Islam- The Religion Of Peace

Islam- The Religion Of Peace

Sunday, March 9, 2014

QUR'AN AND SCIENCE: ALL THINGS IN PAIR

INTRODUCTION
Islam is a religion of truth and it is a rational religion. The Glorious Qur'an denounces irrational religion as religion evidently false. Again and again the Qur'an urges men to use their reason, to ponder and to reflect. While the West thinks there is conflict between religion and science, but for Muslims there is no conflict between Islam and Science. According to Dr. George Sarton, former Professor of History of Science at Harvard University Islam is responsible for the meteoric rise of sciences during the middle ages while Europeans lived in the dark ages. This is because both the Qur'an and Prophet Muhammad (S.A.S) extolled the Muslims to learn, to seek education and knowledge. In Islam there is no distinction between secular education and religious education.
The Noble Qur'an is not a scientific treatise. It is a book of guidance, a book of wisdom. However there are more than 1200 verses (Ayath) which can be interpreted in the light of modern science. The Qur'an gave a great impetus to learning, particularly in the field of natural sciences. The Qur'an Majid may be called the cause of modern scientific and material progress.
PAIRS IN LIVING THINGS
One of the most recent of all scientific discoveries is that everything in the universe exists in pairs such as male and female among living things. Now we find that rock crystals also have pairs.
The Qur'an says:
And of everything We have created pairs: That ye may receive Instruction.
Surah Zariyat, 51: 49 A. Yusuf All in note 5025 item (3) says " All things are in twos: sex in plants and animals, by which one individual is complementary to another; in the subtle forces of nature. Day and Night, positive and negative electricity, forces of attraction and repulsion: and numerous other opposites, each fulfilling its purpose, and contributing to the working of God's Universe; and in the moral and spiritual world. Love and Aversion, Mercy and Justice, Striving and Rest, and so on;-all fulfilling their functions according to the Artistry and wonderful Purpose of God. Everything has its counterpart, or pair, or complement. God alone is One, with none like Him, or needed to complement Him. These are noble things to contemplate. And they lead us to a true understanding of God's Purpose and Message."
Surah TA HA 20: 53
Sex in plants was discovered in the 1890s. The knowledge that plants have life, their male and female characteristics, pollination and fertilization is found in the Qur'an which was revealed 1400 years ago. 
PAIRS OF WHICH THEY HAVE NO KNOWLEDGE
The most astounding fact of all is that pairs exist at the atomic (nuclear particles, electrons) and subatomic particles levels. The Qur'an very clearly states:
Surah YASEEN 36: 36
In note 3981 Yusuf Ali says "The mystery of sex runs through all creation, -in man, in animal life, in vegetable life, and possibly in other things of which we have no knowledge. Then there are pairs of opposite forces in nature, e.g., positive and negative electricity, etc. The atom itself consists of positively charged nucleus or proton, surrounded by negatively charged electrons. The constitution of matter itself is thus referred to pairs of opposite energies." 
The purpose of this article is to reflect and interpret in detail the Qur'anic statement " And (other) things of which they have no knowledge." Man had no knowledge of the structure of the atom until the early part of the twentieth century. Scores of subatomic particles have been discovered recently and many are yet to be discovered. Nick Herbert says in his book "FASTER THAN LIGHT" (published by New American Library, New York, 1988, p.144) 
"Today the physicists have generalized Dirac's result and predict that all elementary particles come in pairs, the existence of a certain particle implied that a corresponding antiparticle also exists." 
In 1930, British Theoretical Physicist and Nobel Laureate in Physics P.A.M. Dirac based on mathematical equations predicted the existence of antielectron, reverse electron or positron. This is the first "electron-positron" pair at the elementary particle level postulated then. In 1932 Carl Anderson using a particle detector called cloud chamber detected the positron in Cosmic rays which flood the entire universe including the earth. 
As we know the nucleus of an atom contains positively charged particles called protons and neutrons with no charge but have the same mass as protons. The electron revolves around the nucleus. This is the structure of an atom. The nucleon (proton or neutron) is quite heavy compared to the mass of an electron. The mass of a nucleon is 1836 times the mass of an electron. The particles whose mass is between the mass of an electron and the mass of a nucleon are called mesons (intermediate). Muons are 207 times as massive as electrons. Pions are 270 times as massive as electrons. There are three kinds of Pions: positively charged, neutral, and negatively charged. A photon or a neutrino has zero charge and zero mass. A nucleon (proton or neutron) consists of three quarks. The following definitions will be helpful to the readers in understanding the Tables listing the subatomic particles in pairs. 
Baryon: a heavy particle
Nucleon: a proton or neutron
Hyperon: a baryon that is heavier than a nucleon
Meson: a particle of medium mass (between an electron and a nucleon)
Hadron: any particle that can take part in a strong interaction (such as  baryons and mesons)
Lepton: a particle of low or zero mass that can experience electromagnetic  forces or the weak force. 
The masses of the particles are expressed in energy units called MeV (million electron Volts). The mass of an electron is expressed as 0.511 MeV and the mass of a nucleon is equal to 938 MeV. A particle whose mass is between 0.511 MeV and 1000 MeV is a meson. A particle whose mass is greater than 1000 MeV is a Hyperon.
Particle and antiparticle constitutes a pair. Electron and positron is a pair. Proton and antiproton is a pair. Neutron and antineutron is a pair. The details of the stable and semistable particles along with their counter particles are shown in the Tables.
TABLE OF FUNDAMENTAL PARTICLES SHOWING THE PAIR

Science and Sunnah: The Genetic Code

HADITH 4 
On the authority of Abu 'Abd ar-Rahman 'Abdullah ibn Mas'ud (May Allah be pleased with him), who said: The Messenger of Allah (may the blessings and peace of Allah be upon him) and he is the truthful, the believed, narrated to us:
Verily the creation of each one of you is brought together in his mother's belly for forty days in the form of seed, then he is a clot of blood for a like period, then a morsel of flesh for a like period, then there is sent to him the angel who blows the breath of life into him and who is commanded about four matters: to write down his means of livelihood, his life span. His actions, and whether happy or unhappy. By Allah, other than Whom there is no god, verily one of you behaves like the people of Paradise until there is but an arm's length between him and it. And that which has been written overtakes him and so he behaves like the people of Hell-fire and thus he enters it; and one of you behaves like the people of Hellfire until there is but an arm's length between him and it. And that which has been written overtakes him and so he behaves like the people of Paradise and thus he enters it. It was related by al-Bukhari and Muslim,
(Ref: An-Nawawi's "Forty Hadith". Translated by Ezzeddin Ibrahim and Denys Johnson-Davis. The Holy Koran Publishing House, Damascus, Syria, 1977, pp. 36-38.)
 

There are some Muslim thinkers who do not like the interpretation of Qur'an or Sunnah in terms of scientific terminology. However, the author believes there is nothing wrong in attempting to understand or interpret "Islam" in the light of modern knowledge. Through this article the author wants to encourage freethinking, stimulate research ideas among Muslim scholars, scientists and students so that our understanding of Qur'an and Sunnah can be furthered.
This Sunnah deals with the creation of human beings which is mentioned in great detail in Al-Qur'an. However, the astounding and astonishing matter about this Hadith is the angel who blows the breath of life into man and writes down four matters: (1) his means of Livelihood, (2) his life span, (3) his actions, and (4) whether happy or unhappy.
 

