The Incomparable Production in the Cell:
Protein Synthesis

Proteins, which are of vital importance to the survival of living things, are produced by a flawless organization in the cell, whose complexity and regularity cannot be compared with any other production system.

In this complex system, there is no room for the slightest error. A flaw arising at any stage is corrected immediately, due to a reliable control system. In this way the proteins that permit the living organism to survive are manufactured in exactly the right forms and locations, with no disruptions arising.

Protein production takes place at a miraculous speed. For example, the E. coli bacterium synthesizes a protein molecule bearing 100 amino acids in only 5 seconds. No factory on Earth is able to complete a flawless production process so rapidly. This speed is of great importance, because for life to be maintained, the cells need new proteins every moment. 17

During protein production, a great many proteins act together. All the components necessary for protein production work flawlessly together in the cells. More than 80 ribosome proteins, more than 20 amino acid messenger molecules, more than a dozen helper enzymes, over 40 RNA molecules, and more than 100 enzymes that carry out the final processes,—a total of around 300 macromolecules—play a coordinated role in protein synthesis.18 This flawless production, which even a team of engineers would have trouble coordinating, maintains life in a space just 1,000th of a millimeter in size, through the actions of hundreds of much smaller molecules. In the event that a single one of those molecules fails, the entire production chain is ruined. This indicates that protein production is one of the irreducibly complex processes in living things. In an irreducibly complex system, if only one of its components is removed, then the entire structure is ruined. For example, if only one protein fails to emerge, that puts an end to production of new proteins. The existence of such a planned and communal consciousness is possible only by Allah's creation.

In the pages following, you can read some astonishing details in this miracle of creation, whose every stage embodies great information and conscious organization. But first, let us remind you that the production elements you'll be reading about are organelles and molecules inside the cell. When we examine these molecules' structure, amino acids emerge—smaller molecules in other words—and the unconscious, inanimate atoms that comprise them. With an intellect and consciousness one would never expect from them, these combinations of atoms such as carbon, oxygen and nitrogen carry out processes far beyond the capacities of human beings.

But what makes unconscious atoms carry out conscious actions? What makes these atoms more efficient than chemistry professors? This achievement, to be explained out in the following pages, is due to inanimate atoms and unconscious molecules behaving under the Might of Allah, Who regulates all things from Heavens to Earth.

Production Begins: The First Signal

Whenever the body needs any protein, a message expressing that need is transmitted to the DNA molecule in the nucleus of cells that will carry out that protein's production. Whenever need for any protein arises in the body, various messenger proteins can locate the exact location where they have to go inside the darkness of the body and can transmit the message to the exact correct place and in the right form. The protein that establishes that communication reaches its location without becoming lost and without causing any harm to any part of the body. Clearly every component shows a great awareness of its responsibilities.

When the message arrives, the cell nucleus creates protein following a series of most complex and organized processes. The protein request reaches the correct cells among the 100 trillion or so in the body. The cells receiving the message understand what is required and immediately go to work. Eventually, a flawless protein is obtained— all astonishing phenomena, because we are discussing not a community of conscious, intelligent human beings possessed of free will, but rather minute entities consisting of such substances as phosphorus, carbon and fat. These molecules themselves do not possess the power and free will. Like all molecules, they display conscious behavior to identify, understand and communicate by acting in accord with the special inspiration with which Allah endows them .

Once the order has been received, first the information regarding the protein whose production is required is taken from the DNA.

1. Adenine 2. Thymine 3. Guanine	4. Cytosine 5. Sugar 6. Phosphate	7. Nitrogen atom, 8.Carbon atom,	9. Oxygen atom, 10.Hydrogen atom
The diagram to the side shows the structure of DNA, our bodies' data bank. Any DNA molecule consists of four different nucleotides set out consecutively in varying sequences. These molecules' sequence contains the code regarding the protein structures used by all living things.

And the Order is Placed

1. RNA polymerase Enzyme

When a protein is to be produced, the enzyme RNA polymerase selects and copies the necessary data from the DNA. What we refer to as an enzyme, a collection of atoms, displays consciousness in a truly miraculous way.

Data regarding all of our bodies' functions is stored in the DNA molecule within the cell nucleus. When a protein is to be produced, the information regarding that protein is taken from DNA. However, the DNA must correctly understand the data concerning that protein and also provide the correct information. When chemists want to produce a compound, they make an oral or written request for all the raw materials they will need. Similarly, a special language is used in order to request a protein formula from DNA, in a language with an alphabet consisting of four letters.

The DNA molecule consists of four different nucleotides, set out in different sequences. These nucleotides are referred to by the initials of their base molecules; A (adenine), B (guanine), C (cytosine) and T (thiamin). The sequence of these molecules establishes the structures of all the proteins used by a living thing. The information in every human being's DNA about the proteins that determine his own characteristics—so much information that it could fill a library of encyclopedias—is written in a four-letter alphabet.

That enough information to fill hundreds of encyclopedias is encoded in a space smaller than 1,000th of a millimeter is truly extraordinary. Written out, this information would fill a thousand 500-page encyclopedias—nearly 20 times as long as the Encyclopedia Britannica.19 Computer chips have been modeled with very high data storage capacities, and high-cost research is being performed to increase that capacity with different coding systems. But the protein data in the DNA molecule has been encoded in a manner incomparably superior to any technology yet produced.20Such flawless data storage could not have come into existence by chance.

For life to continue, processes inside the cell must not be disrupted, its needs must be accurately met, with the correct proteins being produced. Therefore, after the message is received concerning which protein needs to be produced, the correct information must be selected and taken from the DNA. But Who makes that selection?

This vitally important selection is not made by a scientist capable of seeing and hearing, with years of education followed by years of scientific experience, but by a molecule consisting of unconscious molecules. The enzyme RNA polymerase, another protein with a perfect structure, carries out this essential selection. This enzyme performs an exceptionally difficult job. First, it must select the requisite letters for the protein to be produced from among the 3 billion in the DNA molecule. The way that the polymerase enzyme extracts a few lines of information from inside the DNA molecule's 3 billion letters is analogous to quickly finding a few lines of information hidden in a 1,000-volume encyclopedia, but with no description of it.

The truly extraordinary data contained in DNA is equivalent to a 20-volume encyclopaedia condensed into an area of less than 1 nanometer, or 1 billionth of a meter. It is impossible for human to conceive of such a data-storage system, let alone manufacture one. Through computer technology, microchips have been manufactured to store data, but they have nowhere near the capacity of DNA.

Including the worldwide Human Genome Project, hundreds of the world's most eminent scientists, in laboratories equipped with the most advanced technology have been working to read part of the information in human DNA. They have been able to read a large part of it, but have still not determined which letters are used for which protein or gene. Nonetheless, at every moment, trillions of RNA polymerase enzymes in the 100 trillion cells in your body are able to read the information in DNA from the beginning to the end and, moreover, to extract it in an error-free manner. This task requires competence, intelligence, information and research. What performs it at enormous speed is a molecule, a combination of unconscious atoms. Astonishingly, Darwinists claim that such a system came into being by coincidence, under the effects of lightning on primordial tide pools.

After the polymerase enzyme has found in the DNA molecule information regarding the protein to be produced, it must now exhibit another sign of consciousness and ability, by copying this information to the site of production.

Humans have been using the most advanced technology for years, but only managed to decipher DNA in 2000. Yet proteins invisible to the naked eye have been using DNA constantly, flawlessly for billions of years.

The Requisition Is Copied

Copying of Protein Data from DNA
1. Nucleus 2. Nucleus Membrane 3. Non-active DNA chain	4. mRNA 5. Copy DNA chain Key
A. Adenine G. Guanine C. Cytosine	T. Thymine U. Urasil

It is of the greatest importance that the information extracted from the DNA be copied accurately. All the information to be used during the course of producing the protein is read from that requisition, and the slightest error could have fatal consequences for the organism. For example, if only one of the 600 amino acids changes place in the protein hemoglobin. The hemoglobin will assume an entirely different defective structure and be unable to carry oxygen in the blood to the tissues. The fatal disease known as Mediterranean anemia is the result.

