Jason Jorjani

It happens to our bodies. It happens to the whole universe. Okay.

It happens to our bodies. It happens to the whole universe. Okay.

It happens to our bodies. It happens to the whole universe. Okay.

and so this is where they postulate the so-called heat depth of the universe that at a certain point the entropy will become so great that first you know galaxies are pulled apart then solar systems are pulled apart then planets are pulled apart and eventually atomic structures are pulled apart and life becomes non-viable in the universe heat death of the universe at victory of entropy that's the second law of thermodynamics so shannon says look

and so this is where they postulate the so-called heat depth of the universe that at a certain point the entropy will become so great that first you know galaxies are pulled apart then solar systems are pulled apart then planets are pulled apart and eventually atomic structures are pulled apart and life becomes non-viable in the universe heat death of the universe at victory of entropy that's the second law of thermodynamics so shannon says look

and so this is where they postulate the so-called heat depth of the universe that at a certain point the entropy will become so great that first you know galaxies are pulled apart then solar systems are pulled apart then planets are pulled apart and eventually atomic structures are pulled apart and life becomes non-viable in the universe heat death of the universe at victory of entropy that's the second law of thermodynamics so shannon says look

If bits, binary digits, meaning information, is flowing through a computer system, that computer system is in the physical world, meaning it's bound by the laws of entropy. Meaning it's bound by the laws of entropy. Okay? So... Then there's this German Jewish physicist, Rolf Landauer. He came over with the other German Jews who were fleeing the Nazis.

If bits, binary digits, meaning information, is flowing through a computer system, that computer system is in the physical world, meaning it's bound by the laws of entropy. Meaning it's bound by the laws of entropy. Okay? So... Then there's this German Jewish physicist, Rolf Landauer. He came over with the other German Jews who were fleeing the Nazis.

If bits, binary digits, meaning information, is flowing through a computer system, that computer system is in the physical world, meaning it's bound by the laws of entropy. Meaning it's bound by the laws of entropy. Okay? So... Then there's this German Jewish physicist, Rolf Landauer. He came over with the other German Jews who were fleeing the Nazis.

And in 1961, Rolf Landauer builds upon Claude Shannon's groundwork in information theory. And he comes up with this equation, which I have in Satanion. He comes up with this very short, elegant equation, extrapolated from out of the second law of thermodynamics, which says that If you delete one bit of information, there should be an increase of entropy outside of the computer system.

And in 1961, Rolf Landauer builds upon Claude Shannon's groundwork in information theory. And he comes up with this equation, which I have in Satanion. He comes up with this very short, elegant equation, extrapolated from out of the second law of thermodynamics, which says that If you delete one bit of information, there should be an increase of entropy outside of the computer system.

And in 1961, Rolf Landauer builds upon Claude Shannon's groundwork in information theory. And he comes up with this equation, which I have in Satanion. He comes up with this very short, elegant equation, extrapolated from out of the second law of thermodynamics, which says that If you delete one bit of information, there should be an increase of entropy outside of the computer system.

So think about it this way. On a microchip or a magnetic tape, when it's blank, when it's blank, you've got the equivalent of 00000 or 1111111. There's no data. Right. When you record data on it, you get 010011101. So actually, the blank tape has more order than when you start encoding information on it, when conceived in physical terms.

So think about it this way. On a microchip or a magnetic tape, when it's blank, when it's blank, you've got the equivalent of 00000 or 1111111. There's no data. Right. When you record data on it, you get 010011101. So actually, the blank tape has more order than when you start encoding information on it, when conceived in physical terms.

So think about it this way. On a microchip or a magnetic tape, when it's blank, when it's blank, you've got the equivalent of 00000 or 1111111. There's no data. Right. When you record data on it, you get 010011101. So actually, the blank tape has more order than when you start encoding information on it, when conceived in physical terms.

So because information is meaningful to us and like a file has a book on it, text on it, and the text has meaning to us, or a photographic image has a meaning content to us, we think of information as, let's say, decreasing entropy because we think of it as highly ordered because it's meaningful to us.

So because information is meaningful to us and like a file has a book on it, text on it, and the text has meaning to us, or a photographic image has a meaning content to us, we think of information as, let's say, decreasing entropy because we think of it as highly ordered because it's meaningful to us.

So because information is meaningful to us and like a file has a book on it, text on it, and the text has meaning to us, or a photographic image has a meaning content to us, we think of information as, let's say, decreasing entropy because we think of it as highly ordered because it's meaningful to us.

But when you think of it as a bunch of ones and zeros, sequences of ones and zeros, when you think of it inside of a physical system,

But when you think of it as a bunch of ones and zeros, sequences of ones and zeros, when you think of it inside of a physical system,