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If the researchers were adhering to due diligence, they would not make such claims until such a protein was found proving that this was evolution through genetic mutation.
originally posted by: rnaa
a reply to: Xenogears
Information is not created nor destroyed.
Conservation laws, when they exist, apply to closed systems. Biological organisms are NOT closed systems. If there is such a thing as 'Conservation of Information' (there is), it cannot be applied to biological organisms.
'Conservation of Information' in actual Information Systems Theory applies to actual CLOSED systems of software and hardware systems. We can understand such CLOSED systems and model them and depend on the results. We have no such confidence in OPEN systems such as biological systems. The entire subject, applied to biological systems is based on a fallacious stretching of an analogy beyond the bounds of credibility.
Even simple numbers such as pi are said to already contain all possible information.
Really? Do you have the beginning of a clue what 'information' is in information systems? There is a very rigorous definition, you know. And Pi isn't it.
Just because Pi is an infinite sequence of non-random and non-repeating digits doesn't mean that it contains any information what-so-ever, let alone 'all possible information'. While the argument can be made that because it is infinite then at some point in the sequence it must contain the encoded works of Shakespeare; that argument does not imply that it contains information.
Also Pi is not simple.
originally posted by: Astyanax
a reply to: cooperton
Resistance was present in a number of individuals within the population. After the event, it was present in the whole, or nearly the whole population. That is what evolution means.
originally posted by: rnaa
a reply to: cooperton
Actually they did that. They very carefully sequenced the DNA of the bacteria at each stage and mapped exactly what was happening at each stage of the evolutionary process.
originally posted by: cooperton
originally posted by: Astyanax
a reply to: cooperton
Resistance was present in a number of individuals within the population. After the event, it was present in the whole, or nearly the whole population. That is what evolution means.
No new genes evolved, it was a bottleneck effect that favored a particular group of people. As you said, that resistance was already present, no new genes were created. The same is true for the experiment in your OP, the genetics that rendered the bacteria resistant to the antibiotic may have been already present in the population, and it was only a matter of time until these particular microbes made it to the antibiotic layer.
This is not proof of evolution in terms of it being the cause of the diversity of life, it is only proof of bottlenecking which didn't need proof anyway (it is an obvious mechanism). This is what I mean when I say that people mistake provable adaptation mechanisms for the unprovable theory of evolution which was theorized to have given rise to the diversity of life from a single cell long ago. The OP is not observing evolution, it is observing bottlenecking and allelic drift. If you think these are one and the same then I can't argue with such a misunderstanding.
originally posted by: rnaa
a reply to: cooperton
Actually they did that. They very carefully sequenced the DNA of the bacteria at each stage and mapped exactly what was happening at each stage of the evolutionary process.
Did they compare multiple strains and check the initial stage bacteria to see if it was an already present protein that increased its expression in the resilient bacteria? Send me the link to the actual paper please.
originally posted by: cooperton
I can't argue with someone who doesn't know the core tenet of evolution - which is descent with modification. Adaptation occurs within an organisms lifespan and therefore is not a part of evolution. Allelic drift is also not descent with modification because there is no modification, it is simply changing the frequency of genetic combination in a population that is most favorable in the environment.
That is an assumption. Research epigenetics you will potentially realize why it is impossible to evolve in a piecewise manner as proposed by theoretical evolutionary mechanisms.
Resilience to the black plague was already present in the population.
originally posted by: cooperton
originally posted by: Astyanax
a reply to: cooperton
Resistance was present in a number of individuals within the population. After the event, it was present in the whole, or nearly the whole population. That is what evolution means.
No new genes evolved, it was a bottleneck effect that favored a particular group of people. As you said, that resistance was already present, no new genes were created. The same is true for the experiment in your OP, the genetics that rendered the bacteria resistant to the antibiotic may have been already present in the population, and it was only a matter of time until these particular microbes made it to the antibiotic layer.
This is not proof of evolution in terms of it being the cause of the diversity of life, it is only proof of bottlenecking which didn't need proof anyway (it is an obvious mechanism). This is what I mean when I say that people mistake provable adaptation mechanisms for the unprovable theory of evolution which was theorized to have given rise to the diversity of life from a single cell long ago. The OP is not observing evolution, it is observing bottlenecking and allelic drift. If you think these are one and the same then I can't argue with such a misunderstanding.
originally posted by: rnaa
a reply to: cooperton
Actually they did that. They very carefully sequenced the DNA of the bacteria at each stage and mapped exactly what was happening at each stage of the evolutionary process.
Did they compare multiple strains and check the initial stage bacteria to see if it was an already present protein that increased its expression in the resilient bacteria? Send me the link to the actual paper please.
