PLA
Area
Defence
Missile
Systems
Technical Report APA-TR-2009-0302
|
by
Dr
Carlo
Kopp, AFAIAA,
SMIEEE,
PEng
March/April
2009
Updated September, 2009
Updated
November,
2009
Updated April, 2012
Text,
Line
Art
©
2009 - 2012
Carlo
Kopp
|
|
Introduction
The 2007/2008 period saw an
important incremental improvement in what is already a formidable air defence capability, as the PLA deployed four
battalions of
the S-300PMU-2 / SA-20 Gargoyle high mobility long range SAM system.
This
is
another
step
in
China's
long
march
since
the
end of the Cold War, to deploy a
modern
multi-layered Integrated Air Defence
System (IADS).
When the
Soviet
Union collapsed in 1991, China's air defence
capabilities were of debatable effectiveness, built around indigenous
clones of
the Soviet S-75 Dvina / SA-2 Guideline, and indigenous fighter aircraft
such as
the Chengdu J-8 Finback, in addition to vast numbers of 1950s and 1960s
technology J-6 Farmer and J-7 Fishbed
fighters. Radar
capabilities centred on cloned 1950s
Soviet
equipment, some pre-Tienamen Western
imports, and a
stalled indigenous AEW&C program centred
on a
turboprop engined Tu-4 Bull / B-29 Superfortress airframe.
Much has
changed over the following decade and a half. While the SA-2 remains
numerically significant, it has been modernised.
Patriot
class
S-300PMU
/
SA-10
/
SA-20
Grumble
/ Gargoyle long range SAMs
have been acquired in strategically
significant
numbers. The Tor M1 / SA-15 has been reported, and a range of
indigenous short to
medium range SAMs have been developed. The
KJ-200 /
Y-8 and KJ-2000 / A-50 AEW&C programs are well into advanced
development,
and strategically significant numbers of the Su-27SK / J-11 and Su-30MK
have
been deployed, while the indigenous “Sinocanard”
J-10
fighter
has
achieved
Initial
Operational
Capability.
The
PLA's air defence
capabilities
are transforming from a legacy force with static and undeployable
systems, to a state of the art force, which is highly deployable in
country, and
demonstrably expeditionary as it matures. This evolution in
capabilities has
been sufficient to elicit alarm in many US analysts, recognising
that legacy fighters such as the F-15C/E and F/A-18C-F have very poor
odds of
surviving if they need to penetrate the emerging PLA IADS.
Following
past
practice,
China
is
aggressively
marketing
their
current
SAMs in
the export market, these including the HQ-9 and HQ-12. There are
speculative reports that Iran is to procure the HQ-9, following reports
that numerous HQ-2 batteries were procured.
|
Indigenous
and Derivative Missile Systems
|
CPMIEC HQ-9 /
HHQ-9 /
FD-2000
/ FT-2000
HQ-9
TEL using the Taian TAS-5380 chassis. Additional image [1] (via Chinese Internet).
The
FD-2000/HQ-9 was
developed to provide a long range SAM capability, distinct from the
medium
range capabilities of the HQ-12/KS-1 series. The FT-2000 is a derivative which is fitted with an anti-radiation
seeker and
intended for engagements against AEW&C/AWACS and stand-off jamming
aircraft. The US DoD puts current
deployments at 64
launchers, making for 8 to 16 batteries.
The PLA have
not been overly generous in disclosing details of this design. There is
general
agreement in open sources that the HQ-9 uses Russian S-300PMU
technology
extensively, including the cold launch design for vertical ejection
from
launcher tubes on TELs, 5V55/48N6 rocket
motor
technology, and a range of other S-300PMU components, including an 8 x
8 four
tube TEL modelled on the 5P85SU/DU series.
Some
sources claim the weapon uses a two stage
arrangement
akin to the S-300V, imagery shows these claims to be incorrect. Slant
range performance figures also vary across sources,
between 50
and 100 nautical miles. What data is available suggests a missile which
is
similar in capability to early variants of the MIM-104 Patriot and
SA-10B
48N6E, including Track via Missile (TVM) guidance.
