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The Plausibility of (ID) Life

Here are some excerpts from The Plausibility of Life, by Marc W. Kirschner and John C. Gerhart. While reading the book, I find that along the way the types of statements which follow are to be found almost everywhere .

One of the objections (disingenuous, in my opinion) that the Darwinists have to ID is that “we don’t know who the designer is; therefore, how can we possibly identify his designs?” Well the following quotes make it quite clear that the designer’s designs are easily identified. All’s you have to be to detect the design is be a graduate of an engineering school. No wonder lots of ID proponents have engineering backgrounds (including myself.).

Here are just some quotes:

“In this turtle, males are produced at lower temperatures 78° F (26° C) and females at higher, 88° F (31° C), the opposite of the alligator. In a flip-flop circuit, not unlike a thermostat that would gratify any engineer, a small difference in the level of a regulator of estrogen synthesis can be amplified into one of two states, a high-estrogen state (female development) or a low-estrogen state (male development). . . .The result is a bistable switch driven one way or the other by the temperature dependence of the production of SF-1 protein.” (p. 94) . . . .

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The School of Nanometry

The finding that the protein components, called “ankyrin repeats,” exhibit such unprecedented elastic properties could lead to a new understanding of how organisms, including humans, sense and respond to physical forces at the cellular level, the researchers said. The nanometer-sized springs are also ideal candidates for building biologically-inspired springy nanostructures and nanomaterials with an inherent ability to self-repair, they reported. A nanometer is one billionth of a meter. “Whereas other known proteins can act like floppy springs, ankyrin molecules behave more like steel,” said Piotr Marszalek, professor of mechanical engineering and materials science at the Duke Pratt School of Engineering. “After repeated stretching, the molecules immediately refold themselves, retaining their shape and strength.” “The fully extended molecules not only bounce Read More ›