Workers would not even think about it if they were asked to choose the best one among the U.S. Navy aerial vehicles. They would immediately come up with the Douglas A-3 Skywarrior, also known as the Whale, and call it the most superior by far. Comparing it to most of the other aircraft on the deck was somewhat akin to a leviathan. This incredibly powerful weapon from the Cold War era was actually the first time it was designed in 1952 and it practically went on to do everything that the Navy ordered it to do, like, dropping nuclear bombs, taking secret pictures, disrupting the electronic systems of the enemy, and – the most famous – being an energy provider that allowed the fighters to continue flying and thus, gave a new life to many pilots.

Born of a Nuclear Mission

The post-World War II years were nervously tense, and the Navy required a means to drop nuclear warheads from the sea. The Douglas Aircraft Company, headed by genius Ed Heinemann, replied with the A-3—a huge, long-range jet that could take off from a carrier and deliver its payload far into the heartland. Putting something so big on a rolling, sea-tied runway was no simple trick. Engineers designed a tricycle landing gear to enhance handling on the deck, bestowed it with folding high-mounted wings for saving space in the hangar, and mounted two robust Pratt & Whitney J57 turbojets for long-range capability.

The cockpit was operational but nasty—pilot and bombardier/navigator sat side by side, with a third member facing astern to handle defense equipment. In a contentious decision, no ejection seats were fitted to conserve weight, a decision that generated the black crewroom joke that “A3D” stood for “All Three Dead” in a crash.

From Nuclear Strike to All-Purpose Giant

The Skywarrior began operations in 1956, taking the place of the AJ Savage as the Navy’s nuclear strike weapon. However, with the advent of submarine-launched ballistic missiles, the nuclear bomber was soon out of a job. Rather than being retired prematurely, “The Whale” diversified. Its massive bomb bay, tough airframe, and endurance capabilities made it well-suited to new missions—electronic jamming, surveillance, and, most notably, air refueling.

Vietnam and the Tanker’s Lifeline

It was in Vietnam that the A-3 earned its legendary status. In the early days of the war, there were some Skywarriors that flew bombing missions, but it was the tanker versions—the KA-3B and EKA-3B—that provided the foundation for carrier operations. They refueled strike packages before crossing the beach, hovered at the edge of enemy airspace for emergencies, and even descended on floundering aircraft making their way home damaged or with dangerously low fuel levels.

War stories are replete with Skywarrior heroism. On July 18, 1967, for instance, Commander Tom Maxwell piloted his tanker deep into country—contrary to orders and under fire from enemy defenses—to refuel Lt. Commander Dick Schaffert’s low-flying F-8 Crusader, shepherding it back to safety. Aviation historian Joe Baugher estimated that Skywarrior tankers rescued up to 700 Navy and Marine planes during the war.

Built to Adapt

More than 282 Skywarriors were built in several versions. The main production model was the A-3B with better engines and avionics. The KA-3B performed the tanker role, while the EKA-3B did both refueling and jamming. The RA-3B was prepped for reconnaissance, and the EA-3B became a Cold War standard for electronic intelligence, flying around the globe and even flying missions in Operation Desert Storm in 1991. The U.S. Air Force also looked to the design, converting it to the B-66 Destroyer for use in ground-based operations.

Big Jet, Big Risks

Flying something the size of the Skywarrior off a carrier deck was an ongoing challenge. It broke records for the heaviest catapult launch, but its size made it less tolerant of error. Almost 42% of all Skywarriors produced were destroyed in accidents or combat, and without ejector seats, crews had fewer chances to survive an emergency. In spite of the hazards, its crews developed a reputation for skill, discipline, and lifesaving resolve.

Adieu to “The Whale”

By the early 1990s, newer and more specialized planes had replaced the Skywarrior’s missions. The Navy retired the remaining A-3s in September 1991, but their memory continues. Surviving specimens are on display at museums around the country, reminders of a time when the biggest bird on the carrier deck wasn’t a strike fighter, but the plane that ensured the strike fighters made it home.

The Douglas A-3 Skywarrior’s history is more than a roll call of specs or combat missions. It’s one of adaptation, unheralded heroism, and a plane so versatile it served for decades in missions its original creators never dreamed of. In short, it was “The Whale,” but it got the Navy through some of its most challenging years at sea.

