Why the US Air Force Just “Surged” A-10 Warthogs to Hormuz

Five weeks into Operation Epic Fury, the United States Air Force just deployed 18 additional A-10 Warthogs to the Middle East.

That brings the total to roughly 30, nearly a third of the remaining fleet concentrated in one theater.

The aircraft scheduled for retirement.

The aircraft the Air Force has spent a decade trying to phase out.

And right now, more of them are heading into the war zone, not out of it.

Why? Because in the straight of Hormuz, where over 150 Iranian vessels have been destroyed or disabled since February 28th, the Air Force discovered a problem that billions in fifth generation sensor technology cannot solve, telling a fishing boat from an attack boat among 3,200 civilian vessels.

The F-35 has a sensor suite worth more than the airplane it is trying to replace.

It still cannot distinguish an IRGC paycap fast attack craft from a DAO at 500 knots.

The A-10 pilot can because at 300 knots through a bubble canopy, the human brain has time to see what no algorithm has been taught to distinguish.

The A-10 is being reinforced.

It is also being phased out.

Congress held the line through September 2026, 103 aircraft minimum.

The transition plan for 2027 through 2029 has been submitted.

The Pentagon knows how to replace the gun.

It knows how to replace the armor.

It does not know how to replace the eyes.

There is a physics equation behind this.

One that no defense channel has explained.

And it is the reason the Pentagon cannot replace this aircraft.

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On March 19th, General Dan Kaine, chairman of the Joint Chiefs of Staff, confirmed that A10 warthogs are actively hunting and engaging IRGC fast attack craft in the Straight of Hormuz.

Kill markings on deployed A10s covered in detail in a previous episode confirm the concept works in combat.

The question this episode asks is different.

Not whether the A10 works.

We know it works.

The question is what specific advantage does it have that no other aircraft can replicate? And what happens when it leaves? The answer is not the gun.

It is not the armor.

It is not the cost.

Those advantages are real.

We have covered them.

But Epic Fury revealed something deeper.

A fourth requirement that no one planned for when they wrote the A10’s divestment road map.

To understand it, we need to talk about a physics equation that no defense channel has explained and [music] that the Pentagon has not solved.

Picture the Strait of Hormuz from 3,000 ft.

Below you 3,200 civilian vessels, dos container ships, fishing trwers, fuel barges, [music] fairies running between Bandar Abbas and Kesh Island, and somewhere among them, IRGC paycap fast attack craft, engines off, tarpolin pulled over the rocket rails, painted the same sunbleleached blue as every fishing boat around them from high altitude on an infrared sensor.

They are all identical thermal blobs.

Warm engine, warm hull, warm water.

The sensor sees contacts.

It does not see context.

The reason comes down to an equation every pilot knows, but few have explained.

When an aircraft flies over a target, that target sweeps across the pilot’s field of view at a rate physicists call angular velocity.

The principle is simple.

The faster you fly, the faster targets move across your retina.

The lower you fly, the faster still.

What matters is not your air speed in absolute terms.

It is how quickly the world scrolls past your eyes.

And that rate determines whether a pilot has time to see what is below or whether the ground is just a blur.

An F-35A crossing the straight at 500 knots at 5,000 ft generates a high angular rate.

Targets transit the pilot’s field of view in a narrow window, too brief for the human eye to process contextual detail.

At that speed, the pilot cannot rely on what is outside the canopy.

So, the pilot looks down at the EOTS AQ40 [snorts] electrooptical targeting system, an infrared sensor designed to detect and track.

And it does detect.

It marks contacts on the display.

But among 3200 contacts that all look approximately the same on infrared, which one has rocket launchers under a tarpolin? The sensor sees temperature.

It does not see intent.

An A10C at 300 knots at 3,000 ft operates at a significantly lower angular rate, roughly 40% lower.

The pilot looks through a bubble canopy with near unobstructed visibility.

And the pilot’s brain runs a process that no sensor replicates.

[music] Scan the line of vessels.

Contextualize.

Is this boat anchored among civilians or holding a position offset from the shipping lane? Classify.

[music] Are those fishing nets or antenna arrays? Is that a fuel drum or a rocket rail under canvas? [music] Decide, does this contact meet the threshold for positive identification under the rules of engagement? If yes, engage.

If not, pass and circle back.

That four-step process, scan, contextualize, classify, decide, requires dwell time.

And dwell time is exactly what speed takes away.

