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originally posted by: waftist
Perhaps the universe is a simulation and we are all characters in a game being controlled by some individual, and their mistakes/choices in our journey affect our outcomes?
originally posted by: NightSkyeB4Dawn
a reply to: Blue Shift
Reminds me of this.
originally posted by: neoholographic
How did traits evolve? How does a beneficial traits evolve? How does any trait evolve? Where does the ability for random traits to evolve that just happen to benefit the organism to survive in an environment?H ow does the ability for parts of an eye evolve? Or parts of molecular machines? Or parts of lungs, toes, toenails a hand with fingers? Where does this ability come from and how can it occur without pre existing intelligent design?
originally posted by: NightSkyeB4Dawn
a reply to: Blue Shift
Evolution = reprogramming?
originally posted by: vethumanbeing
originally posted by: Blue Shift
originally posted by: NightSkyeB4Dawn
a reply to: Blue Shift
Evolution = reprogramming?
Do you write code, if so (being an instant results sort of person) you are not going to wait a few million years to see that code operate.
originally posted by: NightSkyeB4Dawn
a reply to: Blue Shift
Reminds me of this.
originally posted by: vethumanbeing
originally posted by: Blue Shift
originally posted by: NightSkyeB4Dawn
a reply to: Blue Shift
Evolution = reprogramming?
Do you write code, if so (being an instant results sort of person) you are not going to wait a few million years to see that code operate.
originally posted by: Blue Shift
originally posted by: vethumanbeing
originally posted by: Blue Shift
originally posted by: NightSkyeB4Dawn
a reply to: Blue Shift
Evolution = reprogramming?
Do you write code, if so (being an instant results sort of person) you are not going to wait a few million years to see that code operate.
What's a few million years if you're traveling at relativistic speeds? Or if your lifeform is essentially immortal? Could be like waiting for code to compile.Also, life writes and modifies its own code on the fly using sentience. Maybe the programmer would just have to stop by occasionally to see if it hasn't been obliterated. And if so, no problem. It's just one out of billions.
originally posted by: Alien Abduct
originally posted by: vethumanbeing
Oh but time is relative sir, as Einstein has shown. Now throw in a few extra dimensions and see that they could be observing us from another dimension where time as we know it doesnt exist at all.
Alien Abduct: Or perhaps a good analogy could be such as a mote of bacteria oblivious to the space outside of its petri dish, oblivious to the entire world outside of its petri dish. Being observed by it's watchers. Its entire life goes by yet just a few seconds for its observer.
originally posted by: Blue Shift
One bird way back when figures out a couple of tweets first that seem to attract females better then the others (for some reason), then more notes and phrases are added on as the generations pass? How the hell does that even work, and where is that information stored? Proteins?
originally posted by: Blue Shift
What's a few million years if you're traveling at relativistic speeds? Or if your lifeform is essentially immortal? Could be like waiting for code to compile.
originally posted by: cooperton
That would be like a programmer for apple running a random number generator for 14 billion years until it created some useful code, instead of using his intellect to just write the code asap. Granted that the Coder of the universe has omniscience, I don't suppose it would rely on random mutations to create its masterpiece.
originally posted by: Barcs
Another useless thread repeating all the same bull# as always. Maybe one day an honest creationist will post here and not need to lie about genetics and evolution. Wishful thinking LOL.
The idea that gene duplication could result in genes with new functions has been around for awhile. Geneticist Susumu Ohno explained the theory in detail in 1970. He argued that duplication is the most important evolutionary force—more powerful than genetic drift, for example. Scientists are still working out the specifics because the vast majority of mutations eventually arising in the duplicates are harmful, meaning they result in function loss; the duplicates would need to stick around for generations before acquiring helpful mutations. But the model required that natural selection should spare the extra gene copies until they had a chance to change for the better.
This model takes note of the fact that many genes do their primary job of coding for a particular protein very well, but also have a weak secondary function that may become important under certain environmental stressors. For example, one gene might code for a protein that helps bacteria gobble glucose, but also allows the bacteria to snack on starchy cellulose. If all sugar disappears from its environment and only cellulose remains, the bacteria that have this gene will have the capacity to eat more cellulose and therefore be selected for over time and endure. Andersson and Roth's model posited that beneficial mutations already present by chance would be favored by natural selection and stick around in the genome. When the gene is amplified through the duplication, the extra copies give rise to new genes that are better at performing the secondary function, thereby making it prime. "The key is that it never goes off selection," Roth says.
In a study in the journal Science, Andersson, Roth and their colleagues demonstrate the process in lab-grown Salmonella enterica. They grew one strain missing a gene key for expressing the essential amino acid tryptophan. The strain needed to rely on another gene, which had a primary job but also a weak ability to take on the missing gene's work. The researchers encouraged the bacteria to duplicate the overworked gene, and its copies gathered mutations—some of which enhanced tryptophan production. At the end of a year's time (3,000 generations later) the bacteria had one gene that did the original job and a second that had evolved a new primary function—manufacturing tryptophan.