One of the best low-day designs from the Northrop F-5 is still exemplary in the list of records of worldwide military aviation. The origin of the F-5 was in the late 1950s, and it was first flown in 196. A conception of one single design idea only was the F-5, “keeping it cheap, easy to operate, and with enough toughness to be used in wars for the next fifty years.” The F-5 Werko Gasich, the person who came up with the F-5 design, chose the simplest path but made the most effective way for a small, compact, supersonic, multi-purpose fighter that could meet the requirements of any air force in the world.

Its twin-engine configuration, uncomplicated systems, and agile airframe made it a multi-role fighter for countries that required an efficient but not costly warplane. The F-5 family has multiple variants, which are designed to carry out specific tasks.

The one-seater F-5A was a twin General Electric J85-GE-13 turbojet tactical fighter plane. It flew at Mach 1.4 at 30,000 feet, had a service ceiling of 50,000 feet, and a range of over 1,300 miles. The F-5B led to a two-seat trainer variant, giving up some firepower for the instructor seat. The F-5E Tiger II then introduced revolutionary changes in the form of more economical powerplants, sophisticated avionics, and enhanced maneuverability.

Even after a couple of decades, the F-5 remains in service with nations like Brazil, Mexico, and Taiwan, with more than 2,600 having been manufactured and an overwhelming majority being in active service in 26 countries as of today. Globally, the F-5 has earned a reputation as an ersatz utility fighter. Even in Switzerland alone, 98 F-5Es and 12 F-5Fs were in service in 1976.

Some of those retired aircraft have been brought back into service by the United States Marine Corps and Navy as enemy target aircraft, an economical means of simulating threat aircraft without expending the service life of costlier fighter aircraft.

Canada’s application of the F-5 as the CF-116 or Canadair CF-5 also shows how versatile it is. The Canadian variant was equipped with a two-stage nose landing gear, mid-air refueling, and Orenda-manufactured J85-15 turbojet engines.

Advanced navigation gear and an Orenda-manufactured reconnaissance nose that could be replaced improved the diversity of CF-116 as an equally useful tool for training and operational roles. It was applied to some squadronrons for rapid response sorties and dissimilar air-to-air combat maneuvers practice training, and even the reconnaissance variant impressed during NATO training exercises.

Efforts to upgrade the F-5 have ensured that it remains active well beyond the mid-point of the 21st century. The Thailand-based Royal Thai Air Force, for instance, has equipped its inventory with advanced missiles, helmet-mounted sight displays, and other countermeasure devices. Fighter aircraft such as the F-5 have advanced radar built into them and are capable of accommodating current air-to-air missiles, enhancing survivability and performance in existing combat environments.

Possibly the F-5’s most lasting contribution is training, and as a threat. In the US, its close cousin, the T-38 Talon, has been the mainstream supersonic trainer since 1961. Its sleek aerodynamic shape, rugged performance, and high-rate handling make it at the top of the aerobatics, formation flight, and advanced flight training list. The F-5 is also widely used as an adversary or dissimilar air threat simulation aircraft, presenting a realistic threat representation for fighter training.

The Marine Corps and Navy use F-5Ns and F-5Fs for dissimilar combat training, appreciating their low operational cost and being easy to fly. Even in the sim, the F-5 is very coveted.

The Tiger II F-5E is commonly used as the first full-fidelity jet module for new students because of its uncomplicated yet responsive systems, stable flight envelope, and quick response, providing a great aircraft to learn the fundamentals of modern air combat. Enthusiasts usually explain how the cockpit ergonomics and low-numbered systems provide a gentle learning curve without taking beginners down.

From its humble beginnings as a low-cost export fighter to its contemporary uses in training, opponent missions, and simulated flight decks, the Northrop F-5 has proven to be adaptable, long-lasting, and world-relevant. It is a tribute to the success of innovative, efficient design in flight—a fighter that still teaches, innovates, and inspires forty years after its inaugural flight.

For a long time, the fighter jets have been the number one dream of airplane-mad military historians and people who are fascinated by air shows.

Besides being the spearhead of a country’s armed forces, it is equipped with the power to revolutionize warfare and change the direction of hostilities.

