JuniorJarhead09
Airman
- 13
- Feb 27, 2025
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36,000 built but over 12,000 lost on take-off or landings? Hindisghts 20/20, who's gonna tell Willy, hey buddy this is what you'll be known for, 109's are great for vertical and stall fights, but you are gonna lose 1 in 3.My point exactly.
36,000 built but over 12,000 lost on take-off or landings? Hindisghts 20/20, who's gonna tell Willy, hey buddy this is what you'll be known for, 109's are great for vertical and stall fights, but you are gonna lose 1 in 3.
From 1976 July Airpower Magazine, article by Leonard Kit Carson:
Object: to make the Me-109 a 400
mph plus airplane. Time ... 30 days. The
information and techniques required are
currently available as of 1940. It's all written
up in unclassified reports.
(1) Cancel the camouflage paint and go to
smooth bare metal. Besides the
weight, about 50 pounds, the grain
size is too large when it dries and it
causes turbulent friction over the entire
airplane surface. That may take a
phone call to the brass. They're emotional
about paint jobs. "Image," you
know.
(2) Modify the cockpit canopy. Remove
the inverted bathtub that's on there
now and modify as necessary to fit the
ME-209-VI canopy. That's the airplane
that set the world speed record in
1939.
(3) Get rid of the wing slats. Lock them
closed and hand fit a strip, upper and
lower surface, that will close the sheet
metal· gaps between the slat and wing
structure. That gap causes the outboard
15 feet of each wing to be totally
turbulent.
(4) As aerodynamic compensation for
locking the slats, set up jigs and fixtures
on the assembly line to put in 2
degrees of geometric twist from root
to tip, known as "washout."
(5) Modify coolant scoop inlet fairings.
The square corners that are there now
induce an unnecessary amount of
drag. Also lower inlet 1 to 2 inches below
wing surface to get it out of the
turbulence of the wing surface.
(6) Install complete wheel well fairings
that cover the openings after the gear
is retracted.
(7) Retract tail wheel.
All of the above could have been done in
30 days but it wasn't. I don't know why.
Someone would have to ask Willy ... it's
for him to say.
From 1976 July Airpower Magazine, article by Leonard Kit Carson:
Object: to make the Me-109 a 400
mph plus airplane. Time ... 30 days. The
information and techniques required are
currently available as of 1940. It's all written
up in unclassified reports.
(1) Cancel the camouflage paint and go to
smooth bare metal. Besides the
weight, about 50 pounds, the grain
size is too large when it dries and it
causes turbulent friction over the entire
airplane surface. That may take a
phone call to the brass. They're emotional
about paint jobs. "Image," you
know.
(2) Modify the cockpit canopy. Remove
the inverted bathtub that's on there
now and modify as necessary to fit the
ME-209-VI canopy. That's the airplane
that set the world speed record in
1939.
(3) Get rid of the wing slats. Lock them
closed and hand fit a strip, upper and
lower surface, that will close the sheet
metal· gaps between the slat and wing
structure. That gap causes the outboard
15 feet of each wing to be totally
turbulent.
(4) As aerodynamic compensation for
locking the slats, set up jigs and fixtures
on the assembly line to put in 2
degrees of geometric twist from root
to tip, known as "washout."
(5) Modify coolant scoop inlet fairings.
The square corners that are there now
induce an unnecessary amount of
drag. Also lower inlet 1 to 2 inches below
wing surface to get it out of the
turbulence of the wing surface.
(6) Install complete wheel well fairings
that cover the openings after the gear
is retracted.
(7) Retract tail wheel.
All of the above could have been done in
30 days but it wasn't. I don't know why.
Someone would have to ask Willy ... it's
for him to say.
So if I'm to understand, your theory is that lowering power on a piston engined WW2 made it turn better due to air being compressed between the lower wing and the prop?Let's just say L. K. Carson had zero understanding of the Me-109.
As an example, he claims the 109 had only one hour or so of endurance on internal fuel without drop tank, the famous "short Range": In fact, all the G models with WM-50 option had a simple switch to convert the MW tank to fuel (and a lot of them did just that) giving around 2 hours on internal fuel alone for most late 1944 models.
