Science and

Technology

AU 117

STC (01) 2

Original: English

NATO Parliamentary Assembly

 

 

 

 

 

 

 

Safeguarding the Nuclear complex in Russia

and the Newly Independent States

 

 

 

 

 

Draft General Report

 

 

 

Vernon J. EHLERS (United States)

General Rapporteur*

 

 

 

 

 

 

International Secretariat                                                                                                        3 April 2001

 

 

*        Until this document has been approved by the Science and Technology Committee, it represents only the views of the Rapporteur.

 

Assembly documents are available on its website, http: //www.nato-pa.int

CONTENTS

 

                                                                                                                                                                      Page

 

 

I.        INTRODUCTION.. 1

 

II.       RUSSIAN NUCLEAR FORCES.. 2

A.      INTERCONTINENTAL BALLISTIC MISSILES (ICBMs) 2

B.      nuclear-powered ballistic missile submarines (SSBNs) 3

C.      BOMBERS.. 3

D.      NON-STRATEGIC FORCES.. 4

E.      DOWNSIZING THE SOVIET NUCLEAR ARSENAL. 4

 

III.      FISSILE MATERIAL. 5

A.      EFFORTS TO SECURE FISSILE MATERIAL. 6

 

IV.     NUCLEAR CITIES AND SCIENTIFIC CO-OPERATION PROGRAMMES.. 7

 

V.      ASSESSING THE THREATS.. 8

 

VI.     THE POLITICAL CONTEXT. 9

 

VII.    CONCLUSION.. 10

 

APPENDIX: RUSSIAN NUCLEAR FORCES.. 13

 

 

 

 

 

 

 

 

 

 

 

 

 

 


I.          INTRODUCTION

 

1.                  Reducing Russia’s nuclear stockpile and maintaining its security has been one of the most challenging undertakings of the post-Cold War period.  Until 1991, the Soviet Union had produced over 40,000 nuclear weapons and quantities of fissile material (highly enriched uranium and plutonium) that could be used to produce at least 40,000 more nuclear warheads. Over the past decade, arms control and co-operative security agreements between the United States and the countries of the former Soviet Union, have substantially reduced that enormous arsenal.  These initiatives have also succeeded in eliminating all nuclear weapons left in Newly Independent States (NIS) such as Belarus, Kazakhstan, and Ukraine. 

 

2.                  According to recent estimates, Russia ‑ which is dismantling about 2,000 warheads annually ‑ has about 10,000 active nuclear weapons and as many retired or non-deployed warheads awaiting dismantlement.  The quantities of fissile material have been estimated at up to 1,365 tons of highly enriched uranium (HEU) and 156 tons of plutonium.  Small quantities of fissile material also remain in Belarus, Kazakhstan, Ukraine, and Uzbekistan. 

 

3.                  Despite considerable efforts, mainly by the United States, to protect, secure and dispose of weapons and weapons-usable material, much remains to be done to address the problems of the former Soviet nuclear military complex.  The economic and financial situation of the Russian Federation increases risks.  The country can not afford to protect adequately some of its nuclear sites and laboratories, nor to regularly pay all employees and scientists of its huge complex.  Breakdowns in military command structures have included units that control weapons or fissile material.  Therefore the threat of diversion of nuclear weapons materials, by either insiders or outsiders, is a reality.  Although in the last ten years no nuclear weapons or quantity of fissile material have been successfully stolen or smuggled, many attempts to do it have been stopped by Russian and international police operations.

 

4.                  Serious security concerns stem also from the state of Russia’s nuclear submarines.  Risks of proliferation of either missile technology, or fresh and spent submarine fuel (containing HEU or plutonium) are extremely high, considering the poor security conditions.  Accidents, like the one involving the Kursk in August 2000, can occur again, with serious environmental consequences.

 

5.                  The Science and Technology Committee addressed the problem of protecting, securing, and dismantling the Soviet nuclear arsenal in several reports and meetings from 1992 to 1995.  Ten years after the dissolution of the Soviet Union, however, many dangers and challenges posed by that formidable nuclear arsenal remain unsolved.  This report will try to briefly describe the state and the security of Russian nuclear weapons.  Particular attention will be devoted to fissile material security in Russia and the NIS, including an analysis of the most serious efforts to steal or divert these materials.  We will also try to assess the most important Western co-operation and non‑proliferation initiatives dealing with these problems in Russia and NIS.  Finally, we will offer a few policy recommendations with a view to making these initiatives more effective.

 

6.                  We believe that both the United States and Russia, as the world’s major nuclear powers, have a responsibility to examine and address this major security threat, each within its own financial ability and in accordance with their mutual disarmament commitments.  For its international dimension, the threat should also be properly addressed in the context of multilateral non-proliferation initiatives.  Other NATO allies may also assume a bigger share of the costs of initiatives that will enhance their security as well.

 

 

II.         RUSSIAN NUCLEAR FORCES

 

7.                  Under the Strategic Arms Reduction Treaties (START) Russia and the United States have undertaken to make phased reductions in their strategic offensive nuclear forces.  START I was signed by the Soviet Union and the United States in 1991 and entered into force in 1994.  Russia assumed the Soviet Union’s obligations under the treaty.  The final limits of START I, to be met by each side before the end of 2001, are:

·                     1,600 strategic nuclear delivery vehicles, i.e. intercontinental ballistic missiles (ICBMs), submarine-launched ballistic missiles (SLBMs) and heavy bombers;

·                     6,000 accountable warheads on these systems, of which no more than 4,900 may be on ballistic missiles;

·                     ballistic throw weight (lifting power) limited to 3,600 tons.

