Yesterday Sunday 20 January Israel again struck targets close to Damascus International Airport. Much is still unconfirmed about the raid, but it is clear that it included significant numbers of Syrian missiles fired in response, at least one of which led to two Iron Dome-missiles being fired from an Israeli battery close to Mt Hermon as it was on track to enter Israeli airspace (the missiles are usually fired in pairs to ensure intercept). It is not confirmed whether the missile was intercepted or not.
The Israeli Defense Forces has released a new video showing SAM-sites being targeted. The most interesting part of the clip shows a Pantsir-S1 (likely the S1E-version) being intercepted by what looks like a Delilah cruise missile. Keen Syria-watchers will recognise that this isn’t the first encounter between the Pantsir-S1 and the Delilah. For details how to recognise the Pantsir-S1 and Delilah footage, see the post from last time. While the Israeli modus operandi hasn’t seemingly changed, neither has the incompetence of the Syrian air defence crews. The radar is raised, but not rotating and pointing in the wrong direction, while the missiles are in the transport-position and not ready to be fired. Despite the vehicle being an obvious high-value target, it is left sitting out in the open with no attempt at camouflage or anyone trying to move it into cover.
The bottom line is that we still lack any proof of the Pantsir-S1 being of much use. It is possible that the missiles were used (successfully?) to intercept decoys launched before the strike itself, there are rumours of the Israelis using this tactic dating back to Operation Mole Cricket 19, though as with many aspects of these raids confirmed information is scarce.
In the HX program full of multi-role fighters, the EA-18G Growler seems like the odd bird out, being a highly specialised electronic warfare platform. However, the first thing to note is that the Growler in fact can do both. “It operates and flies the same [as the F/A-18F Super Hornet], it has the same weapons except the two wingtip AIM-9 Sidewinders” Boeing’s representative explains. “It is a fully multirole platform.”
Flying the front-seat is the same.
But let’s not kid ourselves. While it is nice for a small air force to know that any airframes allocated to the electronic warfare role aren’t automatically taken away from the air superiority mission, no-one will pay the premium the Growler requires to just get another multirole aircraft. But perhaps the first question is why anyone would pay for the Growler in the first place, considering that the other contenders are happy to fly the SEAD mission with multirole fighters equipped with jamming pods.
But while the Growler externally looks like just another F/A-18F with jamming pods, looks can be deceiving. The Growler shares 90% commonality of parts with the baseline F/A-18F Super Hornet, the rest is made up of a fully integrated active/passive electronic warfare suite, based on a pedigree of decades of experience of the electronic attack role. The industrial team behind the Growler include both Raytheon (sensors), Northrop-Grumman (the company behind the EA-6B Prowler), and Boeing themselves (who’s own electronic attack portfolio dates back to the AD-1Q Skyraider), providing a solid background for what soon will be the sole tactical electronic warfare aircraft in the US inventory.
[Growler is] full spectrum. Pods cover part of the spectrum, this covers all of it.
The Growler is far from just a flying SAM-jammer. It gathers data from and analyses all electronic emissions in the area, and then share it via its high-capacity datalink (which as discussed in the last post, is now coming to the basic Super Hornet as well). It’s also able to jam a large number of bandwidths, making it able to perform such diverse missions as denial of communications (jamming enemy military and/or civilian networks), counter-IED patrols, and the traditional SEAD-mission most closely associated with the “E for electronic warfare”-designation. Notably, the disruption of communications is just the kind of joint capability that the Finnish Defence Forces is looking for with HX, allowing the Air Force to directly support the Army (and Navy) by means other than simply sweeping the skies clear of enemy strike aircraft. The sharing of information about enemy emissions in the full electromagnetic spectrum also provides a huge boost to friendly forces when it comes to piecing together the situational picture of the battlefield.
In the SEAD-role the main weapons are the signal-seeking AGM-88 HARM and its newer cousin, the imposing AGM-88E AARGM. The later sport a number of upgrades, including longer range and a wider seeker band, but also GPS/INS navigation and a millimeter wave radar for terminal guidance. This means that even if you switch off your radar after launch, there is a good chance that the missile will find and kill you (or at least your radar).
