Facts About Ballistic Missiles & ICBM

 A ballistic missile is a missile that travels through the air along a high, curved trajectory, similar to throwing a ball very far—hence the name ballistic.

How it works

A ballistic missile generally has three phases:

Launch/boost 🚀 — Its rocket engines fire and accelerate the missile upward and forward.

Midcourse 🛰️ — After the engines stop, it can travel through the upper atmosphere or space mostly by inertia, following a ballistic trajectory.

Reentry/terminal ☄️ — The warhead comes back into the atmosphere at very high speed and descends toward its target.

So after the rocket engines stop, the missile doesn't need an engine constantly pushing it toward the target. Its trajectory is largely determined by its initial velocity, gravity, and the shape of its flight path.

One subtle point: saying it "relies on gravity" is slightly incomplete. Gravity pulls it toward Earth, but momentum is what keeps it moving forward. The combination of the two produces the characteristic curved/ballistic trajectory.

That's also why it's called a ballistic missile: much of its flight after powered ascent follows a trajectory governed by physics—especially gravity and inertia—rather than continuous powered flight.

Where The Engine Shut Downs

Usually, the rocket engine shuts down near the end of the boost phase, often at very high altitude—sometimes near or above the edge of space, depending on the missile.

But the exact altitude varies considerably between missiles.

After Shut Down?

A ballistic missile is generally built in stages. When a stage has finished burning its fuel, it is no longer useful.

The discarded rocket stages don't follow the warhead all the way to the target. They separate and follow their own trajectories. Depending on the missile and where separation occurs, they can fall back toward Earth, burn up partially in the atmosphere, or in some cases remain in space temporarily.

What about the final "engine"?

The final rocket stage may carry the reentry vehicle/warhead. Once its job is finished, the propulsion system separates from the payload. The warhead/reentry vehicle then continues primarily through inertia and gravity.

So you can picture it as: Rocket gives the payload its enormous speed, Payload = coasts through space, then gravity + momentum = brings it back toward Earth.

And the rocket engine doesn't simply "break apart" when it stops. The missile deliberately separates its stages, using mechanisms designed for that purpose.

Could a discarded stage hurt people on the ground?

Yes. A spent rocket stage has a lot of mass, and when it falls back to Earth it can potentially cause damage.

Much of it may burn up during atmospheric reentry, depending on its size and materials. Larger pieces can survive and reach the ground.

This is one reason missile launches are carefully planned. The expected debris/impact area is taken into account, and military test launches generally occur over areas where falling stages won't endanger populated areas.

Does launching missiles create "rubbish" in space?

Sometimes, yes. But this is more complicated than simply leaving every missile stage floating around.

For an ICBM, some components can reach space or near-space, but many eventually fall back to Earth.

So rocket launches can contribute to space debris, but ICBM launches aren't the main source of today's enormous orbital-debris problem. Most ICBM test trajectories are not designed to put their stages into a permanent orbit.

Why are they different from ordinary missiles?

The important distinction is how they fly.

Ballistic missile goes very high, then falls toward the target at tremendous speed, whereas cruise missile generally stays inside the atmosphere and flies more like an aircraft, using engines and guidance throughout much of its flight.

Ballistic missiles can range from relatively short-range weapons to ICBMs (intercontinental ballistic missiles) capable of traveling thousands of kilometers.

For example, an ICBM could be launched from one continent, travel through near-space, and reenter the atmosphere over another continent.

Which Country First Created Missiles

The first true rockets—and therefore the ancestors of modern missiles—were developed in China.

🏹 China, around the 13th century: Chinese inventors developed gunpowder-powered rockets, initially used as weapons and fireworks.

The technology spread westward through Asia and eventually reached Europe.

🚀 Modern military missiles, however, are much more recent. They emerged mainly during World War II, particularly through German development of the V-1 flying bomb and V-2 rocket.

Which Country First Created Ballistic Missiles

The first country to create a modern ballistic missile was Germany during World War II.

The missile was the V-2 rocket, developed by Nazi Germany and first successfully launched in 1942. It was operationally used against targets in 1944.

Which Country First Created ICBM

Russia created the first ICBM - R-7 Semyorka, first succesful test on August 21, 1957 flew over 6,000 km. The purpose was to carry nuclear warheads from Russia to the United States. That same R-7 rocket launched Sputnik — the first satellite — into space!

Most Advanced Ballistic Missiles Today

Different countries lead in different technologies.

Russia's Avangard is probably the most unusual and technologically advanced type of ballistic-missile payload currently fielded. It isn't a conventional ballistic missile by itself: a ballistic missile boosts it into the atmosphere, after which the Avangard hypersonic glide vehicle separates and maneuvers toward its target. CSIS reports speeds reaching around Mach 20.

But for a conventional ICBM: China's DF-41 is one of the most impressive. It is an operational ICBM with a reported range of roughly 12,000–15,000 km, is road-mobile, and is believed capable of carrying multiple independently targeted warheads (MIRVs).

