Neelameggham, Davis
As today's world increasingly shifts towards anthropogenic alternative energy sources, understanding the fate of generated and dissipated energy is crucial. The objective of this study is to address the implications of thermal waste associated with new energy conversions necessary for electricity, heating, and other processes, which leads to climatic changes due to excess precipitation. A convective model is employed to analyze the storage of thermal waste in the atmosphere and its relationship with atmospheric air mass dynamics. Results indicate that variations in evapotranspiration significantly influence climate change, suggesting that the rise in global mean temperatures is directly linked to increased thermal waste from a growing global population. This model also accommodates sinusoidal variances in solar influx, underscoring the adaptiveness of excess precipitation outcomes to varying temperature assumptions ranging from minimal to substantial increases. The findings contribute to a nuanced understanding of how renewable energy expansion may alter atmospheric conditions and climate dynamics in the future.
@article{aabe8518-9172-4d81-9197-0332b436a9cf,
title={Twenty first century global anthropogeni},
author={Neelameggham and Davis},
year={2026},
language={en}
}TY - JOUR TI - Twenty first century global anthropogeni AU - Neelameggham AU - Davis PY - 2026 LA - en ER -
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