
NOAA predicts above-normal hurricane season this year
May 22 (UPI) -- The Atlantic storm season could produce as many as 19 named storms, including up to 10 hurricanes and five major storms, according to the National Oceanic and Atmospheric Administration.
The NOAA says there is a 60% chance of an above-normal storm season that could produce between 13 and 19 named storms and between six and 10 hurricanes.
The hurricanes could produce between three and five major hurricanes with wind speeds of at least 111 mph, the NOAA predicts.
Storm impacts could extend well inland of coastal waters.
"As we witnessed last year with significant inland flooding from hurricanes Helene and Debby, the impacts of hurricanes can reach far beyond coastal communities," Acting NOAA Administrator Laura Grimm said.
An above-average Atlantic Ocean temperature, weak wind shear and potentially higher West African monsoon activity are among factors contributing to the prediction for an above-average number of storms.
"The high-activity era continues in the Atlantic Basin, featuring high-heat content in the ocean and reduced trade winds," NOAA storm forecasters said.
"The higher-heat content provides more energy to fuel storm development, while weaker winds allow the storms to develop without disruption."
NOAA forecasters also say there is a 30% chance of a nearly normal number of named storms, which are those with wind speeds of at least 39 mph, while hurricanes have wind speeds of at least 74 mph.
There is a 10% chance of a below-average number of storms.
The Atlantic storm season traditionally runs from June 1 to Nov. 30, but storms could occur before and after those dates.
From 1991 to 2020, the Atlantic Basin averaged 14 named storms, including seven hurricanes and three major hurricanes.
The Atlantic Basin includes the Atlantic Ocean, the Caribbean Sea and the Gulf.
The first named storm typically forms in mid to late June, according to the NOAA.
The first hurricane usually forms in early to mid-August, while the first major hurricane often forms in late August or early September, but such storms could form well outside of those timeframes.
The NOAA reported 27 weather events that produced at least $1 billion in damages and totaled $182.7 billion in damages in 2024, which were higher than the five-year average of 23 such weather events totaling $149.3 billion in damages.
Hurricane Helene made landfall near Perry, Fla., on Sept. 26 with sustained wind speeds of 140 miles per hour, which was the strongest storm on record in Florida's Big Bend region.
Helene inflicted $78.7 billion in damages, was the deadliest Atlantic hurricane since 2017.
The major hurricane caused 176 direct fatalities and at least 250 in total.
Hurricane Milton made landfall near Florida's Siesta Key on Oct. 9 and caused $34.3 billion in damages.
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Atlantic
10 minutes ago
- Atlantic
Hurricane Science Was Great While It Lasted
Clouds are the bane of a hurricane forecaster's existence. Or they were, until about 20 years ago, when forecasters got access to a technology that Kim Wood, an atmospheric scientist at the University of Arizona, told me to think of as cloud X-ray vision: It cuts through the cloud top to help generate a high-resolution, three-dimensional image of what's happening below. Known as the Special Sensor Microwave Imager Sounder, or SSMIS, it rides on a series of satellites and allows forecasters to see a storm's structure, which might otherwise be invisible. The Hurricane Hunter planes that fly into storms can also be used to generate three-dimensional storm images, but the National Oceanic and Atmospheric Administration, which is responsible for hurricane forecasting, has only two of those aircraft. They can't be everywhere at once. With the SSMIS, forecasters had an autonomous, powerful eye in the sky. But now the Department of Defense says it will cease processing and distributing the crucial imagery from this sensor at the end of this month. Losing these views threatens the National Hurricane Center's ability to see what's forming, Wood told me. For years, the National Hurricane Center has been improving the accuracy of its forecasts, and one short year ago, the United States was better at predicting storms' tracks than it had ever been. But the Trump administration has been cutting the forecasting staff and budgets. And now these satellite data will be missing too. The U.S. is rapidly losing state-of-the-art hurricane forecasting, just in time for hurricane season's busiest months. The data were nice while we had them. After all, no one likes a surprise hurricane. When the sun goes down, convective storms over open ocean often grow stronger, juiced by the changing temperature dynamics. But that's also when types of storm surveillance that rely on what's visible are least able to determine what's going on. Infrared imaging can see in the dark, but the picture is typically low-resolution and grainy, and can obscure key shapes. When the sun comes up, forecasters can suddenly be looking at a fully formed storm eye. Forecasters dread the 'sunrise surprise,' which is exactly the sort of thing that the microwave imagery from SSMIS is most helpful in preventing. It gives a clearer picture, even through clouds, and even in the dark. Plus, the technology is vital to picking up on telltale