Saturday, May 10, 2008

Muslim Educationist Contribution

Truly, there is hardly a field that is not indebted to these pioneering children of Islam. Here below is a short list, by no means a comprehensive one, of Muslim scientists from the 8th to the 14th century CE:

701 (died) C.E. * Khalid Ibn Yazeed * Alchemy

721-803 * Jabir Ibn Haiyan (Geber) * Alchemy (Great Muslim Alchemist)

740 * Al-Asma'i * Zoology, Botany, Animal Husbandry

780 * Al-Khwarizmi (Algorizm) * Mathematics (Algebra, Calculus), Astronomy

776-868 * Amr ibn Bahr al-Jajiz * Zoology

787 * Al Balkhi, Ja'far Ibn Muhammas (Albumasar) * Astronomy

796 (died) * Al-Fazari,Ibrahim Ibn Habib * Astronomy

800 * Ibn Ishaq Al-Kindi - (Alkindus) * Medicine, Philosophy, Physics, Optics

815 * Al-Dinawari, Abu-Hanifa Ahmed Ibn Dawood * Mathematics, Linguistics

816 * Al Balkhi * Geography (World Map)

836 * Thabit Ibn Qurrah (Thebit) * Astronomy, Mechanics, Geometry, Anatomy

838-870 * Ali Ibn Rabban Al-Tabari * Medicine, Mathematics

852 * Al Battani Abu Abdillah * Mathematics, Astronomy, Engineering

857 * Ibn Masawaih You'hanna * Medicine

858-929 * Abu Abdullah Al-Battani (Albategnius) * Astronomy, Mathematics

860 * Al-Farghani, Abu al-Abbas (Al-Fraganus) * Astronomy, Civil Engineering

864-930 * Al-Razi (Rhazes) * Medicine, Ophthalmology, Chemistry

873 (died) * Al-Kindi * Physics, Optics, Metallurgy, Oceanography, Philosophy

888 (died) * Abbas ibn Firnas * Mechanics, Planetarium, Artificial Crystals

900 (died) * Abu Hamed Al-ustrulabi * Astronomy

903-986 * Al-Sufi (Azophi) * Astronomy

908 * Thabit Ibn Qurrah * Medicine, Engineering

912 (died) * Al-Tamimi Muhammad Ibn Amyal (Attmimi) * Alchemy

923 (died) * Al-Nirizi, AlFadl Ibn Ahmed (Altibrizi) * Mathematics, Astronomy

930 * Ibn Miskawayh, Ahmed Abu-Ali * Medicine, Alchemy

932 * Ahmed Al-Tabari * Medicine

934 * al Istakhr II * Geography (World Map)

936-1013 * Abu Al-Qasim Al-Zahravi (Albucasis) * Surgery, Medicine

940-997 * Abu Wafa Muhammad Al-Buzjani * Mathematics, Astronomy, Geometry

943 * Ibn Hawqal * Geography (World Map)

950 * Al Majrett'ti Abu-al Qasim * Astronomy, Alchemy, Mathematics

958 (died) * Abul Hasan Ali al-Mas'udi * Geography, History

960 (died) * Ibn Wahshiyh, Abu Baker * Alchemy, Botany

965-1040 * Ibn Al-Haitham (Alhazen) * Physics, Optics, Mathematics

973-1048 * Abu Rayhan Al-Biruni * Astronomy, Mathematics, History, Linguistics

976 * Ibn Abil Ashath * Medicine

980-1037 * Ibn Sina (Avicenna) * Medicine, Philosophy, Mathematics, Astronomy

983 * Ikhwan A-Safa (Assafa) * (Group of Muslim Scientists)

1001 * Ibn Wardi * Geography (World Map)

1008 (died) * Ibn Yunus * Astronomy, Mathematics.

