Comments by "LRRPFco52" (@LRRPFco52) on "Grid 88" channel.

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  14.  @spartanx9293  One topic I noticed conspicuously missing from the PLAAF and RTAF air combat exercises was any mention of IRST. Gimbaled IRSTs in the nose are generally radar-slaved for initial cueing, so without a wide Field of Regard, trying to use them in a rapid BVR timeline seems extremely difficult for a single seat fighter with federated avionics architecture. Only the JSF with fused AESA/DAS/EOTS has such a wide and deep detection envelope, followed by the Chinese J-20, which copies the F-35 sensor scheme. The JSF pilot isn't a systems technician trying to collate data from a RWR, radar, & IRST like in a federated system with independent, parallel displays. They're using a simplified "sensor-fusion" approach in the later variants of Typhoon, Rafale, and Gripen, while the JSF program seems to have picked up some of the Star Trek promises from the original ATF program (that were cut) and implemented them after a very difficult development period. They dropped the side-looking AESAs and AIRST from ATF because they knew that would escalate costs. The AESA it was getting was so capable anyway, so why do you need side AESAs and AIRST if you can't be seen already, have brutal kinematic advantages, and are able to snipe people out of the air with impunity? Rafale F3R dropped the IRST, while F4 is getting a new one. The baseline Rafale IRST/OSF system is unique among 4.5 Gen in that it has 2 IR/Optical spectrum forward-looking sensors that operate in different spectrums. The JSF series have 4 different IR sensors in the nose. Forward-looking and 2 side-looking DAS, plus the EOTS under the nose, which are all fused with the extensive RF sensor network including the AESA. The IR sensor capabilities of JSF are truly a generational leap over anything in 4.5 Gen. That gap is quite large.
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  15.  @michaelkeller5008  Another interesting thing about the initial tactics development of several generations of fighters. With the F-15A in the mid-1970s, they did initial tactics development out at Nellis since RF and aggressor units were there, along with actual MiGs north of there. Against the F-5E, the F-15A flown by combat-experienced pilots (F-4D/E guys from SEA), the F-15 had about a 1:1 exchange ratio, later about 2:1 in AIMVAL/ACEVAL. The F-22A initial tactics development at the same place in the late 1990s/early 2000s had basically an undefeated exchange ratio, no matter what they threw at it. The pilots for F-22 tactics development were all F-15C Weapons Instructor Course grads, high-hr, and even MiG-killers with real-world shoot-downs. They were very skeptical of the stealth technology even working. After their first sorties against multi-ship F-15Cs vs 2-ship F-22As, they came back huge believers because the F-15C drivers were never able to see them no matter what angles they set up intercepts from. One of the pilots described setting up head-on, from low-to-high, from high-to-low, oblique, left, right, didn’t matter. Keep in mind the F-15C at the time had the world’s best fighter radar and enjoyed a 104:0 A2A kill ratio against the MiG-29, MiG-25PD, MiG-23MF, Mirage F1, and MiG-21. The F-22s simply made mince meat of them and even did 2vs 12 with all 12 killed in 2 minutes, 22 seconds. The difference between F-35 and F-22 in A2A for threat air isn’t really measurable, since they just die without knowing why. Nobody is max-performing the jets for speed or using the supercruise anyway, so the raw performance isn’t as much of a factor as people assume. RCS and sensors with networking are what matter more.
