Termites, one of the most common insects in the ecosystem, have very interesting specifications and social behaviors. These insects are of interest due to their ability to digest cellulose and to recycle organic foods found in rotten leaves, dead wood or wood chips. Although they are considered by some to be harmful to the economy-in the USA alone 600 million dollars every year-because they eat wood, in truth they bring about more benefit than harm. As a result of the activities of these insects, our forests are able to respire and regenerate. Termites break down old, decayed, and fallen trees, digesting them and thus helping nature to renew with a continuous circulation of vital substances. Despite the depth of information that is known about the ecological and economical importance of termites, only a little is known about their biological structure and behavior. Two characteristic features of these insects are that they live in social colonies and that they are very susceptible to infections, as they build their nests in soil or rotten wood. Since their environment is covered with damp and warm earth, they are also surrounded by an abundance of bacteria.

How termites arrange their social lives and how they protect themselves against illness are two main subjects being investigated by biological scientists. When termites encounter fatal fungal infections, the termites that first become aware of the disease start to send warning signals to the other members of the colony. Even at the cost of their lives, these members will continue to send warning signals. That is, for the health and prosperity of the whole society, some individuals of the group will sacrifice their own lives. One of these signals consists of the contractions and vibrations sent by the termite that caught the disease. One type of termite that makes its nest in wood starts to eat and destroy its nest when it catches an infection. The vibrations and sound of this activity are received by the other members of the colony, and they quickly realize that they are faced with an emergency situation. They then spring into action to move their nest to a more secure place. These communication experts exhibit different movements and behavior in order to inform others of different kinds of dangers. They use different methods to warn others about the existence of an intruder, or a hole in the nest, or a disease they have caught. Consequently, the vibrations and oscillations caused by the movements of the termites constitute a kind of Morse code for termites. In other words, termites talk to each other through these oscillations and vibrations, which to us appear as no more than a strange puzzle for us.

J. Traniello from Boston University investigated the communication systems termites use to inform each other about disease-making microorganisms as his research subject (Mechanisms of Disease Response in Termites) . He made a rectangular shaped Perspex (clear acrylic) nest which he has divided into two sections. The material used for the divisions allowed the termites to pass from side to side. Moreover, some tubes were also placed around the nest so that the termites could leave the nest. He placed termites in both of the sections. After an adaptation period, one part of the nest was infected by spores of a fatal fungus called Metahizium anisopliae, with the change in the behavior of the insects being observed and recorded. Termites that sensed the infected parts of the section started to move their bodies up and down and back and forth, as if they were breathing deeply and continued to depict seismic waves like oscillations and vibrations. Termites in the clean part of the nest felt these vibrations and within an hour had completely abandoned the nest. An interesting observation in the experiment was that the termites in the infected part stayed in the nest and continued to vibrate. In order to determine that the termites left the nest only after receiving the vibrations sent by the termites that had detected the infection, sound absorbent foams were placed between the sections, and the same experiment was carried out three times more. In the experiments conducted with the absorbent foam, despite the existence of the disease, the termites in the uninfected sections did not leave the nest. This proves that termites were receiving the vibrations from the infected termites and were replying to them by immediately deserting the nest.

It was thought that the termites in the infected area would also leave the nest after sending messages to the termites in the other section. This hypothesis, however, proved to be false. They stayed where they were and continued sending warning signals until they died. This was another example of the sacrifice observed in social insects that give up their own lives for the continuation of their society. The termite perceives the existence of a fatal bacteria attack and immediately starts to send warning signals; and by not abandoning their nest, they successfully put into effect a quarantine system. These social insects, without any intelligence, apply the quarantine system in such a precise manner that the disease is completely prevented from spreading. What is more, by sacrificing themselves for their society, they show that the principle of “if a person’s endeavor is for his nation, that person becomes a miniature nation on his own” is not only valid for human beings.

