On 9 May, Iranian forces in Syria launched several rockets against Israel. The Israeli response was swift and included one of the largest air campaigns the region has seen.
The IDF has struck dozens of Iranian military targets in Syria in response to the Iranian rocket attack against Israel. Quds force is behind attack and has played the initial price. IDF remains ready for various scenarios but does not seek to escalate the situation. pic.twitter.com/4rC8gHK2LG
However, attention soon turned to one single strike in particular, as the Israeli forces released a video clip shot by a missile taking out a Pantsir-S1 (SA-22 GREYHOUND). While it has earlier been reported that Pantsirs have been destroyed in Syria (a misidentified Mercedes truck a year ago comes to mind), this is the first confirmed instance I have seen.
The IDF struck an SA22 aerial interception system as part of a wide-scale attack against Iranian military sites in Syria pic.twitter.com/dFGXIwMT45
The Pantsir is the short-range companion to Russia’s more famous long-range S-300/S-400 air defence missiles, and its role is to swat down any aircraft or air-launched weapons which manage to penetrate to close range where the longer-ranged systems are less capable. In line with the Russian marketing of the longer-ranged systems, the Pantsir is described as “near 100 % efficiency” and some western journalists have described it as showing how Russia’s “air defenses outpace America’s”. Needless to say, there are preciously little evidence to support Russia’s claims, and as the Israeli video is one of the rare documented encounters between the system and an airborne enemy it quickly generated considerable discussions.
On one hand, some questioned whether the system was a decoy, others whether it was operational, and some declared the whole Pantsir-family as being nothing but expensive trash. All in all, the short clip deserves further scrutiny.
It is clear that the radar is elevated and pointing backwards, as the U-shaped radar support is visible (blue). The weapons are pointing towards the rear, which is the transport position (though if the whole vehicle was rigged for transport, the radar would be lying flat facing upwards). The front of the truck corresponds with the Kamaz 6560 which is used by the most numerous Russian version (red).
Could it be a decoy? Parking out in the open on the tarmac and not making any attempt at covering the system certain seems to be begging to be destroyed. However, a crucial detail is visible in the video. A group of people are standing next to the vehicle, and seconds before the missile impact it one of them runs towards it.
Whether he was trying to save it or fire at the attacker is unsure, but in any case you would not run towards a decoy being fired upon. A brave act, but far too late.
Interestingly enough, images of the destroyed vehicle also appeared afterwards.
The picture matches the video as far as it is possible to tell. The truck is hit just aft of the cabin, the weapons are facing rearwards, and the radar is raised. The versions floating around on pro-Assad accounts often refer to the IAI Harop, a loitering UAV, while other sources often mention the Delilah loitering cruise missile (others still refer to the Spike NLOS, a very long range anti-tank missile). All three carry relatively small warheads consistent with the kind of damage visible in the picture. However, the only evidence in either direction I’ve seen is that the sight picture does seem to match the Delilah better than it does for the other two.
Left: footage from Military Channel's (now American Heroes Channel) "Ultimate Weapons" special on Israel featuring the #Delilah ALCM. Right: footage from last night's #IAF strike against a Syrian SA-22 system.
In any case, the exact weapon doesn’t really matter, as this was not a case of an Israeli wonder-weapon being able to crack the defences of the Pantsir. Instead, it is clear that poor training on the part of the Syrian air defences, coupled with the lack of a clear situational picture, spelt the end for the Pantsir. The latter comes as no surprise, considering the numerous Israeli strikes targeting the integrated air defence network operated by Syria, but as shown by Serbia during Operation Allied Force, it is possible to stay alive and at least constitute a force-in-being even if the individual units have to fight their own war. This however require basic skills and training which the Syrians clearly lacked in this case. The Pantsir had no job standing out in the open if it lacked missiles, and it never had any job being parked in such an open spot without camouflage (as a matter of fact, it can fire on the move, so parking out in the open even if camouflaged might not be the best option).
For the Russians getting the Pantsir knocked out was something of an embarrassment, and they have been quick to point out that it must have either been out of ammo or otherwise non-operational. While that seems to indeed have been the case, it should be noted that days after the strike, the Russian government made a U-turn with regards to supplying the advanced long-range S-300PMU-2 free-of-charge to Syria. The idea was floated after the Western cruise missile strikes, but is now apparently completely scrapped. Many sources attribute this to Israeli prime minister Netanyahu’s successful lobbying during his recent visit to Moscow, but one has to wonder if not the incompetency shown by the Syrians operating the Pantsir caused concerns about the international embarrassment a successful strike against the S-300 would cause for the Russian arms manufacturers. As such, taking out the Pantsir might indeed have had significant regional consequences, but it does not in any way prove the system itself either good or bad.
As was noted earlier Finland has requested the export of quad-packed ESSM surface-to-air missiles for fitting in the Mk 41 vertical launch system (VLS). In itself the request was rather unsurprising, but I did find it odd that the Navy was asking about the canister designed for the Mk 41 and not the dedicated Mk 56 ESSM VLS.
