Like I said, all biologists see it and admit to it.
And like I said,
this does not make it objective. I keep asking you for an objective measure of design - some objective function we can use to get "was/was not designed" from the object itself, and you keep on not delivering. The appearance of design is
not evidence for design, no matter how many times you make that bogus claim. And the biologists you're appealing to?
They know that. They agree with me, and disagree with you! Because there is no objective model to determine whether an object is designed given only the object.
You do realize why we keep linking you to boxcar2d.com, right? If you leave that running for a few hours, you'll end up with cars that look designed! They'll look optimized, streamlined, and functional. They'll appear to have complexity, have a purpose, and do their job well. And yet their production was through a semi-random evolutionary algorithm. There's no design in that system. Those cars
evolved. And we can see this in all kinds of genetic algorithms. It's not a novel thing; we do this
all the time. In fact, it's a fairly common thing in industry to use such evolutionary algorithms to design a better product... Even though, in reality, it's not really "design" in the way you think it is. It's an optimization protocol, but it's not
designed from the top down. You've claimed in the past that Dawkins has no evidence for the "appearance of design" being due to evolution... I'd say this is pretty good evidence that evolution can produce that appearance of design. Well, this, and the human eye, and bacterial chemotaxis, and all the other complex systems people have pointed to as evidence of design that the evidence shows clearly evolved.
Interesting. So basically, genetics is causing some minor discrepancies in the tree of life, where morphology was not perfectly distinct. This is sort of to be expected - morphology is necessarily more imprecise than DNA, as you must first quantize the physical characteristics somehow, while you can just plug a genome straight into an algorithm to compare them. I'll admit I don't
understand the second paper or what it's trying to say, and I don't have access to the fulltext. Would you care to summarize it?
First, the limit on mutations is tied to the fact that 'junk' DNA is disappearing fast. What is left is even more complex than previously thought. DNA not only reads forward and backward; it has multiple overlapping sections, and has codes that require input from other sections of the DNA.
First of all, please demonstrate that junk DNA is declining. Secondly, what does that have to do with mutations in coding regions? "Junk" DNA is a catch-all term that applies to non-coding gene regions. It's not garbage, it's not all useless, it simply doesn't code for proteins.
Limits on adaptation. Start with dogs. Fruit fly experiments. The lowly sugar beet. For all the breeding, cross-breeding, inbreeding, and in the case of fruit flies, throwing every possible mutation at them, none came up with anything new.
If we remove human influence, would chihuahuas and great danes interbreed? I don't think so. In fact, were we to isolate the two groups, it's entirely reasonable to claim that they would at some point become different species. But of course, it's perhaps worth noting that very few of these experiments were
trying to produce different species. And the claim that none of them came up with anything new is nonsense. Lenski's long-term E. Coli experiment produced a novel mutation in a group of E. Coli
that produced a transporter protein for citrate that works in an aerobic environment. That's something new, no matter how you want to slice it.
The fruit fly experiments which were
trying to produce different species achieved a degree of
reproductive selection - the first steps in speciation. How long would we expect it to take for a full-blown speciation event? I have no idea, but somehow I get the feeling we'd need a fairly decent amount of time.