Aircraft Carriers Explained: Design, Operations, and Strategic Might

How Many Aircraft There In Aircraft Carrier & What Type is Mostly On Board

A U.S. aircraft carrier typically embarks an air wing of about 60 to 75 aircraft, though the carrier itself has a maximum capacity of around 90. The composition can vary by deployment, but the F/A-18E/F Super Hornet is the most numerous and serves as the backbone of the air wing.

The interesting part is that most of them are fighter/attack aircraft.

Type	Quantity (Approx)	Role
F/A-18E/F Super Hornet	30-36	� Backbone — strike, air superiority, attack
F-35C Lightning II	10-12	Stealth strike fighter — growing to 16
EA-18G Growler	5–7	Electronic attack / jamming
E-2D Advanced Hawkeye	4–5	Airborne early warning — radar & command
MH-60R/S Seahawk	8–19	Anti-submarine, search & rescue, transport
CMV-22B Osprey	2–3	Cargo / onboard delivery
MQ-25 Stingray (new)	0–2	Aerial refueling drone — entering service 2026–27
TOTAL	~65–70

1. F/A-18E/F Super Hornet — the workhorse

These make up the largest portion of the fixed-wing combat aircraft. They can perform both air-to-air combat and attacks against ground/sea targets.

2. F-35C — the stealth aircraft

The F-35C is gradually becoming an increasingly important part of carrier air wings. It provides stealth, advanced sensors and information-sharing capabilities. The Navy describes it as replacing some of the older F/A-18E/Fs as the air wing modernizes.

3. EA-18G Growler — protects the other aircraft

The Growler is based on the Super Hornet but is specialized for electronic warfare—detecting, jamming and attacking enemy radar/electronic systems.

4. E-2D Hawkeye — the carrier's flying radar station

This is particularly important. It has a large radar mounted above the fuselage and acts as an airborne command-and-control center, giving the carrier group a much better picture of aircraft and other threats at long distances.

5. MH-60R/S helicopters — the "utility specialists"

They aren't primarily there to attack cities or enemy aircraft. They perform missions such as anti-submarine warfare, surface surveillance, search and rescue, logistics and other support missions.

Question	Answer
Only 2 fighter types?	YES — F/A-18E/F and F-35C
Any others?	EA-18G exists but it's jamming, not fighting
F/A-18E vs F — different?	Same plane — E = 1-seat, F = 2-seat
F-35A/B/C all same?	NO — only C flies from carriers; B = amphibious ships; A = land only
Older planes still there?	F/A-18C/D legacy Hornets are mostly gone from frontline carriers now

Comparison of the Two Fighter Planes

Factor	F/A-18E/F Super Hornet	F-35C Lightning II
Unit cost	~$67 million	~$103 million (+53%)
Cost per flight hour	$25,000–$28,000	$35,000–$40,000 (+40%)
Stealth	❌ None	✅ Yes — radar-evading
Internal weapons	N/A	✅ Clean, hidden — first-day strike
External heavy load	✅ 11 hardpoints — carries more heavy bombs/missiles easily	⚠️ Only in non-stealth "beast mode" — loses its main advantage
Refueling duty	✅ Acts as tanker — critical at 1,000 km standoff	❌ Cannot — no buddy-fuel system
Maintenance	Simple, rugged, quick to fix	Delicate stealth coating — high upkeep, especially in salt air
Sorties per day	Higher — flies more often	Lower — more prep time between flights
Production numbers	~620 built — mature, steady supply	~170 — still ramping up

Other Nations — Just For Reference

Country	Carrier Fighter Types
🇺🇸 USA	F/A-18E/F + F-35C (+ EA-18G)
🇫🇷 France	Only 1 type — Rafale M
🇨🇳 China	J-15 (J-35 coming soon)
🇬🇧 UK	F-35B only (STOVL — no catapult)

However, the carrier itself is only one part of the Carrier Strike Group. It normally operates alongside cruisers/destroyers and other ships carrying their own missiles, sensors and helicopters. The carrier therefore isn't expected to do everything with its aircraft alone. 

Which is The Most Expensive US Aircraft Carrier

The USS Gerald R. Ford (CVN-78) is the most expensive U.S. aircraft carrier ever built, and it is also the lead ship of the newest Ford class.

The Ford itself cost about $13.3 billion in the dollars of the time it was funded. Adjusted to 2024 dollars, the Congressional Budget Office puts the figure at about $19.6 billion. That figure does not include about $6 billion in research and development costs for technologies developed for the entire Ford class.

So you may see different numbers such as $13.3 billion, $19.6 billion, or roughly $25 billion depending on exactly what is being counted. And from the beginning of construction to delivery was roughly 9 years, and becoming fully operational took considerably longer.

How Many US Aircraft Carriers Were Sent to the Region

According to the available reports from the 2026 conflict, 4 US aircraft carriers were sent to the Middle East, but none were confirmed by US sources to have been hit.

Carrier	Class	Deployed	Area	Status
USS Gerald R. Ford (CVN-78)	Nuclear	Feb–Aug 2026	Red Sea / Eastern Med	✅ Departed Aug 2026 → Mediterranean
USS Abraham Lincoln (CVN-72)	Nuclear	Feb–Aug 2026	Arabian Sea	✅ Returned home Aug 2026
USS George H.W. Bush (CVN-77)	Nuclear	Apr 2026	Arabian Sea / Gulf	✅ Active
USS George Washington (CVN-73)	Nuclear	Aug 2026	Arabian Sea	✅ Active (replaced Lincoln)

Total US carriers in entire Navy: 11; ~36% of the whole force deployed to this conflict.

