Managing the Long-Range Missiles

The massed attacks on Ukraine today again raises the question about different approaches to managing the long-range ballistic and cruise missile threat, and while I don’t claim to have written the book on the issue, I did write a chapter with that headline for a Swedish Defence Research Agency (FOI) report a few years ago. As such, I have given the topic some thought. The bottom line is, it’s difficult and there’s no single answer.

A Russian Tu-95 heavy bomber sporting a number of Kh-101 cruise missiles, a weapon reportedly used in the strikes on Ukraine today. Source: Dmitry Terekhov/Wikimedia Commons

To begin with, we need to differentiate between ballistic missiles such as Iskanders which are really difficult to shoot down, and cruise missiles which fly towards the target as (often small) unmanned aircraft. While a number of ground-based air defence systems are able to target at least some ballistic missiles, these are of the high-end (and as such expensive) kind, and their coverage against ballistic missiles is significantly smaller than against other flying things due to the ballistic missiles approaching their targets more or less vertically at extreme speeds.

Cruise missiles are easier targets. They come in different shapes and sizes, and rely on a combination of small size, speed, and in some cases stealth and/or electronic countermeasures to avoid interception. However, the most common defensive measure of cruise missiles is the rather straightforward method of keeping low. Flying at low altitude means that the window ground-based systems have to acquire and target them is low, and the problem is further emphasised if the air defence battery is set up in terrain such as forests, hills, or urban areas. But everything is relative. The high cruising speed is still subsonic for the majority of systems, meaning that few missiles are travelling at higher speeds than fighters or strike aircraft do. The size is small compared to fighters, but still comparable to, or larger than, many drones. As such, to make a complex question overly simple – if an air defence system is able to counter fighters and drones, cruise missiles aren’t out of reach. The most extreme version of this is evident in a widely circulated video shot today which appears to show an old Igla MANPADS used to take down a cruise missile.

While this is an extreme case, it also illustrate the point well. Note that the shooter has ample time to figure out what is happening and set up the shot in the flat and open terrain.

The best counter to cruise missiles is however not old MANPADS nor top-of-the-line systems such as Patriot or SAMP/T. Rather it is modern medium-range systems, with NASAMS being the obvious choice here due to Ukrainian familiarity with the system. A number of other systems such as the CAMM would also fit the bill. The key detail is that these provide greater number for a given cost compared to more high-end ones. And when it comes to adding coverage, the number of batteries will always matter more than the range of individual systems. This is of even greater importance in Ukraine’s situation, as the country is large and with Russia resorting to terror bombings the number of potential targets is huge.

However, that is not to say that other air defence systems aren’t of interest to Ukraine. Getting shorter-ranged systems or older ones will free up the more capable ones to the counter-missile mission. With the drone threat also having ticked up recently with the supply of Iranian systems, it is evident that all kinds of air defence systems are extremely valuable to Ukraine for the time being.

A NASAMS-launcher during a Norwegian exercise. The modularity and relatively large number of missiles ready to fire makes the system a prime candidate for anyone wanting to shoot down cruise missiles. Source: Soldatnytt/Wikimedia Commons

Another way to kinetically ensure that missiles aren’t raining down over Ukraine is to hit the systems launching these. This include Russian strike and bomber aircraft, naval vessels including submarines, and launch vehicles such as Iskander units. Obviously, hitting airfields, maritime infrastructure, missile storage sites, and so forth will also achieve the desired effect. Many of these targets are however situated deep inside Russia, and as such Ukraine have difficulties reaching these both due to the lack of suitable weapon systems as well as due to reported Western restrictions on using Western supplied weaponry to reach targets on Russian soil. At this stage of the conflict, providing suitable weapons for Ukrainian long-range strikes on military targets deep inside Russia should be a no-brainer.