The US/UK Trident II D5 is arguably the most mature and proven system rather than the newest-looking one. It is launched from nuclear-powered ballistic-missile submarines and can carry multiple nuclear warheads. It has been operational since 1990 and has undergone extensive modernization.

In Other Words

Most exotic technology → Avangard (Russia).

Most advanced traditional land-based ICBM contender → DF-41 (China).

Most mature/proven strategic missile system → Trident II D5 (US).

However, Avangard is technically a hypersonic glide vehicle carried by a ballistic missile, whereas DF-41 and Trident D5 are themselves ballistic missiles. That's why comparing them as if they're exactly the same weapon can be misleading.

Missile	Country	Type	Range (km)	Warheads	Special Strength
Sarmat	🇷🇺 Russia	Silo ICBM	~18,000	10–16	Heaviest payload, Avangard‑capable
Trident II D5	🇺🇸 USA/UK	SLBM	~12,000	8–14	Most accurate, stealth subs
DF‑41	🇨🇳 China	Road ICBM	12,000–15,000	up to 10	Mobile, hard to target
Avangard	🇷🇺 Russia	HGV	ICBM‑boosted	1	Mach 27, uncatchable
M51.2	🇫🇷 France	SLBM	>10,000	6	Independent European deterrent

Khamenei was killed by ballistic missiles? - Blue Sparrow

On Feb 28, 2026, Israel reportedly launched Blue Sparrow missiles from F-15s toward Tehran. Reports claim they struck Khamenei's compound, killing him.

However, Israel and US have not officially stated which weapon was used. Some analysts caution that "Blue Sparrow" as the strike weapon is plausible but unproven — it could be speculation or misinformation spread on social media. 

Khamenei's death itself was confirmed by Iranian state media, but exactly which weapon killed him remains officially unstated.

The Blue Sparrow was not originally built to kill people. It belongs to Israel's Sparrow family (Black → Blue → Silver), designed to simulate enemy ballistic missiles during tests of Israel's Arrow missile defense system. It mimics the speed, altitude, and radar signature of Iranian Shahab-3 and Scud missiles — so Israel could practice shooting them down.

But it can be weaponized: the same body can carry a real warhead instead of test instruments.

Detail	Information
Country of Origin	Israel 🇮🇱
Manufacturer	Rafael Advanced Defense Systems
Type	Air-Launched Ballistic Missile (ALBM)
Length / Weight	6.51 m / ~1,900 kg
Range	Up to ~2,000 km
Launch Aircraft	F-15 fighter jets
Guidance	Inertial + GPS satellite navigation
Trajectory	Briefly exits atmosphere → steep, near-vertical hypersonic descent

Blue Sparrow vs Kinzhal vs China's ALBMs

Feature	Blue Sparrow (Israel) 🇮🇱	Kh-47M2 Kinzhal (Russia) 🇷🇺	CH-AS-X-13 / JL-1 (China) 🇨🇳
Length / Weight	6.51 m / ~1,900 kg	~8 m / ~4,300 kg	~10–12 m / 8,000–10,000 kg
Range	~2,000 km	1,500–2,000 km (MiG-31) / up to 3,000 km (Tu-22M3)	~3,000 km+
Speed	Mach 5–9 (est. Mach 10–15 terminal)	Up to Mach 10 (terminal)	Mach 5+ (est.)
Guidance	Inertial + GPS (high precision)	Inertial + GLONASS	Inertial + Beidou
Accuracy (CEP)	~3–5 meters (reported)	~10–20 meters	~10–30 meters (est.)
Warhead	Conventional penetrator (~300–500 kg)	Conventional (480 kg) OR Nuclear	Nuclear-capable
Launch Aircraft	F-15I	MiG-31K / Tu-22M3	H-6N / H-6K bomber
Trajectory	Exits atmosphere → steep near-vertical dive	High ballistic arc → hypersonic dive	High arc, anti-ship variant exists
Original Purpose	✅ Began as target missile → converted to strike weapon	✅ Built from start as strike weapon (derived from Iskander-M)	✅ Built from start as strategic nuclear deterrent
First Operational	~2010s (as target); strike variant reported ~2024	2017–2018	~2024–2026
Combat Use	Reported in strikes on Iran (2024, 2026)	Used extensively in Ukraine (2022–present)	Not publicly used in combat

No country has ever used an ICBM in an actual war.

Even though physically possible, no country has ever deployed operationally armed conventional ICBMs. Here's why:

The "Nuclear Mistake" Risk — Biggest Problem

The main reason is nuclear deterrence. Most ICBMs are nuclear-armed, and using one against another nuclear power could trigger catastrophic retaliation.

If the U.S. launched a conventional ICBM, Russia/China would see the same radar signature as a nuclear ICBM, they cannot tell the difference so they might assume it's a nuclear strike and launch their own nuclear missiles in retaliation and cause World War III by accident.