The HQ-9 is
supported by the HT-233 phased array engagement radar, like the H-200 modelled on the MPQ-53 and 30N6E designs,
carried on an Taian
TAS5380 8 x 8 high mobility
vehicle, or common to the
HQ-9 TEL
and similar in design to the S-400's BAZ-6900 series vehicle.
Chinese sources claim C-band operation with 300 MHz receiver/antenna
bandwidth,
detection range of 65 nautical miles, and monopulse
angle tracking to resist jamming. Recently disclosed imagery shows the
use of the self-propelled YLC-2V as the
battery acquisition radar component. The designation FD-2000 is
for export configurations of the HQ-9.
Recent reports claim the missile combines midcourse inertial / datalink
and terminal active radar homing guidance. Cited battery composition is
one variant of the YLC-2V acquisition radar, one HT-233
engagement radar, 8 x Taian
TAS-5380
TELs, with 32 ready rounds, one vehicle for battery positioning, one
generator vehicle, one support vehicle and a mobile command post. A
HQ-9 brigade level formation comprises six batteries[3].
The HHQ-9 is the navalised variant of the HQ-9, launched from a VLS
system, on the Type 052B/C Luhai II class DDG.
According the
US DoD, the FT-2000 has yet to be
deployed, as is the
case with the follow-on HQ-9 variants. Open sources describe the FT2000
as an inertially guided SAM with an
anti-radiation terminal
seeker, programmed before launch for the characteristics of the
intended
target. Cited frequency coverage is 2-18 GHz. Each battery includes
four ESM vehicles, used to generate
targeting
data for the missile battery. Intended targets including support
jamming aircraft, aircraft equipped with self-protection jammers, and
other radiating airborne targets, e.g. AWACS/AEW&C.
Given that
the
FT-2000 is derived from the HQ-9, claims that this weapon has not been
deployed
should be treated with caution, since the missile and its guidance
support
package could have been integrated into the baseline HQ-9 system
design, and
other than by covert intelligence gathering or PLA disclosure, this
cannot be
easily determined by simple observation. It is entirely conceivable
that a HQ-9
battery could be armed with a mix of HQ-9 /FD-2000 and FT-2000 rounds,
and this
could
only be determined in combat once missiles are actually launched and
enter
their terminal guidance phase.
|
CPMIEC
HQ-16 / SA-11 Gadfly
Display
mockup
of
a
PLA
SAM
resembling
the
SA-11
Gadfly (Chinese internet).
Very little has been disclosed
to date on the HQ-16 SAM system. Most sources describe it to be a joint
PLA-Russian evolution of the SA-11 Gadfly or SA-17 Grizzly medium range
semi-active radar homing SAM. The PLA-N deployed the VLS 9K37/9M317M
Yozh / SA-N-12 Grizzly on the Type 956EM Sovremmeniy class DDGs under
the designation HHQ-16.
More recent imagery of a SAM mockup suggests the HQ-16 is a licenced
derivative of the baseline 9M38 Gadfly missile using the long chord
short span cruciform strake design, rather than the 9M317 series
missile airframe. This is consistent with the Russian practice of
licencing the PLA for the production of equipment variants no longer
built for Russian use. Imagery of a six round TEL on a 6 x 6 chassis
has also emerged, the cold launch vertical ejection tubes being of
suitable size for such a SAM. Given the use of this technology in the
9K37 naval variant, adaptation for a wheeled TEL would not be difficult.
Russian tracked and wheeled TELARs for the SA-11/17 missile systems
incorporate either an X-band MSA or PESA engagement radar with an FMCW
illuminator capability for the semi-active homing missile seeker.
Neither of the PLA TELs have such a facility, suggesting the engagement
radar is on a dedicated vehicle. It is not known what engagement and
search radars are intended for use with the HQ-16. These would likely
be carried on the same 6 x 6 chassis used for the missile TELs.
Missile kinematic performance is likely to be similar to late model
SA-11 rounds.