But it’s not only in the air-to-surface domain that the Growler is an interesting option. While it is less commonly discussed, having a Growler feeding information and disrupting enemy units provides a huge advantage in the air-to-air role as well (“game changing” are the words used by Boeing). While electronic warfare is one of the most secretive fields when it comes to precise capabilities, making it hard to differentiate marketing talk from pure capability, it is notable that the introduction of the F-35C into US Navy does not spell the end for either the Super Hornet or the Growler. Neither aircraft has any set retirement date, and it does seem clear that the F-35C as well will rely on support from the Growler if faced with an high-end scenario. This certainly says something about the level of trust the US Navy places in the aircraft.
Every aircraft require a Growler going into an advanced threat.
The tactical value of having Growlers as part of the Finnish Defence Forces’ inventory would certainly be significant, but is the Growler a realistic alternative for Finland? The short answer is that no one knows for certain (yet), but those in the know seems to think so. Minister of Defence Jussi Niinistö was clear on the HX press conference when answering questions about a split HX-buy that while a two-fighter force wasn’t an option, a Super Hornet/Growler-mix certainly was. The US government also seem to think so, as they readily allowed Boeing to lease two Growlers for the Finnish 100 anniversary air show (it has to be remembered that the Super Hornet-deal would be a government to government one). As this was effectively marketing for HX (with a touch of national security diplomacy), sending the Growler only makes sense if that is part of the product-package. The choice of unit was interesting as well, as the Growler came from VAQ-129, the sole training unit for Growler pilots and WSO’s. In other words, this is the very unit which in just a few years time could be training the first batch of Finnish Growler backseaters.
It largely then comes down to money, and this is an interesting one. The US Navy fact file lists the unit cost of the Growler at a very reasonable 67 million USD (a price tag they haven’t updated since 2011). However, things start to look more opaque once the Australian export order is brought up. The plan was for twelve of the RAAF’s 24 F/A-18F to be brought up to Growler standard for a price tag of 1.5 billion AUD (950 million EUR), or 79 million EUR per aircraft for the upgrade alone. However, that was without the crucial ALQ-99 jamming pods, which for a full set of pods for twelve aircraft would have added a further 1.4 billion AUD (890 million EUR). Furthermore, the currently ongoing 20 year upgrade program for “the EA-18G platform as well as those Fundamental Inputs to Capability [ALQ-99 and associated weapons support and training systems]” has a price tag of 5 to 6 billion AUD (3.2 to 3.8 billion EUR), or over 25 million EUR per aircraft and year until it reaches full operational capability by 2031. A key part of this is replacing the old ALQ-99 jammers with the new Next Generation Jammer (NGJ), a multi-billion dollar program in which Australia is a partner. However, the seemingly outrageous operating price tag isn’t undisputed. Exactly how the cost for the Australian Growler-upgrade will be spent is unsure, e.g. what part is spent on actual new hardware and what part, if any, is spent on what would normally be seen as operating costs. As a counterpoint, some years ago Forbes listed the per flight hour cost for the Growler as being slightly lower than that of the basic F/A-18F (9.2k USD compared to 10.5k USD). Another question which significantly would change Finnish operating costs is how the Finnish cooperation agreement with US Navy would look. As noted, the Growler-crews would likely head over to the states to get part of their training there. But also when it comes to e.g. the jamming pods one possibility is to instead of outright buying them a lend (or lease) might be possible. The bottomline is that it is extremely hard to get a clear picture of what the acquisition and operating cost for the Growler would be, though it is safe to say that introducing this kind of completely new capability would come at an additional cost. What should be remembered is that in the opening buy the Super Hornet will have a significantly smaller transition cost for re-training the whole Finnish Air Force from one fighter to another, meaning that Boeing might have more room to throw in something extra, such as a bunch of kitted-out Growlers.
The number of Growlers in a potential Finnish mix is open, and here Boeing themselves are unable to give a direct answer. The final and best offer will include a mix based on the outcome of the capability scenario simulations which the FDF has set for all fighters to meet. Some of these naturally favour a higher Super Hornet to Growler-ratio, some a smaller one. Based on these the customer will then make a request for how many Growlers would be fit inside the 64 fighter package, or as Boeing puts it:
It is interesting what we have to say, but in some ways also irrelevant.
