Selimefendigil F.Şirin C.Ghachem K.Kolsi L.2024-07-222024-07-22202213594311http://akademikarsiv.cbu.edu.tr:4000/handle/123456789/12453In this study, influences of integrating nanoparticles into paraffin-based latent heat thermal energy storage system on the thermal and drying behaviors of a greenhouse dryer have been analyzed. The major goal of this survey is improving the drying performance of a greenhouse dryer by employing nano-embedded latent heat storage unit. In this regard, two even-span greenhouse dryers have been produced and modified with paraffin-based and Al2O3 nano-embedded paraffin-based thermal energy storage units. Tests have been conducted at two flow rates that are 0.010 kg/s and 0.016 kg/s. According to the findings, average specific moisture extraction rates for the systems with and without nanoparticles were attained between 1.01 and 1.37 and 0.83–1.20 kg/kWh, respectively. Average exergy efficiency metrics were found as 3.45% and 2.74%, respectively in the test done at 0.016 kg/s flow rate for the greenhouse dryers with and without nanoparticles. These values were found as 3.01% and 2.40%, respectively in the test conducted at 0.010 kg/s. In addition, energy payback time, mean annual CO2 emission and net CO2 mitigation in lifetime values were obtained between 2.34 and 2.92 years, 33.04–34.28 kg/year and 8.45–9.08 tons, respectively. Results indicated the successful utilization of Al2O3 nanoparticle-embedded latent heat storage unit in a greenhouse dryer. © 2022 Elsevier LtdEnglishAluminaCarbon dioxideDryers (equipment)DryingExergyGreenhousesHeat storageLatent heatNanoparticlesParaffinsThermal energyDrying behavioursEnvironmental analysisExergy AnalysisGreenhouse dryerLatent heat storage unitsLatent heat thermal energy storage systemsLatent heat thermal storageThermal behavioursThermal energy storageThermal storage systemAluminum oxideExergy and environmental analysis of an active greenhouse dryer with Al2O3 nano-embedded latent heat thermal storage system: An experimental studyArticle10.1016/j.applthermaleng.2022.119167