Ants, using a different method than termites, synthesize bacteria eliminating chemicals in their saliva glands that protect them from infectious diseases. These chemical combinations are very effective against bacteria and fungi. Ants protect themselves by covering their bodies with these substances at certain intervals. Termites, although in appearance not very different from ants, do not produce antiseptic substances in their bodies. Termites use a different strategy by establishing a symbiotic relationship with the bacteria that live in their intestines. Some termites that feed on decayed wood need enzymes to digest the cellulose. The cellulose needed by termites is synthesized by the bacteria in their intestines and turned into sugar. Thus, termites receive the glucose they need for survival and bacteria are provided with a comfortable berth in the bodies of the termites. Because of this symbiotic relationship, the production of fatal antibiotics that would kill the bacteria would be harmful to the termites themselves.

Instead of producing chemical compounds or antibiotics like ants, the seismic movements and self-sacrificing behavior depicted by the termites has given scientists the idea that it may be possible to benefit from termites as an early warning system for earthquakes. This idea is reflected in the Holy Qur’an, chapter Naml (The Ant), verse 18:

Until, when they reached a valley of ants, one of the ants said: “O you ants! Get into your dwellings lest Solomon and his army crush you unawares.”

This verse shows us the sensitivity of ants to vibrations. They have organs in their feet that are sensitive to movement. For one of those ants to have been able to warn the other ants, it must either have seen or sensed the coming of Prophet Solomon’s army. As obviously an ant cannot see an army coming from a long distance, they must have felt the vibrations made by the feet of the soldiers. We know that sound waves move very fast and are strong in solid objects. Because of this, by placing an ear onto railway track one can hear the vibrations of a train from far away. Termites most likely have an organ that receives vibrations that is similar to that of ants, because if a species can produce a signal (e.g. light, sound, or vibrations) for communication, they must also have an organ that is capable of receiving this signal. Since termites communicate with vibrations, they must also have an organ that is sensitive to weak vibrations. From this respect, if the code that is based upon some of the behaviors and vibrations used by the termites can be decoded, then are techniques of predicting earthquakes can be considerably improved.

Immunity can be divided into innate immunity and acquired immunity. The mechanisms of innate immunity are given to us by our Creator as a tool with which to protect ourselves. These are used to fight against every kind of microorganism. These ever-ready forces do not need to have met the enemy microorganisms to fight them off. Acquired immunity comes about after the infectious microbe has been encountered; this is usually as a result of infection or vaccination. Such immunities only protect the body against a specific harmful organism. T and B lymphocytes and antibodies belong in the acquired immune system, whereas other mechanisms are part of the innate immune system. We can classify the very intricate immunity mechanisms as follows:

A – Layers that cover the inner and outer surfaces of the body: These are the physical structures that carry out the task of protection by covering the tissues like a shield or fortress.

1. Skin: Our skin is an organ in its own right. It is created with such perfect characteristics that no microorganism can penetrate our body if there are no flaws, like gashes, scratches, or wounds.

2. Oral mucous membrane: If the epithelial layer covering the interior walls of our mouth is healthy, microorganisms cannot infiltrate the blood.

3. Areas around the sexual organs: The sexual organ in males is, even at birth, more protected than that of females. For female children, the epithelium covering the interior face of the organ turns into a multi-layered structure due to the impact of estrogen (sexuality hormone) that starts being secreted after adolescence. That multilayered structure blocks infections that can result from sexual intercourse. Female children before adolescence do not have estrogen, thus their genital organs have a thinner layer of epithelium and are more likely to be infected. This is why cleansing after urination should be done from the front to the back and the genital organs should not come into contact with feces. Our God of infinite mercy also gives girls a hymen in order to protect girls from germs.

B – Flora bacteria (beneficial bacteria): These do not serve as mechanical obstacles, but are assigned tasks. There are some bacteria that do not cause illnesses in the urine and in the proliferation canals, the skin, throat, intestines, and the eyes. Those beneficial bacteria located in our body work for us and hinder other infectious bacteria from settling in these zones. Those places are sterile in the body of a fetus; no beneficial bacteria exist there. Protector bacteria are positioned in those places right after the birth; this is a revelation of God’s infinite compassion. For instance, a baby’s first feces are sterile because there are no bacteria in his intestines. As time passes, a baby adopts protector bacteria through his mouth by nursing, from bottles, and pacifiers. Parents should be careful about the purity of pacifiers, feeding bottles, water, and additional nourishments, particularly in the first couple of months, until the bacteria flora have been established in an infant’s body. Otherwise, babies can easily suffer from diarrhea. God equipped beneficial bacteria with some special peculiarities to be able to deter other microorganisms from settling in the body. Here are some of these peculiarities:

1. They compete with infectious bacteria on the consumption of nutrients, so they restrain the reproduction of other bacteria.

