PLA Ballistic Missiles
|
Technical Report
APA-TR-2010-0802
Sean O'Connor, BA,
MS (AMU)
August 2010
Updated April, 2012
Text
©
2009, 2010 Sean
O'Connor
Layout ©
2004 - 2010 Dr Carlo Kopp
|
DF-15B TBM TELs during
the 60th Anniversary PLA parade.
|
|
|
Background
China's ballistic missile force represents one of the most
significant collections of threat systems in the Pacific theater of
operations. Recently, China has made a concerted effort to develop
highly-mobile off-road TELs (Transporter Erector Launcher) for its
shorter-range weapons, and has
deployed ICBMs (Inter Continental Ballistic Missiles) on road-mobile
TELs. An increase in longer range weapons
and more survivable launch systems have enabled China's ballistic
missile forces to significantly increase their effectiveness to hold at
risk targets far outside the WESTPAC theater, including Europe and the
United States.
The PLA and PLAN operate a diverse mix of indigenously manufactured
ballistic missiles. Initial weapons were designed with the assistance
of the Soviet Union, but Soviet support was withdrawn in 1960,
affecting the progress of many of the indigenous systems under
development at the time. China's first two missile programs were the
1059 and 1060. The 1059 was a Chinese manufactured R-2 serving from
1961 to 1967, while the 1060 was a brief attempt to reverse engineer
the R-11FM cancelled in 1961.
|
|
China’s Missile
Force |
China’s Missile Inventory |
Ballistic and Cruise |
Estimated Range |
Missiles |
Launchers |
CSS-2
|
15-20
|
5-10
|
3,000+
km |
CSS-3
|
15-20
|
10-15
|
5,400+
km |
CSS-4
|
20
|
20
|
13,000+
km |
DF-31
|
<10
|
<10
|
7,200+
km |
DF-31A
|
10-15
|
10-15
|
11,200+
km |
CSS-5
|
85-95
|
75-85
|
1,750+
km |
CSS-6
|
350-400
|
90-110
|
600
km |
CSS-7
|
700-750
|
120-140
|
300
km |
DH-10
|
200-500
|
45-55
|
1,500+
km |
JL-2
|
Developmental
|
Developmental
|
7,200+
km |
Note:
China’s
Second
Artillery
maintains
at
least five operational SRBM [Short Range Ballistic
Missile] brigades; an additional two brigades are
subordinate to PLA ground
forces—one garrisoned in the Nanjing MR and the other in the Guangzhou
MR [Military Region]. All SRBM units are deployed to locations near
Taiwan. |
Table: US DoD, Military Power of the People’s Republic
of
China 2010, Page 66.
|
PLA Ballistic
Missiles
|
DF Designator |
CSS Designator |
Range (km) |
Payload (kg) |
Stages |
Length |
Diameter |
Propellant |
Guidance |
R&D |
FSF |
IOC
|
Notes |
1059 |
|
590 |
950 |
|
|
|
NSL
LOX/ethanol |
I |
1957 |
Nov
5 1960 |
1961 |
Renamed
DF-1 when original DF-1 became DF-3 |
1060 |
|
162 |
950 |
1 |
|
|
SL
AK-20/kerosene |
I |
1960 |
|
|
Abandoned
1961 |
DF-1 |
|
2000 |
1500 |
1 |
|
|
SL