Before the scientific discovery of the Genetic Code and the award of Nobel Prizes to the three discoverers in 1968, it was humanly impossible to scientifically understand this Hadith. In 1990s, we are able to unravel the genetic code with regard to a person's inheritance of certain disease carrying genes. This information may tell us about an individual's life span and/or whether he will be happy or unhappy. Science is yet to discover the genes responsible for a person's "rizq" (food habits, dietetic profile, etc.) and a person's "actions" or behavior such as Type A, B, or C personality. 
The present article attempts to show our current knowledge in our ability to perform genetic screening in order to understand a person's inheritance of carrying or developing a certain disease through the study of that person's genes. Our knowledge is still incomplete and we are very far away in attaining the knowledge about the four matters mentioned in this Hadith.
Inside the nucleus of a living cell there are 46 chromosomes which are visible only when the cell divides. The chromosomes are made of DNA or deoxyribonucleic acid. A certain length of the DNA is called the gene. That length of DNA that codes for complete synthesis of a protein is also called a gene. Along the 46 chromosomes of every human cell are some 100,000 genes. The U.S. Government is funding a $3 billion, 15-year Human Genome Project, under the joint leadership of the National Institutes of Health and the Department of Energy, which will allow scientists to know exactly where on our chromosomes each of our 100,000 genes reside. Among these 100,000 genes, there are a few genes, which can be lethal. Every person has a unique set of these seven or eight deadly genes. They are usually hidden, but in the wrong environment or in combination with certain other genes they can express themselves in dangerous ways. Some families carry genetic diseases for generations and they know what type of lethal genes they carry. Most of the people do not know if they carry any genetically defective genes. 
In the near future it is possible to get a blue print of our genetic inheritance-and with the knowledge of the most likely cause of our own death. This test can be performed by walking into a physician's office and giving a blood sample with a finger prick. The results of the test reveal if a person has any defective genes that will cause a certain disease or the result may be negative in which case that person will not carry the disease. Most of the adult-onset diseases involve several genes. For example there are at least 17 genes responsible for just one aspect of coronary heart disease-and the genes express themselves only under certain conditions. For most of the genetic diseases it is impossible to predict with a certainty. Geneticists now say that diabetes, hypertension, and cancer run in families. In other words these diseases are genetically inherited. Geneticists can treat adults for the presence of a handful of relatively rare genes - among them those that cause Huntington's disease (causes progressive brain degeneration); adult polycystic kidney disease (causes gradual loss of kidney function); polypsos (this condition leads to colon cancer); hemochromatosis (which could cause liver failure); and certain forms of cancer such as retinoblastoma, some leukemias, and small-cell carcinoma of the lung. 
There are two important questions, which have not been answered so far. The first one is whether knowledge of the information is itself potentially hazardous to the individual; and the second one is whether institutions will misuse that knowledge to promote their own dominance and control. 
There are two types of tests: prenatal tests and genetic screening tests. The prenatal tests inform future parents of a child's chances of inheriting a condition for which the parent is a carrier-Tay-Sachs disease, sickle cell disease, cystic fibrosis- or of inheriting a condition from which a family member has already died-muscular dystrophy, hemophilia, beta-thalassemia. The genetic screening test tells the adults about their own genetic destiny. But do we really want to know? Are we willing to learn the details of our genetic destiny-especially when it involves diseases for which there is no cure? Are we capable of understanding the uncertainties inherent in this high-tech fortunetelling? 
Adult polycystic kidney disease comes late in age and causes degenerative condition of the kidneys resulting in gradual loss of kidney function. It is carried on a single, dominant gene. If a man has the disease, then his son has a 50-50 chance of having the gene and if he has two daughters, their chances of having the disease is also 50-50. Usually this disease strikes when one is in his or her 110's. The genetic test only tells whether a persons has the gene that causes the disease, but it doesn't tell whether that person gets the disease in his UO ' s or in his late 60's. No treatment exists to prevent kidney failure in polycystic kidney patients. 
There is a certain amount of unwillingness on the part of humans to know their future. However there are individuals who have taken the tests for the occurrence of Huntington's disease which is a neurological disease, a progressive and untreatable brain and muscle degeneration with symptoms that usually show themselves in the 40's. The chances of inheriting this disease
causing gene is also 50-50. Those who took the test and whose results were positive, there were no instances of suicide and only one of severe depression, and one marital breakup among the 71 patients screened. 
Nancy Wexler of the Hereditary Disease Foundation says "If the information is limiting, enervating, depressing, if it tears at your self-esteem, if it gives you nothing to do, it might be better not to know." She devoted her professional life to the search for the gene for Huntington's disease which killed her mother and for which she and her sister are at risk. 
Scientists stress that the results of genetic testing are ambiguous: genes alone do not determine a disease's prognosis. One can say whether or not an individual appears to have the gene, and those who have the gene have gone on to develop the disease. But one cannot say anything about when the disease will start, what will be the course of the disease, and what will be the relevant aspects of the illness.
 

The danger comes when imprecise tests are used inorder to predict the future, and when institutions actually use them to construct the future: when employers refuse to hire or train individuals at high risk of dying in their prime; when health-insurance companies insist on knowing the genetic profiles of their potential subscribers before paying for pre-existing genetic conditions; when schools require a permanent genetic record to anticipate which children will exhibit behavioral problems or learning disabilities. In United States genetic discrimination already exists. The risk of increasing the number of people defined as unemployable, uneducable or uninsurable exists. Genetic tests can identify employees who are susceptible to workplace toxins and companies may prohibit hiring such employees because they may contract occupational illnesses. 17 companies out of 500 had used genetic tests within the last 12 years, and 59 were considering the possibility. There is the danger of using the genetic tests for purposes of "eugenics." Eugenics means the deliberate manipulation of the gene pool with the idea of creating a master race. Defective people walking around may not be allowed to reproduce for the betterment of society. 
Many of the conditions that will be uncovered through genetic studies are not life threatening, but might not fit into some societal scheme: genetic dyslexia, for example; genetic shyness; genetic arrogance; genetic left-handedness. 
It is known that left-handed people have shorter life expectancies, which is relevant to insurance companies. But left-handed people may suffer for lack of knowledge whether left-handedness occurs for reasons other than genetic. They may be construed from birth as brain-damaged.
Allah is all knowing.  

Human Cloning

 On February 22, 1997, Dr. Ian Wilmut, the 52-year old embryologist astonished the world by announcing that he had created the first animal cloned from an adult-a lamb named Dolly. By scrapping a few cells from the udder of a 6-year-old ewe, then fusing them into a specially altered egg cell from another sheep, Dr. Wilmut and his colleagues at the Roslin Institute in Midlothian which is seven miles from Edinburgh, Scotland, have suddenly nudged open one of the most forbidden- and fascinating-doors of modern life. People have been plagued with the possibility of building humans for centuries, much before Mary Shelley wrote "Frankenstein" in 1818. Researchers never believed that it was possible to create an identical genetic copy of an adult animal. Dr. Wilmut "does not have a belief in God."
On March 14, 1997, President Clinton declared "the creation of life is a miracle that reaches beyond laboratory science" and he barred spending federal money on human cloning. He also urged a halt in private research until the ethical impact is better understood. Clinton asked the National Bioethics Advisory Commission a week before his announcement to review the ramifications cloning would have for humans and report back to him in 90 days. He imposed the restrictions of federal funds after learning that researchers in Oregon had cloned two rhesus monkeys- (the world's first cloned primates and the closest step yet to humans)_ from very early embryo cells-that is not the same as cloning the more sophisticated cells of an adult animal, or even a developing fetus. "Human cloning would have to raise deep concerns, given our most cherished concepts of faith and humanity," Clinton said. "Each human life is unique, born of a miracle that reaches beyond laboratory science. I believe we must respect this profound gift and resist the temptation to replicate ourselves. Science often moves faster than our ability to understand its implications. Any discovery that touches upon human creation is not simply a matter of scientific inquiry. It is a matter of morality and spirituality as well." 
Clinton asked private research workers-who are not covered by his directive-to voluntarily keep off at least until the National Bioethics Advisory Commission can study the matter. Others were afraid that a permanent ban could thwart vital research on how genes are turned on and off inside human cells, a key factor in finding a cure for cancer or some birth defects or unlock the secrets to diseases. Clinton, too, noted the difference cloning could make in agriculture, medical treatments or "helping to unlock the greatest secrets of the genetic code." But he did not want scientific progress to move so fast that new developments are not handled responsibly and that without ethical implications people will try to play God.  
History 
1938: Cloning conceived 
The idea of cloning had enticed scientists since 1938. When no one knew what genetic material was or consisted of, the first modern embryologist, Dr. Hans Spemann of Germany proposed what he called a "fantastical experiment" : taking the nucleus out of an egg cell and replacing it with a nucleus from another cell. In short, he suggested that scientists try to clone. 
1952: First cloning experiment with frogs 
The size of the eggs in the frogs are enormous compared with those of mammals, making them far easier to manipulate. Robert Briggs and T.J. King used a pipette to suck the nucleus from the cell of an advanced frog embryo and added it to a frog egg. It did not develop. 
1970: Another experiment yields better results 
John Gurdon who is now a faculty member at Cambridge University successfully cloned the frogs. Even though the frogs never reached adulthood (the eggs developed into tadpoles but died after they were ready to begin feeding), the technique was a landmark. He replaced the nucleus of a frog egg, one large cell, with that of another cell from another frog. He later showed that transplanted nuclei reverted to an embryonic state. 
1981: Cloning of mice 
Dr.Karl Illmense of the University of Geneva and Dr. Peter Hoppe of the Jackson Laboratory in Bar Harbor, Maine, claimed that they had transplanted the nuclei of mouse embryo cells into mouse eggs and produced three live mice that were clones of the embryos. Their mice were on the cover of the prestigious journal Science, and their research generated a lot of excitement. After a lengthy inquiry, it was discovered that Dr. Illmensee had faked his results. 
1982: Research delayed
Dr. James McGrath and Dr. Davor Solter, working at the Wistar Institute in Philadelphia, reported in Science journal that they could not repeat the mouse-cloning experiment and concluded that once mouse embryos have reached the two-cell stage they cannot be used for cloning. Other investigators confirmed their findings. 
1984: First embryo cloning of sheep
Steen Willadsen reported that he cloned a live lamb from immature sheep embryo cells. Others later reproduced his experiment using a variety of animals, including cattle, pigs, goats, rabbits, and rhesus monkeys.  
1994: Cloning of more advanced embryo cells 
Dr. Neal First of the University of Wisconsin at Madison, who has been Dr.Ian Wilmut's most constant competitor, cloned calves from embryos that have grown to at least 120 cells. 
1996: Foundation laid for cloning of adult sheep 
Dr. Ian Wilmut of Roslin Institute, Roslin, Midlothian in Scotland, United Kingdom repeated Dr. Neal First's experiment with sheep, however he put embryo cells into a resting state before transferring their nuclei to sheep eggs. The eggs developed into normal embryos and then into lambs. 
1997: World's first adult sheep are cloned 
Ian Wilmut, A.E. Schnieke, J. McWhir, A.J. Kind and K.H.S. Campbell reported that they had cloned a 6-year-old adult sheep from an udder (mammary) cell in the world's most prestigious scientific journal, Nature of 27 February 1997(Vol.385, pp.810-813).
 
