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Review of Thermodynamic Effect on Atmosphere

Suryansh Sarin

Abstract


The study of heat-to-work transitions that occur in the earth's atmosphere and manifest as weather or climate is known as atmospheric thermodynamics. The laws of classical thermodynamics are used in atmospheric thermodynamics to describe and explain phenomena such as moist air characteristics, cloud formation, atmospheric convection, boundary layer meteorology, and vertical instabilities in the atmosphere. Thermodynamics is more specifically concerned with the conversions of energy into mechanical energy and mechanical power to heat. A system is a discrete piece of matter. A parcel of air is a system in the atmosphere. When a system exchanges matter and energy with its surroundings, it is said to be open. All systems in the atmosphere are more or less open. A closed - loop system is one in which no matter is exchanged with its environment. The system in this situation is always made up of the same point masses. A very small item, such as a molecule, is referred to as a spot. Closed systems do not require as much mathematical treatment as open systems, that are highly difficult to handle. As a result, most systems in atmospheric thermodynamics are assumed to be closed. Once the connections related to air systems can be ignored, this assumption is justified. In the following circumstances, this is roughly correct. At the limits, the system is vast enough just to neglect mixing with its surrounds. A huge cumulonimbus cloud, for like, may be regarded a closed system, yet a small cumulus cloud may not. The system is a component of a larger, homogeneous whole. In this scenario, mixing has no significant effect on the composition. When a system does not interchange matter or energy with its surroundings, it is referred to as isolated.


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