Cost vs. Value Problem

ICBMs are extremely expensive — billions to develop, millions per missile. A conventional warhead is just ~500 kg explosives — you can deliver that cheaper with shorter-range missiles or bombers. It's like using a nuclear submarine to deliver a single commando — overkill and dangerous.

Russia-Ukraine War

True ICBMs (≥5,500 km range) = never used.

But there was major confusion in Nov 2024. Ukraine claimed Russia fired an ICBM at Dnipro. Putin corrected it, it was the Oreshnik — intermediate-range (IRBM), NOT ICBM (~3,500–5,000 km, below the 5,500 km ICBM threshold).

All confirmed Russian missiles in Ukraine: Iskander (SRBM), Kinzhal (ALBM), Oreshnik (IRBM) — none are ICBMs.

US–Iran / Israel–Iran conflicts

ICBMs also never used.

Why? US didn't need them — used bombers, cruise missiles, regional ballistic missiles. Iran has no ICBM capability at all — their longest-range missiles are ~2,000 km (MRBM), nowhere near ICBM.

US has never fired an ICBM in combat in all of history. No country ever has.

Country With Most Ballistic Missiles

Rank	Country	Estimated Missiles	Notes
🥇	🇨🇳 China	~2,900–3,100	World's largest conventional missile force — SRBM + MRBM + IRBM
🥈	🇷🇺 Russia	~1,400	Mostly shorter-range + ICBMs
🥉	🇺🇸 United States	~1,300	Mostly ICBMs + SLBMs
4	🇰🇵 North Korea	~1,000	Rapidly growing
5	🇮🇱 Israel	~850	Jericho series
6	🇮🇷 Iran	~800	Large conventional regional force
7	🇹🇷 Turkey	~320	Mostly short-range

How Iranian Cheap Drone Shahed-136 Works

 Who made the Shahed-136?

The Shahed-136 (also spelled "Witness-136") was designed and developed in Iran, principally by Shahed Aviation Industries, with production associated with Iran's HESA aircraft industry, an Iranian state-owned firm based in Isfahan, Iran. 

It entered service around 2021. CSIS identifies it as an Iranian-designed and produced one-way attack UAV.

Russia initially purchased hundreds of ready-to-fly Shahed-136 drones directly from Iran and used them in Ukraine — but rebranded them "Geran-2" to try hiding their Iranian origin. Russia later bought thousands and began licensed production under the name Geran-2, but the design is originally Iranian.

	Iranian Shahed-136	Russian Geran-2
Origin	Designed & originally built in Iran	Licensed production + upgrades
Navigation	GPS (+ optional GLONASS)	Russian GLONASS only, hardened
Airframe	Honeycomb composite	Stronger carbon-fiber weave
Warhead	30–50 kg	50–90 kg (improved fragmentation)
Status	Original design	Evolved, mass-produced variant

Is it the cheapest drone?

Not literally the cheapest drone in the world. There are much cheaper small commercial drones and military FPV drones.

However, among long‑range, military‑capable one‑way attack drones, the Shahed‑136 is one of the most cost‑effective ever made, offering ~1,000–2,500 km range with a ~50 kg warhead at a fraction of the cost of cruise missiles or larger UAVs.

Estimates commonly put the production cost around $20,000–$50,000 per drone. That's what makes it so interesting militarily. Compare that with a sophisticated cruise missile, which can cost hundreds of thousands to millions of dollars.

Iran's selling price isn't necessarily its production cost. Leaked documents indicate that Iran's negotiated price for a large Russian order was around $193,000 per drone, while Russia's eventual domestic production cost was estimated at roughly $48,800.

So when people say "the Shahed costs only $20,000", they're generally talking about an estimated manufacturing cost, not necessarily what another country pays to buy one.

How Shahed-136 Works — From Launch to Impact

Component	Details
Type	One-way kamikaze / loitering munition — not reusable
Body	Delta-wing, ~3.5m long × 2.5m wingspan, ~200 kg total
Material	Fiberglass & honeycomb composite → cheap, low radar signature
Engine	MD-550 piston engine (~50 hp) — Iranian copy of German Limbach L550E → rear-mounted pusher propeller
Speed	~185 km/h — slow, but extremely fuel-efficient
Range	1,000–2,500 km depending on payload
Warhead	30–50 kg high-explosive fragmentation in the nose

The easiest way to understand the Shahed-136 (often referred to as a "kamikaze drone") is to think of it as a small, cheap unmanned aircraft that flies itself to a programmed target and then crashes into it. It is often called a one-way attack drone or loitering munition.

Programmed Before Launch

Before launching, operators give the drone a planned route and target coordinates. It doesn't normally need somebody sitting hundreds of kilometers away manually "driving" it like an RC airplane. Its onboard computer handles the flight.