AK-20/TG-02 |
I |
|
|
|
Renamed
DF-3 in 1964 |
DF-2 |
CSS-1 |
1050 |
1500 |
1 |
20.6 |
1.65 |
NSL
LOX/ethanol |
I |
|
|
|
|
DF-2A |
|
1250 |
1500 |
1 |
|
|
NSL
LOX/ethanol |
I |
|
|
|
|
DF-3 |
|
10000 |
|
2 |
|
|
NSL
LOX/kerosene |
|
1961 |
|
|
Abandoned
1963 |
DF-3 |
CSS-2 |
2650 |
2150 |
1 |
24 |
2.25 |
SL
AK-27/UDMH |
I |
1964 |
Dec
26 1966 |
1971 |
DF-4
first stage, exported to Saudi Arabia |
DF-3A |
|
3000 |
2150 |
1 |
|
|
|
|
|
Dec-85 |
|
|
DF-4 |
CSS-3 |
4750 |
2200 |
2 |
28 |
2.25 |
SL
AK-27/UDMH |
I |
1965 |
Jan
30 1970 |
1980 |
Used
as booster for CZ-1 |
DF-5 |
CSS-4
Mod 1 |
12000 |
3200 |
2 |
32.6 |
3.35 |
SL
N2O4/UDMH |
I |
1965 |
Sep
10 1971 |
1981 |
Used
as booster for CZ-2, CZ-3, CZ-4 |
DF-5A |
CSS-4
Mod 2 |
13000 |
3200 |
2 |
|
|
|
|
|
|
|
|
DF-6 |
|
FOBS |
3200 |
3 |
|
|
SL N2O4/UDMH |
I |
1966 |
|
|
Cancelled
October 1973 |
DF-14 |
|
8000 |
700 |
2 |
|
|
SL
AK-40/UDMH |
I |
1973 |
|
|
Work
stopped 1975, renamed DF-22 |
DF-21 |
CSS-5
Mod 1 |
1700 |
600 |
2 |
10.7 |
1.4 |
Solid |
I |
1967 |
May 20 1985 |
1988 |
|
DF-21A |
CSS-5
Mod 2 |
1800 |
600 |
2 |
|
|
Solid |
I |
1987 |
1995 |
1996 |
|
DF-21C |
CSS-5
Mod 3 |
1750 |
2000 |
2 |
|
|
Solid |
I/Terminal |
1984 |
19-Dec-02 |
2005 |
|
DF-21D |
CSS-5
Mod 4 |
1500 |
|
2 |
|
|
Solid |
I/Terminal |
|
|
|
ASBM |
DF-22 |
|
8000 |
700 |
2 |
|
|
SL
AK-40/UDMH |
I |
1978 |
|
|
Cancelled
January 1985 |
DF-23 |
|
6000 |
800 |
3 |
|
|
Solid |
|
1970 |
|
|
Became
DF-31 in January 1985 |
DF-31 |
CSS-10
Mod 1 |
8000 |
700 |
3 |
|
|
Solid |
|
|
|
2006 |
|
DF-31A |
CSS-10
Mod 2 |
11,200 |
700 |
|
|
|
Solid |
|
|
|
2007 |
|
DF-41 |
|
12000 |
800 |
3 |
|
|
Solid |
|
1986 |
|
|
|
DF-25 |
|
1700 |
2000 |
2 |
|
|
Solid |
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
|
DF-41/61 |
|
|
|
1 |
|
|
Solid |
|
1966 |
|
|
Abandoned |
DF-61 |
|
1000 |
500 |
1 |
|
|
Storable |
|
1976 |
|
|
Discontinued
1977 |
DF-61 |
|
600 |
1000 |
1 |
|
|
Storable |
|
|
|
|
|
DF-15/M-9 |
CSS-6
Mod 1 |
600 |
500 |
1 |
9.1 |
1 |
Solid |
I/Terminal |
1984 |
Jun-88 |
1989 |
|
DF-15B |
CSS-6
Mod 2 |
900 |
|
2 |
|
|
Solid |
I/Terminal |
|
|
|
|
DF-15C |
CSS-6
Mod 3 |
750 |
|
2 |
|
|
Solid |
I/Terminal |
|
|
|
|
DF-11/M-11 |
CSS-7
Mod 1 |
300 |
500 |
2 |
7.5 |
0.8 |
Solid |
I/Terminal |
1985 |
1990 |
|
|
DF-11A |
CSS-7
Mod 2 |
500 |
500 |
2 |
8.5 |
0.8 |
Solid |
I/Terminal |
1993 |
Oct
6 1997 |
1999 |
|
8610 |
CSS-8 |
300 |
500 |
2 |
|
|
Solid
booster, SL main |
|
1986 |
|
|
HQ-2
modification |
B611 |
CSS-11 |
150 |
|
|
|
|
Solid |
|
|
|
|
Licensed
to Turkey |
|
|
|
|
|
|
|
|
|
|
|
|
|
JL-1 |
CSS-N-3 |
1700 |
600 |
2 |
|
|
Solid |
I |
|
Oct 12 1982 |
|
|
JL-2 |
CSS-NX-14 |
7200 |
|
|
|
|
Solid |
|
|
|
|
|
Table:
Author.
