More Clouds, More Warmth? Understanding Cloud Feedbacks in the Arctic - Ravie
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Most of the time, the transport of aerosol to the Arctic is strongly limited by the ther-modynamic condition of the air preventing a mixing of the Arctic and mid-latitudinal air. At the polar dome, the isentropes (surfaces of constant potential temperature) tend to not cross into the Arctic in the lower troposphere, but are instead forming a dome like structure, which suppresses the exchange of air. The reason is that an adiabatic lifting occurs along these surfaces, instead of a mixing with the denser cold air closer to the earth's surface (Barrie 1986; Stohl 2006). Isentropic mixing can…mehr

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Produktbeschreibung
Most of the time, the transport of aerosol to the Arctic is strongly limited by the ther-modynamic condition of the air preventing a mixing of the Arctic and mid-latitudinal air. At the polar dome, the isentropes (surfaces of constant potential temperature) tend to not cross into the Arctic in the lower troposphere, but are instead forming a dome like structure, which suppresses the exchange of air. The reason is that an adiabatic lifting occurs along these surfaces, instead of a mixing with the denser cold air closer to the earth's surface (Barrie 1986; Stohl 2006). Isentropic mixing can occur in the presence of cloud formation, radiative heating or turbulence, all of which are not, or a minor factor in Arctic winter. This barrier of air masses is also often referred to as the Arctic front (Quinn et al. 2015). Its position at the surface is sketched in Figure 1.4 as blue and orange lines, for winter and summer, respectively. The dome structure of lines of same potential temperatures is indicated by the dashed lines for summer only, but is not to scale in its vertical extent.
Autorenporträt
Professor Dr. Ravie is a visionary computer scientist with a distinguished career dedicated to bridging the gap between theoretical concepts and practical applications. Their particular passion lies in unlocking the immense potential of game theory, a branch of mathematics that analyzes strategic decision-making, within the realm of computer science. "Beyond Economics: Game Theory for the Computer Scientist" represents Professor Dr. Ravie's culmination of years spent researching, developing, and advocating for the transformative power of game theory in computer science. Professor Dr. Ravie meticulously deconstructs the core principles of game theory, moving beyond its traditional application in economics and highlighting its remarkable relevance to various computer science disciplines. Professor Dr. Ravie's passion extends beyond theoretical exploration. They are a strong proponent of empowering computer scientists to leverage game theory in designing intelligent systems. Professor Dr. Ravie actively collaborates with researchers and developers to explore how game theory can be applied in areas like artificial intelligence, multi-agent systems, network security, and algorithmic design. Their writing is known for its clarity and depth, effectively translating complex mathematical concepts into a practical framework that computer scientists can readily implement. In "Beyond Economics," Professor Dr. Ravie embarks on a stimulating intellectual journey. They delve into the multifaceted applications of game theory in computer science, showcase real-world examples of its impact on cutting-edge technologies, and equip readers with the knowledge and tools to harness this powerful framework for developing more intelligent, strategic, and efficient computational systems. Professor Dr. Ravie's insightful analysis positions game theory as a vital tool for the modern computer scientist, shaping the future of artificial intelligence and the ever-evolving landscape of computing.