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Indeed, many forms of "creation science" make a variety of predictions which are empirically testable. One example is that young earth creationism predicts that various observable lines of evidence will be found to show that rocks, the oceans, and the solar system are young. Regardless of whether or not such evidence is found, the theory makes scientific predictions which can be tested in the natural world, and thus qualifies the young earth hypothesis as a falsifiable and testable scientific theory. |
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1. Biochemical complexity Ev: High information content machine-like irreducibly complex structures will NOT be found. ID: High information content machine-like irreducibly complex structures will be found. 'Fact': High information content machine-like irreducibly complex structures are commonly found. |
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2. Fossil Record Ev: Forms will appear in the fossil record as a gradual progression with transitional series. ID: Forms will appear in the fossil record suddenly and without any precursors. 'Fact': Forms tend to appear in the fossil record suddenly and without any precursors. |
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3. Distribution of Molecular and Morphological Characteristics Ev: Genes and functional parts will reflect those inherited through ancestry, and are only shared by related organisms. ID: Genes and functional parts will be re-used in different unrelated organisms. 'Fact': Genes and functional parts often are not distributed in a manner predicted by ancestry, and are often found in clearly unrelated organisms. |
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4. Genetic Code Ev: The genetic code will NOT contain much discarded genetic baggage code or functionless "junk DNA." ID: The genetic code will contain much discarded genetic baggage code or functionless "junk DNA." 'Fact': Increased knowledge of genetices has created a strong trend towards functionality for "junk-DNA"; examples of DNA of unknown function persist, but function can be expected or explained under a design pardigm. |
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The C-value paradox emerged from among the first applications of spectrophotometric analysis of nuclear DNA content1. The haploid DNA content of eukaryotic organisms ranges over a factor of 80,000. Some of the largest genomes are found among the lowliest of eukaryotes, such as the amoebae, and some of the smallest genomes are found among organisms with complex developmental and behavioural repertoires, such as Drosophila melanogaster. |
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Ironically, the anti-ID letter the DI complains about led me to read an article by a German biologist, apparently an ID sympathizer. Inexplicably, it was published in the prestigious, by-invitation-only Annual Review in Genetics - perhaps because it contained actual information (along with many unsupported and overextended interpretations, but that's just my opinion), and not just a pointless, self-defeating whine like Behe's letter. Anyway, that paper happens to cite an interesting piece of data that I was unaware of, and which significantly undermines Behe's entire argument that the attribution of lack of function to non-genic DNA is based only on a negative argument (there are many more lines of evidence, of course, but I thought this was nice, especially given the coincidence about the sources). The data is as follows. These guys (Muntiacus reevesi): ![]() and this (M. muntjak): ![]() are almost identical, they live in very similar environments in Southern China vs. India/South Asia/Indonesia, and just happened to be classified as differnet species because they do not interbreed. The major difference between them is that one has 46 chromosomes and the other 6/7, and one has 20% less DNA than the other, entirely ascribable to the reduction of various kind of non-genic, repetitive elements (ref here. Go figure: a 20% DNA content difference between practically identical vertebrates (by comparison, remember chimps and humans differ by a few % at most). Gee, I wonder why biologists tend to conclude that most non-genic DNA has no significant function. Must be all that "negative argumentation", indeed. |