Claims of Being Hit vs. US Denials

The discrepancy between Iranian claims and US statements is a central point of contention.

Claims Regarding USS Abraham Lincoln: Iran repeatedly claimed to have struck the Lincoln with missiles or drones, asserting it was forced to withdraw. The US military (CENTCOM) consistently and firmly denied these claims, stating the missiles "did not even come close" and the ship remained fully operational.

Claims Regarding USS Gerald R. Ford: Some reports linked a fire on the Ford to an Iranian attack. However, verification efforts concluded the attack claims were false. The fire was reported as an internal, non-combat incident in a laundry area, and the ship went to port for repairs, not because of battle damage.

Spoiled Toilets

The toilet troubles are well-documented, particularly on the USS Gerald R. Ford and the USS Abraham Lincoln.

On the USS Ford: The ship's vacuum sewage system has been a persistent problem. Records show 205 toilet breakdowns in just four days in March 2025, and 42 requests for external repair assistance since 2023.

A 2020 Government Accountability Office report found the pipes were too narrow for the crew size. While the Navy downplays it as "highly exaggerated," the Chief of Naval Operations acknowledged issues caused by misuse (like flushing t-shirts) and wear from long deployments.

On the USS Lincoln: Reports from August 2026 describe unusable toilets, mold in showers, and water shortages. Congress members demanded explanations after reports of these conditions and their impact on crew morale.

Why The Aircraft Carrier Stay So far Away Most of The Time

US aircraft carriers remained far from Iran most of the time because Iran's anti-ship missile network created a "no-go zone" that made close approach too risky.

Iran built a layered coastal defense system specifically designed to threaten high-value ships like aircraft carriers. Several systems have ranges that extend well into the Gulf of Oman and Arabian Sea.

Khalij Fars (Persian Gulf): An anti-ship ballistic missile with a range of roughly 300 km and speeds of Mach 3–4, designed to hit moving ships. This alone covers the entire width of the Persian Gulf.

Zolfaghar Basir: An anti-ship ballistic missile with a range of about 700 km, using optical terminal guidance to target large vessels.

Abu Mahdi: A long-range anti-ship cruise missile with a range exceeding 1,000 km, capable of low-altitude flight and evading radar.

Fattah-2 hypersonic = ~1,500 km range, Mach 13–15 — extremely hard to intercept.

The hypersonic missile is the main reason they stay 1,000 km away. Before Fattah proved it could penetrate defenses in March 2026, carriers operated at 200–400 km; after that, they pulled back and have stayed far out ever since.

Jet	Unrefuelled Combat Radius	At 300 km	At 1,000 km
F/A-18E/F Super Hornet	~700–800 km	✅ Full power — no refueling needed	❌ Cannot reach without mid-air refueling
F-35C Lightning II	~1,100–1,200 km	✅ Full power — no refueling needed	⚠️ Barely reaches — minimal weapons, almost no loiter time

One weapon — the hypersonic missile — pushed them far enough away that the carriers lost 3/4 of their striking power. They can still hit Iran, but not with overwhelming speed or weight — and that is exactly why this war has dragged on without a clear, fast outcome.

The 'Dancing Missile' Explained: The Science Behind Iran’s Sejjil-2

 Facts About Iran's Sejjil-2 MRBM

The Sejjil-2 (also spelled Sajjil, or called Ashoura/Ashura) is a two-stage, solid-fuel, medium-range ballistic missile (MRBM) designed and built domestically by Iran. 

It is considered a significant technological leap for Tehran because it represents a shift away from older, slower-to-launch liquid-fueled designs.

Dancing Missile?

The viral video showing a white, wavy/snake-like smoke trail in the night sky is almost certainly the Sejjil‑2 — Iran's two‑stage, solid‑fuel ballistic missile, widely nicknamed the "Dancing Missile" or "Cobra trail missile."

In fact, Iranian state media specifically described the June 2025 Sejjil-2 launch as producing a “serpentine” / “cobra-like” winding plume.

Sejjil-2 is an Iranian-made missile. It was developed and produced domestically by Iran as part of its effort to move from liquid-fueled missiles toward solid-fueled systems. 

The CSIS Missile Defense Project describes Sejjil as a “domestically designed and built by Iran” two-stage solid-propellant medium-range ballistic missile.

The missile wasn't actually flying like a cobra

Two‑stage separation: When the 1st stage burns out and detaches in a small explosion, the 2nd stage ignites — creating a bright flash and a sudden change in the exhaust plume.

High‑altitude wind shear: At 60–100 km altitude, strong, shifting winds twist the condensation trail into a cobra‑like, winding, corkscrew shape that glows white against the dark night sky (illuminated by sunlight from below the horizon — the "twilight effect").

The white winding shape is mostly the exhaust/condensation plume being distorted by winds at different altitudes, rather than the missile itself making huge snake-like turns.

The missile travels generally along its intended trajectory, while the exhaust plume remains suspended in the atmosphere. 

Different layers of wind can push different sections of the plume in different directions, creating that spectacular "snake" appearance.

What Iran Targeted with Sejjil‑2

The Sejjil‑2 has been used operationally only recently — in the 2025–2026 Iran‑Israel war. Never used before June 2025 — for 17 years (since 2008 tests) it was held in reserve, considered Iran's "ace in the hole."

The Sejjil-2 shown in the famous “cobra/dancing smoke” footage was launched by Iran toward Israel. The clearest publicly reported instance was during the June 2025 Iran–Israel war. 