A Small Engine Pushes It

The Shahed-136 has a rear-mounted piston engine driving a propeller. Unlike a cruise missile with a jet/turbofan engine, it's closer to a very simple aircraft. This is one reason the drone can be relatively inexpensive.

fuel → piston engine → propeller → forward movement

The distinctive loud motorcycle/moped-like sound people associate with Shaheds comes from this type of engine and propeller.

How does it know where it is?

It can use satellite navigation (GNSS) together with an inertial navigation system (INS).

So if satellite navigation becomes unavailable, the inertial system can continue navigating for a while, although its position estimate gradually becomes less accurate.

A basic Shahed doesn't necessarily need a camera to identify the target. It can simply be given coordinates. The drone follows its programmed route until it reaches the target area. This is another reason the system can be relatively inexpensive.

What happens at the end?

The Shahed-136 is not designed to come home. Once it reaches its target area, its explosive warhead detonates when the drone strikes the target.

Why make a drone like this instead of a conventional missile?

Because simplicity is its major advantage. 

A sophisticated cruise missile can have expensive propulsion, sophisticated sensors, advanced guidance, expensive materials and complex manufacturing..

Whereas a Shahed can instead use relatively simple aircraft construction, inexpensive piston propulsion, commercial electronics, satellite navigation and an explosive warhead.

That makes it possible to produce large numbers.

If one drone costs relatively little, an attacker can launch many at once. The defender then has a difficult choice: Do I spend a very expensive interceptor missile to destroy a relatively cheap drone?

That's why the Shahed became particularly important in the Russia–Ukraine war and why similar concepts have attracted so much military attention worldwide.

Satellite Navigation Used by the Shahed-136

System	Used by Shahed-136?	Notes
GPS (United States)	✅ Likely used (civilian band)	GPS is globally accessible and widely used for navigation, even by hostile nations.
GLONASS (Russia)	✅ Likely used	Iran and Russia have close military ties; GLONASS improves redundancy and accuracy.
BeiDou (China)	🤔 Possibly used	China and Iran have growing defense cooperation, but no confirmed BeiDou integration.
IRNSS / NavIC (India)	❌ Unlikely	Limited regional coverage; not relevant for Iran's operational areas.
Galileo (EU)	❌ Not used	EU sanctions likely restrict access for Iranian military systems.

The Shahed-136 uses a combination of GPS and GLONASS for mid-course navigation. It also includes an inertial navigation system (INS) to maintain accuracy if satellite signals are jammed or spoofed.

With GPS/GLONASS guidance, the circular error probable (CEP) is estimated at ~10–30 meters. This is sufficient for targeting large, soft targets (e.g., airfields, logistics hubs, or urban areas), but not precise enough for high-value, small targets.

If Jamming Happens:

Satellites get blocked then it switches silently to INS dead reckoning. Accuracy drops from ~5–15m to ~500–2,000m — but it still flies to the right city/area. No camera / no target-seeker on basic versions — it flies to coordinates only, cannot chase moving targets.

Most Popular Drones

Shahed-136 is probably the most famous long-range attack drone in the world right now. It is also arguably the most influential loitering munition/kamikaze drone anywhere right now.

Covered endlessly by every major news network — became the "face of modern drone warfare".

The Shahed-136 became internationally famous because Russia has used enormous numbers of its Geran-2 version against Ukraine. Russia now produces thousands per month, and they make up the bulk of Russia's long-range drone fleet.

Does The US Has Similar Drones?

The U.S. does have similar drones, but The U.S. ones were ALL short-range — designed to be launched by soldiers on the battlefield, not to fly 1,000+ km and strike deep into enemy territory. The U.S. simply didn't build a long-range cheap kamikaze drone — until it saw Shaheds dominating Ukraine.

The U.S. didn't "fight back with cheap drones" because for decades they didn't build them — they thought too highly of themselves to use "disposable" weapons. 

Iran showed the world that $25k drones beat $3M air defense missiles. Now the U.S. has literally reverse-engineered the Shahed-136 into its own clone (LUCAS) — but it took seeing Iran's success to change their entire military doctrine.

After watching Russia use Shahed-136s by the thousands in Ukraine, the U.S. reverse-engineered a captured Shahed-136 and built its own version — called LUCAS (Low-Cost Uncrewed Combat Attack System). The LUCAS concept was reportedly influenced by captured Iranian Shahed technology.

LUCAS officially debuted in Operation Epic Fury (Feb 28, 2026), striking IRGC/military targets inside Iran. It was deployed before Khamenei's death, and has been used repeatedly since. US CENTCOM confirmed it publicly.

But, — U.S. weapons stocks really have become a problem.

By July–August 2026, multiple reports were saying that the prolonged Iran war had significantly depleted U.S. inventories of long-range precision weapons and air-defense interceptors. Reuters reported in August that the U.S. had used "virtually all" of its long-range precision missiles during the war.

And PBS reported in July that the U.S. was facing a shortfall in ballistic-missile and drone defenses.

