Table of Contents
1. The Whole Package: Unrivaled Sensor Fusion & Systems Integration
2. Granite Hardness: Unyielding Redundancy & Survivability
3. The Aerodynamic Ballet: Intelligent Flight Control & Handling
4. Seeing Everything: The APG-79 AESA Radar’s Dominance
5. Pushing the Limits: Phenomenal Handling & Angle of Attack
6. The Arsenal: Monster Racks & Unprecedented Weapon Loadout
7. Precision Delivery: Integrated Air-to-Surface Weaponry
8. The Force of Nature: Thrills of the Catapult Shot
9. Embracing the Dark: The Simplicity of Night Carrier Landings
10. True Multi-Role Mastery: From Air-to-Air to Anti-Ship
11. Frequently Asked Questions
From Harrier to Hornet: 10 Reasons Royal Navy Pilot Paul Tremelling Fell in Love with the F/A-18 Super Hornet
Few experiences in aviation compare to the moment a pilot first straps into a new aircraft and discovers it exceeds every expectation. For Royal Navy Commander Paul Tremelling, a seasoned Harrier pilot serving as an exchange pilot with the US Navy, that moment came when he first flew the F/A-18E/F Super Hornet. What he discovered wasn’t just another fighter jet—it was a revolutionary leap forward in naval aviation capability.
Tremelling’s unique perspective as a Royal Navy pilot flying America’s premier carrier-based multirole fighter offers unparalleled insights into what makes the Super Hornet extraordinary. Having transitioned from the iconic Harrier jump jet to the mighty “Rhino,” as the Super Hornet is affectionately known, he experienced firsthand the dramatic evolution of modern naval aviation. His enthusiastic assessment of the aircraft stems from years of operational flying, where the Super Hornet’s capabilities weren’t just impressive statistics—they were life-saving realities.
This article explores the ten specific reasons why Commander Tremelling developed such profound admiration for the F/A-18 Super Hornet, offering a rare glimpse into the cockpit of one of the world’s most advanced fighter aircraft through the eyes of someone who truly understood its revolutionary nature.
1. The Whole Package: Unrivaled Sensor Fusion & Systems Integration
What immediately struck Tremelling about the Super Hornet was how everything worked together seamlessly. Unlike older aircraft where pilots had to mentally piece together information from multiple systems, the Super Hornet presented a unified, crystal-clear picture of the battlespace. This wasn’t just advanced technology—it was intuitive, almost telepathic in how it anticipated what the pilot needed to know.
The aircraft’s sensor fusion capability combines inputs from the APG-79 AESA radar, AN/ASQ-228 Advanced Targeting Forward-Looking Infrared (ATFLIR), electronic warfare systems, and Link-16 data links into one coherent tactical picture. For Tremelling, this meant never having to guess what was happening around him. The aircraft essentially became an extension of his own senses, amplifying his situational awareness to superhuman levels.
“It’s like having the eye of Sauron,” Tremelling would describe the experience, referencing the all-seeing eye from Tolkien’s Lord of the Rings. The Super Hornet doesn’t just see threats—it understands them, categorizes them, prioritizes them, and presents solutions. This integration eliminated the cognitive burden that plagued earlier generation fighters, where pilots often became overwhelmed managing multiple information streams during high-stress combat situations.
The system’s intelligence extended beyond mere data fusion. The Super Hornet could automatically correlate tracks from multiple sources, eliminate duplicate contacts, and even predict threat behavior patterns. This gave Tremelling unprecedented confidence in his tactical decisions, knowing that the information he was receiving wasn’t just accurate—it was comprehensive and contextually relevant.
2. Granite Hardness: Unyielding Redundancy & Survivability
Coming from the single-engine Harrier, Tremelling immediately appreciated the Super Hornet’s twin F414-GE-400 engines—but the aircraft’s survivability went far deeper than just having two powerplants. The Super Hornet was designed from the ground up with redundancy in every critical system, creating what he described as “granite hardness” in its ability to absorb damage and keep flying.
