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{{Short description|Missile that follows a sub-orbital ballistic flightpath}}
{{Short description|Missile that follows a sub-orbital ballistic flightpath}}
{{About||self-navigating guided cruise missiles|Cruise missile}}
{{About||self-navigating guided constant-speed missiles|Cruise missile}}
[[File:Minuteman III MIRV path.svg|right|thumb|upright=1.3|Minuteman-III [[MIRV]] launch sequence: {{ubl
[[File:Minuteman III MIRV path.svg|thumb|upright=1.3|Minuteman-III [[Multiple independently targetable reentry vehicle|MIRV]] launch sequence: {{ubl
|1. The missile launches out of its silo by firing its 1st-stage boost motor (''A'').
|1. The missile launches out of its silo by firing its first-stage boost motor (''A'').
|2. About 60 seconds after launch, the 1st-stage drops off and the 2nd-stage motor (''B'') ignites. The missile shroud (''E'') is ejected.
|2. About 60 seconds after launch, the first-stage drops off and the second-stage motor (''B'') ignites. The missile shroud (''E'') is ejected.
|3. About 120 seconds after launch, the 3rd-stage motor (''C'') ignites and separates from the 2nd stage.
|3. About 120 seconds after launch, the third-stage motor (''C'') ignites and separates from the second stage.
|4. About 180 seconds after launch, 3rd-stage thrust terminates and the post-boost vehicle (''D'') separates from the rocket.
|4. About 180 seconds after launch, third-stage thrust terminates and the post-boost vehicle (''D'') separates from the rocket.
|5. The post-boost vehicle maneuvers itself and prepares for re-entry vehicle (RV) deployment.
|5. The post-boost vehicle maneuvers itself and prepares for re-entry vehicle (RV) deployment.
|6. The RVs, as well as decoys and chaff, are deployed.
|6. The RVs, as well as decoys and chaff, are deployed.
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|8. The nuclear warheads detonate.}}]]
|8. The nuclear warheads detonate.}}]]


A '''ballistic missile''' follows a [[ballistic trajectory]] to deliver one or more [[warhead]]s on a predetermined target. These weapons are guided only during relatively brief periods—most of the flight is unpowered. Short-range ballistic missiles stay within the Earth's atmosphere, while [[intercontinental ballistic missile]]s (ICBMs) are launched on a [[sub-orbital flight|sub-orbital]] trajectory.
A '''ballistic missile''' is a type of [[missile]] that follows a [[Projectile motion|ballistic trajectory]] and is powered only during a relatively brief initial period—most of the flight is unpowered. [[Short-range ballistic missiles]] (SRBM) typically stay within the [[Atmosphere of Earth|Earth's atmosphere]], while most larger missiles travel outside the atmosphere. The type of ballistic missile with the greatest range is an [[intercontinental ballistic missile]] (ICBM). The largest ICBMs are capable of full orbital flight.


These weapons are in a distinct category from [[cruise missile]]s, which are [[Lift (force)|aerodynamically guided]] in powered flight.
These missiles are in a distinct category from [[cruise missile]]s, which are [[Aerodynamics|aerodynamically]] guided in powered flight and thus restricted to the atmosphere.


==History==
== History ==
{{Further|History of rockets|Ballistics}}{{Expand section|date=June 2025|small=no}}[[File:Fusée V2.jpg|upright|thumb|Replica [[V-2]]]]One modern pioneer ballistic missile was the A-4,<ref>{{cite book | last = Zaloga | first = Steven | title = V-2 Ballistic Missile 1942–52 | publisher = [[Osprey Publishing]] | location = Reading | year = 2003 | page = [https://archive.org/details/newvanguard8200stev/page/3 3] | isbn = 978-1-84176-541-9 | url-access = registration | url = https://archive.org/details/newvanguard8200stev/page/3 }}</ref> commonly known as the [[V-2 rocket|V-2]], developed by [[Nazi Germany]] in the 1930s and 1940s under the direction of [[Wernher von Braun]]. The first successful launch of a V-2 was on October 3, 1942, and it began operation on September 6, 1944, against [[Paris]], followed by an attack on London two days later. By the end of World War II in Europe in May 1945, more than 3,000 V-2s had been launched.<ref name="num_fired">{{cite book| author=Clayton K. S. Chun| title=Thunder Over the Horizon: From V-2 Rockets to Ballistic Missiles| publisher=[[Greenwood Publishing Group]]|year=2006| page=54}}</ref> In addition to its use as a weapon, a [[MW 18014|vertically launched V-2]] became the first human-made object to reach [[outer space]] on June 20, 1944.<ref>{{cite web|url=http://astronautix.com/chrono/19442.htm|title=Peenemuende|last=Wade|first=Mark|website=[[Astronautix.com]]|archiveurl=https://web.archive.org/web/20050425131553/http://astronautix.com/chrono/19442.htm|archivedate=2005-04-25|url-status=dead|accessdate=2019-06-07}}</ref>


[[File:Fusée V2.jpg|upright|right|thumb|Replica [[V-2]]]]
The [[R-7 Semyorka]] was the first [[intercontinental ballistic missile]].<ref>{{Cite web |title=Launching The Space Age |url=https://airandspace.si.edu/exhibitions/space-race/online/sec200/sec250.htm#:~:text=R-7:%20THE%20WORLD%27S%20FIRST,hurl%20a%20spacecraft%20into%20orbit. |access-date=2023-03-01 |website=airandspace.si.edu}}</ref>


The earliest form of ballistic missiles dates from the 13th century with its use derived from the [[history of rockets]]. In the 14th century, the Ming Chinese navy used an early form of a ballistic missile weapon called the [[Huolongchushui|Huo long chu shui]] in naval battles against enemy ships.<ref name="Needham volume 5 part 7 508">Needham, Volume 5, Part 7, 508-510.</ref> A modern pioneer ballistic missile was the A-4,<ref>{{cite book | last = Zaloga | first = Steven | title = V-2 Ballistic Missile 1942–52 | publisher = [[Osprey Publishing]] | location = Reading | year = 2003 | page = [https://archive.org/details/newvanguard8200stev/page/3 3] | isbn = 978-1-84176-541-9 | url-access = registration | url = https://archive.org/details/newvanguard8200stev/page/3 }}</ref> commonly known as the [[V-2 rocket|V-2]] developed by [[Nazi Germany]] in the 1930s and 1940s under the direction of [[Wernher von Braun]]. The first successful launch of a V-2 was on October 3, 1942, and it began operation on September 6, 1944, against [[Paris]], followed by an attack on London two days later. By the end of World War II in Europe in May 1945, more than 3,000 V-2s had been launched.<REF NAME='num_fired'>{{cite book| author=Clayton K. S. Chun| title=Thunder Over the Horizon: From V-2 Rockets to Ballistic Missiles| publisher=[[Greenwood Publishing Group]]|year=2006| page=54}}</ref>
The [[Minuteman III]] was the first ICBM equipped with a [[Multiple independently targetable reentry vehicle|Multiple Independently targetable Reentry Vehicle (MIRV)]] to enter service.<ref>{{Cite web |title=MIRV missiles |url=https://learnfinite.com/ca/mirv-missiles |access-date=2026-01-23 |website=learnfinite.com}}</ref>


