Acquisition Path Analysis as a Collaborative Activity A.El Gebaly a, R.Grundule a, K.Gushchyn a, R.Higgy a, W.Mandl a, A.Nakao a, I.

Similar documents
Acquisition Path Analysis as a Collaborative Activity

Safeguards and Nuclear Security: Synergies, bridges and differences. Anita Nilsson, Jean-Maurice Crete, Miroslav Gregoric

The Safeguards System of the International Atomic Energy Agency

Lithtuania s International Obligations in the Nuclear Non-Proliferation Field

Implementation of the NPT Safeguards Agreement in the Islamic Republic of Iran

Verification and Monitoring in the Islamic Republic of Iran in light of United Nations Security Council Resolution 2231 (2015)

Implementation of the NPT Safeguards Agreement of the Socialist People's Libyan Arab Jamahiriya

Nuclear material security in Thailand

DOE B, SAFEGUARDS AGREEMENT WITH THE INTERNATIONAL ATOMIC SYMBOL, AND OTHER CHANGES HAVE BEEN BY THE REVISIONS,

Implementation of the NPT Safeguards Agreement and relevant provisions of Security Council resolutions in the Islamic Republic of Iran

Iran s Nuclear Program: Tehran s Compliance with International Obligations

The Iran Nuclear Deal: Where we are and our options going forward

Summary of Country Reports Current Status of 11 FNCA Member States*

Application of Safeguards in the Democratic People's Republic of Korea

Testimony before the House Committee on International Relations Hearing on the US-India Global Partnership and its Impact on Non- Proliferation

International Conference on Management of Spent Fuel from Nuclear Power Reactors

Verifying Nuclear Disarmament

Global Security Evolution

Iran s Nuclear Program: Tehran s Compliance with International Obligations

UNITED STATES AND INDIA NUCLEAR COOPERATION

THE REVISED GUIDING PRINCIPLES AND GENERAL OPERATING RULES TO GOVERN THE PROVISION OF TECHNICAL ASSISTANCE BY THE AGENCY

Defense-in-Depth in Understanding and Countering Nuclear and Radiological Terrorism

Institute for Science and International Security

Appendix D - The Material Balance of Iraq s Weapons of Mass Destruction

Symposium on International Safeguards: Building Future Safeguards Capabilities

TRAINING MEETING/WORKSHOP ON BURNUP CREDIT CRITICALITY CALCULATION METHODS AND APPLICATIONS

FY 2008 NNSA Budget Request Overview

Security Programs for Category I or II Nuclear Material or Certain Nuclear Facilities

A technically-informed roadmap for North Korea s denuclearization

Strengthening the Effectiveness and Improving the Efficiency of Agency Safeguards

Overview of Safeguards, Security, and Treaty Verification

Iran and the NPT SUMMARY

THE DENUCLEARIZATION OF AFRICA (GC(XXXVI)/RES/577) Report by the Director General

Subj: ACQUISITION, USE AND DISPOSAL OF CERTAIN NUCLEAR REGULATORY COMMISSION REGULATED RADIOACTIVE DEVICES AND SOURCE MATERIAL

Nuclear Law and Malaysian Legal Framework on Nuclear Security AISHAH BIDIN FACULTY OF LAW UKM

Report by the Director General

Iran Nuclear Agreement

DIRECTIVES. COUNCIL DIRECTIVE 2009/71/EURATOM of 25 June 2009 establishing a Community framework for the nuclear safety of nuclear installations

North Korea has invited Hecker to visit its nuclear facilities on several other occasions to provide confirmation of certain nuclear activities.

NPT/CONF.2015/PC.I/WP.12*

Iran Nuclear Agreement

The James E. Turner Back-to-School Lecture Series in Nuclear Science, and Health Physics

1. INSPECTIONS AND VERIFICATION Inspectors must be permitted unimpeded access to suspect sites.

Decommissioning Licensing Process of Nuclear Installations in Spain Cristina CORREA SÁINZ.