First Ever Operational Use — Operation True Promise III

On June 18–19, 2025, Iran said it launched Sejjil-2 missiles toward Israel. Israeli sources said the missile was intercepted, with fragments causing minor damage.

Israeli sources claimed full interception; Iranian sources claimed partial success.

The primary target set was Israel — decision‑making centers, air force bases, defense infrastructure, intelligence/Mossad facilities, and military industry sites.

Later waves (June 22–29, 2025): Multiple Sejjil-2s were launched. Some successfully penetrated defenses and struck military sites — including the Kirya military complex in Tel Aviv, air bases, and intelligence facilities. 

Israel's own data showed interception success rates dropped significantly against Sejjil because of its speed (Mach 10–12) and maneuverability.

Bottom line: The first one was mostly shot down, but later ones successfully hit their intended military targets — Sejjil proved very hard to fully stop.

Second & Third Uses — March 2026 (Operation True Promise IV)

Israeli targets again — air bases, military command centers, defense infrastructure.

U.S. military bases in the Gulf — first time ever used against American targets: Al‑Harir Air Base (Iraqi Kurdistan) and Ali Al Salem Air Base & Camp Arifjan (Kuwait).

Confirmed Direct Hits (Sejjil‑2 & similar precision missiles):

#	Target	Location	Type	Damage
1	Kirya Military Complex	Tel Aviv	🪖 IDF Headquarters	✅ Direct hit — command buildings damaged; Israel's "Pentagon" struck
2	Nevatim Air Base	Negev Desert	✈️ Air Force Base	✅ Runways & facilities struck; major operational disruption
3	Ramon Air Base	Negev Desert	✈️ Air Force Base	✅ Multiple impacts reported; infrastructure damage
4	Intelligence Corps Base	Mount Hermon	🧠 SIGINT/Early Warning	✅ Radar & comms facilities damaged
5	Soroka Medical Center Area	Be'er Sheva	Military/Urban Zone	✅ Near miss — massive blast damage; hospital partially damaged
6	Ramat Gan / Diamond Exchange District	Tel Aviv suburb	Urban/Command vicinity	✅ Building collapse; large crater; shockwave damage over wide area

Was it launched using satellite navigation too?

Sejjil-2 uses combined guidance: Inertial Navigation (INS) + Satellite (GPS/GLONASS) corrections.

Even without satellites, the inertial system alone is already very accurate — satellite is just the "precision boost".

Iran uses encrypted, military-grade satellite channels — not civilian public GPS — so it's harder to jam or spoof. Some reports also mention stellar/horizon reference backup for mid-course correction.

Why Sejjil‑2 Was Amost Impossible to Intercept

Extreme Speed — Mach 10–14+

Flies from Iran to Israel takes ~7 minutes total — barely time to detect, calculate, and fire. It re-enters atmosphere at Mach 10–14 (3.5–5 km per SECOND) — faster than any Israeli interceptor can catch.

"Dancing" = Unpredictable Path

Maneuvering Reentry Vehicle (MaRV): In final minute before impact, Sejjil‑2 weaves, zigzags, and changes direction — literally "dances".

Defense systems work by predicting where the missile will be — Sejjil‑2 breaks the prediction math. Every time it moves, radars must re‑track, recalculate, and re‑fire — exhausting interceptors.

Launches in minutes — No Warning

Solid fuel = pre‑loaded, ready to go — Iran can erect and fire in under 15 minutes. Older liquid‑fuel missiles (Shahab) need hours to fuel — easy to spot/preempt.

Saturated & Overwhelmed

Iran launched multiple Sejjil‑2s at once, mixed with drones, decoys, and other missiles. Israel had to choose: chase decoys → real missiles get through / chase real missiles → runs out of interceptors.

Each Sejjil‑2 costs ~$2–3 million**; each Arrow‑3 interceptor costs ~**$3–5 million — Iran could afford to fire 3–4 for every 1 interceptor Israel launched.

Two‑Stage = Extra Flash & Confusion

Stage separation at high altitude = bright flash + sudden trail change → can temporarily blind/confuse infrared seekers on interceptors.

That wavy snake trail people saw? Wind‑blown condensation from stage separation — but that separation itself also masks the warhead from sensors. 

Is Sejjil-2 Hypersonic Missile?

The Sejjil-2 is not classified primarily as a "hypersonic missile" in the modern sense of specialized maneuverable hypersonic weapons (like boost-glide systems or hypersonic cruise missiles). Instead, it is a medium-range ballistic missile (MRBM).

However, there is some overlap in terminology:

The Speed Factor: Like many medium and long-range ballistic missiles, the Sejjil-2 re-enters the atmosphere and travels at hypersonic speeds (speeds greater than Mach 5, with terminal speeds often estimated around Mach 10 to Mach 13).

The Distinction: In modern military terminology, a "hypersonic missile" usually refers to a weapon that maintains hypersonic speed and aerodynamic maneuverability within the atmosphere to evade missile defense systems (such as Iran's Fattah-2). 

The Sejjil-2 follows a traditional ballistic trajectory after its two-stage solid-fuel boosters propel it out of and back into the atmosphere, rather than actively maneuvering throughout its descent.

Sejjil‑2 vs. US & Chinese Equivalents

The closest comparison for Iran's Sejjil-2 is China's DF-21 family.

The similarity between Sejjil-2 and DF-21 is actually quite striking: both are roughly 2,000-km-range, two-stage, solid-fuel, road-mobile ballistic missiles. The DF-21 entered Chinese service in 1991 and has several variants, including conventional land-attack and anti-ship versions.