But getting complete cover will always be prohibitively expensive and require more resources than Ukraine or anyone else would have available. As such a big part of the answer is usually dispersion, fortification, and creating redundant systems, all of which are naturally more relevant against an enemy actually trying to hit something useful rather than just trying to kill civilians. As such, the real way to stop Russian missiles will be a Ukrainian victory. This will require stepping up support in a number of areas. This includes more of what has already been delivered, including both weapons and financial aid. However, it is also high time to supply new capabilities. This includes finally getting Ukraine those Leopards, as well as starting training on modern western multirole fighters. The F-16 is the obvious candidate, and while it could provide a measure of defence against cruise missiles, the big deal is the general ability to pound targets on the ground with modern weaponry and drastically increase the Ukrainian ability to defend their skies from enemy fighters and helicopters. Because as the war currently sits, the Russian strategy seems largely to be to burn everything they can’t have down to the ground, and the sooner we’ll take the matches from the arsonist, the less damage he’ll be able to cause.

The Iskander Threat

Few modern weapon systems have the power to captivate popular imagination the way the Iskander does. Partly this stems from the lack of a clear specification, both for operational security reasons and because the system violates the (recently deceased) INF-treaty. Another reason for the allure is that the system represents a new capability, which so far has not been found in the Russian (nor in too many other countries’) arsenal, and lastly but not least the simple fact that it can carry nuclear warheads.

Iskander-M being launched. Source: Mil.ru via Wikimedia Commons

In addition, there is widespread confusion amongst non-defence geeks about how exactly the Iskander and other ballistic missiles differ from the more widespread cruise missiles, and how to defend against enemy Iskander-attacks. This blog will strive to sort out some of these misconceptions, and give a picture of how the Iskander threat should be evaluated.

The basic Iskander, Iskander-M, is a ballistic missile. For those into the details, the system’s official GRAU designation is 9K720 while the missile itself is designated 9M723. The word “ballistic” means that the missile roughly follows a ballistic trajectory, i.e. the path an object would take if you would throw it. A big rocket engine propels the Iskander up in the air, after which it will fall down onto the target. It isn’t a pure ballistic trajectory, the missile is guided and can make course changes, but it can’t e.g. regain height once it has started diving.

As said, the exact performance is shrouded in secrecy. The most often quoted figures is a range of 400-500 km, and a warhead of 700 kg. However, professor Stefan Forss already in 2012 noted that the official numbers doesn’t quite add up, and calculated a range of 500-750 km, while also noting that some Russian sources “could imply a heavy penetrating warhead weighing about 1,300 kg.” Note though that 700+ km ranges aren’t possible with such a heavy warhead in current configuration (the range calculations were made based on a 400 kg nuclear warhead). The missile likely has a CEP better than 10 meter under ideal circumstances, i.e. half of the missiles will fall within that distance of the target. A 700 kg warhead hitting within 10 meters, especially considering the kinetic energy of the approaching missile, does make the weapon viable to use against individual buildings with a conventional (i.e. non-nuclear) warhead, something which was not the case with Cold War missiles such as the SCUD or Tochka. However, like the earlier missiles, the Iskander is only capable of attacking fixed targets.

It is obvious that if you are supposed to reach a target hundreds of kilometers away with a ballistic trajectory you will need to go fast or high, preferably both. This is what makes shooting down ballistic missiles so hard. The Iskander missile dives towards the target at speeds of 2-3 kilometer per second. Trying to shoot down a maneuvering target falling towards the earth at eight times the speed of sound is extremely difficult, and require a very fast missile placed close to the target of the Iskander. The Patriot system does feature missiles capable of intercepting Iskanders (though their efficiency is questioned), and this is what the Swedish Army is in the process of acquiring. Needless to say, the capability doesn’t come cheap: the Swedish deal is valued at 2-3 billion Euros, which will give four batteries with anti-ballistic missile and anti-aircraft missiles.

However, the Iskander isn’t exactly cheap either. A missile brigade, there are ten to twelve in total in the Russian Armed Forces, feature twelve launchers meaning that the opening salvo of all Russian operational Iskanders would have a hard cap of 288 missiles. This would likely be lower as 100% availability is usually restricted to utopia and all brigades wouldn’t be directed against a single target anymore than all armoured brigades would.

