Ballistic and Cruise Missile Threat 2017
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
SIPRI Yearbook 2018: Armaments, Disarmament and International
world nuclear forces 273 VII. Pakistani nuclear forces shannon n. kile and hans m. kristensen Pakistan continues to prioritize the development and deployment of new nuclear weapons and delivery systems as part of its ‘full spectrum deterrence posture’ vis-à-vis India. It is estimated that Pakistan possessed 140–50 war- heads as of January 2018 (see table 6.8). Pakistan’s nuclear weapon arsenal is likely to expand significantly over the next decade, although estimates of the increase in warhead numbers vary considerably.1 Pakistan is believed to be gradually increasing its military fissile material holdings, which include both plutonium and highly enriched uranium (HEU) (see section X). Pakistan’s plutonium production complex is located at Khushab in the province of Punjab. It consists of four operational heavy water nuclear reactors and a heavy water production plant.2 Pakistan appears to be increasing its capacity to reprocess spent nuclear fuel—that is, to chemically separate plutonium from irradiated reactor fuel. A small reprocessing plant has been expanded at the New Laboratories facility of the Pakistan Institute of Science and Technology (PINSTECH) near Rawal- pindi. A larger reprocessing plant has been constructed at the Chashma Nuclear Power Complex in Punjab and may already be operational.3 Uranium enrichment takes place at the gas centrifuge plant in the Khan Research Laboratories (KRL) complex at Kahuta in Punjab and at a smaller plant located at Gadwal, also in Punjab. A new uranium enrichment centri- fuge plant may be under construction in the KRL complex at Kahuta.4 Pakistan’s capacity to produce HEU for nuclear weapons is constrained by its limited indigenous supply of natural uranium.5 Aircraft The Pakistan Air Force’s (PAF) Mirage III and Mirage V combat aircraft are the most likely aircraft to have been given a nuclear delivery role. -
Pakistan Tests Shaheen-3 and Shaheen-1A Missiles
CAPS In Focus 25 Feb 2016 www.capsindia.org 24/16 PAKISTAN TESTS SHAHEEN-3 AND SHAHEEN-1A MISSILES Gp Capt Ravinder Singh Chhatwal (Retd.) Senior Fellow, CAPS Introduction In March 2015 Pakistan carried out the first test of its most advanced 2750 km range, Shaheen-3 Medium Range Ballistic Missile (MRBM)1. The second test for this missile was carried out on December 11, 2015. The second test was closely followed by a test of its 900 km Short Range Ballistic Missile (SRBM) Shaheen1A, on December 15, 20152. Shaheen-3 is an improved version of the 1500 km Shaheen-2 and can cover entire India. It is the longest range missile in Pakistan’s inventory and is capable of carrying nuclear or conventional warheads. Shaheen-1A is an improved version of the 750 km Shaheen-1 missile. Pakistan has claimed that the Shaheen missile programme is indigenous but there are Image: Shaheen 1A being test fired from undisclosed reports that Chinese engineers have helped test range in Pakistan. Pakistan in the Shaheen-1 programme3. The Source: Inter Services Public Relations Pakistan, Press Release No PR382/2015-ISPR, December 15, 2015. Shaheen series of missiles are all solid fuel road 1 Centre for Air Power Studies | @CAPS_India | Centre for Air Power Studies CAPS In Focus 25 Feb 2016 www.capsindia.org mobile systems. This article briefly discusses launched. Both these missiles benefited from the Pakistan’s Shaheen missile programme. knowledge gained in launching sounding rockets in the 1960’s for which NASA (National Background Aeronautics and Space Administration) of USA, Pakistan started to develop knowledge on assisted Pakistan. -
Pakistan's Nuclear Behaviour and Deterrence Breakdown