The aircraft’s survivability features read like a pilot’s wish list: dual hydraulic systems, backup flight controls, separated engine compartments with titanium firewalls, and self-sealing fuel tanks with nitrogen inerting systems. But what impressed Tremelling most was how these systems were integrated with the aircraft’s threat detection and countermeasures. The AN/ALR-67(V)3 electronic warfare suite could detect incoming threats and automatically deploy appropriate countermeasures before the pilot even knew danger was present.
During training exercises, Tremelling witnessed the Super Hornet’s ability to sustain significant simulated damage and continue operating. The aircraft could lose an engine, suffer hydraulic failures, and endure electronic jamming while maintaining mission capability. This wasn’t theoretical—it was proven in combat over Iraq and Afghanistan, where Super Hornets returned from missions with battle damage that would have been catastrophic for less robust aircraft.
The psychological effect of this survivability cannot be overstated. Knowing that his aircraft could absorb punishment and bring him home allowed Tremelling to focus entirely on the mission rather than worrying about system failures. This confidence translated directly into tactical aggressiveness and mission effectiveness, making him a more capable pilot simply because he trusted his machine completely.
3. The Aerodynamic Ballet: Intelligent Flight Control & Handling
The Super Hornet’s fly-by-wire flight control system transformed flying from a constant battle with aerodynamic forces into what Tremelling described as “an aerodynamic ballet.” Unlike older fighters that fought their pilots, the Super Hornet anticipated and assisted, making even the most complex maneuvers feel natural and intuitive.
The flight control computer processes pilot inputs through sophisticated algorithms that consider aircraft configuration, airspeed, altitude, and load factor to provide exactly the response needed. This doesn’t mean the aircraft flies itself—rather, it amplifies the pilot’s intentions while preventing dangerous situations. The system allows pilots to explore the entire flight envelope safely, knowing that the aircraft won’t depart controlled flight or exceed structural limits.
What particularly impressed Tremelling was the absence of artificial angle-of-attack limitations that plagued many contemporary fighters. The Super Hornet would fly well beyond what seemed physically possible, maintaining controllability at extreme angles of attack that would have rendered other aircraft helpless. This capability wasn’t just impressive during air shows—it provided genuine tactical advantages in combat maneuvering.
The handling characteristics remained consistent across the entire flight envelope, from approach speeds to supersonic flight. Whether conducting air-to-air combat maneuvering or precise formation flying, the aircraft responded with the same predictable, harmonious control feel. This consistency reduced pilot workload dramatically and allowed for more aggressive tactical employment without fear of encountering unexpected handling characteristics.
4. Seeing Everything: The APG-79 AESA Radar’s Dominance
The APG-79 Active Electronically Scanned Array radar represented a quantum leap in airborne sensor capability, and Tremelling quickly discovered why it was considered the gold standard for fighter radars. Unlike traditional mechanically scanned radars that swept back and forth like searchlights, the APG-79 could simultaneously track multiple targets while maintaining search patterns and conducting electronic warfare—all without moving parts.
The radar’s range and resolution capabilities seemed almost supernatural to someone accustomed to older systems. Tremelling could detect and track targets at distances that would have been impossible with previous generation radars, while the system’s low probability of intercept characteristics meant he could see enemy aircraft long before they knew they were being tracked.
But the APG-79’s true brilliance lay in its multitasking capabilities. The system could track up to 20 targets simultaneously while guiding multiple AIM-120 AMRAAM missiles to different targets, all while continuing to search for new threats. This meant that in beyond-visual-range combat, a single Super Hornet could engage multiple enemy aircraft simultaneously—a capability that fundamentally changed air-to-air tactics.
The radar’s synthetic aperture mode provided ground mapping resolution that rivaled dedicated reconnaissance aircraft, allowing precise target identification and weapon delivery even in adverse weather conditions. For Tremelling, this meant the Super Hornet could fulfill reconnaissance missions that previously required separate platforms, demonstrating the aircraft’s true multirole nature.
5. Pushing the Limits: Phenomenal Handling & Angle of Attack
The Super Hornet’s ability to operate at extreme angles of attack opened tactical possibilities that Tremelling had never experienced before. The aircraft could sustain controllable flight well beyond 50 degrees angle of attack, a capability that transformed defensive maneuvering and energy management in air-to-air combat.