signs of rapid intensification, a phenomenon that has become more common in recent years, most notably with Hurricane Otis in 2023 and Hurricane Milton in 2024. Storms that intensify faster and reach higher peak intensities just before hitting land are a nightmare for forecasting, and climate scientists worry they will become only more common as the planet warms. Research suggests that certain signature formations in a storm could indicate that it may intensify rapidly, Andrew Hazelton, an associate scientist working in hurricane modeling and research at the University of Miami, told me. Those structures are simply easier to see with the SSMIS images. A few other satellites can provide microwave imaging. But, as the meteorologist Michael Lowry has pointed out, their instruments either are orbiting more infrequently or are inferior to the one being discontinued. NOAA suggested to Lowry that its Advanced Technology Microwave Sounder instrument would be able to fill the gap, he wrote. But that suggestion is misleading, Hazelton said: The information from that satellite is so low-resolution that the eye of a hurricane looks like just a few pixels instead of a more detailed image. 'It's really hard to pick out details,' he told me—including the aspects of a storm's structure that may signal that it could rapidly intensify. Plus, having fewer microwave instruments operating in the sky means fewer snapshots of oceans where hurricanes might form. Without SSMIS, the number of microwave-image glimpses that forecasters get over any given spot will be essentially cut in half, Lowry wrote; many more hours could go by without observations when they're most needed. (I reached out to NOAA for comment, but the agency redirected me to the Department of Defense.) SSMIS is part of the Defense Meteorological Satellite Program; a Navy spokesperson told me the entire satellite program is slated to be discontinued in September 2026. When I asked about previous reports citing cybersecurity concerns as a reason for the closure, the Navy spokesperson responded only that the satellite program is 'no longer compliant with Department of the Navy information technology modernization requirements.' In the meantime, the Defense Department will just stop processing and distributing the data it collects. A spokesperson from the U.S. Space Force also told me the satellite system will be replaced by two other satellite systems, the second one of which is slated to be operational in 2027. But that still doesn't explain why this data stream is being cut off now, more than a year before the satellite program is slated to be decommissioned, Hazelton said. 'We need all the microwave data we can get while it's available.' These aren't the only data forecasters have lost, either: Right now, across the U.S., fewer weather balloons are being launched because of staffing shortages at National Weather Service forecasting offices. Balloons offer insights into how the atmosphere is behaving; data picked up on the West Coast are the East Coast's business, too, as they'll predict the weather coming just hours in the future. 'We want the complete picture of the state of the atmosphere so that we have a way to then estimate the next step,' Wood said. 'Upstream information is often just as critical as information right at the point where the storm might be.' NOAA is losing the experts who can interpret those data, too. And cuts to staff this year already mean that more duties are piled higher on individual people, 'which means they may be less able to properly use the data once it comes in,' Wood said. Those cuts extend all the way to the people who work on underlying weather models. Hazelton, for example, was on a team at the National Weather Service where he worked to improve hurricane modeling. In February, he was axed along with some 800 employees who had been recently hired; he'd worked for NOAA as a contract employee for nearly a decade, on Hurricane Hunter missions and improving storm modeling. He was part of the group of fired NOAA employees who were hastily rehired after a judge temporarily blocked President Donald Trump's cuts, and was refired after a subsequent Supreme Court ruling. At the University of Miami, he's now continuing his work on hurricane models through a federal partnership. The latest proposed NOAA budget for 2026, released Monday, aims to remove even more workers, along with whole programs. It zeroes out, for instance, the line item for the entire Oceanic and Atmospheric Research office, a network of federal research centers whose work helps develop new techniques and tools for forecasters and improve weather models. If this budget passes, the forecasts of the near future—three, five, 10 years down the line—will suffer too, Hazelton said. This year has been a miserable cascade of losses for the American hurricane-safety apparatus. Any one of these losses might have been papered over by other parts of the system. But now it's just losing too many components for that. As James Franklin, the former chief of the National Hurricane Center's hurricane-specialist unit, put it in a post on Substack, 'Resiliency is being stripped away, piece by piece.' What's easy to see coming now are the possible consequences: at best, a needless evacuation. But just as easily: a rushed evacuation, a surprise landfall, a flattened house.
