F-15 Eagle – The Classic Standard-Bearer

The army was, for many years, mainly interested in having the power over the sky, which was a very important point they learned well since the Second World War. However, that control is no longer guaranteed.

The F-15 Eagle from the Cold War era was the archetype of air superiority that had been conceived as a result of the Soviet Union’s rearming and derived from the energy-manoeuvrability theories of strategist John Boyd. The aircraft and its crew, especially the Israeli Air Force, did amazing work during the wars, and thus, its fame spread.

The F-15EX Eagle II that exists today continues that tradition, with searing Mach 2.5 speeds, a 60,000-foot ceiling, and the capacity to carry an astonishing 22 air-to-air missiles. Its advanced avionics and fly-by-wire systems make it deadly, but its absence of stealth has raised questions as to just how effectively it would defend itself against contemporary air defenses.

Eurofighter Typhoon – The Nimble Performer

The transformation from single-task to multi-task fighters revolutionized the landscape of air combat. Fourth-generation fighter jets such as the Eurofighter Typhoon excel in the tight battles using canard-delta wings and surgical precision of agility.

In comparison, fifth-generation fighters such as the F-35 Lightning II employ stealth, distant sensors, and effortless data-leakage to win battles before they are even fought.

German and American pilots who have flown both variants all agree—dogfighting favors the Typhoon, but for remaining unseen and providing live feed of information to the entire battlespace, the F-35 wins. What is “better” very much depends wholly upon the mission and the threats being confronted. 

S-400 Triumf – The Airspace Equalizer

State-of-the-art aircraft won’t be able to secure air dominance on their own anymore—integrated air defense systems (IADS) have altered the calculus. The S-400 and its comparably advanced counterparts can detect and attack targets at distant ranges, even penetrating stealth designs.

Stealth was created to counter enhanced ground-based threats, but not without compromises, ranging from limited weapon carriage to wear-and-tear on coatings in supersonic flight.

In parallel, innovative sensor technology can pinpoint minor engine turbulence, which could betray even stealth aircraft. No concept as yet that a single “do-everything” aircraft can do for dedicated fighters is proven, especially in close-range combat.

Buk-M1 – The Ukraine Frontline Threat

The war in Ukraine has highlighted the fact that neither side can rely on straightforward air superiority. Mobile air defense systems such as the Buk-M1 and contemporary electronic warfare systems create a “mutually denied” air zone, in which each side has to fly under perpetual threat.

The harsher truth is the complete opposite of the air dominance that is usually recalled as being performed during the 1991 Gulf War. Finnish officers Vilho Rantanen and Peter Porkka propose that this disputed territory is becoming the new norm, with mobile, networked defenses being much more difficult to annihilate than traditional fixed systems.

AGM-88 HARM – The Suppressor’s Tool

In light of these shifts, air forces are adapting their objectives. U.S. Air Force Gen. David W. Allvin has emphasized that air supremacy can no longer equate to unbroken dominance for weeks at a time.

Rather, superiority needs to be used surgically—at targeted locations and moments—to enable joint operations. Blunting enemy air defenses using systems such as the AGM-88 HARM is still essential, but newer solutions such as long-range precision strikes, unmanned systems, and space-based surveillance are increasingly appealing options.

NGAD Fighter – The Sixth-Generation Edge

In the future, the U.S. Air Force’s Next Generation Air Dominance program is a transition to flexibility and cooperation. The NGAD idea couples a manned sixth-generation fighter with a series of unmanned Collaborative Combat Aircraft (CCAs) and next-generation networking systems. These aircraft will have adaptive engines, open architecture for future upgrades, and the capability to command or direct swarms of unmanned drones. The aspiration is to prevail not by sheer brute power, but by survivability, flexibility, and transparent integration with the remainder of the force.

MQ-28 Ghost Bat – The Future Wingman

In today’s world, air superiority is not about unbroken, absolute dominance—it’s about fighting and winning in contested airspace.

Unmanned wingmen such as the MQ-28 Ghost Bat herald a future where air dominance is more of a spectrum than an on/off switch.