 

8.                  START II, signed in January 1993 by Russia and the United States, was ratified three years later by the US Senate and only in April 2000 by the Russian Duma, which had long criticised it for its allegedly unfair impact on the country’s strategic posture and defence budget.  The basic terms of the treaty establish that, by 31 December 2007, each side is to deploy no more than 3,000 to 3,500 strategic nuclear warheads on ICBMs, SLBMs, and heavy bombers.  Also, by the end of 2003, the sides are to deactivate all strategic nuclear delivery vehicles to be eliminated under the treaty (a deactivation agreement was codified in 1997).  Additional limits were included in START II, such as no multiple warheads may be deployed on land based missiles and no more than 1,700 to 1,750 warheads may be deployed on SLBMs.

 

9.                  In 1997, Presidents Clinton and Yeltsin reached an agreement in Helsinki on the framework of a START III that would mandate further cuts in their strategic forces.  The new treaty would reduce strategic nuclear warheads to 2,000-2,500 for each of the parties.  In bilateral talks that started after the Duma’s START II ratification, Russia reportedly suggested bringing the START III warhead ceiling down to 1,500 or less.  Deeper reductions became increasingly attractive in the Russian parliament because of the growing realization that a rapid downsizing of their strategic nuclear forces was almost unavoidable given the chronic budget shortfalls.  In fact, Russian nuclear forces will probably decline well below the START II limits by 2010 because of the ICBMs, SLBMs and heavy bombers reaching the end of their service lives.

 

10.              In the following paragraphs we will try to quantify current Russian nuclear forces.  According to the Carnegie Endowment for International Peace (CEIP), there are several different ways to do this.  For instance, the Memoranda of Understanding (MOU) provided under START I define “deployed weapons” as the total number of strategic launch vehicles deployed, even if warheads have been removed or the launchers are simply waiting dismantlement.  Because of this, START I MOU figures for nuclear forces are normally higher than actual operational numbers.  These rules of account were changed in START II, which established "real" account.  Most analysts define “deployed weapons” as only those delivery vehicles that are operational and armed with nuclear warheads.  In this report (and in the table in Appendix A), we have adopted the latter definition.

 

A.        INTERCONTINENTAL BALLISTIC MISSILES (ICBMs)

 

11.              The Russian ICBM force is the stronghold of the Russian strategic forces.  ICBM forces are operated by the Strategic Rocket Forces (SRF), a separate armed service of the Russian military.  The Commander-in-Chief of the SRF is General Vladimir Yakovlev, who was appointed to the post by President Yeltsin in June 1997.

 

12.              Russia has currently deployed five different types of ICBMs with a range greater than 5,500 kilometres.  SS-18s (NATO designation: Satan) and SS-19s (Stiletto), first deployed in 1975, both carry multiple independently targetable re-entry vehicles (MIRV).  START I requires Russia to retain only 154 SS-18s from the original 204, all of which should be eliminated under START II.  Also, 105 single warhead SS-19s may be retained by Moscow under START II from the original 170.  In July 2000, Russia had 180 SS-18s and 150 SS-19s deployed.

 

13.              The SS-24s (Scalpel) and SS-25s (Sickle) constitute the latest generation of Russian ICBMs.  Of the 46 SS-24s, the last MIRVed ICBMs built by Moscow, 36 are rail-based and considered non-operational, the remaining 10 should be eliminated under START II.  To replace MIRVed ICBMs, Russia will rely on single-warhead SS-25s and on a new variant of it, the SS-27 or Topol-M, which is currently the only Russian strategic weapon still in production.  Topol-Ms were first put on “trial service” in 1997, then 10 of them were deployed in 1998, and 10 others in 1999.  In 1998, Gen. Yakovlev announced that Russia planned to make 20-30 SS-27s operational each year for the next three years, and 30‑40 for the three years after that.  For obvious economic reasons, these schedules are not being met.  According to the Bulletin of the Atomic Scientists, “a more realistic rate of production is 10-15 missiles a year, with perhaps some 60-80 fielded by the end of 2005”.

 

14.              The deactivation and retirement of Russian ICBMs and launchers consists of four stages: (1) removal from alert status by electrical and mechanical procedures; (2) removal of warheads from the missile; (3) withdrawal of the missile from the silo; and (4) destruction of the silo.

 

B.        nuclear-powered ballistic missile submarines (SSBNs)

 

15.              The future of Russia's SSBNs – once the largest fleet in the world – is very much in doubt.  Almost two-thirds of the submarines have been withdrawn from operational service and most of the current fleet is at or nearing retirement.  The effective lifetime of an average Russian nuclear-powered submarine is approximately twenty years. 

