Category Air Warfare

The Japanese Gifu and Chinese Zhuhai Airshows, 2024

Continuing with a weekly post from Geof Clark, an American currently residing in Japan:

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Title: Japanese Gifu and Chinese Zhuhai Airshows, 2024


Image credit @AfbR681dzgszG1a
https://twitter.com/AfbR681dzgszG1a/status/1858810386805649512/photo/4

Recently, I attended an airshow at the Japanese Air Self-Defense Forces (JASDF) air base in Gifu Prefecture. According to the JASDF, about 65,000 people attended. This included many interesting aircraft, including F-15Js & F-2s fighters, KC-767 tanker, C-1 & C-2 cargo aircraft, and a USMC F/A-18C from the Marine Corps Air Station (MCAS) Iwakuni, among others. It was very impressive, however, the majority of these aircraft are decades old, and while they have been modified and improved over the years, the fundamental capabilities are unchanged. The JASDF and Japanese Maritime SDF (JMSDF) have both invested in F-35A and F-35B stealth aircraft in more recent years, but these were not on display in Gifu.

Perhaps the most modern kit on display was probably the XASM-3. This is a standoff anti-ship cruise missile (ASCM) which allows the F-2 aircraft to launch a maritime strike on enemy vessels from outside of their air defense envelope.

“Japan started full-scale development of a missile called XASM-3 in FY2010 that can be operated by (JASDF) F-2 fighter jets. The XASM-3 was an air-launched anti-ship missile (ASM) that cruised at supersonic speeds (above Mach 3) thanks an Integral Rocket Ramjet engine. It had a range of about 200 km (108 nautical miles).”


Four J-20s banks left of the show center. (Image credit: Rin Sakurai)

In contrast, the annual Chinese airshow at Zhuhai this year was very impressive. According to CCTV (the state-operated military news outlet), 600,000 people attended, and new contracts worth 280 billion yuan (about $38.6 billion) were signed. On display a number of impressive new aircraft and capabilities for the People’s Liberation Army (PLA), from Russia, and available for possible export. The Aviationist has a good list of capabilities revealed. The following list & commentary is by no means exhaustive, but it gives an idea of these capabilities:

• PLA Air Force (PLAAF) – The Shenyang FC-31 prototype has been accepted by the PLAAF and commissioned as the J-35A stealth fighter. A smaller and probably less expensive stealth fighter to complement the J-20A, which is already in service. Is this part of a “high/low mix” with Chinese characteristics? Some claim that some smoke plumes seen illustrate the ongoing challenges China faces trying to match Western & Russian engine capability & quality.
• PLAAF – a J-20 “four ship” (four aircraft) put on a great flying demonstration, and a twin seat J-20S mock-up was on display. I saw one comment on X (twitter) claim that this was the first 5.5 generation fighter, as it is the first twin seat stealth fighter, which purports to better enable the concept of operations (CONOPS) of Collaborative Combat Aircraft (CCA). These are the fancy U.S. terms for the rear seat occupant managing flights of drones that accompany or are in close proximity (i.e. line of sight) to the J-20S aircraft. The USAF is progressing with plans for CCA, to be used with the F-22, F-35, possibly F-15EX and ultimately the Next Generation Air Dominance (NGAD) “family of systems”. How much will a second person in the cockpit matter?
• Rosoboronexport (Russian state owned enterprise for arms exports) – an Su-57 (well, actually a T-50 prototype, thanks Millenium 7 …) gave an impressive flight display, complete with stunning acrobatics. The export statistics brochure data for both Su-57E and Su-75 Checkmate are linked here. There was also an announcement that the Su-57E has its first export contract, and speculation that Algeria is the most likely purchasing country, although others are possible … and indeed it might be the next in a long line of contracts that did not materialize …
• The Russian Knights put on an impressive display, returning to Zhuhai after an eight year absence. They flew in formation and solo demonstrations of Su-30SM and Su-35S. While this was certainly impressive, the Flanker family has had some challenges in Ukraine, and we will explore this in detail in a separate blog post soon.
• The PLAAF displayed their J-16D variant of the Flanker, and the PLA Navy (PLAN) displayed a similar J-15D, both of which are dedicated electronic warfare (EW) variants. Many military analysts comparing these to an EA-18G Growler, which might be apt for the J-15D, since both are carrier-borne, but the J-16D is a dedicated EW platform for the PLAAF, and the last time the U.S. Air Force (USAF) has such a platform was the EF-111A, which was retired in 1998.
• PLAN also displayed the J-15T naval variant, now equipped to be launched by catapult by the PLANS-18 (CV-003) Fujian aircraft carrier (CV), and probably future PLAN CVs, as well as being backward compatible with the existing ski-jump CVs. This will provide the capability to launch more rapidly with a much greater payload weight, possibly heralding a maritime strike fighter role, in addition to the air defense role. Other elements of the future air wing are expected to include a naval version of the J-35A mentioned above, and a fixed wing airborne early warning and control (what the U.S. calls AWACS) aircraft with the possible designation of KJ-600 As a side note, the Fujian has departed for sea trial number 5.
A plethora of un-crewed platforms that were also on static display including …