|
SL / NSL
|
Storable
Liquid
/ Non Storable Liquid
|
LOX |
Liquid
Oxygen
|
AK-20F/I/K
|
Azotnaya
Kislota
[80% HNO3 + 20% N2O4 +
fluorine/iodine/unknown inhibitor] melange oxidiser
|
AK-27I |
Azotnaya
Kislota
[73% HNO3
+ 27% N2O4 + iodine inhibitor] melange oxidiser |
TG-02 |
samine
fuel
[50% triethylamine and 50% xylidine]
|
UDMH |
Unsymmetrical
Dimethylhydrazine
((CH3)2NNH2) -
hypergolic fuel component
|
N2O4 |
dinitrogen
tetroxide
/ nitrogen tetroxide - hypergolic oxidiser component |
|
Intercontinental
Ballistic
Missiles
|
DF-31/DF-31A/CSS-10
/
JL-2/CSS-NX-13
The latest
addition to the PLA's nuclear arsenal
is the road-mobile DF-31 series. The DF-31 is available in three
variants: road mobile DF-31, road mobile DF-31A with extended range,
and submarine launched JL-2 SLBM (Submarine Launched Ballistic
Missile). Development of the DF-31 began as far
back as 1970, when plans were drawn up for a new solid-fueled
IRBM (Intermediate Range Ballistic Missile) and
SLBM counterpart. The land-based missile was originally referred to as
the DF-23, being renamed DF-31 in 1985.
After a protracted development period, the DF-31's first test launch
took place in August of 1999. The DF-31 was intended to target the
entirety of the former USSR. A next-generation ICBM, the DF-41, was
being developed concurrently since 1986 to target the CONUS. The DF-41
was cancelled at some point before 2000, with the capability being
retained by modifying the DF-31 into the DF-31A. The DF-31 was deployed
in 2006, with the DF-31A following in 2007.
The primary drawback to the DF-31 and DF-31A is the reliance on a TEL
design that lacks a significant degree of off-road mobility. Publicly
exhibited TELs are mounted on HY4430 semi-trailers towed by a
ZX-TJ 2000 turbocharged diesel 8 x 8 tractor, being forced to rely on
prepared surfaces for
travel. This limits the dispersal options for these weapons,
potentially impacting
their survivability. The DF-31 has also been noted as being
launched from a TEL which was not erected in a fully vertical
orientation. This could imply that the missile must be aligned with its
target prior to launch.
The DF-31 has likely been supplanted by the DF-31A. The US DoD has
claimed for some time that approximately 10 DF-31s are in service, a
number which has not changed since 2008. In contrast, the number of
DF-31As in service has gradually risen, with 10-15 weapons now believed
to be operational in 2010 up from an estimate of less than 10 in 2008.
This suggests that the DF-31 is operated by a single unit in the PLA,
most likely the 813th Brigade at Nanyang. The 812th Brigade at
Deidao/Tawanli likely represents the initial DF-31A unit.
The JL-2 is a variant of the DF-31 deployed on the Type 094 SSBN, and
was originally expected to achieve IOC in 2010. The DoD reports that
the JL-2 has suffered a series of flight test failures, and as such the
weapon is unlikely to reach operational status in 2010. The failure of
the JL-2 may be linked to the apparent lack of DF-31 deployment as the
weapons are believed to be derivatives. This could suggest that the
DF-31A enjoys improvements conferring greater reliability that either
have not or cannot be retrofitted to the JL-2/DF-31 design.
