For more than a century, the tank fights had been primarily determined by power, heavy armor, and high speed. Some of the leading characteristics of tank battles were larger cannons, more durable armor, and faster engines, but a new competitor has been introduced in the battle arena: small, inexpensive, and flying. Drones are toppling the game by accessing places that tank crews have not even imagined. Even though armored vehicles remain the mainstay of land forces, they now pose a greater challenge to alter their tactics.

Here’s a countdown of the world’s top 10 tanks in active use today, and how each is standing its ground in this new era of aerial threats.

10. T-90 — Russia’s Workhorse

The T-90 marries an upgraded Soviet chassis with new armor and firepower. Its 125mm smoothbore cannon and reactive armor make it deadly against conventional opponents, and its light weight provides acceptable agility. But as recent wars have demonstrated, even a heavily armored T-90 can be defeated by a $1,000 drone with the proper targeting.

9. Type 99 — The Contender

Equipped with a 125mm cannon, composite armor, and computer fire control, the Type 99 is the Chinese response to NATO’s heavyweights. Active protection systems enable it to resist missile attacks and drones, but with UAV technology moving so rapidly, safety requires frequent upgrades.

8. Leclerc — France’s Digital Brawler

France’s Leclerc carries a 120mm smoothbore gun, modifiable armor, and a very high rate of fire. Its advanced electronics enable rapid target pickup, but as with all tanks of this type, its initial designers never expected a battlefield swarming with weaponized quadcopters.

7. K2 Black Panther — South Korea’s Tech Tank

The K2 is among the world’s most advanced tanks. Its 120mm gun, sensor technology, and networked systems are combined with active protection that’s designed to combat drones as well as missiles. Agile enough to complement its firepower, the K2 is built for today’s drone-heavy battlefield.

6. Type 90 — Japan’s Agile Striker

Japan’s Type 90 was designed to be fast and accurate. Its 120mm cannon and high-powered engine provide it with superior agility, and its computer systems improve crew effectiveness. Even this agile platform, however, needs to continue to adapt to remain superior to hordes of FPV drones.

5. Merkava Mk 4 — Israel’s Fortress on Tracks

The Merkava Mk 4 reverses the conventional tank design by placing its engine at the front, protecting the crew. Its 120mm cannon, modular armor, and advanced active protection are specifically designed for asymmetrical battlefields where drones pose a daily threat.

4. Challenger 2 — Britain’s Heavy Hitter

Renowned for its strength and precision, Challenger 2 has a 120mm rifled gun and heavy armor. It’s been upgraded with improved sensors and anti-drone technology, but increased use of UAVs is compelling even this battle-hardened veteran to change.

3. Leopard 2 — Germany’s Balanced Champion

Usually referred to as the world’s greatest all-around tank, the Leopard 2 provides a combination of pace, firepower, and protection that few can equal. Its 120mm smoothbore, powerful engine, and reliable design have made it a NATO darling. Now, new electronic warfare systems and active defenses are keeping it in the running against drones.

2. T-14 Armata — Russia’s Next-Gen Gamble

With an unmanned turret, 125mm gun, and heavy armor, the T-14 Armata is a daring advance in tank technology. Its sensors and battlefield networking are designed to counter both conventional and drone dangers, but its absence of a tested combat record leaves some things to guesswork.

1. M1 Abrams — The American Benchmark

The M1 Abrams has been the gold standard for decades. Equipped with a 120mm smoothbore gun, composite armor, and a steady stream of upgrades, it is still a force to be reckoned with. Newer variants are receiving top-of-the-line active protection and advanced sensors to deal with drones, so the Abrams is not losing its crown yet.

The Drone Factor

The conflict in Ukraine has demonstrated how much of a disruption drones can cause, sometimes only costing hundreds of dollars but able to incapacitate million-dollar tanks. FPV drones, loitering munitions, and AI-controlled UAVs are turning the tables, compelling tank crews to reorganize or face annihilation at the hands of drones. Electronic warfare may be able to jam certain drones, but AI-controlled models can fly signal-free, rendering jamming futile. It’s an arms race where evolution means survival.

Lessons of the Past

Legends such as the Tiger I, T-34, and Sherman M4 continue to influence the design of tanks today. The sloping armor of the T-34 changed survivability forever, while the Tiger I established new levels of firepower. These lessons of balance, versatility, and protection remain the foundational principles for tanks today.