1019 * Al-Hasib Alkarji * Mathematics

1029-1087 * Al-Zarqali (Arzachel) * Astronomy (Invented Astrolabe)

1044 * Omar Al-Khayyam * Mathematics, Astronomy, Poetry

1060 (died) * Ali Ibn Ridwan Abu'Hassan Ali * Medicine

1077 * Ibn Abi-Sadia Abul Qasim * Medicine

1090-1161 * Ibn Zuhr (Avenzoar) * Surgery, Medicine

1095 * Ibn Bajah, Mohammed Ibn Yahya (Avenpace) * Astronomy, Medicine

1097 * Ibn Al-Baitar Diauddin (Bitar) * Botany, Medicine, Pharmacology

1099 * Al-Idrisi (Dreses) * Geography, Zoology, World Map (First Globe)

1110-1185 * Ibn Tufayl, Abubacer Al-Qaysi * Philosophy, Medicine

1120 (died) * Al-Tuhra-ee, Al-Husain Ibn Ali * Alchemy, Poem

1128 * Ibn Rushd (Averroe's) * Philosophy, Medicine, Astronomy

1135 * Ibn Maymun, Musa (Maimonides) * Medicine, Philosophy

1140 * Al-Badee Al-Ustralabi * Astronomy, Mathematics

1155 (died) * Abdel-al Rahman Al Khazin * Astronomy

1162 * Al Baghdadi, Abdel-Lateef Muwaffaq * Medicine, Geography

1165 * Ibn A-Rumiyyah Abul'Abbas (Annabati) * Botany

1173 * Rasheed Al-Deen Al-Suri * Botany

1180 * Al-Samawal * Algebra

1184 * Al-Tifashi, Shihabud-Deen (Attifashi) * Metallurgy, Stones

1201-1274 * Nasir Al-Din Al-Tusi * Astronomy, Non-Euclidean Geometry

1203 * Ibn Abi-Usaibi'ah, Muwaffaq Al-Din * Medicine

1204 (died) * Al-Bitruji (Alpetragius) * Astronomy

1213-1288 * Ibn Al-Nafis Damishqui * Anatomy

1236 * Kutb Aldeen Al-Shirazi * Astronomy, Geography

1248 (died) * Ibn Al-Baitar * Pharmacy, Botany

1258 * Ibn Al-Banna (Al Murrakishi), Azdi * Medicine, Mathematics

1262 (died) * Al-Hassan Al-Murarakishi * Mathematics, Astronomy, Geography

1270 * Abu al-Fath Abd al-Rahman al-Khazini * Physics, Astronomy

1273-1331 * Al-Fida (Abdulfeda) * Astronomy, Geography

1306 * Ibn Al-Shater Al Dimashqi * Astronomy, Mathematics

1320 (died) * Al Farisi Kamalud-deen Abul-Hassan * Astronomy, Physics

1341 (died) * Al-Jildaki, Muhammad Ibn Aidamer * Alchemy

1351 * Ibn Al-Majdi, Abu Abbas Ibn Tanbugha * Mathematics, Astronomy

1359 * Ibn Al-Magdi, Shihab-Udden Ibn Tanbugha * Mathematic, Astronomy

1375 (died) * Ibn Shatir * Astronomy

1393-1449 * Ulugh Beg * Astronomy.

1424 * Ghiyath al-Din al Kashani * Numerical Analysis, Computation

Tuesday, April 15, 2008

Science: Islam's Forgotten Geniuses

The untold story of Arabic brilliance should be a timely reminder of a proud heritage, says Jim Al-Khalili

Next year, we will be celebrating the 200th anniversary of Charles Darwin's birth, and the 150th of the publication of his On The Origin of Species, which revolutionized our understanding of biology.

But what if Darwin was beaten to the punch? Approximately 1,000 years before the British naturalist published his theory of evolution, a scientist working in Baghdad was thinking along similar lines.

In the Book of Animals, abu Uthman al-Jahith (781-869), an intellectual of East African decent, was the first to speculate on the influence of the environment on species. He wrote: "Animals engage in a struggle for existence; for resources, to avoid being eaten and to breed. Environmental factors influence organisms to develop new characteristics to ensure survival, thus transforming into new species. Animals that survive to breed can pass on their successful characteristics to offspring."