CAPS In Focus 01 September 2020 www.capsindia.org 28/20 Pakistan’s Nuclear Behaviour and Deterrence Breakdown Nasima Khatoon Research Associate, CAPS Keywords: Pakistan, Nuclear, Missile systems, MIRV, Nuclear deterrence Pakistan started to develop nuclear weapon in the official statements of Pakistan armed forces2. These changes in nuclear posture and inclusion 1972 after the Indo-Pakistan war in 1971. It of new technologies have the potential to impact conducted the first nuclear test on 28 and 30 the deterrence stability in the region. The May 1998 in response to India’s nuclear test that evolution in nuclear posture has come into being was carried out in the same month. Since its with the introduction of tactical nuclear missile inception, Pakistan’s nuclear development Nasr and submarine-launched cruise missile programme and nuclear strategy have largely Babur-3. With the introduction of Babur-3 remained India centric and it essentially seeks to Pakistan has also claimed to have credible deter India’s conventional force superiority. second-strike capability3. A close look at changes in Pakistan’s Pakistan perceives India’s military nuclear policy over the years indicates this India modernisation and development in the field of centric posture. While its position has remained nuclear & missile programme as a serious threat constant on some policies like the possibility of and seeks to neutralise this impact by further nuclear first use, Pakistan’s nuclear posture has developing nuclear and missile capabilities. This been witnessing constant evolution on policy like threat perception is clearly visible from the fact minimum credible deterrence1. Over time, the that Pakistan’s longest-range missile Shaheen III strategy of minimum credible deterrence has is developed to cover all the parts of India changed to credible minimum deterrence, including Andaman and Nicobar Islands that are credible minimum full spectrum deterrence and “being developed as strategic bases”4. -
Hcoc Issue Brief – March 2021
THE HCOC AND SOUTH ASIAN STATES HCoC Issue Brief – March 2021 About the Hague Code of Conduct In brief Adopted in 2002, the Hague Code of Conduct against Ballistic Missile Proliferation (HCoC) is a politically binding instrument India’s and Pakistan’s aiming to limit the proliferation of weapons of mass destruction ballistic missiles are (WMD) delivery vehicles. Composed of a set of transparency and mostly designed as confidence-building measures, the HCoC is the only existing delivery vehicles for their multilateral instrument to focus on WMD delivery vehicles. Totalling nuclear weapons. While 93 subscribing states at its inception, the HCoC has now reached intrinsically linked to their national security, ballistic 143 subscribing states (April 2020). missiles also have regional security impli- When subscribing to the HCoC, states commit to abide by a set of cations for South Asia. UN treaties and international conventions on space security, to send an annual declaration regarding ballistic missile capacities Non-proliferation and and national policy on non-proliferation and disarmament treaties arms control efforts have and instruments; and to send pre-launch notifications prior to any so far been aimed at the missile or space launch. Documents are uploaded onto a dedicated bilateral level. Subscription to other online platform managed by Austria, which acts as the HCoC instruments including the Immediate Central Contact (Executive Secretariat). Subscription to HCoC remains low in the the HCoC is free of charge. region, although India joined the HCoC in 2016. While subscribing states are asked to exercise ‘maximum restraint’ in the development of ballistic capacities, it should be stressed that Given the high number they are proscribed neither from possessing ballistic missiles of missile tests and SLV launches, the HCoC nor from pursuing space launch activities. -
Nuclear Force Modernizations: Russia, China, and the United States
www.fas.org Nuclear Force Modernizations: Russia, China, and the United States Hans M. Kristensen Director, Nuclear Information Project Federation of American Scientists Phone: 202-454-4695 Email: [email protected] Presentation to Nuclear, Biological, and Chemical Weapons Policy and Security School of Policy, Government, and International Affairs George Mason University, Fairfax, VA February 9, 2016 www.fas.org Nuclear Arsenals: Inventories More than 125,000 warheads produced since 1945 Peak of 64,500 stockpiled warheads in 1986 (70,300 if including rered warheads) • US stockpile peaked early (1967) • Russian stockpile peaked late (1986) Enormous reducons since 1986 peak: • ~54,000 