Some have stood out from the rest, not just for their flight, but for how they set new standards, sent shivers down one’s spine, or became icons. Here’s our top 10 list of the greatest fighter planes in history, from number 10 to the absolute winner.

10. Harrier – The Vertical Takeoff Pioneer

The Harrier was not another fighter plane—it introduced an entirely new level of battlefield versatility. Thanks to its vertical/short takeoff and landing (VTOL) capability, the Harrier had the flexibility to use short strips, small vessels, or even makeshift clearings.

This came in handy during the Falklands War, when it flew from small carriers and rudimentary bases to make telling strikes. Though it didn’t lead in charts with regards to speed or firepower, its unorthodox deployment potential made governments re-evaluate how air power would be utilized.

9. F-22 Raptor – The Stealth Apex Predator

The F-22 is fifth-generation air dominance personified. Merging nearly-invisibility on radar, scorching speed without afterburners, and unrivaled sensor fusion, it can spot and kill threats before they’re perceived. Despite low production quantities, its impact is gigantic—every contemporary fighter now takes a course the Raptor helped to chart.

8. Me 262 – The Jet Age Pioneers

When the Messerschmitt Me 262 appeared late in World War II, it came as a surprise to Allied pilots. More potent and faster than anything in the air, it could outrun and outgun the finest piston-engine fighters. Too late to change the course of the war, its real legacy lay in influencing the design of the postwar jet fighters.

7. F-15 Eagle – The Untouchable Air Superiority Champ

If you desire an unbeaten record, just take a look at the F-15 Eagle: more than 100 proven kills with not a single loss in dogfighting. Introduced during the 1970s, the Eagle combined brute thrust with sophisticated radar and heavy firepower. Many decades later, with its upgrades maintaining its cutting-edge status, the F-15 remains the top dog for many countries.

6. Su-27 Flanker – The Soviet Response to the Eagle

The Su-27 was the Soviet response to U.S. air superiority. Designed to be light, agile, long-range, and possessing raw power, it emerged as a terror of a dogfighter and interceptor. Its progeny, the Su-30 and Su-35, are still staples in the Russian air force and those of many friends, continuing the Flanker legacy of aerial supremacy.

5. F-16 Fighting Falcon – The Global Workhorse

The F-16 demonstrates that a fighter can be versatile, cheap, and lethal all at once. With fly-by-wire controls, crisp agility, and an ability to excel at both air-to-air and air-to-ground duties, it became the pilots’ and countries’ pet fighter. Still being manufactured decades on, it’s one of the world’s most commonly used fighters.

4. F-86 Sabre – The Jet Duel Specialist

Over the skies of Korea, the F-86 Sabre brought the world true jet-on-jet combat. Engaged in fierce struggles with the MiG-15, it demonstrated that pilot ability and superior aerodynamics could triumph. The success of the Sabre recast air tactics for the jet era.

3. MiG-21 – The People’s Jet

Easy to fly, quick, and cheap to keep going, the MiG-21 is the best-selling fighter in history. It saw action in wars on virtually every continent and was a slippery and deadly foe for decades. Its numbers and ubiquity made it one of the aircraft that best represented the Cold War.

2. F-4 Phantom II – The Cold War All-Rounder

Few aircraft have had as varied a career as the F-4 Phantom II. Used as a fighter, a bomber, and a reconnaissance plane, it fought from Vietnam to the Gulf. When it arrived in South Korea, its presence turned the balance of air power in favor of the South by a sharp margin. With its versatility and long life, the Phantom became the backbone of several air forces.

1. Supermarine Spitfire – Spirit of the Battle of Britain

If one plane embodies engineering genius and national pride, it’s the Spitfire. With its elegant elliptical wings, peerless agility, and constant improvements, it was the mainstay of British defense in World War II. Its contribution to the Battle of Britain transformed it into more than a mere warplane, but a symbol of resistance and tenacity for the free nations.

From the desperate battles of the Spitfire above England to the F-22’s stealth patrol in the contemporary age, these planes chronicle the history of human ingenuity, boldness, and the eternal quest for mastery of the skies. Each left an indelible spot in the annals of air warfare.

The development of the U.S. Army in the field of energy-directed weapons has been a transition from science fiction to the current battlefield.