There is no doubt that it qualifies as a theory of natural selection - even though the Book of Animals appears to have been based to a large extent on folklore rather than on zoological fact.

Despite the strong feelings Darwin provokes among many Muslims - many Islamic scholars see the Koran as creationist, and so at odds with evolution - it seems astounding that al-Jahith's quote has been largely ignored.

In fact, although popular accounts of the history of science typically show no major advances taking place between the Romans and the Renaissance, al-Jahith's work was part of an astonishing flowering of invention and innovation that took place in the Muslim world, and in Iraq in particular, in the Middle Ages.

This worldview, based on a mixture of theology and rational thinking, produced wonderful advances in philosophy, astronomy, medicine and mathematics, in particular the emergence of algebra and trigonometry.

Although the Muslim world is often now seen as ill-equipped for scientific discovery, we can look back to Baghdad and see the origins of the modern scientific method, the world's first physicist and the world's first chemist; advances in surgery and anatomy, the birth of geology and anthropology; not to mention remarkable feats of engineering.

For 700 years, the international language of science was Arabic; and Baghdad, the capital of the mighty Abbasid Empire, was the centre of the intellectual world. The story starts around 813, when the caliph of Baghdad, al-Ma'mun, is said to have had a vivid and life-changing dream. In it, he met the Greek philosopher Aristotle, who instructed him to "seek knowledge and enlightenment".

This was the starting point for a lifelong obsession with science and philosophy. Al-Ma'mun created the famous House of Wisdom, a library, translation house and scientific academy unmatched since the glory days of Alexandria.

The caliph would then recruit some of the greatest names in Arabic science, such as the mathematician al-Khwarizmi and the philosopher al-Kindi. Although many of these thinkers were not Arabs themselves, they conducted their science and wrote their books in Arabic.

In the West, though, they were better known by their Latin names, such as Alkindus, Alhazen, Averroes and Avicenna. The most famous of all was Avicenna (or ibn Sina, to give him his correct name).

Born in Persia in 980, he was a child prodigy who grew up to become one of the world's greatest philosophers and physicians. His great work, the Canon of Medicine, was to remain the standard medical text both in the Islamic and Christian worlds until well into the 17th century.

He is credited with the discovery and explanation of contagious diseases and the first correct description of the anatomy of the human eye. As a philosopher, Avicenna is referred to as the Aristotle of Islam; as a physician, he is its Galen.

Indeed, it would not be inappropriate to refer to Aristotle and Galen as the Avicennas of the Greeks. My favourite of all the Abbasid scientists, however, is another Persian scholar by the name of al-Biruni.

Here was a polymath with a free-ranging and formidable intellect: not only did he make significant breakthroughs as a philosopher, mathematician and astronomer, but he also left his mark as a theologian, encyclopaedist, linguist, historian, geographer, pharmacist and physician.

Famously, having developed the mathematics of trigonometry, he was able to measure the circumference of the Earth to within a few miles. The only other figure in history whose legacy rivals the scope of al-Biruni's scholarship would be Leonardo da Vinci. So what went wrong?

What brought to an end this golden age of Abassid and Arabic science? The standard answer is that the ending came suddenly, in 1258, when the Mongols ransacked Baghdad. During the occupation, a large number of the books in the House of Wisdom were destroyed.

But Baghdad was by this time far from the only centre of scholarship in the Arabic speaking world - and wonderful advances continued to be made in Cairo and Cordoba right up to the European Renaissance in the 15th century.

There is also an argument that the decline was due to a change in attitude of the Islamic world towards science. This was primarily a consequence of the work of the 11th-century scholar and theologian al-Ghazali, who famously criticised Muslim scientists for their over-reliance on the philosophy of the ancient Greeks.

Yet this, too, cannot be the whole story. Al-Ghazali was primarily attacking a theological viewpoint that relied on ideas he deemed anti-Islamic. Hard science should not have been so affected by this more metaphysical dispute.