This high-alpha capability wasn’t just about showing off—it provided genuine combat advantages. When attacked by an enemy fighter, the Super Hornet could rapidly decelerate by pulling to extreme angles of attack while maintaining control authority. This allowed the pilot to force an overshoot situation where an attacking aircraft would fly past, potentially reversing the tactical situation from defensive to offensive in seconds.
The aircraft’s ability to point its nose independent of its flight path created unique firing opportunities. Even while traveling in one direction, the Super Hornet could orient its weapons systems toward threats at radical angles, allowing shots that would be impossible for conventional fighters. This capability, combined with the AIM-9X Sidewinder’s high off-boresight capability, created a lethal combination for close-range combat.
What impressed Tremelling most was how the aircraft remained controllable throughout these extreme maneuvers. Unlike some fighters that became dangerous at high angles of attack, the Super Hornet maintained predictable handling characteristics and could recover to normal flight quickly and safely. This gave pilots the confidence to use the aircraft’s full performance envelope operationally.
6. The Arsenal: Monster Racks & Unprecedented Weapon Loadout
The Super Hornet’s weapons carrying capacity astounded Tremelling with its sheer versatility and load-bearing capability. With 11 hardpoints capable of carrying up to 17,750 pounds of ordnance, the aircraft could be configured for virtually any mission imaginable. What he found most impressive was the aircraft’s ability to carry up to 10 AIM-120 AMRAAM missiles simultaneously—more air-to-air firepower than entire squadrons of earlier generation fighters.
The “monster racks” weren’t just about quantity—they enabled unprecedented mission flexibility. A single Super Hornet could carry air-to-air missiles for self-defense, precision-guided air-to-ground weapons for strike missions, and external fuel tanks for extended range, all on the same sortie. This eliminated the need for specialized aircraft configurations and allowed dynamic mission changes based on evolving tactical situations.
The weapons integration went beyond simple carriage capability. The Super Hornet’s advanced fire control systems could manage multiple weapon types simultaneously, automatically configuring systems for optimal employment based on target characteristics and tactical situation. Tremelling could seamlessly transition from air-to-air engagement to precision ground attack without complex system reconfigurations.
The aircraft’s ability to carry buddy refueling pods transformed it into a force multiplier for the entire air wing. A Super Hornet configured for aerial refueling could extend the range and endurance of other aircraft, effectively multiplying the combat power of the entire carrier air wing. This flexibility meant that every Super Hornet was potentially multiple aircraft depending on mission requirements.
7. Precision Delivery: Integrated Air-to-Surface Weaponry
The Super Hornet’s air-to-surface capabilities represented a fundamental shift from the “dumb bomb” era to precision warfare, and Tremelling was amazed by the aircraft’s ability to deliver weapons with unprecedented accuracy. The integration between the targeting systems, weapons, and flight controls created a precision delivery platform that could place ordnance within feet of intended targets regardless of weather conditions or tactical situation.
The ATFLIR targeting pod provided high-resolution imagery that allowed positive target identification from standoff distances, while the aircraft’s GPS and inertial navigation systems ensured that coordinates were precise down to individual buildings or vehicles. The integration was so seamless that weapon delivery became almost routine—select target, designate, release, and move to the next objective.
What particularly impressed Tremelling was the variety of precision weapons available and how easily the aircraft switched between them. JDAMs provided accurate area attack capability, while GBU-49 Enhanced Paveway II offered laser precision for moving targets. The AGM-154 JSOW allowed standoff attacks against defended targets, while Maverick missiles provided fire-and-forget capability against armor and bunkers.
The aircraft’s ability to conduct simultaneous multiple target attacks fundamentally changed strike mission planning. Instead of requiring multiple aircraft to attack several targets, a single Super Hornet could engage multiple objectives on one pass. This capability reduced the number of aircraft required for complex strike packages while minimizing exposure to enemy defenses.
8. The Force of Nature: Thrills of the Catapult Shot
The catapult launch experience in a Super Hornet was unlike anything in Tremelling’s previous flying experience, representing the raw power and engineering marvel of carrier aviation. The steam catapult could accelerate the 66,000-pound aircraft from zero to 165 mph in less than three seconds—a force equivalent to being shot from a cannon while strapped to 44,000 pounds of jet fuel and ordnance.