The [[R-7 Semyorka]] was the first [[intercontinental ballistic missile]].
The [[October 2024 Iranian strikes against Israel|largest ballistic missile attack in history]] took place on 1 October 2024 when the [[Islamic Revolutionary Guard Corps|Iranian Revolutionary Guard]] launched about 200 missiles at [[Israel]],<ref>{{Cite news |last=Schneider |first=Tal |date=6 October 2024 |title=How effective was Iran's attack? The Israeli public doesn't have the full picture |url=https://www.timesofisrael.com/how-effective-was-irans-attack-the-israeli-public-doesnt-have-the-full-picture/ |access-date=27 October 2024 |work=The Times of Israel}}</ref> a distance of about 1,500 kilometers.<ref>{{Cite web |date=2024-10-25 |title=What to Know About Iran's Ballistic Missile Attacks and Israel's Efforts to Defend Itself {{!}} AJC |url=https://www.ajc.org/news/what-to-know-about-irans-ballistic-missile-attacks-and-israels-efforts-to-defend-itself |access-date=2024-10-27 |website=www.ajc.org |language=en}}</ref><ref>{{Cite web |title=MSN |url=https://www.msn.com/en-us/news/world/the-largest-missile-battle-in-history-the-iron-dome-was-not-involved/ar-AA1rxYii |access-date=2024-10-27 |website=www.msn.com}}</ref><ref>{{Cite web |title=Distance from Jerusalem, Israel to Tehran, Iran |url=https://www.geodatos.net/en/distances/from-jerusalem-to-tehran |access-date=2024-10-27 |website=www.geodatos.net}}</ref> The missiles arrived about 15 minutes after launch.<ref>{{Cite web |title=What we know about Iran's latest missile attack on Israel |url=https://www.bbc.com/news/articles/c70w1j0l488o |access-date=2024-10-27 |website=www.bbc.com |date=3 October 2024 |language=en-GB}}</ref> It is believed that Iran's [[Fattah-1 (missile)|Fattah-1]] and Kheybar Shekan missiles were used, which both have a range of about 1,400&nbsp;km.<ref>{{Cite news |last=Doyle |first=Gerry |date=2 October 2024 |title=Iranian missile strike on Israel shows capability for greater scale, complexity |url=https://www.reuters.com/world/middle-east/iranian-missile-strike-israel-shows-capability-greater-scale-complexity-2024-10-02/ |access-date=27 October 2024 |work=Reuters}}</ref>
 
A total of 30 nations have deployed operational ballistic missiles.{{citation needed|date=August 2020}} Development continues with around 100 ballistic missile flight tests in 2007 (not including those of the US), mostly by the People's Republic of China, Iran, and the Russian Federation.{{Citation needed|date=July 2010|reason=Dead link removed}} In 2010, the U.S. and Russian governments signed a treaty to reduce their inventory of [[intercontinental ballistic missile]]s (ICBMs) over a seven-year period (to 2017) to 1550 units each.<ref>U.S. Department of State (8 April 2010). [https://2009-2017.state.gov/documents/organization/140035.pdf "Treaty between the United States of America and the Russian Federation on Measures for the Further Reduction and Limitation of Strategic Offensive Arms"]. Retrieved 25 November 2018.</ref>


[[File:Minuteman III diagram.png|thumb|Side view of Minuteman-III ICBM]]
[[File:Minuteman III diagram.png|thumb|Side view of Minuteman-III ICBM]]


==Flight==
== Flight ==
 
An intercontinental ballistic missile trajectory consists of three parts: the powered flight portion; the free-flight portion, which constitutes most of the flight time; and the re-entry phase, where the missile [[Atmospheric reentry|re-enters the Earth's atmosphere]]. (The flight phases for shorter-range ballistic missiles are essentially the first two phases of the ICBM, as some ballistic categories do not leave the atmosphere.){{citation needed|date=January 2018}}
 
Ballistic missiles can be launched from fixed sites or mobile launchers, including vehicles (e.g., [[Transporter erector launcher|transporter erector launchers (TELs)]]), [[aircraft]], [[Navy|ships]], and [[submarine]]s. The powered flight portion can last from a few tenths of seconds to several minutes and can consist of multiple [[rocket]] stages.{{citation needed|date=January 2018}}
 
When the fuel is exhausted, no more [[thrust]] is provided and the missile enters free flight. In order to cover large distances, ballistic missiles are usually launched into a high [[sub-orbital spaceflight]]; for intercontinental missiles, the highest altitude ([[apogee]]) reached during free-flight is about {{convert|2000|km|mi|sp=us}}.<ref>{{Cite news|url=http://edition.cnn.com/2017/05/13/asia/north-korea-projectile/index.html|title=North Korea launches missile|last=Almasy|first=Steve|date=14 May 2017|work=[[CNN]]|access-date=2017-10-14|last2=Kwon|first2=K. J.|last3=Lee|first3=Taehoon}}</ref>


The re-entry stage begins at an altitude where atmospheric [[Drag (physics)|drag]] plays a significant part in missile [[trajectory]], and lasts until missile [[Impact force|impact]].{{citation needed|date=January 2018}}
In order to cover large distances, ballistic missiles are usually launched into a high [[sub-orbital spaceflight]]; for intercontinental missiles, the highest altitude ([[apogee]]) reached during free-flight is about {{convert|4500|km|mi|sp=us}}.<ref>{{Cite news |last1= |first1= |last2= |first2= |last3= |first3= |date=28 November 2017 |title=North Korea launches 'highest ever' ballistic missile |url=https://www.bbc.com/news/world-asia-42160227 |access-date= |work=[[BBC]]}}</ref> A ballistic missile's [[trajectory]] consists of three parts or [[Ballistic missile flight phases|phases]]: the boost phase, the mid-course phase and the terminal phase. Special systems and capabilities are required to facilitate the successful passage from one phase to the other.<ref name=":4">{{Cite book |last=Chun |first=Clayton K. S. |title=Thunder over the horizon: from V-2 rockets to ballistic missiles |date=2006 |publisher=Praeger Security International |isbn=978-0-275-98577-6 |series=War, technology, and history |location=Westport, CN. |page=2}}</ref>


Reentry vehicles reenter the Earth's atmosphere at very high velocities, on the order of {{convert|6-8|km/s|km/h mph|sp=us}} at ICBM ranges.<ref name=":0">{{Cite web|url=http://www.nasic.af.mil/LinkClick.aspx?fileticket=F2VLcKSmCTE%3d&portalid=19|title=Ballistic and Cruise Missile Threat|date=June 2017|publisher=Defense Intelligence Ballistic Missile Analysis Committee}}</ref>
The boost phase is the [[powered flight]] portion, beginning with the ignition of the engines and concluding with the end of powered flight. The powered flight portion can last from a few tenths of seconds to several minutes and can consist of multiple [[rocket]] stages.<ref name=":1" /> Internal computers keep the missile aligned on a preprogrammed trajectory.<ref name=":4" /> On [[Multistage rocket|multi-stage missiles]], stage separation (excluding any post-boost vehicles or [[Multiple independently targetable reentry vehicle|MIRV]] bus) occurs primarily during the boost phase.