For the copying process to start, one major hurdle must be overcome. The strands of DNA twine around one another like a spiral staircase and must be separated before the copying process can begin. During this process, the RNA polymerase enzyme again goes into action. First the RNA polymerase binds to 35 letters from the beginning of the gene to be coded, and opens up the various stages of the DNA helix just like a zipper. This opening up takes place so very quickly that there is a danger of the DNA heating up because friction. Yet as a result of a system of finely regulated precautions, even this danger has been eliminated: A special enzyme attaches to the two ends of the opened DNA helix and prevents friction from taking place. Other special enzymes prevent the DNA rejoining again during opening.

Were it not for Allah’s miraculous creation of these enzymes, the order requisition known asmessenger RNA could not be copied. Before the copying process began, the arms of the DNA spirals would wind around one another again, and friction would damage the DNA structure. As you have seen, dozens of proteins and enzymes are involved in every stage of the operation, and all perform their functions in the greatest harmony.

Never forget the agents involved, both enzymes and proteins, are unconscious molecules made up of specific quantities of atoms. By Allah’s will, every one of these molecules discharges its own functions in line with superior knowledge and a sense of responsibility.

After these special precautions are taken, a few more obstacles are still to be overcome. For one thing, information regarding the amino acid sequence of the protein to be produced may be located in any region of the long DNA molecule. What will the polymerase enzyme do to copy codes indicated in different areas of the amino acid string? It cannot tear the DNA apart and throw away the unwanted sections. If it continues along the same path, it will end up copying unwanted data and the desired protein will not form.

To resolve this difficulty, an extraordinarily conscious phenomenon now takes place. As if the DNA were aware that it had to assist the copying process, it bends and presents to the outside the region containing the unwanted information. In this way, codes that need to be read consecutively but which have other codes between them are able to come together from distant parts of the sequence. The codes to be copied thus form a single line, so that the polymerase enzyme can easily copy the order for the protein to be produced.

Faulty Copying Causes Cancer

Research into bladder cancer has revealed that proteins wrongly produced in a cell play a major role in cancer. Genes copied incorrectly during the DNA copying process lead to the production of incorrect proteins. Faulty copying in the single stage in a special 5,000-step gene in the DNA impair the entire cell. [Robert A. Weinberg, One Renegade Cell, How Cancer Begins, New York: Basic Books (1st Edition) 1998, p. 42] By using flawed data to produce proteins, these faulty genes damage the cell rather than benefiting it.

To eliminate unwanted codes, a different method is sometimes employed. The RNA polymerase enzyme copies the entire gene from beginning to end, including the unnecessary codes. Then, spliceosome enzymes arrive to bend the unnecessary codes and eject them in ring form. To make this happen, these enzymes have to compare the prescription they carry with the information copied from the DNA and identify the unnecessary elements. Were you given two long lists of letters and asked to identify the superfluous ones among them, you would have to examine each list very carefully and check it against the other, line by line. For that reason, you should not be deceived by reading "it selects," "vends," or "ejects" in any biology textbook or documentary. What is actually doing the comparing, identifying, examining, distinguishing, selecting, bending and ejecting is unconscious substances, that consist of inanimate materials such as carbon, nitrogen and phosphate, under the command of Allah.

1. Original DNA 2. RNA transcript	3. The component to be detached is identified.	4. Detachment 5. Joining
The information determining any one protein may sometimes be found in different places in DNA. Enzymes known as sliceosomes then arrive and bend the chain in such a way that the two ends of the unwanted DNA region touch. This "loop" is removed and discarded. In order to do this, enzymes need to display enormous conscious brainpower. They must be careful to flawlessly identify and eliminate the appropriate genes from the millions in the helix. How a small molecule of unconscious atoms can display such intelligence shows the perfection of Almighty Allah's creation.

This is by no means the end of the amazing and extraordinary events that take place during the copying of the order requisition from the DNA. The copying units also have to be halted, or else the polymerase enzyme will copy the gene from beginning to end. At the end of the protein encoding gene is a codon that indicates that its finish. (Every group of three nucleotides making up the code in DNA is known as a codon.) When the RNA polymerase comes to a codon, it understands that it has to cease copying and it separates from the DNA and messenger RNA carrying the necessary message for the protein. At this point, however, it still acts with the greatest care. The messenger RNA must leave the cell nucleus and travel an extremely long way until it reaches the ribosome where production will take place. In the process, the message it carries must come to no harm. Therefore, it emerges from the cell nucleus under the protection of certain special enzymes.

The Copied Information Reaches the Production Center

Once the necessary information for protein production has been found and copied from the cell's DNA, that information must now reach the ribosomes where the protein will be produced. These organelles, present in every cell, are rather a long distance from the DNA in the nucleus and are distributed throughout all the cytoplasm (the fluid in the cell). The production orders have to be rushed to these factories in a flawlessly accurate manner. Messenger RNA (mRNA) heads straight for the ribosome without losing its way among the many organelles and molecules in the cell. When it finds the ribosome, the mRNA settles in a line on its outer surface. In this way, information regarding the amino acid sequences of the protein to be manufactured reaches the production center in the correct form. The copied mRNA also carries information about what it must do to produce a protein, when the process needs to start and finish. Therefore, when this command reaches the ribosome, messages begin to be sent to other regions of the cell to bring to the ribosome those amino acids necessary for the protein's manufacture. 21

Raw Materials Head for the Production Center

At this point in the production of protein, one of the miracles of perfect organization takes place.

After the RNA carrying the protein data reaches the ribosome, another form of RNA, transport RNA (or tRNA) enters the equation—a molecule specially produced according to information in the DNA. Since these RNAs are charged solely with transporting to the ribosomes those amino acids to be used as raw materials in the production of protein they are known as transporters. These RNAs are like forklifts carrying raw materials for production inside a factory. Yet in the delivery system of these RNAs, there is one very different property.

As already mentioned, there are 20 varieties of amino acids, or raw material, in every living cell. Each of these 20 amino acids is carried by a transporter peculiar to itself.22 The bonding of amino acids to the tRNA that will transport them takes place as a result of a series of complex processes. A special enzyme activates every variety of amino acid and also permits the amino acid to bond to the tRNA. This means that the enzyme (amino acid synthetase) must possess structures to let it attach to both the amino acid and to the tRNA.

1. Nucleus 2. Ribosome 3. Large ribosomal element 4. Small ribosomal element	5. Amino acid molecule binds to tRNA 6. mRNA leaves through the nucleus membrane. 7. Nucleus membrane
The information determining the protein to be produced leaves the cell nucleus with the mRNA and arrives at the ribosome, where manufacture will take place, in other words. At this point, the tRNAs begin bringing the necessary materials to the ribosome.

At every stage, as you have seen, there are many components with interconnected processes and functions. In the absence of just one of these, the ensuing damage will make survival impossible. For example, if these special enzymes did not exist to activate the amino acids and bind them to the tRNA, those amino acids needed for protein synthesis would not reach the ribosome. Therefore, the entire system must have been outlined beforehand and created together with the specifics of all the materials it requires.

Every amino acid that the tRNA brings to the ribosome must be processed in specific locations in the production line determined by the mRNA. Throughout the entire process, if even a single amino acid is processed in an incorrect unit, the protein molecule will become useless. Yet this process takes place in a flawless manner in all living cells. Every tRNA engaged in delivery carries its amino acid to the site specified in the production order, ensuring that the function is not disrupted. As you know, the production order is recorded in the mRNA. This behavior reveals the perfect conception of discipline, consciousness and responsibility in these unconscious molecules—a striking indication that each and every one has submitted to Allah, the Omniscient and Almighty, and acts under His control.

The Necessary Translation Prior to Production

During protein synthesis, the alphabet making up the DNA needs to be translated into an alphabet that manufactures protein. For example, the writing at left must be translated into the "protein language" on the right.

The requisition order—the information regarding the protein to be produced—and the raw materials are now ready. The order has been transmitted to all the machines along the production line, but another problem now needs to be resolved. The production data, or order, is written down in a special language in the DNA, and production must take place according to the information in this special language. However, the sequences of the amino acids to be used as raw materials are written in a different language.

We can express this problem in the following analogy. The written instruction in the "requisition docket" is the language of the code comprising the DNA, written in a special alphabet consisting of four letters. But since 20 varieties of amino acid make up the proteins, the language of the proteins to be produced is different, consisting of a 20-letter alphabet. In short, the production information from the DNA is not in a language the amino acids can understand. In order for them to understand which amino acid the DNA information refers to, the DNA language has to be translated into the requisition language.