What made the catapult shot particularly thrilling in the Super Hornet was the aircraft’s response to this violent acceleration. While other aircraft might shudder or exhibit concerning behavior during launch, the Super Hornet absorbed the tremendous forces with granite-like stability. The robust landing gear, reinforced fuselage structure, and powerful engines meant that the aircraft actually seemed to relish the catapult shot rather than merely survive it.
The experience began with the hookup to the catapult shuttle, where 300 pounds of steam pressure built behind the pistons. The launch sequence—engines to military power, final checks, salute to the catapult officer, and then the sudden, overwhelming acceleration—became a addiction for Tremelling. The sensation of being pressed into the seat with 3-4 G’s of acceleration while watching the carrier deck disappear in milliseconds never lost its excitement.
The psychological impact of this capability cannot be understated. Knowing that the aircraft could handle this violent launch sequence repeatedly without degradation gave Tremelling complete confidence in the machine’s engineering and durability. If the Super Hornet could absorb catapult shots routinely, it could handle anything combat might throw at it.
9. Embracing the Dark: The Simplicity of Night Carrier Landings
Paradoxically, Tremelling found night carrier landings in the Super Hornet to be simpler and more predictable than daytime operations—a revelation that initially seemed counterintuitive but made perfect sense once experienced. The aircraft’s advanced approach systems and predictable handling characteristics actually made darkness an advantage rather than a hindrance.
During Case III approaches (instrument approaches used at night or in poor weather), the Super Hornet’s systems took over much of the workload that traditionally burdened pilots. The aircraft’s GPS and inertial navigation systems, combined with the carrier’s instrument landing system, provided precise approach guidance that was actually more accurate than visual references during daylight operations.
The Super Hornet’s approach characteristics were remarkably stable and forgiving. The aircraft’s angle of attack worked as a natural speed control—maintain the proper angle and the aircraft would automatically maintain the correct approach speed regardless of weight or configuration changes. This eliminated the constant power and attitude adjustments that made carrier landings in other aircraft so challenging.
What Tremelling found most remarkable was how the aircraft’s systems seemed designed specifically for night operations. The cockpit lighting, head-up display symbology, and instrument layout provided excellent visibility without compromising night vision. The landing configuration was so stable that once properly trimmed, the aircraft required minimal control inputs all the way to touchdown—making night traps almost routine rather than terrifying.
10. True Multi-Role Mastery: From Air-to-Air to Anti-Ship
The Super Hornet’s genuine multi-role capability represented the ultimate evolution of tactical aircraft design, and Tremelling experienced firsthand how one aircraft could excel in missions that previously required entirely different platforms. Unlike fighters that claimed multi-role capability but excelled in only one area, the Super Hornet was genuinely world-class in every mission area it undertook.
In air-to-air combat, the Super Hornet could engage multiple targets simultaneously at beyond visual range while maintaining superior situational awareness through its advanced sensors and data links. The same aircraft could immediately transition to close air support missions, delivering precision weapons with surgical accuracy while providing overwatch for ground forces. Within hours, that same aircraft could be reconfigured for anti-ship strikes carrying AGM-84 Harpoon missiles or converted to an electronic warfare platform with ALQ-99 jamming pods.
The aircraft’s buddy refueling capability meant it could extend the range of other aircraft, effectively multiplying the combat power of the entire air wing. The Super Hornet could conduct suppression of enemy air defenses missions with AGM-88 HARM and AARGM missiles, clearing the way for other strike aircraft while simultaneously providing its own close escort capability.
What impressed Tremelling most was how mission transitions were seamless rather than complex reconfigurations. The aircraft’s advanced mission computer and integrated systems meant that changing from air-to-air to air-to-ground configuration was largely automatic. Weapons systems optimized themselves based on selected targets, while the radar and defensive systems adapted to the new mission profile without pilot intervention.
The true mastery lay in the aircraft’s ability to combine mission capabilities simultaneously. A Super Hornet on a strike mission could defend itself, attack ground targets, provide electronic warfare support, and conduct aerial refueling for other aircraft—all on the same sortie. This flexibility fundamentally changed how naval air operations were planned and executed.