Technological advancements, shifts in tactics, and hard-won lessons from recent combat demonstrate that the most important thing is flexibility—shaping air power for the fight, not hoping the fight will conform to old dogma. The air domain will still be critical, but it will require new thinking and a willingness to shed old assumptions.

Contemporary naval warfare is progressively influenced by the competition to create weapons that improve their effectiveness, adaptability, and cost. One example of such a weapon is the QUICKSINK program U.S. Air Force, which acts exactly in this context by providing a simple but extremely powerful method of sinking enemy ships. The U.S. is currently facing the problem of how to maintain its naval supremacy in the Indo-Pacific region without directly competing with ships of equal capabilities. The answer would probably not be to raise the number of vessels but rather to create better, more efficient bombs.

Initiated by the Air Force Research Laboratory as a Joint Capability Technology Demonstration, QUICKSINK was intended to convert conventional unguided bombs into precision ship-killer munitions.

The idea is simple but ingenious: add a Joint Direct Attack Munition (JDAM) guidance kit to excess 2,000-pound or 500-pound bombs, and then add an advanced seeker system. Developed on a Weapon Open Systems Architecture (WOSA), this seeker integrates millimeter-wave radar with imaging infrared sensors. The radar will be able to spot ships regardless of weather, and the infrared system will lock onto warm objects, assisting the weapon in distinguishing between legitimate military targets and civilian vessels.

It enables the U.S. to quickly disable large numbers of enemy vessels—possibly including carriers—without depleting its naval resources. Stealth jets like the B-2, and eventually the B-21 Raider, can drop these from standoff distances, presenting reduced risk to aircrews and making enemy defenses harder. The modularity in seeker design also easy to adapt the system for future weapons and planes, keeping it relevant as threats and technology evolve.

What most attracts me about QUICKSINK is its price. Pricier anti-ship missiles like the AGM-158C Long Range Anti-Ship Missile (LRASM) cost around $3 million per copy, and even the aging Harpoon is $1.4 million.

In comparison, a JDAM kit is $20,000 to $30,000, and the QUICKSINK seeker now costs around $200,000—and might fall to $50,000 with mass production. That would put an entire weapon in the range of $70,000 to $250,000. At that cost, the U.S. can have deep reserves and support long, high-density operations in a manner that’s simply not possible with higher-priced missile systems.

Tactically, QUICKSINK is a significant force multiplier. It enables the U.S. to quickly disable large numbers of enemy vessels—possibly including carriers—without depleting its naval resources.

Stealth jets like the B-2, and eventually the B-21 Raider, can drop these from standoff distances, presenting reduced risk to aircrews and making enemy defenses harder. The modularity in seeker design also easy to adapt the system for future weapons and planes, keeping it relevant as threats and technology evolve.

As the Navy and Air Force develop and expand the program further, QUICKSINK is proving itself an exemplar of the way innovative engineering and frugal design can tip the balance of power at sea—without shattering the defense budget.

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B-21 Raider’s debut was more than just a ceremonial presentation – it indicated the beginning of a new era in American aerial might. Such a direct Pentagon statement of intent: update the nuclear triad with capability from the latest U.S. bomber (first since the 1980s) and improve conventional strike potential to stay in front of rapidly changing worldwide dangers, particularly those that come from Russia and other technologically advanced adversaries, was made clear by the aircraft’s official debut at Northrop Grumman’s Palmdale facility.

From its initial design phase, the B-21 was constructed on three fundamental principles: survivability, adaptability, and technological flexibility. In contrast to the B-2 Spirit that preceded it, the Raider was designed from scratch to excel in heavily defended airspace.

Its flying-wing shape might appear familiar, yet the advances are considerable: high-aspect-ratio outer wings to provide improved high-altitude lift, a streamlined W-shaped trailing edge, and engine inlets blended far back into the airframe to reduce its radar and heat signature. Even the windscreen is optimized, providing pilots with enhanced vision during aerial refueling and streamlining maintenance for ground crews.

Internally, the B-21 mission systems reflect a bias toward mature but advanced technology. Designed alongside major industry partners such as Pratt & Whitney, BAE Systems, and Collins Aerospace, the bomber combines mature radar and electronic warfare suites to minimize risk and stay on course with development.