The real decline had much more to do with a weakening of the power of the caliphate as a whole, of which the Mongol invasion was merely one symptom.

By the end of the 11th century, Baghdad had lost control over much of its empire, and weaker caliphs were simply less inclined to encourage and finance scientific scholarship. But, just as the golden age of Arabic science began with the translation of the great Greek texts of Aristotle, Euclid and Ptolemy, so was the work of the Arabic scholars transferred to Europe

. For example, al-Jahith's Book of Animals was a major influence on Arab scholars of the 11th to 14th centuries, and the Latin translations of their work in turn became known to Charles Darwin's predecessors, Linnaeus, Buffon and Lamarck.

By the 16th century, while scientific and technological progress continued to be made at a gentler pace in the Muslim world under Persian and Ottoman rule, the European Renaissance was well under way.

The mystery is why the debt the West owed to Muslim scholars was then overlooked: acknowledged at all, the Abbasids are normally credited with nothing more than acting as the guardians of Greek science.

In a world of increasing religious tension, the untold story of Arabic science is a timely reminder of the debt the West owes to the Muslim world – and, perhaps more importantly, of the proud heritage today's Muslims should acknowledge.

ISLAM'S FORGOTTEN GENIUSES

Ibn al-Natis, a Syrian from the late 13th century, is credited with giving the first correct description of blood circulation in the body, 400 years before the work of Thomas Harvey.

• The Polish astronomer Copernicus (1473-1543) has Arabic astronomers to thank for his calculations: indeed, there are diagrams in his books that appear to have been lifted exactly from the work of the Arab astronomer Ibn Shatir 100 years earlier.

• The modern scientific method, based on observation and measurement, is often said to have been established in the 17th century by Francis Bacon and RenĂ© Descartes. But the Iraqi-born physicist Ibn al-Haythem (Alhazen), had the same idea in the 10th century.

• The word "alchemy" derives from the Arabic "alkimya", which means "chemistry". The world's first true chemist was a Yemeni Arab by the name of Jabir ibn Hayyan, born in 721.

Al-Razi (Rhazes) was the greatest clinician of the Middle Ages. Born near Teheran in 865, he ran a psychiatric ward in Baghdad at a time when, in the Christian world, the mentally ill would have been regarded as being possessed by the devil.

• The word "algebra" comes from the Arabic "al-jebr", and was made famous by the great ninth-century mathematician al-Khwarizmi. But contrary to popular myth, algebra was not an Islamic invention - its rules actually go back to the Greek mathematician Diophantus.

http://www.telegraph.co.uk/earth/main.jhtml?xml=/earth/2008/01/29/scimuslim129.xml&page=1

Sunday, December 23, 2007

Who destroyed Alexandria Library? by VA Mohamad Ashrof


Ptolemy II, who became the ruler of Egypt after Alexander the Great in the third century BC, was a great patron of learning, and founded a library in Alexandria, Egypt, which contained about 5,00,000 books on different subjects. It is this collection that is known in history as the great library in Alexandria.

It has been alleged that this library was burned down by Amr bin Aas at the behest of the Second Caliph, Umar. The story goes to state that Amr fed the numerous bath furnaces of the city with the volumes of the Alexandrian library. The story also relates the oft-quoted remark allegedly made by Caliph Umar (ruled: 634-644) when he consented to the destruction of the library, "If these writing of the Greeks agree with the book of God, they are useless and need not be preserved; if they disagree, they are pernicious and ought to be destroyed". It was, the story continues, thereupon, decided that the books were contrary to the Quran and the whole library was burned down without even opening the books.

