The reduction of electrical energy consumption is the major issue for energy conservation in building. Ice slurry offers advantages in efficient cooling medium, capable of shifting the electricity demand and reduction in size of system compared over conventional cooling system. In this study, an attempt was made to develop an ice slurry as an efficient cooling application for replacing excessive use of indoor air condition. The cooling load is investigated through a case study in office building. Moreover, effect pump rotation and scraper are carried out to find out the optimum performance of ice slurry system. An evaluation from cooling load analysis reveals that two ice slurry generators can fulfil the demand of cooling load from sample building. The results show that higher speed of pump and scraper give best result regarding power consumption and ice production rate. It is concluded that ice slurry is a rewarding technology for thermal energy storage, especially in air conditioning application.

1.
H.
El-Dessouky
,
H.
Ettouney
, and
A.
Al-Zeefari
, “
Performance analysis of two-stage evaporative coolers
,”
Chemical Engineering Journal
, vol.
102
, pp.
255
266
, (
2004
).
2.
M.
Kauffeld
,
M.
Kawaji
, and
P. W.
Egolf
, “
Handbook on ice slurries
,”
International Institute of Refrigeration, Paris
, vol.
359
, (
2005
).
3.
M. J.
Wang
and
N.
Kusumoto
, “
Ice slurry based thermal storage in multifunctional buildings
,”
Heat and Mass Transfer
, vol.
37
, pp.
597
604
, (
2001
).
4.
Y.
Inoue
,
S.
Sugiura
,
K.
Murakami
, and
N.
Kotera
, “
Thermal comfort and climate control
,”
ASHRAE journal
, vol.
37
, (
1995
).
5.
T.
Kuriyama
and
Y.
Sawahata
, “
Slurry ice transportation and cold distribution system
,” in
Information Booklet for the Technical Tour of the Fourth Workshop of IIR Ice Slurry Working Party
, (
2001
), pp.
1
6
.
6.
J.
Vetterli
and
M.
Benz
, “
Cost-optimal design of an ice-storage cooling system using mixed-integer linear programming techniques under various electricity tariff schemes
,”
Energy and buildings
, vol.
49
, pp.
226
234
, (
2012
).
7.
Y.
Yau
and
S.
Lee
, “
Feasibility study of an ice slurry-cooling coil for HVAC and R systems in a tropical building
,”
Applied Energy
, vol.
87
, pp.
2699
2711
, (
2010
).
8.
M. K.
Hossain
, “
Ice slurry storage system in district cooling application for air-conditioning
,” (
2004
).
9.
Q.
Tian
,
G.
He
,
H.
Wang
, and
D.
Cai
, “
Simulation on transportation safety of ice slurry in ice cooling system of buildings
,”
Energy and Buildings
, vol.
72
, pp.
262
270
, (
2014
).
10.
G. P.
Henze
,
M.
Krarti
, and
M. J.
Brandemuehl
, “
Guidelines for improved performance of ice storage systems
,”
Energy and Buildings
, vol.
35
, pp.
111
127
, 2003/02/01/ (
2003
).
11.
F. A.
Rayhan
and
A. S.
Pamitran
, “
Performance of Ice Slurry Generator with Mechanical Scraper using R-22 and R-290
,”
Mechanical Engineering
, vol.
8
,
2017
.
12.
C. A. C.
Company
,
Handbook of Air Conditioning System Design
vol.
1
.
New York
:
McGraw - HILL
,
2000
.
13.
P.
Pronk
,
T.
Hansen
,
C. I.
Ferreira
, and
G.
Witkamp
, “
Time-dependent behavior of different ice slurries during storage
,”
International Journal of Refrigeration
, vol.
28
, pp.
27
36
, (
2005
).
This content is only available via PDF.