The ribosome factory has been equipped with a mechanism that resolves this problem in the best way. A translation system between the two languages has been created in the ribosome "factory." This translation system, known as the codon-anticodon method, works just like an expert translator, in a manner far superior to the most advanced present-day computers, translating the special DNA language written in a four-letter alphabet into the protein language consisting of 20 letters. In this way, it expresses which amino acids are to be placed alongside one another, and eventually the desired protein emerges in its correct form. The perfection in this translation process, whose details we shall examine in due course, is most noteworthy. There can be room for only one or two errors in the production of proteins essential for the life of the cell. No manmade technology can translate and write down the equivalent of 2,000 novels in such an error-free and flawless manner. 23

The Codon-Anticodon or "Lock and Key" Method

Through this method, the translation system permits amino acids to join together and work without any mistakes. The mRNA that first transports and installs the order information in the combining center in the ribosome comes together with the tRNA that carries amino acid on one of its ends. Every three letters in the mRNA are regarded as a codon, or a lock. The tRNA's three-dimensional structure resembles a plus sign and is bound to the amino acid being carried on its upper end. An anticodon—a key able to open the tRNA lock—moves opposite it. Through this special translation system used by the ribosome, proteins are produced in a flawless chain.

So that it can work in the best way together with this translation system, helper molecules on the ribosome's surface work together in complete coordination. These molecules are special RNAs sent to the production center and proteins, most of them specialized.24 The most important of these isribosomal RNA, which lets information brought to the ribosome by the messenger RNA to be understood and read in a different language. During the error-free translation process, each one of these prepared mechanisms works in a flawless manner for the correct protein to emerge.

1. Site of binding to amino acid 2. Anticodon (key)	3. Anticodon 4. Codon 5. Lock and key (mRNA and tRNA)
For the DNA language to turn into protein information, mRNA and tRNA come together like a lock and key. Every three letters in the mRNA are analogous to a lock. The bottom of the tRNA that serves as the key to open it moves exactly opposite this "lock."

Step by Step in the Factory

During production, doubtless the most important process is the flawless combining of amino acids. We may summarize the events that take place during this combination process thus:

During the combining process, these events do not need to occur at specific time intervals, though all the processes take place at a great speed. In general, for example, the mRNA thread continues copying the order while its other end is still attached to the DNA, continuing the translation process from the other end.25 Indeed, a single mRNA thread can attach to several ribosomes or "factories" from different points to begin production, and can continue to place the order. In the same way, the mRNA can copy orders for proteins in more than one region of the DNA at the same time.26 Performing this exceedingly complex multi-stage process in several places simultaneously without a single mistake calls for enormous care and competence. How many tasks can a rational, conscious human handle at the same time? How many products can he supervise at once? Answer these questions, and you can more clearly understand the abilities possessed by a mRNA molecule.

Now, could this process have come into being by chance? Could millions of unconscious atoms have planned a system requiring such intelligence, identified the chance of natural events they needed to take place and then have waited for these circumstances to occur? Even if all the atoms in the universe were brought together, no matter what physical and chemical processes this assemblage collection was subjected to, still atoms devoid of consciousness, information and will could not have come up with such a system.

Furthermore, that organization does not end there. Once protein production has been carried out, the final step is to check whether the ordering and other features of the emerging amino acid chain are those of the desired protein.

a. Amino Acid b. Transporter RNA (tRNA) c. Anticodon d. Codon	e. Large Ribosomal Element f. 2.nd Part g. 1.st Part	h. Small Ribosomal Element i. Initiating Code j. mRNA	k. Amino Acids l. Peptide Bond m. The first tRNA to arrive
A. Messenger RNA (mRNA), protein data copied from the DNA) 1.The messenger RNA carrying the production information first comes to the ribosome where the amino acids will be combined. Then the transport RNAs carrying the "raw materials" of amino acid come to the region. 2.Because of the codon-anticodon method, the translation system lets the combination process to be performed without error. Under this method, the messenger RNA and the transport RNA carrying the amino acid at one end come together like a lock and key. Every three letters in the messenger RNA are regarded as a codon, or lock. The end of the transport RNA, the anticodon capable of opening this lock, moves opposite it just like a key. 3.Where the messenger RNA and transport RNA line up opposite each other, ribosomal RNA goes into action. There are two special compartments in ribosomal RNA. The messenger RNA attaches to the smaller section, and the transport RNA to the larger one. Also, a special mechanism allows the tRNA and mRNA to harmonize in the region where they will bind, so they can easily assume their places. Most importantly, this indicates that when the ribosome was first created, an Intelligence knew the properties of mRNA and tRNA, knew that they would use the ribosome for a specific purpose, and created the appropriate compartments in the ribosome. They display a compatibility that cannot possibly have come about gradually and by chance. In addition, this detailed organization and fine calculations go even further. In the region where the tRNA will attach, there are two special compartments. The tRNA newly arrived at the ribosome uses the first one, and the other is used by tRNA that now departs the ribosome, having done its job. 4. In order for the translation process to begin, the first amino acid of the desired protein is brought by the tRNA opposite a special codon, known as the initiating codon, on the order requisition. The ribosome cannot start production before it receives information in this first codon about the protein to be manufactured. For all proteins, the initiating codon is the same: methionine. 26 5. Once the combining center has recognized this initiating codon, the codons (the order requisitions) that are determined for each protein start to be read, that is to say translated, one after the other. 6.First, the initiating codon attaches to the small compartment in the ribosomal RNA—the translation unit—which then goes into action by passing over this codon carrying the orde r information on to the mRNA. 7. At the same time, the tRNA assumes its place in the ribosome, together with the anticodon code written on it and the amino acid it carried. The amino acid (whose job is done) and the amino acid newly arriving to the ribosome is attached by means of a peptide bond. 8.Later, the tRNA that arrived first departs the ribosome. The second tRNA, with two amino acids attached, moves from the first compartment to the second.

n. Peptide Bond	o. The Second tRNA to Arrive p. The Emerging Protein Chain	r. tRNA Encountering the Stop Code s. Stop Codon
9.The next tRNA arriving at the ribosome attaches to the first compartment, to which the tRNAs attach. The amino acids of the first and second tRNAs attach to the amino acid of this third tRNA. 10. Once this binding process has taken place, the second tRNA departs the ribosome. 11. At the same time, the third tRNA in the first compartment moves to the second compartment with the three amino acids attached to it. The ribosomal continues these processes along on the mRNA thread. 12.When the ribosomal RNA recognizes the halting codon on     the mRNA, this process comes to an end.

Quality Control

As you now know, the slightest error in the needed proteins leads to many dysfunctional mechanisms in the cell. The cell is unable to survive and in many such cases, this leads to serious illnesses. Many diseases are genetic in origin, arising from errors in one or more of these protein-synthesizing phases. However, as if they were consciously aware of these processes' importance, the cells behave with great care and check the proteins over and over again at various stages during synthesis. 27

During the production of a single protein, the necessary quality control is carried out by several proteins. These enzymes are just like the quality-control department in a factory: Each enzyme must possess detailed information about the protein under construction and be aware of every stage of the production process, or it cannot satisfactorily check the emerging result. The interesting fact, however, is that proteins themselves—with no free will of their own—perform these quality control-checks. These molecules have no knowledge or means of recognition. Indeed, they themselves can exist only if the system is functioning in an ordered manner. How can proteins consisting of unconscious atoms carry out this control process? Answers to these questions are plain to see. Each atom behaves according to the form and structure created for it by Allah.

The Order Is Delivered

After all these control checks are completed, the proteins are ready for use and will head straight for wherever they're to be employed. These valuable protein molecules must be transported to that location without suffering any damage. But how?

The answer to that question has not yet been fully understood. From what is known so far, this process is astonishingly complex.28

If proteins produced inside the cell were deposited where they are made, all that constant production would go to waste. However, just as in all other living systems, there is a flawless perfection in the transport of proteins. As a result, every new protein produced is carried by a special means to where it will either be used or else stored for later use. For example, different varieties of proteins—those to be dispatched outside the cell, those to be used in the mitochondria (the organelles responsible for producing energy), and those to be used in the nucleus—are all carried to their destinations by different mechanisms and routes known as protein targeting systems.29

These system's knowledge of which protein is to go where is a miracle all by itself. The determination of the means of transport according to the destination, packaging, and the support from enzymes to keep the protein from damage en route—all are feats that create utter amazement.