Principal
Specifications |
Notes1
|
Category
|
ICBM
mobile
|
|
Maximum
Range
[km]
|
7,200
DF-31/JL-2;
11,200
DF-31A
|
|
Apogee
[km]
|
1,000
|
|
Vehicle
Guidance |
Inertial
|
|
RV
CEP
@
Maximum
Range
[m]
|
-
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
700
kg;
1
x
250
kT
|
|
Configuration
|
3
Stage
Solid
Propellant
|
|
Length,
Total
[m]
|
11.0
|
|
Span/Dia,
Total
[m]
|
2.0
|
|
Launch
Weight,
Total
[kg]
|
20,000
|
|
|
|
|
First
Stage
Length
|
8.0
/
JL-2-1
|
|
First
Stage
Mass,
Launch/Empty
[kg]
|
-/-
|
|
First
Stage
Motor
Type/Config
|
DF-31-1
Solid Propellant Rocket |
|
First
Stage
Propellant
|
N-15
NEPE
(Nitrate
Ester
Plasticized Polyether)
|
|
|
|
|
Second
Stage
Length |
4.0
/
DF-31-3
|
|
Second
Stage
Mass,
Launch/Empty
[kg] |
-/-
|
|
Second
Stage
Motor
Type/Config |
KT-1-2
Solid
Propellant
Rocket
|
|
Second
Stage
Propellant |
N-15
NEPE
(Nitrate
Ester
Plasticized Polyether)
|
|
|
|
|
Third
Stage
Length |
2.0
/
DF-31-3
|
|
Third
Stage
Mass,
Launch/Empty
[kg] |
-/-
|
|
Third
Stage
Motor
Type/Config |
JL-2-3
Solid Propellant Rocket |
|
Third
Stage
Propellant |
N-15
NEPE
(Nitrate
Ester
Plasticized Polyether)
|
|
|
DF-5/DF-5A / CSS-4
The PLA's first true ICBM was
the DF-5. The DF-5 began development in 1965, with the first successful
test flight occurring in September of 1971. Strained relations with the
USSR forced the DF-5 into service in late 1980, being deployed in two
silos on a trial basis. Full IOC occurred in 1981, however, following
the completion of testing of the silo basing system.
Between 1983 and 1986, work progressed on improving the range of the
DF-5, resulting in the DF-5A being fielded. Today, 20 silo-based DF-5A
ICBMs compose a large portion of the PLA's nuclear deterrent force, the
initial DF-5s having been upgraded or withdrawn. The DF-5A is currently
a single-warhead weapon, but MIRV research for the DF-5 began as early
as 1983 as part of the DF-5A program.
Principal
Specifications |
Notes1 |
Category
|
ICBM
silo
launched
|
|
Maximum
Range
[km]
|
12,000
-
15,000
|
|
Apogee
[km]
|
-
|
|
Vehicle
Guidance |
Inertial
|
|
RV
CEP
@
Maximum
Range
[m]
|
est
500
-
3,500
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
3,000
-
3,200
/
1
x
2.0
-
5.0
MT
|
|
Configuration
|
3
Stage
Liquid
Propellant
|
|
Length,
Total
[m]
|
32.6
|
|
Dia,
Total
[m]
|
3.35
|
|
Launch
Weight,
Total
[kg]
|
183,000
|
|
|
|
|
First
Stage
Length
|
-
|
|
First
Stage
Mass,
Launch/Empty
[kg]
|
-
|
|
First
Stage
Motor
Type/Config
|
Liquid
Propellant
Rocket |
|
First
Stage
Propellant
|
N2O2/UDMH
|
|
|
|
|
Second
Stage
Length |
-
|
|
Second
Stage
Mass,
Launch/Empty
[kg] |
-
|
|
Second
Stage
Motor
Type/Config |
Liquid
Propellant
Rocket |
|
Second
Stage
Propellant |
N2O2/UDMH |
|
|
|
|
Third
Stage
Length |
-
|
|
Third
Stage
Mass,
Launch/Empty
[kg] |
-
|
|
Third
Stage
Motor
Type/Config |
Liquid
Propellant
Rocket |
|
Third
Stage
Propellant |
N2O2/UDMH |
|
DF-5
launch
(PLA).
|
DF-4 / CSS-3
DF-4 ballistic missile
erected
(PLA).
The DF-4 was conceived with the
intent to produce a weapon capable of reaching Guam from Chinese
territory. The missile was developed from the DF-3, by the addition of
a further stage.
Development began in 1965, but suffered from a focus on the DF-5 ICBM.
The DF-4 was redesigned in 1970 to be able to reach Moscow, with the
missile achieving IOC in 1980. The US DoD claims that 15-20 DF-4s
remain in service, supported by 10-15 launchers. These weapons employ a
rollout-to-launch system, being prepared inside UGFs (Under-Ground
Facility) before rollout and erection on prepared launch pads.
