4 Eylül 2013 Çarşamba

Molecular Biology and the Origin of Life

In previous sections of this book, we have shown how the fossil record invalidates the theory of evolution. In point of fact, there was no need for us to relate any of that, because the theory of evolution collapses long before one gets to any claims about the evidence of fossils. The subject that renders the theory meaningless from the very outset is the question of how life first appeared on earth.
When it addresses this question, evolutionary theory claims that life started with a cell that formed by chance. According to this scenario, four billion years ago various chemical compounds underwent a reaction in the primordial atmosphere on the earth in which the effects of thunderbolts and atmospheric pressure led to the formation of the first living cell.
The first thing that must be said is that the claim that nonliving materials can come together to form life is an unscientific one that has not been verified by any experiment or observation. Life is only generated from life. Each living cell is formed by the replication of another cell. No one in the world has ever succeeded in forming a living cell by bringing inanimate materials together, not even in the most advanced laboratories.
The theory of evolution claims that a living cell—which cannot be produced even when all the power of the human intellect, knowledge and technology are brought to bear—nevertheless managed to form by chance under primordial conditions on the earth. In the following pages, we will examine why this claim is contrary to the most basic principles of science and reason.

An Example of the Logic of "Chance"

If one believes that a living cell can come into existence by chance, then there is nothing to prevent one from believing a similar story that we will relate below. It is the story of a town.
One day, a lump of clay, pressed between the rocks in a barren land, becomes wet after it rains. The wet clay dries and hardens when the sun rises, and takes on a stiff, resistant form. Afterwards, these rocks, which also served as a mould, are somehow smashed into pieces, and then a neat, well shaped, and strong brick appears. This brick waits under the same natural conditions for years for a similar brick to be formed. This goes on until hundreds and thousands of the same bricks have been formed in the same place. However, by chance, none of the bricks that were previously formed are damaged. Although exposed to storms, rain, wind, scorching sun, and freezing cold for thousands of years, the bricks do not crack, break up, or get dragged away, but wait there in the same place with the same determination for other bricks to form.
When the number of bricks is adequate, they erect a building by being arranged sideways and on top of each other, having been randomly dragged along by the effects of natural conditions such as winds, storms, or tornadoes. Meanwhile, materials such as cement or soil mixtures form under "natural conditions," with perfect timing, and creep between the bricks to clamp them to each other. While all this is happening, iron ore under the ground is shaped under "natural conditions" and lays the foundations of a building that is to be formed with these bricks. At the end of this process, a complete building rises with all its materials, carpentry, and installations intact.
Ernst Haeckel
In Darwin's time, it was thought that the cell had a very simple structure. Darwin's ardent supporter Ernst Haeckel suggested that the above mud pulled up from the bottom of the sea could produce life by itself.
Of course, a building does not only consist of foundations, bricks, and cement. How, then, are the other missing materials to be obtained? The answer is simple: all kinds of materials that are needed for the construction of the building exist in the earth on which it is erected. Silicon for the glass, copper for the electric cables, iron for the columns, beams, water pipes, etc. all exist under the ground in abundant quantities. It takes only the skill of "natural conditions" to shape and place these materials inside the building. All the installations, carpentry, and accessories are placed among the bricks with the help of the blowing wind, rain, and earthquakes. Everything has gone so well that the bricks are arranged so as to leave the necessary window spaces as if they knew that something called glass would be formed later on by natural conditions. Moreover, they have not forgotten to leave some space to allow the installation of water, electricity and heating systems, which are also later to be formed by chance. Everything has gone so well that "coincidences" and "natural conditions" produce a perfect design.
One who manages to sustain his belief in this story so far should have no trouble surmising how the town's other buildings, plants, highways, sidewalks, substructures, communications, and transportation systems came about. If he possesses technical knowledge and is fairly conversant with the subject, he can even write an extremely "scientific" book of a few volumes stating his theories about "the evolutionary process of a sewage system and its uniformity with the present structures." He may well be honored with academic awards for his clever studies, and may consider himself a genius, shedding light on the nature of humanity.
The theory of evolution, which claims that life came into existence by chance, is no less absurd than our story, for, with all its operational systems, and systems of communication, transportation and management, a cell is no less complex than a city. In his book Evolution: A Theory in Crisis, the molecular biologist Michael Denton discusses the complex structure of the cell:
To grasp the reality of life as it has been revealed by molecular biology, we must magnify a cell a thousand million times until it is twenty kilometers in diameter and resembles a giant airship large enough to cover a great city like London or New York. What we would then see would be an object of unparalleled complexity and adaptive design. On the surface of the cell we would see millions of openings, like the port holes of a vast space ship, opening and closing to allow a continual stream of materials to flow in and out. If we were to enter one of these openings we would find ourselves in a world of supreme technology and bewildering complexity... Is it really credible that random processes could have constructed a reality, the smallest element of which—a functional protein or gene—is complex beyond our own creative capacities, a reality which is the very antithesis of chance, which excels in every sense anything produced by the intelligence of man?238