TECHNIQUE OF CLONING: 
The source of DNA (cell nucleus). A mammary cell is removed from the udder of a 6-year-old sheep (ewe) and cultured in a solution that starves it of nutrients to stop its development. Cells are constantly copying their own DNA and dividing. Researchers had to stop the donor cell from replicating its DNA.
 
A donor sheep is injected with hormones to release eggs (source of host egg cell). The unfertilized egg's nucleus, and thus its DNA, is removed, eliminating all genetic characteristics of the egg donor. What is in the nucleus? The nucleus contain the chromosomes (27 pairs in sheep and 23 pairs in humans) consisting of proteins and DNA, the genetic material that makes each individual unique. 
 
The Cell and Egg are Fused and Activated 
The cell (mammary) which is the source of DNA is inserted inside the covering around the egg cell (of donor sheep).
An electrical charge is applied to the two cells causing their pores to open, and the contents of the mammary cell to ooze into the egg. The electrical charge also tricks the egg into believing that it has been fertilized so it starts to divide. Of the 277 cells that were fused only 30 began to develop. It begins to develop like a normal embryo. The cell begins to divide over and over again. Each cell is identical to the original. When the embryo reaches, or is about to reach, the blastocyst stage, and the cells form a hollow ball (blastocyst) before they begin to differentiate or specialize.
 
After 6 days, the tiny embryos (29 of them) are implanted into the surrogate mother sheep (more that one embryo was implanted into a single sheep). Using ultrasound scans the surrogate sheep were monitored to confirm the pregnancy and monitor the development of the fetus once a month in the beginning and every two weeks later on. Out of 29 implanted, only one sheep gave birth to a lamb, which is genetically identical to the cell-donor (6-year-old ewe). This was named Dolly in honor of country singer Dolly Parton, whose mammary cells, Dr. Wilmut said, are equally famous. Dolly was born on July 5, 1996 at 4 P.M. It was a normal birth, head and forelegs first. She weighed 6.6 kilograms or about 14.5 pounds, and she was healthy.
Cloning of Humans:
After this exciting news many people all over the world believed that the cloning of humans is coming. The ethical, moral and theological frameworks of our society will be drastically affected, challenged and, at times, perhaps even devalued. We need to shape the policies and politics that will govern this remarkable technology. 
People who favor the cloning of humans argue that the knowledge of nuclear physics lead to the creation of the atomic and hydrogen bombs and at the same time the application of radiation and radionuclides in industry, medicine, agriculture, animal husbandry, etc. brought enormous benefits to mankind. In the late 1980s the United States undertook the human genome project. Again moral and ethical implications were raised and subsided and the project is moving along. Baby Louise was born out of invitro fertilization. Did it destroy the humaneness? Artificial insemination was opposed in the beginning. Now the opposition has melted away.
The benefits to mankind of cloning and genetic engineering are immeasurable- the creation of farm animals engineered to produce a specific drugs. A good example is three Roslin scientists had just produced the first genetically engineered sheep that secrete a human pharmaceutical protein in its milk, a protein called alpha-1 antitrypsin, or ATT, which could be helpful in relieving the symptoms of cystic fibrosis. One can foresee animal clones that will be miniature drug factories, making drugs like the blood clotting factor for treating hemophilia that are now extraordinarily expensive. Another example is the production of "humanized organs". Scientists envision the cloning of animals whose organs are coated with human proteins so they can be used for transplants into patients, without rejection by the immune system. Alexion Pharmaceuticals, a New Haven-based Company and Nextran, a Princeton-based unit of Baxter Healthcare are developing transgenic pigs to serve as organ donors. It is postulated that using cells from organs, organs such as heart, arteries, liver can be grown. They also predict that cloning will lead to herds of prize livestock, like cows that produce enormous quantities of milk. Cloning technology could help control the protein thought to cause "mad cow disease" and its human analog, Creutzfeldt-Jakob disease.  
One can also look into prevention of parent-child disease transmission. Cloning a child for infertile couples becomes a necessity. If this is acceptable, then the next extension is the creation of a clone of a child who was lost in a tragic accident. When people asked Dr. Wilmut "Does cloning means that if a child dies, you can get that child back?" he replied, "It's heart-wrenching. You could never get that child back. It would be something different. You need to understand the biology. People are not genes. They are so much more than that."
Economic pressures and yearning for knowledge are too potent to quell scientists' desires to conquer the unknown. The senators in the U.S. Congress argue that the discovery of the unknown is helpful to us. On the other hand the fear may stop the research which otherwise would have great benefits in the fields of medicine, agriculture, animals husbandry, etc. Now cloning is no more science fiction, it is a scientific fact. On March 12, 1997, scientists and ethicists testifying before the Senate Labor Subcommittee on Public Health and Safety "on cloning" urged Congress not to rush to ban research on cloning of human beings.
A House Republican introduced legislation to ban human cloning and President Clinton is urging people to "resist the temptation to replicate ourselves." Pollsters for Time Magazine asked people, if they had the chance, would they clone themselves? Seven percent said yes, 91 percent said no. When asked whether it is against God's will to clone humans, 74 percent replied yes, whereas 19 percent said no. ABC News asked people whether cloning of humans should be allowed. Ten percent said yes, 87 percent said no. Eighty two percent replied that human cloning would be morally wrong; 14 percent said it would be fine with them. 
A Maricopa Research survey found that 41 percent think humans will be cloned within 10 years, whatever the law says; 33 percent said they would not. The respondents picked the following persons in descending order for cloning: Mother Theresa (21 %); Billy Graham (19 %); Michelle Pfeiffer (7.7%); Michael Jordon (7.2%); Robert Redford (4 %); Bill Gates (3.9%); Bill Clinton (3.7%), and Hillary Rodham Clinton (2.3 percent). Forty-one percent rated very or somewhat likely to clone ancient genetic material and reproduce, dinosaurs, while 56 percent thought there wasn't much chance. 
 
Opposing Points 
Those who oppose cloning argue that Wilmut tried to clone DNA from 277 sheep in all-and only one took. Until his feat is replicated, some experts caution, no one can be sure his technique really works. And even if sheep can be reliably cloned, the technique may not work in humans because of peculiarities of our embryonic development. Science has made little or no headway in crucial areas of research, and some of its reputed advances have proved to be illusory.  
The media heralded the discovery of genes for schizophrenia, manic depression, alcoholism, novelty seeking and homosexuality. Scientists have failed to corroborate the initial claims about gay genes. The public is left with a false impression of inexorable scientific progress. However, genuine progress has been made in finding genes associated with certain diseases, such as Huntington's chorea, cystic fibrosis, Lou Gehrig's disease and early-on-set breast cancer. Cancer research poses a similar paradox. Since 1971 the U.S. has spent $30 billion on cancer research. But mortality rates from cancer have remained, overall, virtually unchanged during that period. All the research on cancer since 1971 has had a lopsided minuscule impact on treatment. The ultimate achievement for applied biology, of course, would be immortality. According to eminent evolutionary biologists immortality may be impossible to achieve. Science has extended and enriched our lives in many ways, intellectually and materially. It has given us vaccines, life saving drugs, supersonic jets, and laptop computers. But we still cannot comprehend ourselves. We still get cancer and become depressed. We still grow old and die. Far from becoming God-like, we are as mortal as ever. 
ISLAMIC PERSPECTIVE 
Some Muslim scholars think that it is impossible to clone a human being. Because the human being is different from all of God's creations in that the human being has a soul. The argument is since science cannot clone a soul, a human being cannot be cloned. Looking at the past history of science, it is possible to clone a human being in our lifetime. A clone is like a photocopy of the original or an identical twin that is much younger in age. If an identical twin has a soul, then a human clone will also have a soul. A clone cannot be grown in a laboratory but in a surrogate mother's womb. The surrogate mother provides all the nutrients for the cloned cell to grow to become an embryo, a fetus and then after delivery a human child, just like the lamb Dolly. The only difference between a normal child and a clone child is in the genes. The normal child has 23 chromosomes from the mother and 23 chromosomes from the father or 23 pairs in every cell of the body except the germ cells or gametes (sperm or ova). The clone child will have 23 pairs of chromosomes of one parent.
 