This week a key part of the answer was revealed, as the DCSA report for the Mk 41’s themselves was released. The Finnish request is for four 8-cell Mk 41, of the full-long ‘Strike length’ version. This is the same as carried by US Navy (and Japanese) destroyers and cruisers, as well as by a number of NATO frigates. The options for the strike length launcher include a large variety of US-built surface-to-air missiles, as well as the TLAM (Tomahawk) long-range cruise missile and the VL-ASROC anti-submarine weapon (a rocket which carries a parachute-retarded anti-submarine torpedo out to a considerable range). The downside is the size. To fit the large missiles, the cells are 7.6 m long. The logical choice if one want to fit Mk 41 solely for use with ESSM’s into a corvette is the 5.2 m Self-defense module. In between the two is the 6.7 m Tactical length cells, which add the SM-2 long-range SAM and the ASROC, but is unable to fit the TLAM or the SM-6/SM-3/SM-2 Blk IV (SM-2 with a booster). The SM-2 Blk IV and SM-3 are able to target ballistic missiles, while the SM-6 is a longer-range missile against airborne targets.
Now, as late as last week I said in a discussion that it is not possible to fit the Strike length cells on the Pohjanmaa-class, as they are too long for a corvette. In all renders so far the VLS cells have been fitted in front of the superstructure, on deck level. Considering the low draft of the Pohjanmaa-class corvettes, just over 3 meters, it is doubtful whether the cells can be fitted within the confines of the bow. However, if the single cell is mounted along the centreline as opposed to across it, and if it gets a stepped platform a’la Type 26, it just might be doable (or a reshuffle with the Mk 41’s moving into the superstructure and the SSM’s moving to the foredeck/mission bay/further forward/aft/somewhere else).
So why would the Navy be interested in a cell that is two sizes larger than the missile they are planning on pairing it with? The answer is likely that they want to keep all options open. While I very much doubt that the ASROC would fit Finnish doctrine, the TLAM could open up new possibilities. However, if the Defence Forces want more cruise missiles, buying more of whatever will replace the JASSM on the winner of the HX-program is likely the better option (or alternatively buying a long-range weapon for the M270 MLRS). However, the possibility to provide some measure of protection against ballistic missiles might be of interest. While it certainly would be a major undertaking, the vessels will be in service for a long time and “fitted for but not with” is a time-honored tradition when it comes to naval shipbuilding. It should be noted that all kinds of ballistic missile defences are politically highly sensitive. Analysts have noted the similarities to the acquisition of the multirole F/A-18 Hornet back in the day, where even if the fighters were capable of flying ground attack missions, political considerations meant that the capability was only taken into use at a later stage, with the MLU2 mid-life upgrade.
The strike length cells also open up the possibility to fit some interesting anti-ship missiles in the future, as both the LRASM and the JSM are currently being tested in configurations suitable for launch from the Mk 41. Being able to swap out a number of SAM’s for more anti-ship missiles might be an interesting option at some point down the road (or at least interesting enough that the Navy doesn’t want to close the door just yet).
I will admit that the latest development have taken me by surprise. However, it does seem like the Navy is serious about fitting the vessels with systems that will allow them to field firepower to rival some significantly larger vessels. The question is whether the budget will live up to the ambitions?
In the shadow of the HX-fighter competition, the state of the ground based air defences in Finland has again appeared in the headlines. The short story is that in the mid-90’s Finland acquired the Russian Buk-M1 air defence system as part of Russia paying off the Soviet balance of the clearing accounts. However, while the system certainly is competent, questions soon arose if it was wise to operate a high-tech system which the main adversary had built? Especially as knowing the exact capabilities of the radar and missile is of crucial importance when it comes to defeating radar-guided missiles.
By the mid-00’s training new conscripts on the Buk stopped, and the system was phased out (never trust a Finn who says something is retired, the last conscripts who trained on the system most likely had another ten years in the reserve, during which they were assigned to a wartime unit operating the missiles, giving a ‘real’ retirement date around 2015) and replaced by the NASAMS II.
The NASAMS is a controversial system in Finnish service. Not because it is bad, it is very much amongst the most modern ones available, but because it is of significantly shorter range than the Buk it replaced. Most crucially it has a ceiling of around 10,000 meters, meaning that most modern fighter aircraft can simply operate above this. This isn’t necessarily as big a drawback as it is often portrayed to be. Operating above 10,000 meters place high demands on sensors and weapons if you are to hit anything, and it means that you are easily spotted by air surveillance radars, meaning that the advantage of surprise is long gone by the time the target is overflown.
Still, this has left Finland without a long-range surface-to-air missile for the first time since the late 70’s, and talk about the need for something heavier has been going since the decision to procure NASAMS instead of Aster. The big question is what?