Principal
Specifications |
Notes1 |
Category
|
Intermediate
Range
Ballistic
Missile
|
|
Maximum
Range
[km]
|
4,760
|
|
Apogee
[km]
|
500
|
|
Vehicle
Guidance |
Inertial
|
|
RV
CEP
@
Maximum
Range
[m]
|
1,190
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
1
x
Thermonuclear
3.3
MT
/
2,190
|
|
Configuration
|
2
Stage
Liquid
Rocket
|
|
Length,
Total
[m]
|
28.05
|
|
Span,
Total
[m]
|
2.74
|
|
Launch
Weight,
Total
[kg]
|
82,000
|
|
|
|
|
First
Stage
Length
|
17.84
|
CZ-YF-2
|
First
Stage
Mass,
Launch/Empty
[kg]
|
4,100/64,100
|
|
First
Stage
Motor
Type/Config
|
4
x
YF-2A
/
Liquid
Propellant
Rocket
|
1,224.575
kN
|
First
Stage
Propellant
|
IRFNA/UDMH
|
|
|
|
|
Second
Stage
Length |
5.35
|
CZ-1-2
|
Second
Stage
Mass,
Launch/Empty
[kg] |
2,700/15,000
|
|
Second
Stage
Motor
Type/Config |
1
x
YF-2A / Liquid Propellant Rocket |
306.143
kN
|
Second
Stage
Propellant |
IRFNA/UDMH
|
|
|
Intermediate
Range Ballistic Missiles
|
DF-21A/C/D/DF-25
/ CSS-5
/ JL-1/1A / CSS-N-3 / KT-1/SC-19 ASAT
DF-21C carried by high
mobility
WS-2400 TEL.
The DF-21 is China's principal
IRBM, available in a wide range of variants tailored for different
roles. All DF-21 variants are two-stage, solid-propellant missiles
transported on road-mobile TELs.
Four land-based DF-21 variants are operational, and the derivative JL-1
SLBM arms the Type 092 SSBN. DF-21 development began in the late 1960s.
Initially, the focus was on developing the JL-1 SLBM variant. Actual
DF-21 development did not proceed until 1978, following the successful
testing of the JL-1's solid rocket motor. This represented the first
successful solid-rocket ballistic missile design in China.
While the JL-1 is considered a weapon of dubious effectiveness due to
its short range and the limitations of the Type 092 SSBN, the DF-21
family developed into a host of effective weapons.
The initial DF-21 was deployed in 1988, with the enhanced DF-21A
following in 1996. Primary improvements in the DF-21A included
increased accuracy and extended range. The development of the DF-21C
began in 1984 as the DF-25, intended to offer the ability to carry a
much larger warhead. The DF-21C also introduced a new WS-2400 TEL,
conferring a measure of off-road mobility not present in the original
towed launchers used by the DF-21 and DF-21A.
While the DF-21 and DF-21A were nuclear strike weapons, the DF-21C is
employed as a conventional weapon system, employing terminal guidance
for increased accuracy. The latest variant to enter service is the
DF-21D, an ASBM (Anti-Ship Ballistic Missile) variant employing a
terminally guided MaRV (Manoeuvring Re-entry Vehicle). The MaRV may be
equipped with a RADAC system similar to that found on the MGM-31 Pershing II IRBM.
DF-21 variants serve as the basis for the KT-1 space launch vehicle and
the SC-19 direct-ascent ASAT weapon system.
Principal
Specifications |
Notes1 |
Category
|
IRBM/SLBM
|
|
Maximum
Range
[km]
|
1,700
(JL-1/DF-21),
2,500
(DF-21C/JL-2)
|
|
Apogee
[km]
|
500+
|
|
Vehicle
Guidance |
Inertial
(claimed
stellar/satnav);
|
|
RV
CEP
@
Maximum
Range
[m]
|
Precision
Capability
in
Terminal
Guided
Variants
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
1
x
250
kT
/
600.0
|
|
Configuration
|
Two
Stage
Solid
Propellant
|
|
Length,
Total
[m]
|
10.43
|
|
Span,
Total
[m]
|
1.4
|
|
Launch
Weight,
Total
[kg]
|
14,664
|
|
|
|
|
First
Stage
Length
|
6.0
|
JL-1-1
|
First
Stage
Mass,
Launch/Empty
[kg]
|
10,000
|
|
First
Stage
Motor
Type/Config
|
DF-21-1
/
Solid
Propellant
Rocket
|
|
First
Stage
Propellant
|
Solid
Propellant |
|
|
|
|
Second
Stage
Length |
4.0
|
DF-21-1/JL-1-2
|
Second
Stage
Mass,
Launch/Empty
[kg] |
4,000
|
|
Second
Stage
Motor
Type/Config |
DF-21-2
/
Solid
Propellant
Rocket |
|
Second
Stage
Propellant |
Solid
Propellant |
|
DF-21C TEL.