One issue that has been open to much speculation is exactly which version(s) of the Super Hornet will be offered to Finland. The answer was simple, with Bryan Crutchfield explaining that it was up to the customer, and: “As a mainly single-seat air force, I would expect Finland to primarily be interested in F/A-18E.” This lead to the natural follow-up question, why the equally mainly single-seat Royal Danish Air Force was offered only the two-seat F/A-18F, a decision which proved to be something of a decisive issue in the Kampfly-program. “Because they only asked for the two-seater,” Bryan explained. On the question of why, he had no direct answer, but this is yet another strange data point in the already rather murky Danish affair.
More interesting then was that Boeing seemed to assume that Finland would be interested in a number of Growlers as well. In the case of the US Navy, roughly 20% of the Super Hornets bought are of the electronic warfare version, meaning that a potential Finnish mix of Super Hornets could be something along the lines of 40 F/A-18E single-seaters, 12 F/A-18F two-seaters, and 12 EA-18G Growlers, for a combined fleet of 64 fighters. When asked about if the ‘full-spec’ Growler is likely to be released for sale to Finland, Crutchfield was careful not to make any promises, noting that any sale would be a government-to-government deal. However, he went on to say that Finland appears to be a “very trusted” partner in Washington, and pointed to JASSM-deal as an indication that if Finland wants the Growler, there likely wouldn’t be any issues.
The Growler in many ways is an unrivalled platform in the electronic warfare role, being able to not only jam and destroy enemy radars and air-defence systems, but also having a significant capability when it comes to intercepting and jamming enemy communications and signals. The latter has made it a valuable resource in the operations against ISIS, and it is safe to assume that if Finland would acquire a handful of dedicated EW-platforms, it would make us a sought after coalition partner in the kind of low-intensity conflicts we have participated in in Afghanistan and Iraq. The question then is largely about the price of acquiring and operating the Growlers, as well as what kind of a loss having only 40 instead of 52 F/A-18E’s would be in the eyes of the Air Force Command. While the size reduction in ‘true’ fighters is significant, the role of the Growlers as force multipliers might provide a huge enough boost for both the Air Force and, crucially, to the ground forces to warrant this. As said, this is not solely a question of providing SEAD, but also of the Growlers being able to increase the fog of war for the enemy at crucial moments.
“Envelop the enemy in the fog of war, sow confusion while providing time and space for one’s own forces. Jam the adversaries’ radars. Disrupt his communications. Induce indecision; make the enemy question his own equipment and make mistakes.”The mission of the Growler as described by the Growler Industry Team
But even without the Growler, the baseline F/A-18E/F is a highly versatile multirole aircraft. “The most capable combat-proven multi-role aircraft”, as Boeing likes to put it (a statement that will upset the French). In addition to ‘normal’ air-to-air and air-to-ground work, the aircraft is able to handle both the maritime strike (Boeing did feature a scale model of a Harpoon anti-ship missile in their stand) as well as SEAD, two missions discussed at length in the Finnish report at the launch of the HX-project. What makes the SEAD-mission possible is the Integrated Defensive Electronic Countermeasures (IDECM)-package, currently in its Block IV state, coupled with the ‘leakage’ of technology developed for the Growler back into the fighter version of the aircraft.
“Physics matter,” Crutchfield sums up the sensor package, and point towards the large nose of the F/A-18E parked behind us during the interview. The nose hoses the AN/APG-79 AESA radar built by Raytheon, and Crutchfield isn’t shy when talking about the capabilities of the radar, stating that it is ‘generations’ in front of the competition, with rolling upgrades being introduced every two years. It should be remembered that the AN/APG-79 did experience some rather significant teething troubles when first introduced into service, though things seems to have gotten better since. One of the key features of the AESA is that it allows the pilot of the F/A-18F to stay fully focused on the air-to-air picture, while the weapon system operator (WSO) in the aft seat works on the air-to-ground view, with both having access to the radar modes they want.