One particularly interesting detail is that Sejjil is actually quite large for its range: CSIS gives it a launch weight of about 23.6 tonnes, compared with about 14.7 tonnes for DF-21.

The US has no deployed MRBM in this class since eliminating them under the INF Treaty (1987–2019). The US does not operate a missile equivalent to Sejjil‑2. If forced to compare, Pershing II is the closest historical cousin but with shorter range.

	Sejjil‑2 🇮🇷	DF‑21C 🇨🇳	Pershing II 🇺🇸 (Retired)
Range	2,000–2,500 km	1,750–2,500 km	~1,770 km
Fuel	Solid	Solid	Solid
Stages	2	2	1
Mobile	✅ Road	✅ Road	✅ Road
Payload	700–1,000 kg	600–1,200 kg	640 kg
Speed	Mach 10–12	Mach 10–12	Mach 8
Status	Operational	Operational	Retired

Why the UAE Bore the Brunt of Iranian Strikes (Despite Qatar Hosting CENTCOM)

 Which Gulf Arab Countries Host The Most Important US Facilities

Among the Gulf Arab countries, the four most important hosts of U.S. military infrastructure are generally Qatar, Bahrain, Kuwait, and the UAE. Together they form the core of the U.S. basing network around the Persian Gulf.

1. Qatar — Probably the most important air-power hub.

• Around 10,000 U.S. personnel.
  
  
• Al Udeid Air Base — Arguably the most Important U.S. Base in the Entire Middle East.
  
  
• Forward Headquarters of U.S. Central Command (CENTCOM) — directs all U.S. military ops across 21 nations.
  
  
• Combined Air Operations Center — the nerve center for every U.S. air mission in the region.
  
  
• Largest U.S. airbase in the Middle East; supports ~1,000+ sorties daily.

2. Bahrain — The most important naval hub.

• ~8,500–9,000 personnel.
  
  
• Naval Support Activity Bahrain is headquarters of the U.S. Fifth Fleet and U.S. Naval Forces Central Command.
  
  
• The Fifth Fleet's area includes the Persian Gulf, Gulf of Oman, Arabian Sea, Red Sea, and the surrounding waters.
  
  
• Controls the Strait of Hormuz, Suez Canal, Bab el-Mandeb — the world's most critical maritime chokepoints.
  
  
• Bahrain also has one of the few Gulf facilities capable of supporting large U.S. naval vessels. Deep-water port capable of hosting aircraft carriers — irreplaceable for Gulf security.
  
  
• That's why Iran attacking the U.S. facility in Bahrain in the opening hours was strategically significant.

3. Kuwait — The major Army/logistics hub.

• Camp Arifjan + Ali Al Salem Air Base + Camp Buehring — Most Important Logistics Hub.
  
  
• ~13,500 personnel — largest U.S. ground force presence in the Gulf.
  
  
• Cap Arifjan: U.S. Army Central Headquarters — pre-positions enough armor/equipment for a full combat division.
  
  
• Ali Al Salem: Primary air mobility & transport hub.
  
  
• The "warehouse of the Middle East" — without Kuwait, U.S. troops across the region cannot be sustained.
  
  
• Kuwait is particularly important for moving and supporting ground forces. It has historically been one of the principal staging areas for U.S. forces moving into Iraq and the broader region.
  
  
• In terms of the number and size of facilities, Kuwait is arguably the biggest U.S. basing cluster in the Gulf.

UAE — major air and naval access.

• Al Dhafra Air Base — Most Important Combat & Recon Hub.
  
  
• ~3,500–5,000 personnel.
  
  
• Hosts F-22 Raptors, F-35s, advanced surveillance & stealth drones — America's most advanced aircraft in the region.
  
  
• Critical for reconnaissance, early-warning radar, and offensive air power projection.

5. Saudi Arabia

• ~2,300+ personnel
  
  
• Reactivated as a key hub for Patriot, THAAD, and air defense coordination.
  
  
• Covers the northern/central Gulf with long-range radar and anti-missile batteries.

Rank	Country	Key Base	Primary Role	Troops
⭐ #1	Qatar	Al Udeid	CENTCOM HQ / Air Command	~10,000
⭐ #2	Bahrain	NSA Bahrain	5th Fleet / Maritime Control	~9,000
⭐ #3	Kuwait	Camp Arifjan	Army HQ / Logistics & Supplies	~13,500
#4	UAE	Al Dhafra	F-22/F-35 / Recon	~4,000
#5	Saudi Arabia	Prince Sultan AB	Missile Defense	~2,300

Qatar = Brain (command center) | Bahrain = NAVY (fleet HQ) | Kuwait = Body (supplies/ground troops) | UAE = Sword (combat aircraft) | Saudi Arabia = Shield (missile defense).

These five bases in five countries formed the backbone of U.S. power in the Gulf — and exactly why Iran targeted all of them in its Feb 28 retaliatory strikes.

If Qatar is deemed the most important, why in the early days Iran strike UAE the most attacks?

According to a CSIS analysis of the first week, the UAE accounted for about 55% of all recorded Iranian strikes in its dataset from March 1–8: 1,422 drones and 246 missiles, or 1,668 recorded strikes.

The UAE hosts U.S. military bases, including Al Dhafra Air Base, where advanced U.S. assets like the F-35 fighter jets and MQ-9 Reaper drones are stationed.