One issue which has been raised is the defence against ballistic missiles, i.e. missiles which are fired at a high angle, fly up to significant heights, and then ‘fall’ down at extreme speeds to hit a target. The Russian 9K270 Iskander-M is the embodiment of this threat, and comes equipped with either a conventional warhead (usually quoted at around 500 kg, but possibly with an option for a heavy penetrating warhead above 1,000 kg) or a nuclear one. The big improvement of the Iskander compared to the 9K79 Tochka U it replaced is the significant improvement of accuracy, which for the Iskander is quoted at a circular error probability of below 10 meters (i.e. half of the Iskanders will land within 10 meters of the intended target), meaning that it can reliably be assumed to hit individual buildings or bridges. As such, many has voiced the opinion that Finland need a system capable of shooting down ballistic missiles.
…and it is in the crossroad of these ideas that we find some of the most common misconceptions, which warrant a slight detour before looking at the latest developments.
To begin with, the ballistic missile threat is not new to Finland, nor is the associated A2/AD-problem, but these have been a part of the Soviet/Russian arsenal for decades. Even with the improved accuracy of the Iskander, it is not a war-winning weapon, as the limited number of missiles available and the rather limited damage caused by a single hit makes it impossible to take out dispersed targets. In other words, while it is possible to hit the command centre of a unit, it is not possible to wipe out the unit itself. The Iskander also needs target information before launch, meaning that it is best used against stationary targets.
Another issue often overlooked is how hard it is to shoot down a ballistic missile. Crucially, while a modern long-range air defence system can sport ranges of over 100 km against air targets (at high altitude, at lower altitude the earth’s curvature creates shadows), the corresponding ranges when trying to intercept a ballistic missile approaching at very high speed and steep angle are significantly shorter. While the exact performance is secret, some sources state that the maximum range is a few tens of kilometers, creating a significant problem with regards to how to base air defence batteries to be able to protect a certain target. The implications of this is that a single battery might have a hard time defending both the Upinniemi naval base and central Helsinki, depending on the parameters of the intercept.
As such, it is no surprise that Finnish officers are focusing on dispersion and hardening strategic targets instead of acquiring anti-ballistic missile capabilities. This is in marked contrast to Sweden’s decision to acquire the Patriot. Here, while the decision is not yet finalised, the ability to field the PAC-3 missile (or potentially the upcoming PAAC-4/Stunner/SkyCeptor) to take down ballistic missiles has played a key role. However, the capability doesn’t come cheap, as the total price tag of approximately 1 to 1.2 billion Euro will buy three to four batteries, each with a single radar and three to four launchers. However, the amount and types of missiles acquired will also play a huge role when it comes to cost, and the preliminary request, described as being “generous in size”, lists 200 PAC-3 (for anti-ballistic missile use) and 100 PAC-2 for use against aircraft, for an additional 1.5 billion Euro. The exact kind of combat management system involved will also play a role, as it seen in the case of the 8.6 billion Euro Polish deal for a comparable number of firing units (four batteries with four launchers each, with 208 PAC-3 missiles) as the Swedish order.
All things considered, any kind of anti-ballistic missile coverage is probably outside of the scope of the Finnish Army’s wishlist, with the focus being solely on the ability to shoot down aircraft at longer and higher ranges than what the current equipment is capable of. However, even within these bounds, there are still a significant number of different options available on the market. With this in mind the Logistics Command has now issued a Request for Information to “around ten” companies. Interestingly enough, the interview with brigadier general Renko, deputy chief of the Logistics Command, says that he would like the new missile to be part of the current NASAMS systems. At the same time, he notes that this is not purely about introducing a new missile to old launchers, but that there needs to be more batteries out in the field to improve coverage.
The obvious choice which has figured in reporting is the AMRAAM-ER. Where the basic NASAMS uses the same AMRAAM missile as found on e.g. the Finnish F/A-18 Hornets, the AMRAAM-ER marries the basic AMRAAM seeker (with improved steering code) to the engine of the ESSM (Evolved Sea Sparrow surface-to-air missile), giving a significant increase in both range and ceiling (50 and 70% respectively according to Raytheon). This means that both goals of the RFI could be met by buying more NASAMS batteries, and having both baseline and ER-versions of the AMRAAM in service. The big problem for the AIM-120 AMRAAM is that it is something of a victim of its own success. It is operated by a stunning 37 countries, meaning that no small amount of Russian research is likely going into how to defeat it. Especially if the AMRAAM will continue to be a key part of the Finnish airborne air defences as well, which is likely to be the case unless Rafale takes home the HX-competition, it might be good to ask whether all air defence eggs should be placed in the same basket?