AQEEDA (Muslim Creed) 
The principal points of the Muslim Creed are Belief in Allah (the God); God's Angels, God's Messengers, God's Books, Belief in life after death (Aakhira); the Day of Resurrection (Qiyamah) and Qadr. 
The fifth point in Muslim creed is to believe in life after death; to believe in the Day of Resurrection. This is the most important article of faith in Islam. It is in fact, the basis upon which Islam builds its whole philosophy of Life. A person cannot be a Muslim until after he/she accepts this principle. The advent of resurrection or Qiyamah is more frequently mentioned in the Noble Qur'an than any other happening. On the day of Qiyamah, all human beings will be resurrected and will have to pass through God's judgement on their actions during this ephemeral life on earth. All this is vividly described in the Noble Qur'an. The word, Qiyaamah, occurs 68 times in the Qur'an. The Qur'an argues resurrection is rationally possible. 
O mankind! if ye have a doubt about the Resurrection(consider) that We created you out of dust then out of sperm then out of a leech-like clot then out of a morsel of flesh partly formed and partly unformed in order that We may manifest (Our Power) to you; And We cause whom We will to rest in the wombs for an appointed term then do We bring you out as babes then(foster you) that ye may reach your age of full strength; and some of you are called to die and some are sent back to the feeblest old age so that they know nothing after having known(much). And (further) thou seest the earth barren and lifeless but when We pour down rain on it, it is stirred (to life) it swells and it puts forth every kind of beautiful growth (in pairs).
Surah 22.Al-Hajj: 5(verse) 
Commenting on this verse, Allama Yusuf Ali says "If they really have doubts in their minds about the life after death, they have only to turn their attention either to their own nature, or to the nature around. How wonderful is their own physical growth, from lifeless matter, to seed, fertilized ovum, foetus, chid, youth, age, and death! How can they doubt that the Author of all these wonderful stages in their life here can also give them another kind of life after the end of this life? Or, if they look at external nature, they see the earth dead and barren and Allah's fertilizing showers bring it in to life, growth and beauty in various forms. The Creator of this great pageant of Beauty can surely create yet another and a newer world. The stages of man's physical growth from nothing till he completes the cycle of this life are described in words whose accuracy, beauty, and comprehensiveness can only be fully understood by biologists. Parallel to the physical growth, may be understood man's inner growth, also by stages and by Allah's creative artistry." 
The Noble Prophet (SAS) has said the following in one of his moving sermons thus:
I swear by Allah that all of you will certainly die, just as you go to sleep at night. Then surely you will all be raised again as you wake up in the morning. Then you will definitely be judged for the deeds you had been doing. You will get rewards for good deeds and punishment for the evil ones; it will either be the everlasting life of Paradise or the endless torment of Hell-fire. (Cf.Sermons of the Holy Prophet, reproduced in Nahajul Balagha).
 
To the Quresh, the concept of Aakhira and Qiyamah were way above their heads.
One may ask why Allah should not be able to recreate the form of man, which came into being out of scattered particles of clay and was then again turned into earth. 
The Qur'an makes repeated references to this matter, saying for example: "We created you from earth and return you to earth and then bring you forth it once more." (20:55) 
In this verse, our attention is drawn to the creative power of the Creator. Through the presentation of the past and future of man in this world and the Hereafter in a single panorama, solace and assurance are given to man's unquiet and skeptical soul. 
The dismayed people who imagine that the body of man disintegrates as a result of chemical and microbial actions within the soil and that it cannot be restored to life, to them the Qur'an says: "The unbelievers say: Is this not strange that we should be brought back after dying and turning to dust? Such a return is impossible. But We are fully aware of what the earth takes from them and it is We Who possess the Preserved Tablet." (50:2-4) 
This verse refers, then, to a group of unbelievers who deny the resurrection of the dead. It reminds them that Allah knows full well where the elements are that once made up their bodies before being dispersed and returned to the storehouse of nature. He will reassemble those elements on the plain of resurrection, thus reconstructing the body in a way the unbelievers thought impossible. This reconstruction will follow entirely the structure and contents of the body as it previously existed and be based entirely upon it. 
THE CONVINCING LOGIC OF THE QUR'AN.
When the Prophet of Islam (SAS) expounded the topic of Qiyamah (resurrection) to the pagan Arabs, a Bedouin named Ubayy bin Khalaf (who was cursed by the Prophet (S) for putting the intestines of a camel on the back of the Prophet (S). He was killed in the battle of Badr and his body parts were mutilated but he was not thrown in the well. Sahih Bukhari Hadith 5.193) picked up a decayed bone and set out for Madinah to visit the Prophet (SAS). In the hope of refuting the arguments of the Prophet and the logic of the Qur'an on which they were based, he raised up the bone, as if it were a valuable and convincing piece of evidence, and crumbled it to dust, scattering the pieces in the air. Then he addressed the Prophet Muhammad (SAS) these crude, unadorned words inspired by his rebelliousness and ignorance: "Who will restore to life the scattered particles of this rotten bone?" He believed that he would thus be able to refute the arguments of the Prophet (SAS) and to destroy the belief of others in resurrection of the dead. His ignorant mode of thought prevented him from having any correct notion of the creation of being so that he imagined that the scattered particles of a decayed bone could not possibly be brought back to life. He adamantly maintained that the reassembling of the countless particles of the body was unacceptable to man's reason.
The Noble Qur'an replied with this persuading argument based on convincing logic: "(O Messenger) say: "Who first brought them to life will restore them to life. He has knowledge of all His creation. . Is the Creator Who brought into being the heavens and the earth, incapable of creating the like thereof? Certainly He is the Creator and All-Knowing." (36:79-81)  
The Qur'an invites man to contemplate the whole vast structure of creation together with the innumerable phenomena and minutiae it contains, using his wisdom and intelligence which are his means for recognizing the principles underlying the universe. Thus cloning enables man to realize that the restoration of life to man through resurrection is not more difficult than the initial creation out of a mass of different materials that were compounded together. 
 
Man may well ask himself how the breath of life may be infused anew into the particles of his body once they have been scattered in the recesses of the earth, and how lifeless matter may be brought back to life although its constituent elements have been dispersed. But the dispersal does not result in their permanent alienation from each other, and the human intellect can well understand that the infinite and eternal creative power of God has no difficulty whatsoever in compounding afresh those scattered elements so that they begin pulsating with life anew. The Noble Qur'an reminds man of Allah's unlimited power to restore all the minute qualities and precise details of man's limbs with the following words: "Does man imagine that We are not capable of reassembling his decayed bones? We are able even to restore his fingers to their previous state." (75:3-4).
In this verse Allah selects to mention out of all the marvels of man's composition the lines in his fingers as an example of His power. In the whole world, two people cannot be found with exactly identical fingerprints. This unique quality of fingerprints, first indicated in the Qur'an remained unknown until their discovery by British scientists in 1884.
Cloning of humans is neither forbidden in the Qur'an nor in the Hadith. The Shariah including Qiyas and Ijma are silent on this topic. Hence the cloning of humans has to be addressed through Ijtihad. As long as cloning of humans does not violate the commands of Allah (SWT) and as long as cloning of humans is for the benefit of mankind, the Muslims should welcome this technology. This scientific accomplishment is in itself an indication of the reality of resurrection; it provides a method, which joined together with reflection, may permit us to understand Qiyamah (resurrection) and prove it scientifically.
CONCLUSION (LAST PART)  
The word "clone" was originally a horticultural term derived from the Greek word for "twig." The laboratory technique that produced the lamb "Dolly", can theoretically work for producing human beings as clones. Cloning of human beings has been shown in Hollywood movies such as "THE BOYS FROM BRAZIL" and "MULTICIPLITY." The possibility of cloning of human beings appears to be attainable. It is giving the excitement to many both in the scientific establishment as well as the general public that science fiction will come to life. If misused this science fiction can turn scary.The public is very concerned about these prospects. Cloning is a drastic demand to the most fundamental laws of biology. Hence it is reasonable for the public to be concerned about the future that might intimidate human nobility and decorum. 
Because of the potential of mind-boggling possibilities the governments are formulating guidelines for the unknown future of human cloning. As a drastic step the Vatican called for a worldwide ban on human cloning. A decade ago, Donum Vitae, a 1987 Vatican document, condemned cloning because it violates "the dignity both of human procreation and of the conjugal union." In the United States the national commission on Bioethics is studying the legal and ethical implications of human cloning. Most of the nations in Europe already prohibit human cloning. However they are examining the moral implications of cloning other species. 
The creation of Dolly has produced a long list of difficult dilemmas for scientists and politicians, philosophers and theologians. First of all why would anybody want to clone a human being? The ethicists pondering over human cloning scenarios say the choice is of two types: (a) parents who want to clone a child, do it in order to provide transplants for a dying child or to replace that child, and (b) adults who for a conglomeration of reasons might want to clone themselves.
Many ethicists believe that after the initial phase of excitement, there will not be much pursuit in cloning human beings. Making duplicates, they say, shallows next to the marvel of creating an original human being the conventional way. An Academic Bioethicist argues that a couple who want to clone a dying child will never diminish their love for the cloned child nor will they reject the cloned child. They will treat the cloned child as if it is naturally born. Most experts agree that it would be psychologically harmful if a child sensed he or she had been brought into the world simply as a commodity (organ donor). Recently some couples conceived a second child with nonfatal bone marrow transplant in mind. Many ethicists did not oppose to this. In this case the biological match is 1 in 4 or 25 per cent, whereas the biological match in the case of cloned child for nonfatal bone marrow transplant is 100 percent. However, as mentioned earlier there is no need to clone a child for organ transplants, because Alexion Pharmaceuticals, Inc. located in Connecticut is developing animal organs by altering the genetic code of the animal organs for transplanting into humans without the fear of rejection (the human immune system attacks and destroys tissues from other species). 
Infertile couples may be tempted to get children by cloning. However such couples have other options, such as in vitro fertilization or adoption. However their wish to clone a child cannot be denied ethically.  
People are interested to know if cloning of the dead is possible. In the cloning method an immature egg cell without its nucleus(containing the genetic material ) is fused with the donor's(dead person) cell containing the nucleus
which has the genetic material called the DNA. It is important that the donor cell have an intact membrane around its DNA. Unfortunately, as soon as a person dies the membrane begins to fall apart. And also the DNA disintegrates after death of a person. In theory it is possible. 
Many people want to know if a cloned human being be indistinguishable from the prototype (original). People who are familiar with identical twins know that identical genes (carry hereditary material) don't produce identical people. Twins are more akin than clones would be, because they share the same uterine environment, and they are raised in the same family. However the present evidence suggests the clones will have very dissimilar personalities. John Rennie, Editor in Chief of theScientific American in his editorial in the May 1997 issue says, it would be..."wrong to expect human clones to match up in the infinite variety of personal characteristics. Second, cloning is not yet a technology ready for use on human cells... Yet rushing to human experiments could be tragic. Finally, even when cloning of humans is safe, it isn't necessarily going to be popular. Cloning won't replace the old style of reproduction: it's not as much fun, and it's a lot more expensive.
Cloning commercially valuable animals makes perfect economic sense-it is a potentially surer thing than breeding." Biologists testify that a clone would not be identical to the "master copy." For example, they say that the clone's cells would have mitochondria (energy producing organelle in the cell) that came from the egg donor, not from the nucleus donor (the cell from the subject to be cloned). A molecular-biology laboratory would be able to detect most of the physical differences between the original (master copy) and the clones (copies). The one possible deviation is fecundity. The scientists that created Dolly the lamb clone think it will be infertile. The answer to this will be known when Dolly matures and is old enough to breed. Scientists do not know whether the clone lives longer than the original human.  
ORGANIZED RELIGION 
Many ethical questions that are raised regarding cloning are based in theology. The interest for conserving human decorum and personal sovereignty for instance is intensely based on religious and scriptural tenets. Roman Catholic, Protestant, and Jewish theologians are warning against applying the new cloning technology to humans. For the Catholics the "natural moral law" prohibits tampering with human procreation. Although the Protestants support using technology to mend defects in nature, they object to human cloning as it traverses the border. They are afraid of placing too much power in the hands of immoral human beings who are subject to accomplishing "horrific abuses." Judaism also tends to favor using technology to ameliorate on nature's defects. However cloning is prohibited as it violates the enigma of what it means to be human. The Judeo-Christian theologians are worried that cloning infringes on God as the originator of life. Some theologians argue that cloning is not the same as creating life from scrape. The components used in cloning are alive or contain the ingredients of life. The physical mixing and manipulation of ingredients of life is called Khaliq in Arabic. It is still only God Who is Bari(Creator of living and non-living from nothing) creates life.  
Most of the theologians agree with scientists that the human clone would have his or her own body, mind and soul. Also the human clone dies as the original human. Valiant Ventures located in the Bahamas Islands in the Caribbean announced that it would build a laboratory to clone people willing to pay. The company was founded for the purpose by the Raelian Movement, a self-styled religious organization. At present, producing healthy human clones may demonstrate to be unduly hard. North American Islamic Scholars opine that Islam does not prohibit research and research related to human cloning does not interfere with God's power of creating living and non-living things out of nothing. Human cloning is a methodology to understand human creation in some more depth. However, Islam proscribes misuse of cloning research that destroys human dignity. 