2. They emit bactericides that kill only pathogenic (harmful and infectious) bacteria.

3. Some flora bacteria are assigned a mission to impede the reproduction of pathogenic bacteria so as to reduce pH (increase acidity) in the environment. For example, the lactobacillus in the female genital passage produces lactose by breaking down the glucose in the uterine canal in order to acidify the secreted matters in that canal. Reproduction of fungi is also obstructed in the same way. Due to that fact, some fungal diseases might emerge in genital areas or in the ears, among other places, after antibiotic treatment. Antibiotics kill not only pathogenic bacteria, but also flora bacteria. Thus, desultory usage of antibiotics should be avoided.

Today, beneficial intestinal bacteria are taken orally in capsules, and infectious bacteria in the intestines are killed by supplementing the flora bacteria in that organ without the use of antibiotics.

C – Mechanical cleansing:

1. Secretions:

a.Saliva: Secreted continuously from the glands behind the ears, beneath the chin and beneath the tongue, saliva expels the intruder pathogenic bacteria by cleansing our mouths. It also prevents tooth decay and gum inflammation by cleaning leftover food on which bacteria could feed.

b. Tears: Tears are charged with the duty of cleaning the conjunctiva (the mucous membrane that lines the inner surface of the eyelids and that continues over the forepart of the eyeball) and the cornea (the transparent part of the coat of the eyeball that covers the iris and pupil and admits light to the interior).

2.Cilia: These are feather-like cell extensions of microscopic size.

a.Nasal Cilia: Covering the nasal mucous membrane, mucus (a slimy substance) grasps dust particles and microbes in the air due to its adhesive nature. Lumpy folds inside the nose do not let the air flow straight. Therefore, a turbulent air current occurs in the nose. This turbulent current causes the particles in the air to come into contact with this slimy substance and to get stuck there. Epithelial cells also have cilia expanding toward the nasal cavity. Every cell has nearly 200 cilia. These cilia push mucus and the dust particles attached to it toward the pharynx with an up and down whipping action (10–20 strokes per second) so as to keep them away from the lungs.

b.Cilia in the lower respiratory passages: The upper surface of epithelium that is spread on the trachea, bronchi, and bronchioles is also covered with mucus. Epithelial cells in this area have cilia, too. These cilia do the same whipping action to push particles and microorganisms in the mucus toward the pharynx. They are pushed into the pharynx and expelled by coughing. One of the damaging impacts of nicotine on the respiratory system is that it paralyzes these cilia and disrupts the discharging process of harmful particles. As a consequence, smoking leads to many lung diseases.

D – Enzymes, acids and antibodies in body secretions:

1.Lysozyme: This is a substance found in body secretions (saliva, perspiration, tear, genital organ secretion etc.) that kills bacteria.

2.Stomach acid (Hydrochloric acid, HCl): Being emitted through stomach glands, HCl is a strong acid that can destroy bacteria that are able to reach as far as the stomach with the food we eat. Although we usually have our meals without cleaning our hands sufficiently or without washing them thoroughly, we rarely (except for situations where we are exposed to a high density of microbes like food poisoning or dirty drinking water) get infected via this route. The actors in this perfect protection are lysozyme and stomach acid.

3.Antibodies: Being present in the blood and body secretions, antibodies play a role in the defense against microorganisms. Antibodies in breast milk are passed from the mother’s blood to her milk via a very special mechanism, and are significant in the protection of an infant from infections.

E – Defender Cells: Resembling special operation forces, each of these cells is trained in different parts of the body and sent into the blood circulation. Those troop-like cells, which protect us against diseases by struggling fiercely with germs that can reach the blood after overcoming many obstacles, cannot have come about merely by chance, without the participation of the All-Knowing Designer.