March 03, 1975 US National Security Council Memorandum, ROK Weapons Plans

LEGISLATIVE ACTS AND OTHER INSTRUMENTS COUNCIL DIRECTIVE establishing a Community framework for the nuclear safety of nuclear installations

Statement by Ambassador Linton F. Brooks Administrator of the National Nuclear Security Administration U. S. Department of Energy Before the

Iran Nuclear Agreement

COMPLIANCE WITH THIS PUBLICATION IS MANDATORY

Physics 280: Session 29

Differences Between House and Senate FY 2019 NDAA on Major Nuclear Provisions

Nuclear Fuel Reprocessing: U.S. Policy Development

NRC REGULATORY ISSUE SUMMARY REQUIREMENTS FOR EXEMPT DISTRIBUTION LICENSEE ANNUAL TRANSFER REPORTS

UNSCEAR S GLOBAL SURVEY OF RADIATION EXPOSURE

Functions important to nuclear power plant safety, and training and qualification of personnel

Rethinking the Nuclear Terrorism Threat from Iran and North Korea

Organized in cooperation with the Nuclear Energy Agency of the Organisation for Economic Co-operation and Development (OECD/NEA)

COMPLIANCE WITH THIS PUBLICATION IS MANDATORY

HOMELAND SECURITY PRESIDENTIAL DIRECTIVE-4. Subject: National Strategy to Combat Weapons of Mass Destruction

CHINA AND A FISSILE MATERIAL CUTOFF TREATY

APPENDIX 1. Fissile Material Cutoff Treaty A chronology

GAO. NUCLEAR NONPROLIFERATION Further Actions Needed by U.S. Agencies to Secure Vulnerable Nuclear and Radiological Materials

STRENGTHENING REGULATORY REQUERMENTS FOR PHYSICAL PROTECTION IN INDONESIA BASED ON INFCIRC 225 REV.5. Presented by : Suharyanta BAPETEN

Iran Nuclear Agreement

Enabling Collaborative Analysis: State Evaluation Groups, the Electronic State File, and Collaborative Analysis Tools

Annual Report to Congress. on the Safety and Security of Russian. Nuclear Facilities and Military Forces

I. Acquisition by Country

Physical Protection of Nuclear Installations After 11 September 2001

Introduction to Nuclear Security and Threats of Nuclear and Radiological Terrorism. Charles D. Ferguson, Ph.D.

General Assembly First Committee. Topic A: Nuclear Non-Proliferation in the Middle East

NMMSS, Nuclear Archaeology, and the Verification of Nuclear Disarmament

May 8, 2018 NATIONAL SECURITY PRESIDENTIAL MEMORANDUM/NSPM-11

National Report related to the Convention of Nuclear Safety

NRC Public Meeting October 27, 2014

Nuclear Security in China

Nuclear Terrorism: Threat Briefing How Serious is the Threat?

CANADIAN NUCLEAR SAFETY COMMISSION S RISK BASED APPROACH TO REGULATING FUEL FACILITIES IN CANADA

Protecting Our Nation. A Report of the U.S. Nuclear Regulatory Commission. Office of Nuclear Security and Incident Response

NIS technical briefing note

Preparedness and Response for a Nuclear or Radiological Emergency

Safety, Security and Safeguards Culture. Todd Cervini PD Committee Member NAYGN

ABSTRACT INTRODUCTION

Life Extension of Nuclear Power Plants

REGULATORY DOCUMENTS. The main classes of regulatory documents developed by the CNSC are:

Preparation for the implementation of the Convention on Physical Protection of Nuclear Material and its Amendment in Senegal

Naval Nuclear Propulsion: Assessing Benefits and Risks

1

COMMUNICATION OF 14 MARCH 2000 RECEIVED FROM THE PERMANENT MISSION OF THE UNITED STATES OF AMERICA TO THE INTERNATIONAL ATOMIC ENERGY AGENCY