Now, a hundred unstoppable conventional warheads raining down on Finland would cause issues. Targeting strategic sites such as bridges, headquarters, utilities such as power and water plants, would very quickly make things complicated. However, this is not in and by itself a war-winning weapon. Granted there could be a second wave, possibly even a third, but the supply of missiles aren’t endless. High-end weapons comes with a cost, even if you’re trading in rubles. In the end destruction caused by traditional air strikes coupled with cruise missiles will quickly become a bigger issue.

MiG-31 with Kinzhal air-launched ballistic missile at the Moscow Victory Day parade 2018. Source: Wikimedia Commons

A short note on the Kh-47M2 Kinzhal. This is a large missile carried by the MiG-31 heavy fighter. It is part of the family of recently unveiled Russian “super-weapons” aimed at ensuring a Russian nuclear deterrent in the face of developments when it comes to missile defences. The Kinzhal seems to be a modified version of the Iskander-M missile, which thanks to higher launch speed and height gives it a range of over 800 km (1,000 to 3,000 km is often quoted, but it seems that these numbers include the combat range of the aircraft). Kinzhal seems to be a more realistic option compared to several other of the unveiled systems, but exact specifications and whether Russia will field a conventionally armed version are still unclear.

Cruise Missiles

Cruise missiles are a completely different breed of beasts. They are in essence unmanned aircraft carrying a warhead to a target. The size, range, operating methods, launching platforms, and warhead types varies, but in essence they have an engine and wings to allow them to fly long distances, and then crash into whatever their target is. Often the cruise missiles fly towards their targets at very low altitude, using the terrain to mask their approach. The Finnish Air Force operate the AGM-158 JASSM cruise missile, while the Navy’s current and upcoming anti-ship missiles both exhibit similar traits (it is largely a question of nomenclature/taxonomy rather than any practical differences if anti-ship missiles should be counted amongst cruise missiles or as a detached family of their own).

The firing unit of the NASAMS, sporting six canister mounted AIM-120 AMRAAM missiles. Source: Maavoimat FB

Now, as the cruise missile flies like an aircraft towards its target it can also be shot down like one, using the regular means of fighters and ground based air defences. Cruise missiles can make tricky targets due to their low altitude, speed, and (in some cases) stealthiness, but a modern SAM-system such as the NASAMS of the Finnish Army should have no problem in bringing down one, provided it is located in the appropriate spot.

As opposed to ballistic missiles, cruise missiles have shown a nasty tendency to proliferate. In part this is due to the low(er) cost compared to modern ballistic missiles of the same class as the Iskander. The most famous example of a modern Russian cruise missile is the 3M14 Kalibr land-attack missile (think Tomahawk/TLAM), which sports a range of 2,000 km and comes in at a unit cost of 1.1 million Euro. The weapon is officially in use aboard a number of modern Russian warships (including submarines), and likely it is this very missile that is carried by the Iskander-K under the designation 9M729. Yes, confusingly enough there is both a ballistic missile-carrying version of the Iskander and a cruise missile-carrying version. Generally, if people refer to something simply as the “Iskander”, it is the ballistic missile-carrying Iskander-M they mean.

The 9M729 is also at the centre of the INF-controversy which led to the US declaring the treaty void (INF doesn’t cover sea-based missiles, but as soon as the Kalibr was brought ashore it became illegal under the INF-treaty).

An Iskander-K with one of it’s two cruise missile containers raised. Source: Vadim Grishankin via Wikimedia Commons

If it is the unstoppable nature of the ballistic missile that makes the Iskander-M a threat, it is the large number of missiles coupled with the vast range that makes the Kalibr/Iskander-K one. Finland is within range of the Kalibr of both the Baltic as well as the Northern Fleet, where the vessels of the Northern Fleet effectively are beyond the reach of the anti-ship weapons of the Finnish Defence Forces.