Rolling Into the Future

Tanks no longer battle only other tanks. Their foes now fly, swarm, and think. The greatest tanks in the world will be those that remain connected, remain armored, and remain mobile—whatever the battlefield becomes.

When it was at its best, the Boeing B-17 Flying Fortress was recognized as one of the pictorial expressions of the US air power that it had shown in the Second World War – a robust aircraft that was operated by brave crews whose heroic stories have become myth. However, one of the legends in the myths is essentially a more complex account with some confusing technical compromises, wrongly directed strategies, terrible deaths, and remarkable selfless acts by those who flew it.

When it entered service in 1935, the B-17 was already looking past its prime. Based on ideas hatched during the 1920s and early 1930s, it wasn’t as much of a long-range bomber as the Army Air Corps had hoped. In fact, insiders regarded the newer Consolidated B-24 Liberator as an upgrade over the B-17, with its heavier payload and more efficient wing design. But the B-17’s smooth handling and capacity to fly at higher altitudes won it a loyal following among pilots, particularly those still familiarizing themselves with biplanes.

Its emergence to the forefront was as much a matter of timing as engineering. When tensions mounted in Europe, President Franklin Roosevelt’s appeal for military expansion achieved mass production of American bombers—the B-17 among them—before the U.S. officially entered the war. The Flying Fortress was set to command the nation’s strategic bombing campaign by the time it entered the war.

That effort was based on a radical concept formulated at the Air Corps Tactical School: daylight precision bombing. The theory was that large numbers of heavily armed bombers, flying in close formations, could blast strategic industrial objectives with great precision—paralyzing an enemy’s capacity to fight a war. In practice, this doctrine would turn out to be ambitious and expensive.

The first real combat trial of the B-17 was actually not with American crews, but rather with the British. The Royal Air Force was given several B-17Cs in 1941 with the expectation that they could carry out deep raids into Germany. The outcome, however, was not as anticipated. In their first mission, the aircraft were plagued by a series of mechanical failures, the bombs did not release properly, and the targeting was off. Consequently, the RAF immediately ruled out the airplane as a suitable aircraft for its needs and focused instead on other bombers.

These were also the bitter lessons of the American crews. The initial flights over the occupied France were somewhat manageable, but problems began to surface when the raids got deeper into Germany. It was then that the proponents of daylight bombing revealed their falsehoods. Even though B-17 wings were heavily armed with various types of defensive guns, the formations still fell easy prey to coordinated Luftwaffe attacks, especially after the escort fighters had to go back due to running out of fuel. The losses grew, and the legend of the self-defending bomber was at the same time rapidly dismantled.

The most dramatic incident occurred in 1943. The combined raid on Regensburg and Schweinfurt in August led to the destruction of 60 out of 376 planes that were sent off, as well as a large number of others being put out of action. The subsequent Schweinfurt raid in October, also known as “Black Thursday,” caused 60 of the 229 bombers that took part to go down, and more than 600 airmen to die or become missing. The devastation stopped the heavily armed bomber from flying counterattacks for some time and triggered a rethinking of the strategy.

One of the last resort measures that was taken was the attempt by the engineers to build “escort bombers” like the YB-40, which were supposed to be heavily armed with additional guns, but the design was awkward and inefficient. However, the real solution came with the P-51 Mustang, a long-range fighter that could go with the bombers to their targets and back safely. From that moment onwards, the Allied bombing campaigns were able to continue without such heavy losses as before.

Even outside combat areas, the risks were enormous. The American air forces grew explosively, with tens of thousands of young men hurried through training programs with little experience on high-speed planes. Mechanical breakdowns, bad weather, and pilot errors created thousands of fatal crashes. For many crews, the war was finished before they even encountered the enemy.

Nevertheless, the B-17 established itself as tough through thousands of tales of bomber cripples making it home against impossible odds. Although both the B-24 and the B-17 could be destroyed by one fortunate hit, the stories of battered Fortresses limping back across the Channel entered into its lasting mythos.

By the end of the war, the B-17 was no longer an airplane—it was an emblem of American perseverance and sacrifice. But its story is not one of heroism only. It is also a tale of how ambitious Air Force theories of airpower ran up against the brutal facts of modern war. The conclusions drawn from its missions—about strategy, technology, and what the human body could endure—would influence the course of aviation for years to come.