Yahoo
2 hours ago
- Yahoo
On This Date: An Early 19th Century Vermont Long-Track Tornado
Almost 200 years ago, an early July tornado tracked through a part of a northern U.S. state among the least visited by twisters in history. On July 2, 1833, 192 years ago today, the town of Holland in Vermont's Northeast Kingdom was struck by a "violent tornado," according to "A History and Description of New England." Said to be up to three-quarters of a mile wide, the twister "prostrated and scattered nearly all the trees, fences and buildings in its course." The tornado first developed over Salem Pond, then tracked northeast into Canada, according to the authors of the book published in 1860. They also wrote, "Its course could be traced through the forests nearly to the Connecticut River." If that was indeed one long-track tornado, rather than multiple tornadoes generated by a supercell, its path would have been over 30 miles long. Only 50 tornadoes have been documented in Vermont in modern records since 1950, according to NOAA. That's an average of one tornado at least every other year in the Green Mountain State. The strongest documented tornado damage in Vermont was F2, from 14 different tornadoes from 1955 through 2002. (MORE: How Many Tornadoes In Your State?) Jonathan Erdman is a senior meteorologist at and has been covering national and international weather since 1996. Extreme and bizarre weather are his favorite topics. Reach out to him on Bluesky, X (formerly Twitter) and Facebook.
Yahoo
2 hours ago
- Yahoo
Weather RADAR Market Set to Hit Valuation of US$ 816.19 Million By 2033
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In the Southern Hemisphere, Australia's Bureau of Meteorology activated three dual-polarization C-band units in the Pilbara mining corridor, finally covering coastal blind spots that miners and port operators had flagged for years. Beyond national networks, niche operators also energize the weather radar market. Energy utilities in Texas commissioned four compact X-band systems during the spring 2024 hail season, while the Port of Rotterdam installed a marine phased-array antenna that delivers five-second volume scans to pilots maneuvering LNG carriers. Each deployment reflects a pivot from stand-alone hardware toward integrated ecosystems that merge radar volumes with lightning arrays and high-resolution numerical guidance. As installation counts climb, contract language increasingly specifies cross-network data exchange within fifteen seconds—an exacting latency target that would have been unbudgeted just three years ago. Astute Analytica's updated Weather Radar Market report equips stakeholders with technology roadmaps, regional deployment insights, and competitive benchmarking that illuminate emerging opportunities in X-band adoption, AI-integrated forecasting, and service-centric models. By detailing supply-chain vulnerabilities, regulatory shifts, and partnership studies, the study enables vendors, operators, and investors to prioritize R&D, de-risk procurement, and craft future growth strategies through 2033. Agriculture Aviation Broadcasting Adopt Radar Data For Critical Decision Making Daily Operations The weather radar market is rapidly broadening its influence as non-meteorological sectors convert reflectivity data into hard operational gains. Major grain cooperatives across the US Corn Belt now lease mosaic feeds from TempestX, a start-up that curates forty private X-band towers to refine spray-window decisions, slashing fungicide drift violations issued by state regulators. Eurocontrol, on the aviation front, completed integration between en-route air-traffic consoles and sixteen dual-polarization sites covering Alpine airways, giving controllers five-minute lead time to reroute around developing turbulence cells. Even broadcast outlets are modernizing: station groups in Atlanta and Minneapolis upgraded graphics engines to ingest polarimetric variables such as differential phase, enabling on-air meteorologists to pinpoint lofted debris signatures before emergency managers sound local sirens. Such sector cross-pollination reinforces premium data requirements inside the weather radar market. In February 2024, John Deere's Operations Center opened an API tier that ingests calibrated rainfall totals directly from regional radar hubs, enabling real-time variable-rate irrigation without manual gauge checks. Hydropower utilities along Norway's Glomma River adopted similar logic, driving sluice-gate decisions from