I see your analogy, but in the biological world its not a random stack of dropped peices. The peices are carefully arranged. And not only that, the arrangement is passed on and duplicated. A better analogy is a game of telephone. Where one individual says something and tells it to another. Eventually the information changes. But unlike telephone there is also constant reinforcement and communication which resists change. Also in telephone the phrase is unrestricted in scope and content. This is obviously not the case in a biological system.Kurieuo wrote:Perhaps it would be worthwhile stating what you're setting out to prove (or disprove?), because it just isn't obvious to me where you are going and this makes discussion difficult. Yet a few comments anyway...
You appear to already be starting with the pre-existing blood clotting system within which the proteins already seem finely-tuned to interact with each other (i.e., are the right shape, get activated and switched off at the right time, etc.).
Additionally, it is quite easy to conceive of duplication happening due to say a regulatory protein malfunctioning. Yet, is true complexity really being added within your example? Perhaps so. If I drop a stack of scrabble tiles on the ground, I think in some way the random end result would be complex. And if I threw another stack down for good measure, then it could perhaps be said further complexity was added. On the other hand if I walked into a room and saw some scrabble tiles forming the sentence, "up for scrabble" the significance to such an arrangement might make me conclude that someone wants to play Scrabble. Here we not only have complexity, but specified information within complexity, each letter being "finely-tuned" to another if you will. If I left and came back a few minutes later to see "pretty please" added, then we not only have new complexity like throwing a second stack of tiles down, but new information complexity. Your example perhaps satisfies criteria for complexity, but not information complexity. For that, I see you need something further. But I'm really not sure whether what I've written is worthwhile to this discussion, since you are holding your cards very close to you.
Kurieuo
As to the point on duplication, its not quite what you stated.
Lets say we have a DNA strand with the following genes
p13 - p14 - junk - l34 - p33
duplication would be
p13 - p14 - p14 - junk - l34 - p33
The gene is duplicated.
When the transcriptase comes to read the DNA it can follow the duplicated gene twice. IE both genes can still express.
I am sorry if I am raising suspicions. That is not my intent, I only wish to inform. My motivation is quite simple.