Conclusions

The Iskander-M is a threat. So is the Kalibr/Iskander-K and other cruise missiles. However, they have very little common with each other, besides the fact that they transport warheads into enemy territory (as does strike aircraft). Phrases such as “the ability to defend against Iskander and Kalibr-missiles” are sometimes thrown around as if they are referring to a single capability, when in fact they are vastly separate issues. We already have the capability to defend against cruise missiles in all three services, with weapons such as the NASAMS, Umkhonto, and the AIM-120 AMRAAM. Acquiring point-defence capabilities against the Iskander for four possible targets would be a project comparable in cost to two Squadron 2020-projects. Not vessels, but two complete projects of eight vessels in total. As such, it is hard to argue with the official Finnish position that we’ll simply have to disperse and be prepared to suffer a number of Iskander hits, while at the same time investing further in medium-range air defence capabilities to defend against cruise missiles and enemy aircraft. The combination of Squadron 2020, HX, and the Army’s new GBAD-program will make the skies over Finland much deadlier for an attacker in the upcoming decades. Just not for their ballistic missiles.

Syrian Strikes

“They had three buildings there [Barzah scientific research center] and a parking deck,” McKenzie said.
“Now they don’t.” via USNI.

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French frigate firing off one of the three MdCN cruise missiles that were part of the strike. Source: Marine Nationale

As information about yesterday’s strikes against targets in Syria has been slowly to trickling out throughout the weekend, it is by now possible to piece together a picture of the raid. Perhaps the single most informative piece was the press briefing held by Pentagon.

In short, the following units were involved:

ArmĂ©e de l’Air

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Two-seater Rafale B launching with twin SCALP EG cruise missiles under the wings. Source: French MoD

5x Dassault Rafale, launching 9 SCALP EG cruise missiles

4x Mirage 2000-5, escort

E-3FR AWACS and KC-135R/C-135F aerial refuelling aircraft

All aircraft operated out of bases in France

Royal Air Force

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Tornado GR.4 sporting two Storm Shadow cruise missiles under the fuselage. Source: British MoD / © Crown copyright 2013 (unmodified news item)

4x Tornado GR.4, launching 8 Storm Shadow cruise missiles

?x Typhoon FGR.4, escort

Operating out of RAF Akrotiri on Cyprus

USAF

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B-1B preparing to launch for the raid from Al Udeid Air Base, Qatar. Source: US AFCENT

2x B-1B, launching 19 AGM-158A JASSM cruise missiles

?x F-16, escort

?x F-15, escort

?x F-22 Raptors, escort

Numerous supporting assets, including RQ-4B Global Hawk UAV’s for intelligence gathering, E-3 AWACS, KC-135 and KC-10 aerial refuelling aircraft, and likely a single E-11B relay aircraft

Bombers operating out of Al Udeid AB in Qatar, fighters from both Al Udeid and European bases

Edit: updated information corrected the JASSM version from -ER to the baseline version which is also in Finnish use, and included the presence of F-22’s as escort.

USMC

VMAQ-2 Transits Souda Bay
No image of the EA-6B from VMAQ-2 which was part of the raid has been released as far as I know. Here is a similar aircraft from the same squadron during a stopover in Crete, Greece, back in 2007. Source: U.S. Navy photo by Mr. Paul Farley via Wikimedia Commons

1x EA-6B Prowler, ECM escort

Operated out of Ahmad al-Jaber Air Base, Kuwait

Marine National

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FREMM-class frigate Aquitaine (D650), likely the vessel that fired the MdCN missiles. Source: Marine National

1x FREMM-class frigate, launching 3 MdCN

Operating in the Mediterranean

US Navy

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Ticonderoga-class cruiser USS Monterey (CG-61) launching TLAM missiles from the Red Sea. Source: US Navy via USNI

1x Ticonderoga-class cruiser

1x Arleigh Burke-class destroyer

Operating in the Red Sea, launching a total of 37 TLAM cruise missiles

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USS Higgins (DDG 76) which launched the strikes from the Persian Gulf. Source: US Navy/Photographer’s Mate 2nd Class Frederick McCahan

1x Arleigh Burke-class destroyer, launching 23 TLAM cruise missiles

Operating in the Persian Gulf

USS California at sea during sea trials.
Virgina-class SSN underway. Source: Chris Oxley/U.S. Navy via Wikimedia Commons

1x Virgina-class attack submarine, launching 6 TLAM cruise missiles

Operating in the Mediterranean

Alert readers will note that the total amount given is 105 cruise missiles (36 air-launched, 63 ship-launched, and 6 sub-launched), coming in two above the 103 given by Russian sources. The missiles hit the following targets:

Barzah/Barzeh Scientific Research Center

Situated in the western parts of Damascus, the center was hit by 57 TLAM and 19 JASSM missiles.