o CH-7, a peer competitor to US-made RQ-180, “ready to meet navy’s demand for maritime missions”. With a “debut at the airshow in 2018, it was being designed to be a stealth armed reconnaissance UAV that can play a strategic role in combat, so it was bigger and able to conduct strike missions to eliminate a strategic target. However, six years on, the CH-7 project has experienced a change … to [an] advanced tactical drone that is able to conduct various missions due to the development of modern warfare and the changing demand of clients”, Cao Ran of Aerospace CH UAV told the Global Times at the airshow.
o CH-9, a larger sized armed reconnaissance drone
o CH-3D, a smaller, lower cost drone
o CH-YH-1000, a cargo drone
o SS-UAV, or “Smart configuration Support Un-crewed Aerial Vehicle”, is a large, modular drone which according to Jane’s Defense might “undertake multiple missions, including maritime strike, long-range cargo transport, and surveillance.” There was speculation that it might also act as a mothership for multiple “attritable” drones in a swarm.

There are other systems which play a big role in aerial warfare, including the HQ-19 and DF-1000, which we will blog about soon!

Thanks for reading and for your comments!

Modern Air Combat Data

We are going to hand the forum over to Geoffrey Clark for one day a week. Mr. Clark has posted here before and presented at the last two HAACs. He will end up doing a series of posts each Wednesday on Modern Air Combat Data. This is his introductory post:

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Air Combat Data, modern Air Warfare, Ukraine and AI

Many are following the war in Ukraine, with intense detail. I have attempted to gather meaningful statistics for a cliometrical analysis, to add some analytical rigor to the debates about the relative effectiveness of the new F-16 aircraft recently deployed by the Ukrainian Air Force. I’ve been looking at the sources available for this type of analysis, for example the Wikipedia page, or the Statista comparison page, and I have been sorely disappointed in what is currently available.  There is a wealth of information available about what was lost, including serial numbers, etc., but the process by which it was lost, or the why, is so far simply not available. This type of information is typically not shared at all for years or decades after a conflict, as it might compromise the effectiveness of the related Air Forces in a future conflict. This is why there remains ongoing analysis of the Korean and Vietnamese conflicts, as new information emerges, and allows for the better correlation and cross-checking of Claims and Losses.

I’m following in the footsteps of John Stillion, referencing his famous RAND “clubbing baby seals” brief on the F-35, as well as his more accessible work at CBSA, Trends in Air-to-Air Combat (2015). I’ve been gathering the detailed claims and losses data for air combat in the jet age. Sometimes, this data is made openly available by the participating Air Forces and Air Defense Forces, but often comes from some less than official sources, like hobbyist websites, or even ejection seat manufacturer websites. Nonetheless, with proper scrutiny and comparison across sources, it can produce some important insights into the air combat process, and thereby give some predictive power for future conflict in the air.

It is also important to get the first-hand narratives by the pilots, airmen and soldiers involved in the conflict. I believe this is exceedingly important to understand the context of the combat situation and what was known at the time that decisions were made, and how this led to the outcomes. The idea that AI based on LLMs with a lot of data (from the internet? From a bunch of air combat games or simulations?) can produce a fighter pilot like capability to make decisions in the heat of battle … is fraught at best. A clean, curated, reliable, accurate dataset is needed now more than ever. I’ve recently watched a presentation by Admiral Grace Hopper from 1982, excellent foresight into data processing and information flows! In order to train future AI agents effectively, the relative value of actual combat data from real war must be prioritized much more than data from exercises, and especially above simulation data, and “internet” data, whatever that is.

