The exhaust air from the cooling tower has a maximum velocity of 9 m/s and is more constant than the natural wind. This exhaust air stream has a non-uniform velocity profile. The cross-flow wind turbine with 400 mm diameter and 380 mm long are placed above the cooling tower to produce work. Variations in the blade angle and the blade radius of the turbine are tested to determine the effect on the resulting power and turbine performance on the graph of coefficient power (CP) versus tip speed ratio (TSR). The result shows that cross-flow wind turbine with blade angle 45° has higher power than the other blade angle on all radius variation. The cross-flow wind turbine with a 60 mm radius of the blade on 45° blade angle has the highest performance with 2.47 Watt maximum power on 4.31 m/s wind velocity, and Cp is 0.41 on 0.76 TSR.

Topics
Hydroturbines, Wind turbines, Educational assessment
1.
Presidential Regulation of the Republic of Indonesia Number 5 the year 2006 about National Energy Policy.
2.
W. T.
 
Chong
,
S.C.
 
Poh
,
A.
 
Fazlizan
,
S.Y.
 
Yip
,
C.K.
 
Chang
, and
W.P.
 
Hew
,
Appl. Energ.
 
112
,
568
(
2013
).
https://doi.org/10.1016/j.apenergy.2013.01.042
Google Scholar
Crossref
Search ADS
 
3.
B.
 
Santoso
,
D. D. D. P.
 
Tjahjana
 dan
M. H.
 
Wijaya
, “
Experimental Study on the Influence of Angle of Attack and Number of Blade on Break Power of Darrieus Wind Turbine Type H-Rotor Integrated with Cooling Tower
,” in
Annual National Seminar on Mechanical Engineering XVII – 2018
,
Proceedings of the Annual Mechanical Engineering Seminar XVII
, edited by
Jefri
 
S
, et al (
UNDANA, Kupang
,
2018
) pp.
130
–
133
Google Scholar
 
4.
W.T.
 
Chong
,
W.P.
 
Hew
,
S.Y.
 
Yip
,
A.
 
Fazlizan
,
S.C.
 
Poh
,
C.J.
 
Tan
, and
H.C.
 
Ong
,
Energy Conversion and Management
 
87
,
145
–
155
(
2014
).
https://doi.org/10.1016/j.enconman.2014.07.009
Google Scholar
Crossref
Search ADS
 
5.
T.
 
Kawamura
 and
Y.
 
Sato
, “
Numerical Study of the Flow Around the High-torque Wind Turbine of Vertical Axis Type
,” in
Computational Fluid Dynamics – 2002
,
Proceedings of the Second International Conference on Computational Fluid Dynamics
, edited by
S. W.
 
Armfield
, et al (
Springer, Berlin
,
Heidelberg
,
2002
), pp.
649
–
654
.
Google Scholar
Crossref
Search ADS
 
6.
B.
 
Santoso
,
D. D. D. P.
 
Tjahjana
, and
P. J
,
Widodo
, “
Effect of Number and angle of the Guide Vane on Cross Flow  Turbine Performance Integrated with Cooling Towers
,” in
Technology Innovation for National Technology Strengthening - 2017
,
Proceedings of the Annual Mechanical Engineering Seminar XVI
, edited by
M.
 
Sholicin
, et al (
ITS
,
Surabaya
,
2018
) pp. KE
19
–
24
.
Google Scholar
 
7.
B.
 
Santoso
, and
D. D. D. P.
 
Tjahjana
, “
The Influence of Guide Vane to the Performance of Cross-Flow Wind Turbine on Waste Energy Harvesting System
,” in
International Joint Conference on Advanced Engineering and Technology IJCAET – 2017
,
MATEC Web of Conferences
Volume
159
, edited by
B.H.
 
Setiadji
, et al (
EDP Sciences
,
London
,
2018
) pp.
02014 1
–
6
.
Google Scholar
Crossref
Search ADS
 
8.
K.
 
Bariyyah
, “Experimental Test Effect of Blade Angle, Blade Radius and Wind Velocity on Cross-Flow Turbine on Power Produced in Energy Recovery Systems Integrated with Cooling Towers,”
Final report
,
Sebelas Maret University
,
2017
.
Google Scholar
PubMed
 
9.
E.
 
Hau
, “
Wind Turbines: Fundamentals, Technologies, Application, Economics
,” (
Springer New
,
York
,
2006
).
Google Scholar
Crossref
Search ADS
 
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