1. Crude endoplasmic reticulum 2. Synthesized protein 3. Ribosome 4.Transporter vesicle 5. Protein packaging	6. Lysosome 7. Secretor vesicle 8. Protein emerges by way of exocytosis 9.Cell membrane
After the protein has been manufactured, intense activity continues inside the cell. The protein is either removed from the cell by a special transporter and is sent to where it will be used in the body, or else is deposited in the Golgi bodies, to be stored until needed.

The Nobel Prize winners Günter Blobel and George Palade spent many years researching this subject. They were amazed to discover that the newly produced proteins use a special amino acid sequence to be able to reach their destinations, and that once they do so, they separate from this so-calledsignal sequence.30 The protein setting out with the aid of this signal needs a great deal of help on its journey. Inside the cell, many newly produced proteins encounter molecular mechanisms, some of which hold on to the protein and transport it where it needs to go. Endoplasmic reticulum and Golgi bodies are examples of the important organelles that direct the protein where it has to go. For example, after the protein garbageaseis manufactured, it travels a distance of about one ten-thousandth of an inch (0.00025 of a centimeter). On this journey from the cytoplasm to the lysosome, dozens of different proteins are needed to ensure its security.31

While you sit reading this book, how busy are all the cells in your body performing all these tasks! You feel no movement, even though trillions of cells in your body carry out this production, each one using hundreds of mechanisms.

Moreover, this entire production, whose general lines have taken many pages to describe, occurs in only 10 seconds, or two minutes at most. And remember, this system operates within an area too small to be seen with the naked eye. Darwinist scientists who claim, in the face of the fact of creation, that the proteins that enable life came into being by chance, know that in fact, the concept of chance cannot explain such vast complexity.

The evolutionist biologist Professor Muammer Bilge describes the Darwinist despair in the face of this system that works too perfectly as to leave any room for chance:

We may say that the protein synthesis industry is carried out with an organizational perfection and flawless foresight inside the cell, which is able to produce these outcomes when necessary, creates no danger or damage to itself, and never goes down a one-way street. ... Everything in the cell happens like this. But how is it managed? How is it achieved? We are still unable to understand. We merely see the results and have only been able to distinguish a few points of this perfect organization that yields them.32

In the face of the extraordinary systems they encounter during their observations and research, Darwinist scientists invariably employ similar expressions, such as "a flawless foresight" or "organizational perfection." Yet their own theory cannot account for this flawlessness and perfection. They themselves are well aware of this, which is why they express their despair by saying they are "still unable to understand" how these extraordinary events take place. Clearly, however, unconscious atoms themselves cannot set up and maintain such a perfect organization. Every atom behaves under the inspiration, intellect and might of Allah.

An Important Truth Revealed by Protein Synthesis

Three-dimensional view of a protein

The manufacture of a single protein molecule requires hundreds of different proteins and enzymes. In addition to these, many molecules and ions stand ready and waiting. That being so, how could the very first protein have come into being?

This is one of the most crucial impasses facing Darwinists, as the biologist Carly P. Haskings described in an article in American Scientist:

... But the most sweeping evolutionary questions at the level of biochemical genetics are still unanswered. How the genetic code first appeared and then evolved and, earlier even than that, how life itself originated on earth remain for the future to resolve... The fact that in all organisms living today, the processes both of replication of the DNA and of the effective translation of its code require highly precise enzymes and that, at the same time the molecular structures of those same enzymes are precisely specified by the DNA itself, poses a remarkable evolutionary mystery... Did the code and the means of translating it appear simultaneously in evolution? It seems almost incredible that any such coincidence could have occurred, given the extraordinary complexities of both sides and the requirement that they be coordinated accurately for survival. By a pre-Darwinian (or a skeptic of evolution after Darwin), this puzzle would surely have been interpreted as the most powerful sort of evidence for special creation. 33

As this scientist states, for protein synthesis to come about, all the systems inside the cell have to exist simultaneously. In the absence of just one component in this system, proteins cannot be produced, and life cannot continue. But as Haskings admits, in the absence of one component, the others clearly cannot form at all.

Allah has created all living things together with all their systems. He reveals His flawless creation in the Qur'an as thus:

He is Allah—the Creator, the Maker, the Giver of Form. To Him belong the Most Beautiful Names. Everything in the heavens and Earth glorifies Him. He is the Almighty, the All-Wise.
(Surat al-Hashr: 24)

Footnotes

17.Albert Lehninger L., Late University Professor of Medical Sciences, The Johns Hopkins University; David L. Nelson, Professor of Biochemistry, University of Wisconsin, Madison; Michael M. Cox, Professor of Biochemistry, University of Wisconsin, Madison; Principles of Biochemistry (Second Edition), New York:Worth Publishers, p. 892. 

18.Ibid. 

19.Aaldert Mennega, "Reflections on The Scientific Method," Creation Research Society Quarterly, June 1972, p. 36. 

20.Werner Gitt, In The Beginning Was Information, Christliche Literatur- Verbreitung e.
5. , CLV Bielefeld Germany, 1997, pp. 95-96. 

21."Cell's Energy Use High for Protein Synthesis," Chemical & Engineering News, August, 20, 1979, p. 6. 

22.Albert Lehninger L., David L. Nelson, Michael M. Cox, Principles of Biochemistry, Fourth Edition, New York: W. H. Freeman and Company, p. 1035. 

23.Mahlon B .Hoagland, The Roots of Life, Boston: Houghton Mifflin, 1978, p. 24. 

24.Albert Lehninger L., David L. Nelson, Michael M. Cox, Principles of Biochemistry, p. 1054. 

25.Curtis Barnes, Invitation to Biology, p. 191. 

26.Ibid. 

27."Cell's Energy Use High for Protein Synthesis," Chemical & Engineering News, August 20, 1979, p. 6. 

28.Albert Lehninger L., David L. Nelson, Michael M. Cox, Principles of Biochemistry, p. 1068. 

29.Ibid. 

30.Ibid. 

31.Michael Behe, Darwin's Black Box, p. 108. 

32. Prof. Dr. Muammer Bilge, Cell Science, Cerrahpasa Medical Faculty, Chairs of Physiology and Biophysics (3rd Edition), pp. 131-132. 

33.Caryl P. Haskins, "Advances and Challenges in Science in 1970," American Scientist, May 1971, p. 305. 

Proteins: The Bod's Tireless Enginess

So far, we have described protein molecules' special structures and how they are manufactured in the cell. When we examine proteins' functions, we again encounter any number of miracles of creation.

Hemoglobin: Oxygen-Hunting Protein in the Blood

Hemoglobin, a rather large protein

One feature of blood that makes it indispensable for life is the proteins it contains. The bloodstream is the ideal place where special proteins can discharge their duties because blood transmits them wherever they are required, by means of the circulatory network of reaching all points of the body. Every day, for example, the hemoglobin protein in the red blood cells (or erythrocytes) carries oxygen to the 100 trillion or so cells in the body.

Hemoglobin, a rather large protein, covers a volume of up to 90% of the red blood cell. Under normal conditions, such a sizable protein molecule would be unable to fit into the cell. However, just as if the erythrocyte knew it must make room for the hemoglobin molecule it will have to carry, before entering the bloodstream, the red blood cell ejects its nucleus, mitochondria, ribosomes and other organelles. These ejected components are immediately destroyed by the body's cleansers—the white blood corpuscles, or leucocytes. In this way, no waste or unnecessary products remain in the body. Red blood cells do not create any new protein when they expel their organelles. In any case there is no need to do so 34 because the red blood cells' essential task is to transport hemoglobin and carry oxygen to wherever it is needed.

Hemoglobin's most important feature is its ability to carefully select and capture oxygen molecules from among the billions of other molecules in the blood leaving the lungs. Because any molecule that attaches randomly to an oxygen molecule will oxidize and become non-functional, trapping oxygen molecules calls for a particular talent. Therefore, hemoglobin captures its prey as if holding it with tongs, without actually touching it. Hemoglobin's unique creation endows it with this property.