Summary of Country Reports Current Status of 12 FNCA Member States

U.S. Nuclear Export Controls and Proposed Changes to the Part 810 Regulations

During the Cold War, both the United States and the Soviet

National report of the Russian Federation. for the 2015 Review Conference of the Parties to the Treaty

Africa & nuclear weapons. An introduction to the issue of nuclear weapons in Africa

Question of non-proliferation of nuclear weapons and of weapons of mass destruction MUNISH 11

III. The provider of support is the Technology Agency of the Czech Republic (hereafter just TA CR ) seated in Prague 6, Evropska 2589/33b.

Defense Nuclear Nonproliferation

Note verbale dated 5 November 2004 from the Permanent Mission of Ghana to the United Nations addressed to the Chairman of the Committee

IAEA SAFETY STANDARDS SERIES. GENERAL SAFETY REQUIREMENTS No. GSR Part 1 (Rev.1)

Radiological Terrorism: Introduction

North Korean Nuclear and Missile Programs and Capabilities

Transcription:

Acquisition Path Analysis as a Collaborative Activity A.El Gebaly a, R.Grundule a, K.Gushchyn a, R.Higgy a, W.Mandl a, A.Nakao a, I.Tsvetkov a a Department of Safeguards, International Atomic Energy Agency, Vienna, Austria Abstract. In the International Atomic Energy Agency (IAEA), acquisition path analysis (APA) is indispensable to safeguards implementation. It is an integral part of both the State evaluation process and the development of State-level safeguards approaches, all performed through ongoing collaborative analysis of all available safeguards relevant information by State evaluation groups (SEG) with participation of other contributors, as required. In an effort to perform comprehensive State evaluation, to develop and revise State-level safeguards approaches (SLA), and to prepare annual implementation plans, the SEG in its collaborative analysis follows accepted safeguards methodology and guidance. In particular, an internal IAEA guide to perform APA for a State with a comprehensive safeguards agreement (CSA) is used. This document identifies four major steps of the APA process applied to a selected State with a CSA in force. The paper reports on SEG members and other contributors experience with the APA when following the process, including the identification of plausible acquisition pathways, estimation of time frames for all identified steps and determination of the time needed to accomplish each acquisition path. The difficulties that the SEG encountered during the process of performing the APA are also addressed. Feedback in the form of practical suggestions for improving the clarity of the acquisition path step assessment forms and a proposal for software support are also included. 1. Introduction The APA is a structured method used to analyse the plausible paths by which, from a technical point of view, nuclear material suitable for use in a nuclear weapon or other nuclear explosive device could be acquired. In the IAEA, the APA is indispensable to safeguards implementation. It is an integral part of both the State evaluation process and development of the SLA, all performed through ongoing collaborative analysis of all available safeguards relevant information to the SEG with participation of other contributors, as required. In an effort to perform comprehensive State evaluation, to perform the APA, to develop and revise the SLA, and to prepare annual implementation plans, the SEG in its collaborative analysis follows accepted safeguards methodology and guidance. 2. APA Working Methodology For a State with a reasonably large nuclear fuel cycle (NFC) with a CSA and an additional protocol (AP) [1] in force and for which the IAEA had drawn the broader conclusion, 11 SEG meetings were held in total over a two-month period to complete the APA. The analysis process and discussions were conducted in accordance with the four major steps of the APA process identified in the guide: 1. Consolidating information about the State s past, present and planned NFC-related capabilities and infrastructure; 2. Identifying and visually presenting technically plausible acquisition paths for the State; 3. Assessing acquisition path steps (State s technical capabilities and possible actions) along the identified acquisition paths; and 1