Therefore, I’ll start a series of blog posts to explore this topic, as I progress through the analysis of data available on various conflicts in the 20th and 21st centuries. I’ll develop some primitive AI agents for air combat and simulate air combat based upon this solid data foundation. I’ll also postulate various what-ifs and wargame scenarios, both in the air domain, and multi-domain combat scenarios.

I’m pleased this year to be able to attend in person the HAAC 2024 conference to present these ideas and get some insight and support from the other attendees. 

Thanks for reading, and for your comments!

Project SKYSWEEPER

This is a new blog post from TDI associate Chip Sayers, who has able to make the Third HAAC in person this time:


Project SKYSWEEPER

Armed First-Person Point of View (FPV) drone use in war zones has become a major topic of discussion in the last number of months and news this week of multiple breaches of security at U.S. military bases in the homeland have brought home the point that we need a general strategy for use against drones anywhere, but that also works in U.S. airspace.  In a war zone, a solution could be relatively straight-forward in that use of “lethal force” on the battlefield is expected.  That doesn’t hold true for use in U.S. airspace.

While this photo is almost certainly for propaganda purposes — it beggars’ belief that such small drones could lift off while burdened so outrageously — this photo does generally illustrate the armed FPV drone concept.

This FPV quadcopter sports twin M-72 -class light anti-tank weapons fixed to fire straight down on unsuspecting armored vehicles. 

The title of this post is an homage to the scale model I built as a 9-year-old of a US Army M-51 “Skysweeper” 75mm automatic antiaircraft gun. The Skysweeper had revolver magazines giving it a rate of fire of 45 rounds per minute, and an on-mount gun-laying radar and fire-control computer that ensured its proximity-fused shells would be placed with deadly accuracy. A similar system could put paid to the drone threat in areas where firing artillery is acceptable. 

In the 1990s, Oerlikon created Advanced Hit Efficiency And Destruction (AHEAD) ammunition for its line of 35mm antiaircraft guns. AHEAD, when fired, passes through three coils on the end of the gun’s barrel.  The first two measure the muzzle velocity of the round and compares that to the measured range of the target from its fire-control computer. The third sets the shell’s fuse to burst at the optimal point to damage the target. AHEAD rounds carry a payload, depending on the shell, of between 152 and 860 tungsten projectiles that can effectively shred anything in its path.

This proof plate from an AHEAD round detonation should be terrifying to anyone on the receiving end of its wrath, especially low-flying aircraft — manned, or unmanned.

A Gepard Flakpanzer. The 35mm AAA system is self-contained with search and target tracking radars, fire-control computer and guns on a turret with a Leopard tank chassis.  Note the coils at the ends of the gun barrels for programming AHEAD rounds.

The German Gepard 35mm Self-Propelled Anti-Aircraft Gun (SPAAG) has been sent to Ukraine and, according to reports, the Gepard has proven to be highly effective against Russian drones. NATO countries have managed to scrape together 52 Gepards to cover potentially 1,100 kilometers of frontage, leaving an average density of one Gepard for every 20 kilometers in a simplistic, but illustrative calculation. Ammunition has also been a problem because Switzerland — the country of origin — objected to “violating their neutral status” by selling it to combatants. It begs the question of what they thought their weapons and ammunition were going to be used for — Fourth of July celebrations?  NATO has obtained through hook and by crook a quarter-million rounds, but that’s less than 4.4 minutes of fire, across the force. 

However, AAA is of no use against drones operating in U.S. airspace.  This brings to mind “the Battle of Palmdale” when a Navy drone went rogue and overflew Los Angeles in August 1956. Air Defense Command interceptors attempted multiple times to down the drone with unguided rockets, only to have the rockets’ high-explosive warheads wreak havoc on the ground below.

As we saw in last year’s shootdown of a Chinese balloon which crossed the entire breadth of the Continental U.S. (or CONUS), once the aircraft enters U.S. airspace, we must be concerned with wreckage crashing on the good citizens of Muleshoe, TX or other sparsely populated points of the country. Gone are the days when USAF Air Defense Command envisioned using rockets with nuclear warheads in U.S. airspace to defend against Soviet bombers with much larger nuclear payloads aboard. In last year’s incident, once the decision was made to finally bring down the Chinese balloon, USAF interceptors were held back until the balloon had cleared the U.S. coast, but not so far as to cause the wreckage to land in deep water.  While the high-altitude interception went off like clockwork (believe me, it was not as easy as it looked) we obviously need a means of dealing with threats that don’t risk causing physical harm to bystanders.