 

16.              Officially, 21 SSBNs of three different classes are operational: 11 Delta IIIs, seven Delta IVs, and three Typhoons.  They are equipped with three different types of SLBMs, all MIRVed.  According to Russian sources, however, two Typhoons are “unfit for combat” and the third was already withdrawn in 1998.  Nonetheless, in November 1999 the Russian navy fired two ballistic missiles from a Typhoon-class submarine in the Barents Sea successfully hitting targets 4,900 kilometres away on the Kamchatka Peninsula.  According to press reports, the navy currently maintains one SSBM on patrol in the Atlantic and one in the Pacific, with at least one more in each fleet on pier-side alert.  In 1996, Russia had laid the keel of the first new Borey-class SSBM, but construction was suspended in 1998. 

 

C.        BOMBERS

 

17.              Two types of Russian aircraft carry air-launched cruise missiles (ALCMs) armed with nuclear warheads.  Tu-95 Bear bombers have two variants, H6 and H16 (indicating the number of warheads they can respectively carry), and are deployed in two different locations.  Only six Tu-160 Blackjack bombers are currently deployed, but the Russian Ministry of Defence recently ordered six others from an aircraft company of the Tupolev group.  According to experts of the Natural Resources Defense Council, five of those have been completed and are being tested.

 

18.              24 Bear and 17 Blackjack bombers are still present in Ukraine, but are poorly maintained and not considered operational.  According to press sources, some of these aircraft may have already been transferred from Ukraine to Russia as payment for part of Kiev’s debt for Russian natural gas.

D.        NON-STRATEGIC FORCES

 

19.              The composition and number of Russian non-strategic (or tactical) nuclear forces are extremely difficult to assess.  They are not subject to any arms control agreement but only to non-binding unilateral, parallel declarations made by former Presidents George H. W. Bush and Mikhaïl Gorbachev in 1991 and reiterated by President Yeltsin in 1992.  Although these declarations appear to have been largely observed (and thousands of tactical nuclear weapons have been eliminated), they are not legally binding, and do not provide for data exchanges, nor for verification mechanisms.  Some information, however, has been exchanged at meetings of the NATO-Russia Permanent Joint Council (PJC).  Moreover, the 1997 Helsinki framework agreement for START III allowed for the exploration of measures related to tactical nuclear weapons.

 

20.              Non-strategic forces include surface-to-air missiles, and warheads from ships, submarines, and aircraft.  These are relatively small, short-range systems designed for use in battlefield or theatre‑level operations.  According to estimates, a rough total of 4,000 non-strategic nuclear weapons are still deployed by Moscow.

 

E.        DOWNSIZING THE SOVIET NUCLEAR ARSENAL

 

21.              The United States and Russia have undertaken the destruction of strategic nuclear weapons in the countries of the former Soviet Union under the Cooperative Threat Reduction (CTR) programme (also called “Nunn-Lugar” after the two senators who co-sponsored it) established by the Soviet Nuclear Threat Reduction Act of 1991.  Begun under the administrative auspices of the US Department of Defense (DOD), the original CTR programme’s main objectives included: (1) transporting nuclear warheads from the Soviet successor states to Russia; (2) destroying and dismantling weapons systems; (3) ensuring custodial safety of the former Soviet nuclear material; (4) assisting the destruction of chemical and biological weapons; and (5) supporting demilitarisation.  Since 1993, the programme has evolved to encompass a wider range of non‑proliferation and demilitarisation activities across the former Soviet Union, involving the DOD, the Department of Energy (DOE), and other governmental agencies. 

 

22.              During the first five years, the CTR programme was primarily concentrated on transferring strategic nuclear weapons from Belarus, Kazakhstan and Ukraine to Russia (task successfully completed in 1996, avoiding the emergence of three new nuclear weapon states), and putting in place an organisational structure.  In the period between 1996 and the present, the programme attained considerable success in assisting the dismantling of Russian nuclear weapons and improving significantly the security of such weapons and materials.  Overall, from 1992 to 1999 the United States has obligated $2.7 billion to CTR initiatives in the former Soviet Union, $1.7 billion of which went for efforts in Russia.  Through 1999, the US Congress authorised some $3 billion for CTR programmes, as part of the Clinton Administration’s Expanded Threat Reduction Initiative (ETRI), which proposes to spend $4.5 billion more up until 2005.

 

23.              According to Sen Lugar, as of December 1999, these programmes had helped deactivate 4,854 nuclear warheads, destroyed 373 long-range ballistic missiles, eliminated 354 silos, sealed 191 nuclear test tunnels, and dismantled 12 nuclear submarines.

 

24.              Under the Strategic Offensive Arms Elimination (SOAE) programme, where most CTR funds had been obligated, the DOD has provided training, logistics, facility construction and US-made equipment for eliminating ICBMs and associated launch facilities, SLBMs and their submarine launchers, and bombers, as well as for transporting and disposing of toxic liquid fuel for rocket engines.  The SOAE and the complementary nuclear Weapons Protection, Control, and Accounting (WPC&A) project are making good progress in meeting their goals.  There are, however, areas where the projects in both Russia and Ukraine are meeting delays and bureaucratic difficulties.

 

25.              According to most analysts, the level of physical protection at Russian nuclear weapon storage sites raises increasing concern.  The old Soviet security systems seem no longer adequate under the new conditions in Russia.  However, because of the level of secrecy imposed on all issues pertaining to nuclear weapons in Russia, it is extremely difficult to assess the actual security conditions.  All indications are that further upgrades and repairs are urgently needed.