warhead stockpile reducon • ~47,000+ warheads dismantled ~10,000 warheads in stockpiles (~15,000 if counng rered warheads awaing dismantlement) US and Russia possess 90% of global inventory (94% if counng rered warheads); each has more than 4 mes more warheads than rest of world combined; 15 mes more than third-largest stockpile (France) Decreasing: US, Russia, Britain, France Increasing: China, Pakistan, India Israel relavely steady; North Korea trying Hans M. Kristensen, Federation of American Scientists, 2016 | Slide 2 www.fas.org Nuclear Arsenals: Inventories Esmated Worldwide Nuclear Warhead Inventories 2016 Country Deployed Stockpiled Re5red Inventory Russia 1,780 4,500 3,000 ~7,500 United States 2,070 4,670 2,300 ~7,000 France 240 300 300 China 260 low 260 Britain 120 215 low 215 Pakistan 110-130 110-130 India 100-120 100-120 Israel 80 80 North Korea -
The Next Decade
Trends in Technological Maturation and Strategic Modernization: The Next Decade Mansoor Ahmed Ahmed is a lecturer in the Department of Defense and Strategic Studies at Quaid-i-Azam University in Islamabad, Pakistan. Nuclear Learning: The Next Decade in South Asia | 58 5 Trends in Technological Maturation and Strategic Modernization: The Next Decade Mansoor Ahmed he past decade and a half has seen the operationalization of Indian and Pakistani nuclear capability, followed by the consolidation and growth of their strategic forces, operational doctrines and force postures.. Even as technological innovation has been a source of their T strategic modernization, it is primarily influenced by the dynamics of evolving force postures in the region—from minimum credible deterrence to credible minimum deterrence and now full-spectrum deterrence—all designed to meet a complex pattern of perceived challenges. This paper explores the impact of technological maturation and innovation on the nuclear learning process in South Asia. The technological maturation curve is visible through a steady expansion of fissile material production infrastructure and evolution of a triad of strategic delivery platforms for an assured second-strike capability. This process has remained steady where India has been allocating far greater resources to conventional and nuclear force modernization given its rapid economic growth, compared to Pakistan, with the latter attempting to maintain a semblance of strategic balance through innovation and modernization of its strategic -
Pakistan's Nuclear Capabilities
Pakistan’s Nuclear Capabilities Pakistan tested its first nuclear weapon in 1998, becoming the world’s 7th state to officially test a nuclear weapon. The exact yields of the weapons in the country’s current arsenal are not known, but general estimates are between 5-12 kilotons (kt) for most weapons, with some longer-range ballistic missiles possibly reaching 40 kt. Pakistan has not declared a strategic nuclear policy, but appears to maintain “minimum credible deterrence” against India’s nuclear and superior conventional forces. Pakistan has adopted a position of “no first use” against non-nuclear weapon states. How Many? Pakistan is believed to have a stockpile of approximately 160 warheads, making it the 6th largest nuclear arsenal. Pakistan is actively developing nuclear weapons, and experts project that it may have the 5th largest arsenal by 2025 with 220-250 warheads. Pakistan has been working toward a sea-based deterrent, and has successfully tested a nuclear-capable submarine-launched cruise missile from a submerged platform twice, once in January 2017, and again in March 2018. Once this missile is fully developed and tested on-board a submarine, Pakistan will have a nuclear triad, with air, sea and land capabilities. Air The F-16 combat aircraft, along with some Mirage III and V aircraft, are believed to be dual-capable (capable of both conventional and nuclear strikes) and constitute the air component of Pakistan’s nuclear force. Pakistan has approximately 36 warheads for the nuclear air branch. The F-16 A/B has about 24 launchers and a range of 1,600 kilometers (km) while the Mirage III/V has approximately 12 launchers and a range of 2,100 km. -
VII. Pakistani Nuclear Forces Shannon N