The Complex Structure and Systems in the Cell

Fred Hoyle
Fred Hoyle
The complex structure of the living cell was unknown in Darwin's day and at the time, ascribing life to "coincidences and natural conditions" was thought by evolutionists to be convincing enough. Darwin had proposed that the first cell could easily have formed "in some warm little pond."239 One of Darwin's supporters, the German biologist Ernst Haeckel, examined under the microscope a mixture of mud removed from the sea bed by a research ship and claimed that this was a nonliving substance that turned into a living one. This so-called "mud that comes to life," known as Bathybius haeckelii ("Haeckel's mud from the depths"), is an indication of just how simple a thing life was thought to be by the founders of the theory of evolution.
The technology of the twentieth century has delved into the tiniest particles of life, and has revealed that the cell is one of the most complex systems mankind has ever confronted. Today we know that the cell contains power stations producing the energy to be used by the cell, factories manufacturing the enzymes and hormones essential for life, a databank where all the necessary information about all products to be produced is recorded, complex transportation systems and pipelines for carrying raw materials and products from one place to another, advanced laboratories and refineries for breaking down external raw materials into their useable parts, and specialized cell membrane proteins to control the incoming and outgoing materials. And these constitute only a small part of this amazingly complex system.
W. H. Thorpe, an evolutionist scientist, acknowledges that "The most elementary type of cell constitutes a 'mechanism' unimaginably more complex than any machine yet thought up, let alone constructed, by man."240
A cell is so complex that even the high level of technology attained today cannot produce one. No effort to create an artificial cell has ever met with success. Indeed, all attempts to do so have been abandoned.
The theory of evolution claims that this system—which mankind, with all the intelligence, knowledge and technology at its disposal, cannot succeed in reproducing—came into existence "by chance" under the conditions of the primordial earth. Actually, the probability of forming a cell by chance is about the same as that of producing a perfect copy of a book following an explosion in a printing house.
The English mathematician and astronomer Sir Fred Hoyle made a similar comparison in an interview published in Nature magazine on November 12, 1981. Although an evolutionist himself, Hoyle stated that the probability that higher life forms might have emerged in this way is comparable to the probability that a tornado sweeping through a junk-yard might assemble a Boeing 747 from the materials therein.241 This means that it is not possible for the cell to have come into being by chance, and therefore it must definitely have been "created."
One of the basic reasons why the theory of evolution cannot explain how the cell came into existence is the "irreducible complexity" in it. A living cell maintains itself with the harmonious co-operation of many organelles. If only one of these organelles fails to function, the cell cannot remain alive. The cell does not have the opportunity to wait for unconscious mechanisms like natural selection or mutation to permit it to develop. Thus, the first cell on earth was necessarily a complete cell possessing all the required organelles and functions, and this definitely means that this cell had to have been created.
hücre
A. DETAIL 1: Plasma Membrane (Lipid Bilayer); Controls exchange of materials between inside & outside of cell.
B. DETAIL 2: Nuclear Envelope; Double phospholipid bilayer membrane that segregates contents of nucleus from cytoplasm.
C. DETAIL 3: Cytoskeleton; Provides structural organization to the cell.
1. Golgi Complex: Modifies, distributes&packages secretory products. Distributes & recycles cellular membrane.
2. Surface Membrane Protein
3. Glycoprotein
4. Integral Protein
5. Secretory Granule
6. Lysosome
7. Microtubule
10. Transfer vesicle
11. Peripheral Proteins
12. Phospholipid Molecule
13. Transmembrane Channel Protein
14. Cholestrol
15. Centrioles: Organelles containing 9 triplet bundles of microtubules. l Important role in cell division.
16. Nucleus: Contains chromosomal DNA packaged into chromation fiber. Plays central role in heredity. Controls cellular activity.
17. Nucleolus: Site where ribosomal RNA is assembled, processed and packaged with proteins into ribosomal subunits.
18. Nuclear Envelope: (See DETAIL 2)
19. Nuclear Pore: Special permeable sites on nuclear surface which allow certain macro-molecules to pass between nucleus and cytoplasm.
20. Mitochondrion: Power plant of the cell, Provides energy in the form of ATP through oxidative phosphorylation.
21. Outer&Inner Membrane of Mitochondrion
22. Matrix Space
23. Cristae
24. Basal Body of Flagellum; Identical in structure to a centriole.
25. Flagellum: Microtubular structure which grows from the basal body. Used for locomotion.
26. Plasma membrane
27. 9+2 pairs of microtubules
28. Dynein Arm: Enzymatic activity of dynein (protein) releases the energy from ATP required for motility.
29. Rough Endoplasmic Reticulum (RER): Segregation, modification & trans-portation of proteins & lysosomal enzymes. Ribosome studded membrane.
30. Ribosome: Contains high concentration of RNA. Important role in protein synthesis.
31. Smooth Endoplasmic Reticulum (SER), Synthesis of lipids, Role in detoxification. No ribosomes.
32. Granules of Nuclear Pore
33. Central Granule
34. Nuclear Pore
35. Golgi Saccule
36. Maturing Face of Golgi Apparatus
37. Golgi Saccule
38. Forming Face of Golgi Apparatus
39. Cytosol: Gel-like intracellular fluid where many of cell's chemical reactions occur.
40. Plasma Membrane (See DETAIL 1)
41. Polysome
42. Microtubule
43. Microtrabecular Strand
44. Mitochondrion

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