quantitative precipitation forecasts derived from densified C-band coverage. These examples illuminate an evolution from passive observations to transactional commodities whose uptime is backed by software-style service-level agreements, drawing equipment builders, analytics firms, and end users into tighter collaborative loops. Artificial Intelligence And Phased Array Upgrades Accelerate Precision And Speed Of Scans The weather radar market continues to push technological frontiers, with 2024 marking the debut field deployment of a dual-polarization phased-array prototype by Japan's National Institute for Information and Communications Technology near Osaka. The flat-panel antenna completes a full volume scan in under ten seconds—five times faster than legacy parabolic units—and streams raw IQ values straight to an on-site GPU cluster running machine-learning hydrometeor classifiers. German integrator HENSOLDT, meanwhile, unveiled a solid-state Ka-band radar for urban flash-flood mapping that weighs under one hundred kilograms and draws power over Ethernet, enabling rooftop and cellular-tower installations without heavy cranes or diesel generators. Artificial intelligence further accelerates progress inside the weather radar market. NOAA's StormAI pipeline, operational since May 2024, automatically flags mesocyclone couplets in dual-polarization imagery, trimming forecaster workload by roughly forty percent according to internal dashboards. Brazilian start-up RainCloud applies similar convolutional-network techniques to filter biological clutter during nocturnal bird-migration peaks, boosting aviation-safety alerts at São Paulo Guarulhos Airport. Meanwhile, software-defined transmitters built with gallium-nitride amplifiers now extend mean time between failures beyond seven thousand hours, a milestone cheered by agencies battling technician shortages. Together, faster scan regimes, smarter classification, and longer component lifespans demonstrate technology's expanding role in safeguarding lives and property. Intensifying Competition Spurs Differentiation Through Service Bundles Maintenance And Analytics Integration Capabilities The weather radar market now hosts an increasingly crowded vendor roster, forcing manufacturers to differentiate through service-rich packages and data-centric add-ons. Enterprise contracts inked in 2024 typically bundle five-year remote diagnostics, over-the-air firmware updates, and SaaS analytics with the physical array. Leonardo's new Helios program, for example, grants civil-aviation clients a dedicated Kubernetes cluster for real-time Doppler products, while Vaisala's Guardian suite merges lightning and radar feeds under a single dashboard with configurable threat metrics. Smaller firms such as Israel-based Climaview have shifted to a rental model, leasing mobile X-band trailers for seasonal crop monitoring rather than pursuing capital-equipment sales. Heightened rivalry is also reshaping pricing logic throughout the weather radar market. Capex list prices increasingly give way to per-gigabyte delivery fees or per-alert billing, mirroring software subscriptions and appealing to municipalities that lack lump-sum budgets yet can handle predictable operational costs. Legacy suppliers respond by broadening spare-part footprints: ELDES opened a component depot in Chile in February, guaranteeing seventy-two-hour turnaround for Andean customers, while Huawei signed a memorandum with the African Centre of Meteorological Applications to co-develop localized firmware and operator-training curricula. Such maneuvers underscore how service breadth, not just hardware specs, now defines competitive advantage. Component Shortages And Geopolitics Reshape Supply Chains For Critical Microwave Modules Today The weather radar market endured acute supply-chain stress throughout 2023 and early 2024, as limited gallium-nitride wafers, high-grade ferrite circulators, and RF power amplifiers faced lead times surpassing forty-eight weeks. Export controls tied to rising geopolitical tensions reduced semiconductor flows from East Asia, forcing European integrators such as Selex ES to qualify alternative vendors in Canada and Singapore. Logistics snarls compounded delays: drought-induced reductions in Panama Canal transits postponed enclosure and waveguide deliveries to Caribbean sites, while Red Sea security incidents prompted radar pedestals bound for East Africa to circumnavigate the Cape of Good Hope, adding nearly three weeks in