The Directed Energy Maneuver-Short Range Air Defense (DEM-SHORAD) system, a 50-kilowatt-class laser weapon mounted on a Stryker leading the way, is one of the most significant technological advancements in the history of war-fighting technology.

The system is designed to eliminate threats that have grown rapidly, such as drones, rockets, artillery, and mortars, and is considered an engineering breakthrough—actually, it is the preview of the wars of the future.

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.

Out of all the aircraft, the one whose moral aspects have been most frequently talked about is the Enola Gay, the B-29 Superfortress that dropped the very first atomic bomb on Hiroshima. The war was over in just one operation, but it was also the beginning of the nuclear age, a line that still separates those who argue the huge debate among scholars, war veterans, and individuals who are ignorant of it.

The Enola Gay was not an ordinary bomber rolling off the line in 1945. It belonged to a small group of specially modified B-29s under the top-secret “Silverplate” program, altered to carry the massive and unprecedented atomic bomb. To make it light enough and fast enough for the mission, armor was stripped away, the usual defensive turrets were removed, and only a tail gun remained. Each modification was purposeful, all in preparation for Little Boy, a uranium bomb that weighed more than 10,000 pounds and would change the course of history.

Initially designated only as aircraft No. 82, it received its permanent name on the night before the mission. Its commander, Colonel Paul Tibbets, of the 509th Composite Group, selected it himself and commanded the crew to paint his mother’s name, Enola Gay, on the fuselage. By then, the aircraft and crew had worked tirelessly in training, rehearsing with “pumpkin bombs” modeled after the bomb they were to drop.

For President Harry Truman, the decision to use the bomb was not an in vacuo one. The war in the Pacific had been grinding on at a ghastly human expense. In its own right, conventional firebombing missions had already taken thousands of lives, and planners of invasion anticipated appalling numbers of American and Japanese casualties if the war went on. A test of the bomb posed the risk of failure, and officials were concerned it would not bring Japan to its knees. Ultimately, the choice was made for use with direct delivery, thought to be the quickest means of ending the war.

With dawn on August 6, 1945, Tibbets and his team took off from Tinian Island, a vast base constructed to deliver the final punches into Japan. At 8:15 a.m., above the city of Hiroshima, bombardier Thomas Ferebee dropped Little Boy. The bomb exploded in the air about 2,000 feet above ground, releasing energy equivalent to around 15,000 tons of TNT.

The explosion vaporized a large portion of the city in an instant, ground-zero temperatures rose above 5,000 degrees Fahrenheit, and tens of thousands were incinerated almost immediately. In the following days and weeks, radiation killed thousands more. The crew of the Enola Gay, which was miles away when the shockwave hit, stood in stunned silence as a towering mushroom cloud mushroomed into the sky, aware that they had released a weapon the world had never known before.

Three days after that, a second atomic bomb was dropped on Nagasaki. On August 15, Emperor Hirohito declared Japan’s surrender, ending the bloodiest war in human history. But the decision’s moral legitimacy was called into question from the very start and has been to this day.

Many Americans, including crew members on the Enola Gay, thought the bombings averted an invasion that would have cost even more lives. Others protested at the time, as they do today, that the use of such weapons to annihilate entire cities was inhumane and unnecessary. 

Postwar, the Enola Gay itself disappeared from view. Broken down and stored, it would not be seen again for decades, when it was laboriously restored and put on exhibit at the Smithsonian’s National Air and Space Museum.

Its display in the 1990s became a fight in itself—curators had originally wanted to include the larger context, including Japanese viewpoints and the destruction of the bombing, but vociferous protests from veterans’ groups and political pressure downsized the exhibit to concentrate primarily on the plane itself.

Even now, the Enola Gay remains at the center of controversy. To some, it is a relic of technological progress and the instrument that finally brought an end to a senseless war. To others, it is inextricably linked to one of humanity’s darker moments. In its sleek aluminum casing, individuals recognize both victory and tragedy, pride and sorrow. Its display within the museum is not simply about flight—it is a reminder of how countries remember war, and how they struggle with the tension between strategy and humanity.

The Enola Gay continues to be more than a historical artifact of World War II. It is a testament to the way innovation can transform warfare in an instant, and an ongoing challenge to how we define victory, responsibility, and the true cost of peace.

