doing a good job” in explaining the situation to the local population as Noru approached, and for carrying out evacuations that may have prevented mass casualties.

    But he also seemed to acknowledge the unpredictability of the storms that regularly threaten the Philippine coast, and the need to always be prepared.

    “I think we may have gotten lucky at least this time, a little bit,” Marcos Jr. said.

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  • URI Prof. Isaac Ginis’ Team Is Making Dramatic
Improvements in Storm Damage Prediction

    URI Prof. Isaac Ginis’ Team Is Making Dramatic Improvements in Storm Damage Prediction

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    “I don’t predict a hurricane season. If a hurricane makes landfall near where you live, that is an active season for you,” says URI Professor of Oceanography Isaac Ginis.

    Yet predicting the severity of a hurricane can mean the difference between life and death, which is why Ginis makes it his business to predict the power of these ferocious storms. He developed a computer model so successful it was adopted by the National Weather Service. As one of the few scientists worldwide to show the role the ocean plays in hurricanes, Ginis essentially proved that ocean temperature is the most important factor in hurricane intensity and power.

    Says Ginis, “People may think if you have 20 hurricanes predicted in a season that it would be more dangerous than in a season with fewer, in terms of making landfall, which is not true. Even with an inactive season, we can have catastrophic hurricanes. In 1992 we had only seven hurricanes, but among them was Andrew, which made landfall in Florida and devastated the surrounding area south of Miami. It doesn’t matter how many are in the Atlantic since most of those go out to sea. The media will often ask how many, and if you hear a prediction of fewer storms, people feel they can relax, but that isn’t the case.”

    Ginis’s research efforts have resulted in pioneering advances in modeling of the tropical cyclone-ocean interactions that have led to significant improvements in hurricane intensity forecast skills.

    His research group has contributed to the development of the Hurricane Weather Research Forecast model used by the U.S. National Hurricane Center and Joint Typhoon Warning Center for operational forecasting of tropical cyclones in all ocean basins. One of his team’s most recent projects, the Rhode Island Coastal Hazards, Analysis, Modeling and Prediction (RI-CHAMP) system, which launched in June, advances storm model capabilities and develops a real-time hazard and impact prediction system for hurricanes and nor’easters in Southern New England. The system provides actionable information to decision makers in helping to prepare for a storm. When it comes to forecasting hurricanes, the focus is usually on more tropical locales. However, Ginis says, “the farther they move to the north, the more complex they become.”

    More on Isaac Ginis:

    Actionable Information, Aboard GSO (Spring 2022)
    URI leads team of researchers awarded $1.5 million NOAA grant, URI News (Sept. 2021)
    Ocean Research, University of Rhode Island (July 2021)
    Isaac Ginis, University of Rhode Island (May 2018)

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    University of Rhode Island

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