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  19.  @pharmika  I’ve looked at the Rafale and don’t see any strengths it can play against greater strengths in the F-35’s corner in every relevant metric. You can take the best, most experienced fighter pilots in the world and pit them against very new F-35 pilots, and the outcome is still the same. This has been done already hundreds of times in Large Force Exercises, including multinational partners. That’s a huge indicator that something massive has changed with 5th Gen, which isn’t marketing hype, but an actual relevant term that means something. 5th Gen isn’t just Very Low Observables. It’s integrated systems, superior man-machine interface, fused sensors, interleaved sensors between ships, using LPI data links with line-of-sight secure/high transmission rates. On top of all that is superior combat-configured raw performance in climb rate, cruise speed, acceleration through the Mach, and maneuvering in the worst-case for when more VLO airframes become more common down the road. I actually do know many things about the capabilities of JSF and 4th Gen, since I’ve been in defense aerospace since the 1970s, spent several years studying the NATO Aerospace Engineering course material, and have a 741 page book on JSF written by all the lead systems engineers and some test pilots. JSF RF VLO systems have already evolved after Lot 4 into something different, reducing the RCS even more. Multibandwidth RCS reduction has been something people have been chasing for decades, but that certainly isn’t openly discussed since it’s pretty cutting edge. APG-81 isn’t the primary detection system on JSF. Primary early detection is totally passive in the RF spectrum, followed by different approaches to assessing contacts cooperatively using minimal RF emissions, very controlled LPI RF emissions, as well as IR spectrum cooperative TGT PID. The passive RF detection and tracking is far ahead of what people think, and overlooked by most amateur AvGeeks. They took the same approach from the F-22’s passive RF detection framework. Since F-22 and F-35 are VLO in the IR spectrum, IRST and OSF sensors don’t see any real discernible contrast until right on the edge or within visual range. There are some really good OSF photos from Rafale against F-22A showing this, even with the F-22A in afterburner. Seems like fantasy at first, until you understand how cold air is managed around the exhaust plumes, as well as surfaces. F-35 has LOAN technology integrated into the engine nozzles and around the engine to mitigate IR signature from engine heat, as well as coatings integrated with the RAM that cover several spectra of IR. The Super Hornet's APG-79 can detect 1m2 TGTs at around 134nm in just volume search mode, and 220nm for cued search. APG-81 is a superior AESA with higher TRM count, more processing power, better integrated cooling, and better freq hop/LPI modes, just for starters. This is where trying to understand a 5th Gen Fighter vs 4.5 Gen really sticks out. The AESA is not a separate sensor in the F-35. It’s part of the passive RF sensors distributed all over the airframe, part of the EOTS, DAS, and EW suite. It’s part of a closed-loop avionics architecture that performs a certain set of functions as needed, depending on what the pilot and wingmen are doing. The RBE2 is an excellent radar, the only AESA in operational service among the Eurocanards and well ahead of France’s peers who tried to develop the Typhoon together, and for that France should be recognized. It just isn’t on the same level of the integrated avionics on JSF. The short story is that a flight of JSF will always have first-look and first-shoot decisions against fighters who don’t even know they are there.
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  21. Have you ever heard of a concept called Low Probability of Intercept/Detection Radar? It's literally one of the foundational operating principles of AESAs. In addition to reducing, (not increasing) peak power output from the antennae TRMs, they frequency-hop around their relevant spectrum at insane cycles per second to avoid triggering any RF detection sensors. That's if an F-35 pilot even chooses to actively search & track in RF spectrum. The AESA is fused with over a dozen other frequency-wide sensors embedded in the F-35 so it really gets its first hits passively. F-22 is the same way. Those passive RF systems have almost 2x the detection range in the RF spectrum compared with the AESA. The moment any signature emits from your aircraft in both RF and IR spectrums, you risk populating yourself into the new kill web with JSF. If F-35 gets a hint of anything, the super-computing brain directs other passive sensors to pay particular attention to those directions/contacts, and does everything within its power to know what's out there, cross-referenced with a vast threat library that has up-to-date signatures of all known threats. The pilot manages signature carefully to gain weapons-grade tracks, and sets up for an unfair, unseen VLO approach, while staying out of the detection envelopes of the threats. So unlike a 4th Gen encounter, mutual awareness does not happen in BVR at any point until the threat system detects an active missile seeker within a few seconds before impact. That's the extent of the threat pilot's awareness of anybody else out there. You need an entirely new airplane with a more saturated and multi-spectral/wide bandwidth sensor suite, with more processing power. Good luck with that.