world nuclear forces 443 VII. Pakistani nuclear forces shannon n. kile and hans m. kristensen Pakistan continues to prioritize the development and deployment of new nuclear weapons and delivery systems as part of its ‘full spectrum deterrence posture’ in relation to India. It is estimated that Pakistan possessed up to 140 warheads as of January 2017 (see table 11.8). Pakistan’s nuclear weapon arsenal is likely to expand significantly over the next decade, although esti- mates of the increase in warhead numbers vary considerably.1 Pakistan is believed to be gradually increasing its military fissile material holdings, which include both highly enriched uranium (HEU) and pluto- nium. Uranium enrichment takes place at the gas centrifuge plant at the Khan Research Laboratories (KRL) complex at Kahuta, Punjab Province, and at a smaller plant located at Gadwal, also in Punjab. According to reports in 2016, a new uranium enrichment centrifuge plant may be under con- struction at the KRL complex.2 Pakistan’s plutonium production complex is located at Khushab, Punjab Province. It consists of four heavy-water nuclear reactors, two of which have become operational since 2013, and a heavy-water production plant. Pakistan appears to be increasing its capacity to reprocess spent nuclear fuel, and a small reprocessing plant in the New Laboratories facility at the Pakistan Institute of Science and Technology (PINSTECH), near Rawal- pindi, has been expanded. A larger reprocessing plant has been constructed at the Chashma Nuclear Power Complex in Punjab and may be operational.3 Aircraft The Pakistan Air Force (PAF) Mirage III/V combat aircraft are the aircraft most likely to have a nuclear-delivery role. -
Ministry of Defence Acronyms and Abbreviations
Acronym Long Title 1ACC No. 1 Air Control Centre 1SL First Sea Lord 200D Second OOD 200W Second 00W 2C Second Customer 2C (CL) Second Customer (Core Leadership) 2C (PM) Second Customer (Pivotal Management) 2CMG Customer 2 Management Group 2IC Second in Command 2Lt Second Lieutenant 2nd PUS Second Permanent Under Secretary of State 2SL Second Sea Lord 2SL/CNH Second Sea Lord Commander in Chief Naval Home Command 3GL Third Generation Language 3IC Third in Command 3PL Third Party Logistics 3PN Third Party Nationals 4C Co‐operation Co‐ordination Communication Control 4GL Fourth Generation Language A&A Alteration & Addition A&A Approval and Authorisation A&AEW Avionics And Air Electronic Warfare A&E Assurance and Evaluations A&ER Ammunition and Explosives Regulations A&F Assessment and Feedback A&RP Activity & Resource Planning A&SD Arms and Service Director A/AS Advanced/Advanced Supplementary A/D conv Analogue/ Digital Conversion A/G Air‐to‐Ground A/G/A Air Ground Air A/R As Required A/S Anti‐Submarine A/S or AS Anti Submarine A/WST Avionic/Weapons, Systems Trainer A3*G Acquisition 3‐Star Group A3I Accelerated Architecture Acquisition Initiative A3P Advanced Avionics Architectures and Packaging AA Acceptance Authority AA Active Adjunct AA Administering Authority AA Administrative Assistant AA Air Adviser AA Air Attache AA Air‐to‐Air AA Alternative Assumption AA Anti‐Aircraft AA Application Administrator AA Area Administrator AA Australian Army AAA Anti‐Aircraft Artillery AAA Automatic Anti‐Aircraft AAAD Airborne Anti‐Armour Defence Acronym -
The Gulfwar Andrew Charles Watt Andrew Charles Wall - the Gull War
The GulfWar Andrew Charles Watt Andrew Charles Wall - The Gull War TABLE· OF CONTENTS Page INTRODUCTION 3 CHAPTER 1 7 Strategy and Technology- A Theoretical and AnalYlical Framework 7 CHAPTER 2 14 TcchrlOlogy and (he Gulf War 14 CHAPTER 3 27 Technology and the Decision-making Process of War - An Analysis of the Grand Strategic, Stratcgic ami Operational Leveh of Strategy 27 Thc Grand Suategic Level 27 The Strategic Level 30 Th~ Operational Level 38 CHAPTER 4 43 Technology, Strategy and the Decision Procc:;s 43 CHAPTER 5 55 Conclusiom; 55 APPENDIX 1 62 US Spacc Systems Employed in the Persian Gulf 62 APPENDIX 2 64 Organisaliom Reporting to the Secretary of Defense 64 2 Andrew Charles Wall - The Gull War Introduction 'It is not a Nintendo game. It is a tough battlefield where people are risking their lives' SC/Jwarzkopf (1) It is interesting btl[ not unexpected that