The faster you fly, the less time the pilot has to distinguish a combatant from a fisherman.

In a theater where thousands of civilian vessels share the water with IRGC attack boats, and where misidentifying a single target means an international incident, dwell time is not a luxury.

It is a legal and operational requirement.

Think of it this way.

A security camera can see that someone entered the building.

Only the guard at the door can see that the person is carrying a weapon under their coat.

Detection is not identification.

In the straight of Hormuz, the A10 is the guard at the door and right now it is the only guard on duty.

Now technology is not standing still.

The next generation advanced EOTS, a Block 4 upgrade with shortwave infrared and higher definition sensors may narrow this gap, but block 4 is behind schedule.

The upgraded sensor is not in the fleet, and the gap [music] exists now.

In a previous episode, we showed that the A10 meets three requirements no other aircraft in the inventory satisfies simultaneously.

Persistence, survivability, and cost efficiency.

But Epic Fury has exposed a fourth.

One that was not part of any transition plan because nobody anticipated a war that demands visual identification in dense civilian clutter.

Four requirements.

Run every candidate.

Start with the obvious candidate, the F-35A Lightning 2.

It is the most capable fighter in the inventory.

But capability is not the same as suitability.

At combat load, the F-35 does not loiter over a target area.

It transits, strikes, and returns.

Its stealth advantage degrades at the low altitudes where close air support actually happens.

It costs $34,000 per flight hour.

And at 500 knots, the angular velocity we just discussed makes the pilot entirely dependent on sensors that cannot classify contacts in sea clutter.

The F-35 was built for beyond visual range combat, detecting and killing targets from a distance.

It is the wrong tool for a mission defined by looking out the window.

Remove the pilot entirely and you get the MQ9 Reaper, 14 plus hours of endurance, which solves the persistence problem.

But the Reaper has no armor, no redundancy, and a single 12.

7 mm round ends a $32 million airframe.

MQ9s have already been shot down by Houthi surfaceto-air missiles in Yemen [music] in a threat environment less dense than Hormuz.

And for visual identification, [music] the operator sits in a ground station thousands of miles away, viewing the world through a sensor feed with over a second of satellite delay.

The operator looks through a straw.

The A-10 pilot looks through a windshield.

The next generation promises to solve this with artificial intelligence.

The collaborative combat aircraft program has two prototypes in flight test.

The YFQ42A from General Atomics and the YFQ44A from Anderil designed as autonomous wingmen at 25 to30 million a piece.

But here is what the AI cannot do today.

positive identification in clutter.

West Point assessments describe current AI visual recognition as brittle.

It fails when it encounters objects outside its training data.

When targets are partially hidden, when the scene is crowded with similar looking contacts, the AI does not run scan, contextualize, classify, decide.

It runs pattern match.

[music] And when the pattern is a pay cap painted to look like a fishing boat, the pattern breaks.

Initial operating capability is 2028 at the earliest.

The gap is now.

There is one candidate that almost works.

The AT6B Wolverine, a turborop trainer converted for light attack at under $1,000 per flight hour.

It flies at roughly 250 knots with a full visibility canopy, slow enough for the pilot’s eyes to do exactly what the A-10 pilot’s eyes do.

But the AT6B carries only light armor.

It cannot survive the 12.

7 mm guns and man pads that line the Iranian coast.

No titanium bathtub, no dual engines, no manual reversion backup, the right eyes in the wrong skin, viable in permissive airspace, not over the straight of Hormuz, which leaves the A10C Thunderbolt 2.

2 and 1/2 hours on station with external tanks.

1,200 lb of titanium armor around the cockpit.

Dual engines with redundant flight controls that work even when the hydraulics fail.

$20,000 per flight hour.

And 300 knots through a bubble canopy.

Angular velocity low enough for the human brain to run the four-step visual process.

Previous episodes showed three requirements.

Epic Fury revealed a fourth, and it is the one nobody planned for.

run every candidate against all four.

Not a single replacement passes.

The A-10 is the only aircraft in the inventory that does, and it is the one being retired.

The Air Force is not retiring the A10 because something better exists.

It is retiring the A-10 because the mission it was built for, low, slow, survivable, and cheap, does not fit the war the Air Force wants to prepare for.

The problem is that the war it prepared for is not the war it is fighting.

Here is the timeline that makes this equation urgent.

The Air Force has submitted its transition plan to Congress fiscal years 2027 through 2029.