4. Assessing the time needed to accomplish each identified technically plausible acquisition paths for the State. At each SEG meeting, a Power Point presentation would normally be prepared to visualize the process, to stimulate the discussion, and to document the findings. The identified actions would then be monitored and their completions recorded. The SEG meetings were often attended by Section management and by subject matter experts in Department of Safeguards. 2.1. APA First Step: Consolidating information about the State s past, present and planned nuclear fuel cycle-related capabilities and infrastructure The consolidated information about the State includes the following: Declared nuclear facilities & NFC processes; Locations and information of Government funded NFC R&D not involving Nuclear Material (NM); Locations and information of uranium mines and concentration plants; Information regarding source material; Declared Annex I and II capabilities under the AP; Other NFC related locations; Declared NM inventory; Open source analysis of the State s NFC related R&D and industrial capabilities. 2.2. APA Second Step: Identifying and visually presenting technically plausible acquisition paths for the State With the initial assumption that the State has no declared separated Plutonium (Pu) or high enriched uranium (HEU) materials in its inventory, the SEG identified 8 possible acquisition path groups (PAPG) which the State could pursue to acquire weapons-usable nuclear material if a decision was taken to do so. During this step, the SEG preferred to use the term Possible acquisition path since whether the paths are Technically plausible or not, will be assessed at a later stage. The 8 identified PAPGs are as follows: PAPG No.1: Pu path starting from Spent Fuel (SF); PAPG No.2: Pu path starting from Natural Uranium ore concentrate (NU UOC); PAPG No.3: Pu path starting from Depleted Uranium (DU); PAPG No.4: HEU path starting from low enriched uranium (LEU) fresh fuel (FF) through UF 6 Enrichment; PAPG No.5: HEU path starting from NU UOC through UF 6 Enrichment; PAPG No.6: HEU path starting from LEU FF through uranium (U) metal Enrichment; PAPG No.7: HEU path starting from NU UOC through U metal Enrichment; PAPG No.8: 233 U path starting from Thorium (Th) ore concentrate. Of the 8 PAPG, the first 2 are illustrated below. 2

PAPG No.1: Pu path starting from SF; In the path group, each path is composed of 3 steps: acquiring SF, reprocessing and conversion II: Start acquiring SF by diversion from declared reactors (D3) or from declared dry storages (D4) or by unreported import to the State (I1) and Reprocessing the SF either by misusing declared R&D facility (M5) or at undeclared reprocessing facility (F5) to produce Pu compound and then Conversion the compound (com.) into metal either by misusing declared R&D facility (M4.1) or at an undeclared conversion II facility (F6.1). The group contains 12 acquisition paths in total. PAPG No.2: Pu path starting from NU UOC; In this path group, each path is composed of 6 steps: acquiring UOC, conversion I, target manufacture, irradiation, reprocessing and conversion II: Start acquiring UOC from indigenous production in known domestic resources (P1) or from unknown domestic resources (P2) or by unreported import to the State (I1) and Conversion I from UOC to metal either by misusing declared R&D facility (M0) or at undeclared conversion I facility (F1) and Manufacture of uranium target either by misusing declared R&D facility/lof (M1) or at undeclared facility (F2) and Irradiation of the target either by misusing declared nuclear reactors (M3) or at undeclared nuclear reactor (F4.1) or at accelerator or other source of irradiation (F4.2) and Reprocessing of irradiated target by misusing declared R&D facility (M5) or at undeclared reprocessing facility (F5) and then Conversion II either at declared R&D facility (M4.1) or at undeclared conversion II facility (F6.1). The group contains 144 paths in total. 3