 

26.              Among the most critical tasks of CTR are the activities related to the dismantling of nuclear submarines.  Until 1991, no pre-planning existed in the Soviet Union for dismantling them, once they were decommissioned.  Up to 179 Russian nuclear submarines, 36 of which are SSBNs, are in a status of accelerated decommissioning.  The dismantling process is complex and costly: $8-10 million per SSBN, and $5-7 million per nuclear-powered attack submarine (SSN).  CTR programmes are helping dismantle the 36 SSBNs, and there has been considerable progress in the general process.  But there is not enough money to dismantle the remaining SSNs, 87 of which still have nuclear fuel aboard.  The problem of consolidating fresh and spent submarine fuel, which contains HEU or plutonium, is particularly serious.

 

27.              Several other problems have emerged in the current dismantling: there is no plan for long-term storage of reactor compartments, not enough storage facilities for spent fuel or liquid waste, and limited budget for salaries, power and resources at Russian shipyards and the Navy.  In the Kola Peninsula, spent nuclear fuel has been temporarily placed in concrete tanks or aboard floating service vessels.  The European Union, Japan, and Norway are partially contributing to SSN dismantlement, but so far all these additional foreign aid efforts have lacked the necessary co-ordination.  On the Russian side, the Ministry of Atomic Energy (Minatom) has recently taken over from the Navy the responsibility for decommissioned submarines.

 

28.              The Russian Federation is also facing a number of complicated environmental problems in the management of radioactive waste accumulated as a result of past production of nuclear weapons, use of nuclear energy for peaceful purposes, and as a result of the reductions in nuclear arms.  In the past, radioactive wastes have been dumped into the Kara and Barents Seas, as well as into lakes in Siberia, creating serious environmental damage.  A Russian Federal Waste Management Programme for 1996-2005, approved by the government in 1996 to solve the country’s most urgent problems, could not be implemented for lack of funds.  An international initiative under the auspices of the International Atomic Energy Agency (IAEA), the Contact Expert Group (CEG), was set up in 1996 to work with Russia in solving the most urgent problems.  According to IAEA officials who met in Vienna in March 2000 with members of this Committee, the CEG is lacking funds to implement even the most urgent projects and is trying to call on the G-7 countries to find new donors.

 

 

III.       FISSILE MATERIAL

 

29.              There are no publicly available official figures of the amount of weapon-usable fissile material in the countries of the former Soviet Union.  For weapon-usable fissile material we intend plutonium (Pu) and highly enriched uranium (HEU), containing more than 20% of the isotope U-235 (natural uranium contains 0.7% U-235 and 99,3% U-238).  HEU can also be defined as weapon-grade uranium (WGU) when containing more than 90% U-235.  Production of HEU was halted by the Soviet Union in 1989, while Russia stopped producing Pu for nuclear weapons in 1992.  This material is scattered throughout military and civilian facilities, including nuclear weapon research, design, and production facilities; nuclear fuel production plants; and research, educational, and industrial facilities.  Most of these institutes and plants are located in Russian territory, but a few are in other NIS, including Belarus, Kazakhstan, Latvia, Ukraine, and Uzbekistan. 

 

30.              According to various sources, the total HEU stockpile in Russia can be estimated at between 735 and 1,365 tons.  The Russian military plutonium has been estimated at 106 to 156 tons.  According to a 1998 study conducted jointly by the CEIP and the Monterey Institute for International Studies (MIIS), weapons-usable material is known to be present in at least 33 sites in the Russian Federation.  Most of it, however, is located in the nuclear-weapon facilities of the 10 closed “nuclear cities” (see below) created by the Soviet Union and now managed by Minatom. 

 

31.              In Belarus, weapon-usable fissile material (approximately 40 kg of WGU, 330 kg of HEU, and 15 kg of Pu) is located at one facility near Minsk.  Some 100 kg of HEU are located at two facilities in Tashkent, Uzbekistan.  Three sites in Kazakhstan are storing HEU, but the amounts are unknown.  Among these, the breeder reactor in Aktau also stocks some weapon-grade Pu in spent nuclear fuel.  In Ukraine, HEU is stored on three locations, one of them, the Institute of Nuclear research in Kiev, keeps small amounts of Pu as well.  An International Atomic Energy Agency (IAEA) report includes Latvia on the list because of an unknown quantity of HEU still stored on a decommissioned research nuclear reactor site.

 

A.        EFFORTS TO SECURE FISSILE MATERIAL

 

32.              The most important US programme dealing with the security shortcomings identified at many of the facilities storing fissile material is the Material Protection, Control and Accounting (MPC&A) programme.  Managed by DOE since 1994, the programme concentrates on enhancing the security of material at current locations, transferring material to secure sites, and trying to consolidate it at facilities where improved security systems are in place. 

 

33.              According to the recent Report Card on the DOE’s Non-proliferation Programs with Russia, drafted by a bipartisan group of US legislators and experts, “security improvements have begun for approximately 80 percent of the current estimate of the Russian stockpile of nuclear weapons-usable material not contained in nuclear weapons”.  Comprehensive long-term security upgrades, however, “have covered only a modest fraction” of the same material.  Moreover, disputes between US and Russian officials over access to sites with large quantities of material undermine the overall co‑operation programme.  In general, MPC&A projects have also been quite successful in upgrading the security of fissile material in Belarus and Uzbekistan.  Concerns remain about one facility in Kazakhstan and one in Ukraine.