Frequently Asked Questions
Q: What made Paul Tremelling’s perspective on the Super Hornet unique compared to other pilots?
A: Commander Tremelling’s perspective was unique because he was a Royal Navy exchange pilot transitioning from the Harrier jump jet to the Super Hornet. This gave him an outsider’s view of American naval aviation technology while having extensive experience with a completely different type of carrier aircraft. His background as a Harrier pilot—flying a single-engine, vertical takeoff aircraft—made the Super Hornet’s capabilities even more impressive to him than they might have been to pilots already familiar with conventional carrier aircraft.
Q: How does the Super Hornet’s survivability compare to single-engine fighters like the F-16?
A: The Super Hornet’s twin-engine configuration provides inherent redundancy that single-engine fighters cannot match. Beyond just having two engines, the Super Hornet features separated engine bays with titanium firewalls, dual hydraulic systems, backup flight controls, and advanced electronic warfare capabilities. While single-engine fighters have proven reliable, the Super Hornet’s multiple backup systems mean it can sustain damage that would be catastrophic to other aircraft and still complete its mission and return safely.
Q: What is the “whole package” capability that Tremelling found so impressive?
A: The “whole package” refers to the Super Hornet’s sensor fusion capability, where multiple systems—radar, infrared sensors, electronic warfare equipment, and data links—combine to create a unified battlefield picture. Instead of the pilot having to mentally piece together information from different sources, the aircraft presents one comprehensive tactical display. This dramatically reduces pilot workload and increases situational awareness, making the aircraft feel like an extension of the pilot’s own senses.
Q: Why did Tremelling prefer night carrier landings over daytime operations?
A: Tremelling found night landings easier because they relied more on the Super Hornet’s precise instrument systems rather than visual references that could be deceiving. During Case III (instrument) approaches, the aircraft’s GPS, inertial navigation, and the carrier’s landing systems provided more accurate guidance than visual cues. The Super Hornet’s stable approach characteristics and excellent cockpit systems actually made darkness an advantage, eliminating visual distractions and allowing the pilot to focus purely on instrument flying.
Q: How many weapons can the Super Hornet carry, and what makes this significant?
A: The Super Hornet can carry up to 17,750 pounds of ordnance across 11 hardpoints, including the ability to mount 10 AIM-120 AMRAAM missiles simultaneously. This is significant because it gives a single aircraft more air-to-air firepower than entire squadrons of earlier generation fighters. The variety of weapons combinations possible means one aircraft can be configured for multiple mission types simultaneously, eliminating the need for specialized configurations and allowing dynamic mission changes.
Q: What role did the APG-79 radar play in Tremelling’s admiration for the aircraft?
A: The APG-79 AESA radar was revolutionary because it could simultaneously track multiple targets, guide missiles, conduct electronic warfare, and maintain search patterns—all without mechanical movement. Unlike older radars that had to choose between different functions, the APG-79 could multitask, allowing a single Super Hornet to engage multiple enemies while maintaining complete situational awareness. Its low probability of intercept characteristics meant the pilot could see threats long before being detected.
Q: How did the Super Hornet’s high angle of attack capability provide tactical advantages?
A: The ability to fly controllably at extreme angles of attack (over 50 degrees) allowed unique tactical maneuvers impossible in other aircraft. In defensive situations, the Super Hornet could rapidly decelerate by pulling to high angles of attack while maintaining control, potentially forcing attacking aircraft to overshoot. The aircraft could also point its weapons systems at targets regardless of flight direction, combined with high off-boresight missiles like the AIM-9X, this created firing opportunities that conventional fighters couldn’t exploit.
Q: What made the Super Hornet truly “multi-role” compared to other fighters claiming that capability?
A: Unlike fighters that were adequate in multiple roles but excelled in only one, the Super Hornet was genuinely world-class in every mission area. It could conduct air-to-air combat, precision ground attack, electronic warfare, aerial refueling, and anti-ship strikes with equal effectiveness. The key was seamless mission transitions—the aircraft’s systems automatically optimized for different mission profiles without complex pilot inputs, allowing rapid switches between roles even within a single sortie.