It can deliver nuclear weapons and conventional munitions and will be the backbone of the Air Force bomber fleet, complemented by modernized B-52s. An open-systems design provides the ability to quickly modify it with new functionality to address emerging threats.

Tactically, the B-21 is built for deep penetration missions, capable of spending time in contested airspace and striking high-priority targets with accuracy. Its longer range allows it to strike directly from U.S. bases, rather than forward-deployed positions that are at risk of being struck by a missile attack.

Still, this operating model places significant stress on the Air Force’s tanker fleet—a challenge that is exacerbated by the aged KC-135 tankers and the ongoing struggles with the KC-46 program. Supporting 100 B-21s will demand additional tankers and higher-speed refueling capabilities, especially for the long-range Pacific missions, as Gen. Randall Reed of U.S. Transportation Command pointed out.

Astoundingly, the program has progressed with a discipline rarely observed in major defense programs. At least six bombers are on the assembly line, and flight testing is already underway at Edwards Air Force Base.

Through performing thorough ground testing and using an experimental aircraft to resolve software and integration issues at an early stage, which are both part of Northrop Grumman’s strategy, the number of changes made to the flight test has been kept very low. In the first year of flight testing, as stated by Northrop Grumman Aeronautics Systems President Tom Jones, Raider has only needed one software update, a deviation from the norm in the development of new weapons.

Keeping the fleet serviceable over decades of flight has also been a matter of priority since day one. The Air Force is testing Environmental Protection Shelters at Ellsworth Air Force Base to protect bombers against harsh weather, increase their lifespan, and allow flightline maintenance for more rapid turnaround times.

And yet, the B-21 is not completely immune to the familiar pitfalls of U.S. defense procurement. Official cost estimates are kept under wraps, but estimates project the program’s overall price tag at more than $203 billion over three decades.

Unit costs have risen from $550 million in 2010 dollars to almost $700 million in 2022 dollars, and historical precedent indicates that long-term ownership expenses would readily double that amount. Critics, such as the Stimson Center, caution that excessively rosy cost projections, unrealistic promises, and political momentum frequently sustain defective or over-budget projects for far longer than they should exist.

This bomber’s development is also only one aspect of a much larger modernization drive. The Air Force is also developing the Next Generation Air Dominance fighter, Sentinel ICBM, and a stealthy next-generation tanker, while the Navy is working on new frigates and submarines.

A number of these projects are already behind schedule or over budget, contributing to fears that Pentagon spending could be as much as $1.5 trillion per year in the next decade. Unless there is strict fiscal responsibility, the U.S. runs the risk of creating a force that is technologically superior but economically unsustainable.

The B-21 Raider is the epitome of American aerospace engineering—stealthy, flexible, and designed to counter the most daunting strategic challenges of the 21st century. But whether it lives up to its potential will rest not solely on its technology, but on prudent budgeting, intelligent procurement, and an honest vision for the future of U.S. airpower.

The F-15EX Eagle II is simply not an enhanced version of an obsolete aircraft. Actually, it is a clever step of the U.S. Air Force to keep its juggernaut potential and adaptability to changing threats and diminishing budget. By combining the traditional DNA of the original F-15 with modern tech, Eagle II provides a refreshed but not totally new one.

From Cold War Warrior to 21st-Century Workhorse

The F-15 Eagle, which was first designed during the Cold War era, was a revolutionary aircraft, designed for air superiority with unprecedented speed, agility, and power. Gradually, it evolved into a multi-role aircraft, and the F-15E Strike Eagle variant added precision strike capability to the picture. Its adaptability aided in making it one of the most sought-after aircraft, not only with the U.S. but also with allied air forces worldwide.

The F-15EX Eagle II harnesses that tried-and-tested airframe and reimagines it for today’s combat environments. It may look familiar on the outside, but with the upgrades behind the facade, it’s an entirely new creature.

Next-Gen Tech Under the Hood

What distinguishes the F-15EX as properly modern is its onboard technology. It features cutting-edge avionics, improved radar, and BAE’s EPAWSS (Eagle Passive/Active Warning and Survivability System)—a next-generation electronic warfare suite that provides the aircraft with real-time threat detection, jamming, and self-defense capabilities.

