This paper provides a software simulation model for performance prediction of a parabolic trough collectors system (PTCs), as a part of solar thermal power plants. The simulation has been carried out in Mathcad program environment using the equations, correlations and typical values of certain parameters available in the open literature in addition to methods from widely accepted reference materials and assumptions to the best ability. The software is carried out to predict the solar radiation intensity from sunrise to sunset, the DNI (Direct Normal Irradiance), PTCs parameters which include: heat losses factor (UL), collector efficiency factor (F’), and the heat removal factor (FR), optical efficiency ηop, temperatures, mass flow rate of heat transfer fluid (HTF), heat transfer to and from PTCs. The effects of the variations in some PTCs design parameters and operating conditions on the PTC solar field performance can be investigated such as the beam radiation incidence angle, the emittance of the receiver and glass cover using this software model. The calculations were limited to high-temperature oil (therminol VP-1) as HTF. The PTCs model is validated with the experimental and numerical results. Detailed design and simulation of PTC thermal power plant of around 108 MW was planned to be set up at Aswan, Egypt. For this proposed plant, the model was used to evaluate the solar field performance. The site with Mathcad simulation model of the article: http://twt.mpei.ac.ru/MCS/Worksheets/PTU/Math-Sun.xmcd

1.
Yunus A.
Çengel
and
Michael A.
Boles
, “Thermodynamics an Engineering Approach”, Eighth Edition.
2.
Solar Thermal Electricity
, Global Outlook 2016.
3.
Duffie
JA
and
Beckman
A
(
1991
), “Solar Engineering of Thermal Processes”, 2nd Edition,
John Wiley & Sons Inc
.
4.
V. E.
Dudley
,
G. J.
Kolb
,
A. R.
Mahoney
,
T. R.
Mancini
, Test Results: SEGS LS-2 Solar Collector, Report No.
Sandia National Laboratories 94-1884, SNL
,
Albuquerque, NM
,
1994
.
5.
Romero-Alvarez
and
Eduardo
Zarza
, Handbook of Energy Efficiency and Renewable Energy,
2007
by
Taylor & Francis Group, LLC
.
6.
L.
Zhou
,
Yuanyuan
Li
,
Eric
Hu
,
Jiyun
Qin
,
Y.
Yang
,
Comparison in net solar efficiency between the use of concentrating and non-concentrating solar collectors in solar aided power generation systems
,
Applied Thermal Engineering
75
(
2015
)
685
691
.
7.
T.
Stuetzle
,
Automatic Control of the 30MWe SEGS VI Parabolic Trough Plant
(Master thesis),
University of Wisconsin-Madison
,
USA
,
2002
.
8.
Y.
Goswami
,
F.
Kreith
, Energy Conversion,
CRC Press Inc.
,
Boca Raton, FL
,
2008
, ISBN 1-4200-4431-1.
9.
Forristall
R.
 Heat transfer analysis and modeling of a parabolic trough solar receiver implemented in engineering equation solver. Golden (CO, US):
National Renewable Energy Lab
;
2003
.
10.
Kuravi
S.
,
Trahan
J.
,
Goswami
D. Y.
,
Rahman
M. M.
,
Stefanakos
E. K.
Thermal energy storage technologies and systems for concentrating solar power plants
.
Prog Energy Combust Sci
2013
;
39
:
285
319
.
11.
ASHRAE
(
2003
), Applications Handbook (SI),
ASHRAE
,
Atlanta, GA, USA
.
12.
Jacobson
,
E.
,
Ketjoy
,
N.
,
Nathakaranakule
,
S.
and
Rakwichian
,
W.
(
2006
), “
Solar parabolic trough simulation and application for a hybrid power plant in Thailand
”, vol.
32
, no.
2
, pp.
187
199
.
13.
A.M.
Patnode
,
Simulation and Performance Evaluation of Parabolic Trough Solar Power Plants
(Doctoral thesis),
University of Wisconsin-Madison
,
USA
,
2006
.
14.
Ahmad A.
Eter
,
Modeling and optimization of a hybrid solar combined cycle (HYCS
) (Master thesis),
King Fahd University of Petroleum and minerals
,
Saudi Arabia
,
2011
.
15.
M.
EL-Shimy
,
Viability analysis of PV power plants in Egypt
,, Ain Shams University,
Renewable Energy
34
(
2009
)
2187
2196
.
16.
Thermal Engineering Studies with Excel, Mathcad and Internet
. Ochkov, Valery, Orlov, Konstantin, Voloshchuk, Volodymyr. Editor:
Rogalev
,
Nikolay
(Ed.).
Springer
,
2016
.
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