Shortly after Khamenei’s death, IRGC-aligned outlets claimed that the aircraft that struck the Supreme Leader’s compound took off from Al Dhafra base in the UAE. The mission was flown by U.S. stealth fighters, likely F-22s. - these claims were not corroborated by independent sources or Western intelligence.

Compared to Qatar (host of the massive U.S. Al Udeid Air Base), the UAE is seen by Iran as more politically vulnerable due to its recent normalization of relations with Israel (Abraham Accords) and more directly involved in regional security cooperation with the U.S. and Israel.

Qatar, on the other hand, has maintained diplomatic ties with Iran and hosted a major Iranian embassy even during the 2017 Gulf Crisis.

While Qatar hosts CENTCOM headquarters, the UAE hosts forward-operating bases that are closer to Iran and more likely to be used in offensive operations. 

For example, Al Dhafra Air Base in UAE is a known launch point for long-range U.S. drone operations and stealth fighter missions in the region. So, from an Iranian perspective, the UAE is more directly involved in any U.S. strike capability than Qatar.

The "Eyes" That Monitoring Iranian Air Defenses 📡

Al Dhafra hosted the AN/TPY-2 advanced radar — that tracked Iranian air defenses and was claimed as to also guide the US/Israeli missiles. 

The U.S. has deployed AN/TPY-2 radars in several strategic locations, including Northern Israel, Turkey (until 2020), Qatar, and Al Dhafra Air Base, UAE (confirmed since 2019).

Without this UAE-based radar the Feb 28 strike likely fails. Iran explicitly said: "We will destroy the eyes that see us" → targeted Al Dhafra's radar sites with maximum force. 

How Bad They Are Today

As of September 14, 2026, the U.S. Gulf base network has taken substantial damage, but it has not been destroyed as a functioning military network. The most serious damage appears to have been in Bahrain and Kuwait, with significant damage also reported at facilities in Qatar, UAE, and Saudi Arabia.

Country	Main U.S. facilities	Damage by today	What was hit	Overall
🇧🇭 Bahrain	NSA Bahrain / Fifth Fleet HQ, Isa Air Base	🔴 Very heavy	Command center, ≥12 buildings, satellite communications, other infrastructure	Most seriously damaged major U.S. Gulf base
🇰🇼 Kuwait	Camp Arifjan, Ali Al Salem, Camp Buehring	🔴 Heavy	Hangars, fuel storage, radomes, power plant, aircraft/support infrastructure	Very serious
🇶🇦 Qatar	Al Udeid Air Base	🟠 Significant	Satellite communications sites and other facilities	Significant but less physically devastated
🇦🇪 UAE	Al Dhafra + other U.S.-linked sites	🟠 Significant	THAAD/radar equipment and other military infrastructure	Significant
🇸🇦 Saudi Arabia	Prince Sultan Air Base and other U.S. facilities	🟠 Significant	E-3 Sentry, refueling tanker, fuel/storage and other facilities	Significant
🇴🇲 Oman	U.S. access/logistics facilities	🟡 Limited/unclear	Much less publicly documented damage	Relatively intact

Facts About Hypersonic Missiles - How It Works

How Hypersonic Missile Works

The easiest way to understand a hypersonic missile is to follow it from launch to impact.

First, an important point: “hypersonic” means traveling at Mach 5 or faster. But a missile doesn't have to use a special engine throughout its flight to be hypersonic.

There are two major modern types:

Hypersonic glide vehicle (HGV)

Hypersonic cruise missile (HCM)

1. Hypersonic glide vehicle

The basic sequence is:

🚀 Rocket launches

↓

🚀 Accelerates to enormous speed and altitude

↓

🛸 Glide vehicle separates

↓

🌎 Enters the atmosphere

↓

🛸 Flies at Mach 5+ while maneuvering

↓

🎯 Target

The rocket's job is mainly to give the glide vehicle altitude and velocity.

Once released, the glide vehicle doesn't need a conventional rocket engine continuously pushing it. It uses its enormous existing velocity and aerodynamic lift to travel through the atmosphere.

Think of throwing a paper airplane extremely hard from a great height—but obviously at vastly higher speed and with a sophisticated aerodynamic control system.

When & Where Separation Happens

For a hypersonic glide vehicle (HGV), separation normally happens near the top of the rocket's boost trajectory, before the vehicle begins its main atmospheric glide toward the target. But there's an important nuance: the exact separation point depends on the weapon.

🚀 The three stages

1. Upward/boost phase

The rocket accelerates the HGV to extremely high speed and altitude.

⬆️ Rocket is still powering it

2. Near the top — separation

The booster releases the HGV.

🛸 HGV is now on its own

It may be released while the overall trajectory is still moving upward, near the peak, or during a carefully controlled transition depending on the design.

3. Descent/glide phase

The HGV enters the atmosphere and uses aerodynamic lift to travel toward the target while maneuvering.

🛸 ↘️ ↗️ ↘️ 🎯

So it's not usually waiting until it is already far down the descending side to separate.

Why separate so high?

Because the rocket's job is to provide the HGV with lots of energy (speed + altitude).

Once it has that energy, carrying a heavy rocket engine and fuel is unnecessary. Separating the vehicle makes the remaining weapon much lighter and allows its aerodynamic shape to do the work.

Upward & Downward

The HGV can be moving at hypersonic speed during the transition from the upward boost to the downward glide, and it is specifically designed to remain hypersonic during its downward atmospheric glide.

During the upward part, the rocket booster is doing most of the work. The HGV itself may be traveling at hypersonic speed because the rocket has accelerated the entire vehicle to that speed. But this isn't really the HGV's gliding phase yet.