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  22.  @miketheman4341  Guys in Ranger Batt have done more reps in CQM and CQB because they don’t have to train for any of the UDT and Combat Swimmer skill sets, none of the VBSS, and don’t have to do as much methods of insertion training that is very time-consuming. 2 main aerial methods of insertion in Battalion are rotary wing and Static Line Airborne. If a kid joins at 17-18, they will still go through 6 months of Infantry OSUT, 2 months of RASP if they make it straight through, and 3 weeks of Airborne school before going on PCS leave in-between Benning and Hunter AAF, Ft. Lewis, or staying at Benning for 3rd Batt. Once they show up, they go right into training cycle with tons of CQM, CQB, rotary wing, fixed wing, and specialized training pre-deployment, then deploy somewhere for a JRX, JRTC, Jungle Ops, Desert, the UK, Thailand, etc. You see a very rapid climb in maturity in Ranger Regiment because guys that can’t perform are booted out quickly via RFS or injury. When you witness how a Squad or Platoon of Ranger Batt guys execute SUTs vs SEALs, it’s night a day. I’ve done OPFOR against both and deployed among CJSOTF or other composite units of each, and it’s just a brutal harsh reality that Rangers are far more competent in CQM and CQB, IADs, and SUTs. I would never want to face them with live ammo. SEALs I would happily face day or night, and skull-drag them with the kinds of guys I was used to running with. They were very lax/undisciplined with their SUTs and it showed.
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  33.  @Greasy__Bear  The AESA in the F-35 isn’t the primary initial detection system, and neither is the APG-77 in the F-22. There are passive EW sensors that see electronic emissions first, then cue the other sensors to those targets. The pilots manage how much signature they want to emit in RF spectrum. APG-81 and APG-77 absolutely are very long range detection and tracking-capable AESA Radars, with farther effective range than AWACS because AWACS have to stay away from the skirmish zones due to vulnerability. AWACS are less and less a critical C4 node due to the emergence of 5th Gen. People talking about AWACS as a central node for C4ISR are thinking in 1970s-1990s metrics pre- Link-16 JTIDS. F-22 IFDL (Inter Fighter Data Link) is miles ahead of JTIDS, and F-35 MADL is miles ahead of IFDL. The gap between ATF/JSF and 4.5 Gen is huge. Iraq had 768 tactical combat aircraft and were better trained and experienced than Russia will ever be (Iraq fought Iran for 8 years, and the Iranians had F-14A/AWG-9/Phoenix, F-4Es, F-5E/F, AIM-7E4, AIM-9J, AIM-9P). East Germans were the best Air Force in the Soviet Union, followed by the Poles. Russians are defunct and have been for generations-not even a remotely-competent air power. We’re talking about an Air Force that practices firing rockets into the mud for their Large Force Exercises even to this day-total tards. They were handicapping China with those LFEs too, as PLAAF thought that’s how you do LFEs. After Chicoms got exposed to a small LFE with Royal Thai Air Force, PLAAF switched gears and started actually learning. Russian Air Force would be curb-stomped by any of NATO nations in Air-to-Air. This is why NATO is trying to keep the Ukrainian conflict limited to Ukraine, because a humiliating defeat by Russian forces vs NATO would increase the likelihood of them letting loose with nukes.
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  34.  @divoulos5758  To give another set of answers to your questions though, the US built several fighter weapons schools in the 1970s and 1980s and regional aggressor squadrons to provide dissimilar air combat training for operational units around the world. That means huge portions of the USAF, USN, and USMC were specifically dedicated to acting as aggressors or adversaries, emulating threat tactics, radio procedures, and emissions. The Soviets never did this because they believed their own propaganda about how much better their fighters were, and that their pilots were blessed with some type of innate skill from the patrimony. If you read Vladimir Kondaurov’s book, he talks about flying the captured F-5E against the MiG-21 and MiG-23, where the F-5E beat them both in BFM repeatedly, and they had to report this personally to the Moscow Central Aviation Research Bureau with great apprehension. The F-5E was a low cost fighter the US sold to poor nations who weren’t authorized to buy top-line US technology, and the Russians knew it. The F-5E handily beat their top-line fighters at the time, even though all their data said the MiG-21 should have beat the F-5. With Red Flag and TOPGUN, the US maintains fighters that emulate Russian threat capabilities. We have already established an F-35A Aggressor Squadron at Nellis AFB recently to emulate emerging Chinese and Russian threats. That’s how serious the US takes aggressor trainers. We have more F-35A Aggressors than Russia has Su-57s, for example.
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