Along the identified 8 PAPGs, 25 acquisition path steps are identified as shown in Table I below. The path group to which the respective step belongs is referred. Duration for each path step is assessed and also included. Table I. Acquisition Path Steps for the State Step No. Description for Step Duration PAPG I1 Unreported import of NM 1-6 months 1 2 3 4 5 6 7 8 P1 Known indigenous production of UOC 2 weeks 2 5 7 P2 Unknown indigenous production of UOC 2 weeks 2 5 7 D1 Diversion of Alloy (DU) 1 day 3 D2 Diversion of FF (LEU) 1 day 4 6 D3 Diversion of SF from Reactor 1 day 1 D4 Diversion of SF from Storage 1 day 1 M-1 Misuse of exempted & terminated NM 1 day 3 M0 Misuse of declared Conversion I 1 year 2 4 5 6 7 8 M1 Misuse of declared Fuel Fabrication Plant 1 week 2 3 8 M3 Misuse of declared Reactor 1 month 2 3 8 M4.1 Misuse of declared Conversion II (Pu path) 1.5 years 1 2 3 M4.2 Misuse of declared Conversion II (HEU path) 1 year 4 5 M4.3 Misuse of declared Conversion II ( 233 U path) 1 year 8 M5 Misuse of declared Reprocessing plant 1 month 1 2 3 8 F1 Undeclared Conversion I 1 year 2 4 5 6 7 8 F2 Undeclared Manufacture of target 1 week 2 3 8 F4.1 Undeclared Irradiation 3 years 2 3 8 F4.2 Unknown Irradiation 10 years 2 3 8 F5 Undeclared Reprocessing 7 months 1 2 3 8 F6.1 Undeclared Conversion II (Pu path) 1.5 years 1 2 3 F6.2 Undeclared Conversion II (HEU path) 1 year 4 5 F6.3 Undeclared Conversion II ( 233 U path) 1 year 8 F7.1 Undeclared Enrichment (UF 6 ) 5 years 4 5 F7.2 Undeclared Enrichment (U metal) 10 years 6 7 2.3. APA Third Step: Assessing acquisition path steps (State s technical capabilities and possible actions) along the identified acquisition paths. Thorough assessment for all 25 acquisition path steps is performed. The way the assessment is carried out is reflected in assessment forms. The assessment forms for 2 out 25 acquisition path steps are described in detail in Tables II and III below. 4

Table II. Assessment form for I1: Unreported Import of NM Technical Capability Any unreported import of NM (DU, LEU, NU, HEU, Pu and Th) can occur at any time. State s actions to accomplish the step (proliferation scenarios) Separated Pu and HEU: Unreported import is technically plausible. SF: Unreported import is technically plausible; the State also has large inventory. DU, LEU, NU and Th: Unreported import is technically plausible. Detectable indicators Falsification of accountancy records; Inconsistencies in transit matching analysis. Time needed to accomplish the step for 1 Significant quantity (SQ) of NM Is NM available domestically to perform the step? LEU is available in FF form in the State. DU, NU and Th might be required and import might be needed. Is Technical capability available to perform the step? It will require clandestine network to avoid detection. How long does it take to complete the step for 1 SQ of NM? DU: min.1 month, NU, LEU: min. 2 months, Th: min. 6 months. Table III. Assessment form for D3: Diversion of SF from Reactor Technical Capability Quantity of nuclear material available for diversion Each spent fuel assembly (SFA) contains max. 100 kg of LEU, 1 kg of U 235 and 1.5 kg of Pu. 2500 assemblies are stored in spent fuel ponds, which amounts to 500 SQs of Pu and 33 SQs of LEU. State s actions to accomplish the step (proliferation scenarios) Diversion of spent fuel assemblies (replacement by dummies). Due to the high level of radiation dose, a cask would be required for any movement of SFA outside the pond. The size of a nominal cask for SF transfer can contain 90 SFAs. 6 SFAs are to be diverted to accumulate 1 SQ of Pu. Detectable indications SFA in the pond are replaced by dummies (gross defect); Unreported movement of casks. Time needed to accomplish the step for 1 SQ of NM Is NM available domestically to perform the step? Yes, there is plenty. More than 500 SQs of Pu are available in the State. Is Technical capability available to perform the step? Yes, the operators are regularly performing SF transfer to co-located dry storage. Transportation cask is available on site. How long does it take to complete the step for 1 SQ of NM? 1 day to divert 6 SFAs. The assessment criteria with three practical questions were added by the SEG intending to assess the duration of the step to acquire 1 SQ of weapon usable material at the end of acquisition path. The SEG s proposal was introduced as additional column Time needed to accomplish the step for 1 SQ of NM in internal guidance. 5