Like the ‘legacy’ Hornet before it, the Super Hornet is qualified for a large number of weapons, including the most recent versions of the venerable AIM-9 Sidewinder, the AGM-88 HARM, and the AIM-120 AMRAAM (these being the AIM-9X, AGM-88E AARGM, and the AIM-120D respectively). On the horizon the SDB-II and the LRASM looms, while more exotic munitions include the Quickstrike-series of air-dropped mines. Which of these would be of interest to the Finnish Air Force is uncertain, but a continued reliance on ever more advanced versions of the AIM-9/-120 combination would be a natural choice for the immediate future. The big deficit is the lack of the very-long range Meteor ramjet-powered missile, which all other HX-contenders are set to have received prior to HX’s IOC date. The US Navy seems content with traditional rocket-powered air-to-air weapons at the moment, and while Finland naturally could pay for Meteor integration on its own, that would still make be a considerable sum. Going for the Super Hornet could then mean having to get closer to the enemy before firing, as there is a significant difference in the size of the no-escape zones of the throttleable ramjet motor compared to traditional rockets.
This is part two of my look into the preliminary report on the HX-project, which is aimed at finding a suitable replacement for the F/A-18C Hornet in Finnish service. This part will focus on the interesting stuff: the capabilities to be replaced, and the alternatives that might replace them.
The capabilities the Hornet provides are, according to the report, as follows:
Airspace surveillance and control
Defensive counter-air (DCA)
Offensive counter-air (OCA)
Battlefield air interdiction (BAI)
Intelligence, surveillance, target acquisition, and reconnaissance (ISTAR)
Of note is here is that when the Hornets were introduced in Finnish service, it was as a pure interceptor/fighter aircraft, and only later (with MLU 2) did the potential for interdiction strikes start to feature prominently. In fact, it can be argued that out of the seven roles described above, the current Finnish Hornet-fleet is oriented towards three (airspace surveillance and control, DCA, and interdiction strike), is capable of handling two somewhat satisfactorily (BAI and ISTAR), with two being more or less outside of the current scope of capabilities (OCA and maritime strike). It is not that the Hornet can’t perform maritime strike and OCA-missions, but rather that a combination of lack of suitable weapons and a focusing in training on other missions leaves gaps to be filled (note: this is based on how air force training is described in open sources, it is possible that e.g. OCA receives more attention than is openly acknowledged).
Of interest is especially the focus placed on OCA, which is discussed over multiple pages in the report from chapter 4 and onwards. The reasoning behind this is that air superiority can seldom be achieved through DCA only (i.e. shooting down enemy aircraft entering our air space), but instead this needs to be supplemented with OCA (attacking enemy aircrafts and airbases in their own territory). Traditionally, OCA has meant striking enemy airfields through the use of multiple supporting formations of aircraft (escorts, electronic warfare aircraft supressing enemy air defences, strike packages for taking out enemy runways and hangars, and finally an aircraft doing battle damage assessment by photographing the target after the strike), and as such these kinds of strikes are both high-risk and require specialised weapons and a high level of pilot competence. The number of aircraft involved would also mean that a significant proportion of the whole Finnish air force would be tied up in a single mission.
The increasing capabilities of modern multi-role fighters and the use of stand-off weapons and sensors mean that the absolute number of aircrafts used for an OCA strike can be decreased somewhat. However, I must still admit that I was surprised that this seems to be a prioritised field. It is possible that this is seen as the most demanding of the missions, and that if the air force pilots becomes proficient in multi-package strikes on enemy airbases, this skill set (and weaponry) can easily be used also for the “lesser” missions (such as striking strategic bridges or enemy surface units, neither mission of which is dealt with in any detail in the report).
Another mission that gets a thorough analysis is electronic warfare and especially suppression of enemy air defences. SEAD, as it is usually abbreviated, deals with rendering enemy groundbased air defence systems ineffective, either by jamming their sensors or by outright destroying them. This is usually performed by specially modified aircrafts (the EA-6B Prowler and EA-18G Growler of the US Navy and Marine Corps, as well as the German and Italian Air Force Tornado ECR being mentioned), carrying special sensors and weaponry. The report notes that, even when it comes to stealth aircraft, multirole fighters will remain vulnerable to enemy air defences, and while they can carry some SEAD-weaponry and sensors (such as radar-homing missiles and jamming pods), true SEAD will always be something of a niche-capability that even modern multi-role fighters can only perform “with some restrictions”.
The possibility that Russia through the use of modern long-range air defence systems could more or less close Finnish air space is not discussed in the report. This would naturally have a huge impact on the needs and priorities of any future fighter, so not discussing it means that the work group believes that:
A) The impact of long-range surface-to-air missiles will be small/manageable (at extreme ranges the system will have trouble engaging low-flying targets due to the radar not seeing over the horizon, and the large missiles needed to get enough range will have poor manoeuvrability against agile fighter-sized targets), or
B) While it is possible to shut down most of Finland’s airspace using long-range surface-to-air missiles, it is not a good idea for Finnish officials to openly admit it.
