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The strategy to install Borexino's Thermal Monitoring and Management System(BTMMS) successfully stabilized the thermal environment inside the Borexinoneutrino observatory, which is understood to be a necessary step to improve andminimize radioactive background contamination inside the active volume of thedetector, allowing for it to achieve better sensitivity in the regions ofinterest. Two-dimensional numerical simulations to achieve a properunderstanding of Borexino's fluid-dynamics were developed and optimized fordifferent regions and periods of interest, focusing on the most criticaleffects that were identified as influencing background concentrations.Literature experimental case studies were reproduced to benchmark the methodand settings, and a Borexino-specific benchmark was constructed in order tovalidate the model's thermal transport. Finally, fully-convective models wereimplemented to understand general and specific fluid motions impacting theactive detector volume.

Fluid-dynamics in the Borexino Neutrino Detector: behavior of a  pseudo-stably-stratified, near-equilibrium closed system under asymmetrical,  changing boundary conditions