Climate scientist says El Niño is expected to peak in December
An Australian climate scientist has indicated that the current El Niño event is expected to reach its strongest phase in December 2026, following the typical seasonal pattern observed in previous episodes of the global climate phenomenon.
Andrea Taschetto, an associate professor at the Australian Research Council Centre of Excellence for 21st Century Weather, explained that El Niño events historically intensify toward the end of the year before gradually weakening between late winter and spring in the Northern Hemisphere.
According to the researcher, current climate indicators suggest that the phenomenon is developing as expected. Sea surface temperatures across the equatorial Pacific Ocean have continued to rise above average levels, reinforcing forecasts that El Niño will persist through the remainder of 2026 before gradually losing strength.
El Niño is a naturally occurring climate pattern characterized by unusually warm ocean temperatures in the central and eastern tropical Pacific. The phenomenon can influence weather conditions across the globe, contributing to changes in rainfall, droughts, heatwaves, and storm activity in different regions.
Meteorological agencies closely monitor El Niño because of its potential impact on agriculture, water resources, ecosystems, and energy demand. While each event develops differently, scientists use ocean temperatures, atmospheric pressure, and wind patterns to assess its evolution and likely intensity.
Climate experts note that the effects of El Niño can vary significantly from one country to another. Some regions may experience prolonged dry conditions and elevated temperatures, while others could face heavier rainfall or an increased risk of flooding.
Researchers will continue tracking oceanic and atmospheric conditions over the coming months to determine how the current event evolves. Although forecasts indicate that El Niño should weaken after reaching its seasonal peak, scientists emphasize that ongoing monitoring remains essential as global climate variability and long-term warming continue to influence weather patterns worldwide.
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