Hemoglobin emerges from a combination of four different proteins, containing special sections known as heme groups that carry iron atoms. These iron atoms are the "tongs" in by which the hemoglobin holds oxygen molecules. Each heme group can hold one oxygen molecule.35 Special folds and angles inside the molecule allow the heme groups to capture oxygen without coming into contact with it, to hold it to and later deposit it in the tissues.

1. Hemoglobin 2. Erythrocyte 3. Blood vessel

CO2 levels are high in active tissues. When he moglobin reaches these tissues it deposits O2 in them. In this way, hemoglobin immediately provides oxygen for those tissues requiring it, and takes up the carbon dioxide in them.

These angles change at specific rates during the binding process.36 After oxygen is trapped, changes occur in the structure of the hemoglobin. The first heme group folds over, facilitating the capture of oxygen by the other heme groups.37 During this process, if the hemoglobin combines directly with the oxygen—in other words, if it becomes oxidized—the result is methemoglobinemia,38 a disease that causes the skin to lose its color and turn blue. The victim suffers shortness of breath and a weakening of the mucous membranes.

Every detail of this flawless structure is proof of a previously determined plan. The way the red blood cells eject the organelles inside them to make room for hemoglobin, how these expelled substances are immediately cleaned up by functionaries standing by, and the features that keep hemoglobin from being harmed by the oxygen and allow it to deposit the oxygen into the tissues are all features of a flawless planning. It is clearly impossible for unconscious, inanimate atoms to organize such a perfect system as a result of chance. Furthermore, hemoglobin takes precautionary measures and transports oxygen as if it were fully able to calculate how oxygen could damage it and later, transports the oxygen to exactly where it needs to go. The way that hemoglobin recognizes and selects oxygen molecules is a miraculous system, impossible to have come into being by chance. In addition, this established system has been made in an ideal form to be totally compatible with the entire human body.

In his book Nature's Destiny, the famous microbiologist Michael Denton refers to the flawless structure of hemoglobin:

As the efficient transport of oxygen is essential to the viability of any large active organism with a high metabolic rate, a molecule with the properties of hemoglobin would seem to be essential. Might there be any alternatives to hemoglobin? None of the many other oxygen-carrying molecules which occur in the blood of invertebrates, such as the copper-containing proteins of the mollusks, come close to the efficiency of hemoglobin in transporting oxygen in blood. As Ernest Baldwin commented, "Mammalian hemoglobin is far and away the most successful of the respiratory pigments from this point of view"...The evidence is consistent with the possibility that hemoglobin is the ideal and unique respiratory pigment for metabolically active air-breathing organisms such as ourselves... 39

As Denton says, hemoglobin is the ideal form for this type of transportation. The way that a collection of molecules can make this distinction in a pitch-black environment unbelievably larger than itself, distinguishing between oxygen and other molecules, and able to bind to oxygen in the most appropriate way reveals the existence of a Superior Intellect and Art.

When hemoglobin combines with oxygen a number of structural changes take place. On the left can be seen hemoglobin in its normal state and on the right its state after binding to oxygen.

Proteins That Allow Cells to Travel Within The Body

The movement of some cells in the body is of great importance to the continuity of metabolism. As with all vital bodily functions, it is again proteins which allow this process. These particular proteins, known as tubulin, form minute hairs that permit the cell to float in bodily fluids. These hairs come in two varieties. As cell moves itself either by using these tiny hairs, resembling eyelashes, in much the same way as oars propel a rowboat; or else it moves forward by thrashing the hairs like whips. Spermatozoa, for example, perform their difficult journey in the mammalian fallopian tubes by means of these hairs.

These minute hairs are also used by cells that remain fixed rather than mobile, whose objective is to move other cells in the fluid.

For example, every one of the stationary cells along the respiratory passage possesses several hundred minute hairs, most of which are in motion at the same time. Their appearance closely resembles the oars moving in unison that propel racing sculls. By this motion, the hairs propel water over the mucus and up through the throat. In this way, they prevent fluids from falling into the windpipe with each breath. As you have seen, this motion is most rational and conscious and has been planned beforehand.

In addition, these proteins seem to take joint decisions, acting as one to propel a free-floating cell in a particular direction. Anyone who reflects without prejudice will clearly see that such an organized harmony and ordered activity could not have arisen by chance.

When the structure of these micro hairs is examined, their exceedingly complex structure shows them to be the product of a superior creation. Such a perfectly interconnected mechanisms have been squeezed into these tiny hairs—which can be seen only under an electron microscope—that it is impossible to claim that they came into being as the result of chance phenomena. Let us examine these tiny hairs' structure in broad terms.

The Detailed System in Minute Hairs

1. Microhairs 2. Cell

Some cells possess microhairs that allow them—or bodies around them—to move.

A micro hair consists of a membrane-covered fiber. The hair's membrane is an extension of the cell membrane, for which reason the interior end of the hair is in contact with the interior of the cell. If you cut a hair in cross section and examine it under an electron microscope, then you will see nine rod-like structures. One point worth emphasizing is that these tiny hairs are incomparably smaller than the hairs on your head. It might appear impossible for a visible human hair to contain nine tiny separate rods, there are indeed nine rods in each of the hundreds of minute hairs at the end of a cell, itself too small to be seen with the naked eye.

These rods are known as microtubes, each of which consists of two interconnected rings. And detailed research has shown that each of these microtubes is made up of 13 separate strands!

But that is by no means the end of the details. The second link, attached to the first, consists of 10 separate strands. The nine microtubes comprising the tiny hairs are made up of the proteins known as tubulin, molecules set out like bricks laid atop one another to form a cylindrical shape.

In books and journals about biology, biochemistry, and genetics, and similar subjects, you will frequently come across sentences like "Protein molecules coming together in a specific ways to give rise to particular shapes." But such statements avoid stating that protein molecules are merely assemblages of unconscious atoms. In some way, these entities—devoid of consciousness, information or free will, with no brain or ability to plan or reason—manage to locate one another and then to act in such a regulated manner as to form a cylindrical shape. Who commands them to join together with other tubulin molecules and then set themselves out in cylindrical form? It is the Almighty Allah Who creates them out of nothing and Who commands them to do so.

In addition, the tubulin molecules are laid out not in a random sequence, but in an order ideally compatible with their pattern and purpose.

If normal conditions (that is, normal calcium levels and temperature at a specific level) have been established within the cell, the tubulin proteins that serve as bricks come together automatically to form microtubes. The surfaces of tubulin molecules are such that one side fits the back of a second tubulin molecule. A third tubulin molecule attaches itself to the back of the second, a fourth molecule then attaches to the back of the third, and so forth. To make a comparison, this resembles a stack of tin cans of the same brand, one on top of the other, each one arranged to fit perfectly into the top of the can below it. However, since the tops and bottoms of cans of different brands will not fit perfectly together, if piled atop one another, they will collapse at the slightest movement. And cans of the same brand will still topple over if you align them wrongly. The top of the first can will not fit the top of the next one, and they will again topple over.

The order within the assembly of the tubulin proteins is much more exact, in that the front of one fits exactly into the one in back.40

1. Microtubes 2. Cell membrane	3. Microtube 4. Microtubule
The cell's micro hairs possess a flaw less organization. A cross-section reveals nine rod-like microtubes, each of these which consists of two interconnected links, and each link consists of 13 separate strand

So Who created this arrangement? Could the cells that produce the tubulin proteins have first determined how to assemble them in the most efficient manner? Assuming that the proteins were produced with these features in some way, Who told them to arrange themselves back to front, and not back to back? Moreover, how did the proteins understand this command and then arrange themselves without a single mistake? If you remember your school days, it takes a great deal of patience to line up 20 students up in one particular direction without disorder ensuing. If this requires some effort, even from human beings possessed of consciousness and intelligence, as well as the ability to act towards a specific goal end, how do protein molecules consisting of fats, carbohydrates and phosphorus manage to do this regularly, without making a single error? This excellence and perfection in the cell belongs to the Almighty Allah Who has Superior Power over all things and Who is the Lord of the Heavens and the Earth. It is our Mighty and Gracious Lord Who has created each one of these cells and bestowed on them many superior features.