The Human Genome Project

"We shall show them Our portents on the horizons
And within themselves until it will be
Manifest unto them that it is the Truth.
Does not your Lord suffice,
Since He is Witness over all things?"
Al-Qur'an, Surah Fusilat, 41: 53



 
"We have caught a glimpse of
an instruction book (of life)
previously known to God."
--Dr. Frances Collins,
Director of the National Human
Genome Research Institute,
National Institutes of Health,
Bethesda, Maryland. 

 
In June 2000, the US-based National Institute of Health (NIH) and Celera Genomics Corp., a biotech company, announced that they had deciphered about 90 percent of the human genome. 
This decade old Human Genome (book of life) Project is trying to decode our genes and in this process it is churning out 12,000 letters of genetic code every minute of every day, creating a list that will total more than three billion when finally completed. Amazingly, more than 1,100 biologists, computer scientists and analysts at university laboratories in six different countries have been hard at work trying to complete what some are calling biology's version of the book of life. This project is like putting a man on the moon. 
The Genome 
What is the genome, and what does it mean to the human beings? 
Children are taught in elementary schools that everything is made up of atoms. Atoms combine to make molecules. For example two atoms of hydrogen and one atom of oxygen combine to form one molecule of water. How do atoms and molecules work together to create the unique human being. All biological life is made up of an astonishingly complex blend of molecules. They combine, break down and recombine into the same or a myriad of other forms of molecules. Every day trillions of actions and reactions of molecules occur every second in processes that provide energy, food and cell maintenance for our bodies. What type of instructions and communications tell these atoms and molecules what to do? The Human Genome Project aims to solve that mystery in a breathtaking detail that even the scientific world is awestruck.  
The molecular structures in the nucleus of a cell (the primary unit of the body) called chromosomes are at the fundamental level of the beginning of life. The chromosomes contain the genetic document- a chemical instruction set written in chemical code-that tell the human body how to arrange, structure, absorb and expel atoms and molecules. The totality of the genetic instructions is the human genome. Each individual has a unique genome, a specific chemical genetic instruction set. In reality, each human being is a genome. 
Every individual receives one's genome at conception. A male sperm with its 23 chromosomes paired with a woman's 23 chromosomes in a fertilized egg, creates a totally new human being. Every individual starts life as a single cell. From that one cell a human being is made. Every growth pattern, stage and process of a human body occurs like clockwork-from fetal development to birth, infancy, childhood, adolescence and adulthood. For the first 18 years in life, on average one adds 100 million cells to the body every minute. 
Such precipitous growth is so perfectly programmed from your own set of instructions contained in that first cell that by age 20, one becomes an adult of more than 100 trillion (100,000,000,000,000) cells-differentiated into heart, liver, spleen, bone, skin, muscle, stomach, intestines, eyes and most important of all the brain. Scientists have estimated that 40 percent of the genome is devoted to the development of the brain alone. 
Design of Genetic Material 
When scientists look into the design of the human cell they are wonderstruck to find it to be brilliant and its performance stunning. After 50 years the most marvelous biological mystery has been solved and that is how genes drive all the development of the body's cells at the molecular level. To reach this understanding they learned how the functions of the tiniest cellular structure for feeding, repairing, eliminating waste, dividing and even dying. With advances in technology, the glory of the structure of chromosomes was revealed. 
The key to understanding of the genes is the DNA, acronym for deoxyribonucleic acid. DNA is found in each cell's nucleus (hence it a nucleic acid), the command center of the cell. DNA is also an instructional blueprint for every one of the 100 trillion cells that make up all body tissue. DNA directs each component of the cell in trillions of cellular processes that take place in the human body every second until death.
DNA structurally resembles ladderlike formation of two strands with rungs creating a double-helix shape. The ladder forms continuos; giant molecule called the chromosome. Water has two atoms of hydrogen and one atom of oxygen and written as H2O, with a molecular weight of 18. The DNA chromosome molecule has a molecular weight of about 80 billion. DNA chromosome is a thin thread coiled in the cell's tiny nucleus and has a diameter of 2 nanometers. When stretched to full length it would be about one and a quarter inch long. The two DNA's strands appear like stilts made of an alternating phosphate and sugar. The steplike rungs between the strands are made up of paired bases of nitrogen compounds identified by the letters G, C, A and T (the first letters of the four kinds of bases: guanine, cytosine, adenine and thymine). These are the only substances in DNA; hence the genome consists of only these four-but in seemingly endless sequences. These compounds direct every cell in the human body what to do. Special bands of these compounds are our genes. 
Genes 
Genes are paired on each chromosome with sequences that account for specific traits and physical and physical characteristics. Each body trait requires one or more pairs of genes. For example the color of eyes, shape of body parts and susceptibility to diseases all are found within the gene pairs of the genome. There are between 80,000 to 100,000 genes in the human genome. Scientists do not know where all the genes are, or even how many genes there are. The goal of the Human Genome Project is to decode everyone. 
The universe is estimated to contain 100 billion galaxies with an estimated 200 billion stars each, and now scientists are realizing that each human body appears as complex and amazingly designed as the universe itself. For example the human brain has 100 billion neurons, with untold trillions of connections and patterns of endless wiring sequences. We are unaware of what goes on in our cells as our genome tells our cells to assemble amino acids into proteins to make cell walls, and cell walls to split and divide and human beings are unaware of the constant stream of virtual miracles that keep human beings alive, alert and functioning. 
Solving the puzzle 
How did such an astonishingly complex process begin? How did the billions of atoms in each DNA molecule arrange themselves perfectly for the self-perpetuation or what we call life? How did cells, DNA and chromosomes come about? Some argue that the greatest scientific proof that human beings were designed by a higher Power is this: The process of one genome creating a living, self-perpetuating organism cannot happen over time. It has to be right the first time, and it must entail literally billions of designed elements that must be in place and functioning perfectly, or else the cell cannot exist and reproduce. The self-replicating cell exists only because its inherent intelligent systems- each involving billions of functions- interact perfectly. Otherwise it is dead. The chromosomes and cells are extremely complex and beyond imagination that some scholars argue that they could never have evolved through random processes from nothing, even if given the endless time spans evolutionists require for their theory. Evolutionists are unable to explain, for example, how and why heart tissue, liver tissue, skin and blood are distinctly different and have dramatically different functions. However, surprisingly, each cell contains the same DNA. Therefore a liver cell's DNA is identical to a brain cell's DNA. Still the mystery is how each cell knows its identity, function and position in the body. 
Benefits of the Human Genome Project 
Through decoding the human genome scientists hope, among other things, to discover the causes for many diseases, develop new treatments and cures and slow or reverse the aging process. Already researchers on the Human Genome Project have identified genetic disorders responsible for cystic fibrosis and some types of cervical, stomach and testicular cancer, among other diseases. 
A startling number of little changes that make one person different from another--known as single nucleotide polymorphisms or SNPs -- have been identified. Until September 2000 more than 800,000 SNPs have been identified. Of the 800,000 now found, 300,000 were identified by the private-public SNP Consortium, which has accelerated its program The Consortium's members include Britain's Wellcome Trust, AstraZeneca PLC, Aventis Pharma, Bayer AG, Bristol-Myers Squibb Co., Hoffman-La Roche, Glaxo Wellcome Plc, Novartis Pharmaceuticals, Pfizer Inc., Searle (now part of Pharmacia), and SmithKline Beecham Plac and Motorola Inc., IBM, and Amersham Pharmacia Biotech. Other members include the Whitehead Institute for Biomedical Research at the Washington University School of Medicine in St. Louis, Missouri; the Wellcome Trust's Sanger Center, Stanford University's Human Genome Center, and the Cold Spring Harbor Laboratory in New York, New York. 
    The Human Genome Project also has its own moral and ethical issues. Parents will be motivated to abort unborn fetuses with abnormal genetic profiles. There will be an increasing trend toward creating "designer babies" by customizing personal genetic traits such as looks, abilities, height, intelligence and hair and eye color. Genetic discrimination is a real possibility. Companies screen potential employees and deny jobs or insurance to those with genetic predisposition to some diseases. Finally, children could be sorted into social classes or career tracks based on career potential.

