Upload
truongduong
View
212
Download
0
Embed Size (px)
Citation preview
6 Bases during the Cold War The bipolar base race Before 1940, the U.S. basing structure had been restricted to a small number of
colonial possessions and satraps, in Puerto Rico, Cuba, the Philippines, Hawaii,
Wake Island and the Panama Canal Zone. The Lend-Lease Act added a string of
bases in British and Canadian territories along the U.S. Atlantic littoral, in
Labrador, Newfoundland, Bermuda, the Bahamas, Antigua, Trinidad and British
Guyana. Then at the start of World War II, the U.S. established forward access
in Greenland, Iceland, the Azores, Mexico (Acapulco) and Ecuador (the Galapa-
gos Islands). By the end of the conflict the U.S. had access to a near-global
network of facilities in Europe, Asia and the Middle East.
The Soviet Union, by contrast, had basing access only within its contiguous
Eurasian empire, added to by the war’s end by access all over Eastern Europe
and in Mongolia. Britain, France and the Netherlands – also to a lesser degree
World War II neutrals Spain and Portugal – regained control over colonial
empires and related basing access after the war, only to see them gradually
wither with the decolonization process between 1945 and around 1970. Japan
and Germany lost everything they had.
By the late 1940s, the U.S. and the USSR were fully engaged in what would
become a global struggle for influence and access, in which access to bases was
to play a pivotal role, given the expectation of an inevitable “World War III.”
That competition accelerated after 1955, outside the bounds of the contiguous
Soviet empire and, importantly, had several features, but which were altered
across several identifiable, if not neatly bounded, phases of this competition.
They were:
• The importance of Western, mostly British, colonial possessions for U.S.
basing access in the early Cold War period, gradually fading in importance
over time up to around 1970.
• The increasing importance of alliances, ideological ties and security assis-
tance in determining the patterns of U.S. and Soviet basing access.
• The spatial configuration of “heartland” vs. “rimland” as depictive of the
U.S.–Soviet “base race,” with the U.S. establishing a ring of bases around
the Sino-Soviet Eurasian heartland, and the Soviets gradually leapfrogging
the rimland via ideological client states and arms transfers. The configuration İ 2007 Robert E. Harkavy
Page 2
was gradually altered towards a more inter-penetrated basis, with rivals’
bases in proximity in various regions.
• The increasing importance in the “base race” of technical or C3I or “ISR”
facilities, as supplementary to “traditional” naval and air bases: communica-
tions, space-related, ballistic missile defense, maritime detection, nuclear
detection, signals and photoreconnaissance intelligence etc.
• A reduction in the number of bases required by superpowers as a result of
technological development, i.e., longer-range aircraft, tanker refueling, the
increased amount of firepower packed into planes and ships, nuclear ship
propulsion etc.
• Towards the end of the Cold War and previewing the new world after 1991,
a newer geopolitical focus on the Persian Gulf and the “arc of crisis”
running from the East African Horn to Central and South Asia.
• A two-layered situation in which the bipolar rivals required basing access
for nuclear deterrence and for conventional power projection, but with these
functions often being combined in given basing facilities.
In the period immediately following the end of World War II, the U.S. was
faced with decisions about how far down to draw the enormous basing network
it had developed during World War II. At least one major article in Foreign
Affairs during this period pointed out the history of American weakness in this
area before World War II, and advocated that in line with its new powers and
responsibilities that the U.S. should retain a global basing structure after the
war.1 Of course, not all the countries that had hosted U.S. bases during the
war were willing to continue to do so; Brazil, for instance, insisted on U.S.
withdrawal in consonance with the altered conditions.
During the immediate postwar period, however, before the main thrust of
decolonization acquired full force, the U.S. was able to rely on the bases pro-
vided primarily by the British, but also the French, Dutch and Portuguese
empires.2 These empires unraveled only gradually over a 25-year or so period.
This provided the U.S. access to a plethora of air and naval bases: Gibraltar,
Malta, Cyprus, the Suez Canal Zone, Aden, Libya (Wheelus Air Force Base),
Gan in the Maldives Islands, Mombasa, Simonstown in South Africa, Freetown,
Singapore, Hong Kong, etc., added to by access to other facilities in Canada and
Australia. France’s remnant empire allowed for some U.S. access as well,
particularly important in the 1950s, regarding bomber bases and communica-
tions facilities in Morocco. During the period after 1945, of course, the U.S.
occupied Germany and Japan, and had free access to bases all over occupied
Europe, in France, the Netherlands, Belgium, Italy, Greece and Turkey. In the
Central Pacific, the U.S. took over the former Japanese League of Nations man-
dates in the Caroline, Mariana and Marshall Islands, with few restrictions on
their use for bases.
In the early 1950s there was the full onset of the Cold War, the Korean War,
and NSC-68 as the formalization of the containment policy. Importantly, there
was also the construction by the U.S. of a network of formal alliances, both
Bases during the Cold War 95 İ 2007 Robert E. Harkavy
Page 3
multilateral and bilateral, that formed a physical barrier around what had come
to be called the Sino-Soviet bloc after 1949, a barrier extending around Eurasia
from Ireland and Norway around to Japan. There was NATO, CENTO (the
Baghdad Pact) and SEATO, the first two hinged on Turkey, the latter two on
Pakistan, abetted by ANZUS and the bilateral defense pacts with Japan, South
Korea (after 1950) and Taiwan (after 1950).3 Arms transfers and other forms of
security and economic assistance underpinned all of these alliances, and with
them went a very permissive and comprehensive basing structure for the U.S., in
effect in exchange for security against the perceived menace of Soviet and
Chinese expansionism, both in terms of possible military attack and internal sub-
version. The physical structure of this basing network was neatly reflective of a
rimland defense posture around Eurasia à la the geopolitical formulations of
Mahan and Spykman.
Functions of the U.S. Cold War basing system As the Cold War evolved in the 1950s and 1960s, the functions of the U.S.
global basing structure came to be divided along the lines of nuclear deterrence
and conventional deterrence and power projection. The latter category further
subsumed the use of bases for direct military interventions, arms resupply during
conflict, coercive diplomacy (“gunboat diplomacy”) and “presence” (showing
the flag).4
The initial use of forward bases came with the stationing of B-29 bombers in
the U.K. in the late 1940s. Following that was the stationing, in the 1950s, of B-
47 “Reflex Force” bombers in the U.K., Spain and Morocco.5 Shortly after that,
the B-52 bombers were introduced as the backbone of SAC, and they were all
based along the northern rim of the continental U.S., in Maine, New Hampshire,
upstate New York and Michigan. But, they required tanker refueling, bases for
which were established in Greenland (Thule), Canada (Gander), Iceland
(Keflavik) and in the U.K. Additionally, numerous bases in Europe and else-
where were designated as recovery bases for the bombers should they exit the
USSR after a bombing raid.
Later in the Gulf War, forward based tactical aircraft (FBS) – F-4s, F-16s,
and F-15s – were configured for nuclear weapons, based mostly in Germany, but
able to mount missions from other bases in Europe, in Iceland, the Netherlands,
Italy and Turkey.6 Additionally, F-111E bombers based in the U.K. were
deployed as nuclear attack aircraft that could reach into the Soviet Union.
Nuclear armed attack aircraft were also based in South Korea and the Philip-
pines, capable of reaching the USSR and China. Tanker aircraft based on Guam,
Okinawa, Japan and the Philippines could also serve in relation to nuclear-armed
aircraft.
In the late 1950s, in response to the “missile scare,” i.e., the looming threat of
Soviet ICBM deployments ahead of similar U.S. deployments, the U.S. based
medium-range ballistic missiles, Thor and Jupiter, in the U.K., Italy and Turkey.
In Asia, Matador and Mace land-based missiles were deployed in Okinawa and
96 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 4
Taiwan as a deterrent vis-à-vis China and the Soviet Far East.7 And then, in the
1980s, the U.S. forward deployed Pershing II and ground-launched cruise mis-
siles (GLCMs) in several Western European states – Germany, Belgium, the
Netherlands, Italy, U.K. – to counter the menace of Soviet SS-20s being targeted
on Western Europe, which deployments were drawn down after the signing of
the INF Treaty with the USSR.
Nuclear-armed U.S. naval forces also made extensive use of overseas facili-
ties. American “boomers,” submarines mounting long-range SLBMs, were long
based at Holy Loch, Scotland and Rota, Spain, in addition to Guam. These
forward deployments allowed the U.S. to negotiate a SALT II Treaty with the
USSR that gave the latter a larger number of SSBNs, somewhat balanced out by
the U.S. having those overseas facilities that allowed for keeping relatively more
SSBNs “on station” at a given time. Finally, nuclear armed SSNs, attack sub-
marines, whose main intended function was to hunt Soviet SSBNs, were based
overseas at Faslane, Scotland, La Maddalena on Italy’s Sardinia and Sasebo in
Japan in proximity to known major transit routes for Soviet submarines. And,
lastly, U.S. carriers (CVNs) with nuclear armed aircraft and other surface ships
carrying nuclear weapons made frequent stops for replenishing at numerous
overseas ports, though that was sometimes a political problem in nuclear-phobic
Japan. U.S. nuclear-armed CVNs operated out of Yokosuka in Japan, Subic Bay
in the Philippines and Naples, Italy.
Electronic intelligence aircraft prowled along the Soviet borders and coasts to
“tickle” Soviet radars and to plan possible routes for U.S. bombers. U-2 and SR-
71 surveillance aircraft were used, particularly in the case of the former up to
1960, to monitor Soviet construction of ICBM missile silos and nuclear test
sites. The U-2s earlier were based at Mildenhall in the U.K., Bodo in Norway,
Wiesbaden in West Germany, Incirlik in Turkey, Peshawar in Pakistan and
Atsugi in Japan; the SR-71s mostly in the U.K., but deployable to other bases.8
Some other air and naval basing functions also related to nuclear deterrence.
The U.S. had an elaborate network of P-3 Orion naval air bases in relation both to
surface and sub-surface detection of Soviet ships, with a focus on ASW.9 Around
the Indian Ocean littoral, P-3s were flown out of Masirah in Oman, for instance,
Mogadishu in Somalia (after 1978), Singapore and Australia’s west coast.
Sigonella in Sicily was used as a major P-3 base for monitoring the movements of
Soviet submarines in the Mediterranean. Other P-3 bases have been Embelzebil/
Nairobi (Kenya), Tahkli (Thailand), Djibouti, earlier in the Seychelles and Bandar
Abbas in Iran during the Shah’s reign, Misawa and Iwakuni in Japan, Cubi Point
in the Philippines and Dakar in Senegal. Then, TACAMO aircraft based in, among
other places, Bermuda, were utilized to trawl communications wires through the
ocean to communicate with U.S. nuclear submarines.10
Regarding conventional power projection capability, the U.S. also utilized a
massive network of overseas bases, again for purposes of conventional deter-
rence (tripwires), arms resupply, coercive diplomacy and presence. Sometimes
but not always, these deployments involved co-location at bases utilized in rela-
tion to nuclear deterrence.
Bases during the Cold War 97 İ 2007 Robert E. Harkavy
Page 5
First and foremost was the long-term, stable deployment of ground forces in
Europe and Asia, primarily in Germany, South Korea and Japan, but also in Italy
and Belgium. That involved barracks, training grounds, maintenance depots,
hospitals, etc., in relation to large-unit deployments of corps and divisions; like-
wise, the deployment of protective surface-to-air missiles to defend these instal-
lations. The largest was with the Seventh Army in Germany, amounting at its
peak to some 330,000 troops, mostly in Bavaria, Hesse, Baden Wurtemberg and
Rhineland Pfaltz, reduced to below 100,000 after the end of the Cold War. In
Italy, a combat brigade was long deployed near Vicenza to bolster the Italian
army and in relation to a possible Soviet thrust through Austria into Italy.
In the Far East, the U.S., after the end of the Korean War, long deployed
around 40,000 troops in South Korea, mostly along the DMZ and around the
capital city, Seoul. There was a threat by the Carter Administration to reduce or
eliminate these deployments, which did not eventuate, in response to the
growing disparity in economic might between the two Koreas. In Japan, more
than 40,000 troops were long deployed, mostly Army and Marine units on the
island of Okinawa, co-located with extensive deployment of combat aircraft,
tankers and transports. Later, after the end of the Cold War, this deployment
became a hot issue within Japan, and consideration was given to moving the
troops to the Japanese mainland.
U.S. Navy surface fleet bases11 The U.S. Navy, throughout the Cold War, utilized a number of major and minor
bases for its surface fleets, most importantly, for aircraft carrier battlegroups.
Several British ports were regularly used. Before France’s withdrawal from
NATO’s military structure in the 1960s, Villefranche was a frequent port of call
for U.S. ships, as were Barcelona, Livorno, Rota, Piraeus, Souda Bay on Crete
and Izmir in Turkey, the latter a regional naval headquarters. Naples and nearby
Gaeta provided a homeport and headquarters for the U.S. Sixth Fleet in the
Mediterranean Sea.
In the Persian Gulf, even well before the Iran–Iraq and Desert Storm con-
flicts, the U.S. homeported a small flotilla and had a headquarters for its
MIDEASTFOR in Bahrain. Naval deployments in and around the Persian Gulf
were upgraded in the late 1980s. Mombasa in Kenya and Djibouti then became
ports used frequently by the U.S. Navy.
In the Far East, Yokosuka in the Tokyo Bay was long a hub of the U.S.
Seventh Fleet, with its extensive drydocking capacity that could handle large
nuclear-powered carriers. Sasebo on the Sea of Japan also hosted USN surface
vessels as well as attack submarines. And up to the end of the Cold War, Subic
Bay in the Philippines was another U.S. Navy main base, which was used to
support operations in Vietnam and elsewhere in Southeast Asia. Then, during
the 1980s, the Philippines began to eliminate U.S. use of its long-held naval and
air bases. The U.S. considered replacement bases variously at Guam, Taiwan,
Thailand and Australia, finally settling on extensive utilization of Singapore’s
98 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 6
Bases during the Cold War 99 Table 2 Main and secondary surface-ship and submarine operating bases of the U.S.
Navy, as of late 1980s
Host nation and base Description
For surface ships
Japan
Yokosuka
Major navy base, HQ for U.S. Naval Forces
Japan and homeport for aircraft carrier Midway
and about ten other 7th Fleet ships, available for contingencies in West Pacific; also used by
nuclear attack submarines; extensive dock
facilities, naval munitions maintenance and
storage, naval hospital, ship repairs including
largest USN drydock west of CONUS; supply
depot.
Sasebo
Base used jointly with Japan; naval ordnance facility, docking storage facilities for 7th Fleet;
homeport for a nuclear attack submarine, drydock
capacity for aircraft carriers, large-scale naval
fuel storage, munitions storage for USMC.
White Beach (Okinawa)
Berthing and storage for 7th Fleet ships,
occasional use by SSNs. Taiwan
Kaohsiung
Occasional port use by U.S. ships.
Guam (U.S. overseas possession)
Apra
Major naval base; ship repairs, logistics wharf,
explosives and fuel storage; formerly Polaris
homeport for eight SSBNs; patrol boats and mine flotilla based here.
Philippines
Subic Bay
Major USN base, HQ for U.S. Naval Forces,
Philippines, major ship repair facility with four
floating drydocks which can accommodate all but
largest aircraft carriers; piers and other support
facilities – support 7th Fleet operations throughout West Pacific and Indian Ocean; 60
percent of all 7th Fleet repairs performed here.
Australia
Cockburn Sound
Australian base, can accommodate four
submarines and four destroyers; possible
expansion to accommodate carriers; U.S.
considered homeporting a destroyer here; mostly
potential U.S. base, offered earlier as such by
hosts; port calls at Hobart, Melbourne, Sydney,
Brisbane, Darwin.
Thailand Sattahip
Military port constructed by U.S.; major port of
entry for military supplies to U.S. bases in
Thailand; peaked at end of Vietnam War.
Hong Kong
Periodic port calls.
Singapore
Sembawang Some overhauls, reprovisioning for USN ships,
potential for expanded use. İ 2007 Robert E. Harkavy
Page 7
100 Bases during the Cold War Table 2 continued
Host nation and base
Description
Sri Lanka
Colombo
Alleged use by U.S. for R&R.
Trincomalee Port calls.
Djibouti
Port calls by U.S. Indian Ocean task force;
refueling and reprovisioning, no shore leave; U.S.
leases fuel storage for own use.
Reunion
Port calls. Somalia
Berbera
Some use by U.S. Indian Ocean task force;
possible storage of matériel for rapid deployment
force.
Mogadiscio
U.S. improved facilities, port visits; possible
storage of equipment and supplies for Central Command.
Oman
Muscat
(Mina Qaboos)
Restricted USN use by Indian Ocean task force;
contingent use for Central Command in Persian
Gulf crisis.
Mina Raysutt Restricted U.S. use.
Masirah
Port calls.
Bahrain
Al Jufair
U.S. took over British facilities in 1949; now
homeport for “Mideast Force” of four destroyers, communications, storage, barracks, berth,
hangars, co-use of adjacent airfield; resupply of
Indian Ocean task force; low-key use because of
political problems; quiet access for greatly
expanded U.S. presence in 1987.
Kenya
Mombasa
U.S. port visits; possible pre-positioning of matériel for use in Southwest Asia.
Diego Garcia
U.S. naval support facilities; berths Central
Command’s matériel storage ships; lagoon
dredged to create sufficient anchorage for a
carrier battle group.
Mauritius Rumored USN port visits; R&R and
reprovisioning.
Azores (Portugal)
Ponta Delgada
Fuel storage; breakwaters; frequent visits by
NATO warships.
Spain
Rota
Major naval base; also airfield and
communications station; major repair
capabilities; can berth aircraft carriers; former
Polaris SSBN base; fuel depot; weather station;
naval hospital. İ 2007 Robert E. Harkavy
Page 8
Bases during the Cold War 101 Table 2 continued
Host nation and base Description
Italy
Naples
Major support complex for U.S. 6th feet; HQ for
attack submarines; homeport for destroyer tender,
communications centre.