EPAWSS is not only a defense system; it’s based on a digital foundation that facilitates constant software updates and modular upgrades. That allows the F-15EX to adapt rapidly to future threats without an extensive overhaul.

Firepower and Range: The Ultimate Missile Truck

Where the F-15EX truly excels is in its ordnance capacity. It can handle as much as 30,000 pounds of ordnance, consisting of 16 air-to-air missiles-more than any other fighter in service today. It’s the ultimate “missile truck,” capable of remaining at a standoff distance while raining down a deluge of long-range missiles.

Its payload range is already massive, but can be stretched with conformal and external tanks. And while stealth jets count on hidden weapon bays to remain radar-invisible, the F-15EX doesn’t hide its weapons, embracing them. From the AIM-120D through the forthcoming AIM-260 to standoff strike weapons such as JASSM-ER, the aircraft can carry almost any U.S. munition.

Team Player: Teaming with Stealth Jets

The Eagle II wasn’t designed to fly solo—it’s supposed to fly in support of fifth-gen fighters like the F-22 and F-35. Here, the F-15EX stays in the rear while stealthier aircraft penetrate hostile airspace, collect targeting information, and feed it back. And then the F-15EX brings the hammer down, firing massive missile barrages without exposing itself.

This makes the jet particularly worthwhile in large theaters such as the Indo-Pacific, with its long distances and logistics involved. Its recent deployment to Kadena Air Base in Japan suggests the Air Force’s intentions to make use of the F-15EX’s range and payload in that area.

Closer to home, the F-15EX is also replacing older F-15C models in Air National Guard squadrons, where its reliability, ease of maintenance, and infrastructure compatibility make it a smooth transition.

Price Tag and Production Perspective

The F-15EX is not inexpensive. Its unit price has gone up from $80.5 million to as much as $97 million in later lots, barely higher than the F-35A’s $82.5 million flyaway cost. Raw cost comparisons can be deceptive, though. The Eagle II gains from being compatible with current infrastructure and parts it carries over from earlier F-15s, which reduces the cost of entry and upkeep in the long term.

It’s also a strategic commodity for the defense industrial base. Maintaining the F-15 line open prevents the U.S. from having to depend solely on a single fighter platform and provides procurement flexibility—a welcome commodity in an uncertain or production-delays environment.

Built to Last—and Adapt

Looking down the road, the F-15EX will have service into the 2050s. It’s not attempting to be a stealth plane, nor is it attempting to replace one. Rather, it closes a gap, providing unmatched firepower, range, and upgrade capacity that fifth-gen fighters simply cannot at scale.

Whether on homeland defense missions, patrolling disputed areas with allies, or augmenting strike packages in support of stealth fighters, the F-15EX demonstrates there’s still space in the air for intelligent, effective upgrades of tried platforms.

The F-15EX is a modern answer to a complex problem—how to stay ready for high-end warfare without betting everything on one expensive, stealthy solution. It’s fast, it’s flexible, and it’s here to bridge the gap between legacy systems and the future of air combat.

The T-72B main battle tank is a miracle of tough and versatile design and, basically, a tank. The concept of the tank can be traced back to the Cold War era, but it still packs a mighty punch. Its saga is the steady evolution of armored vehicles over several decades to adapt to the changing needs of combat, which resulted in the most powerful combination of firepower, protection, and mobility for the areas most dangerous to war. The T-72B has, thus, been a resilient vehicle against modern warfare and a potent weapon from the time it was made in the 1980s up to its deployment in Ukraine.

The T-72 was created as a less complex, less expensive companion to the sophisticated yet problematic T-64. It was manufactured in 1973 as an attempt to be rugged, mobile, and easy to operate, even for poorly trained operators. The initial models were plagued—approximately primitive fire control, microscopic nighttime vision, and armor that could only withstand low-caliber guns. As the advanced anti-tank guided weapons, such as the TOW and MILA, came into action, all these weaknesses soon surfaced and compelled the designers to upgrade their performance.

The 1984 T-72B introduced solutions to the majority of these shortcomings. Its enhanced composite armor has been referred to as “Super Dolly Parton” because of the typical turret cheek plates. KONTAKT-1 explosive reactive armor (ERA) mounting provided it with extra protection against modern anti-tank ammunition, providing it with approximately 700–900mm of equivalent armor protection against most threats. No tank is ever completely invulnerable, but it made the T-72B much more survivable in intense combat.