 

34.              An important CTR-funded project is the construction of a storage facility at the Mayak Production Association in Russia for the secure and environmentally safe consolidation of fissile material.  The facility, meant to alleviate the country’s shortage of secure storages for nuclear‑weapons material, could also be used to store spent reactor fuel from nuclear submarines.

 

35.              Another DOE programme is the 1994 HEU Agreement which authorised the United States to purchase, over 20 years, 500 tons of HEU from dismantled Soviet nuclear weapons and convert them to low enriched uranium (LEU) to be used as civilian reactor fuel.  The deal was originally valued at $12 million, but a subsequent collapse of the price of uranium led to a prolonged re-negotiation of it.  In 1999, DOE and Minatom signed a new accord reviving the HEU agreement.

 

36.              A more recent US programme aims at reducing weapon-usable Pu in step with the US Pu disposition programme.  Signed in 2000, the agreement establishes US and Russian commitment to dispose of 34 tons of excess military Pu.  Approximately $2 billion will be necessary to implement the agreement and convert excess Pu in order to produce mixed oxide fuel (MOX) to be used in nuclear power reactors.  The United States plans to immobilise through vitrification at least 9 tons of that Pu and is now also seeking international financing.  The European Union, which in the context of its Common Foreign and Security Policy (CFSP) has launched a Joint Action for Non-proliferation and Disarmament, will contribute to the programme. 

 

37.              Related to the security of fissile material is the problem of combating illicit trafficking across Russia’s borders and those of other NIS countries.  The Second Line of Defense (SLD) programme, started in 1998, encompasses a series of initiatives led by a number of US governmental agencies and aimed at helping NIS countries cope with these problems.  These initiatives focus mainly on export control assistance, improving border controls and strengthening overall capacity to detect and deter illicit trafficking.  Although it is difficult to assess the effectiveness of these US assistance programmes, there is general agreement that overall risks of illicit trafficking have been mitigated.  But some challenges remain and proliferation risks are not totally eliminated.

 

 

IV.       NUCLEAR CITIES AND SCIENTIFIC CO-OPERATION PROGRAMMES

 

38.              In Russia ten “nuclear cities”, home to 750,000 people, today remain closed off from the outside world, protected by security forces and barbed wire.  They were built by the Soviet Union for the sole purpose of designing and producing nuclear weapons and fissile material.  Minatom still employs more than 120,000 people in these cities’ nuclear facilities, but plans to reduce the staff by half over the next six or seven years.  Several problems derive from the necessary downsizing of this huge complex, which Russia can not afford anymore:

·                     the physical security of nuclear weapons and fissile material still stored on-site; 

·                     the “brain drain” problem, or the risk that the number of already underpaid and soon‑to-be unemployed nuclear weapon scientists, engineers, and technicians turn to illicit activities or to work for a state of concern;

·                     the risks deriving from operating the last three unsafe plutonium-production reactors in the nuclear cities of Tomsk-7 (now Seversk) and Kasnoyarsk-26 (now Zheleznogorsk);

·                     the re-conversion of nuclear weapon facilities to civilian purposes.

 

39.              Several Western initiatives have tried to help Russia cope with some of these urgent problems.  The Initiatives for Proliferation Prevention (IPP), in place since 1994, seek to prevent brain drain by creating non-weapons-related work for Russian scientists and technicians.  Under this project, DOE’s national laboratories and their counterparts in Russia develop projects with commercial potential.  The complementary Nuclear Cities Initiative (NCI), established by DOE in 1998 in partnership with Minatom, Western companies and private foundations, offers opportunities for short-term contract employment to scientists that have lost their jobs.  NCI also assists Russian nuclear cities in creating the municipal and telecommunications infrastructures necessary to attract and establish long-term business opportunities. 

 

40.              An additional initiative is the International Science and Technology Centre (ISTC), funded by the US Department of State, the European Union, Canada, and Japan.  Its purpose is to provide short-term grants and contracts engaging former Soviet weapon scientists and experts in non-military research projects.  Since 1994, ISTC, with its two Centres in Moscow and Kiev, has granted some 120 million euros to over 1,000 projects involving about 30,000 scientists.

 

41.              Since 1995, NATO’s Scientific and Environmental Affairs Division is also contributing to scientific co-operation in weapons-related areas through its Security‑Related Civil Science and Technology (SST) programme.  The programme has so far engaged over 2,700 scientists.  In four different support mechanisms (expert visits, collaborative linkage grants, advanced study institutes, and advanced workshops).

 

 

V.        ASSESSING THE THREATS

 

42.              Many of the problems related to dismantling and securing former-Soviet Union nuclear weapons and fissile material have already been highlighted in the previous sections.  Major proliferation risks derive from the still insufficient security of this vast nuclear stockpile.  Threats could come from insiders, such as underpaid and demoralised military or security staff, or outsiders, such as terrorist groups or criminal organisations. 

