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fastmongrel
1st Sergeant
but I believe Hellcats had difficulty intercepting C6N's as well
To be fair I cant think of any wartime carrier aircraft could reliably catch a C6N it was a speedy bird.
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but I believe Hellcats had difficulty intercepting C6N's as well
Interesting as they had certainly been at the forefront of development of Naval Aviation between the wars.
It wasn't just the Hurricane that couldn't catch the Ju 88, neither could the Seafire IIc during Operation Torch, which is why it was given the low rated Merlin 32 to become the LIIc and hopefully everyone knows what happened to that one at Salerno. IIRC not a single victory although it did manage to drive off the Fw 190A jabo's.The former. I was just making a statement that Hurricanes not catching Ju-88's was not usual.
I may be mistaken, but I believe Hellcats had difficulty intercepting C6N's as well
Only the Corsair, IIRC.To be fair I cant think of any wartime carrier aircraft could reliably catch a C6N it was a speedy bird.
Only the Corsair, IIRC.
This statement is a little disingenuous. With the exception of the Fairey Flycatcher and the postwar Supermarine Attacker and Scimitar, every single seat fighter operated by the RN since the beginning of naval aviation has been either a shared RAF design or an off the shelf USN type. The arguably, very best carrier based piston fighter of all time, the Hawker Sea Fury was a RAF type, and the FAA did just fine with it. Sharing a type with the RAF isn't worthy of Captain Brown's scorn or stigma.In his book "Wings of the Navy" Winkle Brown made an interesting statement, "not a single British designed single seat purpose built naval fighter was employed at sea during WWII".
These are the same people who could not agree on the same 7.7mm small arms cartridge...........As a similarly small sized economy and industrial power (relative to the US), Japan made the same mistake as the British Fulmar/Firefly program in running dual track IJN and IJAF fighter programs. Instead, the Zero and Oscar should have been one type, with mods for sea and land use.
This statement is a little disingenuous. With the exception of the Fairey Flycatcher and the postwar Supermarine Attacker and Scimitar, every single seat fighter operated by the RN since the beginning of naval aviation has been either a shared RAF design or an off the shelf USN type. The arguably, very best carrier based piston fighter of all time, the Hawker Sea Fury was a RAF type, and the FAA did just fine with it. Sharing a type with the RAF isn't worthy of Captain Brown's scorn or stigma.
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I think Sir Sydney would approve !Finally got around to copying some of my old files and transferring them to my laptop.
Here are a couple of the side-view drawings of my notional SeaHurricane Mk III. As I mentioned in my post "Build a better Sea Hurricane 1938" the overall foot print would be 31' 2"L x 18' 6"W x 13' 1"H, so in the hangar the wings could only be folded or unfolded with them between the deep support beams.
View attachment 789263
View attachment 789264
Why not fold them backwards like on the Skua, Roc, Fulmar, Firefly or Firebrand? The added weight and complexity will give the benefit of lower height, overall compactness and a larger CAG.Here are a couple of the side-view drawings of my notional SeaHurricane Mk III. As I mentioned in my post "Build a better Sea Hurricane 1938" the overall foot print would be 31' 2"L x 18' 6"W x 13' 1"H, so in the hangar the wings could only be folded or unfolded with them between the deep support beams.
Hawker used aft folding wings on their 1930s two seat fighter, the Hawker Osprey. Note the pivot point seems to be around the rear spar. But that needed cut out sections in the trailing edge of the wings to allow it to happen.Why not fold them backwards like on the Skua, Roc, Fulmar, Firefly or Firebrand? The added weight and complexity will give the benefit of lower height, overall compactness and a larger CAG.
Interestingly, all of Hawker-Siddeley's carrier aircraft with folding wings (Sea Fury, Sea Hawk, Javelin and Buccaneer) used the vertical fold you proposed for the Sea Hurricane. Was there a patent issue, like Grumman's STO-Wing? Either way, you're likely on the right path. What about a dual fold to reduce height, like on the folding Seafire?
By how much does the overall height exceed 16ft (RN inter-war hangar height on most carriers) during the folding / unfolding process?re the type of wing break on my notional SeaHurricane.
Basically I just kept it as simple as possible, though I used an aluminum forging for the rib/bulkhead at the end of the inner wing for the hinges and locking mechanisms to be mounted on. I estimated the weight increase at around ~185 lbs IIRC. The locking pins were actuated by a simple hand lever moving 2 double-acting pistons that pushed the pins into place to lock the wing in flight position. KISS for the most part.