Not every T-72B was built the same. Export models, such as the T-72S ‘Shilden,’ included lighter ERA and other trade-offs. The tanks supplied the majority of armor to Polish, Czech, and East German units. Each country operated in its own way: Polish crews preferred aggressive assault, Czech units used large formations for morale, and the East Germans were very well trained in strict, accurate breakthroughs. These tanks were phased up over the years and thus remained operational even after several decades. To this day, the T-72B remains extremely sought after.

The fact that it is still being used in Ukraine attests to the versatility of the platform. The U.S., for one, paid for remanufactured Czech-produced T-72Bs for the Ukrainians because it realized that it would be too expensive, too time-consuming, and would require extensive training to bring completely new tank systems into the battlefield.

Ukrainian officers already accustomed to the system would have no problem adapting to these tanks, and they would have a disadvantage relative to Russian troops using the same tanks. War is different.

Drones, electronic warfare, and high-capability weapons now present persistent threats. Some predicted that tanks like the T-72B would be obsolete, but modernization like ERA, urban armor kits, and counter-IED technology helped keep them alive.

In the meantime, guns remain the “God of War,” and while FPV drones are commanding the headlines, they’re still beset by technical maladies, jamming, and the skill level of their operators.

Mortars and light guns are stable, consistent, and still not affected by these new guns. Despite modernization, the brutal realities of extended war have seen both sides deploy more old reserve tanks, some with no new optics or thermal imaging.

Russian forces, for instance, started equipping tanks with SOSNA-U thermal sight units from 2022, but battle forced older variants to be rammed back into action, where their varied capabilities were all muddled in a mess. In such situations, fire control equipment, optic quality, and crew training can be as controlling as the armor itself. The still-active use of the T-72B confirms the value in simplicity and heavy-duty platforms.

Though Western tanks like the Leopard 2 or M1 Abrams offer advanced technology, complexity, and logistical needs undermine forces committed to Soviet design to extend power quickly. The T-72B, on the other hand, integrates simplicity of design with incremental development, giving it versatility and reliability in attack as well as defense.

Into the future, the T-72B—and the concept of main battle tank—only improves. Drone swarms, electronic warfare, and precision-guided weapons will continue to compel armored forces to adapt. But what history shows us is that with the right adjustments and plan, the tank is far from archaic. The T-72B proves that tough, well-designed armor has its place on the battlefield today.

Speed has always been a critical factor in air combat, as can be seen by the various stages in the history of air warfare, from antiquated planes in WWI to today’s advanced and complicated jets. Basic early versions like the German Fokker D.VII and the French SPAD couldn’t go faster than 135 mph. In the era of WWII, the typical speed of all-metal airplanes was about 450 mph. Nowadays, aircraft can surpass 1,000 mph without much trouble, and a few of them are even going beyond the limits of human and machine capabilities.

So why are fighter jets so hot? It’s a mix of aerodynamic design, raw power under the hood, and ideal altitude. Streamlined bodies, swept wings, and low drag allow these aircraft to slice through the air like razors. Mammoth engines—usually boosted with afterburners—give the power to blast through the sound barrier. The higher you go, the thinner the air gets, and the more resistant you become, which means still higher speeds. But raw power isn’t sufficient—designers have to balance speed with agility, weight, and stability using exotic materials and innovative tricks such as variable-sweep wings to tweak performance.

Speed is most commonly expressed in terms of Mach numbers, the velocity of an aircraft divided by the speed of sound. At sea level, Mach 1 is approximately 767 mph, although the figure varies with temperature and altitude. Supersonic flight (anything above Mach 1) presents unusual problems, from ear-shattering sonic booms to enormous aerodynamic forces. Most contemporary fighters cruise between Mach 1 and Mach 2.5, but a privileged few have gone way beyond.

Here’s a countdown of the top 10 fastest operational fighter planes ever.

10. McDonnell Douglas F-4 Phantom II

Cold War icon with top speed of Mach 2.23 (1,470 mph), this adaptable plane set the standard for multi-role fighters.

