An experimental study has been carried out to enhance a solar air heater’s performance by integrating artificial roughness through baffles on the absorber plate. In this paper, the thermal and energy matrices analysis of a Solar Air Heater (SAH) roughened with V up perforated baffles have been investigated. The effect of various mass flow rates on the SAH was analyzed with and without baffles. Experimental outputs like outlet air temperature, useful energy (heat) gain and thermal efficiency were evaluated to confirm the performance improvement. The baffled absorber plate SAH was found to give the maximum thermal efficiency and useful energy gain of 89.3% and 1321.37 W at a mass flow rate of 0.0346 kg/s, 13% and 12% higher than SAH without baffle. This result showed that the V up-shaped ribs in flow arrangement provide better thermal performance than smooth plate SAH for the parameter investigated. Energy matrices analysis and carbon dioxide mitigation of the SAH system were also analyzed.
BakryAIEl-SamadonyYAFEl-AgouzSA, et al.
Performance of the one-ended evacuated tubes as medium-temperature solar air heaters at low flow rates. Sustain Energy Technol Assess2018;
30: 174–182.
2.
VelmuruganPKalaivananR.Energy and exergy analysis of solar air heaters with varied geometries. Arab J Sci Eng2015;
40: 1173–1186.
3.
LuanNTPhuNM.Thermohydraulic correlations and exergy analysis of a solar air heater duct with inclined baffles. Case Stud Therm Eng2020;
21: 100672.
4.
BensaciC-EMoummiASanchez de la FlorFJ, et al.
Numerical and experimental study of the heat transfer and hydraulic performance of solar air heaters with different baffle positions. Renew Energy2020;
155: 1231–1244.
5.
NidhulKYadavAKAnishS, et al.
The efficient design of an artificially roughened solar air heater with semi-cylindrical side walls: CFD and exergy analysis. Solar Energy2020;
207: 289–304.
6.
HassanHS. YousefMAbo-ElfadlS.Energy, exergy, economic and environmental assessment of double pass V-corrugated-perforated finned solar air heater at different air mass ratios. Sustain Energy Technol Assess2021;
43: 100936.
7.
PatelSSLanjewarA.Experimental analysis for augmentation of heat transfer in multiple discrete V patterns combined with staggered ribs solar air heater. Renew Energy Focus2018;
25: 31–39.
8.
SharmaSKKalamkarVR.Experimental and numerical investigation of forced convective heat transfer in solar air heater with thin ribs. Solar Energy2017;
147: 277–291.
9.
PoongavanamGKPanchabikesanKDeeyokoLAJ, et al.
Experimental investigation on heat transfer augmentation of solar air heater using shot blasted V-corrugated absorber plate. Renew Energy2018;
127: 213–229.
10.
KumarKPrajapatiDRSamirS.Heat transfer and friction factor correlations development for solar air heater duct artificially roughened with ‘S’ shape ribs. Exp Therm Fluid Sci2017;
82: 249–261.
11.
BehuraAKPrasadBNPrasadL.Heat transfer, friction factor and thermal performance of three sides artificially roughened solar air heaters. Solar Energy2016;
130: 46–59.
12.
HansVSGillRSSinghS.Heat transfer and friction factor correlations for a solar air heater duct roughened artificially with broken arc ribs. Exp Therm Fluid Sci2017;
80: 77–89.
13.
MaithaniRSainiJS.Heat transfer and friction factor correlations for a solar air heater duct roughened artificially with V-ribs with symmetrical gaps. Exp Therm Fluid Sci2016;
70: 220–227.
14.
SainiRPVermaJ.Heat transfer and friction factor correlations for a duct having dimple-shape artificial roughness for solar air heaters. Energy2008;
33: 1277–1287.
15.
HassanHAbo-ElfadlS.Experimental study on the performance of double pass and two inlet ports solar air heater (SAH) at different configurations of the absorber plate. Renew Energy2018;
116: 728–740.
16.
SinghAPSinghOP.Performance enhancement of a curved solar air heater using CFD. Sol Energy2018;
174: 556–569.
17.
MahmoodAJAldabbaghLBYEgeliogluF.Investigation of single and double-pass solar air heater with transverse fins and a package wire mesh layer. Energy Convers Manag2015;
89: 599–607.
18.
