<p>The present research investigates and evaluates the performance of a dual-passage solar thermal air collector integrated with a staggered turbulator&#xa0;configuration using an analytical approach. Based on an analysis of energy and exergy, the impact of the staggered turbulator geometrical parameters on the dual-passage solar thermal air collector performance is evaluated analytically, and the findings have been compared with a traditional smooth plate. The current investigation analytically assesses the exergetic, effective, and thermal efficiencies of a dual-passage solar thermal air collector roughened with&#xa0;single V-shaped staggered baffles. A parametric design and temperature rise parameter are used to assess these efficiencies in order to accurately forecast the dual-passage solar thermal air collector energy consumption. Economic analysis, environmental analysis, enviroeconomic analysis, exergoeconomic analysis, exergoenvironmental analysis, and sustainability index are also examined by energetic and exergetic analytical research results. In accordance with the dual-passage solar thermal air collector system’s economic evaluation, the energy cost is determined to be 0.077 USD kWh<sup>−1</sup>. The exergoeconomic&#xa0;and exergoenvironmental&#xa0;parameters are calculated to be 0.1716 kWh USD<sup>−1</sup> and 0.5305&#xa0;tons of CO<sub>2</sub> over its life cycle. According to the enviroeconomic and environmental analysis, the dual-passage solar thermal air collector can mitigate 39.95 tons of CO<sub>2</sub> over its life cycle (10&#xa0;years), and the amount of earned carbon credit obtained is 579.27 USD.</p>

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7E analysis and sustainability evaluation of dual-passage solar thermal air collector with staggered turbulators

  • Abhishek Thakur,
  • Sashank Thapa,
  • Tej Singh,
  • Raj Kumar,
  • Daeho Lee,
  • Hüseyin Bakır,
  • Ümit Ağbulut

摘要

The present research investigates and evaluates the performance of a dual-passage solar thermal air collector integrated with a staggered turbulator configuration using an analytical approach. Based on an analysis of energy and exergy, the impact of the staggered turbulator geometrical parameters on the dual-passage solar thermal air collector performance is evaluated analytically, and the findings have been compared with a traditional smooth plate. The current investigation analytically assesses the exergetic, effective, and thermal efficiencies of a dual-passage solar thermal air collector roughened with single V-shaped staggered baffles. A parametric design and temperature rise parameter are used to assess these efficiencies in order to accurately forecast the dual-passage solar thermal air collector energy consumption. Economic analysis, environmental analysis, enviroeconomic analysis, exergoeconomic analysis, exergoenvironmental analysis, and sustainability index are also examined by energetic and exergetic analytical research results. In accordance with the dual-passage solar thermal air collector system’s economic evaluation, the energy cost is determined to be 0.077 USD kWh−1. The exergoeconomic and exergoenvironmental parameters are calculated to be 0.1716 kWh USD−1 and 0.5305 tons of CO2 over its life cycle. According to the enviroeconomic and environmental analysis, the dual-passage solar thermal air collector can mitigate 39.95 tons of CO2 over its life cycle (10 years), and the amount of earned carbon credit obtained is 579.27 USD.