In Southeast Asia, reconnaissance drones were used in large numbers to photograph denied areas of North Vietnam.  Usually, they were launched from DC-130 motherships, flew over their North Vietnamese objectives, and were recovered over the South China Sea by waiting CH-3 helicopters that snared the drones’ recovery parachutes, lest they be damaged on landing. The system proved incredibly reliable with one source claiming that in 2,700+ attempts, over 2,600 were successful — a remarkable recovery rate.

A USAF C-119J demonstrates the parachute recovery technique.

USAF CH-3 helicopter with a Ryan AQM-34R Lightning Bug reconnaissance drone in tow.

The sad end of a happy warrior (he’s seemingly smiling). The North Vietnamese took the drone threat seriously and VPAF interceptor pilots were given full victory credit for shooting down a drone.

In a similar manner, helicopters or small cargo planes could use capture nets to sweep up drones fairly cheaply. Obviously, this would require a fairly permissive air defense environment, such as that found in U.S. airspace, Israel and parts of Ukraine. It is a simple, but likely effective technique when used appropriately. The most difficult part of this scheme is having the helicopter (or cargo plane) on station when drones are in the air.  Aircraft could be put up preemptively when the likelihood of drone incursions is high and aircraft available for other missions — such as aircrew recovery — could be ready as quickly as attaching the catch apparatus to an external cargo hook. In Israel’s current situation, one could envision a lot of helicopters and other aircraft being very busy, indeed. However, by using aircraft already on hand, there would be little sunk cost other than aircrew training.

Another approach would be to jam the drone’s control signal. This, of course, would not work on drones that have an autonomous guidance system similar to the U.S. Lightning Bugs flying over North Vietnam, though that carries its own set of issues. Rather infamously, the Lightning Bug that was to provide the final reconnaissance for the raid to free prisoners from the North Vietnamese POW camp at Son Tay in 1970 went astray because the drone turned to soon and didn’t see that the camp had been flooded by monsoon rains and evacuated. In any event, jamming drones in the CONUS could potentially interfere with civilian bandwidths, causing the same kind of complaints that caused sonic booms to be banned over the U.S. mainland. Nevertheless, relatively low-powered jammers that could be located in the center of a large military installation might still be useful.

High-power microwave generators can be highly directional and could interfere with a drones electronics to the point that its circuit boards are “fried,” knocking the aircraft out of the sky. While purpose-built HPM weapons may appear on the battlefield in the very near future, the primary radar of the Lockheed F-35 Lightning II is believed to be capable of performing such duties and are becoming operational at such rates that they could be tasked for this under certain circumstances.

Air defense lasers may be an ideal weapon for dealing with drones, but they have been long promised and thus far failed to achieve operational status. Whatever their issues, particle beam weapons are probably further out on the technology horizon than lasers.  In the meantime, laser “dazzlers,” designed to temporarily blind pilots, have been out there — and effective — since the Falklands War, 42 years ago. Laser dazzlers could at least keep the drones from getting good optical reconnaissance data and deter amateurs from overflying facilities that may easily ruin their drone’s optics (whether or not they really can).

While we wait for these perfect weapons, rather more primitive arms may just fill the bill: just prior to WWII, the British developed an antiaircraft weapon the consisted of a multiple rocket launcher where the rockets trailed cables to ensnare German Stukas trying to bomb Royal Navy capital ships at sea. A similar system might be effective against drones that would be brought down by hitting or being hit by the streaming cable. Better still would be if they could successfully boost a net into the air. This approach would be particularly attractive as the threat drones are generally relatively slow and are unlikely to see such an attack unless it is launched from directly in the drone’s flight path. It would also be a relatively low threat for accompanying infantry. Such a “monkey catcher” could be mounted in pairs on an armored vehicle’s turret. On the platoon or company command net, the order “drone left,” “drone forward,” or “drone right,” the unit’s vehicles could slew their turrets to face the threat and each fire a net in that direction. An individual monkey catcher might not have a high probability of success, but multiples firing from different angles would have a much higher chance of knocking down the offending drone.

At some point, laser air defense weapons will mature and be fielded, ending the current threat. Until that time, “out-of-the-box” thinking may provide a more near-term solution to the threat we face today.


 

Aces at Kursk is for sale on Amazon.com (U.S.)