Gaeta
Main base; homeport for flagship of U.S. 6th fleet, refueling facilities.
Greece
Souda Bay
NATO naval base; anchorage large enough for
entire 6th fleet; extensive underground fuel and
munitions storage.
Athens//Piraeus
U.S. use of commercial port facilities increasingly in jeopardy during Papandreou
regime.
Turkey
Istanbul
USN port visits.
Izmir
USN port visits. Antalya
USN port visits.
Portugal
Lisbon
USN port visits.
Israel
Haifa
Periodic USN port visits. Tunisia
Tunis
USN port visits.
Egypt
Alexandria
USN port visits, periodically.
Sudan
Port Sudan USN port visits.
Cuba
Guantanamo Bay
USN port visits, training and exercises; naval air
station, drydock, sheltered anchorage; naval
hospital; in reality mostly a political bargaining
chip. Panama
Rodman Naval Station
Fleet support, logistics, small craft training
facility.
Balboa
Naval ship repair facility.
For submarines
United Kingdom Holy Loch
SSBN forward base, homeport for ten
Poseidon’s; submarine tender permanently
berthed; large floating drydock.
Japan
Yokosuka, Sasebo
(See previous mention.) Italy
La Maddalena
Homeport for submarine tender; base for patrols
by SSNs in Mediterranean. Source: Compiled from SIPRI data and the many references cited for this chapter.
İ 2007 Robert E. Harkavy
Page 9
Sembawang facility, which provided the U.S. Navy with extensive drydocking
capability as well as a good location in relation to possible flashpoints both in
East Asia and the Persian Gulf area. Elsewhere in Asia, during the bulk of the
Cold War, the U.S. Navy made use of Australian ports on both coasts, visited
ports in Indonesia and (earlier on) Taiwan, and made extensive use of the Thai
port at Sattahip during the Vietnam War, during which the South Vietnamese
port of DaNang was frequently used. The accompanying table details the USN’s
basing net as of the mid-to-late 1980s.
U.S. Air Force bases12 In relation to possible theaters of combat, throughout the bulk of the Cold War,
the U.S. Air Force (USAF) made extensive use of a network of permanent and
standby bases, most of them in Western Europe and the Far East in proximity to
major ground force deployments.
In Germany, that long involved the major air bases at Bitburg, Ramstein,
Spangdahlem, Zweibrucken, Sembach et al., at which were deployed the USAFs
frontline fighters, earlier on the F-4s, later on the F-15s and F-16s. Additionally
in Europe there were the major air bases at Keflavik in Iceland, Sosterberg in the
Netherlands, Aviano in Italy, Torrejon, Zaragoza and Moron in Spain, and Incir-
lik in Turkey. Additionally, the USAF had deployed during the latter part of the
Cold War some 290 combat aircraft in the U.K. In addition to the 150 F111E/Fs
deployed as a nuclear strike force, that involved EF-111 Raven electronic
warfare aircraft, A-10s, RF-46 reconnaissance aircraft at several sites: Laken-
heath, Alconbury, Upper Heyford, Woodbridge and Bentwaters. Finally, tactical
aircraft were routinely rotated forward to bases in Italy and Turkey, while a host
of other bases in NATO were designated as co-located host bases available for
crises, coercive diplomacy or outright war – there were several of these in
eastern Turkey in proximity to Middle Eastern danger zones.
In Asia, the USAF had forward fighter bases in Japan, the Philippines and
South Korea. F-15s, F-16s and RF-4Cs were based at main bases at Yokota and
Misawa, Marine Corps Harriers at Iwakuni. There were F-4 E/G deployments at
Clark Air Force Base in the Philippines. In South Korea, F-4Es, RF-43s, F-16s
and A-10s were stationed at the major air bases at Osan, Kunsan and Taegu.
In relation to conventional as well as nuclear scenarios, the USAF permanently
stationed KC-135 A/Q and KC-10A tankers in a number of places to deal with
interventions or arms resupply operations: in the U.K. (Mildenhall, Fairford),
Spain (Zaragoza), the Philippines (Clark AFB), Okinawa (Kadena), Diego Garcia,
Iceland (Keflavik) and Guam. Thule in Greenland and Goose Bay and Harmon in
Canada were used for similar purposes. Still earlier, up to 1963, SAC’s KC-97s
were based in Canada at Namao, Churchill, Cold Lake and Frobischer – some of
these later were designated for dispersal and refueling operations.
The USAF has also made extensive use of overseas bases for transport air-
craft, often times ad hoc in relation either to routine staging of personnel or
matériel or to crises.
102 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 10
Most of the primary U.S. aircraft for long-range lift operations – C-141s, C-
5A/B, more latterly C-17s – have been based in the U.S., though they way be
dispersed for contingencies. But the USAF also long had numerous squadrons of
C-130s designated for tactical purposes (i.e., with shorter ranges and able to
utilize shorter runways). Some were based overseas at Rhein-Main (West
Germany), Howard AFB (Panama), Mildenhall (U.K.), Clark AFB (the Philip-
pines), Yokota (Japan) and Kadena (Okinawa). Sometimes these aircraft may
have used overseas facilities for tactical purposes – the Iran hostage raid was
conducted by C-130s based in Egypt.
In 1973, U.S. transport aircraft engaged in the arms resupply effort on behalf
of Israel made critical use of the Lajes air base in the Portuguese-owned Azores
Islands. In 1990–1991, USAF transport aircraft had extensive access to airfields
along routes to the Middle East both via the Atlantic and Europe, and via the
Pacific and Southeast Asia, where that access became domestic political issues
in Thailand and India. In the post-9/11 conflict in Afghanistan, U.S. transport
aircraft were staged via Eastern Europe and utilized bases in the former Soviet
Central Asian states of Uzbekistan, Tadzhikistan and Kyrghizstan. We shall
return to the link here with aircraft overflight rights.
During the latter part of the Cold War, the U.S. utilized some overseas bases
for its Airborne Warning and Control Systems (AWACS), a battle management
aircraft often used for coercive diplomacy as a modern form of “gunboat diplo-
macy.” Earlier in the Cold War, indeed, it had deployed overseas other elec-
tronic warfare aircraft (ECM and ECCM), for instance, RC-135 CONVENT/
ELINT aircraft for monitoring radars and telemetry had been based at RAF
Mildenhall, Hellenikon in Greece and Kadena in Okinawa. The EC-135, a modi-
fied KC-135 Stratotanker, was used as a radio and telemetry intercept aircraft,
and four of these “Silk Purse” planes were based at Mildenhall. In the latter part
of the Cold War, USAF EF-111 Ravens were based in Spain and Turkey
(Diyarbakir).
The AWACS themselves were home-based well back from potential lines of
confrontation, so as to mitigate the chances of preemptive strike. Some were
based at Keflavik in Iceland in relation to the crucial G-I-UK Gap, others at
Geilenkirchen in Germany, and several in Japan. Also used as forward AWACS
operating bases were Trapani in Italy, Konya in Turkey and Oerland in Norway.
A NATO command center at Maisieres in Belgium controlled NATO AWACS
and British Nimrod early warning systems. Still other AWACS were sold to
Saudi Arabia but operated there with U.S. crews.
Aircraft overflights13 One of the less visible forms of foreign military presence, also one which
involves movable and transitory presences, is that of aircraft overflight privi-
leges. It is a form of external access.
This occasionally crucial matter of aircraft overflight privileges involves a
complex range of practices and traditions, some of which were, in an overall
Bases during the Cold War 103 İ 2007 Robert E. Harkavy
Page 11
sense, altered by time in an era of increasingly “total” warfare, diplomacy and
ideological rivalries. In parallel with – and closely bound up with – what has
been wrought by nations’ increasing insistence upon extension of sovereign
control further outward from coastlines (now more or less institutionalized by
200-mile Exclusive Economic Zones – EEZs), the trend here during the Cold
War was towards tightened restrictions on overflights.
In the past – and in some cases continuing to the present – some nations have
allowed others more or less full, unhindered and continuous overflight rights
(perhaps involving only pro forma short-term notices, i.e., filing of flight plans).
In other cases, however, where political relations are weaker or not based on
alliances, ad hoc, formal applications for permission to overfly must be made
well ahead of time, which may or may not be granted depending upon the
purpose and situation, be it routine or crisis.
It is to be stressed that the day-to-day diplomacy of overflight rights is a very
closed and obscure matter, albeit of often crucial importance. We have little data
– the subject periodically emerges to prominence during crises such as the 1986
U.S. raid on Libya. Of course, it is precisely when urgent military operations are
involved that the subject acquires the most importance.
Nowadays, of course, well past the introduction of radar and its widespread
global distribution, few overflights can be made on a covert basis, as was
common before World War II, when detection depended primarily on visual
observation from the ground. Not only “host nation” radar, but now also the
superpowers’ satellite reconnaissance makes such “covert” activities almost
impossible, particularly if a small nation has access to information from one of
the superpowers, be it on a regular or ad hoc basis. This in turn may have had
important ramifications for intra-Third World rivalries, specifically, regarding
the balance of diplomatic leverage involved. Nations inclined, for instance, to
provide overflight rights in connection with a U.S. airlift to Israel knew that
Soviet satellite reconnaissance would provide information about that to Arab
governments. That was a powerful deterrent.
Some overflights were made without permission (as with the respective use
by the United States and the USSR of U-2 and MiG-25 reconnaissance flights),
overtly or with a tacit or resigned wink by the overflown nation. Often a nation
whose airspace is violated will not openly complain for fear of international or
domestic embarrassment over its impotence, or untoward diplomatic repercus-
sions with a strong power. Hence, the USSR is thought to have overflown Egypt
and Sudan, among others, without permission in supplying arms to Ethiopia
during the 1977–1978 Horn War, earlier, its MiG-25 and Tu-95 reconnaissance
aircraft apparently flew with impunity over Iran’s airspace. The United States is
thought to have threatened overflights in some places for future arms resupply of
Israel, if it should be utterly necessary.
More recently during the Gulf War, and the Afghan and Iraq wars, this
became a big issue in numerous places. During the Gulf War, the U.S. and its
allies were allowed overhead access almost everywhere, including ex-Warsaw
Pact states in Eastern Europe. In the Afghan war, the U.S. had good overhead
104 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 12
access all over Europe, in the Caucasus and Central Asia and in and around the
Persian Gulf excepting, of course, Iraq and Iran. Pakistan, politically cross-
pressured, allowed U.S. overflights by bombers coming from Diego Garcia and
from aircraft carriers stationed in the Arabian Sea. During the Iraq war,
however, the U.S. did have some problems with Switzerland, Syria and Iran.
Nuclear-related bases14 The utilization of overseas facilities in connection with the superpowers’ nuclear
competition began immediately after the close of World War II. During the late
1940s, prior to the Soviet Union’s development of a deployed nuclear military
capability, the U.S. forward-based some nuclear-armed B-29 aircraft in the U.K.
in an effort to deter feared Soviet advances in Europe. By 1950, B-29s were
based at Brize Norton, Upper Heyford, Mildenhall, Lakenheath, Fairford,
Chelveston and Sculthorpe. There were also reserve B-29 bases at other British
bases. There were related depots at Burtonwood and Alconbury, and also related
LORAN navigational facilities at Angle, Pembrokeshire and in the Hebrides.
That provided a clear first-strike deterrent capability for the U.S. well into the
1950s.
During the 1950s, the B-47 bombers became the backbone of SAC, and while
their effective ranges were greatly extended by the aerial-refueling techniques
then emerging, the U.S. then determined on forward deployment to enhance its
chances for penetration and to lessen its vulnerability to a Soviet first-strike.
This so-called “reflex force” rotated between U.S. home bases and those in the
U.K. (Fairford, Upper Heyford), Morocco (Sidi Slimane, Benguerir, Ben
Slimane, Nouasseur), Spain (Torrejon, Zaragoza, Moron de la Frontera), Green-
land (Thule) and Goose Bay, Labrador. (F-84 fighters used as bomber escorts
were also based at Nouasseur until U.S. access to Morocco was lost in 1963.)
Related U.S. tankers (then mostly KC-97s) were based primarily at Thule,
Greenland and Goose Bay, Labrador, and also at several other Canadian bases:
Namao, Churchill, Harmon, Cold Lake and Frobischer. Though the subse-
quently deployed B-52s which began entering inventories in 1955 did not
require forward main basing, they too utilized trans-Arctic tanker facilities
(including one at Sondestrom in Greenland) as well as contingency recovery
bases in Spain and elsewhere.
The Soviet Union did not utilize forward strategic-bomber facilities during
this period. Indeed, early Soviet bombers, such as the 4500-km range Tu-4,
could only reach the U.S. Pacific northwest from Siberia and, even then, by con-
ceding several hours’ warning time because of U.S. radar coverage in Alaska.
During this period, and for a long time thereafter, the U.S. also relied on
foreign access for strategic defense, primarily in Canada, Greenland and Iceland
– that involved the DEW Line, Mid-Canada and Pinetree Line strings of elec-
tronic listening posts, all under the U.S. Air Defense Command, which worked
closely with SAC. In addition, some U.S. interceptor aircraft were deployed at
Canadian bases such as Goose Bay, and at bases in Greenland and Iceland, for
Bases during the Cold War 105 İ 2007 Robert E. Harkavy
Page 13
perimeter early defense, well forward of the large-scale interceptor deployments
around major U.S. urban areas.
By the late-1950s, Soviet missile developments had rendered somewhat
obsolete the three-layered radar early-warning system across the Canadian
Arctic, which had been constructed to provide several hours’ warning of bomber
attacks. To cope with the missile threat, the U.S. built, beginning around 1958,
the Ballistic Missile Early Warning System (BMEWS), the three hinges of
which were in Fairbanks (Alaska), Thule (Greenland) and Fylingdales Moor
(Yorkshire, U.K.).
In the mid- to late-1950s, the U.S. underwent its famed “missile-gap scare,”
following the Soviet Union’s initial testing of IRBMs and ICBMs, and the
launching of the first “Sputnik” satellite. Coming before the deployments of
Atlas, Titan and Minuteman ICBMs and Polaris SLBMs, this created a per-
ceived “window of vulnerability” which, in turn, impelled the short-term solu-
tion of U.S. installation of IRBMs in Europe adjacent to the Soviet Union.
Specifically, this involved emplacements in 1958 of 60 2400-km range Thor
missiles in the U.K. at 20 bases, with headquarters at Great Driffield, North
Luffenham, Hemswell and Feltwell, 30 Jupiter missiles in Italy (at Gioia del
Colle) and 15 Jupiters in Turkey, installed in 1961 at Cigli Air Base (these were
removed as part of the deal in which the USSR removed IRBMs and also IL-28
aircraft from Cuba, after the Cuban Missile Crisis of October 1962 – though the
orders for their removal had apparently been given earlier).
Late in 1960 the U.S. deployed its first Polaris submarines and then its long-
range, counter-value Atlas and Titan ICBMs, thus quickly defusing the missile-
gap scare – though the forward-based IRBMs were to remain in place for an
additional two to three years.
Complementary to BMEWS, the U.S. developed early warning satellites
under the MIDAS satellite program. This involved combined use of infrared
sensors and telephoto lenses for immediate detection of missile-launching tracks
and transmission of this information to U.S. decision-makers. Launched by
Atlas/Agena D missiles, advanced MIDAS satellites deployed in 1969 could be
“parked” in synchronous orbits, allowing for continuous coverage of the western
USSR and the China-Siberia region as well as areas where Soviet submarines
lurked in firing positions. This involved the critical data down-link in Australia
at Nurrungar, a related control facility in Guam and an underwater cable termi-
nal near Vancouver in Canada.
One other key element of the strategic deterrence system came to depend
upon overseas access: long-distance and protracted deployment of the Polaris
nuclear-submarine force. The Polaris submarines were initially deployed early in
the Kennedy Administration. The proportion of that fleet which the U.S. was
able to deploy at any given time was enhanced by replenishment and repair
facilities at Holy Loch, Scotland; Rota, Spain and at Guam. Indeed, the asymme-
tries which these facilities created vis-à-vis subsequent Soviet SSBN deploy-
ment allowed the U.S. to negotiate that part of the SALT I Treaty which gave
the USSR a 62 to 44 advantage in strategic submarines, but which was claimed
106 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 14
to be counterbalanced by the efficiencies accruing to the U.S. from its overseas
replenishment facilities.
In the early 1960s, after the brief U.S. missile-gap scare, the Soviet Union
underwent a scare period of its own, as several U.S. strategic programs were
phased in. To compensate, Moscow gambled with the introduction in 1962 of
some 40 MRBMs into Cuba at several installations, precipitating the Cuban
Missile Crisis. (One recent report claims that these missiles were not accompan-
ied by nuclear warheads.) The history of that crisis bears no repeating here, but
it is worth noting that only by the early 1960s did the Cuban revolution avail the
USSR of its first valuable overseas assets applicable to the strategic nuclear
equation. Henceforth, Cuba would become a very valuable Soviet base, its prox-
imity to the U.S. providing irreplaceable assets related to intelligence, communi-
cations, naval replenishment and so on, along with contingent bomber recovery
bases in the event of a major war.
During the early postwar period, the U.S. made use of numerous nuclear-
related intelligence and communications facilities around the Eurasian periphery
– directed against the USSR, China and North Korea – mostly in the SIGINT
(ELINT and COMINT) categories. Earlier, both U-2 and other aircraft such as
the RB-47 were flown from bases in Europe and Asia to “tickle” Soviet early-
warning radars and, in the case of the U-2s, to test radars well inside the USSR
which might be of different types than the peripheral early-warning systems. By
so doing, U.S. planners might ascertain weaknesses and ranges, and scan pat-
terns in the Soviet radar network which could be valuable for planning the pene-
tration routes for a nuclear-bomber attack.