DF-21C TEL elevated for
launch.
DF-21C TEL.
DF-21C TEL.
DF-21C.
DF-21C.
DF-21C.
DF-21/21A TEL.
DF-21/21A TEL.
DF-21/21A TEL.
JL-1 SLBM on towed transporter.
Early road mobile DF-21/21A TEL.
|
DF-3
ballistic missile erected for launch (PLA).
The DF-3 was the 2nd
Artillery's first credible IRBM design, developed during the 1960s to
provide a capability to attack US basing in the First Island Chain. It
is a single stage liquid propellant design reminiscent of 1950s Soviet
IRBM designs such as the R-12. The DF-3 is based on the first stage of
the DF-4. Development began in 1960 as the DF-1, and the weapon was
renamed DF-3 in 1964 following a number of changes to the design (the
original DF-3 was a liquid propellant ICBM cancelled in 1963). IOC was
reached in 1971. The improved DF-3A with greater range and increased
accuracy was developed in the 1980s and remains the only variant still
serving in the PLA. The DF-3 employs a towed launcher conferring a
measure of mobility, but likely lacks a significant off-road capability.
While the US DoD still credits the PLA with an operational DF-3A
capability of 5-10 launchers and 15-20 missiles, the system is arguably
more significant for having been exported to Saudi Arabia in a
conventionally armed version.
Principal
Specifications |
Notes1 |
Category
|
IRBM
semi-mobile
|
DF-3A
IOC
1987
|
Maximum
Range
[km]
|
2,810
or
greater
|
|
Apogee
[km]
|
~500.0
|
|
Vehicle
Guidance |
Inertial
|
|
RV
CEP
@
Maximum
Range
[m]
|
0.87
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
1
x
3.3
MT
/
2,140.0
|
|
Configuration
|
Single
Stage
Liquid
Propellant
|
|
Length,
Total
[m]
|
24.0
|
|
Span,
Total
[m]
|
2.74
|
|
Launch
Weight,
Total
[kg]
|
63,843.0
|
|
|
|
|
First
Stage
Length
|
24.0
|
|
First
Stage
Mass,
Launch/Empty
[kg]
|
64,100.0
/
4,100.0
|
|
First
Stage
Motor
Type/Config
|
4
x
YF-2A
/
Liquid
Propellant
Rocket
|
|
First
Stage
Propellant
|
AK-27F/UDMH
|
|
|
|
|
Prelaunch
preparations
-
fuelling
and
warhead
mating.
|
|
DF-2A / CSS-1
The DF-2A
was the first IRBM design produced by
China. The missile is no longer operational, having been retired in
1979. It began as the DF-2, but was redesigned as the DF-2A following
problems encountered during trials.
|
Tactical/Theatre
Ballistic Missiles
|
DF-15 / M-9 / CSS-6
The DF-15 series is one of the
most widely used Chinese TBMs, and is often classed as a shorter
ranging IRBM. Three variants of the solid propellant missile are
deployed by the 2nd Artillery, with the M-9 forming the basis of
Pakistan's Shaheen TBM. Development of the single-stage DF-15 began in
1984, and the system achieved IOC in 1989.
The DF-15B and DF-15C are two-stage modifications of the original
DF-15. The revised nosecone of the DF-15B variant and presence of
cruciform tail surfaces has led to frequent claims that the DF-15B has
a terminal guidance capability, the presence of a visible
actuator mechanism on publicly displayed weapons suggests this is so.
The DF-15C is identified by the inclusion of a new cylindrical nosecone
possibly housing a new warhead or a terminal guidance system.
DF-15s are transported on TAS5450 or WS-2400 TELs conferring a high
degree of mobility as well as off-road capability.