The Northrop P-61 Black Widow was a peculiarly different plane among the aerial vehicles of the Second World War. Being the first American combat aircraft designed and built from the ground up, and the one that initiated night fights, the result was a combination of advanced radar technology, heavy armament, and an eye-catching design that remains impressive even today. It was the maximum revolution in the night, and to this day, many aircraft enthusiasts still marvel at it.

Here’s how this incredible plane became one of history’s most feared nighttime fighters.

5. A Legacy That Continues to Cast a Shadow

The Black Widow’s tale did not conclude with the final days of World War II. Squadrons such as the 547th Night Fighter Squadron—now renamed the 547th Intelligence Squadron—took their essence into subsequent ages, refining themselves to keep up with changing menaces.

In 2023, a plaque was dedicated at Meadows Field Airport in Bakersfield, California, commemorating the squadron’s WWII service. For Lt. Col. Jeremy Hirsch, now its commander, it was an opportunity to look back on a proud heritage.

The unit’s mission today is much more high-tech—tracking and countering today’s adversaries, especially in the Indo-Pacific. Although their Vietnam-era slogan “HIT MY SMOKE” persists in squadron lore, Fridays are still special—members fly the original Black Widow patch, preserving the legacy of the aircraft.

4. Proving Its Worth in Combat

The P-61 joined the battle in the summer of 1944 and did not wait long to display what it was capable of. On July 6, its first verified kill was a Japanese Mitsubishi G4M “Betty” bomber shot down by a Black Widow of the 6th Night Fighter Squadron. In the Pacific, its firepower and radar quickly dispatched the night raiders of the enemy.

In Europe, it supplanted earlier British night fighters, picking off German bombers and fighters in the darkness of night. Perhaps its most legendary flight was on August 14, 1945—just before VJ Day—when a P-61B called Lady in the Dark racked up what’s believed to be the last Allied air victory of the war.

The Black Widow’s career lasted far past WWII. Renamed the F-61, it remained in service through 1954, and its design was used in the F-15 Reporter for reconnaissance missions. The best description came from aviation journalist Isaac Seitz: “The P-61 Black Widow was one of the most distinctive and visually unusual aircraft to fly in the Second World War.”

3. Power Meets Precision Design

The Black Widow was highly armed—four 20mm Hispano M2 cannons under the fuselage and four .50 caliber Browning machine guns in a remote dorsal turret. A three-member crew—pilot, gunner, and radar operator—collaborated to find, chase, and annihilate objectives. Its twin-boom configuration provided stability, and the stepped and bubble canopies gave outstanding visibility to each crewman. With two Pratt & Whitney R-2800 radial engines producing approximately 2,000 horsepower each, the P-61 had a top speed of 366 mph and could climb higher than 33,000 feet—remarkable for an airplane as big as a medium bomber.

In spite of its size, it was light on its feet. Tricycle landing gear and spoilers instead of ailerons rendered it surprisingly maneuverable. As the Smithsonian’s National Air and Space Museum reiterated: “The XP-61 flies beautifully and is an old man’s airplane”—easy to fly and forgiving.

2. Radar—Its True Superpower

Though its weapons were impressive, the P-61’s true advantage lay in its radar. The Western Electric SCR-720A system could detect enemy planes up to five miles away, regardless of night or bad weather. With the radar operator helping the pilot onto target, the Black Widow could deliver a lethal blow.

Britain had led the way with night-fighting techniques using planes such as the Bristol Blenheim and Boulton Paul Defiant, but the P-61 took things to another level—mating sophisticated radar with a gun-laden, specifically designed night fighter. It was a quantum leap that redefined the game.

1. A Permanent Place in Aviation History

The P-61 Black Widow was greater than a war machine—it was an icon of American resourcefulness and flexibility. Built upon British experience but with U.S. engineering expertise, it integrated long range, longevity, radar capability, and abundant firepower in one powerful package. Its legacy is still felt today—not merely in museum exhibits or historical markers, but in the DNA of contemporary all-weather warriors built to own the heavens, day or night.

The U.S. Army’s advance into directed energy weapons has gone from science fiction to the battlefield of today.

Leading the charge is the Directed Energy Maneuver-Short Range Air Defense (DE M-SHORAD) system—a laser weapon in the 50-kilowatt class mounted in a Stryker, representing a new era of war-fighting technology.

Created to neutralize the rapidly expanding threats of drones, rockets, artillery, and mortars, it’s an engineering breakthrough—more than that, a preview of the future of war.

