Paper Title
ANALYTICAL MODELING AND SIMULATION OF HEAT TRANSFER IN COMPACT HEAT EXCHANGERS WITH NANOFLUIDSAbstract
Colloidal suspensions of antiparticles in a base fluid such as water, oil, or ethylene glycol are what we call nanoseconds. These intelligent fluids have the potential to significantly improve upon the functionality of standard HT media. By analyzing the synthesis of nanoseconds, the assessment ir thermostatically characteristics, and the heat transmission and pressure of nanoseconds in a tube under CHF condition, this study hopes to shed light on the topic of nanoseconds. In the laminar regime, we have explored three distinct nanoseconds: aluminium oxide/water, copper oxide/water, and a mixture two. Computers, car engines, and high-powered lasers are just some many goods that benefit from cooling systems. Single-phase liquid cooling techniques, such as micro-channel heat sinks, and two-phase liquid cooling techniques, such as heat pipes, thermosphere, direct immersion cooling, and spray cooling, have recently developed for chip or package level cooling. However, continuing miniaturization has increased heat loss and inherent poor thermal conductivity, which has impeded the development of energy-efficient HT fluids necessary for ultrahigh-performance cooling in subsequent product generations. As a result, the cooling challenge will intensify across a wide range of industries, from electronics and phonics to transportation, power generation, security, and healthcare.
KEYWORDS : nanostructured materials, high-powered laser, energy-efficient HT fluid, micro-channel heat sinks, HT media, aluminium oxide/water, copper oxide/water, CHF condition.