Islamic Medicine: 1000 years ahead of its times

SUMMARY  Within a century after the death of Prophet Muhammad (peace be upon him) the Muslims not only conquered new lands, but also became scientific innovators with originality and productivity. They hit the source ball of knowledge over the fence to Europe. By the ninth century, Islamic medical practice had advanced from talisman and theology to hospitals with wards, doctors who had to pass tests, and the use of technical terminology. The then Baghdad General Hospital incorporated innovations which sound amazingly modern. The fountains cooled the air near the wards of those afflicted with fever; the insane were treated with gentleness; and at night the pain of the restless was soothed by soft music and storytelling. The prince and pauper received identical attention; the destitute upon discharge received five gold pieces to sustain them during convalescence. While Paris and London were places of mud streets and hovels, Baghdad, Cairo and Cardboard had hospitals open to both male and female patients; staffed by attendants of both sexes. These medical centers contained libraries pharmacies, the system of interns, externs, and nurses. There were mobile clinics to reach the totally disabled, the disadvantaged and those in remote areas. There were regulations to maintain quality control on drugs. Pharmacists became licensed professionals and were pledged to follow the physician's prescriptions. Legal measures were taken to prevent doctors from owning or holding stock. in a pharmacy. The extent to which Islamic medicine advanced in the fields of medical education, hospitals, bacteriology, medicine, anesthesia, surgery, pharmacy, ophthalmology, psychotherapy and psychosomatic diseases are presented briefly. INTRODUCTION  Prophet Muhammad (peace be upon him) who is ranked number one by Michael Hart', a Jewish scholar, in his book The 100: The Most Influential Persons in History, was able to unite the Arab tribes who had been tom by revenge, rivalry, and internal fights, and produced a strong nation acquired and ruled simultaneously, the two known empires at that time, namely the Persian and Byzantine Empires. The Islamic Empire extended from the Atlantic Ocean on the West to the borders of China on the East. Only 80 years after the death of their Prophet, the Muslims crossed to Europe to rule Spain for more than 700 years. The Muslims preserved the cultures of the conquered lands. However when the Islamic Empire became weak, most of the Islamic contributions in an and science were destroyed. The Mongols bunt Baghdad (1258 A.D.) out of barbarism, and the Spaniards demolished most of the Islamic heritage in Spain out of hatred.  The Islamic Empire for more than 1000 years remained the most advanced and civilized nation in the world. This is because Islam stressed the importance and respect of learning, forbade destruction, developed in Muslims the respect for authority and discipline, and tolerance for other religions. The Muslims recognized excellence and hungering intellectually, were avid for the wisdom of the world of Galen, Hippocrates, Rufus of Ephesus, Oribasius, Discorides and Paul of Aegina. By the tenth century their zeal and enthusiasm for learning resulted in all essential Greek medical writings being translated into Arabic in Damascus, Cairo, and Baghdad. Arabic became the International Language of learning and diplomacy. The center of scientific knowledge and activity shifted eastward, and Baghdad emerged as the capital of the scientific world. The Muslims became scientific innovators with originality and productivity. Islamic medicine is one of the most famous and best known facets of lslamic civilization, and in which the Muslims most excelled. The Muslims were the great torchbearers of international scientific research. They hit the source ball of knowledge over the fence to Europe. In the words of Campbell' "The European medical system is Arabian not only in origin but also in its structure. The Arabs are the intellectual forebears of the Europeans."  The aim of this paper is to prove that the Islamic Medicine was 1000 years ahead of its times. The paper covers areas such as medical education, hospitals, bacteriology, medicine, anesthesia, surgery, opthalmology, pharmacy, and psychotherapy.   MEDICAL EDUCATION   In 636 A.D., the Persian City of Jundi-Shapur, which originally meant beautiful garden, was conquered by the Muslims with its great university and hospital intact. Later the Islamic medical schools developed on the Jundi-Shapur pattern. Medical education was serious and systematic. Lectures and clinical sessions included in teaching were based on the apprentice system. The advice given by Ali ibnul-Abbas (Haly Abbas: -994 -A.D.) to medical students is as timely today as it was then'. "And of those things which were incumbent on the student of this art (medicine) are that he should constantly attend the hospitals and sick houses; pay unremitting attention to the conditions and circumstances of their intimates, in company with the most astute professors of medicine, and inquire frequently as to the state of the patients and symptoms apparent in them, bearing in mind what he has read about these variations, and what they indicate of good or evil."  Razi (Rhazes: 841-926 A.D.) advised the medical students while they were seeing a patient to bear in mind the classic symptoms of a disease as given in text books and compare them with what they found (6).  The ablest physicians such as Razi (Al-Rhazes), Ibn-Sina (Avicenna: 980-1037 A.D.) and Ibn Zuhr (Avenzoar: 116 A.D.) performed the duties of both hospital directors and deans of medical schools at the same time. They studied patients and prepared them for student presentation. Clinical reports of cases were written and preserved for teaching'. Registers were maintained. Training in Basic Sciences   Only Jundi-Shapur or Baghdad had separate schools for studying basic sciences. Candidates for medical study received basic preparation from private tutors through private lectures and self study. In Baghdad anatomy was taught by dissecting the apes, skeletal studies, and didactics. Other medical schools taught anatomy through lectures and illustrations. Alchemy was once of the prerequisites for admission to medical school. The study of medicinal herbs and pharmacognosy rounded out the basic training. A number of hospitals maintained barbel gardens as a source of drugs for the patients and a means of instruction for the students.  Once the basic training was completed the candidate was admitted as an apprentice to a hospital where, at the beginning, he was assigned in a large group to a young physician for indoctrination, preliminary lectures, and familiarization with library procedures and uses. During this preclinical period, most of the lectures were on pharmacology and toxicology and the use of antidotes. Clinical training:  The next step was to give the student full clinical training. During this period students were assigned in small groups to famous physicians and experienced instructors, for ward rounds, discussions, lectures, and reviews. Early in this period therapeutics and pathology were taught. There was a strong emphasis on clinical instruction and some Muslim physicians contributed brilliant observations that have stood the test of time. As the students progressed in their studies they were exposed more and more to the subjects of diagnosis and judgment. Clinical observation and physical examination were stressed. Students (clinical clerks) were asked to examine a patient and make a diagnosis of the ailment. Only after an had failed would the professor make the diagnosis himself. While performing physical examination, the students were asked to examine and report six major factors: the patients' actions, excreta, the nature and location of pain, and swelling and effuvia of the body. Also noted was color and feel of the skin- whether hot, cool, moist, dry, flabby. Yellowness in the whites of the eye (jaundice) and whether or not the patient could bend his back (lung disease) was also considered important (8).  After a period of ward instructions, students, were assigned to outpatient areas. After examining the patients they reported their findings to the instructors. After discussion, treatment was decided on and prescribed. Patients who were too ill were admitted as inpatients. The keeping of records for every patient was the responsibility of the students.   Curriculum  There was a difference in the clinical curriculum of different medical schools in their courses; however the mainstay was usually internal medicine. Emphasis was placed on clarity and brevity in describing a disease and the separation of each entity. Until the time of Ibn Sina the description of meningitis was confused with acute infection accompanied by delirium. Ibn Sina described the symptoms of meningitis with such clarity and brevity that there is very little that can be added after I 000 yearS6. Surgery was also included in the curriculum. After completing courses, some students specialized under famous specialists. Some others specialized while in clinical training. According to Elgood9 many surgical procedures such as amputation, excision of varicose veins and hemorrhoids were required knowledge. Orthopedics was widely taught, and the use of plaster of Paris for casts after reduction of fractures was routinely shown to students. This method of treating fractures was rediscovered in the West in 1852. Although ophthalmology was practiced widely, it was not taught regularly in medical schools. Apprenticeship to an eye doctor was the preferred way of specializing in ophthalmology. Surgical treatment of cataract was very common. Obstetrics was left to midwives. Medical practitioners consulted among themselves and with specialists. Ibn Sina and Hazi both widely practiced and taught psychotherapy. After completing the training, the medical graduate was not ready to enter practice, until he passed the licensure examination. It is important to note that there existed a Scientific Association which had been formed in the hospital of Mayyafariqin to discuss the conditions and diseases of the patients. Licensing of Physicians  In Baghdad in 931 A.D. Caliph Al-Muqtadir learned that a patient had died as the result of a physician's error. There