The speed of development is what makes DE M-SHORAD stand out. It took the Army’s Rapid Capabilities and Critical Technologies Office, and its industry partners, barely two years to take the promise of high-energy lasers and transform it into a fully integrated combat-ready system on Stryker vehicles, whereas this was the creation of a completely new capability, designed to shield divisions and brigade combat teams from the modern aerial and indirect fire threats.

Soldiers have been instrumental in getting DE M-SHORAD into the field. The 4th Battalion, 60th Air Defense Artillery Regiment (4-60th ADAR) at Fort Sill was the Army’s first tactical directed energy unit and assisted in creating the system’s tactics, techniques, and procedures.

Training started out in simulators and on surrogate vehicles and then moved to the actual vehicles, allowing crews to learn how to work with the unusual requirements of laser weapon operation.

In a more classic case of user innovation, soldiers even suggested utilizing commercial gaming controllers to control the system—a proposal the Army went along with. Live-fire testing has been equally crucial as lab work. In one operational test, the 4-60th ADAR engaged more than 50 simulated drone threats under realistic conditions, fully integrated with current base defense systems.

Ongoing feedback between the troops in the field and engineers developing the weapon has been critical, allowing each lesson to feed directly into the next version of the system and its doctrine.

In combat, DE M-SHORAD revolutionizes the game of short-range air defense. It can shoot at the speed of light and continue shooting as long as there’s power, so it’s particularly deadly against drone swarms and incoming missiles.

It’s a lot cheaper than missiles per shot, and it’s simpler to logistically support—no moving heavy rounds or resupplying interceptors.

But the Army is pragmatic about the challenges that lie ahead. Lasers are subject to weather, range restrictions, and target type. A recent Government Accountability Office analysis determined that the system is “not mature enough” for mass production, prompting a stop in procurement and a reevaluation of deployment timelines.

Incorporating DE M-SHORAD into existing air defense networks also requires rewriting doctrine, revising training, and changing organizational structures—efforts still underway.

Despite this, having the first DE M-SHORAD prototype in the Fort Sill Museum serves as a testament to how far the technology has developed.

This is merely the beginning. As the Army continues to hone the system, train its operators, and incorporate it into broader defense plans, lessons learned will inform the next generation of air defense—and indicate that the laser age of war isn’t on the horizon anymore. It’s already here.

One of the most radical transformations in the last several years is taking place in naval aviation, and leading the way is the MQ-25 Stingray – the U.S. Navy’s first drone for in-flight refueling, launched from a carrier. Aircraft carriers have traditionally been the hub of U.S. energy export; however, it is a new phenomenon that they still require the use of manned aircraft to carry out vital support tasks such as aerial refueling. With the MQ-25, it is all turned upside down; thus, a new epoch is becoming firmly established where unmanned aerial vehicles are not only the supporters but also the mainstay of carrier operations.

A Historic Aviation Milestone

The MQ-25 hit the headlines in June 2021, when a test aircraft from Boeing successfully transferred fuel during flight to a Navy F/A-18 Super Hornet. The test, conducted over Illinois, was not only a technological achievement—it was a milestone in the way unmanned systems complement crewed platforms. The Super Hornet flew only 20 feet from the unmanned MQ-25, holding station through both dry and wet contacts before taking on board fuel. This wasn’t proof of concept—it was proof of capability in realistic conditions.

More Than a Flying Tanker

Although the MQ-25’s stated purpose is to refuel carrier-based aircraft at range, its effect extends far beyond logistics. Rear Adm. John Meier, Commander of Naval Air Force Atlantic, has described the Stingray as a “revolutionary” move toward creating the Air Wing of the Future. By lifting the refueling load off F/A-18s—historically employed as ad hoc tankers—the Navy can now send more of those aircraft on strike and combat missions. The payoff? More firepower, longer reach, and greater efficiency without more pilots or platforms.

Proven on the Deck, Ready for the Fleet

Getting an unmanned aircraft onto the tightly choreographed deck of a carrier took careful testing. Initially, engineers tested the MQ-25 at Chambers Field in Norfolk by getting it to maneuver within lines painted on mock-ups of carrier decks using remote control. The simulations later led to live demonstrations on board the USS George H.W. Bush, confirming how the MQ-25 could be incorporated into routine deck operations.

A Strategic Building Block

The MQ-25 is not an independent test—it is the Navy’s first step toward creating a networked, hybrid force of manned and unmanned platforms. It is part of the larger movement toward manned-unmanned teaming (MUM-T), in which human pilots and autonomous vehicles work together as integrated teams.