1.Macrophages: Monocytes, a kind of leukocyte in the blood, pass from the capillaries to the tissue and turn into giant cells called macrophages that can phagocytose (swallow microbes) at a great rate. Macrophages swallow and tear down every kind of bacteria and virus that invades the body. These cells constitute the first defense line of the body and serve like advance guards. For instance, the first force to start fighting against the germs that can penetrate the skin through a scratch is the macrophages found just beneath the skin are called histiocytes. Germs that can infiltrate the blood through the intestines and reach the liver via the portal vein are eradicated by another type of macrophage. Therefore, almost no bacterium can pass from the intestines into the general blood circulation system. Germs that enter the body orally are destroyed by macrophages stationed in the lymph nodes on the tonsils. The ones that manage to reach the lungs through the respiratory paths are killed by the macrophages in the alveoli. Those cells also cause T-lymphocytes (very specially equipped cells) to proliferate by stimulating them. 2.Neutrophils: These are the most common type (60-70%) of leukocytes. These cells participate only in fights against bacteria. When bacteria enter a tissue, some poisonous matters emitted by them cause a chemical reaction called chemotaxis; this reaction attracts the neutrophils toward the infected tissue. In this case, the neutrophils leave their capillaries for the infected tissue and find and destroy the bacteria. How can germ-eating cells, like macrophages and neutrophils, distinguish normal body cells from microbes? Undoubtedly, the Creator of such an excellent defense system does not make us worry about such a problem; it was for this purpose that God created opsonins. Opsonins are similar to adapters in that they are able to attach two different parts together and connect themselves to a specific place on the germ. Thus, macrophages and neutrophils carry out their germ-eating job perfectly, connecting themselves to those opsonins. Since our own body cells do not have receptors that can handle opsonins, they cannot be eaten. 3.Lymphocytes: These are the troops of the immunity system with the most complicated organizations and strategies. These troops are categorized as T and B lymphocytes. They are the most important and powerful of the immunity mechanisms and constitute about 20-30% of the leukocytes in blood. They are regarded as the last defense line against those germs with which the other mechanisms cannot cope. a.T lymphocytes: When T lymphocytes are stimulated by macrophages, T cells that are a form of T lymphocyte secrete a matter called lymphokine. Lymphokine stimulates cytotoxic (microbe killer) T cells and B lymphocytes into action. Unless auxiliary T cells exist, the acquired immunity system collapses. Likewise, the HIV virus destroys auxiliary T cells and renders a person susceptible to disease. Even very simple infections can turn into a catastrophe for those patients. Cytotoxic T cells assault bacteria and particularly virus-infected body cells. They deliver porphyrins (proteins to make holes) into cell membranes by attaching themselves to the cells. In that way, a huge amount of water enters the cells and they get torn, due to over-swelling. Thus, viruses in the infected cells are dispersed and are neutralized by specific antibodies produced for that purpose with their infecting ability being impeded. (Viruses have to enter body cells to be able to proliferate. Only in this way can they protect themselves against antibodies and proliferate. Viruses that proliferate in cells use matters in those cells and cause them to eventually break apart, then move onto other cells.) b.B lymphocytes: These cells are stimulated directly by microbes. However, they need lymphokines to be completely stimulated and activated. Lymphokines are created capable of causing B lymphocytes to proliferate and transform themselves to Plasmocytes. Plasmocytes also emit antibodies to the blood. c.Killer cells: These play a role in the innate immune system, so they do not need stimulation like T and B lymphocytes. In particular, they assault body cells that are virus-infected or show a tendency to cancer. In this way, they establish a first defense line against viruses and block cancer development. Even though the working principles of lymphocytes are not known, they are related in some way to spiritual values such as love, enthusiasm, and peace of mind. Likewise, it is known that the immune systems of people whose spirituality has been weakened by depression and stress are more susceptible to break down. Unless those people recover by activating their spiritual dynamics, like faith in destiny, they are under a greater threat of cancer. Yet, this world is a place of examination. We cannot claim that every cancer is due to a damaged spirituality; we should not forget that cancer might occur due to different reasons. 4. Eosinophils: These are a kind of leukocytes that can kill some sort of parasites. They cling to parasites and release the granules in their cytoplasm into the parasites. These granules contain enzymes which destroy parasites. 