At this point it should be remembered that one of the key points of the NASAMS is its modularity. It is unclear exactly which parts are integrated into the Finnish NASAMS systems, e.g if our ITO 05 (RBS 70 BOLIDE) are able to plug into the NASAMS’s Fire Distribution Center (FDC), something which Kongsberg claim is possible. However, if the Army really likes the current AN/MPQ-64F1 Improved Sentinel radar and associated systems, another missile could potentially be integrated into it. It is hard to see the reasoning behind this, and I am tempted to believe that the journalist misunderstood the general, who instead expressed a wish for the new system to be part of the current Finnish integrated air defences, i.e. sharing the same air picture as well as command and control structures.
If we assume this is what the Logistics Command means, it opens up a vast number of possibilities. One is the very same SAMP/T-system which competed (and lost) against the NASAMS ten years ago. The SAMP/T, also known as ASTER, is the closest competitor to the Patriot, and is also available both with “normal” and anti-ballistic missile missiles. As was the case last time around, both it and Patriot will probably be judged to be too expensive (although the Swedish deal is controversial at it turned out the SAMP/T offer was 150 million Euro cheaper than the Patriot one).
However, below the high-end Patriot and SAMP/T there are still plenty to choose from. MBDA, the company behind SAMP/T, offers the CAMM-ER and ASPIDE 2000, and while information is somewhat scarce, both are likely superior when it comes to range and height compared to the baseline AMRAAM. Saab has the SRSAM BAMSE, which offer an altitude coverage of 15,000 meters, and the benefit of operating on a different wavelength, Ka-band as opposed to X-band, than the NASAMS, making it harder to jam both at the same time. Israeli company Rafael offer the SPYDER-MR featuring their Derby-missile with a range of 50 km and a ceiling of 16,000 meters. A more exotic (and highly unlikely) option is the Japanese Type 11 missile system built by Toshiba, of which very limited information is available. Still, it does look like it could potentially fit the bill, and during the last years Japan has opened up for potential arms exports. South African Denel Systems has a number of different versions of the Umkhonto, the basic IR-version of which is currently in service with the Finnish Navy. Some of the more advanced concepts might be able to compete with the baseline AMRAAM, though it is doubtful if they will have enough reach to satisfy the demands of the current RFI. Still, Denel does offer a ground-based launcher, and is probably included amongst the companies receiving the RFI.
The winner of the eventual RFQ which is to follow the current RFI is likely found amongst those mentioned above. The defence forces would like to sign a deal in 2020, and notes that this is tied to HX and Squadron 2020, as all three programs play significant roles in the overall air defence of Finland. If e.g. the CAMM in its sea-going version is adopted for SQ2020, it might increase the chances for CAMM-ER being adopted as the ground-based solution. In the meantime, it does feel like the AMRAAM-ER is the favourite, with the big question being whether relying too much on a single missile seeker for both air and ground-based is too high a risk compared to the synergies it would give?
And as it happens, Kongsberg and Patria a week ago announced that they will open a Missile Competence Centre in Tampere, specifically mentioning their work NASAMS in the press release. Funny how these things come together sometimes.
One of the signs of spring in Kokkola is the arrival of a small flotilla of naval vessels to the local port. Seeing the Finnish Navy operating in the northern parts of the Gulf of Bothnia is uncommon, as all three main formations and the Naval Academy are based along the southern shores of the country. What brings the Navy here is the spring edition of IPH, the twice annually held air defence exercise where the Navy join the Army and Air Force in practicing the whole chain of modern ground-based air defences. This starts with creating situational awareness for the air defence network, and ends with the use of appropriate weapons systems engaging the targets. This year, minelayer FNS Uusimaa (‘05’) lead fast-attack crafts FNS Tornio (‘81’) and FNS Hanko (‘82’) into the port of Kokkola on 17 May for approximately a week of intensive exercises.
Contrary to a number of other navies which operate dedicated air defence ships, air defence isn’t one of the Finnish Navy’s core tasks. Rather, the ability to protect the own vessel and nearby ships is needed to be able to perform other tasks, including escorting merchant shipping but also naval missions such as mining. Currently, the two Hämeenmaa-class minelayers and the four Hamina-class FAC all feature the same Cassidian TRS-3D radar and a VLS-battery of eight Umkhonto-IR (local designation ITO 2004) short-range IR-homing missile. As noted, half of the Navy’s ships with an air defence capability took part in IPH117.
But the air defence mission starts long before the missiles are let loose. The naval vessels, perhaps somewhat surprisingly, play a significant role in peacetime air policing. The TRS-3D are respectable sensors in its own right, and on the vessels they are backed up by other systems and sensors which make the vessels able to make considerable contributions to the Finnish air picture. The Navy maintain alert vessels 24/7 as part of their policing of Finnish maritime areas (as has been demonstrated), and an added benefit is that these are able to contribute sensor data regarding air movements as well. Here, the older Rauma-class and the Border Guard’s flagship VL Turva are also able to lend a hand, as while they aren’t armed with SAM’s, they still sport search radars (TRS-3D in the case of Turva, while the Rauma-class is equipped with the Saab Sea Giraffe 9GA 208, a relatively old iteration of the Giraffe-family).