As Erich Brunotte stated, WEP (MW-50) was almost never used in combat, and the typical amount of power he used during combat, on his FW-190D-9, ranged from 0.9 to 1.2 ATA (out of an available 1.9 ATA!!!!)...
View attachment 821727
And no, the above quote is not about a cruising context: We are talking strictly combat... 13:17 "You knew it was on normal power but you pulled back even from there as you did not need that much in a fight."
View: https://youtu.be/kOuVqP89058?si=1df2pyLkRuUQVyJK
I theorise this is because more power flattened the turn-induced deflection squeezing the air between the low wing and the prop. (Squeezed air, unlike traffic, accelerates). Accelerated air over a low wing increased lift. You can see the effect on finnish LaGG-3 tests where cruise power cuts 50-60 meters to the radius without any real change in turn times, and I think the swept wing leading edges on Russian types made the prop-wing squeezing effect much weaker...
This would explain why lowering power during turns, on low wing types, was such a universal WWII obsession...:
(Kyösti Karhila, 32 kill Fin ace, most on Me-109G-6 with gondolas): "I found that when fighter pilots got in a battle, they usually applied full power and then began to turn. In the same situation I used to decrease power. When the enemy decreased power, I used to throttle back even more." Interview by Finnish Virtual Pilots Association
Deflection squeezing the air between wing and prop explains why the FW-190A out-turned pretty much anything, but only at low speeds and reduced power: Shorter fatter radial noses squeezed the turn-deflected air even more...
LK Carson's suggestion of removing the wing slats is awful. Turning at low speeds was increasingly important by 1944, since Hit and Run was found to mostly require an unaware target and point-blank fire...
As to the turning qualities of the Me-109, let me quote Clostermann on the Me-109 vs Spitfire debate:
Audio from the Past [E16] - WW2 - Pierre Clostermann Interview (French)
(From 12:44)
Translation: "So there are legends about the Spitfire... Aaaahh the legends... Legends are hard to kill... One of those legends is that the Spitfire turned better than the Messerschmitt 109, or the FW-190. Well that is a good joke... In fact all those who found themselves with a 109 turning inside them, at low speeds, well those in general did not come back to complain about the legend... Why? Above 280 to 300 knots, the Spitfire turned better than the Me-109. But, first and foremost, in a turning battle, the speed goes down and down and down and down, and at one point there comes a time, when the speed has gone down below 200 knots, that the Me-109 turns inside the Spitfire."
Contrary to legend, the gear design allowed a more forward position on the wing, which allowed using full power for shorter take offs from rough strips: All Allied types nosed over at full power without crews sitting on the tail...
This gear made the 109 more suitable from rough short fields.
Not to mention the ease of recovery from woods (the gear acted like a trolley without the wings), where salvaging Soviet types required cutting down dozens of trees...
Despite the 2 bolt removable wing attachment system, the Me-109 strength exceeded the P-51's fixed wings at 13 G absolute to just 12 G on the Mustang.
The Me-109s pilot protection was also way, way above average, with both the fuel and pilot having armour plates, one of them being an aluminium rear fuselage bulkhead made of 30 skin sheets bolted together, giving a 20 mm total thickness (but actual 18 mm thickness in solid aluminium). (The FW-190A's fuel protection was inferior, though I still think it was a better low altitude fighter)
As pointed out in the video below, unlike steel, aluminium armour is not weakened by extreme cold temperatures encountered as early as 15 000 feet. In addition to that, the pilot had his own steel armour...
View: https://youtu.be/uIw_STlQCq8?si=Zrjb5_09dOhlE-5P
The only thing the Me-109G really needed was to carry more firepower. It already could do so with underwing 20 mm gondolas, but these had only 120 rounds which is ok but not great... (They also sometimes jammed in harsh turns)
The 30 mm nose cannon was (probably?) a good thing, despite the low round count.
I think the biggest improvements to the Me-109 would have been reliable underwing gondolas with 30 mm Mk 108s, with at least 75-100 rounds each, and maybe a slightly bulged canopy in the manner of the Avia S-199.