Images
claimed to be of a six round HQ-16 VLS TEL. The frame structure for the
launch tubes is cumbersome and would not permit a rapid reload
capability unless all six rounds are replenished in a single operation
(Chinese internet).
|
CNPIPC / CEIEC
/ CASIC KS-1A Kai Shan 1 / HQ-12
H-200 engagement radar and
KS-1A TEL. China's indigenous
HQ-12 / KS-1A best compares in capabilities to the US RIM-66 SM-1/SM-2
Standard SAMs.
The H-200 phased array engagement radar is available in semi-mobile
configuration (depicted) or a fully mobile arrangement resembling the
Russian
30N6. Static launchers are
also available.
The
indigenous
HQ-12 is now being deployed with PLA air defence
units, and the US DoD puts the number of
fielded
launchers at 60 units. Developed to replace the HQ-2, the HQ-12 has
been
observed in a number of variants, these including static rail launchers
clearly
derived from the HQ-2 design, a 6x6 road mobile TEL also derived from
the HQ-2
launcher, and a road mobile Patriot like box launcher.
The
single
stage
solid
propellant
KS-1A
missile
itself
compares
best
to the RIM-66
SM-1/2
in general layout, but with a very short span delta wing design more
akin the the US Hawk. The rail launchers
are conceptually similar to
the underslung SM-1 rail launcher. Missile
performance is cited at a maximum range of 27 nautical miles, maximum
altitude
of 80 kft, and a maximum load factor of
20G with
capability against 4-5 G targets. The nearest equivalent US missile is
the
RIM-66 SM-1 and SM-2 series, the KS-1 falls between the SM-1 and SM-2
in
performance, and it is about 20 percent larger and 40 percent heavier
at
launch.
Chinese
sources
claim
early
KS-1
variants
used
the
HQ-2
radar
package, but since then
the H-200
phased array engagement radar has been disclosed as the primary
radar component
of the KS-1A system. This phased array compares closely in
configuration to the
US MPQ-53 Patriot and Russian 30N6E series engagement radars, and is
available
either as a static relocatable
installation, or a
fully road mobile design on a 6x6 truck. Chinese sources claim a high
resistance to jamming, which is credible given the phased array design
technique
used. The alternative engagement radar offered is the
fully mobile SJ-231 phased
array.
Candidate acquisition radars for KS-1A batteries include the JY-11/JY-11B, YLC-18 and the JYL-1.
The
HQ-12
is
clearly
a
credible
modern
SAM
system,
and
like the J-10 fighter,
illustrates
China's technological capability to compete in the design of modern
weapons.
HQ-12 TEL in new
“pixelated” disruptive camouflage
pattern (Chinese internet).
KS-1A
Battery
Composition
|
24
Missiles
|
1
Guidance
radar
station
|
6
Dual-rail
launcher
vehicles
|
6
Transloader
vehicles
|
2
Power
supply
vehicles
|
1
Frequency
conversion
power
distribution
vehicle
|
1
Missile
test
vehicle
|
3
Missile
transport
vehicles
|
2
Tool
vehicles
|
1
Power
supply
vehicle
|
1
Set
of
technical
support
equipment
|
1
Electronics
maintenance
vehicle
|
2
Spare
parts
vehicles
|
1
Missile
testing
&
metrology
vehicle
|
|
KS-1A Missile Performance Specifications
|
Target
RCS:
|
2
m2
|
Max.
target-flying
speed:
|
750
m/s
|
Altitude:
|
0.3
km
-
27
km
|
Min.
slant
range:
|
7
km
|
Max.
slant
range:
|
38
km
(Target
speed:
<
720m/s)
|
|
42
km
(Target
speed:
<
420m/s)
|
|
50
km
(Target
speed:
<
320m/s)
|
Kill
radius
of
the
warhead:
|
>
50m |
Single-shot
killing
probability:
|
89
%
|
Guidance
mode:
|
radio
command
guidance
|
Launch
mode:
|
Under-rail
suspension
|
Time
for
deployment:
|
30
min.
|
Time
for
withdrawal:
|
20
min. |
Missile
diameter:
|
400
mm
|
Missile
length:
|
5644
mm |
Missile
weight:
|
886
kg |
|
|
Operating
environment
|
Height
of
the
site:
|
0
-
3,000
m
AMSL
|
Ambient
temperature:
|
-40°
to
+50°
C
|
Relative
humidity:
|
<
93%
|
Surface
wind
speed:
|
<
20m/s
|
Detail of KS-1A launcher (image © 2009, Zhenguan Studio).