Sputnik published a video reportedly shot at the scene, which seems to match the location below. It also matches the description given by the Pentagon, in that three large buildings have been completely destroyed.

Interestingly, the dual weapons used says something about the nature of the target. While the TLAM has a rather standard 1,000 lb (454 kg) class blast/fragmentation warhead (i.e. it explodes and creates shrapnel), the JASSM sports what Lockheed Martin calls a “2,000-pound [908 kg] class weapon with a dual-mode penetrator and blast fragmentation warhead” (i.e. it is made to penetrate hardened structures such as bunker before then exploding and creating shrapnel). Another thing to note is that the number 57 does not correspond to any possible combination of the salvos from individual ships, meaning that at least one vessel targeted two different sites.

Him Shinsar chemical weapons storage facility

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BDA pictures of the Him Shinshar. Source: Pentagon

The bunkers and facilities used for storing chemical weapons were hit by 22 weapons, these being 9 TLAM, 8 Storm Shadow, 2 SCALP EG, and 3 MdCN. This clearly shows the different nature of the target compared to the research center, as the number of missiles is much smaller, but also the fact that 13 out of 20 missiles were bunker-busting Storm Shadow/SCALP EG/MdCN (which are simply different local designations for the same missile, with MdCN being the ship-launched version). The Pentagon briefing described the target as ‘destroyed’, and while it is harder to verify when it comes to underground installations, significant damage is visible in the satellite imagery posted since.

Him Shinshar command facility

The final target was a command facility associated with the Him Shinshar site. This was hit by the last 7 SCALP EG. Pentagon described the facility as having taken ‘damage’, as opposed to the two others which were rated as ‘destroyed’. It is unclear if this is a failure, or simply representative of the different nature of the target. Command facilities might be able to continue to function to some extent even if key buildings are wiped out, which is not the case with a storage facility in which the storage buildings are hit.

In any case, satellite imagery shows what looks like two larger and one smaller hardened building having been targeted and destroyed.

Conclusions

Despite wild claims of the majority of the missiles having been intercepted and the rest having missed, it is clear that the raid was an unequivocal success on the tactical level. The targeted sites have all suffered heavy damage. If the description of the nature of the targets is correct, it is highly possible that the use of sarin has been made harder by the strikes. Obviously, this does not stop the regime from using a whole number of other ghastly weapons and tactics, including barrel bombs, starvation through sieges, and quite possibly industry grade chlorine (which has been featured in numerous attacks in Syria).

Notable is also the fact that several of the weapons and systems used were making their combat debuts. These include the JASSM and MdCN, as well as the Virgina-class SSN. From a Finnish viewpoint, the combat launch of JASSM (albeit not in the exact version used by the Finnish Air Force) was certainly of interest. However, it should be noted that ‘damaging’ a single command facility virtually undefended by air defences required 7 missiles of the same class as the JASSM, something which puts the Finnish acquisition of (a maximum) of 70 JASSM into perspective.

When it comes to the defences, it is clear that the talk of the S-400 deployment in Syria creating an impenetrable A2/AD-bubble stopping western strikes was not correct. While many of the earlier Israeli strikes had taken place in areas which present difficulties for the S-400 (and supporting shorter-ranged systems) to see and intercept the targets, the strike waves approaching over the eastern Mediterranean would be more or less the perfect scenario for long-ranged SAM-systems, and is very similar to the setup of systems operating from Kaliningrad which often are described as being able to deny NATO access to the Baltic Sea. While it likely was political will that stopped the Russian air defence systems from being activated, the Syrians did their best, with around 40 missiles having been reported by Pentagon as fired. While it is not impossible that some of the cruise missiles were intercepted, it is clear from the pictures linked above that even this barrage of air defence missiles was unable to serious lessen the damage suffered by the Syrians. A significant issue was likely that all missiles struck their targets within an extremely short time span, leaving the individual air defence batteries saturated.