Principal
Specifications |
Notes1 |
Category
|
TBM/IRBM
|
|
Maximum
Range
[km]
|
605.0
|
|
Apogee
[km]
|
~100.0
|
|
Vehicle
Guidance |
Inertial
|
|
RV
CEP
@
Maximum
Range
[m]
|
1.35
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
1
x
20
kT
/
950.0
|
Conventional
or
nuc
|
Configuration
|
Single
stage
solid
propellant
|
|
Length,
Total
[m]
|
9.0
|
|
Span,
Total
[m]
|
1.0
|
|
Launch
Weight,
Total
[kg]
|
6,200.0
|
|
DF-15B RV.
DF-15B
TEL.
DF-15B
TEL.
DF-15A TEL.
|
DF-11 / M-11 /
CSS-7
DF-11 TEL on WS-2400
chassis
(PLA).
The DF-11 is a short range TBM widely
deployed by the 2nd Artillery. It is carried on a high mobility 8 x 8
WS-2400 series TEL. Development of the DF-11 began in 1985, with the
DF-11A following in 1993. Some sources indicate that the DF-11 was
initially designed for the export market as the M-11, with the PLA
operating the DF-11A. The M-11 has been exported to Pakistan where it
forms the basis of the Ghaznavi TBM.
Principal
Specifications |
Notes1 |
Category
|
TBM
|
|
Maximum
Range
[km]
|
300.0
|
|
Apogee
[km]
|
~150
|
|
Vehicle
Guidance |
Inertial
|
|
RV
CEP
@
Maximum
Range
[m]
|
-
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
-
|
|
Configuration
|
Single
stage
solid
propellant
|
|
Length,
Total
[m]
|
7.4
|
|
Span,
Total
[m]
|
0.88
|
|
Launch
Weight,
Total
[kg]
|
6,300.0
|
|
Detail of DF-11,
partially
elevated.
DF-11 TEL fully stowed.
DF-11, partially
elevated.
DF-11 TEL LCC consoles.
|
The 8610 is a
conversion of the HQ-2/CSA-1 GUIDELINE SAM into a
short-range SSM. The weapon began devleopment in 1986 and was
exclusively targeted at the export market. The 8610 has been supplied
to Iran.
|
B-611 / B-611M
/ J-600 / P-12 / CSS-11
B-611
TBM TEL on display at an arms show.
The B-611
is identified as a short range low cost
TBM for battlefield strike applications. Sources disagree on whether
the PLA has or will introduce the B-611, but Turkey is known to have
procured a licence to build the weapon.
Principal
Specifications |
Notes1 |
Category
|
TBM
|
|
Maximum
Range
[km]
|
~250.0
|
|
Apogee
[km]
|
|
|
Vehicle
Guidance |
|
|
RV
CEP
@
Maximum
Range
[m]
|
|
|
RV
Warhead
Type
/
Mass
[-/kg]
|
|
|
Configuration
|
|
|
Length,
Total
[m]
|
|
|
Span,
Total
[m]
|
|
|
Launch
Weight,
Total
[kg]
|
|
|
The B-611 TEL is based on a
North-Benz ND1260 6 x 6 military truck, widely used to host air defence
equipment.
|
Notes/References
- Specifications sourced from
Encyclopedia Astronautica, URI: http://www.astronautix.com/index.html;
and
federation
of
American
Scientists
online
database,
URI: http://www.fas.org/nuke/guide/china/index.html.
- Other designations include the export M-7 and M-18.
No information exists on the identity of these weapons, although one
designation may be applied to the 8610.
- No information exists as to when the switch was made
from the designation DF-25 to DF-21C, nor does information exist as to
what the "missing" DF-21B may have been.
- US DoD Military Power of the People's Republic of
China (2008, 2009)
- US DoD Military and Security Developments Involving
the People's Republic of China (2010)
- NASIC Ballistic and Cruise Missile Threat (2009)
- Dr. Martin Andrew, Hot Brief: Chinese Strategic
Cruise and Ballistic Missiles (2010)
- John Wilson Lewis and Hua Di, China's Ballistic
Missile Programs, International Security, Fall 1992)
- AFSC Foreign Technology Division, China's Ballistic
Missile Plans (Ma Ke and Wei De Yuan Zuo, translated from Hangkong
Zhishi, April 1981).
- Line artwork courtesy Planeman.
- Imagery Sources: Xinhua; PLA-AF; MilitaryPhotos.net;
other Internet sources.
|
|
|
|
Technical Report APA-TR-2010-0802
|
|