It looks like Aces at Kursk is for sale in the U.S. on Amazon.com. The link is here: Aces at Kursk: The Battle for Aerial Supremacy on the Eastern Front, 1943: Lawrence, Christopher A: 9781399081436: Amazon.com: Books

Yesterday they were reporting 19 in stock, this morning it was 16. So it does look like they were selling and shipping. Let me know when someone sees copies in the book stores.

 

Aces at Kursk should be out in early July

According to Pen & Sword, the printers should be delivering Aces at Kursk next Friday (the 5th of July) to their warehouse, and so the stock should be booked in the week commencing 8th July, all being well.

Right now, Amazon UK is showing its release date as 30 Jan. 2024.  Amazon US is showing the release date as 25 July 2024. Waiting for this to be updated but I gather the UK release date is on or shortly after 8 July 2024. U.S. release date will be later (don’t know how much later). 

Hunting Falcon is also in process and will be released this summer.

Sorry for the delays, these are things not under my control.

Also see:

Aces at Kursk – Chapter Listing – The Dupuy Institute

Aces at Kursk – Summation – The Dupuy Institute

 

 

Two missing reports – #26 and #27

As I was going through our early reports, it again came to my attention that we were missing two early reports. See: TDI – The Dupuy Institute Publications. They are:

26. Target/Range Experience for Tank & Antitank Weapons (1969) (Batelle) – Pages: NA

27. Historical Data on Tactical Air Operations: The Rome Campaign, 11 May-17 June 1944 (1970) (AFS&A) – Pages: NA

They have been missing for a while. Our report list comes from the 1980s, and even then their pages were listed as “N/A.” I gather that means we were missing them at that time. They may have been classified. When DMSi/HERO was shut down in the early 1990s, any classified reports had to be burned.

Anyhow, the customers for those reports were Batelle and AFS&A. If anyone has access to these reports, we would love to get a copy for our files.

Current book release schedule

I have four books in process or about to be released. They are:

The Battle for Kyiv:
– UK release date: 28 November
– U.S. release date: 18 January 2024

Aces at Kursk:
– UK release date: 30 January 2024
– U.S. release date: posted as 18 January 2024, but suspect release date will be in March 2024.

Hunting Falcon:
– UK release date: 28 February 2024
– U.S. release date: posted as 29 February 2024, but suspect released date will be in April 2024.

The Siege of Mariupol:
– UK release date: sometime in 2024
– U.S. release date: sometime in 2024

Books under consideration for 2024/2025:
The Battle for the Donbas
The Battle of Tolstoye Woods (from the Battle of Kursk)
More War by Numbers

F-16s for Ukraine: Game Changer or Resource Waster?

Another posting from William (Chip) Sayers, who started his career in the air force:

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F-16s for Ukraine: Game Changer or Resource Waster? 

Now that the Biden Administration has finally decided to allow the Ukrainian Air Force to receive F-16 Falcons (or as they are known by their pilots, “Vipers”), a lot of pushback has shown up in the media claiming this is not a good decision. This pushback mainly comes in the form of two objections: The Ukrainians won’t be able to operate them until it is too late, and that once they do, the F-16 won’t prove to be a game changer.

Let’s discuss how long it will take the UAF to learn how to employ the F-16. Some of the pushback is coming from people with expertise in this field, including Viper instructor pilots, so we can’t just dismiss their opinions out of hand. However, we can evaluate what they have to say against the situation as it stands.

The experts usually claim that it will be years before the UAF can “fully exploit” the F-16, or something along those lines. And they are undoubtedly correct. You show me a really good Viper jock, and I’ll show you an experienced Major, someone with hundreds, or even thousands of hours in the F-16’s cockpit. However, this is undoubtedly irrelevant. If the UAF can exploit even half the capability of the F-16’s potential, they will be way ahead of where they were at the beginning of the war with their Russian-produced fighters. The real question is, how long will it take for the UAF to be able to operate the F-16s in a way that positively contributes to their war effort. And that will take substantially less time. According to a US Air Force report based on the training of two UAF fighter pilots, it should take three to four months.[i] How can this be?

