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Dipanjan Dey's articles predominantly feature "how-to" guides, with a strong focus on video games and gaming-related topics such as Fortnite, LEGO, Disney Dreamlight Valley, and Baldur's Gate 3.
If you have expertise in creating engaging how-to content related to these specific games or the broader gaming community, Dipanjan may be interested in collaborating with you for future articles. Additionally, if your company offers products or services relevant to gaming deals and promotions that would resonate with his audience, it could be worth reaching out.
Given the nature of his coverage attributes and themes covered, providing step-by-step guides or unique insights into the gameplay mechanics of popular titles like Fortnite or Baldur's Gate 3 could capture Dipanjan’s attention.
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By: Dipanjan Dey, Priyanka Saha, Kaushik Bhattacharya
Priyanka Saha Dipanjan Dey and Kaushik Bhattacharya Department of Physics, Indian Institute of Technology, Kanpur, 208016, Kanpur, India
By: Dipanjan Dey, Imme Benedict, Albenis Pérez-Alarcón, Raquel Nieto, Akash Koppa, Luis Gimeno, Chris Weijenborg, Marina Duetsch, Damián Insua-Costa, Andrea S. Taschetto, Peter Kalverla, Arie Staal, Rein Haarsma, Iris Thurnherr, Jessica Keune, Ru Xu
Extreme precipitation events can have severe impacts on society and the environment. Understanding what causes these events is a vital step towards better prediction and improved disaster preparedness. One research direction, is to answer the question: Where did the moisture that rained here come from? The moisture sources for precipitation (i.e., where the moisture originally evaporated) cannot be measured directly and, therefore, a variety of different moisture tracking methods have been developed and evolved over time. To better understand the uncertainty of these methods, we unite the community to advance common understanding and guidelines. As the first step, in this study, we quantify moisture sources of three extreme precipitation events, using methods obtained from 14 different research groups. These three events cover different meteorological conditions: monsoon precipitation in Pakistan, convective precipitation in Australia, and atmospheric river-associated precipitation over Scotland. We find that for the three cases the different moisture tracking methods qualitatively agree in moisture source patterns, but there are regional and quantitative differences. For example, for the Pakistan case, the recycling ratio shows a multi-method spread of 2-20%. We also find similar behavior across methods for the three different events, where methods consistently show either more recycling or more sources further away from the precipitation region. This coordinated model intercomparison facilitates the explanation and quantification of uncertainty, acting as a point of reference and inspiration for future work and literature on moisture tracking.