SivakumarSSivaKMohanrajM.Experimental thermodynamic analysis of a forced convection solar air heater using absorber plate with pin-fins. J Therm Anal Calorim2019;
136: 39–47.
19.
BayrakFOztopHFHepbasliA.Energy and exergy analyses of porous baffles inserted solar air heaters for building applications. Energy Build2013;
57: 338–345.
20.
PfisterHTylerKRSungW.A novel gridded solar air heater and an investigation of its conversion efficiency. Sol Energy2016;
136: 560–570.
21.
AldabbaghLBYEgeliogluFIlkanM.Single and double-pass solar air heaters with wire mesh as packing bed. Energy2010;
35: 3783–3787.
22.
AbdullahASAbou Al-SoodMMOmaraZM, et al.
Performance evaluation of a new counter flow double pass solar air heater with turbulators. Sol Energy2018;
173: 398–406.
23.
PramanikRNSahooSSSwainRK, et al.
Performance analysis of double pass solar air heater with bottom extended surface. Energy Proc2017;
109: 331–337.
24.
AkpinarEKKoçyiğitF.Experimental investigation of thermal performance of solar air heater having different obstacles on absorber plates. Int Comm Heat Mass Transf2010;
37: 416–421.
25.
BenliH.Experimentally derived efficiency and exergy analysis of a new solar air heater having different surface shapes. Renew Energy2013;
50: 58–67.
26.
KulkarniKKimKY.Comparative study of solar air heater performance with various shapes and configurations of obstacles. Heat Mass Transf2016;
12: 2795–2811.
27.
El-SebaiiAAAboul-EneinSRamadanMRI, et al.
Thermal performance investigation of double pass-finned plate solar air heater. Appl Energy2011;
88: 1727–1739.
28.
SabzpooshaniMMohammadiKKhorasanizadehH.Exergetic performance evaluation of a single pass baffled solar air heater. Energy2014;
64: 697–706.
29.
SainiRPSainiJS.A review of thermohydraulic performance of artificially roughened solar air heaters. Renew Sustain Energy Rev2014;
37: 100–122.
30.
TangRWuT.Optimal tilt-angles for solar collectors used in China. Appl Energy2004;
79: 239–248.
31.
NowzariRMirzaeiNAldabbaghLBY.Finding the best configuration for a solar air heater by design and analysis of experiment. Energy Convers Manag2015;
100: 131–137.
32.
MzadHBeyKKhelifR.Investigative study of the thermal performance of a trial solar air heater. Case Studies Therm Eng2019;
13: 100373.
33.
SinghDBTiwariGN.Effect of energy matrices on life cycle cost analysis of partially covered photovoltaic compound parabolic concentrator collector active solar distillation system. Desalination2016;
397: 75–91.
34.
RajputPSinghYKTiwariGN, et al.
Life cycle assessment of the 3.2 kW cadmium telluride (CdTe) photovoltaicsystem in composite climate of India. Solar Energy2018;
159: 415–422.
35.
MoffatRJ.Describing the uncertainties in experimental results. Exp Therm Fluid Sci1988;
1: 3–17.
36.
KarthickAMurugavelKKRamananP.Performance enhancement of a building-integrated photovoltaic module using phase change material. Energy2018;
142: 803–812.
37.
KarthickAMurugavelKKGhoshA, et al.
Investigation of a binary eutectic mixture of phase change material for building integrated photovoltaic (BIPV) system. Solar Energy Mater Solar Cell2020;
207: 110360.
38.
SawhneyJSMaithaniRChamoliS.Experimental investigation of heat transfer and friction factor characteristics of solar air heater using wavy delta winglets. Appl Therm Eng2017;
117: 740–751.
39.
HassanHAbo-ElfadlSEl-DosokyMF.An experimental investigation of the performance of new design of solar air heater (tubular). Renew Energy2020;
151: 1055–1066.
40.
MuraliGSundariATMRavitejaS, et al.
Experimental study of thermal performance of solar aluminium cane air heater with and without fins. Mater Today Proc2020;
21: 223–230.
41.
NowzariRAldabbaghLBYEgeliogluF.Single and double pass solar air heaters with partially perforated cover and packed mesh. Energy2014;
73: 694–702.
42.
MesutA.Energy and exergy analysis of solar air heater having new design absorber plate with conical surface. Appl Therm Eng2018;
131: 115–124.
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