First off, the UAF has a sizable cadre of trained MiG-29 and Su-27 pilots — aircraft comparable to the F-16, if a bit less capable. As it happens, it is significantly easier to fly and fight the F-16 compared to the Russian aircraft. Anyone who can fly the MiG-29 can learn to fly the Viper very rapidly. Two vignettes: In my somewhat abbreviated flying career, I flew the T-37, a sweet little trainer that was well suited to its job. However, having been designed in the 1950’s, its instrument layout was, shall we say, suboptimal. It was often said that if you could fly instruments in the T-37, you could do it in anything. This analogy fits well with the comparison between the MiG-29 and the F-16.

The contrast between the MiG-29 and the F-16 highlights how advancements in aerospace engineering can significantly influence pilot training and aircraft performance. Just as the T-37’s outdated instrument layout was a rigorous test for budding aviators, the MiG-29 presents its own set of challenges compared to the more user-friendly F-16. This transition underscores the impact of modern aerospace manufacturing techniques on designing aircraft that are not only more capable but also more intuitive for pilots to operate. Buoyancy Aerospace exemplifies this transformation, showcasing how inventive aerospace manufacturing solutions are revolutionizing the industry. Their approach integrates advanced materials and cutting-edge technology to enhance aircraft design, ensuring that new models are more efficient and easier to fly.

Manufacturers seeking top-tier precision metal components, EM-Dynamics for solutions provides the expertise and innovation necessary to meet the rigorous demands of the aerospace industry. Their cutting-edge technology and attention to detail ensure that each component is produced to exact specifications, improving the overall quality and performance of the aircraft. By utilizing high-precision metal parts, aerospace companies can create lighter, stronger, and more efficient designs, further advancing the capabilities of modern aircraft like the F-16 while enhancing their operational simplicity. This evolution in aerospace engineering aligns closely with the ease of transitioning from the MiG-29 to the F-16, reflecting a broader trend towards creating aircraft that offer superior performance and operational simplicity.

Vignette #2: In the early 1990s I took a class of new analysts to Langley Air Force Base for an orientation with the US Air Force. The highlight of the visit was a chance for everyone to fly the full-motion F-15 weapons simulator. At this point, I had been out of the cockpit for around 10 years and my only updated experience was flying the PC game, Falcon 3.0 — which actually simulated radar and weapons employment quite well. I went last, and did so well, the instructors started playing cat & mouse with me to keep me humble. The point is, I was able to do well on the experience of a $40 commercial flight simulator because US 4th generation jets were purposely designed to be easy to use. So again, UAF MiG-29 pilots should be able to fly the Viper well with a minimum of training, compared to their clunky former mounts. They should be able to fly the jet successfully in air-to-air missions using their MiG tactics in a matter of weeks.

Suppression of Enemy Air Defense (SEAD) missions will take longer, and effective air-to-ground missions will come sometime after that. Will this make UAF Viper pilots masters of the air? No, that really does take time, but they will be effective and will rapidly improve with experience. One thing the experts seem to miss is that they were working during peacetime. The UAF is in an existential war, and that is a powerful motivator.

So, if the UAF can get the F-16 into the war relatively rapidly, will it make any difference? At first blush, it seems highly doubtful. Both sides’ air forces have contributed little of consequence to the war thus far. The deadly air defenses fielded by both sides have largely kept airpower away from the front lines and, in the case of the Russians, relegated to launching long-range missiles from the safety of their home airspace. However, things may be quietly changing.

Recently, Ukraine has demonstrated the ability to successfully plan, coordinate and execute SEAD missions against the most advanced Russian SAM systems in existence. Undoubtedly, some credit is due to the incompetence of Russian air defenders and some to the somewhat less than advertised performance of their “best in the world” equipment. However, the great majority of the credit belongs to the Ukrainian planners, particularly given the somewhat low-tech (slow, prop-driven drones, among other things) they used to accomplish the missions.

The Viper comes in a variety of flavors as do the weapons they carry. The capabilities the UAF will have depends upon the particular combination they field. For example, the F-16CJ Block 50D is specifically designed to hunt and kill air defenses. When teamed with the AGM-88 High Speed Anti-Radiation Missile (HARM), the combination is extremely effective. During Operation DESERT STORM, Iraqi troops were so intimidated by the HARM that they refused to use their field radios (which were never targeted, and probably couldn’t be, regardless) and for the next 12 years through Operations SOUTHERN and NORTHERN WATCH and IRAQI FREEDOM, no Iraqi air defense unit turned on its targeting radars — ALL of their shots were fired unguided. Likewise, in Operation ALLIED FORCE over Kosovo and Serbia in 1999, it was rare to see the air defenses turn on their targeting radars. If the UAF can successfully integrate such aircraft and weapons into their SEAD schemes, it could prove as effective with the Russians as it was with the Iraqis and Serbs.