During the downward/glide part, the HGV enters the atmosphere and uses its aerodynamic shape and control surfaces to generate lift. So, instead of simply falling straight down, an HGV can do something more like:

       🛸

      /

     /~~~~~~

    /       ~~~

   /           ~~~

  /               \ 🎯

2. Hypersonic cruise missile

This works differently.

🚀/✈️ Launch

↓

🔥 Engine accelerates missile

↓

🌎 Missile flies through atmosphere

↓

🔥 Engine continues powering it

↓

🎯 Target

A hypersonic cruise missile uses an air-breathing engine, typically a scramjet or related technology, to maintain high speed.

Russia's Zircon is an example of a weapon generally described as a hypersonic cruise missile.

Why are hypersonic weapons difficult to intercept?

There are several reasons.

🟢 1. Extremely high speed

At Mach 5, the missile is traveling roughly 1.7 km per second at sea-level-equivalent speed. At higher speeds, the reaction time for defenders becomes very short.

🟢 2. They can maneuver

This is perhaps more important than speed alone.

A traditional ballistic missile follows a relatively predictable trajectory:

🚀 ↗️

⬆️

↘️ 🎯

A maneuvering hypersonic weapon can instead do something more like:

🚀 ↗️

🛸 → ↘️ ↗️ → ↘️ 🎯

The defender therefore has a harder time predicting exactly where it will be.

🟢 3. They can fly relatively low

A traditional ballistic missile can travel extremely high into the atmosphere and even into space during part of its trajectory.

An HGV can instead spend much of its later flight inside the atmosphere, potentially making detection and tracking more challenging depending on the trajectory and sensor network.

🟢 4. Enormous heat

At hypersonic speed, air friction and especially shock-wave compression produce tremendous heating around the vehicle.

The nose and leading edges can become extremely hot.

That's why hypersonic weapons require specialized heat-resistant materials, thermal protection, aerodynamic designs, and guidance systems that continue functioning in extreme conditions.

Do Hypersonic Missiles Use Satellite Navigation?

Satellite navigation is used, but it is not the main or only system — and it often gets blocked mid-flight. Hypersonic missiles rely primarily on Inertial Navigation System (INS) as their core guidance.

Why It's Complicated: The Plasma Blackout

When flying at Mach 5+, air friction superheats the missile, creating a plasma sheath — a layer of ionized gas around the vehicle

This plasma blocks radio signals, including GPS/GLONASS/BeiDou — so satellite navigation often stops working during the fastest, most critical parts of flight

This means satellite signals are mostly usable only at launch / initial ascent, and sometimes briefly in the terminal phase as speed drops

How They Actually Navigate — Layered System

System	Role	Reliability
Inertial Navigation (INS) — onboard gyros & accelerometers	Primary core system — guides the missile the whole way, no external signals needed	✅ 100% immune to jamming & blackout; tiny position error grows slowly over time
Satellite Navigation (GPS/GLONASS/BeiDou)	Periodic correction — resets INS drift when signals can get through	⚠️ Intermittent; blocked by plasma during most of flight; vulnerable to jamming
Terminal Guidance (radar, infrared, optical seekers)	Final phase — homes in precisely on target (especially moving ones like ships)	✅ Works when speed drops enough; some systems combine it with INS
Celestial/Star Navigation (newer tech)	Backup — uses star patterns when satellite signals fail	✅ Cannot be jammed; China has tested this as of Aug 2026

Who The First Country to Make Hypersonic Missiles

Russia is widely recognized as the first country to field and operationalize hypersonic weapons.

2017 Operational Deployment: Russia's Kh-47M2 Kinzhal air-launched hypersonic missile entered experimental combat duty in late 2017, marking the first time a hypersonic weapon entered actual deployment status.

December 2019: Russia's Avangard hypersonic glide system officially placed on combat duty — world's first operational strategic hypersonic weapon.

October 2019: China publicly displayed DF-17, assessed operational shortly after.

March 2022: Russia used Kinzhal in Ukraine — first combat use of any hypersonic missile.

So by the standard of deployed, operational, service-adopted hypersonic missiles, Russia came first.

Do the US and Israel Have Hypersonic Missiles?

Here's the clear, verified status as of September 2026:

The short answer is no, not in a fully operational, combat-proven sense. While both countries have active hypersonic programs, their status is starkly different.

United States — Not Yet Operational, Very Close

The U.S. has invested heavily in hypersonic technology but has not fielded a combat-ready hypersonic missile. Its primary system, the Dark Eagle (Long-Range Hypersonic Weapon), has faced repeated delays and is still not fully operational

Status: The first Army unit is trained, but the system has missed multiple deployment deadlines (2023, 2025) due to technical complexity. As of early 2026, it was still completing final integration and testing

Capabilities: The Dark Eagle is designed to travel at Mach 17 with a range exceeding 2,775 km, intended to strike high-value, time-sensitive targets deep inside defended territory.

Production Bottleneck: Production is extremely slow. Officials have stated the current rate is only 1 to 2 missiles per month, which is a major concern for sustained combat operations.

Deployment Plans: Despite not being fully ready, U.S. Central Command has requested deploying the Dark Eagle to the Middle East, signaling a "push to deploy before fully ready" approach.

