Silica is known as functional material and has a broad application role in various fields. The particle morphology of silica has become one of the significant concerns for supporting optimal performance. Morphology parameters, such as particle specific surface area and pore volume, would benefit its application, such as adsorbent or catalyst support. An inorganic template like a surfactant can be used in silica synthesis to obtain a particular morphological shape and increase its specific surface area. Sodium Lauryl Sulfate (SLS) effect as a surfactant template was investigated to obtain silica particle and template removal for one-step synthesis using a spray drying method. The precursor solution was made using the sol-gel method and then added with various surfactant concentrations before spray dried. The result showed an increase in silica particle’s specific surface area with surfactant addition compared with silica particle without surfactant. Surfactants cause a decrease in the surface tension’s value for the precursor solution, so the droplets become unstable and rupture caused by low cohesion force. The particles tend to have curvature and more pore volume, which causes a larger specific surface area. The silica particle synthesized by adding SLS surfactant in the precursor at a concentration of 1 CMC has a specific surface area of 954.2 m2/gram and a pore volume of 0.92 cc/gram. On the other hand, silica particle without template has a specific surface area and pore volume of 131.0 m2/gram and 0.12 cc/gram.

1.
Sing
KSW
1982
Characterization of Porous Solids II
1
9
2.
Sanklecha
V.
2018
International Journal of Pharmaceutics & Drug Analysis
6
1
12
3.
Jiang
X.
,
Zhang
H.
,
Yue
M.
,
Zhang
S.
,
Li
Y.
and
Xu
W.
2019
Microporous and Mesoporous Materials
288
109598
4.
Parida
KM
and
Dash
S. S.
2009
Journal of Molecular Catalysis A : Chemical
306
54
61
5.
Wang
Y.
,
Zhao
Q.
,
Han
N.
,
Bai
L.
,
Li
J.
,
Liu
J.
,
Che
E.
,
Hu
L.
,
Zhang
Q.
,
Jiang
T.
and
Wang
S.
2014
Nanomedicine : Nanotechnology, Biology and Medicine
11
313
327
6.
Qomariyah
L.
,
Widiyastuti
W.
and
Winardi
S.
2020
Chemical Papers
74
285
296
7.
Leong
K.H.
1987
Journal of Aerosol Science
18
511
524
8.
Sen
D.
,
Spalla
O.
,
Belloni
L.
,
Charpentier
T.
and
Thill
A.
2006
Langmuir
3798
3806
9.
Rashid
M.R.
,
Afroze
F.
,
Ahmed
S.
,
Miran
M.S.
and
Susan
MABH
2019
Materials Today : Proceedings
15
546
554
10.
Lelong
G.
,
Bhattacharyya
S.
,
Kline
S.
,
Cacciaguerra
T.
,
Gonzalez
M. A.
and
Saboungi
M.L.
2008
The Journal of Physical Chemistry C
112
10674
10680
11.
Singh
L.P.
,
Bhattacharyya
S.K.
,
Ahalawat
S.
,
Kumar
R.
,
Mishra
G.
,
Sharma
U.
and
Singh
G.
2014
Advances in Colloid and Interface Science
214
17
37
13.
Isobe
H.
,
Shinegori
U.
,
Yamamoto
K.
,
Kanoh
H.
and
Kaneko
K.
2005
Langmuir
13
99
108
This content is only available via PDF.
You do not currently have access to this content.