There are a number of features which make the Navy punch above its paper stats when it comes to contributing to the air defence and air surveillance network. One is the fact that the vessels are further south than any radars found on the mainland. This is especially valuable for any air traffic coming from the direction of the Baltic Sea, where the Navy can be assumed to be the first one to pick up any movements. Another thing is the mobility offered by the platforms, with the ships being able to travel at speed, up to 30 knots (55 km/h) for the Haminas, while constantly emitting. Compared to ground-based radars which need to be lowered for travelling and set up again at their new location, this eliminates the gap in information that takes place when changing position. The other is the high readiness of the Navy compared to the Army’s air defence units. The vessels not only bring their complete sensor package with them. They also bring the command central, battle management tools, and firing units with them. The vessels need to be able to not only fight as part of an integrated air defence network, but they also need to be able to solve any of their missions independently in case communications with higher command suddenly goes down. This means that the vessels are able to not only see what is up in the air, but also to take independent action against any threat at a moment’s notice.
Being able to actually shoot down anything naturally requires that they are sailing around with the missiles loaded, something which the Navy does not comment upon. One of the benefits of the VLS is in fact this ambiguity, as an external observer is unable to tell how many weapons are carried (the same is the case with internal carriage on fighters, feel free to ponder upon this as an issue for HX).
From an air defence point of view, the six Umkhonto-equipped vessels are in effect mobile surface-to-air missile batteries with their own search radars (though with a very limited number of missiles), maintained at a high level of readiness and staffed (almost) exclusively by professionals. This makes them well-suited as counters to a Crimea-style coup attempt, where they together with the Air Force would counter airborne movements in the opening stages of a conflict before the ground based batteries have had time to mobilise and set up.
The introduction of Squadron 2020 will further strengthen the Navy’s role in the joint air defence network. New radars and sensors, and getting access to mounting them higher as a benefit of the larger vessel size, will offer better situational awareness, and while the exact surface-to-air weapon fit is still undecided, it seems highly likely that the missiles will be of a greater number and capability than the current vessels have. What is also often forgotten is that while the overall number of surface combatants will go down from eleven to eight, the number of air defence capable vessels will in fact go up from six to eight.
While the Navy might see air defence as something of a necessary evil, something that one needs to do to be able to perform the core missions, that doesn’t mean it is a mission taken lightly. Compared to mining operations where time is calculated in hours and days, air defence is a question of seconds and minutes. The demanding nature of it means that it needs to be trained properly, and nowhere in Finland is the training environment better than in the Bothnian Gulf during the last weeks of May. The importance placed on the mission is seen by the fact that the Navy dispatched three vessels for a week, vessels which barely have time get back to Pansio for a quick turnaround before heading out to sea again as part of this spring’s main coastal defence exercise, exercise MTH-17 Lyydia.
The vehicles in question are 9K33 Osa (NATO designation SA-8 GECKO) surface-to-air missile TELARs, meaning that a single vehicle transports the missiles in their launch containers and is equipped with a radar allowing it to acquire and fire upon any targets without outside assistance. At least six of the vehicles in the convoy are Osas, the lead vehicle is too blurry for an accurate identification, and could be a command vehicle.
The video is indeed shot in Vladivostok, at the western end of Russkaya Ulitsa, at a relatively recent date. The geolocation is based on the building to the left, visible at the very beginning of the clip, which holds a V-Laser store, as well as the small kiosk in front of it.
The Google Street-view image above is from 2013, and it seems some changes has been made to the area between the road lanes.
To the right, a large building with a slightly smaller one behind it is briefly visible. This is not found on Google Street-view, but Yandex somewhat newer imagery shows it under construction. The building in question houses the Mall Druzba Center.
All in all, the location seems quite certain, and while it is hard to say for certain how old the clip is, the inclusion of Mall Druzba Center means that really old footage can be ruled out.
The location is intriguing. As mentioned, this is at the very end of Russkaya, and there does not seem to be any logical place from where the vehicles would have come, unless they have been transported to Vladivostok by rail or sea, and are now choosing this somewhat low-key road to get out from the city.
As for the presence of Osas in Vladivostok, that in itself is no reason to worry. The movement of a handful of medium-ranged SAMs is well within normal routines. However, this does constitute a small piece of a pattern of current events and troop movements on and around the Korean peninsula which on the whole do give reason for concern.
Edit 15 April 09:40 (GMT +2):
Zvezda state that three motorized infantry brigades in the Far East has moved out. The Osas could very well be related to this.
A second video clip shows the forward part of the convoy, and together the clips seem to indicate that a total 13 vehicles are included in the convoy. Eight of these are 9K33 Osa TELARs, with a further two being the 9T217 missile transporter and loader, which carries reloads for the TELARs. The last three are then some kind of unidentified BTR armored vehicles, likely being PU-12M command vehicles. This setup does make sense, as it would mean that the convoy is made up of two batteries with four TELARs and command vehicles each, though the number of 9T217 does seem a bit on the low side.