The Alternative Solutions
A number of alternative solutions have been put forward, including unmanned platforms (UAV/UCAV), a completely ground-based solution (see earlier blog post), as well as extending the lifespan of the current Hornet-fleet.
All three of these are dealt with thoroughly in the report. There are currently no UAV/UCAV capable of performing the same missions as manned multi-role aircraft, especially with regards to air-to-air missions. Also, unmanned platforms tend to have the same cost to operate as manned aircraft of similar complexity and size (due to the fact that they need the same maintenance as an ordinary plane, and while he/she isn’t on board, they also need a trained “pilot”). The report envisions a place for UAV/UCAV’s in supplementing roles, e.g. reconnaissance, performing dangerous strikes, and finding targets on the battlefield and guiding in manned aircraft to strike these (FAC).
BAE Taranis is at the cutting edge of UCAV technology, but is still far from operational, and nowhere ear as versatile as modern multirole fighters. Source: BAE Systems
A ground-based air defence system lacks the operational flexibility of fighters, and cannot rapidly regroup to answer sudden threats in a new area of the country. Due to the vast size of Finland, a complete air defence system would also be extremely costly, and other weapon systems would be needed for striking enemy ground- and naval targets. Peacetime air surveillance is also impossible without own aircraft.
Lengthening the lifespan of the current Hornets is not a realistic option either. The aircrafts would need to be completely overhauled, an expensive process which easily could become even more expensive if some “nasty surprises”, such as cracks in critical structures, were found during the program. After 2020, Finland would also be the sole user responsible for keeping the legacy-Hornets aging mission computer up to date, carrying the whole upgrade cost for the fighter’s core avionics. The relative combat value of the aircraft, especially in air-to-air missions, is also rapidly decreasing with the introduction of new fighter aircraft in our neighbouring countries (F-35A, JAS 39E, T-50, and the latest versions of the Su-27 and MiG-29 families). If the extension would be done, it would cost approximately 1.2 billion Euros, and give the Hornet 5-10 years more in service. This would not give us any more options with regards to eventually replacing it, as no new designs are on the horizon in that timeframe, but rather it would diminish the options, as certain production lines are on the verge of closing.
The candidates have been an open secret, but as far as I am aware of, this is the first time they have been named in an official document. They are the Boeing F/A-18E/F Super Hornet, Dassault Rafale, Eurofighter Typhoon, Lockheed-Martin F-35, and the SAAB JAS 39E (Super) Gripen, while all Far Eastern aircrafts are out of the competition. I presented all of the contenders in depth last autumn (here and here), so here I will only look into the few notable changes that have taken place since, as well as their strong and weak points in the light of the report.
Prior to Paris Air Show this month, Boeing declared that they believe they will be able to keep their St Louis production line for the F/A-18E/F Super Hornet open until the end of the decade, meaning that they will be in the running for HX after all. Part of this is due to a new export deal for 28 Super Hornets to Kuwait, worth an estimated 3 billion USD. This marks only the second export deal for the Super Hornet, but Boeing is still looking into a number of potential foreign customers, Finland being one of them. An interesting ace the Super Hornet has is the ability to offer a dedicated SEAD version in the form of the EA-18G Growler, a heavily modified F/A-18F. The main problem is that the project is heavily reliant on continued interest (and funding) from a single operator. The day the US Navy decides to prioritise other aircraft, the few exported Super Hornets will become very expensive to maintain and upgrade.
The interest in SEAD might prove beneficial to the F/A-18E/F, if Finland would opt for an arrangement similar to Australia, who operate a fleet of 24 F/A-18F Super Hornets and have 12 EA-18G Growlers on order. Operating dedicated SEAD aircraft would make Finland a highly sought after partner in international operations, with only a handful of countries being able to offer the same capability (Germany, Italy, and USA), of which only the USA are able to offer more than a handful of airframes. Boeing also has the benefit of being the main supplier for the current F/A-18 Hornet-fleet, which have been a highly successful project from a Finnish point of view. The report talks about “looking into the possibilities of benefitting from current strategic partnerships that exists between Finnish and foreign companies”, and letting Patria and Boeing continue with their collaboration from the Hornet on to the Super Hornet would seem to fit this bill perfectly. The Super Hornet is also developed for the harsh carrier environment, and could be used for dispersed basing (i.e. using purpose-built roads as airfields) in the same way as the current legacy-Hornets are used.