Future success, according to defense analyst Heather Penney of the Mitchell Institute, will not only be based on constructing cutting-edge machines, but on systems where machine and human can understand each other’s strengths and weaknesses. That’s the kind of thinking found in initiatives such as the “Two View Autonomy Framework” that seeks to close the gap between operators and engineers as autonomy becomes more prevalent.

Moving Fast and Learning Faster

Since Boeing won the development contract in 2018, the MQ-25 program has been rapidly moving forward. Within a few years, it not only refueled an F/A-18 but also topped off an F-35C and an E-2D Advanced Hawkeye—showing its versatility throughout the fleet. The Navy has been pushing to get the MQ-25 into operational use as fast as possible, particularly as competitors are building systems intended to counter U.S. carrier superiority in high-threat operations.

A Glimpse Into What’s Next

The deployment of MQ-25s onto Ford- and Nimitz-class carriers will change the way the Navy projects airpower. With its capability to refuel strike aircraft away from the carrier, it enables the U.S. to reach farther without getting closer to enemy defenses. But equally significant, the Stingray opens the door to future unmanned systems—from surveillance drones to autonomous strike aircraft and loyal wingmen designs.

Each lesson gained from the MQ-25—technical, tactical, or procedural—is part of a greater push to transform naval aviation for the battles of the future. In a world defined by speed, precision, and stealth, unmanned vehicles like the MQ-25 won’t be bit players—they’ll be driving the mission.

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The Curtiss P-40 Warhawk is overshadowed somewhat in the minds of the general public by the flashy P-51 Mustang and the raw power of the P-47 Thunderbolt; nevertheless, it has a respectable standing among those who know about aviation during WWII. P-40 was not the most beautiful or alluring one in the sky; however, it was dependable, robust, and in the hands of some of the most determined pilots of the war.

Its ancestry goes back to the Curtiss P-36 Hawk. Instead of beginning anew, Curtiss designers used the P-36 airframe as a starting point, substituting the Allison V-1710 liquid-cooled engine in place of the P-36’s radial. The product of this was a single-engine, single-seat fighter with an unusual appearance and the image of taking a tremendous amount of battle damage and still returning its pilot safely to base.

On paper, the P-40 was a good performer. It had a top speed of about 318 knots (589 km/h) because of its 1,240-horsepower Allison engine. Its standard armament was two .50 caliber Browning machine guns in the nose and four .303 caliber guns in the wings.

The Warhawk had a ceiling of 29,000 feet, could climb at 2,100 feet per minute, and was used for a range of missions. Though it did not surpass the most agile or quickest fighters, it excelled at durability and reach, traits that made it a tremendous asset for air defense as well as for attacking the ground. Pilots returned from missions in planes riddled with bullets, their Warhawks beaten but still flyable.

The P-40 engaged in almost every theater of the war—North Africa, the Pacific, and the China-Burma-India Theater. It could escort bombers, dive-bomb enemy ground targets, or engage enemy fighters.

The plane’s most legendary pilots were the Flying Tigers, a unit of American volunteer pilots who helped protect China prior to the U.S. entering the war officially. Their shark-toothed nose art is one of the most iconic images of the war.

One of the P-40’s pilots, Keith Bissonnette, was the epitome of the kind of toughness the P-40 is known for. A professional minor leaguer before the war, Bissonnette enlisted in the Army Air Forces in 1942 and flew with the 88th Fighter Squadron, 80th Fighter Group.

He flew P-40s and then P-47 Thunderbolts on over 200 combat missions in the China-Burma-India Theater—bombs, strafing, and even hazardous supply flights over the Himalayas referred to as “the Hump.” His service ended in tragedy in March of 1945 when his P-47 crashed near Keng Tung, Burma. He received the Distinguished Flying Cross, Air Medal, and Purple Heart for bravery.

Pitted against its German equivalent, the Messerschmitt Bf 109, the P-40 did not always win on sheer performance. The Bf 109’s 1,455-horsepower Daimler-Benz engine provided it with more speed, superior altitude performance, and superior climb rates.

But the Warhawk responded with toughness, more protection, and greater resistance to damage—traits which frequently made the difference between living and dying. The two pilots embodied different philosophies: German concepts of agility and quickness, and American ideals of hardness and flexibility.