The radio hasn’t been transmitting any noise from supersonic flights for more than 20 years following the last Concorde flight, but the idea of a commercial supersonic flight is still alive and kicking, a newfangled American startup being the next cause. Not only was the Boom Supersonic XB-1 the first to go beyond the very loud supersonic flying discord or shock wave barrier, but it also questioned the concept that only super-rich governments could go beyond the limits of supersonic flight.

Therefore, this journey from rough drafts to an actual faster-than-sound flight is a milestone of the present era of space flight, personnel, and materials technology, which is a combination of successful engineering, regulatory zeal, and a bit of bravado.

Dubbed the “Baby Boom,” the XB-1 is a one-third-scale technology demonstrator for Boom’s planned Overture airliner. Its aerodynamic, 62.6-foot fuselage is constructed of lightweight carbon fiber composites and contains advanced avionics and aerodynamics optimized using digital modeling. Three General Electric J85-15 turbojets generate over 12,000 pounds of thrust, enough to propel it to supersonic speeds. As Boom notes, it’s the first private company-built civil supersonic jet—an unmissable indication of the transition from state-sponsored to privately initiated breakthroughs.

Flight testing commenced at Mojave Air & Space Port, a site rich in aviation heritage, in the same airspace where Chuck Yeager shattered the sound barrier in 1947. Initial flights concentrated on handling, stability checks, and airspeed verification at different altitudes. With every flight, the XB-1 extended its boundaries, from Mach 0.82 at more than 23,000 feet in flutter and pressurization tests, to increasingly faster speeds in preparation for its main event.

That milestone came when lead test pilot Tristan “Geppetto” Brandenburg flew the plane beyond Mach 1.1 at over 35,000 feet. Chase aircraft—a Mirage F1 and a T-38 Talon—accompanied it to track its systems and document the feat. Industry experts hailed the importance, with retired Concorde captain Mike Bannister labeling it “a major step toward making sustainable supersonic flight a reality.”

Perhaps the most stunning thing about the flight was what those on the ground did not hear. Owing to the XB-1’s shape and the Mach cutoff effect, microphones along the flight path received no audible sonic boom. This discovery impacts the heart of a longstanding Federal Aviation Administration prohibition, since 1973, against supersonic overland flight for fear of noise. The XB-1’s stealthy accomplishment portends a future in which high-speed travel could be achieved without the shockwave effects of previous supersonic planes. 

The XB-1 is not just a test aircraft—it’s a stepping stone to the Overture airliner, which will transport 64 to 80 passengers at Mach 1.7 on hundreds of possible routes. Plans have it to fly solely on sustainable aviation fuel, which goes a long way in fixing one of Concorde’s greatest weaknesses: fuel-thirsty and emissions-intensive operations.

Boom’s newly opened Superfactory in Greensboro, North Carolina, has the production capability of assembling up to 66 aircraft annually, with 130 already on order or booked by key airlines such as American Airlines, United Airlines, and Japan Airlines.

Regulatory challenges persist. Though FAA regulations continue to restrict civilian supersonic flight over land, Congress has called on the agency to reconsider the rules and evaluate new certification requirements. Commercial availability of the XB-1’s quiet flight could dramatically alter the regulatory environment.

Aside from passenger flight, Boom is also seeking defense uses with Northrop Grumman, in the form of special-mission Overture variants for rapid-response transport, medical evacuation, and surveillance. The U.S. Air Force already granted Boom a $60 million contract to speed up development, demonstrating genuine interest in supersonic mobility for strategic missions.

The possible effects are far-reaching beyond the domain of flight. Quicker global links have the power to accelerate economic development, consolidate cultural relationships, and speed up scientific and commercial cooperation. Breakthroughs such as the XB-1’s supersonic flight can even reawaken public enthusiasm for technology, reminding us of what happens when resolve is paired with innovation.

From its initial line on a sketching board to its moment when it broke the sound barrier, the XB-1 is evidence that the supersonic future of travel is no longer relegated to books on history. With every successful test, high-speed passenger flight comes nearer as an inevitable reality.