5. Mast cells and basophils: Mast cells and basophils play a central role in inflammatory and immediate allergic reactions. They are able to release potent inflammatory mediators. Mast cells function out of the veins and protect the tissues in the body, whereas basophils are similar cells found in the bloodstream. F – Factors in plasma: 1.Antibodies: These are secreted into the blood by plasma cells. They fight against the germs that have stimulated them. They show their impact directly (neutralizing bacterial poisons, gathering and precipitating bacteria, neutralizing viruses, pulling microorganisms into pieces) or by activating a very special system called a complement. 2.Complement proteins: When inactive complement proteins in plasma are stimulated by antigens and an opposing antibody complex, active complement compounds are brought to life. These compounds have various effects like chemotaxis, opsonization, development of inflammation as a result of stimulation of mast cells and basophils, and the destruction of microorganisms. The complement system can be stimulated by microorganisms without a need for antibody development (without a need for lymphocytes); this can be seen as a manifestation of our Creator”s name Mudabbir (managing, administering, controlling every being in balance and order). This ensures the stimulation of a complement system under conditions that lack antibody production. Hence, the body is never left completely undefended. Is it really possible that such an amazing defense system, that requires unlimited knowledge and power, and that consists of every kind of alternative action, can come into existence by itself? 3.Interferons: Viruses invade body cells and synthesize proteins that contribute to their proliferation. Interferons, secreted by lymphocytes or other leukocytes, are created so that they can attach themselves to virus-infected body cells and obstruct the production of those proteins. Hence, these viruses cannot proliferate. 4.Lysozyme: Mentioned in the earlier part concerning body secretions, lysozyme is also available in the blood and kills bacteria there. 5.Properdin: This is a kind of protein available in the plasma which can neutralize viruses and destroy some bacteria types. 6.Acute phase proteins: These are a large number of serum proteins (C-reactive protein, etc.) that are swiftly synthesized by the liver and that are employed in defense during infections. 7.Beta-lysin: A substance that destroys some types of bacteria. G – Events caused by infections: 1. Inflammation: Inflammation is a response that is designed to protect tissues against tissue destruction, caused by factors like infection, excessive heat, and trauma. When a tissue is invaded by microorganisms, it starts to be destroyed; certain matters come out of those tissue cells (as mast cells) and lead to certain reactions in that zone. a.Vasodilation: As the little veins transporting blood to a tissue widen, more blood rushes in and more neutrophils are carried to that zone. Meanwhile, a color enhancement (blushing) occurs in that place. b.Increase in permeability of the capillaries: Neutrophils can penetrate into the tissues more easily. Plenty of water also passes through tissues, so some edemas (swelling in tissues) develop. Finally, coagulation proteins in the plasma, which can rarely infiltrate from capillaries to the tissues because of their large molecular structures, pass to the tissues and clot the liquid here. Hence, lymph veins, which are responsible for returning the liquid to the blood circulation, are plugged by clots. Consequently, inflammation detains microorganisms in that specific zone and prevents them from spreading throughout the body. Microorganisms are also destroyed by tissue macrophages in the inflammation zone and the migrant neutrophils working there. (The more a bacterium causes tissue damage, the harder it passes to blood.) Then, remnants of dead bacteria, damaged tissue cells, and neutrophils that are also destroyed after the phagocytosing of between 5 and 20 bacteria soften the inflammation by dissolving and creating some pus in that zone. The pus streams out by itself or is relieved by an incision being cut in the covering skin. 2. Fever:Toxins coming out of some bacteria and some secretions of microbe-phagocytosing cells lead to an increase in body temperature. Fever stops reproduction of microorganisms and kills them by ruining their structures. Within this framework, the occurrence of fever is beneficial; it indicates that the body is resisting and struggling to kill the microbes. Therefore, fever should not be reduced as long as it is not too high to cause brain damage (especially for children). 3. Cough: A cough helps the body discharge the microbes in the respiratory paths. Thus, cough medicines should not be used immediately, except in cases of whooping cough. 4. Diarrhea: This helps the body rid itself of feces quickly, so medicines to stop diarrhea should not be used, either. However, in cases of cough and diarrhea, a person should know their own strength and the strength of their immune system well and take medication accordingly. When we consider all these defense mechanisms, this question occurs in our minds: Do we protect ourselves against infections or is there someone who operates various immunity mechanisms in our bodies and controls them at every moment with His infinite knowledge and power?