While no amount of SEAD can ever get rid of the threat from air defense guns and IR-guided SAMs, suppression/destruction of the Russian S-300/400, Tor, Pantsir and Buk radar-guided SAMs opens up the UAF’s ability to use altitude to take them out of the range of the short-range threat that will always be present.

At this point, the F-16’s AIM-120 Advanced Medium-Range Air-to-Air Missile (AMRAAM) will move to the fore. The combat histories of the various aircraft and weapons involved would suggest that even a relatively small number of F-16s should be able to secure air superiority over Ukraine. This will be complicated by the fact that the UAF pilots will likely fight using Russian tactics, at least initially. The F-16 was designed to support the use of more dynamic Western tactics, and while it would be difficult for pilots flying MiG-29s to discard their traditional Ground-Controlled Intercept (GCI) doctrine, this will come if the UAF embraces the change. In the mid-1990s, the Kuwaiti Air Force acquired US F-18 Hornets and were trained by the very best the US Navy had to offer. Within three years, they went from being essentially dead in the water to putting the whoop to the Royal Navy’s Harrier pilots and being voted the “Best in the Gulf” by their peer air forces. Changing tactics mid-conflict is far from ideal, but combat can do much to focus the mind. It all depends on the commitment of the UAF leadership and if they buy into the change.

Russian air-to-air missiles are formidable on paper, but have come up short under operational circumstances and their GCI-driven tactics fail to take advantage of what capability they have. However, the superior situational awareness afforded the pilot by the Viper’s easy to use radar and the AMRAAM’s status as a virtual one-shot, one-kill weapon when fired within its parameters make the F-16 capable of high kill:loss ratios. If Ukraine’s F-16s come equipped with the latest models of the AIM-9 Sidewinder Infrared-homing missile, it will be all the more deadly when fighting obsolescent Russian fighters using reliability-challenged weapons and outdated tactics. The sooner UAF Viper pilots can adjust to Western tactics, the more dominant they will be in the skies of their homeland.

Without going into various offshoots, there are two types of air superiority: local air superiority and general air superiority. Local air superiority refers to the seizure of air superiority at a specific time and place in order to conduct a particular operation for a limited time without undue interference by the opponent’s air force. Within the Soviet/Russian doctrinal system, it is gained by strong groupings of long-range SAMs, augmented by Combat Air Patrols (CAP) of fighters to plug gaps and back up the SAM defenses. Obviously, local air superiority cannot be established very far from the front lines on the ground, but this is not a concern since within this scheme, air and air defense forces are used in support of ground forces. While the Russians have always talked a big game, this is essentially the only scheme of air superiority the Russians recognize.

General, or Persistent air superiority is established over an entire combat zone, region or even country. Of necessity, it must be done utilizing strong fighter forces — often with bomber units as a supplement — and lasts until the enemy can wrest it away by attriting the other side’s fighters to the point that they can no longer present a serious threat. This can best be illustrated by the USAAF’s victory over the Luftwaffe in the European strategic bombing campaign in WWII.

General air superiority buys the side that has it several advantages. First, it keeps the enemy from meaningfully intervening in the operations of one’s air, ground and naval forces. Secondly, it blinds the enemy to what is going on in one’s own territory, while simultaneously opening up the enemy’s territory to comprehensive reconnaissance. The phenomenon of blinding the enemy while gaining omniscience over him is a war winning, though often overlooked, circumstance. This had as much to do with the victories in Patton’s 1944 operations in France, Operation DESERT STORM and Operation IRAQI FREEDOM as anything else.

Perhaps the biggest benefit of air superiority is the freedom of operations it allows the winner’s forces, including the ability for his air forces to strike when and where they choose. During the summer and fall of 1943, USAAF bombers damaged many targets in Germany while air superiority was being contested, but to nothing like the extent desired. After the USAAF won air superiority over Germany late that winter, their strikes became vastly more effective to the point that, once released from Eisenhower’s direct command in support of the D-Day landings and subsequent ground operations, it took just six months to collapse the German war economy. Clearly, the UAF’s F-16s won’t be collapsing the Russian war economy, but the ability to strike railheads, bridges, fuel and ammunition dumps, Command, Control and Communications (C3) nodes, headquarters and artillery units with such precision can be a decisive factor and force multiplier for Ukrainian ground forces.