9. Lockheed Martin F-22 Raptor

America’s stealthy air-dominance fighter, Mach 2.25 (1,500 mph), and sustained supersonic speed without afterburners.

8. IAI Kfir

An Israeli mix of Mirage styling and American engines, the Kfir has a Mach 2.3 capability and is valued for its quickness.

7. MiG-29 Fulcrum

This Soviet-era dog-fighting champion achieves Mach 2.3, with wonderful thrust-to-weight for combat at close range.

6. Grumman F-14 Tomcat

Star of Top Gun, flying to Mach 2.34 (1,544 mph), employed swing wings to perform from slow carrier landings to high-speed intercepts.

5. MiG-23 Flogger

Variable-sweep wing Mach 2.35 interceptor with a snappy engine, just as good at ground attack.

4. Sukhoi Su-27 Family

Such as the Su-30, Su-34, and Su-35, these Russian aircraft are renowned for flight dexterity and are capable of reaching Mach 2.35.

3. F-15 Eagle

Reaching a high of Mach 2.5, the Eagle is still one of the greatest air combat machines ever constructed.

2. MiG-31 Foxhound

It’s optimized for long-range, high-altitude interception and can accelerate to Mach 2.83.

1. MiG-25 Foxbat

The speed champion of operational fighters is currently at Mach 3.2 (2,190 mph), designed to pursue the high-flying American bombers of the Cold War. Of course, these are all dwarfed by the NASA/USAF X-15, a rocket-engine-test plane from the 1960s that roared to Mach 6.72 (4,520 mph) and above 350,000 feet of altitude, charting hypersonic flight.

Commercial airliners cruise at about Mach 0.8 (615 mph), with now-retired Concorde reaching a high of Mach 2.04 (1,559 mph). Even Concorde was outperformed by military zoomers such as the SR-71 Blackbird (Mach 3.32).

Speed provides fighter pilots with more than mere bragging rights—it’s a tactical multiplier. Swift aircraft can close on the enemy, evade missiles, and reposition in a heartbeat. The F-15EX, for instance, marries scorching speed to a heavy weapons load, turning it into an interception behemoth. But traveling that fast has severe prices to pay: structural stress, blistering heat, and eye-watering fuel consumption. The SR-71 skin could reach temperatures of well over 600°F, while fuel consumption was in excess of 5,000 gallons per hour.

Looking forward to the future, the competition is on to create hypersonic fighters. Designs such as the American SR-72 Darkstar, Russia’s MiG-41, and mysterious Chinese undertakings are poised to surpass the Mach 5 limit for in-service combat aircraft. Whoever succeeds in that competition won’t simply be the master of the skies—they’ll redefine them.

The Douglas A-1 Skyraider is indeed an extraordinary example of a cheap, multi-purpose attack plane that still holds an admirable record even after a very long time in the history of military aviation. Amazingly, it was a concept that came into being at the very end of World War II, and yet the Skyraider’s fame kept on growing instead of losing, although it was a long time ago. Its path is not just a glimpse through history or combat records; it is more of a story of a single-engine aircraft, the “Spad” as the pilots used to call it with the greatest affection, that surpassed all the expectations and thus left its toughness and its aviators’ loyalty not only in the sky but also in their hearts.

The story of the Skyraider began when the U.S. Navy in World War II saw that their air groups on ships needed a new craft— a plane that could carry a lot of bombs but also move fast to match new fight plans. Ed Heinemann from Douglas Aircraft made the Skyraider with the strong Wright R-3350 Duplex-Cyclone engine, the same one used in the B-29 Superfortress. Even though its first flight was in March 1945, the war ended before it could fight. Still, the Navy went on, and the AD-1 Skyraider was made in 1946, mixing big bomb loads with the quick moves of fighter jets—a weird but strong blend.

The Skyraider’s true claim to fame was its high payload and endurance. With fifteen hardpoints and the capability of delivering up to 8,000 pounds of rockets, guns, and bombs—more than a B-17 Flying Fortress—it was an airborne arsenal. Its 2,700-horsepower engine powered it to 322 mph and more than 1,300 miles, but more significant was its capacity to loiter near the battlefield for hours. Unlike the jets that needed to refuel continuously, the Skyraider could remain on station, providing continuous close air support. Pilots would sometimes characterize it as “surrounded by noise and vibration,” but it was also a machine that gained trust and respect.