The sound of cannon fire echoes through the forest, as I follow captain Laitinen towards the low tower protruding at the treeline. We are at the media tour of IPH 2/16, the latest edition of the twice-annually held exercise where soldiers from all of the ground-based air defense units come together for two weeks of intensive training at the Vattaja firing range. I smile as I spot the ZIL-131 trucks parked under the trees next to the dirt road. Soviet trucks are getting rarer in the defence forces, but if there’s somewhere one could expect to find them, it is within earshot of the trusty ZU-23-2 Sergei.
The Sergei themselves soon come into sight. Grouped below the tower is a row of the light anti-aircraft guns. The older 23 ITK 61 are placed to the left, with the modernised 23 ITK 95 to the right. The difference between them is that the newer ones got an aiming computer, thermal camera, and laser range-finder to enhance their accuracy. “The larger ones are aimed remotely, so they are being zeroed in at the moment,” captain Laitinen explains and points towards the ends of the lines, where the Oerlikon GDF’s can be made out. I nod and pull out the camera to start taking pictures.
While the army is the most visible service, the exercise is actually lead by the Air Force Academy. Captain Joni Laitinen is from the Academy, and works as the Leader of Exercise and Aerial Target Team. As such, he was the one responsible for the briefing we received before getting out in the field. The exercise trains both the air defence units themselves and their supporting units in all steps of their wartime tasks, he explained. This start with them moving to the area of operations a few hundred kilometres from their respective homebases. On location, they take up positions, with their wartime logistics and signals units supporting the combat elements. The first week is then all about the live firings of the systems at different aerial targets. After this, the combat stage takes place, where the air force and army aviation fly different scenarios over the firing range. This later phase is highly realistic, with the air defence network being met with targets ranging from unmanned systems, via helicopters, to fighter jets at different altitudes. The task is further complicated by the attackers employing jamming and releasing countermeasures, as the air force practices operations within an air defence zone. For a successful intercept, the air defences will first have to pick up the attackers on their radars, and then relay the information to the command network, which in turn direct the responses and alert the individual weapons systems as needed.
It might not be immediately visible to the individual gun or missile crew, but behind every engagement, there is a long chain of events that are rehearsed and repeated time after time to make sure that everyone knows what they are doing, and feel comfortable in their own task. “The focus isn’t on shots fired, but on successful repetitions,” as captain Laitinen put it.
Today the focus is on live firings, with the autocannons taking the front stage. It is set to be a busy day, as bad weather had hampered operations the first day of the exercise. “Some of our aerial targets and air defence systems have a weather limit, which meant that yesterday was something of a low-ops day,” colonel Ari Grönroos explained. The colonel is the Inspector of Ground Based Air Defence at the Army Staff, and functions as the head of the exercise. “That’s the way it is in ‘real life’ as well,” he continued with a shrug.
At the moment the weather is better, and soon the small remotely controlled plane that functions as the target started buzzing the row of guns. The guns follow the red target and opens up in turns, firing bursts after burst towards it. The plane is equipped with a pressure sensor, which in real time tells the leader of the gunnery exercise how many shots passed within four meters of it. “If we have one or two 23 mm grenades pass within that distance, we can be quite confident that they would at least have damaged a fighter-sized target,” Laitinen explains. “The Sergei works by covering a relatively large area. That one instead works by accuracy,” he continues and points towards one of the Oerlikons, or 35 ITK 88 as it is known locally.
Colonel Grönroos also makes sure to mention the excellent cooperation he feels exists between the defence forces and the local community. The same week that IPH2/16 took place, the latest in a row of meetings had taken place, in which the defence forces shared their plans for the upcoming years, and discussed these with the people living in the area near the firing range. The exercise is large for being such a specialised one, with over 200 reservists, 1000 conscripts, and 400 professionals taking part. While the latter aren’t necessarily the ones pulling the trigger, the exercise provides valuable training for them as well, including leading their units during the combat phase and renewing needed qualifications. During the live firings we witnessed two different reservist units alternate in firing the guns, allowing for more efficient training compared to if they only employed their own ones.
During the springtime the Navy usually take part in the live firings with their vessels, but this time their presence was limited to providing security and emergency teams. In addition to the rapid response boat, a NH90 helicopter was temporarily based at the range as well, performing patrol flights and MEDEVAC if the need would arise. A field hospital is also set up for the duration of the exercise. The live firings were more limited compared to the spring as well, with the ITO 15 (FIM-92 Stinger RMP-I) being the only missile system to see action. “In the spring we are expecting to be performing live firings with four or five different missile systems,” Laitinen discloses.