System	Type	Status
LRHW "Dark Eagle" (Army)	Boost-glide HGV, Mach 5+	First battery delivered; training units exist; combat-ready operational fielding expected late 2026 — 2+ years behind original schedule
CPS (Navy — same glide body)	Ship/sub-launched HGV	Testing; deployment on Zumwalt-class destroyers planned ~2028
HACM (Air Force)	Scramjet hypersonic cruise missile	Development; operational capability ~2027–2028
AGM‑183A ARRW	Air-launched HGV	Multiple test failures; scaled back; limited testing only — not operational

Israel — No Dedicated Hypersonic Strike Missiles

Israel does not have an operational hypersonic strike missile program — but it does have ballistic missiles that hit hypersonic speeds, plus advanced hypersonic defense development.

Israel's focus is defense, not offense — they're building systems to stop hypersonic missiles, not launch them. Instead, Israel operates a range of air-launched ballistic missiles (like Rampage and Air LORA). These are fast and precise but have ranges of only 150 to 400 km and do not achieve hypersonic speeds

Israel focuses more on missile defense systems like Iron Dome, David’s Sling, and Arrow (especially the Arrow-4 system, which is designed to intercept ballistic and hypersonic threats).

Israel is collaborating with the U.S. on hypersonic defense capabilities and has shown interest in developing offensive hypersonic weapons, but as of 2026, there are no confirmed deployments of Israeli-made hypersonic missiles.

	United States	Israel
Operational hypersonic strike missiles	❌ Not yet; fielding imminent (late 2026)	❌ None
Hypersonic glide vehicles (HGV)	Dark Eagle / CPS — testing, initial battery exists	❌ None
Hypersonic cruise missiles	HACM — in development	❌ None
Ballistic missiles reaching ≥Mach 5	✅ Many (ICBMs, SLBMs — but not maneuvering)	✅ Jericho series — fixed trajectory
Hypersonic defense interceptors	✅ In development	✅ Arrow‑4, SkySonic — advanced testing
Compared to Russia/China/Iran	Lagging behind in deployed numbers; catching up	No offensive hypersonic program at all

How Has Iran Retaliated Against The US

 After Ali Khamenei was killed, what was the first things Iran did

After Ali Khamenei was killed in the U.S.-Israeli strikes on February 28, 2026, Iran's first actions were essentially about keeping the state functioning, securing military command, and preparing retaliation.

Confirm Khamenei's death and announce mourning

Iranian state media officially confirmed his death in the early hours of March 1. The government declared a period of national mourning.

Prevent a leadership vacuum

Because the Supreme Leader had been killed together with several senior officials, Iran immediately needed a temporary mechanism for supreme authority. An interim Leadership Council was established, involving Ayatollah Alireza Arafi, President Masoud Pezeshkian, and Chief Justice Gholam-Hossein Mohseni-Eje'i.

The military and IRGC continued operating

Iran did not stop functioning militarily simply because Khamenei was dead. The Revolutionary Guards and remaining command structure continued directing Iran's response. This was important because the country was already under attack.

Iran retaliated militarily

Iran launched ballistic missiles and other attacks against U.S. and allied targets in the region. The first days therefore looked less like Iran surrendering and more like Iran trying to demonstrate that killing the Supreme Leader had not paralyzed the state.

Begin the succession process

Behind the scenes, the biggest political question was: "Who replaces Khamenei?" The IRGC reportedly pushed for a rapid decision, while the constitutional mechanism involved the Assembly of Experts.

Eventually choose Mojtaba Khamenei

The succession was surprisingly quick: Mojtaba Khamenei, Ali Khamenei's son, was selected as Supreme Leader on March 8, 2026.

First country Iran retaliated against

Iran's military response started while the leadership situation was still developing. Iran didn't wait until it had chosen a new Supreme Leader before retaliating. That is one reason the IRGC's organizational structure became so important after Khamenei's death.

Iran's first retaliatory strike after the February 28, 2026 attack is Israel — together with U.S. bases across the Gulf.

Hours after the U.S.-Israeli airstrikes killed Khamenei, Iran launched simultaneous strikes on Israel (~35 ballistic missiles + drones toward Tel Aviv and central Israel), UAE (heaviest barrage: 137 ballistic missiles + 208 drones toward Dubai/Abu Dhabi), and also Qatar, Bahrain, Kuwait, Saudi Arabia, Jordan, Iraq, Oman (U.S. military bases across all eight countries). 

These were launched together in the first wave — there was no single "one country only" strike. But Israel was the original attacker and the primary declared target in Iran's retaliation statement.

Largest single-country target in first wave: UAE (most missiles/drones).

Date	Countries Targeted	Missiles	Drones	Notes
Feb 28, 2026 🚀 First Wave	Israel	~35	—	Primary target; Tel Aviv & Haifa struck
	UAE	~137–165	~208–270	Heaviest barrage; Al Dhafra Air Base
	Qatar	~66	—	Al Udeid Air Base (US Centcom HQ)
	Bahrain	~45	~9	US Navy 5th Fleet HQ
	Jordan	~13	~36	US bases; follow-up waves continued
	Kuwait	Several	~2	Multiple US bases hit
	Saudi Arabia	Up to 2	—	Limited strikes
	Iraq (Erbil)	~7	Dozens	Northern Iraq bases
Mar 1–2, 2026	Jordan / Iraq / UK (Cyprus)	Additional waves	—	Sustained strikes on US/UK facilities
Mar 3, 2026	Israel (larger barrage)	~65+	—	Direct strikes toward Tel Aviv & Jerusalem

A Mix of Cheap & Expensive Drones/ Ballistic Missiles in The Early Wave

Iran used BOTH cheap drones AND a mix of cheap/expensive ballistic missiles in the very first wave — deliberately layered to maximize cost damage to the defenders.

