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What is JoVE Visualize?

  1. Home
  2. Research Domains
  • Earth Sciences
  • Atmospheric Sciences
  • Adverse Weather Events
  • Adverse weather events

    AI-categorized content indicator

    Adverse weather events research encompass severe atmospheric phenomena such as hurricanes, tornadoes, floods, and droughts that significantly impact ecosystems and human communities. This research field focuses on understanding the causes, patterns, and consequences of these events, often framed within the broader atmospheric sciences category. Researchers and students benefit from JoVE Visualize by accessing peer-reviewed articles paired with JoVE’s experiment videos, offering a comprehensive view of the latest methodologies and findings related to extreme weather events around the world.

    Key Methods & Emerging Trends

    Core Methods in Adverse Weather Research

    Established research methods in the study of adverse weather events include remote sensing techniques, climate modeling, and atmospheric data analysis. Satellite imagery and radar are widely used to monitor and track extreme weather events in the last 10 years, providing valuable spatial and temporal information. Numerical weather prediction models simulate severe weather patterns, supporting forecasts and retrospective analyses of extreme weather examples. Field observations and climatological records also play an essential role in identifying trends and validating models within this evolving research domain.

    Emerging Techniques and Innovations

    Innovative approaches are enhancing the understanding of adverse weather events today by integrating machine learning, high-resolution climate simulations, and advanced sensor technology. Data-driven techniques help identify subtle patterns in complex atmospheric data, improving forecasts of extreme weather events in history and future scenarios. Additionally, interdisciplinary integration with socioeconomic impact studies is growing, aiding in the development of better mitigation and adaptation strategies. These emerging methods reflect the field’s expanding scope and the importance of comprehensive data interpretation.

    Recently Published Articles

    |April 9, 2026

    Combined endovascular and surgical management of acute superior mesenteric artery embolism complicated by intestinal necrosis: a case report

    Yanyan Liu, Gai Zhou, Jie Ying, Daoming Yan, Jianxin Ge, Zonghang Liu, Rongjia Zhang, Jianming Sun

    |April 8, 2026

    Slow Symptom Resolution of Acute Altitude Illness Upon Rapid Descent

    Adam D Hill

    |April 7, 2026

    Spatially divided outlier removal for LiDAR de-noising in adverse weather conditions

    Sangkyu Shin, Jaehan Joo, Hunyoul Lee, Suk Chan Kim

    |March 31, 2026

    Density clustering based fast and stable satellite selection for LEO navigation

    Zi Lu, Shangyue Zhang, Yuming Wang, Junting Xiong, Rui Zhao

    |March 28, 2026

    Categorization of Jammers for Spaceborne SAR Systems

    Martin Chiari, Thomas Jagdhuber, Rainer Speck, Madhu Chandra

    |March 27, 2026

    Diverse Properties of Electron Forbush Decreases Revealed by the Dark Matter Particle Explorer

    F Alemanno, Q An, P Azzarello, F C T Barbato, P Bernardini, X J Bi, H Boutin, I Cagnoli, M S Cai, E Casilli, J Chang, D Y Chen, J L Chen, Z F Chen, Z X Chen, P Coppin, M Y Cui, T S Cui, I De Mitri, F de Palma, A Di Giovanni, T K Dong, Z X Dong, G Donvito, J L Duan, K K Duan, R R Fan, Y Z Fan, F Fang, K Fang, C Q Feng, L Feng, S Fogliacco, J M Frieden, P Fusco, M Gao, F Gargano, E Ghose, K Gong, Y Z Gong, D Y Guo, J H Guo, S X Han, Y M Hu, G S Huang, X Y Huang, Y Y Huang, M Ionica, L Y Jiang, W Jiang, Y Z Jiang, J Kong, A Kotenko, D Kyratzis, S J Lei, B Li, W L Li, W H Li, X Li, X Q Li, Y M Liang, C M Liu, H Liu, J Liu, S B Liu, Y Liu, F Loparco, M Ma, P X Ma, T Ma, X Y Ma, G Marsella, M N Mazziotta, D Mo, Y Nie, X Y Niu, A Parenti, W X Peng, X Y Peng, C Perrina, E Putti-Garcia, R Qiao, J N Rao, Y Rong, A Ruina, R Sarkar, P Savina, Z Shangguan, W H Shen, Z Q Shen, Z T Shen, L Silveri, J X Song, M Stolpovskiy, H Su, M Su, H R Sun, Z Y Sun, A Surdo, X J Teng, A Tykhonov, G F Wang, J Z Wang, L G Wang, S Wang, X L Wang, Y F Wang, D M Wei, J J Wei, Y F Wei, D Wu, J Wu, S S Wu, X Wu, Z Q Xia, Z Xiong, E H Xu, H T Xu, J Xu, Z H Xu, Z Z Xu, Z L Xu, G F Xue, M Y Yan, H B Yang, P Yang, Y Q Yang, H J Yao, Y H Yu, Q Yuan, C Yue, J J Zang, S X Zhang, W Z Zhang, Yan Zhang, Y P Zhang, Yi Zhang, Y J Zhang, Y Q Zhang, Y L Zhang, Z Zhang, Z Y Zhang, C Zhao, H Y Zhao, X F Zhao, C Y Zhou, X Zhu, Y Zhu, X Luo

    |March 27, 2026

    Protein Marker ST2 and Myocardial Mapping of Cosmonauts After Spaceflight

    Anna G Goncharova, Ludmila H Pastushkova, Elena S Luchitskaya, Daria N Kashirina, Andrey M Nosovsky, Igor N Goncharov, Kirill S Kireev, Irina M Larina

    |March 25, 2026

    Gaps and ways forward in atmospheric blocking and extreme weather research

    Lei Wang, Jian Lu, Melissa L Breeden, Gang Chen, Stephanie A Henderson, Veeshan Narinesingh, Isla R Simpson, Tim Woollings, Yanjun Hu, Sandro W Lubis

    Pageof 700