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How does water depth impact temperature? 


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Water depth plays a crucial role in influencing temperature variations in different environments. In the oceanic crust, hydrothermal vent temperatures are expected to follow the boiling curve as water depth increases, with fluid discharge focused on vertical structures on the seafloor . Additionally, the impact of water depth on temperature is evident in plant studies, where deep water can lead to higher tiller mortality and unbalanced growth ratios, while shallow water supports better physiological and morphological performance of seedlings, especially in coping with high temperatures . Moreover, in dosimetry for photon beams, water temperature affects absolute dose calibration, with dose variations observed at different temperatures during measurements, indicating the need for correction factors to account for these fluctuations .

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Water depth does not directly impact temperature in the study. The research focuses on how water temperature affects absolute dose calibration of photon beams in a water tank.
Water depth affects temperature variation in rice fields; shallow water maintains stability, while deep water shows fluctuations. Deep water can lead to higher tiller mortality and unbalanced plant growth.
Water depth impacts hydrothermal vent temperatures; as depth increases, vent temperatures are expected to follow the boiling curve, but mixing with cold seawater near the seafloor can cause deviations.
Water depth impacts temperature by varying up to 10 cm, stabilizing below this depth. Deep water affects rice seedlings negatively under high temperature, while shallow water promotes better growth.
Water depth impacts temperature by influencing sound speed profiles crucial for underwater acoustics. AUV-collected data at various depths enhances accuracy in reconstructing full-depth temperature profiles.

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