Cruise Missiles for HX

From the outset the Finnish Defence Forces have been stating that they are not replacing a multirole fighter (and thus buying a new one), but instead they are replacing the capabilities of it (and thus buying a new one to provide the same capabilities as the old one). This might look like semantics, but was suddenly brought to the forefront when the RFI for weapons and external sensors was sent out.

Short background: the current Finnish Hornet-fleet sport five different weapon types (plus an internal gun). The AIM-9 Sidewinder (in L- and X-versions) provide short-range air-to-air capability, while the AIM-120C provide medium-range air-to-air capability. With the MLU2 air-to-ground weapons have been brought in as well. The JDAM-series of guidance kits are fitted to ordinary 225, 450, and 900 kg bombs (official designations then being GBU-38, GBU-32, and GBU-31 respectively). These use a combination of internal navigation (INS) and GPS to provide accurate hits on the target. The main problem is that hitting moving targets doesn’t really work, which have prompted the creation of other guidance kits sporting laser guidance in combination with INS and/or GPS. These have however not been acquired by Finland. Also, the range is short, and in practice the fighter has to overfly the target. Still, the JDAM is cheap and reliable, and has proved a favourite in Afghanistan and the Middle East. Time will tell if the recent GPS-jamming incidents will cause issues for weapons which rely on GPS for navigation and/or target acquisition.

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Finnish F/A-18C Hornet upgraded to the MLU2-standard displaying AIM-9X and AIM-120C air-to-air missiles as well as JDAM and AGM-158 JASSM air-to-surface weapons. Source: Ilmavoimat
A solution to getting more range out of a bomb is to fit it with wings, which leads to the AGM-154 JSOW. The JSOW feature folding wings which deploys after launch, letting the weapon glide towards the target. Three different versions are found, of which two hold submunitions (‘cluster bombs’), while the third is a single BROACH-warhead. The BROACH feature a two-stage warhead where a small(ish) shaped charge first blows a hole in the target, which the main warhead the flies through and detonates on the inside of (see this Australian clip of a live-fire test, the slow-motion entry is found at the 0:54 mark). For improved accuracy the AGM-154C with the BROACH feature an infrared seeker for terminal guidance. In Finnish service the JSOW is something of an enigma, with both the number of weapons and version acquired being unclear to me. I had originally thought the JSOW had been acquired in a very limited number for test and evaluation purposes only in case the JASSM wouldn’t be cleared for export, but during Ruska17 it was mentioned as part of the Finnish arsenal. It seems likely that a small number of AGM-154C JSOW are found as a cheaper mid-range solutions for targets which might be too well-defended for a JDAM-run. The big problem with the JSOW is that as it lacks an engine, its range is highly dependent on the speed and height of the aircraft when launched.

The silver bullet in the Finnish airborne arsenal is the AGM-158 JASSM. The JASSM feature a 450 kg penetrating warhead in the form of the WDU-42/B, and is powered by a small jet engine giving it significantly longer range than the JDAM and JSOW. The cruise missile is stealthy, and navigates by combining GPS and INS during flight, before switching on a IR-seeker for terminal guidance. It is a smart weapon even by modern standards, and dives towards the target at different angles depending on the amount of penetration needed (steeper for harder targets such as bunkers). All this also makes the weapon rather expensive, with the DSCA listing the Finnish request for up to 70 weapons at an estimated value of 255 million USD.

These are the capabilities to be replaced: the ability to shoot down enemy aircraft at different ranges, and to strike hard but not necessarily moving targets at all ranges.

It is important to remember that the weapons work already before release, in that any potential attacker has to calculate with the Finnish Air Force being able to launch a strike taking out key installations such as bridges and command bunkers deep behind enemy lines without ever being close to these. The psychological effect of the nagging knowledge that when getting inside a few hundred kilometers of the frontline you are always under threat should not be underestimated.