Don't forget that tubulin molecules select other molecules of their own kind from among all the millions of molecules around them, move alongside them and immediately assume their places. Tubulins can easily enter into contact with microtubes, but microtubes need the help of other molecules to combine with one another. In other words, the nine rods that make up the microhair must combine together and need other proteins to do so. Since microtubes are composed of proteins with very different functions within the body, they need to be separate and independent for these functions. For that reason, they rove independently until binding to another protein. But in order for tubulins to form, these helper proteins come and select free and independently traveling microtubes and bind them to one another.

In this process, there is a most conscious and purposeful organization. Certain proteins decide that the cell's minute hairs should be constructed, know what is needed for their formation of these and gather up and combine these haphazardly roaming materials.

Photographs of these tiny hairs taken under an electron microscope showed that different kinds of connectors bind the microtubes to one another. There is one protein at two centers in the middle of the microtubes that binds them together in the form of a bridge. There's also an extension from the microtubes to the center of the tiny hairs. A protein known as nexin binds each microtube to the one beside it, ensuring that they do not break away and disperse. There are also two different protrusions on every microtube, known as the inner arm and the outer arm. Biochemical analyses have revealed that each contains a protein called dynein. Among its functions are to operate like an engine and set up a mechanical force within the cell.

Once again, reflect on this structure of a great many parts, every one of which complements the others in an exceedingly rational way. With enormous expertise, millions of atoms combine to form very different structures inside a volume itself too small to be seen with the naked eye. They then assemble these structures with the assistance of other molecules. The result is an exceedingly complex machine, whose workings we shall briefly summarize.

1. Dynein moves. 2. Moving dynein sets up a tilt. 3.In state of rest. 4. Internal membrane	5. Exterior twin microtubules 6. Single microtubule inside 7. Dyneinarms 8. Cell membrane
The microtubes act like oars to move the microhair. The protein dynein serves like an engine. This flawless interconnected system is a much smaller component of an entire structure too small to be seen with the naked eye.

Imagine all the machines you know that consist of a number of parts. Open a computer, for example, and you'll see a number of circuits, cables and pieces of metal all combined together in complex ways. To anyone who does not know much about computers these may not mean much, but a computer engineer will know just what purpose each complicated connections serves. He will know, for instance, that if the smallest wire is attached to the wrong place, the computer will be unable to function. Every component inside is therefore of the greatest importance for the computer to run. In a similar way, every component making up the cell's minute hairs is of vital importance if they are to function properly. The absence of any one structure will mean that either the hair cannot move the cell or permit the cell to move moisture around it; or else the hair will fail to develop in the first place.

Biochemists have performed experiments to determine what happens to these hairs in the absence of any of their components. For example, if the dynein protein arms separate, the hairs will not move. In the absence of the protein nexin, which serves as a bridge between the microtubes, the microtubes will separate and begin to move away from each another. In that event, their structure also becomes impaired. As you see, not one part of this complex system can be dispensed with.

In an area so small it passes comprehension, every part of this system has been arranged for the continuation of life and for cells' functions.

Realizing this, you can better understand the importance of perfect structure in every component.

The Microhairs' Movement System

You may compare the movement of these tiny hairs to a boat floating on the water. The microtubes making contact with the water function like oars. The nine interconnected rods can slide like a single oar, through the bonds between them. Like engines, the arms of the protein dynein lend strength to the propulsion system. The nexin arms are the connecting tubes, passing the power of the engine from one microtube to another. Whether boat or a cell is being propelled, for this motion to be provided, a great many components must be bound to one another and operate together in great harmony. If not all placed in the right positions, the components serve no purpose.

A fine example of this is the large amount of scrap in a junkyard—all waste products. However, when a mechanical engineer visits this collection of discards, selects those parts that will be of use and assembles them in line with the machine he has formulated in his mind, then the product of his intelligence emerges as a complex and functional machine

As you have seen, that intelligence and consciousness are necessary for every component to come into being. In the same way, intelligence, consciousness, planning and purpose are needed to produce useful proteins structure. Even if we assume that proteins did happen to form in some way, when we inject them all into a cell, we still cannot expect them to have given rise to such flawlessly functioning structures as microhairs. Allah is the One Who has organized and combined them in an appropriate manner.

Just like oars, the microhairs all move in the same direction, thus enabling the cell to move quickly. At the same time they can also propel certain substances in a particular direction. Below can be seen microhairs that cause a woman's ov um to move through the fallopian tube toward the womb.

The theory of evolution is absolutely unable to account for the formation of proteins and how they combine to form structures in which every single component is indispensable. Coincidences cannot possibly give rise to such complex and impeccable systems. Moreover, to form even the smallest systems, such as the microhairs in the cell, hundreds of proteins, enzymes and molecules must combine at the same time. Indeed, biochemists have determined that cell motion is supported by up to another 200 proteins not mentioned here. The absence of just one out of hundreds of proteins will cause the others to become useless.

The theory of evolution, which maintains that life emerged gradually and through minute changes, is thus unable to account for the formation of the microhairs. The microbiologist Michael Behe's book, Darwin's Black Box, contains powerful criticisms of the theory of evolution, devotes considerable space to proteins and the hairs in cells, and describes the theory of evolution's inadequacy in trying to explain them:

As biochemists have begun to examine apparently simple structures like cilia and flagella, they have discovered staggering complexity, with dozens or even hundreds of precisely tailored parts. It is very likely that many of the parts we have not considered here are required for any cilium to function in a cell. As the number of required parts increases, the difficulty of gradually putting the system together skyrockets, and the likelihood of indirect scenarios plummets. Darwin looks more and more forlorn. New research on the roles of the auxiliary proteins cannot simplify the irreducibly complex system. The intransigence of the problem cannot be alleviated; it will only get worse. Darwinian theory has given no explanation for the cilium or flagellum. The overwhelming complexity of the swimming systems push us to think it may never give an explanation... Cilia and flagella are far from the only problems for Darwinism. 41

As Behe states, the minute hairs that propel the cells are just one of the realities that refute Darwinism. Life has been equipped with countless such miracles of creation, each of which introduces us to the infinite Might, Intelligence, Knowledge, and incomparable creative Artistry of our Lord. On seeing these proofs, anyone of intelligence and a good conscience will comprehend that Allah is the Lord of all:

He said,"The Lord of the East
and the West and everything between them if you used your intellect.
(Surat Ash-Shu‘ara': 28)

Enzymes: Special Accelerators for Life

Enzymes are manufactured in the mitochondria within the cell.

In a single second, more processes than can possibly be counted take place in the bodies of living things. These processes are so detailed that super regulators must intervene to keep confusion at bay, establish order and accelerate events. These super regulators are enzymes.

Inside every living cell there are thousands of enzymes, which assist in the copying of DNA, breaking down nutrients, producing energy from foodstuffs, and permitting large molecules to form from simple ones—to give only a few examples.

Enzymes consist largely of proteins, the remainder being vitamins and vitamin-like substances. Were it not for the inspiration of Allah on these enzymes, produced by mitochondria inside the cell, then no functions of yours, from the simplest to the most complex, would be possible, or else they would slow to practically a halt. In either case, the result would be the same. You would be unable to breathe, eat anything, digest, see or speak; in short, you would die.

One of enzymes' most important functions is to initiate, halt and accelerate a series of chemical reactions in the body. As your cells fulfill their functions, the chemicals within them must enter into reactions. A certain level of heat is needed for chemical reactions to begin. However, higher temperatures also poses a threat to cells, which can lead to injury or death. Enzymes resolve this difficulty. They initiate or accelerate chemical reactions without the need for high temperatures, but do not enter into such reactions themselves.

Three-Dimensional image of the Protein Anhydrase

To cite one instance from daily life as an example of how enzymes accelerate events in our cells: As you breathe, carbon dioxide is cleansed from your blood through an enzyme known as anhydrase speeds the process by up to 10 million times.42 With similar speeds, enzymes possess the capacity to effect changes in 36 million molecules in a minute.

