2018
DOI: 10.2298/ciceq170123015m
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Effect of IR intensity and air temperature on exergy and energy at hybrid infrared-hot air dryer

Abstract: Article Highlights • Increasing IR radiation intensity caused improvement in energy and exergy efficiencies • Highest energy and exergy efficiency values were 13.50 and 62.26%, respectively • The lowest energy and exergy efficiencies were 3.95% and 20.37%, respectively

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Cited by 23 publications
(15 citation statements)
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References 27 publications
(42 reference statements)
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“…Since at the final stage of the process, the initial moisture content of the material was below the critical moisture content, the effect of external variables was of reduced importance as the drying rate was governed by the rate of internal moisture movement. The same results were true for the drying of mushroom slices, [48] dog-rose, [51] Kodo millet grains and Fenugreek seeds, [43] and potato cubes. [28] 3.8.…”
Section: Relationship Between Energy and Exergysupporting
confidence: 68%
“…Since at the final stage of the process, the initial moisture content of the material was below the critical moisture content, the effect of external variables was of reduced importance as the drying rate was governed by the rate of internal moisture movement. The same results were true for the drying of mushroom slices, [48] dog-rose, [51] Kodo millet grains and Fenugreek seeds, [43] and potato cubes. [28] 3.8.…”
Section: Relationship Between Energy and Exergysupporting
confidence: 68%
“…The total specific energy consumption for convection dryer at different air temperatures and velocity levels was obtained using Equation 9 (Motevali, Jafari, & Hashemi, 2018; Onwude, Hashim, Abdan, Janius, & Chen, ): SECcon=A×v×Cpa×ρnormala×ΔT×tmvcon where, ρ a was calculated using other researchers (Motevali et al, ): ρa=101.3250.287T where, SEC con is specific energy consumption for convection (kW hr/kg), A is cross‐sectional area of the sample tray (m 2 ), v is air velocity (m/s), ρ a is density of air (kg/m 3 ), C pa is the specific heat capacity of air (i.e., 1.00504 kJ/kg K) (Onwude et al, ), Δ T is the temperature difference between drying air and ambient air, t is the drying time (hr), mvcon is total moisture removed by drying (kg).…”
Section: Methodsmentioning
confidence: 99%
“…The total specific energy consumption for convection dryer at different air temperatures and velocity levels was obtained using Equation 9 (Motevali, Jafari, & Hashemi, 2018;Onwude, Hashim, Abdan, Janius, & Chen, 2018):…”
Section: Determination Of Specific Energy Consumptionmentioning
confidence: 99%
“…The mechanical energy consumed by the blower was obtained using Equation (15) (Motevali, Jafari, & Hashemi, ):EUitalicmec=ΔP.Mitalicair.t…”
Section: Methodsmentioning
confidence: 99%