The F-16 in every form is an extremely accurate bomber at low altitude, even while using non-guided “dumb” bombs. In a 1980s edition of the USAF’s official publication Fighter Weapons Review, an F-16 pilot detailed a new way to attack runways without specialized munitions. His technique called for aiming 3 feet short of the lip of the runway so that the bombs, burrowing in a predictable manner, go under the concrete to detonate under the center of the runway.  3 feet. That’s some precision bombing.

Typically, putting bombs on target accurately is one of the most challenging tasks a fighter pilot can undertake, particularly in the face of challenging air defenses. However, the Viper makes air-to-ground attacks much easier than with the Russian legacy aircraft. The F-16’s fire control system projects a “Continuously Computed Impact Point (CCIP)” indicator on the heads-up display, which indicates exactly where the bombs will land if punched off at that moment. In earlier jets, the pilot had to fly a precise pre-planned approach to the release point, hitting exact parameters of altitude, airspeed, and dive angle — even the slightest deviation would throw the bombs off target. The first aircraft in a flight might get away with flying a predictable flight path, but the enemy will know with certainty where number four will be at release and can adjust their aim accordingly. The CCIP allows the pilot to take any path to the target, randomly changing airspeed and altitude as necessary for survivability. At the last second, the Viper pilot can pop-up, place the CCIP on the target and deliver his bombs with great precision. It is not for no reason that CCIP’s nickname is the “death dot.” The death dot is featured on most Western fighters today, but Ukraine’s fighter fleet lacks this tool, and therefore the F-16 should give the UAF a major leap forward in effectiveness on ground attack missions.

One thing we shouldn’t expect is a major overnight upgrade in Close Air Support (CAS). The Soviet/Russian Air Force — and by extension, the Ukrainian Air Force — have never really done fixed-wing CAS, at least as we define it. Any air support requiring detailed integration with troops in contact is generally left to attack helicopters, while fixed-wing aircraft do what we used to call Battlefield Air Interdiction (BAI), which doesn’t require close integration and is less likely to inflict friendly fire casualties. (It’s a dirty little secret that about 95% of air forces world-wide do the same.) Doing CAS according to US doctrine is probably the most difficult mission pilots can undertake, requiring a great deal of training and practice. Even if the UAF decides that they like our CAS concept better, it will take some time for them to be able to do it effectively.

Having determined that the UAF could bring the F-16 on line fairly quickly (albeit, without mastery of all its capabilities), that it represents a significant upgrade in SEAD, air superiority and ground attack capabilities, what will its impact be overall? Game changer or not? Most likely, not. It’s really just a matter of numbers. With a sufficiently sized fleet, the F-16 could dominate the skies to the point that Russian troops that moved would be inviting death by interdiction, while those that hunkered down in defensive positions would starve, be blasted to atoms or surrounded and captured by Ukrainian ground forces. However, that would take closer to 200 aircraft than the few dozen they’re likely to get. And, of course, they’ll need attrition replacements for their inevitable combat losses.

One thing we can do right now to significantly improve the survivability of the F-16 fleet is to put their entire logistics support package on wheels. If the UAF’s Viper fleet proves to be effective, the Russians will undoubtedly put their Main Operating Bases (MOBs) at the top of their priority strike list. While putting MOBs out of action is not nearly as easy as some assume, the loss of a hangar-queen here and an unlucky jet there will add up, and with a fleet as small as they are likely to have, they can ill-afford such losses on the ground. The best way to avoid that is to simply not be home when the cruise missiles arrive. The MiG-29 was specifically designed for such operations with the sturdy landing gear and air intake Foreign Object Damage (FOD) screens necessary to operate from unpaved fields. While the Viper will never be capable of operating from a sod field, it can easily operate from highway strips and better so than larger, heavier and less powerful jets. By making the F-16 fleet’s logistics mobile, they could quickly move from highway strip to highway strip to thwart Russian efforts to find them. Coupled with Ukrainian air superiority over their own territory — thereby making Russian reconnaissance vastly more difficult — UAF F-16 attrition could be kept to manageable levels multiplying their impact on the war.

The F-16 probably won’t be a game changer, but it may very well be a decisive factor.

[i] https://www.thedrive.com/the-war-zone/basic-f-16-training-for-ukrainian-pilots-could-take-just-four-months  Accessed 26Oct23.