 

43.              While most analysts generally rule out the possibility of theft and transport outside of Russia of a nuclear weapon, attacks on the weapons themselves or their storage sites seem more plausible.  Several incidents of Russian soldiers attacking their comrades have been reported throughout the country: similar incidents could occur at nuclear bases or storage sites.  The impoverished condition of the Russian armed forces, as well as their decaying ethics cause concern.  According to media reports, there is a general increase of drug-related crimes in the SRF, while organised crime has infiltrated the Northern Fleet and minor corruption is almost endemic in the military and the public administration.

 

44.              The possible smuggling of nuclear materials across NIS borders is probably the most pressing proliferation threat coming from the former Soviet Union territory.  In the early 1990s, when security at most facilities had not yet been improved by CTR programmes, several attempts to smuggle quantities of fissile material were stopped by Russian and international police operations.  More recently, in 1998, the Russian Federal Security Service stopped an attempt by a group of employees from one of the Minatom nuclear facilities in Chelyabinsk-70 to steal 18.5 kilograms of fissile material. 

 

45.              Social conditions in nuclear cities can pose particularly serious problems.  Early in 1998, the mayor of Krasnoyarsk-45 wrote to the Republic’s governor, Alexander Lebed, warning that a social explosion in the city was unavoidable unless some action was taken.  Gen Lebed had earlier proposed that Moscow let the regions take responsibility for nuclear forces and facilities on their territories, but the Russian government has never agreed to the proposal.  Later the same year, 3,000 workers went on strike at Chelyabinsk-70, protesting “constant under-nourishment, insufficient medical service, and inability to buy clothing and footwear for children or to pay for their education”.

 

46.              The poor security conditions of the Russian naval nuclear fuel are, in the words of one Minatom official, an “accident-prone situation”.  Some 70 tons of fuel containing HEU reside in operational nuclear submarines, icebreakers, and cruisers, as well as in the number of decommissioned submarines that still contain operating reactors.  According to an expert at the Center for Nonproliferation Studies in Monterey, “possible theft, diversion or sale of fissile material is the greatest proliferation and security risk arising from current conditions in the Russian naval nuclear fuel cycle”.

 

47.              Russian submarines are armed with many sophisticated weapons requiring careful handling.  According to the latest news, the Kursk tragedy was caused by a torpedo that malfunctioned or was mishandled by the crew.  The Kursk was an Oscar II class nuclear submarine carrying cruise missiles, not an SSN or SSBN armed with even more sophisticated weapons.  Equipment at Russian navy facilities is often aging and unsafe and can cause accidents.  In June 2000, at a naval base near Vladivostock, a crane scheduled for retirement in 1995 dropped an unarmed SLBM.  The fall caused the release of the missile’s oxidizer, killing 12 sailors.

 

48.              The risk of theft or diversion of sensitive weapons components or technologies also deserves attention because of the advantage it would give to potential proliferators.  An example of this is the quite well-known case of the missile guidance gyroscopes and accelerometers from Russian SLBMs discovered in Iraq in 1995 by UNSCOM.  Removed from dismantled missiles, the components were probably illegally sold to Iraq by the employees of a Russian dismantlement facility.  In December 1998, a member of the staff at Russia’s nuclear weapons laboratory in Sarov (formerly Arzamas-16) was arrested while attempting to sell nuclear weapons designs to Iraqi and Afghani agents.

 

49.              These are only a few examples of dozen of actual incidents.  It is clear that Russia, ten years after the end of the Soviet Union, still has a weakened ability to protect and secure its legacy. 

 

 

VI.       THE POLITICAL CONTEXT

 

50.              The co-operative security activities that were put in place between Washington and Moscow to tackle the proliferation problems in Russia and the NIS represent a unique and sensitive agenda.  Initiated during George H.W. Bush’s presidency, the development of most of these initiatives was the product of the Clinton-Yeltsin years.  The friendship between the two men certainly gave a political stimulation to activities that the Russian bureaucracy might have preferred to limit to non-sensitive areas.  Over the years, some in the United States questioned the help the US government was giving Russia in such a difficult undertaking and accused Moscow of not making a sufficient commitment to threat reduction.  Some answers to this have been offered by the cited Report Card.  “Currently”, it observed, “Russians cannot accomplish these projects without US assistance”.  Also, “quite simply, an unstable Russia – economically, politically or security-wise – is not in the national security interest of the United States”.

 

51.              However, the political circumstances that supported the initiation and development of the co-operative security activities have certainly changed, probably signalling the beginning of a new era of US-Russian relations.  While political problems have periodically threatened support for non-proliferation and disarmament efforts on both sides, no major programmes were cancelled during the NATO bombing in the Former Republic of Yugoslavia (FRY) in 1999.  The Russian military campaign in Chechnya brought only a few US legislators to call for a reduction of co-operation funds.

 

52.              In the last few months, several developments have pointed to a deterioration of the relationship between Russia and the United States.  Russia is genuinely concerned about US plans to build a ballistic missile defence system, or National Missile Defense (NMD), that could lead to a decision by Washington to abrogate the ABM Treaty.  Russian officials, including President Vladimir Putin, have repeatedly declared that a NMD deployment would lead Moscow to consider increasing the number of warheads on its ICBMs, or even withdrawing from START II.  In February 2001, Russia also sent a clear message by launching an array of missile tests from sea, air, and land.  President Vladimir Putin has engaged in a diplomatic offensive, aimed at European NATO allies, against the US missile defence plans.  Moreover, Russian officials have several times expressed their hostility to a possible enlargement of NATO in 2002, especially if it will include former Soviet territories such as the Baltic States.