Almost no aircraft were able to amaze, scare, and bewilder the MiG-25 “Foxbat” to such a similar level. The spies and Western intelligence officers, who during the Cold War period were examining aerial photographs taken from space, speculated that they represented a Soviet superplane. The large wings, enormous air intakes, and a shape that looked as if it were made for extremely high speeds were the features visible in the pictures.

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.

One day, the F-35 Lightning II was the brilliant idea – the very masterpiece that would merge and harmonize the air power of all NATO countries for good. Powerful and sleek, with hi-tech avionics and stealth capability, this was the single fighter that was expected to be able to perform all the tasks, such as air combat, ground support, intelligence gathering, and even nuclear bombing. That dream was feasible at one point in time.

Countries across Europe went around taking turns procuring their own copies: Belgium, Denmark, Finland, Germany, Italy, the Netherlands, Norway, Poland, Romania, Switzerland, the UK, Canada, and, naturally, the United States. Even non-NATO allies like Japan, South Korea, Australia, and Israel got into the program. But today, nonetheless, the hope of a single jet forging the cohesion of the alliance is starting to crumble.

The F-35 was never just another fighter. It was to be the future backbone of NATO, one aircraft that made coalition warfare easy. It was with shared communications, ammunition, training, and spares that the idea was simple: one type of aircraft equaled allies being able to fight more easily together and more effectively.

Fans still assert that there’s no other fighter that rivals its sensors, stealth, and versatility, and that its central role in NATO’s nuclear-sharing mission to drop the upgraded B61-12 bomb makes it an aircraft beyond classification. Replacing elderly aircraft with the F-35 was viewed as a giant leap toward keeping the alliance’s deterrent credible.

So, where did it all go wrong? Some of the fault rests in politics. Washington’s changing position on NATO in recent years has undermined confidence in the reliability of the U.S. as a partner. A handful of countries are delaying or reversing, while others, including Spain, have gone entirely to European-built fighters, because defense sovereignty takes precedence over being committed to an American program.

European powers have been talking more and more about building up their own defense industries, and several are funneling spending into domestic companies instead of buying American planes.

Whispers of a so-called “kill switch,” the idea that America might be in a position to shut down the plane by remote control, have contributed little but to skepticism. Authorities pooh-pooh it, but there’s substance in the rumor because it captures a real anxiety: owning the F-35 is not just about machinery, it’s about becoming dependent on America for software updates, spares, and technical assistance. If things go south, fleets could be immobilized. That weakness has led nations to ask themselves if they would rather use European substitutes, even if they lack the F-35’s revolutionary stealth.

Substitutes like the Eurofighter Typhoon, Dassault Rafale, and Saab Gripen are gaining traction, not only because they’re European but also because they’re cheaper and simpler to maintain. Spain is doubling down on the Typhoon and the soon-to-be Franco-German-led Future Combat Air System, while France is actively marketing the Rafale to countries that are wary of the F-35.

But it is one thing to replace F-35s at a large volume. The program’s production numbers are unprecedented, shipping hundreds a year, while European jets have a much slower rollout. Even when European alternatives are chosen, the transition would be gradual, and many of their critical parts are still attached to supply chains outside Europe.

As this is going on, NATO’s nuclear-sharing purpose is ready to lose face. The F-35 was chosen to serve as the bearer of U.S. tactical nuclear weapons in Europe, and countries like Germany acceded to it partly to express their dedication to that purpose. If allies were to withdraw, that threat of military action would then be weakened. The issue is compounded by NATO members going it alone. Turkey, a former hub of the program, was pushed out after buying Russian systems and is now shopping around elsewhere, a move that broke trust and strategy within the alliance.

NATO has a fragmented future ahead of it. Some will stick with the F-35, some who lean to the European jets, and future sixth-generation programs like FCAS and British-led Global Combat Air System in the long term, but still years away. The result is a patchwork rather than the integrated airpower vision that the F-35 once embodied. The crisis has confirmed that sovereignty issues, industrial independence, and alliance solidarity carry equal importance as performance requirements.

What was meant to be the jet that would unify NATO is now putting its unity to the test. Without the ability to establish trust and renew cooperation, the F-35 may come to be remembered not as the aircraft that unified Europe’s skies, but as the symbol of how difficult it is to keep allies singing from the same hymn sheet when politics, commerce, and strategy separate.