These exercises in low-level brinkmanship – apparently involving some
mock raids mounted by U.S. units in Turkey and elsewhere – resulted in some
serious incidents in which U.S. ferret aircraft were shot down and their crews
killed or captured. Some flights originating at Brize Norton in the U.K. appar-
ently traversed the entire Soviet Arctic coastline, emerging at the Barents Sea.
The area between the Caspian Sea and the Sea of Azov was also apparently a
focal point of U.S. surveillance missions utilizing Turkish and Iranian airspace,
some staged originally from West Germany and Cyprus.
U.S. use of ground-based SIGINT stations, obviously crucial to various
aspects of nuclear deterrence, dates well back into the postwar period. One
source reported that this had earlier involved some 40 stations in at least 14
countries, ranging from small, mobile field units to sprawling complexes such as
the Air Force Security Headquarters in West Germany. These were said to have
involved some 30,000 personnel, with a minimum of 4000 radio-interception
consoles operated in such varied locales as northern Japan, the Khyber Pass in
Pakistan and an island in the Yellow Sea off the coast of Korea.
Further, these COMINT land stations had to be supplemented by numerous
airborne and seaborne radio-interception facilities, particularly after Soviet and
aligned nations’ military forces switched to VHF radios during the 1950s, after
which adequate coverage demanded getting closer to transmitters and overcom-
ing terrain features such as mountains. At any time, several dozen airborne
Bases during the Cold War 107 İ 2007 Robert E. Harkavy
Page 15
listening posts were said to have been in intermittent operation, flying out of
such bases as Kimpo Airfield in Korea, Clark Air Force Base in the Philippines,
and many others. Added to these were some 12 to 15 spy ships, such as the ill-
fated Pueblo and Liberty, which also presumably required access to foreign
ports for replenishment.
Strategic nuclear forces: missile launchers and platforms15 Generally speaking, the late Cold War period saw the U.S. and the USSR left
with only minimal dependence on foreign facilities – Soviet dependence was
relatively less for their strategic nuclear launchers, involving the familiar triad of
ICBMs, SLBMs and long-range bombers. Of course, this is not to ignore the
fact, particularly as it pertained to U.S. forces, that some launchers designated as
theater weapons could serve strategic purposes in that their warheads could have
been delivered into the Soviet Union.
All of the U.S. ICBMs (450 Minuteman IIs, 550 Minuteman IIIs and a few
remnant Titan IIs which were phased out as the new MX-Peacekeeper was
phased in) were housed in silos within the continental U.S. – they represented
over 2100 accurate warheads. Similarly, the Soviet ICBM forces (448 SS-11s,
60 SS-13s, 150 SS-17s, 308 SS-18s, 360 SS-19s, 72 SS-25s), of some 1398
ICBMs with some 6354 warheads, were sited entirely within the USSR.
The Soviet SSBN forces (983 SLBMs in 77 submarines, of which 944
SLBMs and 62 submarines were under the SALT Treaty; and 39 SLBMs on 15
submarines were outside it) were based entirely at Soviet homeland bases, in the
Kola Peninsula area at Polyarny and Severomorsk, and at Petropavlovsk and
Vladivostok in the Far East. No foreign bases were used for refueling, mainte-
nance or crew changes. By contrast to the U.S. only some 15–20 Soviet sub-
marines were normally away from their bases; perhaps 10–12 on station at any
given time.
The U.S. SSBN force, which earlier made extensive use of facilities at Holy
Loch (Scotland), Rota (Spain) and at U.S.-owned Guam, utilized only the first-
named of these, with its other three main bases in the continental U.S. at Kings
Bay (Georgia), Bangor (Washington) and Charleston (South Carolina). The
development of the longer-range Poseidon and Trident missiles (with ranges of
4000 miles) allowed for utilization of firing stations nearer U.S. bases and
further from the USSR, hence reducing requirements for firing stations in the
western Pacific (Guam) and in the Mediterranean (Rota).
Little was publicly known about where these submarines patrolled, but they
are thought to have transited to firing stations in the Arctic, North Atlantic and
North Pacific oceans and in the Mediterranean Sea, with about 30 percent of the
force on station on day-to-day alert, and a roughly equal proportion in transit or
on training missions. The use of Holy Loch as a forward base (for submarines
homeported at Groton, Connecticut) allowed more to be on station than other-
wise would have been feasible, and it is also to be noted that 400 Poseidon war-
heads deployed on submarines operating out of Holy Loch were designated for
108 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 16
NATO targeting, presumably either for theater targeting or for battlefield use
along the Forward Line of Troops (FLOT) in central Germany.
At the strategic level, the U.S. deployed some 260 long-range bombers (some
20 B-1Bs and some 240 B-52G/Hs) and some 55 medium-range FB-111A
bombers. Most of the B-52s carried up to 20 ALCMs; others carried a similar
number of short-range attack missiles (SRAMs); and some, armed with Harpoon
missiles, were operational in a conventional mode.
This bomber force, which carried over 5000 nuclear warheads, was main-
based at 19 air bases in 13 states and at Andersen AFB in Guam, but numerous
dispersal (pre-attack or crisis) and recovery (post-attack) bases, or forward oper-
ating bases were involved. Some of these were outside the U.S., for instance in
Canada at Cold Lake (Alberta), Goose Bay (Labrador), Namao (Alberta) and
Whitehorse (Yukon); in Greenland at Sondestrom; in the U.K. at Brize Norton,
Marham and Fairford; in Spain at Moron and Zaragoza. But numerous others, on
the basis of ad hoc contingency planning could have been used in connection
with numerous tanker bases – or their dispersal bases – at some of the above-
mentioned Canadian bases at Namao and Goose Bay; at Mildenhall and Fairford
in the U.K.; Zaragoza in Spain; Clark Air Force Base in the Philippines; Kadena
in Okinawa; Diego Garcia; Keflavik (Iceland); Guam; Thule (Greenland) and
so on.
The U.S. forward-based some 156 of the nuclear-armed F-111E/Fs in the
U.K., which were actually tactical fighter bombers designated for missions in
Central Europe. These were stationed at Upper Heyford and Lakenheath, which
hosted some 72 and 84 aircraft respectively, involving in each case the storage
of some 300 nuclear bombs.
By comparison, the Soviet Union made little use of external facilities for its
long-range strategic bomber force, which consisted of some 160 aircraft: 140
Tu-95 Bear A/B/C/G/Hs armed either with ALCMs or air-to-surface missiles,
and 20 Mya-4 Bisons (these were superseded by the Blackjack strategic
bomber). The same was true of the some 230 Backfire, Badger and Blinder
Bombers – some of the former were assigned to Soviet long-range aviation.
These strategic bombers utilized five northern staging and dispersal bases within
the USSR from which attacks could be mounted on the U.S.
Regarding forward emplacement of U.S. nuclear weapons, primarily in
Europe, there were several distinct types of circumstance in which they were
based, involving the issues of dual control or the two-key system, and the poli-
tics of nuclear basing on other nations’ soil. First, there was the actual forward
basing of U.S. aircraft, missiles or artillery – fully manned by U.S. personnel
involving organic U.S. military units but based on foreign soil and in circum-
stances in which ad hoc permission for actual combat would have been required.
Next, there were the numerous circumstances in which other nations – West
Germany, Belgium, the Netherlands, Italy, Turkey, Greece etc. – deployed
nuclear weapons on aircraft, missiles, howitzers and so on, but where the stric-
tures of the nuclear non-proliferation regime dictated a U.S. custodial presence
and the use of a two-key system, further implying a veto on actual use by either
Bases during the Cold War 109 İ 2007 Robert E. Harkavy
Page 17
the U.S. or its nuclear partner. Some of these situations involved Allied nuclear
systems based within the host nations’ borders as, for example, in Turkey or
Germany, as with Belgium or Dutch nuclear-armed artillery. Some nations, such
as Norway and Denmark, did not allow nuclear weapons or foreign military
bases on their soil during peacetime. Others, such as Iceland, did not allow
nuclear weapons on their soil, but had contingency provisions for forward-
basing of nuclear weapons for “wartime ASW operations.”
The primary land-based U.S. theater weapons were the Pershing II and
ground-launched cruise missiles later eliminated in connection with the INF
Treaty. These were, of course, all foreign-based, involving the 108 Pershing
(plus 12 spares) at several sites in West Germany (Heilbronn, Waldeide,
Neckars-Ulm, Schwabisch-Gmund), and the already deployed and planned
GLCMs there (at Woescheim), and in the U.K. (Greenham Common,
Molesworth), Belgium (Florennes), the Netherlands (Woendsrecht) and Sicily
(Comiso). Additionally, launcher repair facilities were identified at EMC
Hansen, Frankfurt (West Germany) and at SABCA, Gossens, Belgium, and a
missile storage site at Weilerbach in West Germany. Originally, this called for
464 GLCMs overall, based on 116 launchers, with perhaps nearly double that
number of warheads, though by the time of the 1987 INF Treaty only some 309
missiles and 109 launchers had been deployed. The Pershing missiles with
ranges capable of reaching well into the USSR, indeed, as far as Moscow, may
have been perceived as having “strategic” implications, albeit based outside the
U.S. Additionally, there were the remnant German Pershings under U.S. custo-
dian control (with two warheads per launcher), with shorter reaches well short of
being able to target the USSR proper (these too were eliminated under the INF
accord).
Otherwise, the U.S. based a considerable number of nuclear-capable aircraft
forward in Western Europe, that is, those manned directly by USAF personnel,
which involved the forward deployment of some 1700 nuclear bombs. These
were, obviously, usable for tactical purposes along or directly behind the FLOT,
but – particularly with the aid of aerial refueling – also capable of deep interdic-
tion missions throughout Eastern Europe and well into the Soviet Union proper.
Some 72 F-16 fighter-attack aircraft and some 140 nuclear bombs were stored at
both Hahn and Ramstein air bases; at Spangdahlem, a similar number of F-16s
with some 140 weapons were stored. At Aviano in Italy, some 200 weapons
were said to have been stored in connection with nuclear-capable F-16s, previ-
ously rotated forward from Spain but later based in Italy. In Turkey, the base at
Incirlik supported some 36 nuclear capable F-4s or F-16s which could be loaded
with the weapons on quick-reaction alert after being rotated forward, while
another base at Cigli, Izmir acted as a dispersal base for nuclear-capable aircraft.
Of course, land-based aircraft were not the only forward-based U.S. nuclear-
armed aircraft. There were also U.S. aircraft carriers in the Mediterranean Sea
and the Atlantic Ocean. Typically, there were two carriers on station in the
Mediterranean – utilizing ports such as Naples, Souda Bay, Rota – which could
launch A-6E, A-7 and F/A-18 aircraft carrying nuclear weapons, with
110 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 18
respective ranges of 3200, 2800 and 1000km. With the capability to strike the
Soviet homeland if within range, each carrier deployed over 100 nuclear
bombs.
As well as nuclear-armed aircraft, there were the numerous U.S. and other
NATO nations’ ASW aircraft, involving the U.S. P-3C Orions and the British
Nimrods. In a conflict, these would have been vital to NATO efforts at securing
North Atlantic SLOCs against interdiction by Soviet attack submarines. U.S.
and Dutch P-3Cs and British Nimrods were based at or staged through British
bases at St. Mawgan and Machrihanish (the latter in the Strathclyde area of
Scotland) – some 63 U.S. nuclear depth bombs were stored at each base. Addi-
tional U.S.-manned and operated P-3Cs with forward-stored nuclear depth
charges were based at Keflavik, Iceland (48 bombs), Sigonella on Sicily (63
bombs) and Rota, Spain (32 bombs). Other U.S. P-3Cs were rotated through
Andaya and Bodo in Norway, Souda Bay on Crete and Montigo, Portugal, while
some 32 nuclear depth bombs were stored at Lajes in the Azores for wartime
operations.
Soviet forward-based nuclear-capable aircraft16 According to the IISS, the USSR had several types of land-based strike aircraft
capable of being configured with nuclear weapons, each of which could carry
two nuclear bombs. These were the Su-7 Fitter A (80), the MiG-21 Fishbed L
(135), the MiG-27 Flogger D/J (810), the Su-17 Fitter D/H (900) and the Su-24
Fencer (700) – a total of 2625 such aircraft. Of the 700 Fencers, 450 fell under
the control of Strategic Aviation. Over 1000 Soviet tactical fighter aircraft were
forward-based at a large number of facilities in the GDR, Czechoslovakia,
Poland and Hungary.
Nuclear-capable Su-24 Fencers were stationed at Szprotawa AB and Zagan
AB in Poland, at Debrecen in Hungary and at Brand-Briesen AB in the GDR, in
each case involving associated nuclear storage sites (the latter base was said to
have been converted from Su-7s in 1982). In the GDR, nuclear-capable MiG-27
Flogger D/J regiments and nuclear-bomb storage sites were at Finsterwalde AB
and Mirow-Rechlin Larz AB; Su-17 Fitter D regiments were located at Grossen-
hain AB, Neuruppin AB and Templin-Gross Dolln AB.
Several of the non-Soviet WTO nations also forward deployed nuclear-
capable aircraft, perhaps involving something like a two-key system, under
Soviet custodianship. Czechoslovakia (50) and Poland (40) had Su-7 Fitters;
Poland (40) Su-20 Fitter Cs and Bulgaria (45), Czechoslovakia (40) and the
GDR (24) MiG-23 Flogger F/As. The IISS noted that the total actually available
as nuclear-strike aircraft may have been lower than the figures shown. It is pos-
sible that the Soviet air force could itself have used these aircraft in a nuclear
mode if war erupted.
Outside the WTO area, the USSR also deployed some 16 Tu-16 Badger
bombers in Vietnam, which were capable of nuclear missions, perhaps against
China or the U.S. basing structure in the Philippines.
Bases during the Cold War 111 İ 2007 Robert E. Harkavy
Page 19
The USSR also utilized several external bases for nuclear-capable ASW air-
craft. Bear-F aircraft, for instance, utilized Cuban bases at San Antonio de los
Banos and Havana’s Jose Marti airport. Nuclear-capable IL-38 May ASW air-
craft regularly operated out of Aden and Al Anad in South Yemen, Asmara in
Ethiopia, Okba ben Nafi in Libya and Tiyas in Syria.
Overseas “technical” facilities: intelligence, space and
communications17 In a relative sense, and increasingly, the U.S.-Soviet global competition for
basing access was centered on a variety of what, for want of a better term might
be characterized as “technical” facilities, that is, those outside the traditional cat-
egories of air and naval bases and land-army garrisons and encampments. Most
of these facilities may be subsumed under the broad headings of communica-
tions, intelligence and space-related activities. They include such disparate func-
tions as satellite tracking, command and control; signals interception of rivals’
communications, radar signals, missile telemetry, and so on; underwater detec-
tion of submarines, accurate positioning of missile-firing submarines; space-
based ocean surveillance; nuclear-explosion detection; and a bewildering variety
of functionally specific communications systems running along the entire spec-
trum from extra-low to ultra-high frequencies. The increasing importance of all
these systems paralleled the extension of contemporary military activity to an
increasingly integrated, three-dimensional game involving outer space, land and
sea surfaces and the global undersea realms – submarines communicate via
satellite with land-based headquarters; satellites and land-based SIGINT stations
locate surface fleets by intercepting their radar emissions; satellite early warning
is transmitted, variously, by ground terminals, underwater cables, via other satel-
lites and so on.
This advent of the importance of technical facilities gradually picked up
speed before and after World War I. Before World War I, Britain developed an
elaborate and unrivalled global network of underseas telegraph cables – by far
the most important early precursor to modern “tech” facilities. At that time all of
the key British overseas possessions were linked together by that network, pro-
viding advantages in early warning and command and control of naval forces,
and in the ability to control and influence news broadcasting, an earlier form of
“public diplomacy” used as an instrument of competition.
Britain was not, of course, alone in constructing an elaborate underseas cable
network, nor in its efforts at securing the required access points. According to
one source, the United States in 1898 annexed Guam and Midway for the spe-
cific purpose of providing cable stations en route to the Philippines, decades
before those islands would become important U.S. air bases.18 France and
Germany also made efforts towards building global systems, but before World
War I the latter came to rely more on wireless systems, despite the vulnerability
of their communications to interception if decoded. By 1914 the Germans had
wireless stations in Togoland, southwest Africa, Tanganyika, Kiung-chow, Yap,
112 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 20
Rabaul, Nauru and Samoa, to abet what they knew would be a very vulnerable
cable network should war break out.19
At the outset of World War I, Britain was able rapidly to sever all of the
German underseas cables, while losing only a couple of its own cable stations
temporarily, at Cocos and Fanning Islands.20 The redundancy built into Britain’s
global system, abetted in 1914 by that of France, provided a strong strategic
advantage throughout World War I, still one more result of “invisible” global
naval superiority. Later, in 1919, the German cables were divided as war spoils
among the allies as part of the Versailles settlement.
Beyond World War I and up to World War II, increased importance was
attached to technical facilities. Long-range radio communications developed
apace and with them came the development by major powers of networks of
transmitters, receivers, relay stations and so on. With that came the early devel-
opment of radio interception facilities – before World War II, the U.S. worried
about German acquisition of interception facilities in the politically unstable
Caribbean area, for instance, in Haiti or Colombia.21 The U.S. breaking of the
Japanese code before World War II (which provided what should have been a
decisive, timely early warning about Pearl Harbor) serves as an additional pre-
cursor of subsequent intelligence activities, now far more institutionalized in
organizations such as the U.S. National Security Agency (NSA). Japan, mean-
while, in violation of the Washington Naval Agreement, built covert communi-
cations facilities on some of its Central Pacific, League of Nations Mandate
islands, providing an early problem of arms control verification.22 On the eve of
World War II, the U.S. was beginning to install early warning radars in some of
the bases acquired from the U.K. as part of the Lend-Lease Agreement.23 Gradu-
ally, one could see movement towards the central importance of C3I today –
towards quick if not real-time communications and early warning, and the
diminishing of human intelligence (HUMINT) as the core of intelligence
collection.