As we are about to move on, a sudden streak of light shoots across the sky, and destroys an aerial target further away. What immediately strikes me is the sheer speed of the Stinger missile, which admittedly comes as something of a surprise to me. Laitinen promises to get us a demonstration of the weapon, and after a short drive we meet up with tykkimies (gunner) Happonen who was the one to fire the missile we had seen. Bringing a training missile, he shows the proper handling, and admits that he didn’t see much of the live event due to the liberal amount of smoke the missile kicked up.
A big thank you to Päivi Visuri at the Karelia Brigade, as well as colonel Grönroos and captain Laitinen for hosting our visit! A special thank you to gunner Happonen as well. More pictures from the tour are found at the Corporal Frisk Facebook-page.
The main anti-ship weapon in the current Finnish arsenal is the MTO 85M long-range anti-ship missile. This is a version of the widespread Saab RBS15 surface-to-surface missile named RBS15 SF-III (often this designation “Third version of the RBS15 for Suomi/Finland” is mixed up with the RBS15 Mk3 designation, which denotes a newer version, more on this below).
The MTO 85M is found on both the Rauma- and Hamina-class FAC, as well as on truck-mounted batteries firing from land. Notably, Finland has not acquired the air-launched version of the missile. The MTO 85M with its 100 km range make up the outer ring of defence against enemy surface units, and is then backed up with the 130 TK turret-mounted coastal guns firing 130 mm anti-ship grenades at ranges over 30 km and short-range RO2006 (Eurospike-ER) missiles being carried by infantry squads. The short range of the latter, around 8 km maximum, is made up for by the fact that the infantry squads are extremely small and mobile, and as such can move around in the archipelago to set up ambushes at choke points or guard minefields from being swept. However, when push comes to shove, it will be the MTO 85M that will have to do much of the heavy lifting.
With the launch of the Squadron 2020 project, one of the main issues will be what (or which) weapons it will feature for the anti-ship role. Preliminary renders have shown twin quadruple launchers mounted amidships, not unlike those used for the US Harpoon anti-ship missile. The Harpoon has, in a number of variants, been a sort of de-facto NATO standard (together with more famous Exocet), and new versions keep being rolled out. In many ways, the Harpoon, Exocet and RBS15 are comparable. All feature a radar seeker in the nose, are comparatively large, and uses an attack profile where they approach the target at high subsonic speeds at very low altitude, skimming just a few meters over the waves. All three are available in truck, ships, and air launched variants, with the Exocet and Harpoon also being found in submarine launched variants (this obviously being a largely academic talking point in the case of Finland). A new version of one of these three could very well provide the main striking power on Finland’s upcoming corvettes, and would be in line with Finland’s rather conservative view on defence acquisitions, preferring evolutionary rather than revolutionary increments.
The joker of the pack is the NSM provided by Kongsberg, and selected (in its air-launched JSM-version) to be the prime anti-shipping weapon for the F-35. The Norwegians has a reputable reference in the AGM-119 Penguin, which is a short-ranged IR-seeker missile that has seen significant export sales, crucially as a helicopter-launched weapon to the US Navy. The system was also operated by the Swedish Navy as the Rbs 12. The NSM is altogether different though, and its performance and size places it in the same category as the above-mentioned missiles, with one crucial difference: it uses a passive IIR-seeker, making it worse at handling adverse weather conditions but potentially better at coping with modern countermeasures which have heavily focused on spoofing radar seekers. It might also have an easier time in the cluttered archipelagos of the Finnish coast.
Another noteworthy “western” (with the word used in a very loose sense) missile is the Japanese XASM-3. Where most western manufacturers have preferred high-subsonic speeds, Soviet/Russian missiles have in several instances instead aimed at very high speeds, including up to Mach 3. The XASM-3, currently undergoing testing, is one of the few western projects specifically aiming for a high top-speed, with Mach 3 having been mentioned. The Japanese do have a history of successful locally-produced subsonic missiles, with the anti-shipping mission naturally being of high priority for the island nation. While this certainly brings something unique to the table, I still see it as unlikely that this Japanese ship-killer would find its way into the Baltic Sea.
For Finland, a number of pieces are bound to move around within the near future. As mentioned, the RBS15 SF-III is not the RBS15 Mk3 used by Poland, Germany, and Sweden, and will need to be replaced at some point. The system itself celebrated 35 years since the first launch this summer, and while it might sound much, by then both Harpoon and Exocet were already tried and proven systems in service. The important part is that the basic missiles of all three families have been continuously updated, and current versions share little except name and outward appearance with their brethren of the 80’s.
What happens if one fails to keep abreast with current development has been clearly shown by the attacks on USS Mason during the last weeks, where the Iranian C-802/Noor missiles apparently have scored nought for six in their attempts at targeting a modern destroyer. Important is also to recognise that while many associate anti-ship missiles with the attack on HMS Sheffield in the Falkland’s War, where the 4,800 ton destroyer was sunk by a single Exocet, history have also shown that a 150+ kg warhead isn’t necessarily enough. Four years after HMS Sheffield, the USS Stark was hit by two Exocets while sailing in the Persian Gulf, but the 4,100 ton frigate managed to stay afloat despite the damage done by the impact and ensuing fire.