The U.S. has an enormous weapons inventory, but a prolonged high-intensity war can consume sophisticated missiles much faster than the industrial base can replace them. By August, reports were warning that some U.S. long-range missile inventories had fallen to levels that could affect preparedness for another major conflict.

Problem	The Hard Truth
Parts shortage	~80%–98% of drone motors, magnets, batteries come from China — which the US refuses to buy from for weapons. No alternative supply exists yet.
Labor cost	US workers cost 10–25x more than Iranian → everything costs more and builds slower
Production speed	Iran → thousands/month easily. US → still ramping up, factories under construction, can't match volume yet
Policy ban	Pentagon banned Chinese components → but no US alternative exists at that price → stuck between "can't build cheap" and "can't use Chinese parts"

LUCAS vs Geran-2 — Side-by-Side Comparison

Feature	LUCAS (US)	Geran-2 (Russia)	Winner
Origin	US reverse-engineered Shahed-136	Russian domestic production of Shahed-136	—
Unit Cost	~$35,000	$30,000–$80,000 (avg ~$50k)	LUCAS (consistently cheaper)
Weight	~86–120 kg	200–240 kg	Geran-2
Warhead	18–20 kg (40 lbs)	50 kg standard / up to 90 kg	Geran-2 ×2–4×
Range	~800–1,000 km	1,000 km (heavy warhead) → up to 2,500 km (light)	Geran-2 ×2.5× max
Speed	~180–194 km/h	~150–185 km/h	LUCAS (slightly)
Engine	Smaller 215cc piston	MD-550, 50hp piston	Geran-2
Navigation	GPS+INS + in-flight retargeting, Starlink/Starshield, AI swarming	GLONASS/GPS + INS, basic datalink	LUCAS — far smarter
Communications	Mesh network, relay, swarm coordination	Basic 4G/radio on later models	LUCAS
Multi-role	Strike, ISR, comms relay, decoy, EW	Strike only	LUCAS
Production Rate	Hundreds/month → target 5,000/month late 2026	~170/day ≈ 5,000/month (already achieved)	Geran-2 — proven scale
Combat Proven	Since Feb 2026 (limited)	Since Oct 2022 (massive combat record)	Geran-2

MaRV vs. HGV: The Real Difference Between Iran’s Fattah-1 and Fattah-2

 The Fattah-1 is Iran's first-generation hypersonic weapon, while the Fattah-2 represents a significant technological step forward by incorporating a true Hypersonic Glide Vehicle (HGV) that allows for far greater maneuverability and a more unpredictable flight path.

In other words, Fattah-2 is the more advanced, and more capable missile. Fattah-1 and Fattah-2 are probably Iran's most advanced publicly unveiled hypersonic-class missile systems.

Which is Better?

Depends on what is prioritized — penetration or destructive power. Fattah-1 has greater destructive force whereas Fattah-2 has superior ability to penetrate defenses. 

Feature	Fattah‑1	Fattah‑2
Unveiled	June 2023	November 2023
Type	MRBM with Maneuverable Reentry Vehicle (MaRV) — maneuvers only in the terminal phase	True Hypersonic Glide Vehicle (HGV) — sustained mid‑course + terminal maneuvering
Range	~1,400 km	~1,400–1,500 km
Speed (claimed)	Mach 13–15	Mach 13–15
Warhead	500 kg — larger, heavier	200 kg — smaller due to HGV mass constraints
Maneuverability	Limited — mostly last ~100 km before impact via thrust‑vectoring	Superior — continuous, unpredictable lateral & altitude changes throughout glide; harder to detect/track
Trajectory	Mostly ballistic; predictable until late reentry	Boost‑glide: flatter, lower, highly variable; can approach from unexpected directions
Propulsion (upper)	Solid‑fuel TVC motor in RV	Liquid‑fuel or aerodynamic HGV; sustains maneuvering
Precision (CEP)	~10–25 m	Comparable or slightly improved
Cost / Complexity	Lower (~$0.8–1.5M)	Higher (~$1.5–3M)
Defense Penetration	Very good — but defenses can still model a ballistic‑style approach	Far superior — current air/anti‑missile systems (Arrow, Patriot, THAAD) struggle with HGV trajectories

The key difference is how they maneuver.

Fattah-1:

It is essentially a ballistic missile with a maneuverable warhead. The warhead can change its trajectory, including with a small rocket motor. The International Institute for Strategic Studies classifies this type of system as a MaRV, rather than a true hypersonic glide vehicle.

Fattah-2:

Iran presented a substantially different second stage shaped more like a hypersonic glide vehicle. In principle, after being boosted upward, the glide vehicle can use aerodynamic lift to maneuver through the atmosphere rather than simply following the descending portion of a ballistic trajectory.

How Fattah Missile Works

The easiest way to understand it is that Fattah is not simply a missile that flies straight toward the target. Its important feature is the ability of the terminal vehicle to maneuver, making its final trajectory less predictable.

Fattah-1, step by step

Think of the flight in four stages:

1. Launch 🚀

A solid-fuel rocket booster launches Fattah upward at very high speed.