Detail of KS-1A launcher (image © 2009, Zhenguan Studio).
Detail of KS-1A launcher (image © 2009, Zhenguan Studio).
An alternate TEL arrangement uses elevating box launchers
each
containing one KS-1A round. The status of this variant has not been
disclosed to date.
The
SJ-231
is an alternate
radar for the KS-1A/HQ-12 SAM system, based on the HT-233 PESA antenna
and cabin design. Cited performance is virtually identical to the
H-200. Unlike the towed H-200, the SJ-231 is self propelled, but unlike
the HT-233 it is split across a pair of 6 x 6 or 8 x 8 vehicles.
SJ-202
Gin Sling A. This radar is associated with the HQ-2 and early variants
of the KS-1, and is a derivative of the SNR-75 Fan Song series.
|
CPMIEC
2FA(B)/ ZD-2(B)/HQ-2BE / SNR-75A /
HQ-2 and HQ2J Guideline[1]
WXZ204 HQ-2B Tracked Surface-to-Air Missile
Launcher[2]
Early model cloned
Soviet
S-75 on display at Datangshan (Zhenguan Studio, © 2010 Air Power
Australia).
The Chinese
built derivatives of the Soviet SA-2 Guideline were, until the arrival
of the
SA-10/20, the numerically most important SAM system in PLA service.
Current
official US estimates put the remaining inventory at more than 60
batteries,
for a total of about 400 single rail launchers.
When
the
PRC
split
with
the
Soviets
during
the Krushchev
era,
early variants of the S-75 were the only then modern weapons China
possessed,
with a mere 6 batteries in service. These comprised the standard static
road
transportable semi-mobile rail launchers, the S-band Fan Song
engagement
radars, and the VHF band P-12 Spoon Rest acquisition radars. China's 5th Research
Academy of the Ministry of Defence subsequently
reverse engineered this hardware and started the manufacture of the
HQ-1 (Hong Qi-1) , a
cloned S-75 system. By 1966 an improved HQ-1, the HQ-2 was introduced,
with
incremental upgrades to the HQ-2A during the 1970s, and HQ-2B during
the 1980s, the final variant being the HQ-2J.
Two engagement radars are associated with the HQ-2, both derivatives of
the SNR-75 Fan Song series. These are the SJ-202 Gin Sling A and the
2FA(B) Gin Sling B.
Progressive
design
improvements
included
a
better
liquid
rocket
motor,
more
G capability, better warhead,
digital
command link for guidance with crypto capability, a monopulse
engagement radar capability for jam resistant angle tracking, and
electro-optical angle tracking.
The
stated long term intent is to replace the
HQ-2 with the indigenous
HQ-12/KS-1A SAM, as a second tier supplement to the Russian S-300PMU
series.
There is some evidence which suggests
that hybridisation of legacy HQ-2
batteries with new generation H-200
PESA engagement radars may have occured. This remains to be validated
by official disclosures or more detailed technical evidence.
Above deployed HQ-2A
battery,
with
the reverse engineered SM-90 launchers and PR-11AM
transporter/transloader. Below a HQ-2A battery on display.
Fuelling a HQ-2 round with the toxic and
corrosive AK-20K/TG02
propellant mix. Protective gear is required for personnel.
WXZ204 HQ-2B TEL in
deployed configuration.