The model explains how novelty is generated in evolution, which is "tremendously exciting," says Gavin Conant, an evolutionary biologist at the University of Missouri—Columbia who was not involved in the study. Whether the model will apply to organisms other than bacteria remains to be seen, but Conant says he would be very surprised if researchers do not eventually find the process in other systems. "They have a step-by-step documentation of the model, essentially proof that this can happen," he says.
Evidence for De Novo Emergence of Genes De novo genes have mostly been attested in eukaryotes in which the availability of high-quality genome sequences with well-supported gene models from closely related species have allowed the delineation of the evolutionary emergence of all genes in a given genome. The gold standard for calling a de novo evolved gene is showing that a gene is a noncoding region in multiple out-group species and that the in-group species transcribes an RNA in the equivalent genomic region, which is translated into an protein species that is validated by proteomic techniques. In practice, evidence fulfilling the stringent criteria outlined above might be difficult to obtain. Typically, de novo gene candidates are identified by bioinformatic filtering of predicted gene catalogs, transcript expression libraries and shotgun proteomic data. Evolutionary divergence characteristics are commonly used as a filter to distinguish de novo gene candidates from neutrally evolving genomic regions. De novo gene emergence have been reported from many organisms such as insects (Begun et al. 2007; Reinhardt et al. 2013), yeast (Cai et al. 2008; Li et al. 2010b), Hydra (Khalturin et al. 2008), primates (Johnson et al. 2001; Knowles and McLysaght 2009; Toll-Riera et al. 2009; Li et al. 2010a; Wu et al. 2011; Xie et al. 2012), mouse (Murphy and McLysaght 2012; Neme and Tautz 2013), Plasmodium (Yang and Huang 2011), and plants (Donoghue et al. 2011). De novo genes are often characterized by being short, often overlapping other genes or being present within intronic sequences. Many de novo genes show weak expression. However, in animals, the highest expression is often found in the testes. This finding might be correlated to the hyperactive transcription in this sexual organ, a feature that leads to overall higher transcription. The increased transcription might lead to an increased selective potential as outlined in the “out of the testes” hypothesis (Kaessmann 2010). De novo genes in plants are often tissue-specifically expressed with stress-induced responsiveness (Donoghue et al. 2011). Even with transcriptional evidence and evolutionary conservation, some de novo genes might be examples of unrecognized noncoding RNAs that experience weaker structural constraints than most coding sequences. Because of the obvious risk of misidentification, it is imperative that proteomic evidence is gathered to support the claim of identified de novo genes. Proteomic evidence has indeed been integral in many de novo gene prediction pipelines, although the amount of proteomic evidence available is often limited.
originally posted by: Phantom423
you rarely respond to data which refutes or throws your hypothesis out the window.
Now human compared to bonobo something like 99% identical human
An open system does not create information just as it does not create matter or energy. Energy, matter and information simply change from one state to another. Open systems exchange information, matter, energy which allows for advanced nonequilibrium dynamics. As for pi if its sequence contains all possible digital patterns it contains all possible information, all possible patterns. IT is simple in the sense that extraordinarily short formulas describe and allow full generation of it.
originally posted by: Phantom423
a reply to: Xenogears
An open system does not create information just as it does not create matter or energy. Energy, matter and information simply change from one state to another. Open systems exchange information, matter, energy which allows for advanced nonequilibrium dynamics. As for pi if its sequence contains all possible digital patterns it contains all possible information, all possible patterns. IT is simple in the sense that extraordinarily short formulas describe and allow full generation of it.
I think you're confusing the 1st Law of Thermodynamics with open/closed systems in nature. Open systems in nature assume that there is an infinite amount of energy available to the system. The borders of biological systems are "open", or permeable, and can take in or give out matter and/or energy.
Scientists have stumbled upon some very non-intuitive observations in quantum theory which may turn our concept of the laws which we consider absolute on their head. An interesting article about that:
Does Quantum Mechanics Flout the Laws of Thermodynamics?
blogs.scientificamerican.com...
As for Pi, you're wrong. Pi is just a number on a line. It has the "flavor" of infinite decimal places and has no finite value. It is also non-repeating. The notion that all information in the universe is contained in Pi is simply wrong - and you can deduce that just by thinking about how the value extends into infinity. It's simply an irrational number i.e. it can't be converted into a fraction. Hope that makes sense.
I am South Asian and live surrounded by Buddhists, Hindus and Asian religious and philosophical movements. I am sympathetic to the pantheism of people like Spinoza but see no effective difference between it and atheism.
An open system does not create information just as it does not create matter or energy.
Perhaps you would like to explain how Pi can be deterministic as well as random.