Just for fun I ran your question through Chatgpt. How accurate is this info?Question for our AP Mechanics, how did the control wires keep tension when wings were folded and unfolded?
thank you. I don't know first hand, but I would surprised if a tensiometer was used every time the wings were unfolded when spotted on deck, or were they?Just for fun I ran your question through Chatgpt. How accurate is this info?
On ww2 carrier aircraft, how did the control wires keep tension when wings were folded and unfolded?
In World War II carrier aircraft, especially those with folding wings like the Grumman F6F Hellcat or the Vought F4U Corsair, maintaining tension in control wires when the wings were folded and unfolded was a critical engineering challenge.
Here's how this was typically addressed:
Overall, the key was meticulous design and engineering of the control cable routing and mechanisms, ensuring that the control system remained effective and reliable even with the wings folded. This was crucial for the operational readiness of carrier-based aircraft during World War II, where space on the cramped carrier decks necessitated folding wings to conserve space.
- Pulley Systems: Aircraft control systems often used pulleys and cables to transmit control movements from the cockpit to the control surfaces (ailerons, elevators, rudder). These cables were routed through pulleys strategically placed throughout the aircraft's structure. When designing aircraft with folding wings, engineers would plan the routing of these cables so that they could accommodate the movement of the wings without losing tension.
- Slack Management: To prevent slack in the control cables when wings were folded, excess cable length would be carefully managed. This could involve mechanisms such as adjustable turnbuckles or tensioning devices that allowed for precise adjustment of cable length. These adjustments ensured that even with the wings folded, the control cables remained taut enough to maintain effective control.
- Hinged Connections: The connections where the control cables met the movable surfaces (ailerons, elevators, etc.) and the control stick or pedals were often designed with hinged joints. These allowed for movement as the wings were folded or unfolded, accommodating changes in cable length without losing tension or affecting control responsiveness.
- Spring-Loaded Pulleys: In some designs, especially for critical control surfaces like ailerons, spring-loaded pulleys were used. These pulleys automatically adjusted their position slightly to take up slack or maintain tension as the wings moved. This design feature helped in ensuring that control responses remained consistent regardless of the position of the wings.
- Engineering Tolerance: Engineers designed the entire control system with careful consideration of the movements involved in folding and unfolding the wings. By calculating the range of movement and the corresponding changes in cable length, they could ensure that there was enough tolerance built into the system to prevent issues like excessive slack or loss of tension.
This explains how a Corsair could take off with wings folded and fly.Just for fun I ran your question through Chatgpt. How accurate is this info?
On ww2 carrier aircraft, how did the control wires keep tension when wings were folded and unfolded?
In World War II carrier aircraft, especially those with folding wings like the Grumman F6F Hellcat or the Vought F4U Corsair, maintaining tension in control wires when the wings were folded and unfolded was a critical engineering challenge.
Here's how this was typically addressed:
Overall, the key was meticulous design and engineering of the control cable routing and mechanisms, ensuring that the control system remained effective and reliable even with the wings folded. This was crucial for the operational readiness of carrier-based aircraft during World War II, where space on the cramped carrier decks necessitated folding wings to conserve space.
- Pulley Systems: Aircraft control systems often used pulleys and cables to transmit control movements from the cockpit to the control surfaces (ailerons, elevators, rudder). These cables were routed through pulleys strategically placed throughout the aircraft's structure. When designing aircraft with folding wings, engineers would plan the routing of these cables so that they could accommodate the movement of the wings without losing tension.
- Slack Management: To prevent slack in the control cables when wings were folded, excess cable length would be carefully managed. This could involve mechanisms such as adjustable turnbuckles or tensioning devices that allowed for precise adjustment of cable length. These adjustments ensured that even with the wings folded, the control cables remained taut enough to maintain effective control.
- Hinged Connections: The connections where the control cables met the movable surfaces (ailerons, elevators, etc.) and the control stick or pedals were often designed with hinged joints. These allowed for movement as the wings were folded or unfolded, accommodating changes in cable length without losing tension or affecting control responsiveness.
- Spring-Loaded Pulleys: In some designs, especially for critical control surfaces like ailerons, spring-loaded pulleys were used. These pulleys automatically adjusted their position slightly to take up slack or maintain tension as the wings moved. This design feature helped in ensuring that control responses remained consistent regardless of the position of the wings.
- Engineering Tolerance: Engineers designed the entire control system with careful consideration of the movements involved in folding and unfolding the wings. By calculating the range of movement and the corresponding changes in cable length, they could ensure that there was enough tolerance built into the system to prevent issues like excessive slack or loss of tension.
I assume you mean the LTV A-7 Corsair?This explains how a Corsair could take off with wings folded and fly.