The
WXZ204 tracked launcher was developed for the HQ-2B Surface-To-Air
Missile. During the 1979
Sino-Vietnamese War, Chinese troops would not advance beyond air
defence
coverage envelope afforded by their fixed HQ-1/HQ-2 SAM belt inside
China. To alleviate this problem by
increasing
SAM coverage for PLA forces operating on China’s periphery, development
was
started in 1980 of a tracked launcher for the HQ-2 SAM, based on the
Chinese
clone of the Soviet SM-90 sem-mobile launcher. It
was
designed
to
operate
in
the
rear
of
the army, and if
it had been available during the 1979 Sino-Vietnamese War, would have
been
integrated into the Chinese air defence system utilising Fan Song or
Gin Sling
engagement radars deployed inside China.
The
vehicle used a lengthened Type 63 amphibious tank chassis with an
additional
road wheel providing a total of
fourteen. With
the missile loaded it weighs 26 tonnes, with the missile weighing
approximately
2,200kg.[3] Two prototypes were built, but it does
not appear as yet to have entered production.
The
weapons system’s overall length when travelling was 13.235 m including
missile,
3.2m wide and 4.5m high. The hull
height was 1.57m. The diesel
engine produced 293 kW and a torque of 70.8 kN, and gave the vehicle a
maximum
road speed of 42.9 km/hr and a maximum road range of 250km. The low top speed and range suggest
that the engine was taxed moving the vehicle.
The
missile was mounted on its SM-90 derived static launcher, which was
modified
for fitting on the vehicle hull. It was able to traverse through 3600
, although it would normally be
fired
facing the vehicle front as the huge folding stabiliser at the rear of
the hull
acted as a flame and heat deflector. Two
large
cable
reels
contained
the
fire
control
cables
which
were attached to relevant air defence equipment. It
was not capable of firing at an
aircraft independently and a battery of these with its attendant
radars,
generators and control vehicles would occupy a considerable piece of
land.
On the move, the missile
would be vulnerable to
damage, both due to enemy fire and accidental. As
the
HQ-2
uses
the
toxic
AK-20K
(or IRFNA
- Inhibited Red Fuming Nitric Acid)
mélange
oxidiser, any leak
is
catastrophic to any vehicle or person that is exposed to its highly
corrosive
properties. Moreover, the TG02 /
samin fuel will spontaneously ignite when in contact with the oxidiser.
No unit
or vehicle commander and crew would like to be carrying one in the
event of
enemy action.
WXZ204 HQ-2B TEL.
2FA(B)
Gin
Sling
B
engagement
radar.
SJ-202
Gin
Sling
A engagement radar.
There is some evidence which suggests that
hybridisation of legacy HQ-2 batteries with new generation H-200 PESA
engagement radars may have occurred. This would significantly increase
jam resistance of the battery and permit more concurrent missile
engagements.
|
RWE-1 Missile
Approach Warning
System
RWE-1
MAWS
with
its
four
low
UHF
band
Yagi
antennas deployed
(via R.D. Fisher).
The RWE-1 is a radio-frequency band active MAWS intended to protect SAM
batteries from attack by anti-radiation missiles such as the AGM-88
HARM/AARGM series. It is employed to trigger emitter shutdown and
activation of active emitting decoys. The manufacturer's brochure
claims a detection range of 40 km / 21.6 NMI.
DF capability is likely to be via
amplitude comparison between channels, providing ~10° DF accuracy,
adequate for cueing decoys, or cueing point defence weapons like the LD-2000 to
acquire, track and engage the inbound missiles.
|
Russian
Area Defence Missile Systems
|
|
Almaz-Antey S-300PMU-2 Favorit
/ SA-20B Gargoyle
PLA 5P85TE TELs deployed in revetments.
The last of
the
S-300P derivatives to carry the S-300P designation, the S-300PMU-2 Favorit adds further capabilities. According to
the US DoD, the PLA has deployed 32
launchers for a total of 4 to
8 batteries.
The
Favorit is an incrementally enhanced
S-300PMU-1,
encompassing the 30N6E2 Flap Lid, 64N6E2 Big Bird, 54K6E2 command post, and
providing
interfaces and software to control legacy missile batteries, such as
the S-200VE/SA-5 Gammon. It
is intended to
compete directly against the Antey S-300V
Giant and
Patriot PAC-2/3 systems as an Anti-Ballistic Missile system. The new LEMZ
96L6E search radar
is available as an option with the Favorit.
