This paper numerical study to determine the optimum design for photovoltaic thermal water collector PV/T water, pipes diameter and number of pipes by using comsol multiphasic simulation program. The simulation result indicated that the collector with 8mm inner pipe diameter and 16 pipe number have the lowest PV panel temperature and highest water out let temperature in comparison with other collectors that have been tested.The electrical and thermal efficiency was also calculated with different solar radiation of 600,700,800,900,1000W/m2 and with a different flow rate starting from 1 Lpm to 5 Lpm, the results determined that the highest electrical and thermal efficiency achieved was 14.52%,83.354% for electrical and thermal efficiency respectively, at 1000W/m2 and 5 Lpm.

1.
H.
Fayaz
,
R.
Nasrin
,
N. A.
Rahim
, and
M.
Hasanuzzaman
, “
Energy and exergy analysis of the PVT system: Effect of nanofluid flow rate
,”
Sol. Energy
, vol.
169
, no. April, pp.
217
230
, 2018, doi: .
2.
R.
Hossain
 et al, “
New Design of Solar Photovoltaic and Thermal Hybrid System for Performance Improvement of Solar Photovoltaic
,”
Int. J. Photoenergy
, vol.
2020
, no.
1
,
2020
, doi: .
3.
I.
Baklouti
and
Z.
Driss
, “
Numerical and Experimental Study of the Impact of Key Parameters on a PVT Air Collector : Mass Flow Rate and Duct Depth
,” vol.
29
,
2020
.
4.
M.
Mustapha
,
A.
Fudholi
,
C. Hoy
Yen
,
M. Hafidz
Ruslan
, and
K.
Sopian
, “
Review on Energy and Exergy Analysis of Air and Water Based Photovoltaic Thermal (PVT) Collector
,”
Int. J. Power Electron. Drive Syst.
, vol.
9
, no.
3
, p.
1367
,
2018
, doi: .
5.
H.
Fayaz
,
N. A.
Rahim
,
M.
Hasanuzzaman
,
R.
Nasrin
, and
A.
Rivai
, “
Numerical and experimental investigation of the effect of operating conditions on performance of PVT and PVT-PCM
,”
Renew. Energy
, vol.
143
, pp.
827
841
,
2019
, doi: .
6.
A. N.
Al-Shamani
,
M. A.
Alghoul
,
A. M.
Elbreki
,
A. A.
Ammar
,
A. M.
Abed
, and
K.
Sopian
, “
Mathematical and experimental evaluation of thermal and electrical efficiency of PV/T collector using different water based nano-fluids
,”
Energy
, vol.
145
, pp.
770
792
,
2018
, doi: .
7.
A.
Parthiban
,
K. S.
Reddy
,
B.
Pesala
, and
T. K.
Mallick
, “
Effects of operational and environmental parameters on the performance of a solar photovoltaic-thermal collector
,”
Energy Convers. Manag.
, vol.
205
, no. October
2019
, p.
112428
,
2020
, doi: .
8.
P.
Poredoš
,
U.
Tomc
,
N.
Petelin
,
B.
Vidrih
,
U.
Flisar
, and
A.
Kitanovski
, “
Numerical and experimental investigation of the energy and exergy performance of solar thermal, photovoltaic and photovoltaic-thermal modules based on roll-bond heat exchangers
,”
Energy Convers. Manag.
, vol.
210
, no. March, p.
112674
,
2020
, doi: .
9.
H. A.
Kazem
,
A. H. A.
Al-Waeli
,
M. T.
Chaichan
,
K. H.
Al-Waeli
,
A. B.
Al-Aasam
, and
K.
Sopian
, “
Evaluation and comparison of different flow configurations PVT systems in Oman: A numerical and experimental investigation
,”
Sol. Energy
, vol.
208
, no. February, pp.
58
88
,
2020
, doi: .
10.
A.
Fudholi
,
K.
Sopian
,
M. H.
Yazdi
,
M. H.
Ruslan
,
A.
Ibrahim
, and
H. A.
Kazem
, “
Performance analysis of photovoltaic thermal (PVT) water collectors
,”
Energy Convers. Manag.
, vol.
78
, pp.
641
651
,
2014
, doi: .
11.
S. A.
Kalogirou
,
Solar Energy Engineering: Processes and Systems: Second Edition
.
2014
.
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