upon he ordered his chief physician, Sinan-ibn Thabit bin Qurrah to examine all those who practiced the art of healing. In the first year of the decree more than 860 were examined in Baghdad alone. From that time on, licensing examinations were required and administered in various places. Licensing Boards were set up under a government official called Muhtasib or inspector general . The Muhtasib also inspected weights and measures of traders and pharmacists. Pharmacists were employed as inspectors to inspect drugs and maintain quality control of drugs sold in a pharmacy or apothecary. What the present Food and Drug Administration (FDA) is doing in America today was done in Islamic medicine I 000 years ago. The chief physician gave oral and practical examinations, and if the young physician was successful, the Muhtasib administered the Hippocratic oath and issued a license. After 1000 years licensing of physicians has been implemented in the West, particularly in America by the State Licensing Board in Medicine. For specialists we have American Board of Medical Specialities such as in Medicine, Surgery, Radiology, etc. European medical schools followed the pattern set by the Islamic medical schools and even in the early nineteenth century, students at the Sorbonne could not graduate without reading Ibn Sina's Qanun (Cannon). According to Razi a physician had to satisfy two condition for selection: firs0y, he was to be fully conversant with the new and the old medical literature and secondly, he must have worked in a hospital as house physician.   HOSPITALS  The development of efficient hospitals was an outstanding contribution of Islamic medicine (7). 'ne hospitals served all citizens free without any regard to their color, religion, sex, age or social status. The hospitals were run by government and the directors of hospitals were physicians.  Hospitals and separate wards for male patients and female patients. Each ward was furnished with a nursing staff and porters of the sex of the patients to be treated therein. Different diseases such as fever, wounds, infections, mania, eye conditions, cold diseases, diarrhea, and female disorders were allocated different wards. Convalescents had separate sections within them. Hospitals provided patients with unlimited water supply and with bathing facilities. Only qualified and licensed physicians were allowed by law to practice medicine. The hospitals were teaching hospitals educating medical students. They had housing for students and house-staff. They contained pharmacies dispensing free drugs to patients. Hospitals had their own conference room and expensive libraries containing the most up-to-date books. According to Haddad, the library of the Tulum Hospital which was founded in Cairo in 872 A.D. (I 100 years ago) had 100,000 books. Universities, cities and hospitals acquired large libraries (Mustansiriyya University in Baghdad contained 80,000 volumes; the library of Cordova 600,000 volumes; that of Cairo 2,000,000 and that of Tripoli 3,000,000 books), physicians had their own extensive personal book collections, at a time when printing was unknown and book editing was done by skilled and specialized scribes putting in long hours of manual labour.  For the first time in history, these hospitals kept records of patients and their medical care.  From the point of view of treatment the hospital was divided into an out- patient department and an inpatient department. The system of the in-patient department differed only slightly from that of today. At tile Tulun hospital, on admission the patients were given special apparel while their clothes, money, and valuables were stored until the time of their discharge. On discharge, each patient - received five gold pieces to support himself until he could return to work.  The hospital and medical school at Damascus had elegant rooms and an extensive library. Healthy people are said to have feigned illness in order to enjoy its cuisine. There was a separate hospital in Damascus for lepers, while, in Europe, even six centuries later, condemned lepers were burned to death by royal decree.  The Qayrawan Hospital (built in 830 A.D. in Tunisia) was characterized by spacious separate wards, waiting rooms for visitors and patients, and female nurses from Sudan, an event representing the first use of nursing in Arabic history. The hospital also provided facilities for performing prayers.  The Al-Adudi hospital (built in 981 A.D. in Baghdad) was furnished with die best equipment and supplies known at the time. It had interns, residents, and 24 consultants attending its professional activities, An Abbasid minister, Ali ibn Isa, requested the court physician, Sinan ibn Thabit, to organize regular visiting of prisons by medical officers (14). At a time when paris and London were places of mud streets and hovels, Baghdad, Cairo, and Cordova had hospitals which incorporated innovations which sound amazingly modern. It was chiefly in the humaneness of patient care, however, that the hospitals of Islam excelled. Near the wards of those afflicted with fever, fountains cooled the air; the insane were treated with gentleness; and at night music and storytelling soothed the patients  . The Bimaristans (hospitals) were of two types - the fixed and the mobile. The mobile hospitals were transported upon beasts of burden and were erected from time to time as required. The physicians in the mobile clinics were of the same standing as those who served the fixed hospitals. Similar moving hospitals accompanied the armies in the field. The field hospitals were well equipped with medicaments, instruments, tents and a staff of doctors, nurses, and orderlies. The traveling clinics served the totally disabled, the disadvantaged and those in remote areas. These hospitals were also used by prisoners,and by the general public,particularly in times of epidemics.   BACTERIOLOGY  Al-Razi was asked to choose a site for a new hospital when he came to Baghdad. First he deduced which was the most hygienic area by observing where the fresh pieces of meat he had hung in various parts of the city decomposed least quickly.  Ibn Sina stated explicitly that the bodily secretion is contaminated by foul foreign earthly body before getting the infection. Ibn Khatima stated that man is surrounded by minute bodies which enter the human system and cause disease.  In the middle of the fourteenth century "black death" was ravaging Europe and before which Christians stood helpless, considering it an act of God.  At that time Ibn al Khatib of Granada composed a treatise in the defense of the theory of infection in the following way: To those who say, "How can we admit the possibility of infection while the religious law denies it?" We reply that the existence of contagion is established by experience, investigation, the evidence of the senses and trustworthy reports. These facts constitute a sound argument. The fact of infection becomes clear to the investigator who notices how he who establishes contact with the afflicted gets the disease, whereas he who is not in contact remains safe, and how transmission is effected through garments, vessels and earrings.  Al-Razi wrote the first medical description of smallpox and measles - two important infectious diseases. He described the clinical difference between the two diseases so vividly that nothing since has been added. Ibn Sina suggested the communicable nature of tuberculosis. He is said to have been the first to describe the preparation and properties of sulphuric acid and alcohol. His recommendation of wine as the best dressing for wounds was very popular in medieval practice. However Razi was the first to use silk sutures and alcohol for hemostatis. He was the first to use alcohol as an antiseptic.    ANESTHESIA  Ibn Sina originated the idea of the use of oral anesthetics. He recognized opium as the most powerfulmukhadir (an intoxicant or drug). Less powerful anesthetics known were mandragora, poppy, hemlock, hyoscyamus, deadly nightshade (belladonna), lettuce seed, and snow or ice cold water. The Arabs invented the soporific sponge which was the precursor of modem anesthesia. It was a sponge soaked with aromatics and narcotics and held to the patient's nostrils.  The use of anesthesia was one of the reasons for the rise of surgery in the Islamic world to the level of an honourable speciality, while in Europe, surgery was belittled and practiced by barbers and quacks. The Council of Tours in 1163 A.D. declared Surgery is to be abandoned by the schools of medicine and by all decent physicians." Burton stated that "anesthetics have been used in surgery throughout the East for centuries before ether and chloroform became the fashion in civilized West."    SURGERY  Al-Razi is attributed to be the first to use the seton in surgery and animal gut for sutures.  Abu al-Qasim Khalaf Ibn Abbas Al-Zahrawi (930-1013 A.D.) known to the West as Abulcasis, Bucasis or Alzahravius is considered to be the most famous surgeon in Islamic medicine. In his book Al-Tasrif, he described hemophilia for the first time in medical history. The book contains the description and illustration of about 200 surgical instruments many of which were devised by Zahrawi himself. In it Zahrawi stresses the importance of the study of Anatomy as a fundamental prerequisite to surgery. He advocates the re implantation of a fallen tooth and the use of dental prosthesis carved from cow's bone, an improvement over the wooden dentures worn by the first President of America George Washington seven centuries later. Zahrawi appears to be the first surgeon in history to use cotton (Arabic word) in surgical dressings in the control of hemorrhage, as padding in the splinting of fractures, as a vaginal padding in fractures of the pubis and in dentistry. He introduced the method for the removal of kidney stones by cutting into the urinary bladder. He was the first to teach the lithotomy position for vaginal operations. He described tracheotomy, distinguished between goiter and cancer of the thyroid, and explained his invention of a cauterizing iron which he also used to control bleeding. His description of varicose veins stripping, even after ten centuries, is almost like modern surgery. In orthopedic surgery he introduced what is called today Kocher's method of reduction of shoulder dislocation and patelectomy, 1,000 years before Brooke reintroduced it in 1937.  