Enzymes enable vital reactions to take place at the greatest speed possible and to also use the body's energy in the most economical way. If you compare the human body to a factory, and enzymes to that factory's means of production, then no source of energy can be sufficient to power it. The energy requirements of trillions of "machines," or cells of 2,000 different varieties, working flawlessly at maximum speed will be enormous. Therefore, in order to carry out a simple reaction within the cell, high levels of heat and energy are needed—under laboratory conditions.43

In fact, however, silently working enzymes perform all their functions to the letter, using the heat and nutrients they take from the body. These properties alone are enough to show that enzymes are talented elements especially made to make every reaction taking place in the body error-free and effective. As you read these words, a great many enzymes are controlling reactions throughout your body, and raising them to a speed that ensures the health of your cells. Although you are largely unaware of what is going on in your body, enzymes are aware of these processes and make important and accurate interventions. In addition, every enzyme accelerates specific reactions in the body. No enzyme can perform the task of any other, because each one has been created to perform its own particular duty.

1. Activation energy difference stemming from enzymes 2. Energy 3. Direction of reaction 4. Product 5. Matter 6. Non-enzymatic reaction 7. Enzymatic reaction

Enzymes do not themselves enter into reactions, but they accelerate reactions in the body by lowering the energy level required for reactions to take place. The diagram shows how much a reaction rate will slow in the ab sence of en zymes.

While a large number of enzymes can be effective in neutral-state liquid environments, the enzymes charged with digesting foodstuffs in the stomach can operate only under acidic conditions. The enzyme amylase in saliva breaks starch down into maltose and accompanies food down the oesophagus, and when it arrives the stomach, the acid environment there neutralizes it. But once it reaches the stomach, the enzyme's work is done.

Enzymes' shapes are fully compatible with the substances they will combine with and operate on, working like a lock and key in a complicated three-dimensional geometry. The way that enzymes locate compatible substances in the body and then attach to them shows particularly conscious behavior. Furthermore, like hunters who wait for prey to pass by, enzymes are all found just in the right places, in accordance with their structures and properties. They avoid environments where they might come to harm or else lose their effectiveness. They assume responsibility for initiating and accelerating all reactions, but requiring the absence of any agent to stop them, enzymes would keep initiating and halting reactions throughout the body, causing overproduction of specific proteins or the impairment of particular biochemical balances.

The individual cells regulate enzyme activity. When a cell decides that the time has come to stop the enzyme, it distracts the enzyme with extraordinary consciousness and planning, dispatching a substance similar to the one with which the enzyme normally combines. The enzyme attaches to it, and this imitation substance prevents unnecessary activity by keeping the enzyme busy for a while. In order to immobilize enzymes, however, this imitation has to compete with the true substances, and so obstruction of enzymes in this manner is known as competitive inhibition. This distraction method halts enzyme activities until the product emerging as a result of that enzyme's reaction falls below a specific level.

What is told above is not some information to pass by. Recall that we  are not talking about educated, responsible human beings who are able to take decisions, make conscious calculations and put these plan into action but proteins, fats, carbohydrates and vitamins composed of unconscious atoms. The cell determines the quantities of the substance produced, like an inventory controller. And when it decides that enough has been manufactured, it implements a clever plan to suspend production for a while.

1. Enzyme 2. Matter	3.Product 4. Active
Enzymes' structures in complete harmony with the structures of the substance they will affect. They combine easily, like the pieces of a jigsaw puzzle and locate the substances suited to them in a most conscious manner. Above is a diagrammatic representation of how an enzyme and substance join together.

The way the cell produces a "decoy" substance to inhibit the enzyme and dispatches it at exactly the right time displays conscious decision. If these imitation materials were always present, they would obstruct production at times of need by distracting the enzymes. However, the cells' timing is always accurate. The way that such intelligent and organized displays of behavior take place, one after the other, and are achieved by molecules too small to be seen with the naked eye, are indications of the superior nature of Allah's creation. It is evident that all these microscopic entities act under the command of Allah.

1. Normal matter 2. Replica matter 3.Enzyme

When enzymes do not need to accelerate a reaction, the cell sends out an imitation substance to distract the enzyme. This imitation has all the features to make it compatible with the enzyme. This e traordinarily deliberate behavior is a proof of the superior nature of Allah's creation.

Nowadays, as ever more details emerge regarding enzymes, proteins and similar structures, the more the theory of evolution seems invalid. Whether scientists like it or not, the structures in this microworld force them to admit the flawless creation in life. One such scientist is the microbiologist Malcolm Dixon:

Enzyme systems are doing every minute what battalions of full-time chemists cannot... Can anyone seriously imagine that naturally occurring enzymes realized themselves, along with hundreds of specific friends, by chance? Enzymes and enzyme systems, like the genetic mechanisms whence they originate, are masterpieces of sophistication. Further research reveals ever finer details of design...44

By using probability calculations, the well-known biochemist Michael Pitman describes why enzymes' structures are far too complex to have come into being by chance:

There are perhaps 1080 atoms in the universe, and 1017 seconds have elapsed since the alleged "Big Bang." More than 2,000 independent enzymes are necessary for life. The overall probability of building any one of these polypeptides can hardly be greater than one in 1020. The chance of getting them all by a random trial is one in 10400000, an outrageously small probability that could not be faced even if the whole universe consisted of organic soup.45

As is clear from the words of the scientists quoted above, it is absolutely impossible for a single enzyme to appear spontaneously as the result of chance. Yet 50 enzymes work together in order to form one single enzyme! An enzyme needs nine other enzymes to synthesize a single amino acid. A cell with no enzymes cannot survive because it cannot perform any actions. However, the other enzymes in the cell are essential for enzymes to appear. That being so, how did the first enzyme emerge when there were no other enzymes around? Darwinists can never answer that question.

Yet this is by no means the end of Darwinists' difficulties. If the proper conditions are not preserved when enzymes emerge, they may soon disappear or be lose their ability to function.46 Consequently, for a single enzyme to be in a functional state, all the other enzymes, and the systems and structures of the cell itself must also be ready and present. So how did the first enzyme come into being? The plain answer is that every living thing was created, together with all its molecules, cells, enzymes and proteins, by Allah.

Antibodies: Proteins That Protect Your Body from Foreign Substances

1. Main cell with ability to divide 2. Main cell	3. B Cell 4. Antibodies Produced by B Cells
Antibodies, produced by B cells manufactured in bone marrow, constitute 20% of the proteins in plasma. The most important feature of anti bodies is theirability to recognize foreign bodies entering the body and swiftly neutralize them.

As you know, living things are very delicate. The slightest change in the systems that maintain life, or the entry of a foreign substance no larger than a millionth of a meter, may inflict severe damage or even destroy the entire system. So how can such a delicate system be protected? In the body of every living thing, a defense team stands ready to protect it from harmful substances. Indeed, this immune system represents the largest army in the world today. Of the 100 trillion or so cells in the human body, a large part represent defense system cells. These cells are present in the blood throughout the body and monitor every cubic millimeter of it. These "troops" also use weapons equipped with the most developed technology—a kind of protein known as antibodies.

These antibodies proteins have a spherical structure and play a crucial role in the body's defenses. Known as immune globulin, these proteins found on the surface of the cell are generally referred to by the letters Ig for short.

Antibodies, manufactured by B cells produced in the bone marrow, are wide-ranging weapons specially prepared for use against foreign substances. Antibodies constitute 20% of the proteins in plasma. These proteins' most important feature is their ability to distinguish cells belonging to the body from foreign substances, and to swiftly eliminate the latter. How do these proteins manage to accomplish such a difficult task? Proteins, composed of specific combinations of inanimate atoms, can identify foreign and harmful substances, even though they have no sensory systems to perceive nor brains with which to interpret their perceptions.

In addition to targeting foreign substances entering the body, antibodies can also combine with them and create antigens—perfect three-dimensional compounds with specific molecules or molecular components identified as foreign to the body. These antigens are stimulating molecules that attach to foreign bodies and initiate the manufacture of antibodies. When the defense cells patrolling in the bloodstream identify an antigen, the defense system goes on alert and begin manufacturing the appropriate antibodies to the foreign body that has entered. When the antigen and its appropriate antibody join together, five separate chemical reactions take place, which may be summed up as follows:

Agglutination: The antigens and antibodies bind together, thus preventing the antigens' activities.

Precipitation (Sedimentation):Antibodies and antigens form a complexity, and this forms a sediment by separating from the solution.

1. Antigen 2. Antigen 3. Antibodies

Antibodies recognize foreign antigens that enter the body, in other words, and neutralize these substances by completely surrounding them.

Neutralization:The antibody blocks the harmful portion of the foreign substance and prevents it doing any damage.