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An F-35C Lighting II conducts separation tests of an AGM-154 JSOW. The white dots are photo calibration markings. Source: U.S. Navy photo by Dane Wiedmann via Wikimedia Commons
The press release on the RFI was rather bland, but Jarmo Huhtanen of Finnish daily Helsingin Sanomat had an interesting interview with engineering brigadier general Kari Renko. Renko dropped a very interesting comment, which will have huge consequences for the HX-program.

We won’t go down the route of starting to develop the integration of machine and weapon. We’re buying missiles, their documentation, transportation containers, training, and so forth.

He also mentions that the weapons and sensors will account for roughly a tenth of the total budget, i.e. in the neighbourhood of 700 million to 1 billion Euros. A second interview with program manager Lauri Puranen (retired FiAF major general) in Finnish paper TalouselÀmÀ takes a slightly different view, putting the total weapon cost at 10-20% of the total value, i.e. 700 million to 2 billion Euros, though he notes that there is no idea in buying the whole stock immediately upon ordering the fighters, as the weapons have limited shelf life (this might explain the difference their estimates). This sounds about right for providing a small stock of short- and medium-ranged air-to-air missiles and a few different air-to-ground weapons. A short mention of DSCA cost estimates for similar weapons from recent years.

It must be said that this is a very Finnish way of making defence acquisitions. Buying just behind the cutting edge, at the (hopefully) sweet spot where the R&D work is done and the true costs are known while still modern enough to be considered high-tech. The package above comes in at 1.08 billion Euros and would be something of a bare minimum (e.g. 64 fighters would get an average of 4.7 AMRAAMS each, meaning that after the first wave was launched there wouldn’t be any reloads to talk about). The Finnish order is also likely to be more air-to-air heavy than the mix above would be.

It also means that if Renko (who have his roots in the Air Force) is to be taken literally, the HX-field will be turned upside down.

The air-to-air part is no problem, all contenders have sufficient missiles integrated. Guided bombs are also found, though in most cases not JDAM’s but rather laser or hybrid laser/GPS/INS-guided ones. It is questionable if the JSOW is actually needed as the Goldilock-solution between a guided bomb and a cruise missile, and if it is a priority to be bought at the beginning of the project. In any case, it is fully integrated on the F/A-18E/F Super Hornet, while the Rafale feature the AASM ‘Hammer’-series of modular guidance/propulsion kits which include interesting versions that also exist in the middle ground between guided bombs and ‘true’ missiles.

© Alex Paringaux
A Rafale C in flight equiped with wingtip Mica IR air-to-air missiles, 2000 ltr drop tank on inboard station and SCALP-EG (Storm Shadow in British service) cruise missile on the outer station. Source: © Alex Paringaux courtesy of Dassault Aviation
The big dealbreaker is the cruise missile. If Renko means business, that the HX need to have a long-range cruise missile with a serious penetrating warhead ready by the time it reaches full operational capability in the 2029-2031 time span, two of the top-contenders have a problem at their hands.

The Rafale and the Eurofighter Typhoon both sport the joint-French/English SCALP/Storm Shadow. This is a highly potent weapon in the same class as the JASSM, including a stealthy design, and is combat proven over Iraq, Syria, and Libya. The Rafale already carry the weapon, while the Typhoon is about to get it as part of the P3E upgrade currently underway. As such, both should welcome the news that this is a requirement.

The F/A-18E/F Super Hornet just might get a pass, as it sport the Harpoon-based SLAM-ER with a 360 kg WDU-40/B titanium-reinforced penetrating blast warhead. The SLAM-ER feature many of the same capabilities as the JASSM (though being lighter and shorter-legged), and is the US Navy’s answer to the gap created in their inventory when they dropped out of the JASSM-program. The fighter is also in the process of getting the AGM-158C LRASM, the anti-shipping derivative of the JASSM, which might offer a possibility to fast-track AGM-158A/B integration once complete.