What a fast transformation it is for the gaming of wars just around the corner – the entire process is going to be very different from what we are used to, and technology is playing the foremost role. Among the numerous futuristic inventions that are radically changing the future of the battlefield, only one can be brought into comparison with the Lockheed Martin Mako hypersonic missile. The Mako is neither an upgrade of the current arsenal nor just another weapon; rather, it is a revolution that marks the transition from those three characteristics – survival, adaptation, and rapid movement – from being mere features to mandatory ones.

From the start, the Mako was meant for something special. It would not be an off-the-belt, run-of-the-belt missile, but a quick, precision response to the most difficult targets—the ones that require an accelerated response. Lockheed Martin phrased it this way: the Mako “blazes down on time-sensitive targets when every second counts.” And it does. With its capability to fly hypersonic and still remain highly maneuverable even when at high altitudes, it can penetrate deep air defense systems and still have the capability to change directions when in flight so as to accurately land where needed.

Even more eye-catching, though, is the way the Mako appears. A few hundred 1,300 pounds, 13 feet long, and a bit over a foot in diameter, it’s compact enough to be housed within stealth planes like the F-35 and F-22. That is no small feat—housed in the fuselage, they can preserve their stealth, infiltrate enemy-controlled territory undetected, and hit before the enemy can hit them.

It is driven by a solid-fuel rocket motor, firing it tidily into the world of Mach 5. Speed is not sufficient, however. Its real strength is its agility at such breakneck velocities. It is far too difficult for even the most advanced defense systems to track or intercept, leaving competitors to stall until they can no longer respond.

Mako’s maneuverability is also one of its strengths. It can be used against any number of targets—anything from hardened bunkers and mobile air defense systems to sea-going vessels. And it’s not theory; it’s already been flight-tested for use on a powerful stable of aircraft: the F-35, F-22, F/A-18, F-16, F-15, and even the P-8 patrol aircraft. If standard 30-inch lugs will fit on the plane, the Mako can go on there. It is also still in the development stage for adaptation to be used on submarines and ships, expanding its use in other military service units.

The manner in which Lockheed Martin built the Mako differs as well. Instead of building it and then testing in between, the company built the whole system in a virtual environment. From blueprints to production procedures, all of that was in place and built in cyberspace before anything physical was made. It is also easy to change or swap out something, such as the warhead or guidance system, for a specific mission. Additive manufacturing by the process of 3D printing cuts costs and time to production, lessening even the complex guidance components’ cost and allowing them to be produced faster.

Affordability is also equally important. For the program managers, Mako was to provide best-of-class capability and best value for money. That is a recipe good not only for America, but for allies who wish to boost defence without selling out the future. Since it already exists in so many standard aircraft, it can be brought into service at allied military means instantly, adding to the security overall.

Tactically, the missile is a game-breaker. Enemies use multi-layered defenses and long-range missiles fired from distant locations to put their adversaries at arm’s length. Mako levels the playing field. With stealth fighters that can strike significant targets—like mobile launchers or radar installations—before they can get out of range or retaliate, it short-circuits the enemy’s reaction time. Militarily, it precludes options, with little prospect of survival.

Yes, it’s not easy to produce hypersonic missiles. Guiding and stabilizing a missile that can travel five times the speed of sound is one of the largest-scale engineering accomplishments of human beings. But Mako suggests that those issues are being addressed. It’s proof that not only isn’t America coasting on laurels in the hypersonic contest—it’s leading the way.

There’s also a decidedly strong foreign flavor here. Lockheed Martin has gone through extremely concerted efforts to draw attention to the aspect that Mako is beyond an American gun. The approach is to co-produce the gun with leading partners and produce it in countries such as the UK. It not only shares the load but also promotes industrial cooperation and makes everyone pray for the system to work. As one of the executives so aptly stated, the dream is a missile built by hands in accord with each other for their own good.

Although its critics can also say they have their own hypersonic capability, the Mako isn’t that sort of system. It doesn’t need bragging. Its strength is bringing together the highest velocity and intelligent design, deep penetration, and broad compatibility with the emerging generation of battle networks. That synergy makes it so much more than just another missile—it’s a quantum leap.

As global security becomes increasingly complex and abstract, Mako is not merely a temporary weapon. It’s a quantum leap to deterrence, one that puts the U.S. and its allies not only playing catch-up afterwards but light years ahead of it.