Equating the burning of Alexandria Library with that of Nazi policy, Joseph Barnabas writes, "the arguments of Caliph Umar and the Nazi book burning are not without explanations."1 A Hindutva theorist, B.N. Jog, was more emphatic and clear: "Many people are surprised that Caliph Umar burnt down the huge and rich library of Constantinople. The urge for him to do so was, however, provided by his religion."2

Encyclopedia Britanica says that the Alexandrian Library had, in fact, been destroyed much earlier, in the fourth century A.D, long before the advent of Islam: "The library survived the disintegration of Alexander's empire (first century BC) and continued to exist under Roman rule until the third century AD."3 The truth is that one half of this library was burnt by Julius Caesar in 47 BC. In the third century, Alexandria came under the domination of Christians. At another place the same work states that, "The main museum and library were destroyed during the civil war of the third century AD and a subsidiary library was burned by Christians in AD 391."4

Phillip K Hitti states that the story "is one of those tales that make good fiction but bad history." He goes on, "the great Ptolemic library was burnt as early as 48 BC by Julius Ceasar. A later one, referred to as the daughter library, was destroyed about AD 389 as a result of an edict by the Emperor Theodosius. At the time of the Arab conquest, therefore, no library of importance existed in Alexandria and no contemporary writer ever brought the charge about Amr or Umar."5

Bernard Lewis, a vehement critic of Islam, has thus summarised the verdict of modern scholarship on the subject: "Modern research has shown the story to be completely unfounded. None of the early chronicles, not even the Christian ones, make any reference to this tale, which is mentioned in the 13th century, and in any case the great library of Serapenum had already been destroyed in internal dissensions before the coming of the Arabs."6

Lewis wrote the above words in 1950. As late as in 1990, he went on to state, "not the creation, but the demolition of the myth was achievement of European scholarship, which from the 18th century to the present day has rejected the story as false and absurd, and thus exonerated the Caliph Umar and the early Muslims from this libel."7

John M. Robertson, a historian of rationalistic and free thought, also dismissed the story of the destruction of the Alexandrian library by Umar as a myth.8

Historian DP Singhal considers the story untenable.9 Singhal writes, "It makes its first appearance in the solitary report of a stranger, Abul Faraj, who wrote 500 years later. The reported sentence of the Caliph is alien to the traditional precept of the Muslim casuists who had expressly commanded the preservation of captured religious text of the Jews and Christians, and had declared that the works of profane scientists and philosophers could be lawfully applied to the believer."10

Bertrand Russell has gone deep into the controversy and made the following statement: "Every Christian has been taught the story of the Caliph destroying the Library in Alexandria. As a matter of fact, this library was frequently destroyed and frequently recreated. Its first destroyer was Julius Caesar, and its last antedated the Prophet. The early Mohammedans, unlike the Christians, tolerated those whom they called 'people of the Book', provided they paid tribute. In contrast to the Christians, who persecuted not only pagans but each other, the Mohammedans were welcomed for their broadmindedness, and it was largely this that facilitated their conquests. To come to later times, Spain was ruined by fanatical hatred of Jews and Moors; France was disastrously impoverished by the persecution of Huguenots."11

In the 500 years between the supposed event and its first reporter no Christian historian mentions it, though one of them, Eutychius, Archbishop of Alexandria in 933, described the Arab conquest of Alexandria in great detail.

Colin Wilson, a popular science writer and researcher expressed his firm opinion that the demolition of the Alexandrian library was caused by Christian clergy. He writes, "The Library of Alexandria — which contained, among other things, Aristotle's own collection of books — was burned down on the orders of the Archbishop of Alexandria (backed by the Emperor Theodosius). Knowledge was evil; had not Adam been evicted from Paradise for wanting to know?"12