For Finland, the MTO 85M is bound to receive a one-for-one replacement, and not only is it likely to be introduced on the new corvettes, but it is likely that the same missile will be implemented on the Hamina-class following their MLU and to the vehicle-mounted batteries as well. The great question is the third part of what logically would be a triad, namely an air-launched weapon. Currently the Finnish Air Force is in the situation that it feature a naval fighter, but lacks any serious anti-shipping capability. There would be a seemingly simple solution, as while the JASSM has been the flagship of the newfound Finnish air-to-ground capability, another missile has also been introduced: the AGM-154C JSOW. While the missile originally was conceived as a ‘pure’ cruise missile, the latest Block III version (C-1) is able to be used in the anti-shipping role as well. The first JSOW C-1 was test-fired from a F/A-18F Super Hornet earlier this year, and upgrading to this version could provide the Finnish Defence Forces with a diverse anti-shipping capability.
While getting anti-shipping missiles for the Hornet might not be realistic, the talk about giving HX an expanded range of capabilities compared to its predecessor gives some reason for optimism. The question then is should HX be allowed to influence the choice of new AShM?
For the current HX candidates, they all have their local weapons of choice. In short, the F-35 comes with JSM/NSM, Gripen with the RBS15F, Rafale with the AM.39 Exocet, Eurofighter with the Marte-ER, and the Super Hornet has a whole battery of alternatives lined up, including Harpoon, LRASM (essentially an anti-ship development based on the JASSM), JSM/NSM, and JSOW C-1. Note that for several of these, the missiles aren’t integrated yet, but in different stages between coming at some point/unfounded decision/funded/scheduled/undergoing testing.
At first glance, stating that the Navy follow the cues of the Air Force to get what they’re having might seem tempting. However, there are a number of issues with that thought. To begin with, the air- and sea-launched versions not necessarily share enough components and similarities in handling to create any measurable synergies in acquisition or training. The HX and Squadron 2020 timelines are also somewhat conflicting. The main issue is that as HX likely will get a fighter with a missile already integrated, this would create a situation where a secondary weapon system of the Air Force would determine the main striking power of the Navy. While this would equate to putting the cart in front of the horse, the alternative is that Finland would pay for the integration of the Navy’s missile of choice onto the Air Force’s fighter of choice, or that the Navy and Air Force use different weapons. This is not necessarily a bad thing, sporting different weapons makes it harder for the target to know how it should respond to a threat, but the question is if this politically will be a harder sell, regardless of whether it actually is more expensive or not.
An interesting alternative is the launchers recently sold by MBDA to Qatar. The coastal launchers are remarkable in that they can employ both the Exocet MM.40 and the lighter MARTE ER. This could be an interesting solution especially for the upcoming Finnish coastal batteries, where a hi-low missile mix could make room for more reloads while still sticking with a single launcher. The MARTE can also be employed by the NH 90, though in the Finnish case this would probably not be cost effective. To begin with, the TTH version lack a suitable search radar, and would have to rely on outside targeting data. On today’s networked battlefield this isn’t necessarily a big deal, but the bigger issue is the fact that the Army will need every single one of their helicopters for tactical transports.
So, which missile will it be that finds its way onto our new corvettes? Harpoon is slowly on the way out for the US Navy, and while it probably will still see use for the next few decades, adopting it as a new system at this point doesn’t make much sense. The JSM with its IIR-seeker probably won’t make the cut due to its limited all-weather capability, though it could be an interesting complement as an air-launched weapon, and the apparent positive experience with Kongsberg’s NASAMS and the recent acquisition of Patria by Kongsberg might well come into play when discussing this option (especially if the F-35 bags the HX-contract). This leaves the updated RBS15 Mk3 and the Exocet MM40 Block 3. With Saab’s strong position as the current supplier of both the MTO 85M and the 9LV combat management system, they seem like the favourite. Saab has also started the marketing campaign already.
But while Saab might be the favourite, MBDA should not be underestimated. The company has a wide and varied portfolio when it comes to missiles, and has the ability to offer a one-stop-shop solution for the whole missile-package for the corvettes as shown by the recent deal in which MBDA sold long-range anti-ship missiles as well as long- and short-range air-to-surface missiles to four new Qatari corvettes under a 1 billion euro deal. The deal covered Exocet MM40, Aster 30, and VL Mica missiles, which is a combination that would fit the Finnish requirements very well, and significantly boost the air defence network covering southern parts of Finland (including Helsinki). It would also supply the Finnish forces with an anti-ballistic missile capability on a platform with higher operational mobility compared to a ground-based system. Saab crucially lacks the VLS-based surface-to-air missiles, but can on the other hand bring both a state-of-the-art anti-ship missile and a modern anti-submarine torpedo developed for littoral conditions.