USS Zumwalt (DDG-1000) was at one time described as the future face of naval warfare – a next-generation high-tech destroyer with its sleek, stealthy design and not one but two 155mm Advanced Gun Systems (AGS) capable of firing projectiles deep into the target area. The Navy’s initial take was a little over the top: 32 Zumwalt-class ships, each one would have been the most powerful in the world. Nevertheless, the sky-high dream was out with the second-hand wind. Rising expenses, technical problems, and changing plans had led to the decision to build only three ships. There remains a $22 billion monument both to daring innovation and the disaster of overextending. One contemporary combat, Desert Storm, was a record-breaker even before the war started.

Zumwalt’s initial showpiece was the AGS, which could launch GPS-guided Long Range Land Attack Projectiles (LRLAP). The projectiles could dive onto targets with near-vertical accuracy. The rub? Every shot would have had a mind-boggling price of approximately $800,000, much too expensive for prolonged use.

With changing naval priorities away from the closer-shore bombardment and into the open ocean competition, the AGS soon lost its utility. Ideas such as railguns, planned originally for Zumwalt’s enormous power supply, were also abandoned, with much of the destroyer’s potential left unexplored.

The break came with the decision to equip Zumwalt with hypersonic missiles. To accomplish this, the Navy refurbished the vessel at Ingalls Shipbuilding in Mississippi, taking her out of the water for a year of upgrades. The heavy AGS turrets were expunged—one replaced with launch canisters for the new Conventional Prompt Strike (CPS) missile, and the other left open for future configurations.

Now, Zumwalt is capable of carrying twelve CPS missiles, each a boost-glide weapon with the ability to hit targets at ranges of up to 1,725 miles with velocities of over Mach 5.

This change was not just a weapons upgrade—it was a shift in mindset. Hypersonic missiles can race toward their destinations so rapidly that defense systems have trouble responding, whether the target is a ship, command post, or key infrastructure. CPS tests have already been successful, and future refinements can potentially enable such missiles to change course during flight or even pursue moving targets. In an age where speed and accuracy are the measure of survival, Zumwalt suddenly found her niche.

But the ship is about more than firepower. Her Integrated Power System (IPS), fueled by two Rolls-Royce MT30 gas turbines, produces 78 megawatts of electricity. Even operating at 20 knots, the destroyer has power to spare—enough to power 10,000 houses. That excess makes her an obvious proving ground for future directed-energy weapons and next-generation sensors. Her wave-piercing tumblehome hull and composite deckhouse make her harder to see, although subsequent modifications have minimized her stealth profile.

Despite being challenged regarding her design, Zumwalt still holds formidable power. She is equipped with 80 PVLS or Peripheral Vertical Launch System cells for Tomahawk, Standard Missile, Evolved Sea Sparrow Missile, and anti-submarine rockets. The 147-strong, elegant complement of the Navy, with accommodation for 28 Marines, is a clear indication of the Navy’s move towards the efficient use of resources and reduced manpower requirements. Apart from that, her SPY-3 radar enables easy tracking of threats from the air or surface in enemy territories.

The hypersonic upgrade adds actual heft to her mission. The CPS also has the same Common Glide Body design as the Army’s Long Range Hypersonic Weapon, making it easier and less expensive to produce. Navy leaders can’t wait to fully integrate it into its fleet, recognizing that having such an ability at sea has the potential to revolutionize fleet operations in the coming years.

Concepts of ambition and control are told in the most varied ways through the ship’s history. Pioneering in the new field of technology always comes with the risk of failures – overruns, canceled projects, and shifting of the missions – but the power systems, stealth design, and now hypersonic strike capability are great achievements. The knowledge gained is already having its effect on the next generation of DDG(X) destroyers that will be the ones to merge the achievements of Zumwalt with the stability of the well-known Arleigh Burke designs.

The Navy is moving on to greater things, and the fate of the Zumwalt is still unknown. Will she be the next big thing to revolutionize naval warfare with hypersonic capability, or just another multi-billion-dollar failure? Actually, she is the outcome of what happens when radical ideas are implemented in the sea—a warship born of innovation, reshaped by reality, and still leading the way in naval combat.