With
the
S-300PMU-1
and
PMU-2
the
PLA
gains
enough
range
to be able to threaten
aircraft
over Taiwan if the missile batteries are deployed along the coastline.
|
Almaz S-300PMU-1 / SA-20A Gargoyle
5P85TE
TEL
prior
to
elevating
its
launch
tubes.
Below
5P58TE TELs on parade.
Initially
designated the SA-10D Grumble, and later redesignated
the SA-20 Gargoyle, the S-300PMU-1 was a “deep modernisation”
of
the
S-300PS/PMU
system.
The
US DoD puts
the
current PLA inventory at 64 launchers, for a total of 8 to 16 batteries.
While the
S-300PMU-1 retained improved Flap Lid, Clam Shell, and 5P58TE/DE TELs, it introduced two major new improvements,
intended to
match or outperform the Patriot PAC-1 and PAC-2 configurations. The
first was a
new missile design, the 80 nautical mile range 48N6, with a seeker
capable of
engaging 0.02 square metre targets.
Until
recently
the
S-300PMU-1
was
the
most
lethal
SAM
system
the PLA deployed, but it
has been
now supplemented with the more effective S-300PMU-2.
|
Almaz S-300PMU / SA-10B(C) Grumble
S-300PMU/PMU1 5P85SU TEL of the PLA stowed
and
deploying. Early model TELs used an arrangement with a 'smart' TEL each
controlling a pair of 'dumb' TELs. In more recent configurations all
TELs are 'smart' and autonomous (Chinese internet images).
The S-300PMU
was the first of the S-300 family of missiles to be procured by the
PLA, and
the US DoD puts current launcher numbers
at 32,
making for 4 to 8 deployable missile batteries. This system is the
export
configuration of the high mobility Soviet S-300PM (P- PVO, M - Modified) system, a deep upgrade based on the
self-propelled
S-300PS / SA-10B Grumble, itself successor to the Patriot-like
semi-mobile S-300PT. This subtype
is designated as an SA-10C in the literature.
The S-300PMU
best compares to earlier variants of the US Patriot system, but with
the
important difference that the S-300PMU is highly mobile,
with all key battery elements carried on MAZ-7900/543 variant 8x8
vehicles,
common to the Scud TEL. The S-300PS/PM/PMU was the first true “shoot
and scoot”
SAM system to be deployed, specifically built to evade the F-4G Wild
Weasel.
When the export variant was defined, a towed semitrailer TEL was introduced, the 5P85T with a KrAZ-260B tractor,
self-contained electrical power supply and masted
radio datalink for remote launch control
of TELs. Excluding mast mounted
components, the battery could
deploy or stow itself in 5 minutes or less.
The command
link guided missiles in the S-300PT were supplanted by TVM guided
extended 50
nautical mile range 5V55KD and 5V55R rounds. With all altitude coverage
the
S-300PS/PMU was a formidable system, capable of threatening the full
gamut of
conventional combat aircraft, and providing the impetus for the
development of
the F-117A and B-2A stealth aircraft.
|
Endnotes/References
[1] Excerpted
from “How the PLA Fights:
Weapons and Tactics of the People’s Liberation Army” published by the
United States Army’s Training and Doctrine Command. Additions and
updates by Dr Carlo Kopp.
[2] ‘Shui
wan changgong fa
tienlang ___ Zhongguo yanzhi
WXZ204 ludai shi hog qi
er haoyi
dikong daodan
jidong’, Tanke zhuangjia cheliangi,
2008 Niandi, 6 Qi, Zhongdi 266,
pp. 5
– 9.
[3] Andrei Chang, Analysis: China exports new SAM
missile, United Press International, 18th March, 2009, URL:
http://www.spacedaily.com/reports/Analysis_China_exports_new_SAM_missile_999.html
|
Imagery Sources: Chinese
Internet.
Line Artwork: © 2000, 2007,
2008, 2009
Carlo Kopp
|
Technical Report APA-TR-2009-0103
|
|