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Published on: October 28, 2022
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Statistical modeling of maximum temperature in Guinea.
Malick Kebe1, Saralees Nadarajah2
1Department of Mathematics, Howard University, Washington DC 20051, USA.
Anais Da Academia Brasileira De Ciencias
|May 29, 2024
Summary
Maximum temperature trends in Guinea were analyzed using the Generalized Extreme Value distribution. Four weather stations showed significant positive temperature increases, indicating potential climate change impacts.
Area of Science:
- Climatology
- Statistical Analysis
- Extreme Value Theory
Background:
- Understanding regional temperature variations is crucial for climate change impact assessments.
- Extreme value analysis provides a robust framework for studying climate extremes.
Purpose of the Study:
- To statistically analyze maximum temperature data from twelve weather stations in Guinea.
- To assess trends and estimate return levels of maximum temperatures.
- To apply the Generalized Extreme Value distribution to model temperature extremes.
Main Methods:
- Maximum likelihood estimation was employed to fit the Generalized Extreme Value distribution.
- The Generalized Extreme Value distribution was used to model maximum temperature data.
- Statistical significance testing was performed to identify trends.
Main Results:
- The Generalized Extreme Value distribution adequately fit the maximum temperature data from all twelve stations.
- Significant positive trends in maximum temperature were detected at four of the twelve stations.
- Return level estimates for maximum temperatures were calculated.
Conclusions:
- Maximum temperature data in parts of Guinea can be effectively modeled using the Generalized Extreme Value distribution.
- A subset of stations exhibits statistically significant increasing trends in maximum temperatures.
- These findings contribute to understanding regional climate variability and potential warming in Guinea.
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