transit. Procurement teams across the weather radar market are responding with dual-source contracts and higher in-house inventories of critical boards. NOAA's Logistics Center abandoned just-in-time practices, now storing enough magnetron assemblies for a full year's refurbishment cycle. On the software side, suppliers embed remote-key provisions that let clients activate standby transmitters when primary modules fail, mitigating downtime when hardware is stranded at sea. Collectively, these adaptations reveal a sector that treats geopolitical volatility as a structural condition rather than a temporary disruption, reshaping how risk is priced into long-term maintenance agreements. Ground Clutter Calibration Gaps Staffing Deficits Challenge Continuous System Reliability Worldwide Today The weather radar market increasingly confronts operational headwinds rooted in physics and workforce capacity. Ground clutter remains a stubborn foe; expanding solar-farm acreage across the US Southwest now generates wide angular sidelobe reflections that overwhelm filters originally tuned for natural terrain. Engineers at the National Severe Storms Laboratory report clutter targets have grown by roughly one-third since 2021, driving firmware patches that rely on Doppler spectral-width thresholds instead of static maps. Simultaneously, calibration slips are surfacing as fleets age; Turkey's State Meteorological Service documented a two-decibel reflectivity bias drift at its oldest Ankara site before a 2024 refurbishment restored accuracy. Human-capital deficits add another stress point for the weather radar market. An American Meteorological Society survey published in March 2024 found that only one in five graduating atmospheric-science majors receive formal electronics training, leaving few technicians able to service high-power transmitters. Agencies are piloting augmented-reality headsets that guide novice staff through waveguide inspections, cutting average outage duration by half an hour per event. Nevertheless, the confluence of mechanical wear, spectral-processing complexity, and limited personnel underscores the imperative for predictive maintenance analytics and remote diagnostics if continuous data integrity is to be sustained. Diverse Regulatory Frameworks Complicate Certification Timelines Yet Push Standards Toward Interoperability Goals The weather radar market must navigate an intricate lattice of national spectrum and safety rules that strongly influence project timelines. In 2024, the US Federal Communications Commission tightened out-of-band emission limits on C-band weather services colocated near 5G mid-band networks, while Canada's telecom regulator imposed protective radii around mobile base stations adjacent to new X-band sites. The International Telecommunication Union's latest conference, meanwhile, began studying potential sub-ten-gigahertz allocations for future phased-array sensors, a reminder that spectrum negotiations remain fluid and require early engagement from procurement officers and legal teams. Divergent frameworks can extend certification well beyond twenty months, a delay that buyers in the weather radar market increasingly deem unacceptable. The European Commission now demands cybersecurity risk assessments under its Radio Equipment Directive, compelling manufacturers to prove encrypted command links and secure-boot firmware before import clearance. Brazil's National Civil Defense Agency recently added environmental impact reviews for mountaintop installations after community objections in Santa Catarina. Although varied, these mandates push the industry toward interoperable data models and tighter electromagnetic-compatibility thresholds, trends that ultimately benefit operators by easing cross-border data exchange once compliance milestones are achieved. Uneven Coverage Drives International Collaborations And Investments In Underserved Tropical Regions Urgently The weather radar market displays stark regional contrasts that are spawning new collaboration frameworks. Africa operates fewer than eighty surveillance radars across fifty nations, leaving vast inland territories without real-time convective monitoring. To close the gap, the African Development Bank and South Korea's KICT launched a program in February 2024 to supply solid-state S-band units to eight Sahel countries, paired with satellite backhaul to avoid fiber-optic bottlenecks. In tropical Asia, Indonesia commissioned six coastal C-band sites to shield shipping lanes