Since biological systems are not isolated due to the continuous input of energy, they do not violate the 2nd law, which pertains ONLY to isolated systems.
Wrong. Would you agree that humans are more complex that most single celled organisms? If you do, then explain why Amoeba dubia has a genome that is 200 times larger than that of humans, or salamanders and lilies, which contain more than ten times the amount of DNA that is in the human genome, yet these organisms are clearly not ten times more complex than humans. .
Complexity does not depend on the amount of genes present in the organism. It depends on the amount of non-coding DNA present, that is, DNA that does not code for proteins. The thousandfold greater size of the human genome compared to that of E. coli is not due solely to a larger number of human genes. The human genome is thought to contain approximately 100,000 genes—only about 25 times more than E. coli has. Much of the complexity of eukaryotic genomes thus results from the abundance of several different types of noncoding sequences, which constitute most of the DNA of higher eukaryotic cells.
That is not what I am saying.
That is exactly what you were saying. Don't you even read your posts?
Not true at all. Many "new traits" simply come from already existing genes that are turned off or turned on, depending on the trait. For instance, if you want humans with tails, simply turn on the genes that already exists in our genome for tails.
It was the new genetic information that would cause a change that would make an organism more complex.
Wrong. See above.
Humans walk differently,have morals,more intelligent, that is just a few of the traits that makes a human more complex than other primates.
I don't know about that. You don't see chimpanzees destroying the planet, do you?
You underestimate the complexity of other primates, both anatomically, and socially/intellectually.
And yet, we share many traits with our other primate cousins. For instance, traits we share with all other primates:
1) Forward-facing eyes for binocular vision (allowing depth perception)
2) Increased reliance on vision: reduced noses, snouts (smaller, flattened), loss of vibrissae (whiskers), and relatively small, hairless ears
3) Color vision
4) Opposable thumbs for power grip (holding on) and precision grip (picking up small objects)
5) Grasping fingers aid in power grip
6) Flattened nails for fingertip protection, development of very sensitive tactile pads on digits
7) Primitive limb structure, one upper limb bone, two lower limb bones, many mammalian orders have lost various bones, especially fusing of the two lower limb bones
8) Generalist teeth for an opportunistic, omnivorous diet; loss of some primitive mammalian dentition, humans have lost two premolars
9) Progressive expansion and elaboration of the brain, especially of the cerebral cortex
10) Greater facial mobility and vocal repertoire
11) Progressive and increasingly efficient development of gestational processes
12) Prolongation of postnatal life periods
13) Reduced litter size—usually just one (allowing mobility with clinging young and more individual attention to young)
14) Most primates have one pair of mammae in the chest
15) Complicated social organization
Just 4% of our genome separate us from Bonobos.