The Skyraider was really the one that the Korean War showed its mettle. Just after it arrived in 1950, it rapidly evolved into a unit of the Navy and the Marine Corps that could not be done without, being the double champion of close air support and ground attack operations. The possibility of flying low and slowly fitted perfectly into the hilly and mountainous terrain of Korea and the foe’s raiding tactics. However, operating the powerful Skyraider was by no means easy – its dimensions and force made it very difficult to land on a carrier, and consequently, many were destroyed in crashes or hit by enemy guns. At the war’s end, the number of 128 Skyraiders that had been lost was indicated, thus a very serious warning about the dangers of the conflict.

Vietnam was the Skyraider’s defining chapter. Assigned to the 1st Air Commando Squadron starting in 1964, the plane was adapted for search and rescue missions and special operations along the Ho Chi Minh Trail. Its long loiter time and heavy firepower meant it could protect rescue helicopters and suppress enemy fire for extended periods. The name “Sandy” was made into a legend that stood for pilots who flew into the face of heavy enemy fire to bail out others. The A-1’s staying power and constant covering fire often meant the difference between life and death.

The Skyraider’s ruggedness was the stuff of legend. There are countless tales of these aircraft coming back home with bullet holes all over the fuselage, wings missing, or canopies shot away, but still flying angrily. One good story involves Ensign John Higgins landing on the USS Antietam with a broken canopy and a five-inch fragment of shrapnel lodged in his headrest—a testament to the plane’s durability and the pilot’s ability.

Although slower than jets, the Skyraider was not an easy target to hit. In Vietnam, propeller Spads even shot down enemy MiG-17 fighter aircraft, much to their surprise, and the courage of their pilots. In addition to attack missions, the Skyraider was also used for electronic warfare, early warning, reconnaissance, and psychological operations, demonstrating its astounding versatility.

As jets evolved, the Skyraider slowly gave way to newer models such as the A-4 Skyhawk. Nevertheless, its fame did not wane. Numerous Skyraiders were transferred to the South Vietnamese Air Force, which operated them until the loss of Saigon. Other nations, including the UK, France, and Sweden, also operated the Skyraider, although in lesser quantities.

What sustains the legend of the Skyraider? It’s not just nostalgia or fond recollections from its aviator, although those are deep. Even years after retirement, many pilots of the aircraft feel it’s the greatest close air support aircraft ever built. As old Marine Captain William C. Smith used to say, “Even after all these years, I believe the AD is still the best airplane ever made for close-in attackBetterer than anything flying today.”

The history of the Skyraider is a tale of ruggedness, versatility, and sheer firepower. It held the line between generations, surviving many of its peers and cementing a place in the annals of military aviation history. Whether it is recalled as having made audacious rescue flights, its durability under fire, or its tremendous firepower, the Douglas A-1 Skyraider is, in many minds, the greatest attack aircraft ever constructed.

When the Boeing B-17 Flying Fortress was at its best, it was known as one of the images of the power of the US air force during WWII – a tough aircraft that was operated by brave crews whose heroic stories are now known as myths. Yet, the myth is still the most recognized one among the legends, which is a different story with complex and confusing technical compromises, wrong strategies, terrible deaths, and incredible acts of bravery performed by the people 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.

From an ethical standpoint, Enola Gay, the B-29 Superfortress, which was the first to release the atomic bomb on Hiroshima, is probably the most mentioned plane in the entire history of the world. Although the war was brought to an end by only one flight, on the other hand, it was the first time that man had entered a nuclear era, a separation line that, even now, provokes very heated debates among scholars, veterans, and ordinary people.

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 remains more than just a historical artifact of World War II. It is a testament to the transformative power of innovation in warfare and an ongoing challenge to how we define victory, responsibility, and the true cost of peace.