2. Boost phase

The main rocket accelerates the missile and gives it most of its speed. Once the booster has done its job, the propulsion configuration changes and the missile continues on its ballistic trajectory.

3. High-altitude flight

The missile travels on a trajectory that is broadly similar to other ballistic missiles: it goes high into the atmosphere and then begins descending toward the target.

4. Maneuvering terminal phase

This is the unusual part. The maneuverable reentry vehicle (MaRV) can use its own small propulsion system to alter its trajectory while approaching the target.

So rather than:

⬆️ → 🛰️ → ⬇️ → 🎯

it is more like:

⬆️ → 🛰️ → ↘️ ↗️ ↘️ → 🎯

The changes in direction make its final path harder for a defender to predict.

What about Fattah-2?

Fattah-2 is designed differently.

Its booster first accelerates the vehicle to very high speed. The second-stage vehicle is intended to behave more like a hypersonic glide vehicle (HGV):

🚀 Booster → high speed → glide vehicle separates → ↘️ maneuvering glide → 🎯

Instead of relying primarily on a predictable ballistic arc, the glide vehicle is intended to generate aerodynamic lift and maneuver inside the atmosphere.

That's why Fattah-2 is potentially more difficult to intercept than a conventional ballistic missile—but its publicly demonstrated operational capabilities are much less certain than the Iranian claims.

One important point

“Hypersonic” doesn't mean Fattah is necessarily faster than every other ballistic missile. Many conventional ballistic missiles already travel at hypersonic speeds during parts of their flight.

The important question is how the missile moves while traveling at those speeds:

• Conventional ballistic missile: mostly predictable ballistic trajectory.
  
• Fattah-1: ballistic trajectory + maneuverable terminal vehicle.
  
• Fattah-2: intended ballistic boost + maneuvering hypersonic glide vehicle.

That's the basic principle behind Fattah.

Fattah-1 has actually been used

Iran used it during the October 2024 attack on Israel, although the exact number of Fattah missiles and how many successfully reached their targets is uncertain.

Fattah-2 is a different story. There isn't good public evidence that Iran has used Fattah-2 operationally. Recent analysis specifically notes that Fattah-2 and Qassem Basir appear not to have been deployed, despite their much-publicized capabilities.

Fattah‑1 = MaRV (terminal maneuver only); Fattah‑2 = true HGV (mid‑course glide + full lateral maneuver). Both are often called "hypersonic" interchangeably in media, causing confusion.

The most widely cited Fattah‑1 successful impact is the Dimona nuclear site perimeter strike in early March 2026. Other reported hits include parts of the US Navy 5th Fleet support complex in Bahrain, Nevatim Airbase, and IDF headquarters area in Tel Aviv.

However — all these are primary claims from Iran, regional media, or sympathetic outlets. There is no official Western confirmation that these impacts were specifically Fattah‑1 rather than other Iranian ballistic missiles (Kheibar, Emad, Sejjil, etc.).

Feature	Fattah‑2 (Iran)	DF‑17 (China)	LRHW Dark Eagle (US)	Kinzhal (Russia)	Zircon (Russia)
Category	Theater HGV	Theater HGV	Theater HGV	Air‑launched ballistic‑type	Scramjet cruise
Launch	Ground TEL	Ground TEL	Ground TEL	MiG‑31K / Tu‑22M	Ships / submarines
Range	1,400–1,500 km	1,800–2,500 km	~2,775 km	~1,500–2,000 km	~900–1,000 km
Speed	Mach 13–15	Mach 5–10 glide / Mach 15+ peak	Mach 8–12 glide / Mach 17 peak	Mach 9–12	Mach 8–9
Type	Boost‑glide HGV	Boost‑glide HGV	Boost‑glide HGV	Ballistic + terminal maneuver	Airbreathing scramjet
Warhead	~200 kg conventional	500–800 kg conv/nuclear	Conventional	Nuclear‑capable (~500 kg)	Nuclear/conventional
Maneuver	Mid‑course + terminal	Full glide, large lateral	Full glide	Terminal only	Continuous (lower altitude)
Status 2026	Claimed operational	Operational (mass deployed)	Initial fielding	Operational since 2017	Operational since 2023
Primary Role	Regional strike ME	Pacific theater / anti‑ship	Global conventional deterrence	Quick‑strike / anti‑ship	Naval / coastal

Operation Epic Fury: U.S. Air Operations, Base Losses, and Energy Impacts

Operation Epic Fury

On February 28, 2026, under Operation Epic Fury, the U.S. used a very large mix of aircraft. It wasn't just aircraft from the carrier. The Pentagon's March 16 fact sheet lists B-1, B-2, B-52, F-15, F-16, F/A-18, F-22, F-35, A-10, EA-18G, plus support, reconnaissance, tanker, transport and unmanned aircraft.

