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It's actually happening.

Actually, it makes tons of sense, and I'm surprised it hasn't happened sooner.

Lets say a catastrophe happens aboard a Soviet spacecraft. A US spacecraft is on orbit. If the US spacecraft attempts a rescue operation in orbit, its a lot easier if the hatches link up without any issues.
 
Lets say a catastrophe happens aboard a Soviet spacecraft. A US spacecraft is on orbit. If the US spacecraft attempts a rescue operation in orbit, its a lot easier if the hatches link up without any issues.
The only problem is you're not going to see a US spacecraft in orbit for a long time after June. With Bush and Obama teaming up to kill the space shuttle (and the cancellation of it's replacement), it's going to be a very long time before a US manned spacecraft is in orbit.
 
It wouldn't likely be a Soviet space craft either, seeing as the ussr collapsed in 1991. It's to bad that not enough people seem to care about getting into space. I wonder how long it will be before commercial space flights become available and decently priced. (the price of going on the VSS Enterprise is an estimated 200,000$ dollars.)
 
Actually, it makes tons of sense, and I'm surprised it hasn't happened sooner.

Lets say a catastrophe happens aboard a Soviet spacecraft. A US spacecraft is on orbit. If the US spacecraft attempts a rescue operation in orbit, its a lot easier if the hatches link up without any issues.

Of course, US spacecraft use a 100% Oxygen atmosphere at higher pressure while the Russians use a Nitrogen/Oxygen atmosphere at lower pressure.
 
Actually, it makes tons of sense, and I'm surprised it hasn't happened sooner.

Lets say a catastrophe happens aboard a Soviet spacecraft. A US spacecraft is on orbit. If the US spacecraft attempts a rescue operation in orbit, its a lot easier if the hatches link up without any issues.

Of course, US spacecraft use a 100% Oxygen atmosphere at higher pressure while the Russians use a Nitrogen/Oxygen atmosphere at lower pressure.

And don't forget the midget hookers.
 
Actually, it makes tons of sense, and I'm surprised it hasn't happened sooner.

Lets say a catastrophe happens aboard a Soviet spacecraft. A US spacecraft is on orbit. If the US spacecraft attempts a rescue operation in orbit, its a lot easier if the hatches link up without any issues.

Of course, US spacecraft use a 100% Oxygen atmosphere at higher pressure while the Russians use a Nitrogen/Oxygen atmosphere at lower pressure.

Actually, the U.S. DOESN'T use a 100% oxygen atmosphere (they stopped that after the Apollo 1 launchpad fire.)
 
Actually, it makes tons of sense, and I'm surprised it hasn't happened sooner.

Lets say a catastrophe happens aboard a Soviet spacecraft. A US spacecraft is on orbit. If the US spacecraft attempts a rescue operation in orbit, its a lot easier if the hatches link up without any issues.

Of course, US spacecraft use a 100% Oxygen atmosphere at higher pressure while the Russians use a Nitrogen/Oxygen atmosphere at lower pressure.

Actually, the U.S. DOESN'T use a 100% oxygen atmosphere (they stopped that after the Apollo 1 launchpad fire.)

That happened because they had it pressurized at sea level. US spacecraft use 100% Oxygen, they just don't over-pressurize on the pad.

The Apollo-Soyuz Test Project had to counter the differences because the Russians used O/N at sea level pressure while the US used O at 5 PSI.
 
Lets say a catastrophe happens aboard a Soviet spacecraft. A US spacecraft is on orbit. If the US spacecraft attempts a rescue operation in orbit, its a lot easier if the hatches link up without any issues.

Or... they trail blaze and use the cargo transporter, even though it's not approved to transport sentient beings yet. :rommie:
 
Of course, US spacecraft use a 100% Oxygen atmosphere at higher pressure while the Russians use a Nitrogen/Oxygen atmosphere at lower pressure.

Actually, the U.S. DOESN'T use a 100% oxygen atmosphere (they stopped that after the Apollo 1 launchpad fire.)