2.4. APA Fourth Step: Assessing the time needed to accomplish each identified technically plausible acquisition paths for the State. Time needed to accomplish the each technically plausible path is categorized in five duration ranges: less than 1 month, more than 1 month but less than 3 months, more than 3 months but less than 1 year, more than 1 year but less than 3 years and more than 3 years but less than 5 years. The paths needed more than 5 years to accomplish are considered not plausible in the near term. For the PAPG No.1: Pu path starting from SF, Step I1: Unreported import of SF, although technically plausible, is assessed as lower priority and thus the step is not included in the path group. So the group contains 8 plausible acquisition paths. Shortest time required for the path is calculated by positioning the steps along the time diagram to achieve the most effective use of the available time. And the shortest time needed to accomplish is 1.5 years by all 8 paths. It is assessed that time needed to complete conversion II activities will be dramatically shortened from 1.5 years to 1 month if facilities/capabilities become available in the State. And this significant assumption in the path would definitely affect later SG implementation process like development of the SLA. For the PAPG No.2: Pu path starting from NU UOC, each path consists of six steps and the group contains 144 acquisition paths in total. The shortest time needed to accomplish is 1.5 years by 48 paths. The assessment of the time needed to accomplish 302 paths in all 8 PAPGs identified in the State is summarized in Table IV below. Table IV. Time needed to accomplish the path PAPG Shortest Time (year) Distribution of number of the path by the time needed to accomplish total path Sum < 1 yr 1-3 yrs 3-5 yrs 5 yrs > No.1 Pu path starting from SF 1.5 8 0 8 0 0 No.2 Pu path starting from NU UOC 1.5 144 0 48 48 48 No.3 Pu path starting from DU 1.5 72 0 24 24 24 No.8 233 U path starting from Th ore concentrate 1.3 48 0 16 16 16 No.4 HEU path starting from LEU FF - UF 6 Enr. 5 8 0 0 0 8 No.5 HEU path starting from NU UOC - UF 6 Enr. 5 12 0 0 0 12 No.6 HEU path starting from LEU FF - Umetal Enr. 10 4 0 0 0 4 No.7 HEU path starting from NU UOC - Umetal Enr. 10 6 0 0 0 6 Total number of paths in all groups 302 0 96 88 118 Total number of plausible acquisition paths 184 For this state, there is no path which can be accomplished in less than 1 year. 96 paths can be accomplished within 1 to 3 years and 88 paths can be accomplished within 3 to 5 years. 118 paths need more than 5 years and are considered not plausible. Hence all HEU paths are considered not plausible. In total 184 paths belong to Pu path and 233 U path that are considered plausible. 6

3. SEG achievements During the APA process, the SEG proposed visual presentation of a group of pathways that allow for simple calculations of total number of paths and to identify acquisition path steps in a way that is logical and easy to assess. Accordingly, the APA process follows well defined methodology and can be computerized. In addition, new assessment criteria with 3 practical questions were added to the step assessment form intending that assessment results in duration of the step to acquire 1 SQ of NM. Those SEG feedbacks were already incorporated into internal Agency guidance on APA. Through the process, collaborative environment was maintained during the SEG meetings often added by subject matter experts in the department. REFERENCES [1] INTERNATIONAL ATOMIC ENERGY AGENCY, Model Protocol Additional to the Agreement (s) between State (s) and the International Atomic Energy Agency for the Application of Safeguards, INFCIRC/540 (Corrected), IAEA, Vienna (1997) 7