The main combat aircraft:

Aircraft	Main role	Used against Iran?
B-2 Spirit	Stealth heavy bomber	Yes
B-1B Lancer	Heavy bomber	Yes
B-52H	Heavy bomber	Yes
F-35A/C	Stealth multirole fighter	Yes
F-15E Strike Eagle	Fighter/strike	Yes
F-16	Multirole fighter	Yes
F-22 Raptor	Air superiority/stealth fighter	Yes
F/A-18	Carrier fighter/strike	Yes
A-10	Ground attack	Yes
EA-18G Growler	Electronic warfare	Yes

Hundreds or Thousands Fighter Planes Involved?

The U.S. Air Force + Navy combined have ~2,900 fighters total — sending thousands would mean every single fighter in the entire inventory deployed to the Middle East — impossible.

An estimate by Air & Space Forces Magazine, based on open-source flight tracking, aircraft-spotter reports and satellite imagery, put the number at close to 300 U.S. fighters involved in the operation, plus at least 20 bombers.

What made up those ~300 fighters? They included aircraft such as F-35A/C, F-22, F-15E, F-16, F/A-18, and A-10. For example, approximately 30 Air Force F-35As were assembled in the Middle East, while Marine F-35Cs from the USS Abraham Lincoln also participated.

So how "bad" is Iran overall?

As of September 2026, Iran has not been completely crippled or destroyed, and it has retained significant military capabilities.

Iran's military facilities have not been completely crippled, though they have been severely damaged. The situation is a complex mix of significant destruction on the surface and resilient, largely intact capabilities underground.

What has been badly damaged?

US and Israeli strikes caused major losses to Iran's military-industrial infrastructure and surface-level forces. According to US Central Command statements from late March 2026:

Production Facilities: Over two-thirds of Iran's facilities for manufacturing missiles, drones, and naval vessels were damaged or destroyed.

Naval Power: 92% of Iran's large naval vessels were sunk or rendered inoperable.

Launch Rates: Iran's missile and drone launch frequency reportedly dropped by over 90% during the peak of the strikes.

Air Force: While not destroyed, Iran's older air force was largely kept out of the fight. Most aircraft survived by being hidden in underground bases, but they couldn't contest air superiority

Area	Situation
Ballistic-missile sites	Severely damaged
Missile production	Seriously disrupted, but recovering
Air-defense systems	Major losses
Conventional navy	Most reportedly destroyed
Drone production	Severely suppressed, but can regenerate
Nuclear facilities	Major damage at key facilities
Military command/control	Significant strikes
Civilian infrastructure	Also damaged, but much less comprehensively than military targets
Iranian government itself	Still functioning

How Badly Damaged Is The US Military Bases in Gulf Countries

No official details information exists for how much of the total US military base infrastructure in the Gulf has been destroyed. The situation is fluid, and reports describe damage in different ways — some bases were hit, some facilities were destroyed, and some may be permanently closed.

While the exact percentage is unknown, the available evidence suggests that a significant portion of the US military footprint in the Gulf has been degraded or put at risk. 

Discussions within the Pentagon about potentially not rebuilding damaged sites or shifting forces to safer locations indicate that the damage has been substantial enough to force a strategic rethink.

Which US Millitary Base in the Gulf Countries Damaged The Most

Based on multiple reports and satellite analyses from the 2026 Iran-US/Israel War, the US Naval Support Activity in Bahrain, which housed the headquarters of the US Navy's Fifth Fleet, is consistently identified as the most severely damaged US military site in the Gulf.

Reports describe it as "blown the hell out of" and "largely destroyed". An analysis by The Washington Post noted that over half of the total damaged assets across the region were concentrated here and at three bases in Kuwait.

The damage was so extensive that the headquarters operations were forced to relocate to MacDill Air Force Base in Florida. The loss of this key naval hub forced the US to use Diego Garcia, thousands of miles away, as a logistics hub, significantly stretching resupply lines.

The Wall Street Journal estimated the damage to the Bahrain base alone at approximately $400 million. The Pentagon's initial assessment for the single strike on February 28 put the cost at about $200 million.

Other Heavily Affected Locations

While Bahrain appears to be the worst hit, other bases in Kuwait were also heavily targeted and damaged.

Ali Al Salem Air Base (Kuwait): This was the single most frequently hit base, with an analyst counting 23 separate strikes on the facility. Satellite imagery confirmed collapsed rooftops and damage to hangars, communications infrastructure, and warehouses.

Camp Arifjan (Kuwait): This base suffered at least 17 strikes. A drone attack on a tactical operations center here resulted in the deaths of six US service members, highlighting the base's vulnerability.