That happened because they had it pressurized at sea level. US spacecraft use 100% Oxygen, they just don't over-pressurize on the pad.

The Apollo-Soyuz Test Project had to counter the differences because the Russians used O/N at sea level pressure while the US used O at 5 PSI.

The U.S. stopped using low pressure O2 system after Apollo. The shuttle uses a standard mix & pressure as does the ISS.

"Our atmosphere is a mixture of gases (78 percent nitrogen, 21 percent oxygen, 1 percent other gases) at a pressure of 14 lbs/in2 (1 atm) that we breathe in and out. The space shuttle must provide a similar atmosphere. To do this, the orbiter carries liquid oxygen and liquid nitrogen in two systems of pressurized tanks, which are located in the mid-fuselage (each system has two tanks for a total of four tanks). The cabin pressurization system combines the gases in the correct mixture at normal atmospheric pressure. While in orbit, only one oxygen-nitrogen system is used to pressurize the orbiter. During launch and landing, both systems of each gas are used."

http://science.howstuffworks.com/space-shuttle4.htm
 
1. The Apollo I disaster occurred because of a combination of moderately bad ideas, rather than one horrendous one, as well as workmanship so bad that it would have been laughable, had the result not been so tragic.

To wit, the wiring and plumbing on that particular spacecraft had been worked and reworked, repeatedly, partly because of design changes, but mainly because it had been ill-fitting in the first place. This led to leaks in the plumbing, and arcing in the wiring. The tolerance for combustibles (and particularly for those that would produce toxic fumes) in the spacecraft had become very lax since Mercury and Gemini. And because with the spacecraft pumped down to the standard U.S. orbital atmosphere of pure oxygen at 5 PSI absolute, air was leaking in through faulty seals (not something you would want to launch into orbit with three people aboard!), the people responsible for the ground test, rather than calling it off, or adjusting the systems to tolerate an atmosphere of ordinary air, they pumped it up to hyperbaric pure oxygen. And then there was the hatch design: in light of the incident with the explosive hatch firing prematurely on Liberty Bell 7 (and Gus almost drowning as a result), they overcompensated, fitting the spacecraft with a hatch that required minutes -- not seconds -- to open or close, and that couldn't be opened at all if the interior pressure was higher than the exterior pressure.

Starting with Apollo 7, Apollo launched with a modified oxygen-nitrogen atmosphere that was gradually replaced with 5 PSI pure oxygen during boost and the first few orbits (I believe the suit atmosphere was still pure oxygen before launch, and Apollo astronauts launched fully suited.)

2. I've seen pictures of this new standard docking ring before; I think Popular Science ran an article about it some years ago.

3. We actually had an androgynous docking system since the late 1970s: the Apollo-Soyuz Test Project, although it used the standard Apollo probe-and-drogue between the Apollo spacecraft and the Docking Module, it used a "ring-and-petal" system, completely peripheral, between the DM and the Soyuz. We never did anything more with it, though, probably because (1) it was the final flight of Apollo hardware, and (2) unlike the Soviet Union, which customarily used aerodynamic nosecones over their spacecraft, NASA customarily designed its manned spacecraft to function as aerodynamic nosecones by themselves (with a tight-fitting "boost protective cover" over Apollo), and three projecting capture petals would have ruined the aerodynamics, or required a looser, heavier, BPC.

In fact, I was under the impression that something like what NASA is describing was already in use for the shuttle docking port.
 
I'm also reminded of a scene in Roald Dahl's novel, Charlie and the Great Glass Elevator,in which Wonka assures Charlie and his family (as they're approaching the "Space Hotel USA") that his elevator could "link up with anything."
 
I just hope they don't switch back to metric without telling us.

Funny story I heard at JPL, apparently they had an insanely expensive Mars lander and two of the teams on the project had a little problem. One programmed in metric, the other in American measurements. The result was that it plummeted into Mars at full speed.
 
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