linknoid
Joined 6 years ago
Joined 6 years ago
A beaver might instinctively know how to build a dam because it's built into its DNA, but a human can read the writings of past dam builders, learn the abstract theory of dam building, come up with their own improvements, debate those changes with other people interested in dam building, communicate their design to dam builders, and publish their work to become a permanent part of dam building literature. For a beaver to change how it builds dams, it would require a change in their DNA to pass on to future generations.
I'm almost expecting a few years down the road, Microsoft will go back on 4.8 being end-of-the-line for .NET 4 and start releasing new minor versions of it because of all the customer code that can't be ported to .NET 5. Or maybe it will just end up like VB6. Stuff written in it still works, and will continue to work, but it's considered a dead language.
The worst thing I've experienced with Dvorak is typing "ls<enter>" repeatedly. It's really painful on the pinky. Putting L on the right pinky stretch was a really bad decision.
One advantage Dvorak has over Colemak is that it's included with every OS and easy to switch to, whereas Colemak often requires a download and an install to use. And some games include Dvorak keybindings, but I haven't seen one with Colemak keybindings yet.
I learned Dvorak back in college, and got fast by playing muds. Type fast, or you're dead. Took a few months to get up to speed.
"Access Denied You don't have permission to access "http://www.costco.com/" on this server."
Is this from running NoScript? Or does it affect all Firefox users? (Also the URL is https://, not http://, so the error message doesn't match the URL).
So we have a hydro-carbon, we mix it with oxygen, and the oxygen combines with the hydrogen and the carbon, and releases heat as a byproduct. The heat energy increases the pressure of the newly created CO2. This higher pressure is placed on one side of a turbine or a piston, and we extract useful work by moving it from a high density state to a low density state, causing it to cool in the process.
Now it seems like if you want to re-concentrate that CO2, it should take at least as much work to compress it back to its original size as it released when you burned it in the first place, and probably a lot more, because the CO2 has been diffused into the general atmosphere.
To state it more succinctly, we extract work through a pressure differential, and by reversing that pressure differential, won't that require more work than we got out in the first place by the second law of thermodynamics?
I ignored the part where part of the energy is coming from the hydrogen. Is the hydrogen -> water where most of the energy is coming from, and the carbon part relatively insignificant?