JAS 39C/D Gripen have no long-range ground attack capability. This will be remedied by the upcoming Rb 15F-ER which while developed from the RBS15F anti-ship missile will also have a secondary land-attack capability. However, the weapons main use and roots are shown by the warhead which is a 200 kg blast fragmentation one. Excellent for ships, but despite having delayed fusing options this likely lacks the penetration to be able to take on hardened targets.

The F-35 is the other big question mark, with the JASSM not confirmed for the fighter. It has been cancelled for the Block 4, with one spokeswoman saying they “expect it” in the Block 5 timeframe which “is expected to begin in 2024”. The scope of Block 5 is still undecided, with one aviation journalist describing it’s status as “just a collection of tech that didn’t make the cut for Block 4“. RAF/RN had originally planned for the Storm Shadow to equip their F-35’s, but has since dropped it. As such, the F-35 have no confirmed cruise missile for hardened targets at the moment. The one missile which is confirmed is the JSM, which like the Rb 15F-ER is an anti-ship missile with secondary land-attack capability, and which also feature a 200 kg combined blast and fragmentation warhead. Manufacturing partner Raytheon is happy to call it “the only fifth-generation cruise missile that will be integrated on the F-35”, which is likely more of a marketing line than an indication of the company sitting on information that the JASSM has been cancelled for the F-35.

Taurus KEPD
Taurus KEPD 350 displayed together with the JAS 39D Gripen at the Tour de Sky airshow in Kuopio, Finland, back in 2016. Source: Own picture
The answer to the Gripen’s woes would have been the Taurus KEPD 350. The joint Swedish-German missile is carried by German Tornadoes, Spanish EF-18 Hornets, and (soon) South Korean F-15 Eagles. Preliminary flights have been undertaken by the Gripen (and the Eurofighter for Spanish and German needs), but the missile was never integrated on the 39C/D, and it’s future as part of the 39E’s arsenal is still unclear. The Swedish then-government/now-opposition signalled back in 2014 that they “want cruise missiles on the new Gripen”, though it has never been clear whether this means the RBS15F or some heavier land-attack missile. In any case, no firm order for KEPD 350 integration onto the Gripen has been made, and it is difficult to see a Brazilian requirement for it. The KEPD 350 is however actively marketed as an option for the Gripen by Saab.

While Puranen’s cost estimate of the weapon package might be higher than Renko’s, he is of the same opinion when it comes to integration costs.

Our position is that the aircraft suppliers are responsible for the integration of the weapons found in their offers, and that the costs for this are included in the offer.

This leaves Lockheed-Martin and Saab with something of a conundrum. Unless JASSM or another suitable missile is confirmed for integration before 2030 by another paying customer, and unless this confirmation comes before the final offers are made in 2021, the companies will have to include the complete integration costs when calculating their bids to Finland. Obviously the majority of the costs will be funneled back directly to their HX-bid (TANSTAAFL), while the Rafale and the Typhoon will be able to make their offers without this additional cost (or at the very least with a significantly reduced one). It also raises the question which missile they should choose to offer. While there has been much speculation about keeping the JASSM’s, their shelf-life does in fact end about the time the Hornets are withdrawn.

JASSMed
Gripen E model in Finnish colours displayed by Saab at a Finnish air show. The model is armed with Rb 15F, Irist-T air-to-air missiles, and JASSM. Source: Own picture
Saab has been marketing a willingness to integrate the JASSM if Finland requests so. However, if they are free to offer the long-range strike option in whichever form they want, doing so by integrating their own Taurus instead of Lockheed-Martin’s JASSM might certainly be tempting, especially as the Taurus offer some unique gimmicks such as the ability to detonate at a specific pre-set floor. Another possible solution which might be tempting for both manufacturers would be to develop penetrating 500-lbs warheads for the JSM and Rb 15F-ER, as this might turn out to be a cheaper solution than integrating a completely new weapon. Still, when it comes to penetrating warheads, mass matters, and it is clear that this would be an inferior solution compared to heavyweights such as the JASSM, Storm Shadow/SCALP, or Taurus.