U.S. communications24 The U.S. used a variety of communications systems and modes, stretching
across the frequency spectrum from extremely-low frequency (ELF) to super-
high frequency (SHF); these variously utilized satellites, ground terminals,
shipboard and submarine terminals and so on.25 These various frequencies
involved trade-offs among a number of variables related to rate of data trans-
mission, vulnerability to jamming, size of transmitter, distance capability, etc.,
and tended to be broadly specific for certain functions, that is, land-based tac-
tical communications, those with submerged submarines, etc. The utilization
of various communications modes changed constantly in response to new
technological developments; correspondingly, the requirements for FMP
access also changed.
As ably outlined by Arkin and Fieldhouse, “In the field of electronic commu-
nications, each medium and frequency has advantages and disadvantages.”
Bases during the Cold War 113 İ 2007 Robert E. Harkavy
Page 21
Varying by wavelength and hence frequency, a number of different paths for the
four lowest frequency bands travel what are called “groundwaves” and they are
useful for communications with ships far from land. Extremely-low frequency
(ELF) waves (below 300 hertz) can penetrate water to hundreds of feet (perfect
for submarine communications), while extremely-high frequencies (EHF)
(above 30 gigahertz) have difficulty penetrating even a heavy rainstorm.26
Other than the medium (i.e., water or air), still other conditions determine the
most suitable frequency to use. Size of transmitter is important – “for frequen-
cies below the HF band, antennas are too large for ships or aircraft” – the ELF
antennas or transmitters considered for emplacement in the northern U.S. were
many miles long.27 Then, the higher the frequency the higher the data rate. The
amount of power required also varies with frequency. For these reasons ELF is
not suitable for large-volume commercial communications. There is another
variable – reliability – in connection with possible interference, jamming or
fasing.28
High frequency (HF) is widely used by the military – it is long-range, cheap,
low-power, small and portable, but requires constant adjustments in specific fre-
quencies to deal with atmospheric conditions,29 that is, shifting in the ionos-
pheric layers and natural events such as solar flares. This can vary by day,
season, location and so on, so that frequencies must be chosen to best suit the
prevailing conditions. For these reasons and others – reliability, “crowding” of
the frequency spectrum and the advent of computers and satellites (which
operate at higher frequencies and data rates) – recent decades have seen a shift
away from HF for military purposes. But, the vulnerability of satellites has led
to renewed interest, particularly in connection with new technology, that is,
“sounders,” solid-state transmitters and microprocessors which can allow for
shifting frequencies in response to environmental changes. That interest is
underscored by the fact that HF uses the ionosphere for transmission, a medium
difficult to permanently interrupt. Finally, in the context of military anxieties
about nuclear “black-out” caused by nuclear blasts during war, mobile or prolif-
erated HF systems are considered one of the more robust types of communica-
tions.30 Among the HF systems used during the Cold War were SAC’s Giant
Talk/Scope Signal III for strategic bombers, the air/ground/air Global Command
and Control System network, the Mystic Star Presidential/VIP network and the
Defense Communications System (DCS) “entry sites.”
Very-low frequency (VLF) and low frequency (LF) are also considered relat-
ively reliable in a nuclear environment and can penetrate sea water as well.31
Hence, for the U.S., a key system was GWEN (Ground Wave Emergency
System), a grid of unmanned relay stations with LF transmitters and receivers
hardened to withstand electromagnetic pulse (EMP).32 When fully proliferated, it
used a system of “automatic diverse routing” so as to maximize imperviousness
to interference even by a full-scale nuclear attack. Yet another robust system
was “meteor burst communications,” using billions of ionized meteor trails to
reflect very-high frequency (VHF) signals.33 This system would apparently
benefit from the increased ionization caused by nuclear war.
114 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 22
As an example of what was involved, we may look at some of the earlier
global networks utilized by the U.S. for communicating with underwater sub-
marines.
Throughout most of the 1970s, the U.S. had eight Omega VLF facilities
located overseas. Some of these were phased out beginning in the late 1970s and
some were retained, despite their obsolescence, as backup systems. They were
located at: Reunion (Mafate), operated by the French Navy; Trinidad and
Tobago; Liberia (Paynesword); Australia (Woodside); Argentina (Golfo Nuevo,
Trelev): Japan (Tsushima Island); and Norway (Bratland).34
Then there was the far larger global network of LORAN-D/C radio-
navigation systems, which were also utilized in connection with aircraft naviga-
tion. And as a sub-set, this further involved the Clarinet Pilgrim system in the
Pacific, a shore-to-submarine network (four sites in Japan and one on Yap
Island) that worked by superimposing data on the waves transmitted by
LORAN-C. Some of these were operated by the U.S. Coast Guard, to a degree
reflective of the mixed civilian and military navigation aid functions of the
LORAN network (still earlier there were some systems designated as LORAN-
A). And, as in the case of Omega, some were jointly operated with host-nation
personnel. Among the numerous LORAN-C/D transmitters and monitoring sta-
tions overseas (there were many others in the U.S., including Alaska and
Hawaii) were those shown in the table.
In the latter part of the Cold War, as a replacement for Omega and LORAN-
C, the U.S. installed its new satellite-based NAVSTAR global positioning
system for submarines, which among other things, apparently involved the capa-
bility to provide SLBMs with corrective guidance after they surfaced.
NAVSTAR’s control segment consisted of five monitor stations to “track
passively all satellites in view and accumulate ranging data from the navigation
signals.” That information was transmitted to the NAVSTAR Master Control
Station at Vandenberg Air Force Base, California. The other stations used for
tracking, telemetry, control and passive monitoring were at Ascension, Diego
Garcia, Kwajalein and Guam, notably all islands controlled by the U.S. or
the U.K.
Whereas most communications with submarines are conducted along the LF
spectrum, combatants will usually use HF (the corresponding intelligence inter-
ception facilities are HF direction finders, that is HF/DF). The U.S. had a con-
siderable number of naval HF transmitters and receivers scattered about the
globe, most of them near major naval facilities or near bodies of water heavily
traversed by U.S. fleet units. They included those shown in Table 4.
Regarding SAC “fail-safe” systems, involving “positive control,” meaning
the bombers went ahead in a crisis only if given “executive instructions,” there
was a global system of HF communications called “Giant Talk/Scope Signal
III,” 14 stations giving flexible approach routes towards the USSR by B-52s or
other aircraft with standoff ALCMs. These are shown in Table 5.
The Air Force also had its AFSATCOM UHF network devoted particularly to
strategic nuclear-related purposes. That utilized several foreign facilities, at
Bases during the Cold War 115 İ 2007 Robert E. Harkavy
Page 23
116 Bases during the Cold War Table 3 Location of known Loran-C/D transmitters and monitoring stations overseas
Country
Location Bermuda
Witney’s Bay
Canada
Cape Race (Newfoundland), Fox Harbor
(Labrador), Montagu (Prince Edward Island), Port
Handy (British Columbia), St. Anthony (New
Brunswick), Sandspit (British Columbia),
Williams Lake (British Columbia) Denmark
Ejde (Faeroe Islands)
Greenland
Angissoq
Iceland
Keflavik, Sandur
Italy
Crotone, Lampedusa, Sellia Marina Japan
Gesaski (Okinawa), Iwo Jima, Marcus Island,
Tokachibuto (Hokkaido), Yokota AFB
Johnson Atoll (U.S. owned)
Norway
Jan Mayen Island
South Korea Changsan
Spain
Estartit
Turkey
Kargabarun
U.K.
Sullum Voe (Shetland Islands)
FR Germany Sylt
Micronesia
Yap Island
Guam (U.S. owned)
Anderson AFB Source: SIPRI data, Harkavy, Bases Abroad, p. 161.
Table 4 U.S. overseas HF receivers and transmitters
Country
Location Bermuda
South Hampton
Diego Garcia
Greece
Nea Makri and Kato Souli
Guam
Barrigada and Finnegayan
Iceland Grindavik and Sandgerdhi
Italy
Naples (a master station) and Licola
Japan
Iruma, Kamiseya, and Totsuka
Panama
Summit Philippines
Capas Tarlac and St. Miguel
Portugal (Azores)
Cinco Pincos (Terceira) and Vila Nova
Puerto Rico
Sebana Seca, Isabella, and Aguada
Spain
Guardemar del Segura and Rota U.K.
Edzell and Thurso Source: SIPRI Data.
İ 2007 Robert E. Harkavy
Page 24
Landstuhl in Germany, Clark AFB in the Philippines, on Guam and at Bagnoli
in Italy and Diego Garcia. The Navajo FLTSATCOM system consisted of seven
satellites parked in geosynchronous orbit all around the equator and provided
worldwide coverage, except in the polar regions. These provided mostly for the
U.S. Navy, communications by digitalized voice, teleprinter and other tech-
niques, and operated at UHF. These satellites were also important hosts for
AFSATCOM transponders. Indeed, according to one report, each host for
AFSATCOM satellites had 23 channels, ten of which were allotted to the Navy
for command of its air, ground and sea force, 12 to AFSATCOM for nuclear-
related communications, and one reserved for the National Command
Authorities.35
One particularly important function for FLTSATCOM – along with the
DSC’s satellites – was the relaying of data from SOSUS and SURTASS (sur-
veillance towed array) hydrophone systems to the Central Shore Station or
Acoustic Research Center at Moffett Field, California, “where it is integrated
with data from other sources and processed by the ILLIAC 4 computer complex
to provide a real-time submarine monitoring capability.”36 There is also real-
time transmission of data and displays from ocean-surveillance satellites pro-
vided to U.S. surface and submarine fleets.
FLTSATCOM utilized control or receiver sites. There were several in the
U.S. at Norfolk, Wahiawa (Hawaii), Stockton, California and another at
Finnegayan in Guam. Overseas, there were additional stations at Bagnoli, Italy
and at Diego Garcia and an AN/MSC-61 system located at Exmouth, Northwest
Cape, Australia.37
According to the U.S. Defense Communications Agency, the European AU-
TOSEVOCOM system consisted of about 225 wideband subscriber terminals
homed on four AN/FTC-31 switches and 16 SECORDS providing secure voice
service. Another 85 subscribers were provided worldwide secure voice access
Bases during the Cold War 117 Table 5 Giant Talk/Scope Signal III stations
Country
Location
Ascension
Azores
Lajes, Cinco Pincos
Greenland Thule
Guam
Anderson AFB, Barrigada, Nimitz Hill
Japan
Owada, Tokorozawa, Yokota
Okinawa
Kadena
Panama Howard and Albrook AFBs
Philippines
Clark AFB, Cubi Point, Camp O’Donnell
Spain
Torrejon
Turkey
Incirlik
U.K. RAF Croughton, Mildenhall, Barford St. John Source: SIPRI data, Harkavy, Bases Abroad, p. 164.
İ 2007 Robert E. Harkavy
Page 25
through 10 AUTOVON switches.38 Locations of the main switching center for
the AUTOVON network are listed in Table 6.
One of the major U.S. uses of overseas theater communications was that
involved in the highly proliferated microwave/troposcatter systems used to link
U.S. and other allied forces within the European and Pacific theaters. This in
turn involved a number of sub-systems, perhaps the best known of which was
the NATO ACE HIGH system within Europe. According to Jane’s:
ACE HIGH is an 80-voice-channel trophospheric scatter/microwave link
system which dates back to 1956 when SHAPE developed a plan for an
exclusive communications system which would comprise the minimum
essential circuits of early warning and alert and implementation of the trip-
wire retaliation strike plan. The network extends from northern Norway and
through Central Europe to Eastern Turkey.39
All of the U.S. NATO allies hosted numerous troposcatter relay links – there
were some 40 in West Germany, six in Belgium, eight in Greece, 16 in Italy, 15
in Turkey, and so on. (Earlier there were some 30 such links in France.)40 These
types of link also ran from the continental U.S. via Greenland, Iceland, the
Faeroes and the U.K. to Europe; indeed, they were originally designed as one
link in the Ballistic Missile Early Warning System (BMEWs). In Iceland, it is
reported that each such North Atlantic Relay System (NARS) installation con-
sisted of four large “billboard” troposcatter antennas.41 Parts of the troposcatter
network were modernized as the Digital European Backbone System (DEBS).
The transmission, relay and reception of strictly military and diplomatic mes-
sages does not exhaust the uses to which overseas facilities were put within the
broad domain of communications. Basing diplomacy also entered the news in
connection with broadcast communications. This took any of several forms, for
instance, the major powers’ use of foreign territories for clandestine radio
118 Bases during the Cold War Table 6 Location of the main switching centers for the AUTOVON network Country
Location
Japan
Fuchu, AS, Camp Drake (moved to Yokota)
Okinawa
Grass Mountain or Ft Buckner
Philippines
Clark AFB Panama
Corozal
Spain
Humosa
U.K.
Martlesham Heath, Hilingdon, RAF Croughton
FDR Germany
Schoenfield; Fieldberg, Donnersberg, Pirmasens, Langerkopf
Italy
Coltano, Mt. Vergine
Guam
Finnegayan Source: Defense Communications Agency, “Defense Communications System/European Communi-
cation Systems: Interoperability Baseline,” Washington, DC, 1 February 1981; and Jane’s Military
Communications (Macdonald: London, 1981).
İ 2007 Robert E. Harkavy
Page 26
transmitters, particularly adjacent to rivals’ territories or those where civil wars
were in progress. (In the 1987 U.S. Congressional Iran/“Contragate” hearings,
information emerged about the CIA-run clandestine transmitters in Central
America and in the Caribbean directed against Nicaragua and Cuba.) On a more
overt basis, this involved, at least as pertained to the U.S. side, the global trans-
mission network of the government’s Voice of America (VOA). There were
Soviet, French and British counterparts.
Access for VOA transmitters, even despite the absence of obvious military
implications, was not always a simple matter. Soviet and other nations’ sensitiv-
ities to radio-broadcast intrusion were such that a nation hosting a VOA facility
risked a degree of displeasure.42
For its short-wave broadcasts, the VOA had six main 500-kilowatt transmitters;
additionally, a variety of some 100 antennas and relay stations in Asia, Africa and
Central America. The VOA had overseas radio stations in Antigua, Thailand,
Botswana, Greece (two), West Germany, the Philippines (two), Costa Rica, Sri
Lanka, Morocco, Belize and the U.K. (and later in Israel). In 1984–1985, as the
Central American crisis intensified, it was reported that Costa Rica and Belize had
agreed to host VOA broadcast relay stations – in addition, VOA had obtained
agreements to construct relay stations in Sri Lanka, Israel, Morocco and Thailand.
Intelligence43 During the Cold War the U.S. relied on a variety of technical methods for intelli-
gence collection (i.e., other than HUMINT) which involved the use of overseas
facilities. These involved the domains of imaging or photographic reconnais-
sance, signals intelligence, ocean surveillance, space surveillance and nuclear
detonation and monitoring.44 Variously, cutting across these categories, this
involved fixed land-based facilities, air bases and naval facilities. In some cases,
the utilization of foreign facilities for specific purposes was well-known, as
for instance in the cases of large strategic radars or air bases used to stage
Bases during the Cold War 119 Table 7 Interconnections between ACE HIGH and DCS
DCS
ACE HIGH
Mormond Hill (U.K.) Mormond Hill (U.K.)
Cold Blow Lane (U.K.)
Maidstone (U.K.)
SHAPE (Belgium)
Costeau (Belgium)
Bonn (FRG)
Kindsbach (FRG)
Aviano (Italy) Aviano (Italy)
Naples (Bagnoli, Italy)
Bagnoli (Italy)
Izmir (Turkey
Izmir (Turkey)
Incirlik (Turkey)
Adana (Turkey) Sources: Defense Communications Agency, “Defense Communications System/European Commu-
nication Systems; Interoperability Baseline,” Washington, DC, 1 February 1981; and Jane’s Military
Communications (Macdonald: London, 1981).
İ 2007 Robert E. Harkavy
Page 27
photoreconnaissance flights. In others, however, data were more limited – this
was particularly true regarding the relay of data from satellites to major head-
quarters in the U.S. homeland.
The U.S., during the Cold War and beyond, made important use of reconnais-
sance satellites which conducted area surveillance, close-look and real-time sur-
veillance. Crucially, this involved the Keyhole series, KH-9 (Big Bird) devoted
to area-surveillance and KH-8 (Close Look), later superseded (in 1976) by the
KH-11 and later by the KH-12 (Ikon). Mostly, these satellites appear to have
functioned without the help of overseas downlinks.
The U-2 and SR-71 strategic reconnaissance aircraft were usable for a variety
of nuclear and non-nuclear related missions. The latter can fly at a speed of Mach
4 (about 4160km per hour), at a height of over 25,000 meters, can track SAM mis-
siles, has radar detectors, a variety of ECMs, and a synthetic-aperture radar for
high altitude night imaging. Some 15–19 SR-71s were utilized, co-located at some
of the same bases as the U-2s, at Mildenhall in the U.K., Kadena on Okinawa and
Akrotiri on Cyprus (the U-2s also utilized Incirlik, Peshawar, Clark AFB, Atsugi
and Wiesbaden). The still newer TR-1A reconnaissance aircraft, of which some 14
were deployed, also utilized some of these bases.
Other satellites and also land-based facilities were used for SIGINT, an
acronym that subsumes several categories of intelligence collection, i.e.,
COMINT (communications intelligence), ELINT (electronic intelligence),
TELINT (telemetry intelligence) and FISINT (foreign instrumentation signals
intelligence). The major Cold War SIGINT satellite systems–Chalet, Rhyolite
(targeted against telemetry, radar, communications, extending across the VHF,
UHF and microwave frequencies), Ferret, Magnum/Aquacade (low orbiting
ferret satellites used to map Soviet and Chinese radars) apparently made little
use of overseas downlinks.