Dissolution:After binding to the antigen, the antibody causes the foreign cell membrane to dissolve. As the cell structure is impaired, the antigen is neutralized.

Unification system:This system is contained in the plasma, but not normally in an active state. The combining of the antigen and antibody makes this system active. As a result the stimulated system enters a series of reactions. The enzymes of the system destroy the disease structures.

This information about the body's defense system contains very important messages for those who reflect on it without ignoring the truth. You never realize it, but all the molecules in your body are in constant activity. Usually it's impossible to become aware of a foreign substance entering your body, but the molecules which comprise your antibodies have assumed this duty and are equipped with miraculous abilities for your protection. In this defense system, atoms identify and recognize other atoms from the very outset. Unconscious proteins and molecules, made entirely of atoms, can recognize harmful substances, instantly produce the most effective weapons against the enemy, and immediately disable it. To Whom belongs the power and intelligence that helps them display such conscious behavior? All of these belong to Allah, the sole Lord of living things' flawless creation.

Antibody (right) attaching to an antigen (left).

Like all other miracles of creation, the defense system represents a major dilemma for Darwinists. This system can manufacture 100 million different types of antibodies, can recognize an intruder at once and produce the appropriate antibody.47 Exactly how this takes place is still a mystery to scientists, but clearly that this system could not have come into being by chance.

Despite his being an evolutionist, California University Professor of Biology Christopher Wills states in The Wisdom of the Genes that the body's defense system raises one of the most complex and controversial questions in the whole field of biology. The human race has been the target of diseases for millions of years, but we also know how to defend ourselves against diseases we may encounter in the future. The immune system uses immunoglobulins and proteins able to bind to molecules they have never seen before. Wills states that this state of affairs seems to drag scientists into an area field that they prefer to avoid when discussing evolution. He goes on to ask how the immune system can foresee the future and produce immunoglobulins capable of defending against future attacks.48

A. Antibodies bat tle the body's en e mies in a num ber of ways: B. They neutralize the antigens they identify in the body, C.They cover the surface of bacteria, invade them. and prepare them for phagocytosis (The engulfing and ingestion of bacteria or other foreign bodies by phagocytes). D.They adhere to viruses and neutralize them (blocking the sites that would attach to the cell), and E.They collect bacteria together.

1. Receptors, 2. Phagocytic white cell

Antibodies discharge their functions in a number of ways. As the diagram shows, they cling to the surfaces of viruses, bacteria and fungi and then invade and neutralize these antigens. Sometimes they collect the bacteria together first, before preparing to destroy them. They can also block the points where a virus will attach to a cell, thus prevent the virus from binding to the cell and injecting itself.

Darwinists are unable to answer his question. To such questions as "How did antibodies come about?" or "How did the immune system come into being?" the only reply they can give is "By chance." Yet when they examine the defense system and similar structures, Darwinists either avoid touching on the subject or else admit their bafflement. It would be blatantly illogical to say "by chance" in answer to the question of how these systems came to be.

Since it is so evident that life was created by Allah down to its very smallest component, it is truly surprising that Darwinist scientists still blindly deny this fact. Allah refers to such people in the Qur'an:

We created you, so why do you not confirm the truth?
Have you thought about the sperm that you ejaculate? Is it you who create it, or are We the Creator? We have decreed death for you and We will not be forestalled in replacing you with others the same as you and re-forming you in a way you know nothing about. You have known the first formation, so will you not pay heed?
(Surat al-Waqi‘a: 57-62)

Antibodies' Range of Weapons

Different kinds of antibodies warn other defense cells of the presence of antigens or attach to antigens themselves to initiate full-scale war. How can these minute molecules successfully discharge this responsibility? Where do their orders come from? To understand the importance of each antibody in the defense system, and these tiny molecules' aware ness of their responsibilities, let's examine their duties in general terms. IgE Antibodies (Immune Globulin E) IgE Antibodies (Immune Globulin E) are antibodies that travel through the bloodstream. These warrior antibodies are also responsible for calling other blood cells to the fray, and are involved in allergic reactions. IgE levels are therefore high in allergic individuals. IgA Antibodies (Immune Globulin A) IgA Antibodies (Immune Globulin A) are found in moist environments ideal for bacteria and viruses, such as tears, mother's milk, blood, air sacs, mucosa, stomach and intestines particularly sensitive regions where the body must combat antigens. IgAs resemble each other closely in structure. As reliable sentries, they settle in strategically important locations where it is easy for germs to enter the body. The antibodies protect babies in their mothers' wombs from disease, and continue to protect and defend them after birth. Babies do need assistance from their mothers because IgA antibodies are not found in the body of every newborn. The IgAs in mother's milk protect a baby's digestive system from the effects of many germs. Just like IgG antibodies, these antibodies disappear when the baby is a few weeks old, once they have served their purpose. These are all the results of a most rational, pre-planned creation containing essential information. As you have seen, protecting the baby at every stage of development has been taken into account. These antibodies, standing by to protect the baby when necessary, do not take up valuable space when no longer required. No coincidence can engineer such a flawless and perfect plan, nor impose its will on collections of atoms. All this planning and system evidently belongs to Allah, the Compassionate and the Merciful. IgM Antibodies (Immune Globulin M): IgM Antibodies (Immune Globulin M): are found in the blood, lymph glands and B cells. Whenever the body encounters any antigen, it produces IgM antibodies —compounds of five IgG molecules—to fight the enemy. IgD Antibodies (Immune Globulin D): IgD Antibodies (Immune Globulin D): are found in the blood and on the surface of defense system B cells. Unable to act alone, they enable certain defense cells (T cells) to trap an tigens by installing them selves on their surfaces. IgG Antibodies (Immune Globulin G): IgG Antibodies (Immune Globulin G): is the most fundamental and most numerous, comprising 33% of all antibodies. While a few days are sufficient for their synthesis, their life spans range from a few weeks to at most a few years. These antibodies, present in the blood, lymph glands and intestines, travel through the bloodstream and adhere to foreign substances entering the body. Their powerful antibacterial and antigen-destroying properties protect against bacteria and viruses and neutralize the acidic effects of toxins. In addition, they squeeze between the cells to neutralize micro-invaders that have entered the skin. By means of these abilities and their small size, they are the only antibodies able to enter a pregnant woman's placenta, to protect a baby whose defense system has not yet developed. Had these antibodies not been created with the ability to enter the placenta, then babies in the womb would be defenseless against germs, at risk of death before they were even born. As you have just seen, antibodies come in several varieties, with an impeccable division of labor among them. Since every antibody discharges its responsibilities to the full, then what force, will and intellect has equipped the same protein with different characteristics? Who has instructed them what to do in the body, train them with that end in mind, and provide them with information? Could proteins have spontaneously decided to protect the body by establishing a flawless division of labor and organization? Anyone who reflects on these questions will clearly see the work of Allah, the Superior Creator.

Footnotes

34.http://www.madsci.org/posts/archives/mar97/853519068.Cb.r.html; "What regulates the activities of a hemoglobin cell?" 

35.Curtis Barnes, Invitation to Biology, p. 51. 

36.Prof. Dr. Engin Gozukara, Biochemistry, p. 176. 

37.Albert Lehninger L., David L. Nelson, Michael M. Cox, Principles of Biochemistry, p. 134. 

38.http://www.britannica.com/bcom/ eb/article/7/0,5716,53637+1+52330,00.html?query=methemoglobinemia; Encyclopedia Britannica 

39. Michael Denton, Nature's Destiny, New York: Free Press, , pp. 201-202. 

40.Michael Behe, Darwin's Black Box, p. 61, 

41.Michael Behe, Darwin's Black Box, p. 73. 

42.Prof. Dr. Engin Gozukara, Biochemistry, p. 580. 

43.Ibid., pp. 579-580. 

44.Michael Pitman, Adam and Evolution,(1988),p.144. 

45.Ibid., p. 148. 

46.Lester McCann, Blowing the Whistle on Darwinism, Lake Mills, Iowa: Graphic Publishing Company, 1986, p. 70. 

47.Curtis Barnes, Invitation to Biology, p. 419. 

48.Christopher Wills, The Wisdom of the Genes, Istanbul; Sarmal Yay›nevi, March 1997, pp. 151-152.