Investigating Boiling Heat Transfer in Extreme Environments from the Deep Sea to Outer Space

The Adaptive Thermal Exchange Algorithm (ATEA) is a revolutionary approach to transfer the most heated heat across hard conditions like the deepest ocean or the empty space between the stars. ATEA uses deep-sea adaptation and space resilience optimization to improve performance, durability, and adaptability. ATEA can modify heat flow on the fly, making it useful in many weather situations. For durability, material qualities vary constantly. This ensures spacecraft parts are robust under harsh environments. ATEA alters cooking parameters in real time based on environmental feedback, making it unique. The study compares ATEA to traditional approaches using efficiency, lifespan, and adaptability. The data demonstrate that ATEA works better, changing how individuals handle difficult situations. ATEA might revolutionize space and deep-sea research, as shown by this paper. This study explains how boiling heat flows in tough conditions and provides a meaningful response that other approaches cannot. Environmental science, marine biology, and aviation engineering benefit from the discoveries.

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Publication Details

Published
2024-12-06
DOI
https://doi.org/10.1109/ihcsp63227.2024.10960244
Primary Topic
Spacecraft and Cryogenic Technologies
Type
article
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article

Investigating Boiling Heat Transfer in Extreme Environments from the Deep Sea to Outer Space

N. Thangarasu, Gopalakrishna V Gaonkar, Deepak Sharma, Santosh Kumar et al.
Spacecraft and Cryogenic Technologies
article

Investigating Boiling Heat Transfer in Extreme Environments from the Deep Sea to Outer Space

N. Thangarasu, Gopalakrishna V Gaonkar, Deepak Sharma, Santosh Kumar, Vibhor Mahajan, Banda Snv Ramanamurthy
article en

Abstract

The Adaptive Thermal Exchange Algorithm (ATEA) is a revolutionary approach to transfer the most heated heat across hard conditions like the deepest ocean or the empty space between the stars. ATEA uses deep-sea adaptation and space resilience optimization to improve performance, durability, and adaptability. ATEA can modify heat flow on the fly, making it useful in many weather situations. For durability, material qualities vary constantly. This ensures spacecraft parts are robust under harsh environments. ATEA alters cooking parameters in real time based on environmental feedback, making it unique. The study compares ATEA to traditional approaches using efficiency, lifespan, and adaptability. The data demonstrate that ATEA works better, changing how individuals handle difficult situations. ATEA might revolutionize space and deep-sea research, as shown by this paper. This study explains how boiling heat flows in tough conditions and provides a meaningful response that other approaches cannot. Environmental science, marine biology, and aviation engineering benefit from the discoveries.

Jain University (IN), Aditya Birla (India) (IN), Karpagam Academy of Higher Education (IN), Chitkara University (IN)
Life below water
Openalex Percentile: Top 52%
Spacecraft and Cryogenic Technologies
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Investigating Boiling Heat Transfer in Extreme Environments from the Deep Sea to Outer Space — N. Thangarasu, Gopalakrishna V Gaonkar, et al. · (2024) | TGRS Research Map | TGRS