General Schwarzkopf had to make this exhortation to the media. This 'Ninlendo' image of war was. however. poruayed by the military themselves in their initial briefings. Clearly there was no willingness to divnlge (he detail of the operation, so a hungry press was fed pictures of the snccessful performance of the Coalition weapons. Modern telecommunications allowed the entire world to bare witness to the dramatically effectivc impact of high technology weapon systc::.ms. Real time broadcasts were available for the rust time and as such the Gulf War developed into an immensely successful media event. The mcdia's fascination with the technologies employed in battle and their access availability to real time coverage meant that the world saw a high speed low casna]ty conflict. -
Ballistic and Cruise Missile Threat 2020
DEFENSE INTELLIGENCE BALLISTIC MISSILE ANALYSIS COMMITTEE 2 KEY FINDINGS Many countries view ballistic and cruise missile systems as cost-effective weapons and symbols of national power, especially when those systems are armed with weapons of mass destruction. However, numerous types of ballistic and cruise missiles have achieved dramatic improvements in accuracy that allow them to be used effectively with conventional warheads. Some weapon systems have characteristics of both ballistic and cruise missiles. For example, ballistic missile-launched hypersonic glide vehicles (HGVs) can maneuver in the atmosphere similar to cruise missiles, and future supersonic/hypersonic cruise missiles may be launched by large rocket boosters. Highly accurate ballistic and cruise missiles can be used to deter or counter adversary forces deploying to or operating within a defined space or theater. Russia SS-27 ICBM TEL NORTH KOREA North Korea has a strong desire to develop long-range ballistic missile systems that can threaten the United States and its allies. During a 2012 military parade, North Korea unveiled its first intercontinental ballistic missile (ICBM), the Hwasong-13, and subsequently debuted the Hwasong-14 ICBM in an October 2015 parade. Flight testing of the Hwasong-10 (Musudan) intermediate-range ballistic missile (IRBM) began in April 2016 with a series of failures. North Korea followed those failures by launching multiple new missiles in 2017. In April 2017, North Korea also commenced flight testing of a new liquid-propellant IRBM, the Hwasong-12. That same year, North Korea performed the inaugural flight tests of the Hwasong-14 and Hwasong-15 ICBMs. Upon its launch in 2017, the Hwasong-14 marked the first flight-tested ICBM-class missile for North Korea. -
Nuclear Weapons and Arms Control: Modernizing Nuclear Arsenals
Nuclear Weapons and Arms Control: Modernizing Nuclear Arsenals Hans M. Kristensen Director, Nuclear Information Project Federation of American Scientists Phone: 202-454-4695 Email: [email protected] Presentation to Short Course on Nuclear Weapons issues in the 21st Century Elliott School of International Affairs George Washington University Washington, D.C. November 3, 2013 Research and publications with generous support from the New-Land Foundation and Ploughshares Fund Status of nuclear forces More than 125,000 warheads produced since 1945 Peak of 64,500 stockpiled warheads in 1986 (70,300 if including retired) • US stockpile peaked early (1967) • Russian stockpile peaked late (1986) Enormous progress since 1986 peak: • ~54,000 warhead stockpile reduction • ~47,000+ warheads dismantled Trend: pace of reductions slowing Today: ~ 10,200 warheads in stockpiles (17,200 if counting retired intact warheads awaiting dismantlement) US and Russia possess 90% of global inventory (94% if counting retired intact warheads): each has 4 times more warheads than rest of world combined; 15 times more than third-largest stockpile (France) Decreasing: US, Russia, Britain, France Increasing: China, Pakistan, India Israel relatively steady; North Korea trying Hans M. Kristensen, Federation of American Scientists, 2013 | Slide 2 Modernizations: United States ICBM • Minuteman III life-extension fielding • GBSD replacement ICBM planning • W78 warhead life-extension/upgrade planning SSBN / SLBM • Ohio SSBN life-extension fielding • Trident II SLBM life-extension