But, the U.S. long made use of a plethora of ground-based SIGINT stations,
as identified in Table 8.
Although there were diverse types and mixes of these facilities, a few widely
deployed types were notable. One involved a combination of AN/FLR-9 HF and
VHF interception and direction-finding system (DF) with CDAA (Circularly
Disposed Antenna Array) known as an “elephant cage.” Another involved
telemetry interception capability with combined VHF-UHF-SHF receivers, used
to monitor missile launches.45 Then there were FPS-17 detection radars and
FPS-79 tracking radars also used in connection with missile launches. There
were also a considerable number of AN/FLR-15 antennas.46
The identifiable land-based SIGINT facilities included those shown in the
accompanying table. In some of these cases – Canada, the U.K., Turkey and
perhaps Japan – SIGINT stations were jointly operated with host personnel, and
the data intake shared to one degree or another, no doubt negotiated on a case-
by-case basis and subject to periodic renewal; hence, a function of the state of
political relationships and associated reciprocal leverage.
120 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 28
Ocean surface surveillance47 The U.S. had a number of systems – satellites, aircraft, ground stations and ships
– for observing the world’s ocean surfaces, that is, for tracking Soviet warships,
auxiliary intelligence ships, merchant and fishing vessels etc. Operationally, the
goal was to know the location of all Soviet ships at any time. In normal con-
ditions, one major purpose was to track the itineraries of Soviet ships carrying
arms to clients – this was a key item of intelligence. In crises or, hypothetically,
at the outset of a major war, the hair-trigger, preemptive nature of modern naval
warfare – nuclear or non-nuclear – would have put a premium on real-time loca-
tion and targeting of rival fleets, in all weathers. Contrariwise, both sides would
have worked hard to devise methods for eluding detection, again, particularly
during wartime conditions.
Bases during the Cold War 121 Table 8 Land-based SIGINT facilities
Country
Location/comments
Australia
Northwest Cape
The Azores
Villa Nova Canada
Massett, Argentia, Whitehorse, Leetrim
China
Korla, Qtai
Cuba
Guantanamo
Cyprus Five Stations
Denmark
Bornholm
Diego Garcia
Honduras
Palmerola
Kwajalein
Midway FDR Germany
Augsburg, Hof, a network called La Faire Vite to monitor WTO
communications, and others
U.K.
Cheltenham, Wincombe, Morwenstow, Kirknewton
Greece
Iraklion and Nea Makri Iceland
Keflavik, Stockknes
Italy
San Vito, Vicenza, Treviso
Japan
Misawa, Camp Zama, Hakata, Sakata, Wakkanei, Kamiseya
South Korea
Yonchon, Camp Humphreys, Pyongtaek, Sinsan-ni, Kangwha Morocco
Kenitrar
Norway
Varda, Vadso, Viksofjellet
Oman
Al Khasab, Umm Al-Ranam Island
Panama
Corozol, Fort Clayton, Galeta Island Pakistan
Bada Bien
Philippines
San Miguel, Clark AB, John May Camp
Okinawa
Tori, Hanza, Sobe, Omna Point
Spain Rota, El Casar del Talamanca
Taiwan
Shou Lin Kou, Tapeh, Nan Szu Pu
Turkey
Sinop, Dyarbakir, Samsun, Karamursel, Antalya, Agri, Kars,
Edirne, Ankara Source: SIPRI data, and J.T. Richelson and D. Ball, The Ties That Bind (Allen and Unwin: Boston,
1985), appendix 1.
İ 2007 Robert E. Harkavy
Page 29 Overseas facilities played a major role here. The U.S. utilized its White
Cloud satellite system, part of its larger Classic Wizard system, for ocean sur-
veillance, involving a variety of ELINT functions as well as use of interferome-
try techniques to locate Soviet or other vessels. This system comprised four
satellites. The U.S. Naval Security Group operated ground stations which were
part of this system at Diego Garcia and Edzell, Scotland, as well as at Guam,
Adak and Winter Harbor, Maine.
The P3C Orion, known mostly for its ASW role, was also utilized for ocean
surveillance. It had access to bases throughout the world: Clark AFB (the Philip-
pines), Misawa (Japan), Kadena (Okinawa), Keflavik (Iceland), Rota (Spain),
Sigonella (Italy), Ascension and Diego Garcia islands, Cocos Islands (Aus-
tralia), Masirah (Oman), Mogadiscu (Somalia) and several others.
For land-based ocean surveillance, considerable use was made of HF/DF
systems, which were also mounted on ships which, again, utilized various over-
seas port-facilities. Among the land-based HF/DF locales were those at Diego
Garcia, Rota (Spain), Edzell (Scotland), Keflavik (Iceland), Brawdy (Wales),
Japan and Guam. Those in Scotland, Wales and Iceland were located near the
crucial GIUK–Gap chokepoint, which would presumably have been a major
point of contention at the outset of a major war in relation to North Atlantic sea
lines of communication and the Soviet submarine bastions near the Kola Penin-
sula. Richelson and Ball actually reported on some 40–50 HF/DF sites for ocean
surveillance said to have been operated by the combined assets of the U.S.,
U.K., Canada, Australia and New Zealand.
Space surveillance48 During the Cold War, the proliferation of satellites and other man-made “space
objects” made their tracking and identification more vital. The U.S. had an
extensive program intended to detect and track its own satellites, but also Soviet
and other nations’ space vehicles.
In the security realm this had a number of dimensions. Of course, both sides
wished to mask some of their ground activities from surveillance and therefore
sought the capacity to operate during gaps in surveillance. By detecting and
tracking Soviet satellites, the U.S. Satellite Reconnaissance Advance Notice
(SATRAN) System allowed the U.S. to avoid Soviet coverage of U.S. military
activities. As expectations mounted about a future which might have seen
large-scale militarization of space, both sides increasingly perceived an interest
in real-time surveillance of each others’ satellites, in the context of possible later
hair-trigger preemptive situations as applied to mutual interdiction of satellites.
Of course, both sides desired maximally effective intelligence on the others’
various military activities conducted from space: communications, ocean sur-
veillance, SIGINT, nuclear detection, etc. In summary, as stated by Richelson:
space surveillance helps provide the United States with intelligence on the
characteristics and capabilities of Soviet space systems and their contribu-
122 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 30
tions to overall Soviet military capabilities ... Such data aid the United
States in developing counter-measures to Soviet systems, provide a data-
base for U.S. ASAT targeting and allow the United States to assess the
threat represented by Soviet ASAT systems.
For many years the heart of the dedicated sensor system was a group of Baker-
Nunn optical cameras, huge cameras which, according to one source, could
“photograph, at night, a lighted object the size of a basketball over 20,000 miles
in space.” In addition to the two in California and New Mexico, these cameras
were located outside the U.S. in New Zealand (Mt. John), South Korea (Pul-
mosan), Canada (St. Margarets, New Brunswick) and Italy (San Vito). Earlier
there were others on Johnston Island, in Alaska, and in Argentina, Brazil, Chile,
Ethiopia, Greece, Iran, South Africa, Upper Volta and Curacao in the Lesser
Artilles, among others. Because of its limitations – slowness in data acquisition,
processing and response time, absence of all-weather capability and inflexible
tracking capability – this system was replaced by the Ground-based Electro-
Optical Deep Space Surveillance (GEODSS) system.
GEODSS, also with five locations, overcame several of the Baker-Nunn
system’s shortcomings by allowing real-time data, better search capability and
more rapid coverage of larger areas of space – but was still limited by adverse
atmospheric conditions. It was actually a system of three linked telescopes at
each site, providing variable coverage by altitude. The five locations were in
Hawaii (Maui) and New Mexico (White Sands), within the U.S. and externally
in South Korea (Taegu), Diego Garcia and Portugal.
Systems used primarily for early warning – BMEWS, FSS-7, PAVE PAWS,
Enhanced Perimeter Acquisition Radar Attack Characterization System
(EPARCS) and FPS-85 radars – were usable as collateral space-tracking
sensors. Of these, BMEWS – based at Thule (Greenland), Fylingdales (U.K.)
and Clear (Alaska) – involved extensive use of foreign access. Additionally,
COBRA DANE (Shemya Island, Aleutians – 120 arc, 46,000-km range against
space targets) and also the AN/FPS-79 (Pincirlik/Diyarbakir, Turkey) radar were
usable in a space-surveillance role, as supplementary to the primary missions of
monitoring missile-test re-entry trajectories.
Numerous other foreign facilities were used as part of the U.S. Satellite
Tracking and Data Acquisition Network (STADAN) network of installations
used to track and monitor U.S. space activities, including the down-range
course of launches. Among these were facilities in: Australia (Orooral Valley,
Toowoomba), the U.K. (Winkfield), Ascension, Bermuda, the Canaries (Tener-
ife), Spain (Madrid), Brazil (Fernando de Noronha) and Antigua, in connection
with space surveillance and under the heading of “miscellaneous radars.”
Earlier STADAN tracking facilities were operated, among other places, in
Chile, Ecuador, the Malagasy Republic, Grand Turk Islands, South Africa and
Zaire.
Bases during the Cold War 123 İ 2007 Robert E. Harkavy
Page 31
Satellite control stations49 One of the most secret or classified areas of overseas bases was that of satellite
control stations. Ford, in his work on command and control, in analyzing the
vulnerable and non-redundant nature of the U.S. early-warning system involving
the DSP East satellite, its down-link facility in Australia and the communica-
tions link from there to the satellite control facility in Sunnyvale, California,
provided some indication of what was involved. Thus, according to him:
There are several dozen U.S. defense satellites now in orbit – providing
communications, photoreconnaissance, electronic intelligence, navigational,
meteorological, and other data-and they require contact with the Sunnyvale
ground control station and its seven substations around the globe in order to
remain functional. A great deal of fine-tuning, for example, is needed to
steer the satellites in precise orbits and to keep their sensors, and antennas
aimed properly. . . . A catastrophic loss of this control center would result in
a major disruption of communications, tracking, and control of its space
systems . . .
And, further:
Other officials are less optimistic. “We lose the SCF and the satellites basi-
cally go haywire,” a Pentagon expert who has studied this subject told me.
“The communications satellites drift off to Pluto.” Certain intelligence-
gathering satellites in low-earth orbit would be in especially bad shape, he
said, since the Sunnyvale facility has to “feed them” with instructions every
time they complete an orbit. “You should see them scrambling when one of
their satellites comes within range.” Desmond Ball estimated that the
typical U.S. defense satellite might be able to remain in operation for three
to four days without the Sunnyvale SCF; the most critical satellites, such as
DSP East, which require a great deal of caretaking attention from the
ground, could go out of service within hours.
The seven sub-stations linked to Sunnyvale comprised three within the U.S. –
at Manchester AF Station in New Hampshire, Kaena Point in Hawaii and Van-
denberg Air Force Base (AFB) in California. Others outside the U.S. were at
Thule, Greenland – collocated with various other technical facilities as well as a
bomber and tanker base – at Guam at Andersen AFB, at Oakhanger in the U.K.
and at Mahe in the Seychelles. Mahe had long hosted a U.S. satellite control
facility (SCF) collocated with a DSCS ground terminal. This facility was appar-
ently important in relation to reconnaissance satellites and for monitoring injec-
tion into orbit of satellites launched from Cape Canaveral. Earlier, up to 1975,
the U.S. also had what apparently was an SCF at Majunga in the Malagasy
Republic, one also used to monitor satellites launched from Cape Canaveral.
U.S. access to this facility was then lost at a time when Tananarive shifted
124 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 32
towards an arms-supply relationship with the USSR. Still earlier the U.S. appar-
ently had a similar SCF on Zanzibar Island, within Tanzania.
Strategic early warning50 One of the most obviously critical areas of intelligence involving foreign bases
is strategic early warning, that is, warning of impending or unfolding nuclear
attack. Here, as in so many areas of military endeavor, the U.S. was asymmetri-
cally dependent on foreign access, and crucially so. Indeed, it was long the case,
even before the advent of intercontinental missilery, that the U.S. relied on
radars in Canada and Greenland for warning of approaching bombers at a time
when such warning could provide several hours of response time. The asymme-
tries were partly because of the larger relative size of the USSR and partly
because of the location of critical foreign terrain – Canada, Greenland, Iceland –
between the U.S. and the trans-Arctic routes that would be traversed by missiles
and bombers across the arctic regions between the superpowers.
Several key U.S. early-warning systems utilized foreign access; ground sta-
tions used to relay data from early-warning satellites; the BMEWS radar system
directed against Soviet ICBMs, the several layers of radar pickets used to detect
bombers en route to the U.S. from the Arctic region; and a variety of other
sensors which might be used in collateral or supplementary roles.
Regarding early-warning satellites, the U.S. relied primarily on what have
become known as DSP East and DSP West (earlier these were called MIDAS
satellites). The former had the primary task of watching for ICBM launches, the
latter for SLBM launches in the Atlantic.
The Code 647 Defense Support Program satellite – DSP East – sat some
23,000 miles above the Indian Ocean in geosynchronous orbit, monitoring the
eastern hemisphere. It contained an infrared telescope equipped with thousands
of tiny lead-sulphide detectors designed to pick up the hot exhaust flame pro-
duced by large rocket engines during the boost phase of their flights. It had full
coverage of Soviet missile fields from an orbit more or less above the equator
and, in the case of mass launchings, could tell what kinds of missiles had been
launched and from where. Hence, DSP East could also provide valuable
information about what kind of attack had been launched, that is, the likely tar-
geting mix. That would in turn have guided the targeting of a U.S. counterforce
response.
The principal and necessary link between DSP East and NORAD was the
down-link facility at Nurrungar, Australia (there were also control and tracking
functions at Pine Gap and on Guam) described as a highly vulnerable set of
antennas, transmitters and computational facilities. This “readout station” in turn
would relay data to NORAD, variously by underseas cable, by HF radio links or
via the Defense Satellite Communications System, and in turn via a switching
station in Hawaii. These various alternative communications links between Nur-
rungar and Buckley AFB in Colorado involved foreign access to New Zealand,
Fiji, Norfolk Island and Canada’s British Columbia at Port Alberni. In recent
Bases during the Cold War 125 İ 2007 Robert E. Harkavy
Page 33
years, however, another down-link for DSP East (called the Simplified Process-
ing Station) had been made operational at Kapaun, FDR Germany.
A second major U.S. strategic warning system used to monitor ICBM
launches was BMEWS, which comprised three major radars (located at Clear,
Alaska, Thule, Greenland and Fylingdales Moor, U.K.). These radars became
operational in 1950 and had 4800-km ranges. The BMEWS facility included
four AN FPS-50 detection radars and an AN/FPS-49 tracking radar – these also
acted as contributing sensors for the SPADATS system. Altogether, there were
12 radars with ranges of 4800 km.
Finally, the U.S. had long relied – primarily for warning of the approach of
bombers – on the series of radar picket lines across the Arctic known as the
Distant Early Warning (DEW) and Continental Air Defense Integration North
(CADIN) Pinetree lines. These had been located across Alaska, Canada and
Greenland, with a few additional outposts in Iceland and the Faeroe Islands (the
126 Bases during the Cold War Table 9 Location of DEW Line and CADIN Pinetree Line radar sites in Canada and
Greenland, 1985
DEW Lines
Pinetree Line
Canada
Broughton Island
Alaska
Byron Bay
Armstrong
Cambridge Bay
Baldy Hughes Cape Dyer
Barrington
Cape Hooper
Beausejour
Cape Perry
Beaver Lodge
Cape Young
Chibougamau Clinon Point
Dana
Dewar Lakes
Falconbridge
Gladman Point
Gander Air Base
Hall Beach Goose Bay AB
Jenny Lind Island
Gypsumville
Komakuk Beach
Holberg
Lady Franklin Point
Kamloops
Longstaff Bluff Lac St. Denis
Macker Inlet
Moisie
Nicholson Peninsula
Montapica
Pelly Bay
Moosonee
Shepherd Bay Ramore
Shingle Point
Senneterre
Tuktoyaktuk
Sioux Lookout
Yorkton
Greenland Easterly
Kulusuk Island (Dye 4)
Quiquatoqoq (Holsteinberg-Dye-1)
Westerly Source: W.M. Arkin and R.W. Fieldhouse, Nuclear Battlefields: Global Links in the Arms Race
(Cambridge: Ballinger, 1985), appendix A.
İ 2007 Robert E. Harkavy
Page 34
locations of the sites in Canada and Greenland are listed in Table 9 above). The
DEW Line had 31 radars, some 21 of which were in Canada and four in Green-
land (several also were used as relays for troposcatter communications relays);
in the 1950s submarines on the surface filled gaps in the DEW Line – they could
submerge after reporting incoming aircraft.
The CADIN Pinetree Line of air surveillance radars in Canada had consti-
tuted a second line of warning behind the DEW Line and comprised some 22
stations operated by Canadian personnel for NORAD.
The upgrading of the almost 30-year old DEW Line was impelled by cruise-
missile developments and by new Soviet Backfire bombers capable of penet-
rating the old barrier; and it preceded the advent of the Strategic Defense
Initiative (SDI). The new system involved a network of 52 new long- and short-
range radar stations overlapping Alaska, Canada and Greenland, and was called
the North Warning System. It utilized many of the hub facilities of the DEW
Line, but with upgraded modern radars and independent power systems.
Later, around 2005, the U.S. became involved in the upgrading of the facility
at Fylingdales for theater missile defense and, possibly, for the stationing of
actual theater defense missiles.