==Advantages==
The mid-course phase is the longest in the missile's trajectory, beginning with the conclusion of powered flight. When the fuel is exhausted, no more [[thrust]] is provided and the missile enters free flight. During this phase the missile, now largely consisting of a [[warhead]] or payload and possibly defensive countermeasures and small propulsion systems for further alignment toward its target, will reach its [[Apogee|highest altitude]] and may travel in space for thousands of kilometres (or even indefinitely, in the case of some [[Fractional Orbital Bombardment System|fractional-orbital]] capable systems) at speeds of up to {{convert|7.5|to|10|km/s|nmi/s|0|abbr=off}}.<ref name=":5">{{Cite book |last=Chun |first=Clayton K. S. |title=Thunder over the horizon: from V-2 rockets to ballistic missiles |date=2006 |publisher=Praeger Security International |isbn=978-0-275-98577-6 |series=War, technology, and history |location=Westport, Conn. |pages=4}}</ref>


The course taken by ballistic missiles has two significant desirable properties. First, ballistic missiles that fly above the atmosphere have a much longer range than would be possible for [[cruise missiles]] of the same size. Powered rocket flight through thousands of kilometers of air would require vastly greater amounts of fuel, making the launch vehicles larger and easier to detect and intercept. Powered missiles that can cover similar ranges, such as cruise missiles, do not use rocket motors for the majority of their flight, but instead use more economical jet engines. However, cruise missiles have not made ballistic missiles obsolete, due to the second major advantage: ballistic missiles can travel extremely quickly along their flight path. An ICBM can strike a target within a 10,000&nbsp;km range in about 30 to 35 minutes.{{Citation needed|date=October 2015}} With terminal speeds of over 5,000&nbsp;m/s, ballistic missiles are much harder to [[Missile defense|intercept]] than cruise missiles, due to the much shorter time available. Therefore, ballistic missiles are some of the most feared weapons available, despite the fact that cruise missiles are cheaper, more mobile, and more versatile.{{Citation needed|date=October 2015}}
The last phase in the missile's trajectory is the terminal or re-entry phase, beginning with the [[Atmospheric reentry|re-entry of the missile into the Earth's atmosphere]] (if [[exoatmospheric]])<ref name=":1">{{Cite web |last=McFadden |first=Christopher |title=What is an intercontinental ballistic missile and how does it work? |date=4 December 2017 |url=https://interestingengineering.com/what-is-an-intercontinental-ballistic-missile-and-how-does-it-work}}</ref><ref name=":5" /> where atmospheric [[Drag (physics)|drag]] plays a significant part in missile trajectory, and lasts until missile [[Impact force|impact]].<ref name=":1" /> Re-entry vehicles re-enter the Earth's atmosphere at very high velocities, on the order of {{convert|6-8|km/s|km/h mph|sp=us}} at intercontinental ballistic missile ranges.<ref name=":0">{{Cite web |date=June 2017 |title=Ballistic and Cruise Missile Threat |url=https://www.nasic.af.mil/LinkClick.aspx?fileticket=F2VLcKSmCTE%3d&portalid=19 |publisher=Defense Intelligence Ballistic Missile Analysis Committee}}</ref> During the beginning of this phase, the missile's trajectory is still relatively well defined, though as the missile reaches the heavier layers of atmosphere it is increasingly influenced by gravity and aerodynamic drag, which can affect its landing.<ref name=":5" />
 
==Types==


== Types ==
[[File:Trident II missile image.jpg|thumb|upright|right|[[Trident II]] SLBM launched by [[ballistic missile submarine]]]]
[[File:Trident II missile image.jpg|thumb|upright|right|[[Trident II]] SLBM launched by [[ballistic missile submarine]]]]


Ballistic missiles vary widely in range and use, and are often divided into categories based on range. Various schemes are used by different countries to categorize the ranges of ballistic missiles:
Ballistic missiles can be launched from fixed sites or mobile launchers, including vehicles (e.g., [[transporter erector launcher]]s), [[aircraft]], [[Navy|ships]], and [[submarine]]s. Ballistic missiles vary widely in range and use, and are often divided into categories based on range. Various schemes are used by different countries to categorize the ranges of ballistic missiles:


*[[Air-launched ballistic missile]] (ALBM)
*[[Tactical ballistic missile]] (TBM): Range less than {{convert|300|km}}
*[[Tactical ballistic missile]]: Range between about {{convert|150|to|300|km}}
*[[Short-range ballistic missile]] (SRBM): Range from {{convert|300|to|1000|km}}
*[[Theatre ballistic missile]] (TBM): Range between {{convert|300|to|3500|km}}
*[[Medium-range ballistic missile]] (MRBM): Range from {{convert|1000|to|3500|km}}
**[[Short-range ballistic missile]] (SRBM): Range between {{convert|300|to|1000|km}}
*[[Intermediate-range ballistic missile]] (IRBM): Range from {{convert|3500|to|5500|km}}
**[[Medium-range ballistic missile]] (MRBM): Range between {{convert|1000|to|3500|km}}
*[[Intermediate-range ballistic missile]] (IRBM) or long-range ballistic missile (LRBM): Range between {{convert|3500|to|5500|km}}
*[[Intercontinental ballistic missile]] (ICBM): Range greater than {{convert|5500|km}}
*[[Intercontinental ballistic missile]] (ICBM): Range greater than {{convert|5500|km}}
*[[Submarine-launched ballistic missile]] (SLBM): Launched from [[ballistic missile submarine]]s (SSBNs)
Most current designs have intercontinental range with a notable exception of [[India]]n operational SLBM [[Sagarika (missile)|Sagarika]] and [[K-4 (SLBM)|K-4]] as well as [[North Korea|North Korea's]] currently operationally deployed [[KN-11]]<ref name=YonhapAug24Confirms>[http://english.yonhapnews.co.kr/national/2016/08/24/35/0301000000AEN20160824009552315F.html (2nd LD) N.K. leader calls SLBM launch success, boasts of nuke attack capacity]—Yonhap, 25 Aug 2016 08:17am</ref> which might not have intercontinental range. A comparable missile would be the decommissioned [[China|China's]] [[JL-1]] SLBM with a range of less than 2,500&nbsp;km.
Tactical short- and medium-range missiles are often collectively referred to as [[Tactical ballistic missile|tactical]] and [[theatre ballistic missiles]], respectively. Long- and medium-range ballistic missiles are generally designed to deliver [[nuclear weapon]]s because their payload is too limited for conventional explosives to be cost-effective in comparison to conventional [[bomber aircraft]] (though the U.S. is [[prompt global strike|evaluating the idea]] of a conventionally armed ICBM for near-instant global air strike capability, despite the high costs).
==Quasi ballistic missiles==
A quasi ballistic missile (also called a semi ballistic missile) including [[anti-ship ballistic missile]]s is a category of missile that has a low trajectory and/or is largely ballistic but can perform maneuvers in flight or make unexpected changes in direction and range.{{Citation needed|date=July 2010|reason=Dead link removed}}


At a lower trajectory than a ballistic missile, a quasi ballistic missile can maintain higher speed, thus allowing its target less time to react to the attack, at the cost of reduced range.
Long- and medium-range ballistic missiles are generally designed to deliver [[nuclear weapon]]s because their [[payload]] is too limited for conventional explosives to be cost-effective in comparison to conventional [[bomber aircraft]].