Dassault Rafale has also scored notable successes on the export market, in the form of a 6.3 billion Euro deal for 24 Rafales to Qatar and a similar number of aircraft to Egypt as part of larger arms package including weaponry and warships. The troublesome MRCA deal with India also seems to be moving ahead. All in all, it seems more likely now than it did half a year ago that Dassault could manage to keep the production lines of its beautiful fighter open long enough to take part in the HX-project. Still, it’s hard to say how serious Dassault is about the Finnish fighter program, seemingly being occupied in the Middle East and with the huge Indian deal. Rafale is available in both land-based and carrier versions.
Eurofighter, SAAB, and Lockheed-Martin have not been able to present much new. All programs are moving forward at a steady pace. Interestingly enough, all three were also present at this summer’s main flight show in Finland, Turku Airshow, held earlier this month. SAAB had a JAS 39C Gripen taking part in a flyby with a Finnish F/A-18C Hornet and a Royal Norwegian Air Force F-16AM, as well as performing a solo display. The other two didn’t bring any flying hardware. Neither Boeing nor Dassault took part in the air show in any way.
Whit regards to the strategic partnerships, it should be noted that while Finland haven’t bought a British fighter since the Folland Gnat in 1958 or a German one since the Messerschmitt Bf 109G, the strategic partnerships are certainly there. The companies behind the Eurofighter consortium (officialy Eurofighter Jagdflugzeug GmbH) constitutes some of the key suppliers of the Finnish Defence Forces, through the CASA C-295 transports (by Airbus Defence) and the BAE Hawk trainers (by BAE Systems) of the Finnish Air Force, as well as in the form of the army’s primary transport helicopter, the NHIndustries NH90 (produced by the NHIndustries consortium, in which Airbus Helicopters has a 62.5 % stake). Patria is also supplying parts for a number of Airbus’ civil projects. All in all, the Eurofighter certainly has the local connections to be a serious contender. However, Eurofighter have had a hard time finding exports outside of the original countries, and I personally see the aircraft as the least likely choice for the HX-project. It’s not that it isn’t capable; it just costs too much and doesn’t quite stand out in an extremely competitive crowd.
SAAB seems to be the company that is placing most effort on the HX-project, although the Brazilian order certainly promises to be of an altogether different scale. Gripen is developed from the outset to suit Swedish needs, which are strikingly similar to Finland’s (cold weather operations, ease of maintenance, dispersed basing, and so forth). The Brazilian order and continued Swedish commitment also promises to make certain that the aircraft will have support throughout the lifecycle of the HX. The one stumbling block is its lack of stealth.
Contrary to SAAB, Lockheed-Martin does offer stealth, but there are huge questionmarks with regards to how maintenance of the F-35 will be handled. Cost is also an issue, even if the manufacturer assures everyone that the series produced aircraft will be on par or lower in unit price compared to current generation 4+-fighters. Still, when it comes to life-cycle costs, stealth coatings are notoriously difficult and expensive to maintain in proper working condition. The F-35 is offered in three versions, where the C-version is developed for carrierborne use, and as such could be used for dispersed basing. It is, however, noticeably more expensive than the landbased A-version, and it is questionable if it ever will receive any export orders. Of note is that the F-35 is only offered in single-seat versions, but the report acknowledges that much of the initial training will move to simulators, which lessens the demand for a two-seat lead-in training version.
The Bottom Line
I would still rank the F-35A/C and the JAS 39E Gripen as the two most likely candidates, with the F/A-18E/F (possibly with a few Growlers on strength) as the black horse. What it will come down to is:
What impact can new stealth-cancelling technologies be assumed to offer?
How is the F-35 able to cope with demanding cold-weather operations in dispersed conditions?
How will a robust maintenance chain be assured (especially in the case of the F-35)?
Is dedicated SEAD capability of importance?
What will the life-cycle costs of the different aircraft be?