There is a natural healing power in honey of great benefit to man. This is affirmed in verses 68-9 of sura al-Nahl in the Qur’an: And your Lord inspired the bee: ‘Build your homes in the mountans and in the trees and in the (hives) made by mankihd’ Then (He taught the bee) to feed on every kind of fruit (of the earth) and to follow the ways of your Lord made smooth. There comes from inside their bellies a drink of diverse colours in which is healing for mankind. Surely in this is a sign for those people who reflect (al-Nahl, 16.68-9)

It is extraordinary that the curative properties of honey are documented in the world’s oldest medical literature. The Sumerians, and Egyptian physicians around 2000 BC, used honey to treat internal and external wounds, ulcers, diseases of the eyes, lungs, skin and, in particular, diseases of the stomach and intestines. The Chinese, the Indians, the Greeks and the Romans also recorded similar practices in their traditions. Hippocrates, the so-called ‘father’ of modern medicine (460-377 BC) also used honey to treat a variety of diseases. Honey was also highly regarded as a tonic to preserve youth and prolong healthy life–one Chinese Emperor used it as a drug to obtain immortality. The great Muslim physician, Ibn Sina (980-1037) wrote dozens of prescriptions containing honey in his world-famous medical textbook ‘The Canon of Medicine’. He is reported to have included among the benefits of honey that it makes you feel happy; that it refreshes you; that it assists digestion and gets rid of wind; that it helps when you have a cold; that it increases appetite; that it improves and sharpens memory; that it eases the tongue (the faculty of speech); and that it preserves youthfulness.

THE ANTIBACTERIAL ‘SYSTEM’ IN HONEY

In 1937 H. Dold et al. reported that honey has antibacterial activity and called the active agent an ‘inhibine’. Ever since, a number of scientist have tried in vain to discover the identity of this ‘inhibine’. In 1963 J.W. White et al. suggested that the ‘inbibine’ is the hydrogen peroxide produced by the honey’s glucose-oxidase system. However, results obtained by the author and by other scientists such as O.B.O’L. James et al. in 1972 and S.S. Radwan et al. in 1984 do not agree with the attribution of the ‘inhibine’ to the hydrogen peroxide produced. This author’s researches in the laboratory have shown that the antibacterial activity of honey is owed not to a single factor but to a complex ‘system’ of factors, of which there are at list three:

1- The high sugar concentration (76 g/1OO ml)

2- The acidity (pH=3.6-4.2)

3- The organic antibacterial compounds present in honey

It was observed that undiluted honey clearly exhibits antibacterial activity. The bacterial cells dry out because of the osmotic effect of the high sugar content in the solution and bacterial growth is retarded in the acidic environment which honey provides. In diluted form neither the sugar in the honey nor the acidity in it has an inhibitive effect on bacteria. Is it then the organic compounds which are responsible for inhibiting bacterial growth? It was also observed that most of the common pathogenic bacteria which infect human beings are killed in honey. Honey therefore acts as a bactericide. The researches established that the ‘inhibine’ is not a single agent but a subtle combination of intricately related factors quite unique in their antibacterial action. Further research is necessary, and is currently in progress, to identify the chemical nature of the organic antibacterial factors in honey.

THE BIOCHEMICAL COMPOSITION OF HONEY

The biochemical composition of honey is relevant to its curative properties. Beside the existence of the antibacterial ‘system’, honey is known to contain not less than 181 different compounds. These can be classified as follows:

– Simple and complex sugars

– Organic acids

– Minerals and trace elements (resembling blood composition)

– Vitamins (both water and fat soluble)

– Amino-acids (both essentials and non-essentials)

– Proteins (mainly enzymes)

– Lipids (simple, complex and wax)

– Plant flavours and colouring materials

– Hydrocarbons

– Hormones

– Pollens

– Microorganisms (yeast)

The list above shows just how complex the composition of honey is. It is then less of a wonder that honey contains some combination of elements which have proven so effective in the treatment of wounds and ulcers. Honey not only keeps ruptured cells sterile but also provides all the necessary micronutrients which are the building materials need to assist the cells’ full recovery. Although these micronutrients are present in only small quantities, they are available in the most easily assimilated, soluble forms. In addition, the high energy required for the healing processes to occur is provided by the simple sugars, fructose and glucose, in honey.