As the war ended, the advent of jet aircraft sent the P-0 and other piston-driven fighters into retirement. Only a few survived, and now only a few Warhawks exist in museums or have been returned to flight status.

Though it was never the darling of the limelight, the Curtiss P-40 Warhawk forged its reputation through reliability, versatility, and the determination of the flyers who flew it. It is an icon of the lesser-known air war heroes—men and machines that fought as hard as the greats but without as much acclaim.

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For a very long time, the B-2 Spirit has been the peak of stealth, range, and strategic impact of the U.S. Air Force. It’s a vehicle that, on the one hand, through its incredible ability to fly nonstop even to the other side of the planet, and on the other, to go through the hardest impregnable barriers of the Earth, has changed the whole concept of the use of air power. However, its day is a bit past now as the B-2 replacement is already under flight testing and will soon take over. A glance at the history, the potential, and the technology of the B-2 aircraft, which the latter leaves behind.

8. Passing the Torch to the 11 Raider

The B-2’s replacement, the Northrop Grumman B-21 Raider, flew for the first time in November 2023. Designed for increased stealth and versatility—and capable of flight with or without a crew—it will one day replace the B-2 fleet. The U.S. Air Force anticipates ordering about 100 of them, so the Raider will form the backbone of next-generation strategic bombing raids, able to carry both nuclear and conventional munitions with advanced sensors and networked fighting systems.

7. Starting from Scratch on Stealth

Northrop Grumman didn’t just build a plane when they created the B-2—they created the tools and techniques to make it a reality. The airframe is nearly all carbon fiber composite, consisting of more than 10,000 discrete components, providing both strength and radar-absorbing properties.

In the 1980s and ’90s, this type of production necessitated equipment built to specific requirements and innovative 3D modeling software. Nowadays, the process is much more inclusive—automated fiber placement machines can be rented and fitted in weeks, and composite fabrication is now part of university curricula globally.

Although the most sensitive technology of stealth remains classified, construction with these materials is no longer the uncommon activity that it once was. 

6. Living On Board During 44-Hour Missions

Endurance is just as much a component of the B-2’s mission as stealth. There are only two pilots on board, so the cockpit has been designed for both work and survival during missions that last almost two days. Behind the seats is a space for sleeping, along with a microwave, refrigerator, pantry, and even a small toilet. Pilots are chosen not only for their flying skills but also for their ability to work well together in high-pressure, cramped environments where teamwork is everything.

5. The Price of Perfection

At a cost of more than $2 billion per plane and operating costs reaching $135,000 per flight hour, the B-2 is the most costly plane in the world.

Its maintenance needs are just as drastic—after each mission comes anywhere from 36 hours of maintenance, and its sensitive radar-absorbing skin has to be kept in climate-controlled hangars. With so much attention, the fleet’s readiness rate for missions sticks at around 50%, a testament to how challenging it is to make these bombers mission-ready.

4. Unique Heavy Hitter with a Special Arsenal

The B-2 carries as much as 40,000 pounds of ordnance within its two bomb bays, ranging from the precision-guided JDAMs to nuclear warheads. Most significantly, it is the only American aircraft that can deploy the 30,000-pound GBU-57 Massive Ordnance Penetrator, capable of penetrating 200 feet of hardened concrete.

This provides the B-2 with unparalleled capability against deeply buried targets out of reach of other bombers.

3. Going the Distance

Perhaps the B-2’s greatest asset is its range. Without refueling, it has a flight distance of about 6,000 nautical miles, but actually, it allows it to attack anywhere on the planet from its Missouri home base through air-to-air refueling. The bomber’s most noted accomplishment was a 44-hour combat mission to Afghanistan in 2001—the longest combat sortie in history. It has flown in Kosovo, Iraq, Afghanistan, Libya, Yemen, and most recently, Iran.

2. The Science of Being Invisible

The stealth of the B-2 is a union of form and material. Its flying wing shape, carbon-graphite skin that absorbs radar, titanium parts, and its deeply buried engines all combine to reduce radar, infrared, acoustic, and even contrail signatures. At altitude, its radar cross-section is roughly the size of a seabird—small enough to pass by the most advanced detection systems.

1. Operation Midnight Hammer: The B-2’s Defining Moment

The biggest B-2 mission ever occurred during Operation Midnight Hammer, when seven bombers flew out of Missouri and bombed Iran’s buried nuclear facilities at Fordow, Natanz, and Isfahan.

