- Thread starter
-
- #21
Ad: This forum contains affiliate links to products on Amazon and eBay. More information in Terms and rules
Most pictures I've seen shows the gunner as he was during take off, and landing, sitting down.
But when you see films or pictures of them demonstrating use of the gun, a lot are standing up.
On most of the aircraft the upper rim of the cockpit is below hip level, it wouldn't take much of a upset to send you right over the side.
And even if they did have harnesses it probably would have only been leather. Plenty to keep you secure in a seat, but not overly strong for stopping falling bodies.
Wicker actually has a lot of 'give' and can absorb a lot of energy, so was fairly common. Don't forget, most accidents was fairly low-speed, low energy events, especially compared to WW2 aircraft. e.g my Tiger Moth comes across the fence at 55 mph, a Yak 3, 120 mph, so there it has more than 4.5 times as much energy to lose during a crash.I've seen a wicker seat in a lot of WW1 era aircraft.
When you're surrounded by about inch thick sticks of wood, joined by metal brackets, with tight wire holding it all in alignment, I don't think the type of seat could change the pilot's chances of surviving a crash much.
A good aluminum seat might make his body easier to find though.
Actually that form of construction was stronger than most would think, it just didn't perform very well during a crash.
The wicker actually makes a lot of sense given the rest of the primitive construction of the aircraft and need for light weight wherever they could find it. It was just the first time I had seen it.Wicker actually has a lot of 'give' and can absorb a lot of energy, so was fairly common. Don't forget, most accidents was fairly low-speed, low energy events, especially compared to WW2 aircraft. e.g my Tiger Moth comes across the fence at 55 mph, a Yak 3, 120 mph, so there it has more than 4.5 times as much energy to lose during a crash.
HOLY CREPE!!! One of these babies zooooming overhead at Mach 4.08 THAT has to be something to see!!! Not exactly an elephant but still...not want to be belowa Yak 3, 120 mph, so there it has more than 4.5 times as much energy to lose during a crash.
And window seats for everyone.
The Handley Page HP42 was an aircraft of the era but it only did 90MPH while cruising and could run out of fuel flying into a head wind London to Paris. The whole thing had less maximum horsepower than the last Spitfires, airsickness was a common problem.Once again physics. Aircraft structures can withstand a pressure differential of about 8psi. Humans cannot survive if the partial pressure of oxygen falls below 2.9psi. So supplemental oxygen is required to fly above 12,500ft for more than 30min and a must at 15,000ft. Commercial air liners begin to pressurize the cabin as soon as the wheels come up maintaining the cabin pressure at about 7,000ft though the aircraft may be at 35,000ft. That works out to about 11psi.
Ok back to windows, that's 11 pounds of pressure on each and every square inch of surface, A window 1ft in diameter has 113sq in of surface so it must withstand 1244 pounds of force. Making the window 2ft in diameter must withstand 4976 pounds of force or 4 times as much pressure