Anti-submarine warfare51 During the Cold War, as well as afterwards, the U.S. had perhaps the world’s
most extensive and effective global ASW capability, which required access to
land facilities around the world: staging bases for aircraft, and processing
stations for acoustic and electronic data. Regarding acoustic data, it relied
heavily on its SOSUS networks, often alternatively referred to as Caesar. These,
going way back to 1954, involved networks of hydrophonic arrays which sent
oceanographic and acoustic data to shore processing facilities, that is, large com-
puter analysis centers. These data and others were correlated at regional process-
ing centers (including those in Hawaii, Wales, Newfoundland and Iceland) and
then forwarded to a main processing center at Moffett Field, California, via
FLTSATCOM and DSCS satellites.52
SOSUS, though augmented by other systems noted below, was the backbone
of the U.S. ASW detection capability. It has been described by SIPRI as follows:
Each SOSUS installation consists of an array of hundreds of hydrophones
laid out on the sea floor, or moored at depths most conducive to sound prop-
agation, and connected by submarine cables for transmission of telemetry.
In such an array a sound wave arriving from a distant submarine will be
successively detected by different hydrophones according to their geometric
relationship to the direction from which the wave arrives. This direction can
be determined by noting the order in which the wave is detected at the dif-
ferent hydrophones. In practice the sensitivity of the array is enhanced many
times by adding the signals from several individual hydrophones after intro-
ducing appropriate time delays between them. The result is a listening
Bases during the Cold War 127 İ 2007 Robert E. Harkavy
Page 35
“beam” that can be “steered” in various directions towards various sectors
of the ocean by varying the pattern of time delays. The distance from the
array to the sound source can be calculated by measuring the divergence of
the sound rays within the array or by triangulating from adjacent arrays.
The first SOSUS systems were completed on the continental shelf off the east
coast of the U.S. in 1954.53 Others were later installed off both U.S. shores and
at Brawdy, Wales – the Pacific Coast system came to be known by the code-
name of Colossus.54 A jointly operated U.S.–Canadian array came to be centered
at Argentia, Newfoundland, others at Hawaii, the Bahamas and the Azores.55
By 1974 it was stated that there were 22 SOSUS installations located along
the east and west coasts of the U.S. and near various chokepoints around the
world – another 14 were identified by Richelson and others.56 Foreign-based
SOSUS installations were located at Ascension, in the Azores (Santa Maria), the
Bahamas (Andros Island), Barbados, Bermuda, Canada (Argentia), Denmark,
Diego Garcia, Gibraltar, Guam (Ratidian Point), Iceland (Keflavik), Italy, Japan
(sonar chains across the Tsugaru and Tsushima Straits), Norway, Panama
(Galeta), the Philippines, the Ryukyus, Turkey, the U.K. (Scatsa, Shetland and
Brawdy, Wales). Others have at times been operated on Grand Turk Island,
Antigua, Bahamas (Eleuthera) and Barbados; and maybe on the Canary Islands
at Punta de Tero. And the U.S. may possibly also have operated still other
barrier sonars, for instance, in the central Mediterranean from Lampedusa and/or
Pantelleria Islands, and on Midway Island in the central Pacific Ocean.
Burrows described as follows the basic geometry of the U.S. SOSUS network
which monitors Soviet egress from the Eurasion bastion:
There are actually two SOSUS arrays moored across the approaches to Pol-
yarnyy; one between Norway and Bear Island, and the other linking northern
Scotland, Iceland, and Greenland. Submarines whose home port is
Petropavlovsk are monitored by hydrophones strung from the southeastern tip
of Hokkaido, along a line parallel to the Kuriles, and then up toward the
northeast, off the Aleutian coast. Still others stretch from southern Japan to
the Philippines, covering the approaches to China and Indochina. And there
are also SOSUS installations on the Atlantic side of Gibraltar, others about
halfway between Italy and Corsica and still others at the mouth of the
Bosporus, off Diego Garcia in the Indian Ocean, and not so far from Hawaii.
The Navy keeps the precise locations of its SOSUS equipment a closely
guarded secret, since interfering with it would be a logical Soviet subject.57
Nuclear detection58 One important, but seldom commented upon aspect of the overall U.S. intelli-
gence effort, was that connected with the detection of nuclear explosions. This
involved several separate lines of activity.
First, there was the matter of verification of existing arms control treaties,
128 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 36
that is, the Limited Test Ban Treaty of 1963, which bans atmospheric testing,
and the Threshold Test Ban Treaty of 1974, never ratified by the U.S. Senate
(but tacitly adhered to in the manner of SALT II), which barred underground
testing of nuclear devices of over 150 kilotons. Second, there was the monitor-
ing of the horizontal nuclear proliferation activities of hitherto non-nuclear
states, as well as of the non-signatory but nuclear states, China and France.
Third there was the contingency of protracted nuclear war during which the U.S.
would have wanted to determine the locations and frequencies of nuclear deto-
nations on both sides and to assess resultant damage, among other reasons, to
aid subsequent targeting decisions.
Several interrelated systems were used to pursue the above ends, involving
satellites, aircraft and ground stations. Use of satellites, in connection with
bases, raised the question of external facilities for data down-links and command
and control; that of aircraft involved, obviously, bases as well.
According to Richelson, the U.S. space-based nuclear-detection system
involved, variously, the various components of the VELA satellite program begun
in the early 1960s, the previously mentioned DSP satellites primarily intended for
early warning of missile launches, and the NAVSTAR global positioning system.59
Numerous aircraft types were used to detect airborne atomic debris left in the
wake of explosions (if only the venting of imperfectly conducted underground
blasts). One source said that these included the U-2, P-3C, C-135, B-52 and also
an HC-130 configured as a sea-water sampler to monitor underwater nuclear tests
(monitoring of plutonion-239 separation via kryption-85 analysis was presumably
also similarly conducted). For instance, SAC’s U-2s apparently operated out of
Australian facilities at Sale and Laverton, gathering radionuclides as part of a High
Altitude Sampling Program. These aircraft were operated by the Air Force Tech-
nical Application Center (AFTAC) and could presumably have availed themselves
of virtually all the airfields normally open to U.S. use throughout the world. Some
of these operations no doubt involved ad hoc staging through facilities after an
“event,” and the diplomacy of access involved was obscure. But, as there was a
general convergence of overall interest by most nations with regard to monitoring
others’ nuclear tests, access in these cases was likely to have been permissive.
The Soviet Cold War naval basing structure60 Before World War II, the USSR had had only very limited access to external
facilities, perhaps solely with the forward deployment of some combat aircraft in
Czechoslovakia in the 1930s. In parallel, Moscow was then only a small factor
in the international arms trade, so it was not able to bank either on security assis-
tance or ideological ties and alliances to establish forward bases. That situation
changed dramatically after World War II, with an additional quantum jump in
the late 1950s and on up to 1970s.
Directly after the war, of course, Moscow established control over Eastern
Europe (earlier also in Mongolia), and these dominated areas became the sites
for a massive network of Soviet air, naval and ground facilities, with a heavy
Bases during the Cold War 129 İ 2007 Robert E. Harkavy
Page 37
concentration in East Germany, Poland, Hungary and Czechoslovakia as an
obvious correlate to Soviet political control over these countries and as a defen-
sive glacis or possible springboard for offensive operations vis-à-vis NATO
Western Europe. Again, the basis for basing access was simply brute conquest
and imperial control.
For some ten years after the end of the Cold War, the USSR had no basing
access outside of its huge contiguous Eurasian empire. Indeed, it also had virtu-
ally no arms transfer or security assistance relationships outside this area during
a period in which the U.S. established its elaborate structure of alliances and
arms transfer relationships all around the Eurasian rimland.
That all changed around 1955 with the beginning of the Soviet weapons
transfers to Egypt and Syria. But then too in the late 1950s and early 1960s,
numerous nations in the wake of decolonization and the creation of nominally
Marxist regimes, became Soviet arms client states. Along with that, sometimes
with a time lag, came the provision of basing access at a time, also, when
Moscow was beginning to build a “blue-water navy.” And, some of the new
arms recipients and basing hosts involved a “leapfrogging” of the containment
rim around the huge Sino-Soviet Eurasian domain. Among the basing hosts
developed in addition to Egypt and Syria were Algeria, Guinea, Ghana, Congo-
Brazzaville, Angola, Mozambique, Somalia, both Yemens, Iraq, Cuba and
Vietnam (Indonesia and India were both major Soviet arms clients by 1965, but
provided no significant access to bases).
Gradually, the Soviet navy developed an external presence as the Cold War
progressed, involving the build-up of a significant blue-water navy, the acquisi-
tion of bases and available ports of call, and the compilation of “ship-days” in
the major oceans and seas matching that of the U.S. Navy. As recently as the
late 1950s, the Soviet navy had had little of “blue-water,” long-range power pro-
jection capability nor basing access. Indeed, the early postwar exceptions were
use of a Chinese base at Port Arthur, one at Porkalla in Finland, and a three-year
interregnum (1958–1961) when Soviet submarines were granted access to
Albanian bases in the Mediterranean.
After that came the large-scale naval build-up through the late 1980s under
the aegis of Admiral Gorshkov, a build-up that produced a navy that, measured
by major surface combatants and submarines, was larger than that of the U.S.
The Soviet Navy fielded some 269 principal surface combatants (including
four Kiev carriers), two ASW helicopter carriers, some 36 cruisers of which two
(Kirov-class) were nuclear, 61 destroyers (of which 33 were specialized for
ASW) and 167 escorts including 100 corvettes.61 In addition, there were some
762 minor surface combatants: vast numbers of missile patrol boats, fast attack
craft, 372 principal auxiliary ships (replenishment, tankers, missile support,
supply, cargo, submarine tenders, repair, hospital, submarine rescue, salvage/
rescue, training ships, etc.). There were some 62 intelligence collection vessels
(AGI), 456 naval research vessels, 74 tankers, 298 support ships, 1900 merchant
ships, and numerous civilian oceanographic, fishery, space-associated and
hydrographic research vessels.62
130 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 38
The Soviet submarine fleet was equally formidable, comprising some 360
vessels. It fielded 63 SSBNs and 14 non nuclear-powered ballistic-missile sub-
marines (SSNs), with a total of 983 submarine-launched ballistic missiles
(SLBMs) – 39 SLBMs and 15 submarines were outside the SALT limits – some
214 attack submarines of which 70 were nuclear-powered, and 63 cruise-missile
submarines, 48 of which were nuclear (SSGNs).63
That Cold War Soviet navy was, obviously huge. But its more limited (rela-
tive to the U.S.) external basing network required an outsized force of auxiliary
ships to compensate for the shortage of land bases. The same was true for AGIs,
fishing and oceanographic vessels, and SIGINT, communications relay, space-
tracking, ships etc.
In the Mediterranean, the important Soviet presence in Syria included naval
access to the port of Tartus, which was the primary maintenance facility for
Soviet submarines operating in the area. A Soviet submarine tender, a yard oiler
and a water tender were stationed there.
Over the years, there had also been varied degrees of naval access to Algeria,
Libya and Yugoslavia. Soviet submarines were reported serviced at Annaba in
Algeria, and its ships were refueled and maintained at a couple of Yugoslav
ports on the Adriatic, at Tivat and Sibenik.64
In Guinea, despite some curtailment of long-maintained access for Soviet
Bear reconnaissance aircraft, the USSR routinely used Conakry harbor as a
facility for its West African patrol.65 But Luanda in Angola became the most
important port for Moscow’s West African naval units – since 1982 that had
involved an 8500-ton floating drydock capable of handling most major Soviet
naval combatants.66 In Ethiopia, the installation at Dahlak Archipelago was the
maintenance facility and supply depot for Soviet naval combatants operating in
the Indian Ocean and Red Sea, normally ranging from 20–25 units, including
surface ships, attack and cruise-missile submarines and auxiliaries. This facility
included an 8500-ton floating drydock, floating piers, helipads, fuel and water
storage, a submarine tender and other repair ships. Guided-missile cruisers and
nuclear-powered submarines regularly called at Dahlak for repair and supplies.67
In Cuba, in addition to enjoying access for port visits, maintenance, and so
on, Moscow permanently based a submarine tender at Cienfuegos, used primar-
ily, if not solely, for servicing attack submarines – access for SSBNs might have
been construed as a violation of the agreements emerging out of the Cuban
Missile Crisis.68
At another level, Soviet access to Peruvian ports provided logistics support
and maintenance for some 200 fishing vessels that operated off the coast of
South America. This involved, among other things, extensive rotation of mer-
chant seamen and fishermen.69
Table 10 details the Soviet overseas naval basing structure which, it is import-
ant to note, had experienced some major changes in the late Cold War period as
reflective of the vicissitudes of external political alignments. Several external main
operating bases were crucial to Soviet naval deployments: Cam Ranh Bay
(Vietnam) in the Far East/Pacific area; Aden and Socotra (South Yemen) and the
Bases during the Cold War 131 İ 2007 Robert E. Harkavy
Page 39
132 Bases during the Cold War Table 10 Main and secondary surface-ship operating bases of the Soviet Navy
Host nation base
Description
Vietnam
Cam Ranh Bay
Main external Soviet naval base in Far East – guided-
missile cruisers, frigates and minesweepers based here; also, attack submarines; on average, deployment
was four submarines, two to four combat vessels, ten
auxiliaries.
Cambodia
Kampong Som (Sihanoukville)
Reported access for Soviet warships, i.e., replenishment,
refueling, etc.
North Korea Najin
Some port access, earlier reports of submarine base.
India
Vishakhapatnam
Indian naval base built with Soviet assistance, some
Soviet port calls, refueling, etc.
Cochin Port calls, refueling, etc. reported.
Iraq
Umm Quasr
Soviet assistance in improving facilities here, earlier
reported accessible to Soviet warships; access, limited
during Iraq–Iran War.
Az Zubayr
Earlier reported used by Soviet submarines and SIGINT vessels.
Al Fao
Iraqi port, reported availed to Soviet Union after 1974
agreement.
South Yemen
Aden
Soviet main base for Indian Ocean operations; fuel tanks, replenishment, reports of submarine pens
alongside berthing for major surface ships.
Socotra Island
Anchorage used by Soviet ships, possible shore
facilities.
Ethiopia
Dahlak Archipelago
Large anchorage for Soviet Indian Ocean naval squadron.
Assab
Important Soviet naval facility; floating dry dock
formerly moored at Berbera.
Massawa
Port access, routine.
Perim Island
Former British facility, reportedly improved by Soviet Union.
Mauritius
Reported port calls (note concurrently reported U.S.
access).
Mozambique
Nacala
Periodic port calls. Maputo
Periodic port calls.
Tanzania
Zanzibar
Available, port calls.
Angola
Luanda
Was main Soviet naval base on West African coast,
having replaced Conakry; guided-missile destroyer
and several accompanying craft stationed here. İ 2007 Robert E. Harkavy
Page 40
Bases during the Cold War 133 Table 10 continued
Host nation base Description
Madagascar
Diego Suarez
Available, port calls.
Tanative
Available, port calls.
Benin
Cotonou Periodic port calls.
Guinea
Conakry
Formerly hosted small West African flotilla; use later
curtailed, if not eliminated.
Congo
Ponte Noir
Reported occasional port calls. Guinea Bissau
Geba Estuary
Port calls.
Algeria
Mers El Kebir
Port calls.
Annaba Soviet repair ships deployed. Submarine repair
capabilities reported.
Libya
Tripoli
Regular access, Soviet Mediterranean squadron.
Benghazi
Regular access, Soviet Mediterranean squadron.
Bardia Soviet Union reported constructing naval base here.
Syria
Latakia
Main base for Soviet Mediterranean squadron; fuel,
replenishment, etc.
Tartus
Regular access, maintenance facility for attack
submarines, oiler, tender. Ras Shamra
Soviet submarine base alleged under construction.
Yugoslavia
Tivat
Repair of Soviet ships and submarines.
Rijeka
Port calls. Pula
Port calls.
Sibenik
Port calls.
Split
Port calls.
Greece
Siros Island Ship repairs, commercial, at Neorian shipyard.
Cuba
Cienfuegos
Replenishment base for Soviet attack submarines,
mooring of submarine tender occasionally rumoured.
Mariel
Port calls. Nipe Bay
Port calls, Gulf-class submarines, intelligence
collectors.
Havana
Access for Soviet surface ships.
Santiago de Cuba
Access for Soviet surface ships.
Peru
Calleo
Occasional ship visits since Soviet–Peruvian arms
deal.
Romania
Mangalia
Reported Soviet submarine base on Black Sea. Sulina
Forward supply base for Soviet Danube flotilla. Source: Compiled from SIPRI data.
İ 2007 Robert E. Harkavy
Page 41
Dahlak Archipelago (Ethiopia) in the western Indian Ocean/Horn of Africa area;
Luanda (Angola) in the South Atlantic; Latakia and Tartus (Syria) in the Mediter-
ranean; and Havana, Cienfuegos and Mariel (Cuba) in the western North Atlantic.
Beyond that, the Soviet Navy had acquired degrees of access – secondary bases,
minor facilities, port visits etc. – in numerous other locales (often the subject of
debate over facts and interpretations). These included Cambodia, India, Iraq, Mau-
ritius, the Seychelles, Madagascar, Mozambique, Angola, Congo, Sao Tome and
Principe, Cape Verde, Guinea Bissau, Benin, Guinea, Algeria, Libya, Yugoslavia,
Spain (Canary Islands), Nicaragua and Peru. That may not have been a truly
global basing structure, but it was something well beyond what would have
accorded with a strictly defensive, coastal defense navy, or with the assumptions
and expectations of a generation earlier.
Soviet air bases70 Numerically speaking, the Cold War Soviet Air Force was huge, comprising – in
varying degrees of readiness – some 4000 combat aircraft. More than half of these
were primarily configured as interceptors, that is, they were for strategic and/or
tactical defense; the remainder were configured mostly as ground-attack craft. Still
others had as their primary functions reconnaissance and electronic countermea-
sures; 540 and 30 craft, respectively. In its strategic forces, the USSR had some
165 long-range, 567 medium-range, and 450 short-range bombers, 68 long-range
reconnaissance craft, some 100 ECM machines and (here deficient relative to the
U.S.) a then growing force of some 50 Bison and Badger tankers.
