In civil engineering projects, concrete-filled steel tubular (CFST) members are the composite members that have replaced conventional steel and concrete members. This research aims to provide a mini review of the literature on the torsional behavior of (CFST) members. The results of the previous study indicated that the CFST members ultimate torsional strength increased by incrementing the torsion strength of its composites, i.e. steel tubes and concrete; such as concrete strength, steel yield strength, steel thickness or steel ratio and number of stiffeners. In addition, it was showed from the review of scientific investigation that the CFST members' ultimate torsional strength decreased with the increase of the depth to thickness of the steel tube ratio of its composites. Also, the depth to width ratio had effects on the member performance. The section shape of the composite members had a consider effect on the ultimate torsional strength of the composite members. Generally, the circular tube showed the highest torsional strength compared to traditional quadrilateral shape.

1.
L.-H.
Han
,
G.-H.
Yao
&
Z.
Tao
, "
Performance of concrete-filled thin-walled steel tubes under pure torsion
",
Thin- Walled Structures
,
45
,
24
36
, (
2007
).
2.
A. W.
Al Zand
,
M. M.
Ali
,
R.
Al-Ameri
,
W. H. W.
Badaruzzaman
,
W. M.
Tawfeeq
,
E.
Hosseinpour
&
Z. M.
Yaseen
, "
Flexural strength of internally stiffened tubular steel beam filled with recycled concrete materials
",
Materials
,
14
,
6334
, (
2021
).
3.
L.-H.
Han
,
W.
Li
&
R.
Bjorhovde
, "
Developments and advanced applications of concrete-filled steel tubular (CFST) structures: Members
",
Journal of constructional steel research
,
100
,
211
228
, (
2014
).
4.
A. H. N.
Almamoori
,
F. H.
Naser
&
M. K.
Dhahir
, "
Effect of section shape on the behaviour of thin walled steel columns filled with light weight aggregate concrete: Experimental investigation
",
Case Studies in Construction Materials
,
13
,
e00356
, (
2020
).
5.
C. W.
Roeder
,
D. E.
Lehman
&
E.
Bishop
, "
Strength and stiffness of circular concrete-filled tubes
",
Journal of structural engineering
,
136
,
1545
1553
, (
2010
).
6.
H.
Lin
, "
Flexural Behaviour of Concrete–Felled Steel Tube
",
Journal of Contructional Steel Research
,
60
,
313
337
, (
2004
).
7.
E.
Ellobody
,
B.
Young
&
D.
Lam
, "
Behaviour of normal and high strength concrete-filled compact steel tube circular stub columns
",
Journal of Constructional Steel Research
,
62
,
706
715
, (
2006
).
8.
B.
Kovac
,
Institution
,
2010
.
9.
N. E.
Shanmugam
&
B.
Lakshmi
, "
State of the art report on steel–concrete composite columns
",
Journal of constructional steel research
,
57
,
1041
1080
, (
2001
).
10.
K.
Susantha
,
H.
Ge
&
T.
Usami
, "
Uniaxial stress–strain relationship of concrete confined by various shaped steel tubes
",
Engineering Structures
,
23
,
1331
1347
, (
2001
).
11.
C. W.
Roeder
,
B.
Cameron
&
C. B.
Brown
, "
Composite action in concrete filled tubes
",
Journal of structural engineering
,
125
,
477
484
, (
1999
).
12.
Y.
Morishita
, "
Experimental studies on bond strength in concrete filled circular steel tubular columns subjected to axial loads
",
Transactions of the Japan Concrete Institute
,
1
,
351
358
, (
1979
).
13.
M.
Shams
&
M. A.
Saadeghvaziri
, "
State of the art of concrete-filled steel tubular columns
",
Structural Journal
,
94
,
558
571
, (
1997
).
14.
S. P.
Schneider
, "
Axially loaded concrete-filled steel tubes
",
Journal of structural Engineering
,
124
,
1125
1138
, (
1998
).
15.
W. L. A.
De Oliveira
, S.
De Nardin
,
A. L. H.
De Cresce El
&
M. K.
El Debs
, "
Influence of concrete strength and length/diameter on the axial capacity of CFT columns
",
Journal of Constructional Steel Research
,
65
,
2103
2110
, (
2009
).
16.
Y.
Xiao
,
W.
He
,
X.
Mao
,
K.
Choi
&
P.
Zhu
,
Confinement design of CFT columns for improved seismic performance
,
2003
,
517
530
.
17.
A. A.
Ronni
&
J.
John
, "Concrete-Encased Cfst Beam-Column Joints: A Review", (
2022
).
18.
J.
Beck
&
O.
Kiyomiya
, "
Fundemental pure torsional properties of concrete filled circular steel tubes
",
Doboku Gakkai Ronbunshu
,
2003
,
285
296
, (
2003
).
19.
Z.
Alakayleh
,
T. P.
Clement
&
X.
Fang
, "
Understanding the changes in hydraulic conductivity values of coarse- and fine-grained porous media mixtures
",
Water
,
10
,
313
313
, (
2018
).
20.
F.-X.
Ding
,
S.-J.
Sheng
,
Y.-J.
Yu
&
Z.-W.
Yu
, "
Mechanical behaviors of concrete-filled rectangular steel tubular under pure torsion
",
Steel and Composite Structures, An International Journal
,
31
,
291
301
, (
2019
).
21.
M. R.
Al-Badkubi
,
Torsional Capacity of Thin-Walled Steel Tubular Members Filled with Light-Weight Concrete
,
2019
, IEEE,
13
18
.
22.
K. B.
Le
,
V.
Van Cao
&
H. X.
Cao
, "
Circular concrete filled thin-walled steel tubes under pure torsion: Experiments
",
Thin-Walled Structures
,
164
,
107874
, (
2021
).
23.
W.
Zhang
,
L.
Gardner
,
M.
Wadee
,
K.
Chen
&
W.
Zhao
,
On the uniform torsional rigidity of square concrete-filled steel tubular (CFST) sections
,
2022
, Elsevier,
249
256
.
24.
K.
Rajagopalan
2022
. Plastic Torsion of Thin-Walled Structures.
Torsion of Thin Walled Structures.
Springer
.
25.
T.
Megsont
. Megson
1996
.
Structural And Stress Analysis.
26.
T. T. C.
Hsu
,
Torsion of reinforced concrete
,
1984
).
27.
J.
Wei-Liang
,
Q.
Chen
&
Y.
Yi
, "
Experimental study on centrifugal concrete-filled steel tubes under bending and torsion
",
Journal of Zhejiang University-SCIENCE A
,
4
,
565
572
, (
2003
).
This content is only available via PDF.
You do not currently have access to this content.