Feb 28 First Wave - Shahed-136 (Cheap Drones)

The one-way attack drones, especially the Shahed-type drones, were relatively cheap, roughly $20,000–$50,000 each. Propeller-driven, carried roughly a 50 kg warhead and could be launched in large numbers. They are designed to overwhelm or exhaust air defenses. 

So if Iran sent, for example, 100 Shaheds, the hardware itself might cost only around $2–5 million. That's extremely cheap compared with the defensive missiles being used against them.

One of the striking economic problems for the U.S. and its allies was that a $30,000–$50,000 Iranian drone could require an interceptor costing hundreds of thousands or even millions of dollars.

Weapon	Est. Unit Cost	Quantity Used	Purpose
Shahed-136 drones	$20,000 – $50,000	~200–270	Saturate defenses, force expensive intercepts
Other drones (Mohajer, Arash)	$50K – $200K	Dozens	Recon + decoy + secondary strike

The math: Iran spends ~$35,000 per drone** → US/Israel shoots it down with **$4M Patriot or $15M THAAD interceptor. Cost ratio = 80:1 to 400:1 in Iran's favor. This was intentional — they wanted to deplete enemy interceptors.

Older Ballistic Missiles (Medium Cost)

Older liquid-fuel designs — not cutting-edge, but proven, cheap to build, and available in thousands. They fired these in massive numbers to overwhelm defenses.

Weapon	Est. Unit Cost	Quantity Used	Purpose
Shahab-3 / Emad / Ghadr	$500K – $1.5M	~200+	Main barrage — reliable, available in large numbers

Advanced Missiles (Expensive, Used Carefully)

Weapon	Est. Unit Cost	Quantity Used	Purpose
Kheibar Shekan (solid fuel, precise)	~$1.5M – $2M	~40–60	Penetration — better accuracy, harder to intercept
Fattah-1 (hypersonic, Iran's best)	~$5M	Very few — held back	Premium — only for highest-value/hardest targets

The Fattah-1 — Iran's most advanced missile — costs $5 million each and was NOT fired in large numbers because they had very few built. They saved their expensive missiles for later waves.

Layer	Weapon Tier	Cost	% of first wave
First — Swarm	Shahed drones	💸 Very cheap	~60%
Second — Barrage	Shahab/Emad missiles	💰 Affordable	~35%
Third — Precision	Kheibar Shekan/Fattah	💎 Expensive	~5%

The earliest days were overwhelmingly cheap drones + mid-cost older missiles — the expensive hypersonic "crown jewels" were mostly held back and used sparingly until defenses ran low.

Interceptor Consumption & Why Rates Dropped

Estimated Interceptor Expenditure (Feb 28 – Mar 31, 2026)

Interceptor	Cost Each	Quantity Used	Total Cost
Patriot PAC-3 MSE	~$4.0M	~680–750	~$2.8–3.0 billion
THAAD (long-range)	~$14.5M	~55–65	~$800–950 million
David's Sling (Israel)	~$0.7M	~380–420	~$270–290 million
Arrow 2/3 (Israel hypersonic)	~$3.0M / ~$6.0M	~90–110	~$450–550 million
AIM-9X / Air-to-Air	~$0.5M	~300+	~$150 million+

Total spent by US + Israel in ~30 days: ~$4.5–5 billion** — just on interceptors. By comparison, Iran's entire attack cost ≈ **$450–550 million → 10:1 cost disadvantage for the defenders.

By early March, the U.S. and Israel were clearly trying to avoid wasting their most expensive surface-to-air interceptors on every cheap Iranian drone.

On March 4, U.S. officials told lawmakers that U.S. forces might not be able to shoot down every Iranian drone, reflecting the enormous volume and the limited value of spending high-end interceptors on cheap targets.

Mar 19–25: Iran introduced Fattah‑2 hypersonic missiles — 14–15× speed of sound, can glide unpredictably. None were intercepted. Every single one hit its target.

Interception Rate Drop — Direct Cause:

Period	Avg Interception Rate	What Happened
Feb 28 – Mar 5	~90–92%	Full stockpiles; every incoming target engaged
Mar 6 – Mar 15	~84–86%	Patriot stockpiles running low → started prioritizing only ballistic missiles, ignoring drones
Mar 16 – Mar 31	~72–78% ⬇️	Critical shortage: US had to ration Patriots; Israel ran low on Arrow; began letting some missiles pass through
Apr onward	~65–70%	Iran introduced massed Kheibar Shekan + Fattah hypersonic missiles — fewer interceptors left, and many couldn't catch them anyway

Iran fired them FASTER than US could resupply

• US pre-war global Patriot stockpile ≈ ~1,100–1,200.
• Used ~700 in one week → 60% of global inventory gone.
• Production rate ≈ 30–35/month → would take 2 years to replace what was lost in March.
• By mid-March: US Central Command issued order: "Do not intercept drones — save missiles for ballistic missiles only"

The Cost Trap — Iran's deliberate strategy

• Iran: $35,000 Shahed drone** ↔ US: **$4,000,000 Patriot to shoot it down
• 114× cost difference — US literally couldn't afford to keep shooting them down.
• By early March: US/Israel stopped shooting down drones entirely → let them crash or use cheap guns.
• Mid-March onward: Iran began firing Kheibar Shekan (harder to intercept) + Fattah hypersonic (basically UN-interceptable)
• When defenses were already depleted and facing faster missiles → interception rates collapsed.