 

53.              Some quarters in Russia have criticised the co-operative security agenda, pointing at the penetration of US specialists at sensitive facilities and questioning the financial benefits of this co-operation.  President Putin, however, has made no political statement on it and has expressed support for the HEU purchase agreement.  In fact, Russians derive significant benefits from these co-operative initiatives: governmental agencies and research centres receive vital financing, and a number of technicians, engineers and scientists are able to continue their work.

 

54.              In the United States, although co-operative security programmes have been consistently supported by a bipartisan majority during the last 10 years, a number of studies and reports have criticised them.  In recent times, critics have increased in number.  US government officials have regularly expressed their frustration at making these programmes work in Russia amidst an array of bureaucratic and technical difficulties.  Others have accused the programmes of spending too much in Russia and not enough on US contractors; of spending too much on US experts' trips and on personnel, and not enough on improving conditions at nuclear facilities in Russia; and of indirectly supporting Russian rearmament and weapons modernisation.

 

55.              Stronger political concerns are sparked by Russia’s continued co-operation with Iran in the nuclear energy field.  The US government is convinced that the help Russia is giving Iran in completing a nuclear power plant in Bushehr is in fact supporting Tehran’s nuclear weapons programme.  Russia denies the accusation, but a proposed shipment to Iran of a laser isotope separator (useful in uranium enrichment) was recently stopped by Washington.  Moreover, many in the United States are disturbed by Russia’s continuing sale of conventional weapons to Iran, India, and other countries.

 

56.              Additional concerns with regard to Russia’s policies may have a more direct impact on co-operation with the United States in the area of non-proliferation.  President Putin has revived several Russian security agencies, which have put pressure on the ministries dealing with US officials in the context of security co-operation activities.  Although Mr Putin has spoken out in favour of downsizing the Russian nuclear arsenal, he also stressed the need for Moscow to retain a strong nuclear capability.  This was reinforced by the approval, in April 2000, of a new military doctrine which allows the use of nuclear weapons in response to any other weapons of mass destruction, and against any country or coalition if the situation is critical to Russian national security, even if the adversary does not possess nuclear weapons.

 

57.              It is now up to the new US administration to manage this complex and delicate agenda.  During the presidential campaign, George W. Bush made several positive statements about continuing to co-operate with Russia in the area of nuclear security.  He also affirmed that, as president, he would ask the Congress to increase US assistance to Russia to allow for the rapid dismantling of its nuclear arsenal.

 

58.              European NATO allies and Western countries in general can do much to support US policies and offer a more substantial financial contribution to some of the activities in the security co-operation agenda.  This will also send a strong political signal to Moscow, which tends to see these activities only in the context of its bilateral strategic relations with the United States.  In this sense, the Non-proliferation and Disarmament Co-operation Initiative (NDCI) an information exchange platform recently launched by the European Union to support the US 1999 ETRI programme, is a welcome step in the right direction.

 

 

VII.      CONCLUSION

 

59.              The Rapporteur shares the general assessment of the Task Force that drafted the 2001 Report Card:  “current non-proliferation programs in the Department of Energy, the Department of Defense, and related agencies have achieved impressive results thus far, but their limited mandate and funding fall short of what is required to address adequately the threat”.  In line with what the Task Force also indicated, we can affirm that, to face this urgent security challenge, an “enhanced response” should be devised by the new US President, in consultation with Congress and in co-operation with Russia and all the allied countries equally concerned by the threat.  Based on these premises, the Rapporteur would like to offer a few policy recommendations as to how to shape this “enhanced response”.

 

60.              A necessary precondition for a more effective programme is an agreement between the US and Russian governments on the degree of transparency and access needed to assure that all co‑operative activities have measurable impacts on programme objectives.  Also, on both sides a more centralised command and co‑ordination of the financial and human resources is essential to conduct the programme successfully.

 

61.              In the area of strategic weapons dismantling and weapons protection, control, and accounting, projects that have been quite successful, specific improvements may include:

·                     Assisting the Russians as they identify, tag, and seal all their warheads as part of a reliable accounting system;

·                     Rapidly agreeing on WPC&A upgrades to the 123 nuclear weapon storage sites selected by the Russian government, eventually establishing priorities;

·                     Commissioning an expert evaluation of missile solid-fuel disposition options, given the significant technological uncertainties;

·                     Defusing proliferation risks from the sale of potentially useful components from dismantled missiles by accounting for or destroying them in a verifiable manner;

·                     Strengthening the existing Russian programmes to improve personnel reliability and limit the insider threat.

 

62.              More profound improvements and additional initiatives are needed in the area of nuclear submarine dismantlement and naval fuel consolidation.  In this area, the United States should encourage financial and technical contributions from allies.  The most urgent actions should include:

·                     Accelerating the dismantling of SSNs;

·                     Increasing spent fuel storage sites and improving their physical protection measures;

·                     Encouraging Minatom and the Russian Navy to develop a complete “cradle-to-grave” submarine dismantling cycle, including plans for long-term storage of separated reactor compartments;

·                     Launching an international (United States and allies) programme to encourage defence conversion at Russian shipyards by providing incentives for Western firms operating in Russia;

·                     Prohibiting any Russian sale of nuclear submarines and related technologies to foreign countries.