spanning the Malacca and Makassar Straits, enhancing maritime safety during seasonal squall lines. Collaboration remains the antidote to disparity across the weather radar market. The World Meteorological Organization's Radar Exchange Hub, inaugurated in April 2024, now streams near-real-time volumes from sixty-five European and Middle-Eastern radars to Caribbean forecasters preparing for Atlantic hurricanes, demonstrating how data solidarity offsets hardware shortages. Private industry is also stepping up: SpaceX's Starlink Maritime division bundles low-latency connectivity with compact X-band units for Pacific-island airports, giving coastal communities critical minutes of additional cyclone warning. As 2025 approaches, equitable coverage stands out both as a humanitarian imperative and as the next commercial frontier for the weather radar market. Inquire Before Buying: Global Weather RADAR Market Key Players: Honeywell International Inc. Meteopress EWR RADAR Systems Inc. HuaYun METSTAR Radar (Beijing) Co., Ltd. Collins Aerospace FURUNO ELECTRIC CO., LTD. Gamic GmbH Garmin Ltd. TTM Technologies Inc. Vaisala Oyj Other Prominent Players Key Segmentation: By Radar Type Airborne Radar Ground Radar By Component Transmitter Antenna Receiver Display Others By Frequency C-Band S-Band X-Band Others By Deployment Type Fixed Weather Radars Mobile Weather Radars Satellite-Based Weather Radars By Application Meterology and Hydrology Aviation Industry Military Others By Region North America Europe Asia Pacific Middle East & Africa South America Related Reports: Autonomous Driving Market: By Component (Hardware, Software, Services); Autonomous Level (Level 0: no driving automation, Level 1: driver assistance, Level 2: partial driving automation, Level 3: conditional driving automation, Level 4: high driving automation, Level 5: full driving automation); Vehicle Type (Sedans, SUVs, Buses, Truck, Tractor, Others); Propulsion Type (Internal Combustion Engine (ICE) Vehicles, Electric Vehicles (EVs), Hybrid Vehicles); Vehicle Applications (Passenger/Private Vehicles, Commercial Vehicles, Heavy/Off-road Vehicles); Region—Market Size, Industry Dynamics, Opportunity Analysis and Forecast for 2025–2033 Cybersecurity Market: By Component (Solution and Services); Security (Network Security, Endpoint Security, Application Security, Cloud Security and Others); Development (Cloud-Based and On Premise); Enterprise Size (Small and Medium-Sized Enterprises and Large Enterprises); and Application (BFSI, Government, Retail, Healthcare, IT and Telecommunication, Manufacturing and Others) ; Region—Market Size, Industry Dynamics, Opportunity Analysis and Forecast for 2025–2033 Influencer Marketing Platform Market: By Component (Software and Services; By Function - Search, Discovery & Onboarding, Campaign Management, Influencer Relationship Management, Risk & Compliance, and Others); Subscription Plan (Basic, Pro, and Enterprise); Enterprise Size (Large Enterprises, Medium-sized Enterprises, and Small & Micro Enterprises); Industry (Retail & E-commerce, Consumer Goods & Services, Healthcare, Banking, and Others); Region—Market Size, Industry Dynamics, Opportunity Analysis and Forecast for 2025–2033 Intellectual Property Software Market: By Component- Software and Services; Deployment Type (On-premise and Cloud); End User (Academia, Corporate, Government, Legal Services, Life Sciences & Healthcare, IT & Telecommunication, BFSI, Automotive, Aerospace & Defense and Others); Region—Market Size, Industry Dynamics, Opportunity Analysis and Forecast for 2025–2033 About Astute Analytica Astute Analytica is a globally recognized market research and advisory firm, delivering data-driven insights and strategic intelligence to organizations worldwide. We offer comprehensive research solutions across a wide range of industries, including technology, healthcare, chemicals, semiconductors, FMCG, and more. Our reports provide in-depth analysis of market trends, competitive landscapes, emerging opportunities, and technological advancements, empowering businesses to make informed decisions in an evolving global environment. Supported by a team of seasoned analysts, economists, and industry experts, we are committed to delivering accurate, timely, and actionable insights. At Astute Analytica, client success is our priority. We offer customized research solutions that are both cost-effective and tailored to meet the unique needs of our clients. 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