MN Roy penetratingly analysed the issue in a wider perspective. It is worth quoting some part of his views on the subject: "While books written in the 11th and 12th century indignantly details the shocking tale of the burning of the library of Alexandria, the historians Eustichius and Elmacin, both Egyptian Christians, who wrote soon after the Saracen conquest of their country, are significantly silent about the savage act. The former, a patriarch of Alexandria, could be hardly suspected of partiality to the enemies of Christianity. An order of Caliph Umar has been usually cited as evidence of the barbarous act ascribed to his general. It would have been much easier not to record that order than to suppress any historical work composed by Christian prelates who had endless possibilities of concealing their composition. A diligent examination of all relevant evidence enabled Gibbon to arrive at the following opinion on the matter: 'The rigid sentence of Omar is repugnant to the sound and orthodox precept of the Mohammedan casuist; they expressly declare that the religious books of the Jews and Christians, which are acquired by the right of war, and that the works of profane scientists, historians or poets, physicians or philosophers, may be lawfully applied to the use of the faithful' (The Decline and Fall of Roman Empire)13 Byzantine barbarism had undone the meritorious work of the Ptolemies. The real destruction of the Alexandrian seat of learning had been the work of St. Cyril who defiled the Goddess of learning in the famous fair of Hyparia. That was already in the beginning of the 5th century."14

It is no mere chance that for most of its 2000 years of history of Christianity not only did not inspire a spirit of learning at an extensive level, but often suppressed it. Churchmen and Crusaders were responsible for the destruction of hundreds of thousands of Greek and Muslim books. For example, in 389 AD, the celebrated library of Serapis at Alexandria was ruined on the order of Archbishop Theophilus. The guiding principle of Pope Gregory was, "Ignorance is the mother of piety." According to this principle, Gregory burned the precious Palestine Library founded by Emperor Augustus, destroyed the greater part of the writings of Livy and forbade the study of the classics. The Crusaders destroyed the splendid library of Tripoli and reduced to ashes many of the glorious centres of Saracenic art and culture. Ferdinand and Isabella put to flames all the Muslim and Jewish works they could find in Spain. Nor is it a coincidence that when science and learning did become widespread in Europe in spite of the Church, it was accompanied by a rejection or reduction of the authority of the Bible, and science became completely secularised.

The story is now generally rejected as a fable and a fabrication. Let me conclude this piece with a remark by Dr. Singhal: "Seldom in history has there been a parallel for transcribing a falsehood with such persistence, conviction, and indignation, in spite of contrary evidence."15

References:

(1) C. Joseph Barnabas, "Religious Freedom and Human Rights," in C. J. Nirmal (ed), Human Rights in India, Oxford University Press: N Delhi, 2000, P.144.

(2) B. N. Jog, Threat of Islam: Indian Dimension, Unnati Prakashan: Mumbai: 400081, 1994, P. 428.

(3) Ency. Britannica, Vol. 1, 1984, P. 227.

(4) Ency. Britannica, Ibid, P.479.

(5) Philip K. Hitti, History of the Arabs, Macmillan: London, 1970, P.166.

(6) Bernard Lewis, The Arabs in History, Goodword Books: N. Delhi, (1950), 2001, P. 54.

(7) Bernard Lewis, New York Review of Books, 2 September 1990.

(8) John M. Robertson, A Short History of Free Thought, Watts & Co: London, 1914, P. 253. (9) D. P. Singhal, India and World Vol I. Civilization, Rupa and Co: London, 1993, P. 136. (10) D. P. Singhal, Ibid, P. 136.

(11)Bertrand Russell, Human Society in Ethics and Politics, Routledge: London, (1954), 1992, P. 218.

(12) Colin Wilson, The Occult, Panther: London, 1984, P. 278.

(13) M. N. Roy, Ibid, P. 64.

(14) M. N. Roy, Ibid, P.65.

(15) D. P. Singhal, Ibid, P.136.


Friday, April 20, 2007

Learning Institutions in Islam

Learning institutions in Muslims lands took a variety of shapes and sizes and ranged from Madrasas, khans, Mosques, and academies of diverse sorts. These institutions, as Scott notes [1],

‘Composed voluminous treatises on surgery and medicine. They bestowed upon the stars the Arabic names which still cover the map of the heavens. Above the lofty station of the muezzin, as he called the devout to prayer, were projected against the sky the implements of science to whose uses religion did not refuse the shelter of her temples,—the gnomon, the astrolabe, the pendulum clock, and the armillary sphere.'[2]

It is already known that institutions such as al-Qayrawan, al-Qarawiyyin and al-Azhar, above all, were amongst the first universities throughout history. Another great body of institutions initiated by the Muslims were the Madrasas, or colleges [3], of which Ibn Jubayr (d. 614H/1217CE) counted thirty on his visit to Baghdad. Before we take a close look at a Madrasa by the name of al-Mustansiriyah [4], we will first receive a background of how learning institutions thrived in Muslim lands.