 

63.              In the area of fissile material, successes and shortcomings of the ongoing programmes suggest a series of recommendations:

·                     Consolidate fissile material at fewer sites and considering consolidating material from other NIS to Russia;

·                     Help Russia and NIS to provide their nuclear personnel with adequate organisation, motivation, training, equipment, and resources to perform the mission of safeguarding nuclear material;

·                     Demilitarise all remaining excess Russian HEU through a programme of US investment in expanded capacity for down-blending in Russia;

·                     Accelerate the purchase of the approximately 400 tons of HEU remaining to be down-blended under the HEU Agreement;

·                     Halt plutonium production in the three still-operating reactors in Siberia by convincing Russia to implement a 1994 shut-down agreement;

·                     Accelerate the construction of the nuclear storage facility at Mayak, in order to store up to 50 tons of excess plutonium, and eventually build additional wings to store more material;

·                     Eliminate up to 100 tons of plutonium by blending fuel as MOX or immobilising it through vitrification.

 

64.              Other more general recommendations to reduce the Russian nuclear complex and implement existing programmes could include:

·                     Facilitate Russian efforts to shut down weapons assembly, component fabrication, and materials production facilities;

·                     Help Russia to ensure nuclear weapon scientists and workers are provided financial incentives for early retirement;

·                     Increase international lending practices to new businesses in the nuclear cities, finding ways to eventually extend credit at competitive rates to businesses employing former scientists or technicians;

·                     Enhance the relationship between the municipalities and the weapon facilities of the nuclear cities, in order to increase efficiency in the expenditure of resources.

 

65.              Finally, considerable advantages might derive from the adoption of international non-proliferation initiatives, such as an agreement on a Fissile Material Cut-off Treaty (FMCT), a ban on the production of material for nuclear weapons, and the introduction of the strengthened international safeguards system supported by the 2000 Nuclear Non-Proliferation Treaty (NPT) Review Conference.  Unfortunately, negotiations on the FMCT, although on the agenda of the Conference on Disarmament in Geneva, are kept on hold by the obstruction of Russia and China.  These two countries have insisted that FMCT negotiations can only start in parallel with negotiations on nuclear disarmament and prevention of an arms race in outer space.  The United States opposes this linkage.

 


APPENDIX

 

RUSSIAN NUCLEAR FORCES

 

Type/Name

Launcher/
SSBNs

Year Deployed

Warheads
x yield (kt)

Total warheads

ICBMs

SS-18 Satan (RS-20)

180

1979

10 x 550/750

1,800

SS-19 Stiletto (RS-18)

150

1979

6 x 550

900

SS-24 Scalpel (RS-22)

36/10

1987

10 x 550

460

SS-25 Sickle (RS-12M)

360

1985

1 x 550

360

SS-27 (Topol-M)

20

1997

1 x 550

20

Total

756

2,072 MT

3,540

SLBMs

SS-N-18 Stingray (RSM-50)

176/11

1978

3 x 500

528

SS-N-20 Sturgeon (RSM-52)

60/3

1983

10 x 200

600

SS-N-23 Skiff (RSM-54)

112/7

1986

4 x 100

448

Total

348

429 MT

1,576

Sub-Total, Ballistic Missiles

1,094

2,501 MT

5,216

BOMBERS

Tu-95/Bear-H6

29

1984

6 AS-15A ALCMs x 250kT

174

Tu-95/Bear-H16

34

1984

16 AS-15A ALCMs or bombs x 250kT

544

Tu-160/Blackjack

6

1987

AS-16 SRAMSs or AS-15B or bombs x 250kT

72

Total

69

241 MT

790

Total, Strategic Nuclear Forces

1163 launchers

2742 MT

6016 warheads

 

 

Type/Name

Launcher/
SSBNs

Year Deployed

Warheads
x yield (kt)

Total warheads

NON-STRATEGIC WEAPONS

Strategic Defense

SAM

SA-5B Gammon, SA-10 Grumble

1200

1200

Land-based Non-strategic

Bombers and Fighters

Backfire(120), Fencer (280)

400

1600

Naval Non-strategic

Attack aircraft

Backfire (70), Fencer (70)

140

400

SLCMs

SS-N-9, SS-N-12, SS-N-19, SS-N-21, SS-N-22

 

500

ASW Weapons

SS-N-15, SS-N-16, torpedoes

 

300

Total

~4,000

OTHER WEAPONS

Reserve/Awaiting Dismantlement

~12,000

GRAND TOTAL

~2,700 MT (strategic weapons)

~21,980

NOTE

Principal sources for this table include: Carnegie Endowment for International Peace and Monterey Institute of International Studies, Nuclear Successor States of the Soviet Union (Washington, D.C., Carnegie Endowment, 1998);  William Arkin, Robert Norris, and Joshua Handler, Taking Stock: Worldwide Nuclear Deployments, 1998 (Washington, D.C.: NRDC Nuclear Program, 1998); Robert Norris and William Arkin, "Russian Nuclear Forces, 2000," Bulletin of the Atomic Scientists, July/August 2000, pp 70-1; START I MOU, January 2000.

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