Ibn Sina's description of the surgical treatment of cancer holds true even today after 1,000 years. He says the excision must be wide and bold; all veins running to the tumor must be included in the amputation. Even if this is not sufficient, then the area affected should be cauterized.  The surgeons of Islam practiced three types of surgery: vascular, general, and orthopedic, Ophthalmic surgery was a speciality which was quite distinct both from medicine and surgery. They freely opened the abdomen and drained the peritoneal cavity in the approved modern style. To an unnamed surgeon of Shiraz is attributed the first colostomy operation. Liver abscesses were treated by puncture and exploration.  Surgeons all over the world practice today unknowingly several surgical procedures that Zahrawi introduced 1,000 years ago .    MEDICINE  The most brilliant contribution was made by Al-Razi who differentiated between smallpox and measles, two diseases that were hitherto thought to be one single disease. He is credited with many contributions, which include being the first to describe true distillation, glass retorts and luting, corrosive sublimate, arsenic, copper sulfate, iron sulphate, saltpeter, and borax in the treatment of disease . He introduced mercury compounds as purgatives (after testing them on monkeys); mercurial ointments and lead ointment." His interest in urology focused on problems involving urination, venereal disease, renal abscess, and renal and vesical calculi. He described hay-fever or allergic rhinitis.  Some of the Arab contributions include the discovery of itch mite of scabies (Ibn Zuhr), anthrax, ankylostoma and the guinea worm by Ibn Sina and sleeping sickness by Qalqashandy. They described abscess of the mediastinum. They understood tuberculosis and pericarditis.  Al Ash'ath demonstrated gastric physiology by pouring water into the mouth of an anesthetized lion and showed the distensibility and movements of the stomach, preceding Beaumont by about 1,000 years" Abu Shal al- Masihi explained that the absorption of food takes place more through the intestines than the stomach. Ibn Zuhr introduced artificial feeding either by gastric tube or by nutrient enema. Using the stomach tube the Arab physicians performed gastric lavage in case of poisoning. Ibn Al-Nafis was the first to discover pulmonary circulation.  Ibn Sina in his masterpiece Al-Quanun (Canon), containing over a million words, described complete studies of physiology, patlhology and hygiene. He specifically discoursed upon breast cancer, poisons, diseases of the skin, rabies, insomnia, childbirth and the use of obstetrical forceps, meningitis, amnesia, stomach ulcers, tuberculosis as a contagious disease, facial tics, phlebotomy, tumors, kidney diseases and geriatric care. He defined love as a mental disease.    OPHTHALMOLOGY  The doctors of Islam exhibited a high degree of proficiency and certainly were foremost in the treatment of eye diseases. Words such as retina and cataract are of Arabic origin. In ophthalmology and optics lbn al Haytham (965-1039 A.D.) known to the West as Alhazen wrote the Optical Thesaurus from which such worthies as Roger Bacon, Leonardo da Vinci and Johannes Kepler drew theories for their own writings. In his Thesaurus he showed that light falls on the retina in the same manner as it falls on a surface in a darkened room through a small aperture, thus conclusively proving that vision happens when light rays pass from objects towards the eye and not from the eye towards the objects as thought by the Greeks. He presents experiments for testing the angles of incidence and reflection, and a theoretical proposal for magnifying lens (made in Italy three centuries later). He also taught that the image made on the retina is conveyed along the optic nerve to the brain. Razi was the first to recognize the reaction of the pupil to light and Ibn Sina was the first to describe the exact number of extrinsic muscles of the eyeball, namely six. The greatest contribution of Islamic medicine in practical ophthalmology was in the matter of cataract. The most significant development in the extraction of cataract was developed by Ammar bin Ali of Mosul, who introduced a hollow metallic needle through the sclerotic and extracted the lens by suction. Europe rediscovered this in the nineteenth century.    PHARMACOLOGY  Pharmacology took roots in Islam during the 9th century. Yuhanna bin Masawayh (777-857 A.D.) started scientific and systematic applications of therapeutics at the Abbasids capital. His students Hunayn bin Ishaq al-lbadi (809-874 A.D.) and his associates established solid foundations of Arabic medicine and therapeutics in the ninth century. In his book al-Masail Hunayn outlined methods for confirming the pharmacological effectiveness of drugs by experimenting with them on humans. He also explained the importance of prognosis and diagnosis of diseases for better and more effective treatment.  Pharmacy became an independent and separate profession from medicine and alchemy. With the wild sprouting of apothecary shops, regulations became necessary and imposed to maintain quality control." The Arabian apothecary shops were regularly inspected by a syndic (Muhtasib) who threatened the merchants with humiliating corporal punishments if they adulterated drugs." As early as the days of al-Mamun and al-Mutasim pharmacists had to pass examinations to become licensed professionals and were pledged to follow the physician's prescriptions. Also by this decree, restrictive measures were legally placed upon doctors, preventing them from owning or holding stock in a pharmacy.  Methods of extracting and preparing medicines were brought to a high art, and their techniques of distillation, crystallization, solution, sublimation, reduction and calcination became the essential processes of pharmacy and chemistry. With the help of these techniques, the Saydalanis (pharmacists) introduced new drugs such as camphor, senna, sandalwood, rhubarb, musk, myrrh, cassia, tamarind, nutmeg, alum, aloes, cloves, coconut, nuxvomica, cubebs, aconite, ambergris and mercury. The important role of the Muslims in developing modern pharmacy and chemistry is memorialized in the significant number of current pharmaceutical and chemical terms derived from Arabic: drug, alkali, alcohol, aldehydes, alembic, and elixir among others, not to mention syrups and juleps. They invented flavorings extracts made of rose water, orange blossom water, orange and lemon peel, tragacanth and other attractive ingredients. Space does not permit me to list the contributions to pharmacology and therapeutics, made by Razi, Zahrawi, Biruni, Ibn Butlan, and Tamimi.    PYCHOTHERAPY  From freckle lotion to psychotherapy- such was the range of treatment practiced by the physicians of Islam. Though freckles continue to sprinkle the skin of 20th century man, in the realm of psychosomatic disorders both al-Razi and Ibn Sina achieved dramatic results, antedating Freud and Jung by a thousand years. When Razi was appointed physician-in-chief to the Baghdad Hospital, he made it the, first hospital to have a ward exclusively devoted to the mentally ill."  Razi combined psychological methods and physiological explanations, and he used psychotherapy in a dynamic fashion, Razi was once called in to treat a famous caliph who had severe arthritis. He advised a hot bath, and while the caliph was bathing, Razi threatened him with a knife, proclaiming he was going to kill him. This deliberate provocation increased the natural caloric which thus gained sufficient strength to dissolve the already softened humours, as a result the caliph got up from is knees in the bath and ran after Razi. One woman who suffered from such severe cramps in her joints that she was unable to rise was cured by a physician who lifted her skirt, thus putting her to shame. "A flush of heat was produced within her which dissolved the rheumatic humour."  The Arabs brought a refreshing spirit of dispassionate clarity into psychiatry. They were free from the demonological theories which swept over the Christian world and were therefore able to make clear cut clinical observations on the mentally ill.  Najab ud din Muhammad'", a contemporary of Razi, left many excellent descriptions of various mental diseases. His carefully compiled observation on actual patients made up the most complete classification of mental diseases theretofore known." Najab described agitated depression, obsessional types of neurosis,Nafkhae Malikholia (combined priapism and sexual impotence). Kutrib (a form of persecutory psychosis),Dual-Kulb (a form of mania) .  Ibn Sina recognized 'physiological psychology' in treating illnesses involving emotions. From the clinical perspective Ibn Sina developed a system for associating changes in the pulse rate with inner feelings which has been viewed as anticipating the word association test of Jung. He is said to have treated a terribly ill patient by feeling the patient's pulse and reciting aloud to him the names of provinces, districts, towns, streets, and people. By noticing how the patient's pulse quickened when names were mentioned Ibn Sina deduced that the patient was in love with a girl whose home Ibn Sina was able to locate by the digital examination. The man took Ibn Sina's advice , married the girl , and recovered from his illness.  It is not surprising to know that at Fez, Morocco, an asylum for the mentally ill had been built early in the 8th century, and insane, asylums were built by the Arabs also in Baghdad in 705 A.D., in Cairo in 800 A.D., and in Damascus and Aleppo in 1270 A.D. In addition to baths, drugs, kind and benevolent treatment given to the mentally ill, musico-therapy and occupational therapy were also employed. These therapies were highly developed. Special choirs and live music bands were brought daily to entertain the patients by providing singing and musical performances and comic performers as well.   CONCLUSION  1,000 years ago lslamic medicine was the most advanced in the world at that time. Even after ten centuries, the achievements of Islamic medicine look amazingly modern. 1,000 years ago the Muslims were the great torchbearers of international scientific research. 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