Beyond that, radial engines made for better dogfighters at low-medium altitudes, and certainly the large Spitfire wing was superior at extreme altitudes (above 25 k). The Me-109 had many qualities that are not emphasized enough (in particular its toughness), and I think its only serious limitations were its firepower and ammo count. It was just plain inferior in this regard. The nose 20 mm could not even reliably carry its full 180 rounds with good reliability: They had to cut the belt to 150 or so rounds, with a wood spacer. Russian nose guns (and the Spitfire wing guns) were even lower at 120 rounds... That being said I would still choose a Spitfire over a gondola-less Me-109 just based on the firepower alone.
I would definitely want my Me-109G always with underwing 20 mm gondolas: This is what Karhila always chose to fly, and despite a dense combat environment his aircraft was never hit... US .50 6 gun batteries were probably a better idea in actual use, but they certainly jammed a lot on the P-51B through D (500 to 1100 mrbf). The P-38 had 3600 mrbf (mean rounds between failures) and that, plus the centralised location, gave it the best armament of them all, though I am not a fan of the type. The P-47 was around 1500-2100 mrbf.
The importance of firepower is not understood enough because of the effect of videogames: The 480 rpm rate of fire of the A6M Zero wing guns was probably its biggest overall downfall.... Saburo Sakai even claimed most of its kills were achieved using the 7.7 mm guns alone...
View attachment 821726
So if I'm to understand, your theory is that lowering power on a piston engined WW2 made it turn better due to air being compressed between the lower wing and the prop?
I imagine Russian and Japanese fighters operated in similarly adverse conditions yet their tailwheels were much smaller. Wonder why that was so?Rectactible tailwheels were going to be a problem for the Luftwaffe. Not because of the mechanism, they were as good as anyone else at design. It was much more due to weather and terrain.
Germany was being attacked on a daily basis after daylight bombing started and the fighters (and bombers and everything else) were scattered about in what were basically farmer's fields. They were soft and muddy and not prepared for aircraft use, and rectactible tailwheel mechanisms were getting plugged up with mud on a regular basis. Not so much on main wheels that were bigger and quite a distance from the wheel well, but definitely from smaller wheels that were only a short distance from the tailwheel bay.
It wasn't insumountable and could be made to work, but it DID cause a lot of problems and take labor took was otherwise needed on the airframes and engines. When they GOT recractible tailwheels, they often disabled them if they proved to be difficult. Got that from from a former Luftwaffe mechanic more than 20 years ago.
I have no personal knowledge that confirms or refutes the assertion, but it seems like a good place to throw it in here for consideration.
Not too sure they generally operated in similar conditions. The Japanese were known to build airfields in many places wherever they went with prepared runway surfaces. They were pretty good at it.I imagine Russian and Japanese fighters operated in similarly adverse conditions yet their tailwheels were much smaller. Wonder why that was so?
The explanation with small, solid rubber tailwheels on carrier aircraft is sound.Not too sure they generally operated in similar conditions. The Japanese were known to build airfields in many places wherever they went with prepared runway surfaces. They were pretty good at it.
The Russians were more noted for operating wherever they could and improvised local airfields.
My bet is that with the well-known range of Japanese warplanes, they operated MUCH more frequently from prepared airfields than the Russians ever did once the Russians were away from home airfields. But, yes, I'm sure they sometimes operated in similar conditions. When you mention smaller tailwheels, are you thinking of IJN aircraft that operated mainly from carriers and many times has small, solid rubber tailwheels? IJA airplanes didn't necessarily especially have small tailwheels as there was no requirement for carrier landings.
But, that subject seems like a decent thing to look into. I have never especially paid any attention to relative tailwheel size of IJN versus IJA aircraft. I CAN say that the Planes of Fame has a flying A6M-5 Model 52, a static J2M, a static D4Y and a D3A awaiting restoration. All are Naval aircraft. All except the D3A have small, solid rubber tailwheels. The D3A has what looks like the same size tailwheel as the Bf 109, which is considerably larger than the others.