The Russian [[9K720 Iskander|Iskander]] is a quasi ballistic missile.<ref>{{Cite web|url=https://www.business-standard.com/latest-news|title=Latest News|via=Business Standard}}</ref> The Russian Iskander-M cruises at hypersonic speed of 2,100–2,600&nbsp;m/s (Mach 6–7) at a height of 50&nbsp;km. The Iskander-M weighs 4,615&nbsp;kg, carries a warhead of 710–800&nbsp;kg, has a range of 480&nbsp;km and achieves a [[Circular error probable|CEP]] of 5–7 meters. During flight it can maneuver at different altitudes and trajectories to evade anti-ballistic missiles.<ref>{{Cite web|url=http://military.tomsk.ru/blog/topic-185.html|title=MilitaryRussia.Ru — отечественная военная техника (после 1945г.) &#124; Статьи|website=military.tomsk.ru}}</ref><ref>{{Cite web|title=SS-26 Stone Iskander 9M72 9P78EBallistic missile system|url=http://www.armyrecognition.com/derni_res_news/bienvenue_sur_joomla__3.html|url-status=dead|archive-url=https://web.archive.org/web/20100725054913/http://www.armyrecognition.com/derni_res_news/bienvenue_sur_joomla__3.html|archive-date=2010-07-25}}</ref>
== Quasi-ballistic missiles ==


===List of quasi ballistic missiles===
A quasi-ballistic missile is a category of [[SRBM]] that is largely ballistic but is fully guided and can perform maneuvers throughout the entirety of atmospheric flight to make unexpected changes in direction and range.<ref>{{Cite web |last=Delory |first=Stéphane |date=January 2020 |title=Ballistic missiles and conventional strike weapons: Adapting the HCoC to address the dissemination of conventional ballistic missiles |url=https://www.nonproliferation.eu/hcoc/wp-content/uploads/2020/02/Ballistic-missiles-and-conventional-strike-weapons.pdf |website=Nonproliferation.eu |publisher=Fondation pour la Recherche Stratégique |quote=Quasi-ballistic flight within the atmosphere requires permanent guidance of the missile during its flight and therefore real-time calculation of the vehicle’s aerodynamic behaviour.}}</ref> Large guided [[MLRS]] rockets with range comparable to an SRBM are sometimes categorized as quasi-ballistic missiles.<ref>{{cite web|url=https://www.spslandforces.com/story/?id=625&h=MLRS-for-Army-and-Indigenous-Capability|website=SPS Land Forces|title=MLRS For Army and Indigenous Capability}}</ref>
{{Expand list|date=July 2020}}
;{{flag|China}}:
*[[DF-15]] (active)
*[[DF-21D]] (active)
*[[DF-26]] (active)
*[[B-611|B-611MR]] (active)
*[[SY-400]] (active)
*[[XY-9]]
;{{flag|France}}:
*[[Hadès (missile)|Hadès]] (retired)


;{{flag|India}}:
=== List of quasi-ballistic missiles ===
*[[Prithvi (missile)|Prithvi-III]] (active)
{{Incomplete list|date=July 2020}}
*[[Dhanush (missile)|Dhanush]] (active)
*[[Prahaar (missile)|Prahaar]] (under development)
*[[Shaurya (missile)|Shaurya]] (active)


;{{flag|Iran}}
;{{flag|India}}
*[[Fateh-110]] (active)
*[[Qiam 1]] (active)
*[[Khalij Fars]] (active)


;{{flag|Israel}}:
*[[Long Range – Anti Ship Missile (India)|Long Range – Anti Ship Missile]] (under development)<ref>{{Cite web |last=Menon |first=Adithya Krishna |date=2026-01-29 |title=India showcases first Hypersonic Anti-Ship Missile System in national parade |url=https://www.navalnews.com/naval-news/2026/01/india-showcases-first-hypersonic-anti-ship-missile-system-in-national-parade/ |url-status=live |archive-url=https://web.archive.org/web/20260129170623/https://www.navalnews.com/naval-news/2026/01/india-showcases-first-hypersonic-anti-ship-missile-system-in-national-parade/ |archive-date=2026-01-29 |access-date=2026-01-29 |website=Naval News |language=en-US}}</ref>
;{{flag|Israel}}
*[[LORA (missile)|LORA]] (active)
*[[LORA (missile)|LORA]] (active)
;{{flag|United States}}
*[[MGM-140 ATACMS]] (active)<ref>{{Cite web |title=MGM-140 ATACMS Short-Range Ballistic Missile |url=https://www.militarytoday.com/missiles/atacms.htm |access-date=2023-10-26 |website=www.militarytoday.com |archive-date=2023-10-27 |archive-url=https://web.archive.org/web/20231027055918/https://www.militarytoday.com/missiles/atacms.htm |url-status=dead }}</ref>
*[[Precision Strike Missile]] (active)<ref>{{Cite web |title=Precision Strike Missile (PrSM) |url=https://www.lockheedmartin.com/en-us/products/precision-strike-missile.html |access-date=2023-10-26 |website=Lockheed Martin |language=en}}</ref>


;{{flag|North Korea}}:
*[[KN-23]] (under development)
*[[KN-24]] (under development)


;{{flag|Pakistan}}:
== Hypersonic ballistic missile ==
*[[Nasr (missile)|Nasr]] (active)
{{Main|Hypersonic glide vehicle}}


;{{flag|Soviet Union}}\{{flag|Russia}}:
Many ballistic missiles reach [[hypersonic speed]]s (i.e. [[Mach number|Mach]] 5 and above) when they re-enter the atmosphere from space. However, in common military terminology, the term "hypersonic ballistic missile" is generally only given to those that can be maneuvered before hitting their target and do not follow a simple [[ballistic trajectory]].<ref>{{Cite web |title='National pride is at stake.' Russia, China, United States race to build hypersonic weapons |url=https://www.science.org/content/article/national-pride-stake-russia-china-united-states-race-build-hypersonic-weapons |access-date=2022-11-21 |website=www.science.org |language=en}}</ref><ref>{{Cite web |last=Gale |first=Alastair |title=What Are Hypersonic Missiles and Who's Developing Them? |url=https://www.wsj.com/articles/hypersonic-missiles-11643688227 |access-date=2022-11-20 |website=WSJ.com |date=February 2022 |language=en-US}}</ref>
*[[R-27 Zyb#R-27K|R-27K]] (cancelled)
*[[OTR-21 Tochka|Tochka]] (active)
*[[R-400 Oka|Oka]] (retired)
*[[Iskander (missile)| Iskander]] (active)


;{{flag|United States}}:
== Throw-weight ==
*[[MGM-140 ATACMS|MGM-140B/E ATACMS]] (active)


==Throw-weight==
Throw-weight is a measure of the effective weight of ballistic missile [[payload]]s. It is measured in [[kilogram]]s or [[tonne]]s. Throw-weight equals the total weight of a missile's [[warhead]]s, [[reentry vehicle]]s, self-contained dispensing mechanisms, [[penetration aids]], and any other components that are part of the delivered payload, and not of the rocket itself (such as the launch [[Booster (rocketry)|rocket booster]] and launch fuel).<ref>{{Cite news |date=15 July 1991 |title=What is throw weight? |url=https://www.nytimes.com/1991/07/15/world/what-is-throw-weight.html |access-date=13 April 2024 |work=[[The New York Times]] |page=10, Sec. A}}</ref> Throw-weight may refer to any type of warhead, but in normal modern usage, it refers almost exclusively to [[fission bomb|nuclear]] or [[thermonuclear weapon|thermonuclear]] payloads. It was once also a consideration in the design of naval ships and the number and size of their guns.