The Sukhoi Su-57 Felon was intended as Russia’s answer to building a top-notch fifth-generation stealth fighter that would be packed with advanced technology and that would have brought the Russian aerospace industry back in the spotlight and made it possible to compete with the United States’ best and smartest fighter aircraft, such as the F-22 and F-35. Nevertheless, the plane has been facing a series of unfortunate events. Instead of achieving fantastic success, the Su-57 has tangled with procrastination, production problems, and doubts about its role in the rapidly changing military environment.

The Su-57 project was started as early as the 2000s under the PAK FA program. It was to create a multi-role fighter that would dominate the air, attack targets on the ground, and perform reconnaissance. It featured stealth technology, a lot of lightweight composite materials, hidden armament bays, and cutting-edge avionics.

The plane was designed to be incredibly maneuverable in the air, with smart systems onboard — some went so far as calling the flight computer an “electronic co-pilot” — and radar spread all across the airframe to watch out for threats coming in from all angles.

Artificial intelligence was built into its communication and data systems so that pilots could get ahead of their competition and make fast decisions under difficult conditions. Russia’s state producers asserted that the technology made it possible for the plane to send encrypted information at high rates, helping to increase reconnaissance and combat effectiveness.

On paper, the Su-57 is impressive. It has a top speed of twice the speed of sound, a range of over 2,000 miles, and can accommodate hypersonic missiles and precise smart weapons. Its sensors can track multiple targets at once, and its artificial intelligence can learn from mission results to be a more effective tactician and help maintain the plane out of harm’s way. Its slender, angled shape with radar-absorbing materials and engines concealed within is intended to make it invisible to enemy radar, especially head-on.

But in reality, it has not been smooth sailing. Sanctions from the West have bitten Russia, keeping it from accessing key components like cutting-edge electronics and special materials employed in order to attain stealth. The Su-57’s radar, which was initially built based on German technology, is most affected. Efforts to replace these components with imports from other countries have not been straightforward, and there is doubt about the availability of these alternatives.

Because of these problems, very few Su-57s are operational. By late 2024, only about 22 had been delivered, including test and production models. Official targets for attaining higher numbers in subsequent years now seem unrealistic. Every Su-57 is a treasure — when one of them was hit in an attack in the Astrakhan region, it was losing an expensive part of Russia’s cutting-edge fighter capability. Replacing these planes is time-consuming and expensive, with limited spares, while Russia churns out more proven aircraft like the Su-30SM2 and Su-35S to fill gaps.

In action, the Su-57 has had a limited role in the war in Ukraine. Russia has been cautious about risking its precious few jets in contested airspace, not wanting to lose expensive, advanced technology and damage the jet’s global reputation. That self-restraint has meant the Su-57 has had little impact so far. Instead, Russia employs upgraded older jets, which may not be as advanced but are abundant and less expensive to repair.

Or vice versa, they have had to wait a considerable time before starting to export to foreign countries. Algeria is the first customer to buy six Su-57E fighter aircraft. Besides that, the pilots are training in Russia, and they’re talking about making more purchases. In part, it is a matter of doing what others in the region who have the most modern fighters are doing. Nevertheless, this order is the only one, and no big sales are expected. In 2018, India, which had originally intended to co-design a fighter jet with Russia, decided to withdraw, being dissatisfied with the stealth and electronic features of the Su-57. Few people can help but feel sympathetic towards the bad-boy reputation the aircraft got from the times it displayed its glaring weaknesses at airshows and from ongoing quality issues in the manufacturing. 

One of the contrasts between the Western competitors and the Russian fighter is the severity and visibility of the different issues with the Su-57. Just to name only one example, the U.S. already produces over a thousand F-35s globally at various locations, all controlled by a massive supply chain and quality assurance regime. While the F-22 and F-35 are the stealth/sensor tech standards of gold with histories of success in modern warfare and very stable flight, Russian planes, although said to be able to cancel out Western air defense, are still considered by most experts as far from being perfect in the stealth area.

Nevertheless, the Kremlin still regards the Su-57 as central to Russia’s military strategy over the long haul. The Kremlin interprets the Su-57 as a national pride masterpiece and a way to keep pace with other powers of similar calibre. However, as the sanctions proceed and with all the production difficulties, the Su-57 is more of a prestige program than a front-line game changer. The global arms market is watching, but for now, Russia’s leading-edge fighter is having trouble flying on the runway and worldwide.