In line with the facts of Soviet ground and naval deployments, most perman-
ent external deployments of aircraft were in the immediately contiguous areas of
Eastern Europe within the WTO, Mongolia and Afghanistan. Otherwise,
however, the Cold War years saw the Soviet Air Force break out of the confines
of Eurasia to establish more or less permanent bases in Vietnam, South Yemen,
Angola and Cuba.
The USSR had some 2000 tactical aircraft deployed in Eastern Europe. The
MiG-23 Flogger was by far the most numerous fighter-interceptor; followed by
late-model MiG-21 Fishbeds and older Su-15 Flagons. Other less numerous
fighter-interceptors included the Foxbat, Firebar, Fiddler and the then new MiG-
31 Foxhound and MiG-29 Fulcrum.
Among the ground-attack aircraft, the most common were the Su-17 Fitter
and MiG-27 Flogger, though reportedly the best interdiction aircraft in the
Soviet inventory was the Su-24 Fencer. Other units were comprised of MiG-23
Floggers, the then new Su-24 Frogfoot and older MiG-21 Fishbed and Su-7
Fitter As. Reconnaissance aircraft deployed in Eastern Europe included MiG-21
Fishbeds, Su-17 Fitters, MiG-25 Foxbats and Yak-28 Brewers.
In East Germany, there were large numbers of attack and interceptor fighters,
a total of 685 combat aircraft, comprising 315 attack aircraft (Su-17s, Su-24s,
Su-25s, MiG-27s), 300 fighter interceptors (MiG-21/25/27s), 50 reconnaissance
craft (Su-17s, MiG-25s), plus 20 ECM and 40 light transport aircraft. These
134 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 42
were forward-based at some 17 bases; quantitatively speaking, there were both
more aircraft and bases than were fielded by the U.S. and British counterparts in
West Germany. These were at: Zossen-Wiesdorf, Stralsund, Peenemunde,
Parchim (Hind-24 helicopters and long-range transports for troop exchanges),
Finow, Werneuchen, Oranienburg, Wittstock, Neuruppin, Zerbst (MiG-25
reconnaissance aircraft), Juterborg, Kothen, Welzow, Finsterwalde (Su-20 Fitter
B fighter regiment), Merseburg, Grossenhein and Alternburg.
In Czechoslovakia, the USSR regularly deployed some 105 combat aircraft,
located mostly in the Bohemian region along the German border and in the area
northwest of Prague. There were some 45 MiG-27 Flogger D/Js, 45 Flogger Bs
and 14 Su-17 reconnaissance craft. Among the some 30 military airfields in
Czechoslovakia, Soviet combat aircraft were reported stationed at Prague’s
Ruzyne airport, Milovice, Cheb/Horni Dvory, Dobrany, Karlovy Vary, Zatec,
Mimon, Tchorovice and Panensky Tynec.
In Hungary, the Soviet Air Force had six major air bases in addition to joint
use of some Hungarian bases and also some dispersal strips. There were about
240 combat aircraft deployed, including Su-17 Fitter and Su-24 Fencer attack
craft, MiG-23 interceptors and Su-17 reconnaissance aircraft. Tokol in
Budapest, a major Soviet base used jointly with Hungary, deployed fighters,
bombers, transports and helicopters and was also the headquarters for the Soviet
Air Force in Hungary. Other important bases were at Kaposvar, Papa,
Veszprem, Debrecen, Mezokovesd, Pecs and Szombathely. There was joint use
of other installations at Kalocsa, Szolnok, Kecskemet, Sarmellek and Szeged.
In strategically located (relative to the main potential theater of operations
along the West German frontier) Poland, the USSR earlier based combat aircraft
at Legnica, Gniezno, Pucza Bolimowska, Gdansk (naval air Backfires), Zagan,
Brzeg, Opole, Szczecin, Kolobrzeg, Szczecinek and Koszalin. The bases at
Zagan and Szprotawa hosted Su-24 Fencer aircraft.
In the Far East, again associated with a major ground force deployment, there
were in Mongolia about six squadrons of Soviet combat aircraft, including MiG-
21/23/25/27s. They were at Choybalsan northeast, Ulan Bator southwest,
Nalayh, Bayan Suma and two facilities around Sayn Shand which fielded MiG-
23s. These were large deployments comparable to those in Eastern Europe,
reflecting the size of the Soviet presence vis-à-vis China during the period of
tension between the two communist giants. In addition, some 30 MiG-23s were
based on Eterofu Island in the Kuriles (disputed with Japan), along with
8000–10,000 troops.
During the war in Afghanistan the Soviet Air Force established a major pres-
ence in at least five air bases. These was at Kabul, Kandahar (important for
airlift and for naval reconnaissance over the Indian Ocean), Bagram (MiG-23
base and reported Tu-95 Bear bomber deployment), Shindand (a squadron each
of MiG-21s and MiG-23s, two squadrons of Su-20 fighters and 60 Mi-6 heli-
copters) and Jalalabad near Pakistan and the Khyber Pass, where 100-plus
Soviet helicopters were reported stationed. These bases were later used by the
U.S. after the fall of 2001.
Bases during the Cold War 135 İ 2007 Robert E. Harkavy
Page 43
Outside of the old (Western-imposed) Eurasian containment rim (or “out of
area” relative to the USSR), the Soviet Air Force established bases, ad hoc facil-
ities and staging rights in virtually all of the world’s major regions. Concerning
the “permanent” or continuous deployment of aircraft (or sporadic deployments
approaching that status), this involved most importantly both combat and naval
reconnaissance aircraft. The major deployments were, as one might expect, co-
located with the major naval facilities in some of the Soviet Union’s closest
allies in the Third World, such as Vietnam, South Yemen, Cuba, Syria, Libya
and Angola. Still, relative to USAF access overseas, the paucity of permanent
deployment of combat aircraft stood out. Perhaps of greater significance was the
considerable access for Soviet naval reconnaissance aircraft.
In Vietnam, alongside the major naval deployments at Cam Ranh Bay, the
Soviet Union deployed some 24 reconnaissance or combat aircraft, 8 Tu-95
Bears and 16 Tu-16 Badgers D/K, ten of the latter having strike capabilities.71
The Badgers’ ranges extended the Soviet strike capability over the entire
Southeast Asian region, notably including the U.S. bases in the Philippines,
but also over Guam and the other U.S. facilities in the islands of the Central
Pacific.72
In the Southwest Asia/Indian Ocean area, the Soviet Union, after 1978, was
provided access to Yemen’s Aden International Airport and to a military airfield
at Al-Anad, for IL-38/May naval reconnaissance aircraft, the Soviet equivalent
to the U.S. P-3C.73 (These were transited further south to Ethiopia and Mozam-
bique.) In the Mediterranean, there was similar access for IL-38s in Libya after
1981, at Okba ben Nafi, the former U.S. Wheelus Air Force Base. Additionally,
there were a large number of Soviet Air Force advisers and maintenance person-
nel in Libya, whose air force comprised MiG-25s, MiG-23s, MiG-21s, Su-22s
and Mi-24 Hind helicopters – as well as Tu-22 Blinder bombers and IL-76
Candid and AN-26 Curl transports.74
Soviet ground force bases75 During the peak of the Cold War, the USSR deployed a massive land army and
associated facilities in Eastern Europe. At the peak, that involved some 565,000
troops, organized for combat into 30 divisions (16 tank and 14 motorized rifle),
plus attached artillery units. The deployments were as follows:
1 GDR: 380,000 troops; one Group and five Army headquarters; ten tank and
nine motorized rifle divisions; one artillery division; one air assault divi-
sion; five attack helicopter regiments with some 500 Mi-8 Hip and 420
Hind attack helicopters.
2 Czechoslovakia: 80,000 troops; one Group and one Army HQ; two tank and
three motorized rifle divisions; one air assault battalion; one artillery
brigade, 2 attack helicopter regiments with 100 Mi-8 Hip and Mi-24 Hind
helicopters.
3 Poland: 40,000 troops; one Group and one Army headquarters; two tank
136 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 44
divisions, one attack helicopter regiment with 120 Mi-8 and Mi-24 heli-
copters.
4 Hungary: 65,000 troops; one Group and one Army HQ; two tank and two
motorized rifle-divisions; one air assault brigade with 65 Mi-8 and Mi-24
helicopters.76
Outside Europe, the only permanent major (peacetime) Soviet ground-force
deployment in an allied country was in Mongolia. There, the Red Army
deployed two tank and three motorized rifle divisions, 65,000 troops in all
(earlier there were 75,000) vis-à-vis China.77 These forces filled a gap in the
Sino-Soviet confrontation line amid a much larger overall Soviet deployment in
the Far Eastern theatre of some 53 regular divisions (seven tank, 45 motorized
rifle, one airborne), abetted by four artillery divisions and two air assault
brigades.
The Soviet Union’s other main external ground force was, of course, the
large army of some 118,000 troops engaged in combat in Afghanistan, which
included 10,000 Ministry of Internal Affairs (MVD) and Committee of State
Security (KGB) troops. That force remained, numerically speaking, at a fairly
constant level from the initiation of hostilities in 1979, to its conclusion in 1989.
There are several other locales where clusters of Soviet-bloc advisers and
military technicians were significant beyond the “norm” for standard military
missions. These were in Algeria (1000), Cuba (8000), Ethiopia (1500), Libya
(2000), North Yemen (500), South Yemen, (2500), Syria (4000) and Vietnam
(2500), with small numbers in India, Iraq, Cambodia, Laos, Mali, Mozambique,
Nicaragua and Peru. Each was a major recipient of Soviet arms. The much-
argued “Cuban brigade” – whether defined as a combat formation or as a collec-
tion of support troops – achieved some notoriety in 1979 when publicity over its
presence (and arguments about whether it represented a violation of agreements
made at the close of the 1962 Cuban Missile crisis) was important to the aborting
of the SALT II Treaty by opposition in the U.S. Senate. Soviet forces in Syria
were important in the wake of the latter’s debacle in the 1982 war with Israel –
they manned the some 48 long-range SA-5s which could have contested Israeli
air control even over the Mediterranean in the event of renewed hostilities.
Earlier, prior to 1972, there was a large force of Soviet troops – some 20,000 –
deployed in Egypt’s Suez Canal area, mostly to man air defense installations. In
1977–1978, some Soviet forces aided Ethiopia in its war against Somalia.
Soviet technical facilities abroad78 During the Cold War, the USSR made – relative to the U.S. – much less use of
foreign facilities for technical functions – communications, space-related, anti-
submarine warfare, nuclear detection etc. This was variously due to much
greater utilization of shipboard facilities; the larger (relative to the U.S.) Soviet
land mass in relation to the major focus of the superpower competition along the
Eurasian rim, which allowed many functions to be performed within the USSR;
Bases during the Cold War 137 İ 2007 Robert E. Harkavy
Page 45 the lesser number of aligned client states available to the Soviet Union in the
Third World; the practice of utilizing a larger numbers of satellites with shorter
lives; and the more open nature of Western societies which reduced the (rela-
tive) Soviet requirements for proliferated intelligence facilities.
The USSR had nothing, for instance, comparable to the U.S. SOSUS network
for tracking submarines, though there was a report in 1978 of a Soviet
hydrophone apparatus washed ashore in Iceland. The Soviets relied more on
surface ships and perhaps also submarines and aircraft-sown sonabuoys for
detection of U.S. submarines. It maintained about 50 auxiliary intelligence ships
for ASW work, which maintained a constant presence near important contin-
ental U.S. bases such as Charleston, South Carolina; Kings Bay, Georgia;
Norfolk, Virginia; Mayport, Florida; and Bangor, Washington; as well as at
Holy Loch, Scotland.
And, unlike the U.S., the USSR apparently made no use of external commu-
nications and/or navigation facilities in connection with submarines on patrol.
Several sources reported that communications with submarines stationed at great
distances from the USSR were handled by a network of some 26 VLF and LF
transmitters within the USSR itself, apparently sufficient to cover the patrol
areas of Soviet SSBNs and SSNs; in the former case, most were kept close to
home in the “bastions,” or on stations in the Atlantic or Pacific oceans within
range of the home communications stations. Ford referred to six long-range
radio transmitters (at Petropavlovsk, Vladivostok, Dikson Ostrov, Kaliningrad,
Matochin Shar and Arkhangelsk) that gave orders to Soviet submarines. In addi-
tion, Arkin and Fieldhouse reported a three-station network of “Omega-type”
VLF transmitters at Krasnodar, Komsomolsk and Rostov. They also detailed a
considerable number of LORAN-C type “Pulsed Phase Radio Navigation
System” stations, organized by chains along the western and eastern littorals of
the USSR, used to position submarines.
Soviet submarines apparently also received communications from satellites
during brief surfacing. And, one source indicated the possibility of Soviet use of
command and control submarines for relaying communications to other under-
seas craft within communications distance.
The Soviet global ground network of space-tracking and satellite control
facilities was, of course, far less extensive than that of the U.S. Again, this was a
function of the far more extensive use of ship-borne facilities as well as of the
lesser external needs dictated by the larger land mass of the USSR, particularly
in relation to many satellite orbits which allowed direct transmission to the
USSR.
At the core of the Soviet space-surveillance system was a network of at least
12 sites within the USSR claimed to be “equipped with receivers to measure
Doppler shifts in radio signals, tracking radars, and photo theodolites and which
transmit data to a central computation center.” Additionally, radars associated
with anti-ballistic missiles (ABM) – Pushkino, Hen House, Try Add and Dog
House – are said to have had space-tracking capabilities, along with the contro-
versial (in the context of ABM treaty verification) radar at Abalakova.
138 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 46
Outside the USSR, there were a number of tracking stations in foreign coun-
tries. These were reported in Egypt (Helwan and Aswan) before the Egypto–
Soviet break, Mali, Guinea, Cuba and Chad, as well as in Czechoslovakia and
Poland. At Santiago de Cuba, for instance, there was an Interkosmos laser radar
and also a KIM-3 tracking camera, presumably functionally equivalent to the
U.S. Baker-Nunn or GEODSS systems. Perhaps overlapping this grouping, there
were reports of an Interkosmos laser tracking program (using a laser
rangefinder) involving facilities in Egypt, Bolivia, India and Cuba. It is believed
that tracking was carried out at Khartoum in the Sudan and Afgoi in Somalia.
But just because the Soviet Union was reluctant to become too dependent on
foreign land-based stations, it placed considerable emphasis upon shipborne
space-tracking (and also missile-tracking) systems. This involved more than ten
ships – a Soviet source noted that even despite the nation’s large land mass,
space vehicles were within direct visibility from Soviet territory only for about
nine hours out of 24.
In the field of communications too, the Soviet Union was far less dependent on
foreign land bases than the U.S.; correspondingly, far more reliant on ship-borne
systems (an exception, of course was the VLF facilities used to communicate with
submarines, perhaps too large to be placed aboard ships). As it is, however, rela-
tive to what was known about the U.S., there was scant information on how the
USSR utilized the whole of the frequency spectrum for various purposes, how it
tried to circumvent countermeasures by redundancy, and so forth.
For the most part, Soviet use of overseas communications facilities focused
on the downlinks for the Molniya communications satellites, of which there
were some 40 aloft at a given time.
A U.S. government report provided some information (and a map) on the
general locations of Soviet tracking ships and, hence, of the locales where they
might have sought port access or at least mooring buoys. Among them, off Sable
Island, Nova Scotia; in the western Mediterranean near Gibraltar; the Gulf of
Guinea; off Mozambique and Madagascar; off Honduras, east of the Philippines;
and north of New Zealand. Large tracking ships apparently moored at Havana
and/or Santiago while tracking some flights; Trinidad was also mentioned in this
context. Some of the other locations provided rationales for periodic access to
Conakry or Maputo, maybe also to Nicaragua, as well as providing further indi-
cations of the Soviet need for access somewhere in the South Pacific. (The U.S.
government report stated that three large Soviet ships took turns serving in the
Caribbean area to extend Soviet deep-space coverage.)
The USSR depended considerably less on land-based SIGINT collection sta-
tions than the U.S., though, it utilized a variety of means; satellites, surface ships
and submarines, aircraft, equipment based in embassies and so on. And again,
similar to the situation with respect to space tracking and early warning, one had
to be aware of the sometimes only indirect importance of external access; for
instance, for fueling ships used in lieu of land facilities.
The USSR was reported to have had major SIGINT facilities at Lourdes,
Cuba; Cam Ranh Bay, Vietnam; Ethiopia (two); South Yemen; Syria; and
Bases during the Cold War 139 İ 2007 Robert E. Harkavy
Page 47
Afghanistan. That at Lourdes was reported to be devoted to interpretation of
satellite communications. There may have been additional ground stations in
Libya and Iraq, though the fate of the latter might be questioned since Moscow
had given only modest support to Iraq in its war with Iran, particularly in the
early stages, in part because of the cross-pressures from its relationship with
Libya.
The Lourdes facility was a large one, operated by some 2000 Soviet person-
nel; it became a prominent issue in 1979 at the time of the imbroglio in the U.S.
over the Soviet “Cuban brigade” amid the SALT II confirmation hearings. The
facility of 50 buildings housed an antenna field, satellite receiver and so on, and
targeted U.S. civilian and military communications, that is, B-52 communica-
tions, Fort Benning and Cape Canaveral, the naval headquarters at Norfolk, etc.
According to Richelson, the Lourdes facility, complemented by a similar one in
the USSR, “gave complete coverage of the global beams of all U.S. geosynchro-
nous communications satellites.”
At Cam Ranh Bay, the Soviet Union had an important facility from which to
monitor both land and ocean-based emissions – there were two HF/DF sites used
to gain locational data on U.S. fleet units in the Pacific. The U.S. bases in the
Philippines were obvious targets.
The four sites in Afghanistan aided collection, variously, vis-à-vis China,
Pakistan, Iran and the Persian Gulf area. And, of course, these sites
merely added to the capabilities of hundreds of SIGINT sites located within the
USSR.