Throw-weight is a measure of the effective weight of ballistic missile [[payload]]s. It is measured in [[kilogram]]s or [[tonne]]s. Throw-weight equals the total weight of a missile's [[warhead]]s, [[reentry vehicle]]s, self-contained dispensing mechanisms, [[penetration aids]], and [[missile guidance]] systems: generally all components except for the launch [[Booster (rocketry)|rocket booster]] and launch fuel. Throw-weight may refer to any type of warhead, but in normal modern usage, it refers almost exclusively to [[fission bomb|nuclear]] or [[thermonuclear weapon|thermonuclear]] payloads. It was once also a consideration in the design of naval ships and the number and size of their guns.
Throw-weight was used as a criterion in classifying different types of missiles during [[Strategic Arms Limitation Talks]] between the [[Soviet Union]] and the [[United States]].<ref>James John Tritten, [http://www.airpower.maxwell.af.mil/airchronicles/aureview/1982/nov-dec/tritten.html Throw-Weight and Arms Control<!-- Bot generated title -->] {{Webarchive|url=https://web.archive.org/web/20071123235939/http://www.airpower.maxwell.af.mil/airchronicles/aureview/1982/nov-dec/tritten.html |date=2007-11-23 }}, ''Air University Review'', Nov-Dec 1982.</ref> The term became politically controversial during debates over the arms control accord, as critics of the treaty alleged that Soviet missiles were able to carry larger payloads and so enabled the Soviets to maintain higher throw-weight than an American force with a roughly comparable number of lower-payload missiles.<ref>[https://www.nytimes.com/1991/07/15/world/what-is-throw-weight.html What Is Throw-Weight?] {{Webarchive|url=https://web.archive.org/web/20221126000600/https://www.nytimes.com/1991/07/15/world/what-is-throw-weight.html |date=2022-11-26 }}, New York Times, July 15, 1991.</ref>


Throw-weight was used as a criterion in classifying different types of missiles during [[Strategic Arms Limitation Talks]] between the [[Soviet Union]] and the [[United States]].<ref>James John Tritten, [http://www.airpower.maxwell.af.mil/airchronicles/aureview/1982/nov-dec/tritten.html Throw-Weight and Arms Control<!-- Bot generated title -->] {{Webarchive|url=https://web.archive.org/web/20071123235939/http://www.airpower.maxwell.af.mil/airchronicles/aureview/1982/nov-dec/tritten.html |date=2007-11-23 }}, ''Air University Review'', Nov-Dec 1982.</ref> The term became politically controversial during debates over the arms control accord, as critics of the treaty alleged that Soviet missiles were able to carry larger payloads and so enabled the Soviets to maintain higher throw-weight than an American force with a roughly comparable number of lower-payload missiles.<ref>New York Times, [https://www.nytimes.com/1991/07/15/world/what-is-throw-weight.html What Is Throw-Weight?], July 15, 1991.</ref>
The missiles with the world's heaviest payloads are the Russian [[SS-18]] and Chinese [[DF-5|CSS-4]] and {{as of|2017|lc=y}}, Russia was developing a new heavy-lift, liquid-propellant ICBM called the [[RS-28 Sarmat|Sarmat]].<ref name=":0" />


The missiles with the world's heaviest payloads are the Russian [[SS-18]] and Chinese [[DF-5|CSS-4]] and {{asof|2017|lc=y}}, Russia was developing a new heavy-lift, liquid-propellant ICBM called the [[Sarmat]].<ref name=":0" />
=== Depressed trajectory ===
[[File:FobsEnglishTrans.svg|thumb|400px|Example of depressed trajectory: [[Fractional Orbital Bombardment System]]]]
Throw-weight is normally calculated using an optimal [[ballistic trajectory]] from one point on the surface of the Earth to another. A "minimum-energy trajectory" maximizes the total payload (throw-weight) using the available [[impulse (physics)|impulse]] of the missile.<ref name=":3">{{Cite journal |last1=Druckmann |first1=Erez |last2=Ben-Asher |first2=Joseph |date=28 Aug 2012 |title=Optimal In-flight Trajectory Modifications for Ballistic Missiles and Rockets |url=https://arc.aiaa.org/doi/abs/10.2514/1.54538?journalCode=jgcd |journal=Journal of Guidance, Control, and Dynamics |volume=35 |issue=2 |page=462 |doi=10.2514/1.54538 |via=Aerospace Research Central|url-access=subscription }}</ref> By reducing the payload weight, different trajectories can be selected, which can either increase the nominal range or decrease the total time in flight.


===Depressed trajectory===
A depressed trajectory is non-optimal, as a lower and flatter trajectory takes less time between launch and impact but has a lower throw-weight. The primary reasons to choose a depressed trajectory are to evade [[anti-ballistic missile]] systems by reducing the time available to shoot down the attacking vehicle (especially during the vulnerable burn-phase against space-based ABM systems) or a nuclear [[first-strike]] scenario.<ref>Science & Global Security, 1992, Vol. 3, pp.101–159 Depressed Trajectory SLBMs: A Technical Evaluation and Arms Control Possibilities [http://www.princeton.edu/sgs/publications/sgs/pdf/3_1-2gronlund.pdf] {{Webarchive|url=https://web.archive.org/web/20130318120315/http://www.princeton.edu/sgs/publications/sgs/pdf/3_1-2gronlund.pdf|date=2013-03-18}}</ref> An alternate, non-military purpose for a depressed trajectory is in conjunction with the [[spaceplane]] concept with use of [[airbreathing jet engine]]s, which requires the ballistic missile to remain low enough inside the atmosphere for air-breathing engines to function.


Throw-weight is normally calculated using an optimal [[ballistic trajectory]] from one point on the surface of the Earth to another. An optimal trajectory maximizes the total payload (throw-weight) using the available [[impulse (physics)|impulse]] of the missile. By reducing the payload weight, different trajectories can be selected, which can either increase the nominal range or decrease the total time in flight.
In contrast, a "lofted" trajectory is frequently used for testing purposes, as it reduces the range of the missile (allowing for a controlled and observed impact), as well as signals a lack of hostile intention with the test.<ref>{{Cite news |date=2022-12-16 |title=Why North Korea's missile tests are going higher and further |url=https://www.reuters.com/graphics/NORTHKOREA-MISSILES/TESTING/byvrllmjmve/ |access-date=2024-04-13 |work=Reuters |language=en}}</ref><ref name=":3" />


A depressed trajectory is non-optimal, as a lower and flatter trajectory takes less time between launch and impact but has a lower throw-weight. The primary reasons to choose a depressed trajectory are to evade [[anti-ballistic missile]] systems by reducing the time available to shoot down the attacking vehicle (especially during the vulnerable burn-phase against space-based ABM systems) or a nuclear [[first-strike]] scenario.<ref>Science & Global Security, 1992, Volume 3, pp.101-159 Depressed Trajectory SLBMs: A Technical Evaluation and Arms Control Possibilities [http://www.princeton.edu/sgs/publications/sgs/pdf/3_1-2gronlund.pdf]</ref> An alternate, non-military purpose for a depressed trajectory is in conjunction with the [[space plane]] concept with use of [[air-breathing engine]]s, which requires the ballistic missile to remain low enough inside the atmosphere for air-breathing engines to function.
== Combat use ==
The following ballistic missiles have been used in combat:


==Combat use==
* [[Ghadr-110]]<ref>{{cite web | url=https://www.iiss.org/online-analysis/military-balance/2023/10/little-and-large-missile-surprises-in-sanaa-and-tehran/ | title=Little and large missile surprises in Sanaa and Tehran }}</ref>
The [[V-2 rocket|V-2]], [[Scud missile|Scud types]], [[OTR-21 Tochka]], [[9K720 Iskander]], [[MGM-140 ATACMS]], [[LORA (missile)|LORA]],<ref>{{Cite web|url=https://www.thedrive.com/the-war-zone/36877/video-points-to-azerbaijans-first-use-of-israeli-made-ballistic-missile-against-armenia|title = Video Points to Azerbaijan's First Use of Israeli-Made Ballistic Missile Against Armenia}}</ref> [[Ababil-100]], [[Al-Samoud 2]], [[Qaher-1|Qaher-1/2M]],<ref>{{Cite web|url=https://www.longwarjournal.org/archives/2018/03/a-peek-inside-houthi-rebels-recent-missile-strikes-in-saudi-arabia.php|title = A peek inside Houthi Rebel's recent missile strikes in Saudi Arabia &#124; FDD's Long War Journal|date = 28 March 2018}}</ref> [[Fateh-110]], [[Zolfaghar (missile)|Zolfaghar]] and [[Dongfeng (missile)#Dongfeng 12 (CSS-X-15)|DF-12]]<ref>https://nationalinterest.org/blog/buzz/how-chinese-ballistic-missiles-and-iranian-drones-popped-ethiopia%E2%80%99s-civil-war-tigray-0</ref><ref>https://edition.cnn.com/2020/11/14/africa/ethiopia-airport-tigray-intl/index.html</ref> are the only ballistic missiles fired in action.
* [[LORA (missile)|LORA]]<ref>{{Cite web|url=https://www.thedrive.com/the-war-zone/36877/video-points-to-azerbaijans-first-use-of-israeli-made-ballistic-missile-against-armenia|title = Video Points to Azerbaijan's First Use of Israeli-Made Ballistic Missile Against Armenia| date=2 October 2020 }}</ref><ref>{{cite web |url=https://www.smh.com.au/world/middle-east/in-a-first-israel-shoots-down-a-ballistic-missile-in-space-20231106-p5ehs1.html |title=In a first, Israel shoots down a ballistic missile in space |date=5 November 2023 }}</ref>
* [[MGM-140 ATACMS]]<ref>{{Cite web |date=2024-11-26 |title=Key Russian air defence system hit in Ukraine Atacms strike |url=https://www.bbc.com/news/articles/cr4ly626evlo |access-date=2025-03-15 |website=www.bbc.com |language=en-GB}}</ref>
* [[OTR-21 Tochka]]
* [[Qaher-1]]/2M<ref>{{Cite web|url=https://www.longwarjournal.org/archives/2018/03/a-peek-inside-houthi-rebels-recent-missile-strikes-in-saudi-arabia.php|title = A peek inside Houthi Rebel's recent missile strikes in Saudi Arabia | website=FDD's Long War Journal |date = 28 March 2018}}</ref>
* [[Scud missile|Scud]]<ref>{{Cite web |title=Weapons - Ss-1 Scud {{!}} The Gulf War {{!}} FRONTLINE |url=https://www.pbs.org/wgbh/pages/frontline/gulf/weapons/scud.html |access-date=2025-03-15 |website=www.pbs.org}}</ref>
* [[V-2 rocket|V-2]]<ref>{{Cite web |date=2023-11-06 |title=V-2 Missile {{!}} National Air and Space Museum |url=https://airandspace.si.edu/collection-objects/missile-surface-surface-v-2-4/nasm_A19600342000 |access-date=2025-03-15 |website=airandspace.si.edu |language=en}}</ref>
* [[Zolfaghar (missile)|Zolfaghar]]<ref>{{Cite web |title=Iran Hits Syria With Ballistic Missiles {{!}} Arms Control Association |url=https://www.armscontrol.org/act/2017-07/news-briefs/iran-hits-syria-ballistic-missiles |archive-url=https://web.archive.org/web/20241211101120/https://www.armscontrol.org/act/2017-07/news-briefs/iran-hits-syria-ballistic-missiles |archive-date=2024-12-11 |access-date=2025-03-11 |website=www.armscontrol.org |language=en |url-status=live }}</ref>
* [[Kh-47M2 Kinzhal]]<ref>{{Cite report |url=https://www.rand.org/pubs/commentary/2024/01/china-evaluates-russias-use-of-hypersonic-daggers-in.html |title=China Evaluates Russia's Use of Hypersonic 'Daggers' in the Ukraine War |last1=Goldstein |first1=Lyle |last2=Waechter |first2=Nathan |date=2024-01-12 |language=en}}</ref>
* [[Oreshnik (missile)|Oreshnik]]<ref>{{Cite web |date=2024-12-09 |title=Russia has used its hypersonic Oreshnik missile for the first time. What are its capabilities? |url=https://apnews.com/article/russia-oreshnik-hypersonic-missile-putin-ukraine-war-345588a399158b9eb0b56990b8149bd9 |access-date=2025-03-15 |website=AP News |language=en}}</ref>


==See also==
== See also ==
*[[Anti-ballistic missile]]
*[[Ballistic missile flight phases]]
*[[Missile]] (guided)
*[[Multiple independently targetable reentry vehicle|MIRV]]
*[[Multiple independently targetable reentry vehicle|MIRV]]
*[[NATO reporting name]] (has lists of various Soviet missiles)
*[[NATO reporting name]] (has lists of various Soviet missiles)
*[[Payload]]
*[[Surface-to-surface missile]]
*[[Surface-to-surface missile]]
*[[Weapons of mass destruction]]
*[[Weapons of mass destruction]]
Line 143: Line 111:
*[[List of missiles by nation]]
*[[List of missiles by nation]]
*[[List of NATO reporting names for ballistic missile submarines]]
*[[List of NATO reporting names for ballistic missile submarines]]
*[[Missile guidance]]


 
== Notes ==
==Notes==
 
{{Reflist}}
{{Reflist}}


==References==
== References ==
 
*Needham, Joseph (1986). ''Science and Civilization in China: Volume 5, Chemistry and Chemical Technology, Part 7, Military Technology; the Gunpowder Epic''. Taipei: Caves Books Ltd.


==Further reading==
*Needham, Joseph (1986). ''Science and Civilization in China: Volume 5, Chemistry and Chemical Technology, Part 7, Military Technology; the Gunpowder Epic''. Taipei: Caves Books.


*{{cite book| last =Futter| first =Andrew | title =Ballistic Missile Defence and US National Security Policy: Normalisation and Acceptance after the Cold War| publisher =[[Routledge]] | date =2013 | isbn =978-0415817325}}
== Further reading ==
*{{cite book| last =Neufeld|first = Jacob| title =The Development of Ballistic Missiles in the United States Air Force, 1945-1960|publisher= Office of Air Force History, U.S. Air Force|date= 1990|isbn=0912799625 }}
* Bath, David W. ''Assured Destruction: Building the Ballistic Missile Culture of the U.S. Air Force'' (Naval Institute Press, 2020) [http://www.h-net.org/reviews/showrev.php?id=58786 online book review]
*{{cite book| last1 = Swaine|first1 = Michael D. |first2=Rachel M. |last2=Swanger|first3=Takashi|last3= Kawakami|title= Japan and Ballistic Missile Defense| url = https://archive.org/details/japanballisticmi0000swai| url-access = registration|publisher= Rand|date= 2001|isbn=0833030205}}
*{{cite book| last =Futter| first =Andrew | title =Ballistic Missile Defence and US National Security Policy: Normalisation and Acceptance after the Cold War| publisher =[[Routledge]] | date =2013 | isbn =978-0-415-81732-5}}
*{{cite book| last =Neufeld|first = Jacob| title =The Development of Ballistic Missiles in the United States Air Force, 1945–1960|publisher= Office of Air Force History, U.S. Air Force|date= 1990|isbn=0-912799-62-5 }}
*{{cite book| last1 = Swaine|first1 = Michael D. |first2=Rachel M. |last2=Swanger|first3=Takashi|last3= Kawakami|title= Japan and Ballistic Missile Defense| url = https://archive.org/details/japanballisticmi0000swai| url-access = registration|publisher= Rand|date= 2001|isbn=0-8330-3020-5}}


