<p>Many technical and industrial applications employ jet impingement heat transfer (HT). Heat exchangers, turbine blade cooling, electronic component cooling, cooling of combustion chambers, paper drying applications, textile industries, food industry, pharmaceuticals, glass and polymer tempering processing, and laser material processing are all examples of where impinging jets are employed. These applications leverage efficient HT capabilities of jet impingement to enhance performance and energy efficiency. By optimizing design and operation of impinging jets, industries can achieve significant improvements in temperature control and product quality. The influence of nozzle inclination and nozzle spacing distances on HT is discovered to have a significant impact. The goal of this study is to investigate convective HT behavior of turbulent jet impingement at various inclination degrees and nozzle-to-nozzle separation distances. This study can be used to cool electrical equipment as well as automotive parts. By adopting a precise inclination angle and a specified nozzle-to-nozzle spacing, rate of HT can be increased.</p>

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Enhancing heat transfer efficiency: a thorough review on liquid jet impingement, nozzle inclination, and separation

  • Sonali Anant Deshmukh,
  • Praveen Barmavatu,
  • Jatoth Heeraman

摘要

Many technical and industrial applications employ jet impingement heat transfer (HT). Heat exchangers, turbine blade cooling, electronic component cooling, cooling of combustion chambers, paper drying applications, textile industries, food industry, pharmaceuticals, glass and polymer tempering processing, and laser material processing are all examples of where impinging jets are employed. These applications leverage efficient HT capabilities of jet impingement to enhance performance and energy efficiency. By optimizing design and operation of impinging jets, industries can achieve significant improvements in temperature control and product quality. The influence of nozzle inclination and nozzle spacing distances on HT is discovered to have a significant impact. The goal of this study is to investigate convective HT behavior of turbulent jet impingement at various inclination degrees and nozzle-to-nozzle separation distances. This study can be used to cool electrical equipment as well as automotive parts. By adopting a precise inclination angle and a specified nozzle-to-nozzle spacing, rate of HT can be increased.