The Soviet Union had some other land-based intelligence-interception facili-
ties located outside the USSR. In Laos, there was an air-surveillance radar, obvi-
ously directed against China. According to the IISS, there was a Soviet
monitoring station (elsewhere identified as a radar site) in Sao Tome and
Principe. In Cuba, along with the Lourdes facility, there were also air-defense
surveillance radars, the Tall King system, apparently operated by Soviet person-
nel. In East Germany, there were HF-finding antennas used in connection with
jamming operations, in Poland, a SIGINT station and HF direction-finder at
Sinajscie, and at Bierdzany a receiver site for a Soviet OTH radar transmitter
located at Kiev. Throughout Eastern Europe, there were large numbers of air-
surveillance radars equivalent to the NATO NADGE system – in Hungary, for
instance, some 130 sites manned by Soviet personnel were reported.
The Soviet AGIs had near global patrolling areas. There was a concentrated
effort to monitor off the southeastern coast of the U.S. (where U.S. surface and
submarine units were concentrated), in the English Channel, the Norwegian Sea
and off Holy Loch. In the Indian Ocean and Mediterranean Sea, Western naval
movements were monitored, particularly near the straits of Gibraltar, Hormuz
and Bab El Mandeb, and the Suez Canal. In the Pacific Ocean, there was corre-
sponding emphasis off the coasts of China, Japan, Guam and in the waters
around Vietnam.
The dependence of these “spy ships” on provisioning from foreign ports was
difficult to gauge, but must certainly have been considerable. As noted by one
140 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 48
source, the Soviet Union had chosen “not to build an auxiliary fleet of the size
necessary to reduce out-of-area base support to a manageable minimum . . . Ship
designs, both for ease of maintenance and for reasons of habitability, still are
notoriously poor . . . Unlike U.S. ships, most Soviet ships cannot distill enough
fresh water and are dependent upon water tankers.”
This situation necessitated frequent operational port visits by auxiliaries to
take on food and fresh water, which were then transferred to combatants, pre-
sumably also AGIs, at roadsteads or at sea. This presumably further directed
attention to the main Soviet basing hosts and clients – Cuba, Angola, Syria,
Vietnam, South Yemen etc. – as critical to fueling and otherwise provisioning
the Soviet Union’s global AGI effort.
Soviet forward-based missiles79 By the mid-1980s, of course, both the U.S./NATO and the USSR deployed large
numbers of externally based, nuclear-armed missiles in Europe, constituting a
massive and critical forward presence. Centrally, this involved Soviet deploy-
ment of short-range theater weapons and tactical weapons in Eastern Europe
(SS-12/22s, SS-23s and SS-7 “Frogs”) and a countervailing U.S. deployment of
Pershings, cruise missiles and Lance battlefield weapons.
The Soviet SS-20 theater missiles which were at the center of the INF negoti-
ations were first deployed in 1977. These missiles, carrying three nuclear war-
heads with ranges of 3400 miles (5000km), were phased in to replace the older
SS-4s. The latter were first deployed in 1959, with a single warhead platform
and a range of 1120 miles.
By 1987, it was typically reported that over 300 SS-20s were deployed
against NATO west of the Ural Mountains, with another 100 or so in Soviet
Asia, for a total of 441. None of these were based outside the USSR (nor were
any of the 112 reported SS-4s which were still deployed in the western USSR).
They were based in several fields in the western Soviet Union and near the
Caspian Sea. The SS-20s threatened the entirety of NATO-Europe with their
5000-km ranges, as well as many other important targets – the Azores, Green-
land, Philippines, Guam, Okinawa, etc.
Other nations’ external basing: Britain and France80 Somewhat in the face of historical nostrums associated with Mahan and others,
it is apparent that the Cold War competition – if that is what it was – for over-
seas naval access was largely a two-nation game. In that sense at least, bipolarity
unquestionably reigned. There were, nonetheless, a few not altogether insignifi-
cant instances of naval basing retained by – or recently acquired by – some other
nations: France, Britain, Australia, the Netherlands and maybe others. Of course,
almost all navies conduct periodic port visits abroad, variously involving “pres-
ence,” solidification of political friendships, broadening of horizons for naval
personnel, and so on.
Bases during the Cold War 141 İ 2007 Robert E. Harkavy
Page 49
France had the most significant external naval presence besides the super-
powers, most notably represented by its Indian Ocean Flotilla (Alindien) of five
frigates, three minor combatants, two amphibious and four support ships (also a
small naval marine detachment). That force was deployed out of Djibouti (hence
was within combat range of the Persian Gulf), also making extensive use of
bases at Reunion and Mayotte (Mozambique Channel), both French overseas
possessions (earlier, up to 1973, France had extensive access to Diego Suarez in
Madagascar). There was also a significant naval presence in the Pacific: five
frigates, five minor combatants, seven amphibious and 12 support ships. That
force operated out of Noumea, New Caledonia and also patrolled via Tahiti
(Papeete), Muroroa and other French dependencies in the southwest Pacific.
Two small ships were also normally rotated about between the Antilles (Port
Lewis, Guadeloupe) and Guyana. The French Navy also made extensive use of a
number of other ports, mostly in closely aligned African nations: most notably
Dakar (Senegal), Abidjan (Ivory Coast) and Libreville (Gabon). During the
events of 1987, France’s access to Djibouti allowed for a significant naval pres-
ence in the Gulf of Oman, outside the Straits of Hormuz. That presence was
reported as consisting of three minesweepers, three escorts, one anti-submarine
ship, the aircraft carrier Clemenceau and two frigates.
Great Britain’s once near astonishing network of overseas naval bases and
access had by 1985 dwindled to a very small remnant, aside from still extensive
routine port calls by the Royal Navy. Small naval forces were still permanently
deployed in Belize, Gibraltar and Hong Kong. A relatively large force, including
an ASW carrier, an SSN and several escorts and auxiliaries remained in the
Falklands in the wake of that (not wholly resolved) dispute. A small naval
detachment (one or two destroyers or frigates and a couple of support ships)
moved about the Indian Ocean, making use of Diego Garcia, Singapore, Perth
and so on, and had quietly been used to escort ships in the Persian Gulf. That
presence, which apparently utilized access to Bahrain, was reported in 1987 to
consist of two warships, one fleet tanker, four minesweepers and a supply ship.
Otherwise, within NATO, only the Netherlands permanently deployed a tiny
naval presence outside Europe – the Dutch retained a small presence at Curacao
in the Caribbean. (Spain was reported to have established a small “fishing” pres-
ence in Equatorial Guinea after the expansion of the Soviet Navy from Luba.)
As in so many other ways, the matter of external basing of aircraft remained
during the Cold War primarily a two-nation game, reflective of the tenacious
hold of bipolarity which had characterized global basing networks in the post-
colonial era. Earlier, of course, the primary colonial powers – Britain, France,
Italy, the Netherlands, Portugal, Spain – all had had extensive networks of air
bases closely associated with colonial garrisons and with colonial rivalries
among the European powers themselves. In the 15–20 years after 1945, these
assets gradually dwindled, and in the process the number of bases available to
the U.S. and, more generally, to the Atlantic alliance contracted. But there were
still some remnants, and in the case of France at least, even the hint of a slight
expansion of an overseas air power presence.
142 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 50
Of course, there was some intra-NATO alliance forward basing of aircraft in
West Germany; again, associated for obvious reasons with land-force deploy-
ments and, indeed, located immediately to the rear, westward of those forces.
The British Army of the Rhine was backed up by significant forward Royal Air
Force (RAF) deployments, involving 12 aircraft and two helicopter squadrons,
six deploying nuclear-capable Tornado strike aircraft (co-developed in a consor-
tium with the FRG and Italy), one of Jaguar reconnaissance aircraft and two of
Phantom fighters; also among these were two squadrons of Harrier jump jets
(nuclear-capable) and one of Pembroke communications aircraft. These aircraft
were stationed at several main air bases in northern Germany: Laarbruch,
Bruggen, Wildenrath and Gutersloh. Canada’s contribution, further south in
Baden Wurtemberg, consisted of forward deployment of three squadrons of 36
CF-18s at a base at Baden Sollingen, supported by liaison aircraft and 2700 per-
sonnel. In addition, the West German Luftwaffe had training and some support
facilities in Portugal, the U.S., the U.K. and Canada, and had permanently based
18 Alpha jets at Beja in Portugal, mostly in connection with training activities.
Elsewhere, overseas, some remnants of what obviously once was a much
larger RAF presence remained. There were some aircraft or helicopters perman-
ently stationed at the Falkland Islands, Ascension, Belize, Brunei, Cyprus,
Gibraltar and Hong Kong. Of these, the RAF maintained only helicopters and/or
utility aircraft in Brunei, Cyprus (Akrotiri) and Hong Kong, though Phantoms
and Lightning fighters were sometimes deployed to Cyprus. There were appar-
ently Victor bomber and Hercules C-18 tanker detachments on Ascension, in the
late 1980s, no doubt to provide the wherewithal for another logistics operation
to the Falklands, if that should have been necessary. There was a helicopter
squadron at Hong Kong, as the latter’s reversion to China loomed. In Belize, a
lingering point of tension in connection with Guatemalan irredentist aims, the
supporting British force included four Harriers and also four Puma and four
Gazelle helicopters. Gibraltar still saw occasional deployments of Jaguar fighter
aircraft. In the Falklands themselves, the U.K. – to deter another invasion which
could have seen an enhanced Argentinian air assault – maintained on station a
full squadron of nine Phantoms and Harrier vertical take-off and landing
(VTOL) aircraft, Hercules tactical transports and several Sea King and Chinook
helicopter detachments. This was almost, quixotically, the largest RAF presence
outside of Europe. Overall, the RAF had some 17,000 personnel stationed
abroad.
The U.K. also deployed some ASW aircraft at overseas bases, supplementing
the near-global presence of the large U.S. force of P-3C Orions. The British
equivalent was the nuclear-capable Nimrod MR2 aircraft. These were periodi-
cally deployed at Wideawake Airfield on Ascension; Kindley Naval Air Station,
Bermuda; Akrotiri, Cyprus; Stanley Airfield in the Falklands; Gibraltar;
Keflavik, Iceland; Sigonella, Sicily and perhaps also Konya Air Base, Turkey.
The French Air Force, again in direct association with army detachments,
maintained a fairly significant presence in several African states. These forces
had been directly engaged in some local wars where, even in small numbers,
Bases during the Cold War 143 İ 2007 Robert E. Harkavy
Page 51
they could be decisive or at least telling because of an absence of counter-
weights, at least so long as Soviet or Cuban pilots were not directly engaged. At
minimum, they acted as tripwire deterrents – for several Francophone regimes –
against local aggression or external involvement.
The main points of deployment were in Djibouti, the Central African Repub-
lic, Chad, Gabon, the Ivory Coast and Senegal. Jaguar fighter-bombers (co-
developed with the U.K.) were deployed in the Central African Republic, Chad
and Gabon; Mirage F-1C aircraft were also deployed to Chad. Djibouti had a
squadron of ten Mirage IIIs. Alouette and Puma helicopter were stationed in all
of these countries, in the Ivory Coast they constituted the only French Air Force
presence. There were C-160 Noratlas transport aircraft deployed to the Central
African Republic, Chad, Djibouti, Gabon and Senegal. In the latter case, France
had based at Dakar and also at Djibouti Breguet Atlantique maritime-
surveillance aircraft in areas not far from frequent Soviet naval deployments in
West Africa and the Indian Ocean. The Noratlases provided for speedy move-
ment of French or other surrogate forces in case of crisis or conflict.
Aircraft based in Chad were earlier military engaged, as were those based in
Senegal, which flew missions on behalf of Mauritania and Morocco earlier on
during the Western Sahara war. Outside of Africa, France had no permanently
stationed combat aircraft, though helicopters and utility aircraft were deployed
in Martinique, Guadeloupe, French Polynesia, Reunion and the Mozambique
Channel Islands.
Otherwise, one can point merely to a few scattered external deployments of
aircraft represented by still other members of the Western alliance. The Nether-
lands had deployed some P-3Cs through Keflavik, Iceland and through British
air bases at St. Mawgan and Machrihanish. Australia had kept two squadrons of
Mirages in Malaysia as its contribution to the defense of Southeast Asia. New
Zealand up to 1982 had also had a small air presence in Singapore.
Concerning technical facilities, the U.K., which deployed SSBNs and SSNs
in the eastern Atlantic, had LF transmitters at Bermuda and Gibraltar; the latter
was capable of reaching across the Mediterranean to the Indian Ocean (until
1976 the U.K. had naval communications facilities at Mauritius and Singapore,
when it also still maintained a naval presence east of Suez). It had another at
Port Stanley in the Falklands, which would obviously have been of value in case
of resumption of hostilities in that area. It also deployed an RAF/UKADGE
early-warning radar at Sornfelli in the Danish-controlled Faeroe Islands.
Britain also fielded some additional, scattered C3I assets overseas. It had a
major SIGINT site on Cyprus at Pergamos/Dhekelia. Elsewhere, on Cyprus, the
U.K. had a troposcatter communications relay, a Skynet satellite-communications
terminal and an OTH radar in the Troodos Mountains capable of monitoring
missile tests within the USSR. There were reported Government Communica-
tions Headquarters (GCHQ) SIGINT stations on Ascension (Two Boats) and St.
Helena islands; also at Darwin, Australia (earlier, there were others in Botswana,
Aden, Bahrain, Malta, Mauritius, Singapore and on Oman’s Masirah Island).
There was a COMINT and HF/DF facility at Gibraltar. Two other SIGINT
144 Bases during the Cold War İ 2007 Robert E. Harkavy
Page 52
stations were located at Hong Kong, a major one at Diepholz in West Germany,
along with other signals units at Teufelsberg, Jever, Celle, Dornenberg and Gor-
leben. A former U.S.-run nuclear-detection site at Pearce, Australia was oper-
ated by the British Atomic Energy Authority. Earlier, there was a
communications relay facility on Mauritius.
Britain also contributed to the overall Western intelligence effort via some
jointly operated facilities. In conjunction with Australia, it operated an ocean-
surveillance radar at Hong Kong, once directed against the People’s Republic of
China, used to monitor Soviet fleet movements in the SLOCs between Siberia
and Vietnam. (Australia and New Zealand jointly operated a similar facility at
Singapore.) The U.S. and U.K. jointly operated such a facility at Diego Garcia.
These and other such facilities – an Australian installation at Darwin, U.S.-
operated bases at Edzell, Scotland and Brawdy, Wales, constituted a global
system codenamed Bullseye for direction-finding interception of ships at sea.
These and related activities were discussed by Richelson and Ball in the context
of the multilateral U.K./U.S. arrangement entered into by the U.S., U.K.,
Canada, Australia and New Zealand in 1947 in the aftermath of World War II.
Summary – Cold War basing patterns The 45-year long Cold War presented in some cases patterns that were reminis-
cent of previous periods, but others that were entirely new, pertaining both to
politics and technologies.
Reminiscent of the past was the geopolitical heartland/rimland structure of a
bipolar struggle. The U.S. rimland basing structure, increasingly leapfrogged as
the period progressed, was similar by degree with the earlier Portuguese, Dutch
and British basing networks, calling to mind Thompson’s thesis about system
leader lineage patterns.
But, the ideological nature of the bipolar conflict (earlier, only the religious
divide between Islam and Christianity provides a partial analog) resulted in
fairly stable alliance and alignment/clientship patterns over several decades.
That translated also into stable, long-term basing relationships between sover-
eign states that had no discernible historical precedent.
The basis for basing in this period was also historically unique, increasingly so
as the period progressed. As previous imperial control over much of the world by
the European powers collapsed, so too collapsed basing access networks based on
that imperial control. In its place, both the U.S. and USSR, largely previously
bereft of overseas empires, acquired and maintained access to bases largely via a
combination of the provision of security to regional states against the rival super-
power and its regional clients and with that, the provision of security assistance in
the form of arms transfers, training, economic assistance etc.
During the Cold War period, the proliferation of new types of basing access
was driven by rapid and profound technological change. Up to the interwar
period, the story for bases had mostly to do with surface naval bases and related
“forts” or ground force deployments utilized mostly for colonial control. By the
Bases during the Cold War 145 İ 2007 Robert E. Harkavy
Page 53
1930s, air bases and those for submarines had become important, so too some
initial “technical facilities,” such as those for communications and communica-
tions intercepts, early-on radars, terminals for underwater communications
cables etc. But later in the Cold War, particularly paced by developments in
satellites, there was developed a whole range of new basing requirements:
various form of communications, satellite downlinks and control stations, satel-
lite surveillance, sonar submarine tracking networks, early warning for ballistic
missile attacks, elaborate networks of radars, nuclear detection facilities and
many more. Technologically speaking, military operations and the bases that
support them had moved into several dimensions and the relations between
them, i.e., naval and land surfaces, the underseas, the airspace and outer space.
That is, there were many, many new types of bases in addition to traditional
naval bases and army installations.
Early on in the Cold War, the U.S. and Soviet basing networks tended to be
separate and demarcated, but also rivalrous. As the Soviets leapfrogged the
rimland alliance structure set up by the U.S. in the 1950s – Syria, Egypt, Libya,
Algeria, China, Guinea, Angola, Mozambique, Ethiopia, South Yemen, India,
Cuba, Vietnam – the rival basing points came more to be cheek-by-jowl, inter-
penetrated. Scenarios for “protracted conventional phase” warfare came to dwell
on possible rival efforts to “pick off” the enemy’s bases and, hence, to tilt the
balance of power in global conflict. But, that never came to pass, in part because
the dangers of escalation of conflict to the nuclear level precluded a more
modern version of conflict “beyond the line,” i.e., outside Europe, that was an
earlier tradition. The two superpowers eyed each others’ bases, engaged in a
cold war of nerves, but never directly attacked their rivals’ bases