A10 fleet drawn down.

Mission transferred to a system of systems.

F-35s providing high altitude overwatch.

CCA drones serving as forward sensor nodes.

MQ9 Reapers maintaining persistent surveillance.

The gaps in any single platform are supposed to be covered by the network.

And yet, [music] in the first week of April 2026, the Air Force deployed 18 additional A10s to the Middle East, bringing the total to roughly 30.

Nearly a third of the fleet that Congress mandated be kept alive.

The purpose support for potential ground operations along the Iranian coast and Carg Island, which handles 90% of Iran’s oil exports.

The Air Force is surging the aircraft it is dismantling into the war that proved it indispensable.

The system of systems concept sounds elegant, but it has a physics flaw.

Networking solves coverage, putting sensors in more places.

Networking does not solve resolution.

Each individual sensor is still bound by the same angular velocity, the same thermal clutter, the same pixel limitations.

You can build a network of a thousand cameras, but if every camera shoots at 144p, adding more cameras does not give you 4K.

Resolution is a physics problem, not a bandwidth problem.

The honest caveat, AI will improve, sensor resolution will increase.

The CCA program may solve the autonomy challenge by 2030, but the A10 retires before the technology catches up.

The gap between what leaves the inventory and what enters it is measured in years, and those years happen to coincide with the largest American military operation since Iraq 2003.

If ground operations expand along the Hormuz coastline, if the mission extends to distinguishing military targets from civilian infrastructure on a contested shore, that is precisely the equation that demands a pilot’s eyes at low speed over hostile terrain.

The Air Force plans to replace the A-10 with a system.

It is currently sending 30 A10s into a war because the system does not exist yet.

The problem is not the plan.

The problem is the timeline.

So, we arrive at a question that none of the individual vectors can answer alone.

Vector 1 showed that the A10 sees targets that sensors cannot identify [music] because angular velocity at 300 knots gives the pilot enough dwell time to process context in dense clutter.

Vector 2 showed that no replacement platform passes all four requirements.

Vector 3 showed that the Air Force is reinforcing the A-10 fleet in Epic Fury while simultaneously submitting the paperwork to retire it.

Each vector explains a piece, but the real question is larger.

Why does the most technologically advanced air force in human history in the middle of its most significant military campaign in two decades depend on the eyes of a pilot in a 50-year-old cockpit? The answer is not about the airplane.

It is about doctrine.

For 30 years, the United States Air Force optimized for a single vision of air combat beyond visual range, stealth, sensors, [music] network ccentric warfare, first look, first shot, first kill.

Every dollar in the budget flowed toward detecting the enemy from a distance and destroying it before visual contact.

The F-22 was built for it.

The F-35 was built for it.

The B-21 is being built for it.

The entire force structure is designed around the principle that you should never have to get close enough to look out the window.

[music] The A10 was the only aircraft in the inventory that rejected that principle.

It was designed to fly close, fly low, and decide with human eyes.

For 30 years, that made it the odd one out.

the aircraft that did not fit the doctrine, not because it failed, because the doctrine moved past [music] it.

And then epic fury happened.

A war where drones blend into the sky, where fast boats blend into civilian harbors, [music] where grayzone targets blend into populations.

A war where the enemy’s strategy is not to overpower American sensors, but to hide beneath their resolution.

And the aircraft that fits this war, the only aircraft that can scan, contextualize, classify, and decide at the speed a human brain requires, is the one the Air Force spent a decade trying to discard.

The proof is not theoretical.

It is logistical.

30 A10s, a third of the remaining fleet surging into the theater.

Not because the doctrine says they should be there, because the physics demands it.

The A10 Warthog will land for the final time.

And when it does, subscribe to air power decoded because the equation it leaves behind is the one we decode next.

The gun will be mothballled.

The titanium bathtub will go to a museum.

But the physics of visual identification, angular velocity, dwell time, the limit of what any sensor can resolve in clutter, those do not retire.

They are equations.

and equations do not care about transition plans.

The next war that demands eyes on target at low altitude will still demand them.

The next harbor full of civilian vessels and hidden combatants will still require a pilot who flies slow enough to see.

The question is not whether the A10 should be kept forever.

Nothing flies forever.

[music] The question is this.

When 70 fast boats hide among 3,000 fishing vessels and the rules of engagement demand positive identification before the first shot, who looks out the window, and the physics the A10 solves does not retire when the airframe does.