Military Targets (U.S. & Allied Bases)

Date	Operation / Wave	Location & Target	Weapon Types	Key Damage
Feb 28 2026	Initial retaliation	Al Udeid AB (Qatar); Ali Al Salem AB (Kuwait); Al Dhafra AB (UAE); US Fifth Fleet HQ (Bahrain)	Shahab‑3, Emad ballistic missiles	First large salvo; majority intercepted, base infrastructure damaged
Mar 1–10	Follow‑up salvos	Same 4 core bases + Jordan	SRBM, drones	Repeated strikes; limited energy sites hit only after U.S. struck Iranian energy infrastructure
Jul 13 2026	Nasr‑2 Wave 1–5	Prince Hassan AB (Jordan); Shaikh Isa AB (Bahrain); Ali Al Salem, Ahmad al‑Jaber (Kuwait)	Fatah‑110, Kheibar ballistic missiles, Shahed‑series drones	Fuel depots, Patriot radars, P‑8 hangar, command centers destroyed
Jul 14–18	Nasr‑2 Wave 6–20	Bahrain (Juffair Naval Base, Fifth Fleet HQ); Kuwait (Camp Arifjan, Camp Udairi); Jordan (Azraq AB); Qatar (Al Udeid)	Fattah, Sejjil missiles; Shahed‑136, Lucas drones	HIMARS launchers, MQ‑9 hangars, early‑warning radars, comms centers hit
Jul 19–21	Nasr‑2 Wave 21–25	All above + Oman surveillance radar sites	Mixed missile/drone waves	"Radar‑clearing" campaign; sustained pressure across 5 nations
Aug 31 – Sep 2	Post‑ceasefire renewal	Bahrain, Kuwait, Jordan, UAE, Iraq (Al‑Harir, Erbil)	Ballistic missiles + loitering munitions	Final large‑scale military salvo before fragile pause
Sep 3–21	—	No major new waves	—	De‑escalation; isolated small drone incidents only

Energy/Economic Targets

Date	Location	Facility	Weapon Types	Damage Level
Mar 18–19 2026	🇶🇦 Qatar	Ras Laffan LNG export terminal	Ballistic missiles, drones	Extensive damage — 12.8 M ton/year capacity offline 3–5 years
Mar 19	🇸🇦 Saudi Arabia	SAMREF Refinery (Yanbu)	Drones	Operational disruption; fire contained
Mar 19	🇰🇼 Kuwait	Mina al‑Ahmadi, Mina Abdullah refineries	Drones	Fires at both; partial shutdown
Mar 25–28	🇦🇪 UAE	Port Fujairah; Al Taweelah industrial zone	Ballistic missiles	Severe damage; plant shutdown
Apr 3–6	🇦🇪 UAE	Habshan/Ajban gas facilities; Borouge petrochemical	Missiles/drones	Gas processing halted; major fire
Apr 10–mid	🇧🇭 Bahrain	BAPCO refinery	Missile debris	Moderate damage
Late Aug/early Sep	—	No new major energy strikes	—	Focus returned to military targets only

Counter‑Strikes (U.S./Israel → Iran)

Date	Target	Result
Feb 28+	IRGC command, missile sites, nuclear facilities	Operation Epic Fury — sustained air campaign
Mar 8	Tehran refinery, Shahran depot, Karaj depot	5+ domestic energy sites hit
Sep 5 & 8	Persian Gulf — IRGC‑linked oil tankers	8 tankers destroyed; Strait of Hormuz traffic collapsed

Bypass Pipelines

Before the war, these were "backup" — now they're the primary system

Country	Bypass Route	Capacity	Status
🇸🇦 Saudi	East-West Pipeline → Red Sea (Yanbu)	~5–7 million bpd	Operating at max; struck Sept 10 → partial outage, 4–6 week repair
🇦🇪 UAE	ADCOP pipeline → Fujairah (Gulf of Oman)	1.8 million bpd	Active; doubling to 3.6M bpd by 2027
🇶🇦 Qatar	None — no alternate coast	—	Most vulnerable; Ras Laffan hit hardest
🇰🇼 Kuwait	None — fully dependent on Hormuz	—	Exports collapsed 80% at peak
🇧🇭 Bahrain	None	—	Sitra refinery hit repeatedly

Saudi/UAE could redirect ~50–60% of exports away from Hormuz; Qatar/Kuwait/Bahrain had zero land-based escape routes.

Claims of Successful Hypersonic Strikes

As of September 2026, no Iranian hypersonic missile (Fattah-1 / Fattah-2) has been publicly confirmed as successfully intercepted by US or Israeli defenses. 

However older regular ballistic missiles fired alongside them were intercepted in large numbers. "Zero interception" claims apply specifically to the hypersonic variants, not every Iranian missile.

Targeting Israeli Sites: Iran's Islamic Revolutionary Guard Corps (IRGC) claimed its Fattah hypersonic missiles "shattered the myth" of Israeli air defense invincibility and struck targets including the Defense Ministry building and Ben Gurion Airport . Other reports cited footage suggesting at least three successful Fattah-2 strikes against high-value Israeli targets.

Bypassing US Systems: Iranian sources claimed that hypersonic missiles and drones "bypassed" the US THAAD system to strike targets in Tel Aviv.