==External links==
== External links ==
*[https://missilethreat.csis.org/ Missile Threat: A Project of the [[Center for Strategic and International Studies]]]
*[https://missilethreat.csis.org/ Missile Threat]: A Project of the [[Center for Strategic and International Studies]]


{{Missile types}}
{{Missile types}}
{{Authority control}}
{{Authority control}}


{{DEFAULTSORT:Ballistic Missile}}
[[Category:Ballistic missiles| ]]
[[Category:Ballistic missiles| ]]
[[Category:Chinese inventions]]
[[Category:German inventions of the Nazi period]]
[[Category:German inventions of the Nazi period]]
[[Category:Wernher von Braun]]
[[Category:Wernher von Braun]]

Latest revision as of 20:02, 28 March 2026


Minuteman-III MIRV launch sequence:
  • 1. The missile launches out of its silo by firing its first-stage boost motor (A).
  • 2. About 60 seconds after launch, the first-stage drops off and the second-stage motor (B) ignites. The missile shroud (E) is ejected.
  • 3. About 120 seconds after launch, the third-stage motor (C) ignites and separates from the second stage.
  • 4. About 180 seconds after launch, third-stage thrust terminates and the post-boost vehicle (D) separates from the rocket.
  • 5. The post-boost vehicle maneuvers itself and prepares for re-entry vehicle (RV) deployment.
  • 6. The RVs, as well as decoys and chaff, are deployed.
  • 7. The RVs (now armed) and chaff re-enter the atmosphere at high speeds.
  • 8. The nuclear warheads detonate.

A ballistic missile is a type of missile that follows a ballistic trajectory and is powered only during a relatively brief initial period—most of the flight is unpowered. Short-range ballistic missiles (SRBM) typically stay within the Earth's atmosphere, while most larger missiles travel outside the atmosphere. The type of ballistic missile with the greatest range is an intercontinental ballistic missile (ICBM). The largest ICBMs are capable of full orbital flight.

These missiles are in a distinct category from cruise missiles, which are aerodynamically guided in powered flight and thus restricted to the atmosphere.

History[edit | edit source]

Replica V-2

One modern pioneer ballistic missile was the A-4,[1] commonly known as the V-2, developed by Nazi Germany in the 1930s and 1940s under the direction of Wernher von Braun. The first successful launch of a V-2 was on October 3, 1942, and it began operation on September 6, 1944, against Paris, followed by an attack on London two days later. By the end of World War II in Europe in May 1945, more than 3,000 V-2s had been launched.[2] In addition to its use as a weapon, a vertically launched V-2 became the first human-made object to reach outer space on June 20, 1944.[3]

The R-7 Semyorka was the first intercontinental ballistic missile.[4]

The Minuteman III was the first ICBM equipped with a Multiple Independently targetable Reentry Vehicle (MIRV) to enter service.[5]

The largest ballistic missile attack in history took place on 1 October 2024 when the Iranian Revolutionary Guard launched about 200 missiles at Israel,[6] a distance of about 1,500 kilometers.[7][8][9] The missiles arrived about 15 minutes after launch.[10] It is believed that Iran's Fattah-1 and Kheybar Shekan missiles were used, which both have a range of about 1,400 km.[11]

Side view of Minuteman-III ICBM

Flight[edit | edit source]

In order to cover large distances, ballistic missiles are usually launched into a high sub-orbital spaceflight; for intercontinental missiles, the highest altitude (apogee) reached during free-flight is about 4,500 kilometers (2,800 mi).[12] A ballistic missile's trajectory consists of three parts or phases: the boost phase, the mid-course phase and the terminal phase. Special systems and capabilities are required to facilitate the successful passage from one phase to the other.[13]

The boost phase is the powered flight portion, beginning with the ignition of the engines and concluding with the end of powered flight. The powered flight portion can last from a few tenths of seconds to several minutes and can consist of multiple rocket stages.[14] Internal computers keep the missile aligned on a preprogrammed trajectory.[13] On multi-stage missiles, stage separation (excluding any post-boost vehicles or MIRV bus) occurs primarily during the boost phase.

The mid-course phase is the longest in the missile's trajectory, beginning with the conclusion of powered flight. When the fuel is exhausted, no more thrust is provided and the missile enters free flight. During this phase the missile, now largely consisting of a warhead or payload and possibly defensive countermeasures and small propulsion systems for further alignment toward its target, will reach its highest altitude and may travel in space for thousands of kilometres (or even indefinitely, in the case of some fractional-orbital capable systems) at speeds of up to 7.5 to 10 kilometres per second (4 to 5 nautical miles per second).[15]

The last phase in the missile's trajectory is the terminal or re-entry phase, beginning with the re-entry of the missile into the Earth's atmosphere (if exoatmospheric)[14][15] where atmospheric drag plays a significant part in missile trajectory, and lasts until missile impact.[14] Re-entry vehicles re-enter the Earth's atmosphere at very high velocities, on the order of 6–8 kilometers per second (22,000–29,000 km/h; 13,000–18,000 mph) at intercontinental ballistic missile ranges.[16] During the beginning of this phase, the missile's trajectory is still relatively well defined, though as the missile reaches the heavier layers of atmosphere it is increasingly influenced by gravity and aerodynamic drag, which can affect its landing.[15]

Types[edit | edit source]

Trident II SLBM launched by ballistic missile submarine

Ballistic missiles can be launched from fixed sites or mobile launchers, including vehicles (e.g., transporter erector launchers), aircraft, ships, and submarines. Ballistic missiles vary widely in range and use, and are often divided into categories based on range. Various schemes are used by different countries to categorize the ranges of ballistic missiles:

Long- and medium-range ballistic missiles are generally designed to deliver nuclear weapons because their payload is too limited for conventional explosives to be cost-effective in comparison to conventional bomber aircraft.

Quasi-ballistic missiles[edit | edit source]

A quasi-ballistic missile is a category of SRBM that is largely ballistic but is fully guided and can perform maneuvers throughout the entirety of atmospheric flight to make unexpected changes in direction and range.[17] Large guided MLRS rockets with range comparable to an SRBM are sometimes categorized as quasi-ballistic missiles.[18]

List of quasi-ballistic missiles[edit | edit source]

 India
 Israel
 United States


Hypersonic ballistic missile[edit | edit source]

Many ballistic missiles reach hypersonic speeds (i.e. Mach 5 and above) when they re-enter the atmosphere from space. However, in common military terminology, the term "hypersonic ballistic missile" is generally only given to those that can be maneuvered before hitting their target and do not follow a simple ballistic trajectory.[22][23]

Throw-weight[edit | edit source]

Throw-weight is a measure of the effective weight of ballistic missile payloads. It is measured in kilograms or tonnes. Throw-weight equals the total weight of a missile's warheads, reentry vehicles, self-contained dispensing mechanisms, penetration aids, and any other components that are part of the delivered payload, and not of the rocket itself (such as the launch rocket booster and launch fuel).[24] Throw-weight may refer to any type of warhead, but in normal modern usage, it refers almost exclusively to nuclear or thermonuclear payloads. It was once also a consideration in the design of naval ships and the number and size of their guns.