CLINICAL USE OF HONEY

To date the scientific and clinical evidences for the miracle of honey are numerous. Doctors and surgeons have used honey in their medical practice and even openly recommended its use. Among recent examples the use of honey for:

Treatment of serious gunshot wounds by Prof. S.A. Simirnov in 1948;

Treatment of breakdown surgical wounds by Dr. D. Cavanagh et al. in 1970;

Treatment of ulcers, surface wounds, cuts and abrasions by Dr. R. Blomfield in 1973;

Treatment of bacterial gastro enteritis (diarrhea) by Dr. I.E. Haffejee and Prof. A. Moosa in 1985;

Treatment of a wide range of serious long-standing wounds and ulcers by Dr. S.E.E. Efem in 1988;

Treatment of infected wounds in vulvectomy, infected perineum, infected abdominal wall wounds and breakdown of abdominal wall scar by Dr. R.J.F. Mclnerney in 1990.

In each of these cases honey was praised for its effectiveness as compared to ‘modern-conventional’ treatment. Honey was observed to kill bacteria at the site of wounds, to debride (clean up) wounds, rapidly replacing sloughs (dead cells) and so enabling granulation (scar) tissues to form. Honey also permitted epithelialization (i.e. growth of healthy cells) and the absorption of oedema (swellings) from around the ulcer margins. Honey reduced further infection, the risk of offensively smelly (seriously infected) wounds and so reduced need for skin graft treatments.

CONCLUSION

The verses of the Our’an which affirm the healing properties of honey affirm for us the mercy of Allah, Creator and Sustainer of the Worlds. It is also by this mercy that we study and research what He has created and made intelligible to us, including this miracle of honey. It is easy then to conclude our work, as Muslim scholars and scientists always used to begin their work, by praising Allah, and by saluting the Prophet Muhammad, upon him be peace, who left us this advice: Whoever licks honey three mornings in a month is saved from serious illnesses. 

REFERENCES

• IOYRICH, N. (1977) Bees and People, Mir Publishers. Moscow.
• CRANE, E. (1978) Honey: A Comprehensive Review Heinemann, London.
• WHITE. J.W., Mary. J.R.. Subers. H. and Schepartz, A. I. (1963) ‘The identification of inhibine, the antibacterial factor in honey as hydrogen peroxide and it s origin in a honey glucose-oxidase system’, Biochem. et Biophys. acta, 73. pp.57-70.
• JAMES. O.B. O’L, Segree. W and Ventura. A.K. (1972) ‘Some antibacterial properties of Jamaican honey’ West Indies Medical Journal, 21(7), pp.7-17.
• RADWAN. S.S.. El-Essawy, A. A. and Sarhan, M.M. (1984) ‘Experimental evidence for the occurrence in honey of specific substances active against micro-organisms’ Zbl. Mikrobiol.. 139. pp.249-55.
• KAMARUDDIN. M.Y., Sivanaesan,L and Hamid, A.H.A. (1989) ‘The existence of antibacterial factors in Malaysian Apis cerana honey’, Proceedings of the 14th. Malaysian Biochemical Society Conference pp.l8l-5
• JAVANAGH. D., Beazler, C. and Ostapowicz, F. (1970) ‘Radical operation for carcinoma of the vulva: a new approach for wound healing’ Journal of Obstetrics and Gynaecology of the British Commonwealth, 77, pp 1037-40.
• BLOMFIELD, R. (1973) ‘Honey for decubitus ulcers’ Journal of American Medical Association 224, p-905.
• HAFFEJII, I.E. and Moosa, A. (1985) ‘Honey in a treatment infantile gastroenferitis’ British Medical Journal, 290, pp.1866-7.
• EFEM. S.E. (1988) ‘Clinical observations on the wound healing properties of honey’ British Journal of Surgery, 75, pp.679-81.
• MACINERNEY. R.C.F. (1990) ‘Honey: a remedy rediscovered’, Journal of the Royal Society of Medicine, 83, p.127.
• KAMARUDDIN, M.Y (1987-91) ‘Biochemical and Pharmacological study on Malaysian Apis cerena honey’, Beekeeping: The Malaysian Beekeeping Research and Development Team – IDRC. 1987-91 Report.