Accompanied by 125 supporting aircraft and a submarine that launched dozens of Tomahawk cruise missiles, the B-2s delivered 14 bunker busters in 25 minutes. Iran’s defenses never stood a chance. It was the second-longest B-2 mission ever flown and a dramatic demonstration of its capacity to penetrate the most heavily defended airspace on the planet.

One of the very few aircraft that have fascinated, scared, and puzzled a large number of people to the greatest extent is the Mikoyan-Gurevich MiG-25 “Foxbat”. In the period of the Cold War, the Western spies who were analyzing the grainy reconnaissance pictures were convinced that they had discovered an extraordinary flying machine from the USSR, with a massive wingspan, giant air intakes, and a silhouette that looked like it was specifically designed for incredible speed.

To U.S. officials, it appeared to be an invincible fighter, one that outranked anything in the American arsenal. Merely looking at it helped hasten production on the McDonnell Douglas F-15 Eagle. But under the intimidating silhouette was a vehicle with unusually targeted strengths—and glaring defects.

A Plane Designed to Counter a Particular Fear

The MiG-25 was not built to reign supreme in dogfights or spend hours prowling as a sentry. It was formed in direct response to a very particular problem: the emergence during the late 1950s and early 1960s of Mach 2-and-better American supersonic bombers, such as the B-58 Hustler and the XB-70 Valkyrie prototype.

These planes boasted a cruise speed of Mach 2 or better, far faster than the Soviet interceptors of the period. Because of this, Soviet engineers required something new: a high-speed, high-altitude intercept that would take off from the ground, destroy a nuclear bomber before it could drop its payload, and return to base in a hurry. Endurance, maneuverability, and multifunctionality were secondary considerations.

When Brute Force Meets Engineering

The Foxbat was built out of practical necessity. Rather than exotic titanium alloys, its airframe was predominantly nickel-steel, selected to resist the heat of prolonged speeds at more than Mach 2.8. This rendered the aircraft strong but heavy, and seriously restricted its maneuverability.

Two powerful Tumansky R-15B-300 turbojet engines delivered the power. They imparted the MiG-25 incredible speed—up to Mach 2.83 for long-range flight, and even above Mach 3 in emergency sprints (though this would destroy the engines). The drawback was efficiency: the plane consumed fuel at a phenomenal rate, leaving it with only a fleeting combat radius of a few hundred miles. Also, the high-speed flights took their toll on the engines.

The MiG-25 set records, reaching heights of more than 123,000 feet and speed milestones. But these statistics concealed the fact: the jet could just barely tolerate 4.5 Gs, which made it a bad choice against highly maneuverable fighters. Its RP-25 “Smerch-A” radar was impressive, but it was unable to detect low-flying targets—an Achilles’ heel once Western bombers began using low-altitude attacks.

Cold War Showdowns and Stories of Combat

Combat experience was mixed for the MiG-25 on the battlefield. Reconnaissance models were highly successful, operating at speeds and altitudes that enemy fighter aircraft were unable to match. During the Iran-Iraq War and the Gulf War, Iraqi MiG-25s were able to shoot down a few Western aircraft, including a U.S. Navy F/A-18. They also lost some, and their vulnerabilities were discovered against advanced fighters such as the F-15.

The Foxbat’s mystique was dispelled in dramatic style on September 6, 1976, when Soviet pilot Viktor Belenko defected to Japan flying his MiG-25. Skimming low to evade radar and finally landing on almost depleted fuel, Belenko brought one of the Cold War’s greatest intelligence coups.

A Shattered Myth

Examination of Belenko’s aircraft was sobering to the West. Anything but a titanium-clad super-fighter, the MiG-25 was grossly overweight, employed vacuum-tube electronics, and had engines that could not safely maintain their maximum velocities. Its radar was old, and its missiles were no match for the U.S. SR-71 Blackbird, which routinely outclimbed and outlew Foxbats. Soviet pilots, Belenko disclosed, were instructed not to fly faster than Mach 2.5 in normal operations. The SR-71, on the other hand, appeared to mock the MiG-25s dispatched to intercept it—flying higher, faster, and uncatchable.

Legacy of the Foxbat

All things considered, the MiG-25 left a lasting legacy. It was a fighter built to counter a threat—the high-altitude supersonic bomber—that never became the focus of U.S. strategy. Its weaknesses had an impact on the design of its replacement, the MiG-31 Foxhound, which addressed many of the Foxbat’s issues with better avionics and armament.