Throw-weight was used as a criterion in classifying different types of missiles during Strategic Arms Limitation Talks between the Soviet Union and the United States.[25] The term became politically controversial during debates over the arms control accord, as critics of the treaty alleged that Soviet missiles were able to carry larger payloads and so enabled the Soviets to maintain higher throw-weight than an American force with a roughly comparable number of lower-payload missiles.[26]

The missiles with the world's heaviest payloads are the Russian SS-18 and Chinese CSS-4 and as of 2017, Russia was developing a new heavy-lift, liquid-propellant ICBM called the Sarmat.[16]

Depressed trajectory[edit | edit source]

Example of depressed trajectory: Fractional Orbital Bombardment System

Throw-weight is normally calculated using an optimal ballistic trajectory from one point on the surface of the Earth to another. A "minimum-energy trajectory" maximizes the total payload (throw-weight) using the available impulse of the missile.[27] By reducing the payload weight, different trajectories can be selected, which can either increase the nominal range or decrease the total time in flight.

A depressed trajectory is non-optimal, as a lower and flatter trajectory takes less time between launch and impact but has a lower throw-weight. The primary reasons to choose a depressed trajectory are to evade anti-ballistic missile systems by reducing the time available to shoot down the attacking vehicle (especially during the vulnerable burn-phase against space-based ABM systems) or a nuclear first-strike scenario.[28] An alternate, non-military purpose for a depressed trajectory is in conjunction with the spaceplane concept with use of airbreathing jet engines, which requires the ballistic missile to remain low enough inside the atmosphere for air-breathing engines to function.

In contrast, a "lofted" trajectory is frequently used for testing purposes, as it reduces the range of the missile (allowing for a controlled and observed impact), as well as signals a lack of hostile intention with the test.[29][27]

Combat use[edit | edit source]

The following ballistic missiles have been used in combat:

See also[edit | edit source]

Notes[edit | edit source]

  1. Zaloga, Steven (2003). V-2 Ballistic Missile 1942–52. Reading: Osprey Publishing. p. 3. ISBN 978-1-84176-541-9.
  2. Clayton K. S. Chun (2006). Thunder Over the Horizon: From V-2 Rockets to Ballistic Missiles. Greenwood Publishing Group. p. 54.
  3. Wade, Mark. "Peenemuende". Astronautix.com. Archived from the original on 2005-04-25. Retrieved 2019-06-07.
  4. "Launching The Space Age". airandspace.si.edu. Retrieved 2023-03-01.
  5. "MIRV missiles". learnfinite.com. Retrieved 2026-01-23.
  6. Schneider, Tal (6 October 2024). "How effective was Iran's attack? The Israeli public doesn't have the full picture". The Times of Israel. Retrieved 27 October 2024.
  7. "What to Know About Iran's Ballistic Missile Attacks and Israel's Efforts to Defend Itself | AJC". www.ajc.org. 2024-10-25. Retrieved 2024-10-27.
  8. "MSN". www.msn.com. Retrieved 2024-10-27.
  9. "Distance from Jerusalem, Israel to Tehran, Iran". www.geodatos.net. Retrieved 2024-10-27.
  10. "What we know about Iran's latest missile attack on Israel". www.bbc.com. 3 October 2024. Retrieved 2024-10-27.
  11. Doyle, Gerry (2 October 2024). "Iranian missile strike on Israel shows capability for greater scale, complexity". Reuters. Retrieved 27 October 2024.
  12. "North Korea launches 'highest ever' ballistic missile". BBC. 28 November 2017.
  13. 13.0 13.1 Chun, Clayton K. S. (2006). Thunder over the horizon: from V-2 rockets to ballistic missiles. War, technology, and history. Westport, CN.: Praeger Security International. p. 2. ISBN 978-0-275-98577-6.
  14. 14.0 14.1 14.2 McFadden, Christopher (4 December 2017). "What is an intercontinental ballistic missile and how does it work?".
  15. 15.0 15.1 15.2 Chun, Clayton K. S. (2006). Thunder over the horizon: from V-2 rockets to ballistic missiles. War, technology, and history. Westport, Conn.: Praeger Security International. p. 4. ISBN 978-0-275-98577-6.
  16. 16.0 16.1 "Ballistic and Cruise Missile Threat". Defense Intelligence Ballistic Missile Analysis Committee. June 2017.
  17. Delory, Stéphane (January 2020). "Ballistic missiles and conventional strike weapons: Adapting the HCoC to address the dissemination of conventional ballistic missiles" (PDF). Nonproliferation.eu. Fondation pour la Recherche Stratégique. Quasi-ballistic flight within the atmosphere requires permanent guidance of the missile during its flight and therefore real-time calculation of the vehicle's aerodynamic behaviour.
  18. "MLRS For Army and Indigenous Capability". SPS Land Forces.
  19. Menon, Adithya Krishna (2026-01-29). "India showcases first Hypersonic Anti-Ship Missile System in national parade". Naval News. Archived from the original on 2026-01-29. Retrieved 2026-01-29.
  20. "MGM-140 ATACMS Short-Range Ballistic Missile". www.militarytoday.com. Archived from the original on 2023-10-27. Retrieved 2023-10-26.
  21. "Precision Strike Missile (PrSM)". Lockheed Martin. Retrieved 2023-10-26.
  22. "'National pride is at stake.' Russia, China, United States race to build hypersonic weapons". www.science.org. Retrieved 2022-11-21.
  23. Gale, Alastair (February 2022). "What Are Hypersonic Missiles and Who's Developing Them?". WSJ.com. Retrieved 2022-11-20.
  24. "What is throw weight?". The New York Times. 15 July 1991. p. 10, Sec. A. Retrieved 13 April 2024.
  25. James John Tritten, Throw-Weight and Arms Control Archived 2007-11-23 at the Wayback Machine, Air University Review, Nov-Dec 1982.
  26. What Is Throw-Weight? Archived 2022-11-26 at the Wayback Machine, New York Times, July 15, 1991.
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References[edit | edit source]

  • Needham, Joseph (1986). Science and Civilization in China: Volume 5, Chemistry and Chemical Technology, Part 7, Military Technology; the Gunpowder Epic. Taipei: Caves Books.

Further reading[edit | edit source]

  • Bath, David W. Assured Destruction: Building the Ballistic Missile Culture of the U.S. Air Force (Naval Institute Press, 2020) online book review
  • Futter, Andrew (2013). Ballistic Missile Defence and US National Security Policy: Normalisation and Acceptance after the Cold War. Routledge. ISBN 978-0-415-81732-5.
  • Neufeld, Jacob (1990). The Development of Ballistic Missiles in the United States Air Force, 1945–1960. Office of Air Force History, U.S. Air Force. ISBN 0-912799-62-5.
  • Swaine, Michael D.; Swanger, Rachel M.; Kawakami, Takashi (2001). Japan and Ballistic Missile Defense. Rand. ISBN 0-8330-3020-5.

External links[edit | edit source]

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