Background

Following the establishment of Seljuk rule, Muslim lands experienced a considerable rise in the number of scholarly institutions, which were largely sponsored by the powerful and wealthy elite. Hence, in Iraq it was the Vizier Nizam al-Mulk (d. 485H/1092CE) that both founded and took responsibility for the spread of Madrasas within his jurisdiction. Originally from Tus, he is the compatriot and friend of al-Ghazali, who himself taught at the great Madrasa, al-Nizamiyya of Baghdad. Al-Mulk founded the Madrasa system towards 459H/1066CE within Baghdad, and was then responsible for the spread of such institutions to the more Eastern parts of the Muslim World. According to Abu Shamah, ‘the schools founded by Nizam al-Mulk are very famous all over the world. No single village lacks one of these schools.' [5] The state exercised some supervision over teaching, such as that at the Nizamiyya, in which the permission of the Caliph [6] had to be obtained before a teaching post was occupied.

Following Nizam al-Mulk, it became a practice, or rather a competition between rulers, to build more Madrasas. Nur ad-Din, who ascended to the throne in 541H/1148CE, founded many such institutions in Damascus and the other large cities of his kingdom. In Egypt, it was Salah ad-Din who founded five colleges in Cairo, followed by over twenty six other such Madrasas that were established by both his followers and later Mamluk sultans [7]. Individuals, too, did the same. A Madrasa for women was established in Cairo in 634H/1237CE by the daughter of the Mamluk Sultan Tahir, while Khatun, the daughter of Malik Ashraf constructed a women's Madrasa in Damascus, yet another such Madrasa was founded by Zamurrad, wife of Nasir ad-Din of Aleppo [8]. The spread of the Madrasa was so rapid that at some point in the medieval times, according to Tawtah [9], there were 73 colleges in Damascus, 41 in Jerusalem, 40 in Baghdad, 14 in Aleppo, 13 in Tripoli, 9 in al-Mawsil and 74 in Cairo, in addition to numerous institutions in other cities. A later author, writing around 1,500, counted about 150 Madrasas in Damascus alone [10]. At some point, the whole of the Muslim land with the exception of Spain and Sicily was just a wide, dense network of colleges, of varying sizes, providing education to tens of thousands, maybe hundreds of thousands of pupils, at a time, when education in Europe was just the privilege of a minority of clergy or the top elite, most certainly not exceeding the few hundreds.

Jerusalem had a great number of famed institutions, described in great detail by the late medieval scholar, Qadi Mudjir ad-Din (d. 918H/1521CE) [11]. Inside al-Aqsa Mosque, just near the women's area is the Madrasa Farisiya founded by Emir Faris ad-Din al-Baky. There were also the Madrasas Nahriya and Nasiriya. The latter was named after the Jerusalem scholar, Sheikh Nasr, before it became known as the Ghazaliya, after the famed scholar al-Ghazali, as it was a place both of his residence and employment. Outside of al-Aqsa Mosque were the Qataniya, the Fakriya, al-Baladiya and the Tankeziya. The latter, says Ibn Mudjir, is an immense Madrasa, situated on the Khatt road (it is also worth noting that the founder of this Madrasa Emir Tankiz Nasri, vice ruler of Syria, was also responsible for building the aqueduct for the water supply of Jerusalem). A number of the Madrasas within and around al-Aqsa Mosque were built by Turkish women. For example, the Madrasa Othmania was constituted in waqf by a woman belonging to one of the greatest families of the country, Isfahan Shah Khatun in the year 920H/1523CE. Earlier, in 751H/1354CE, the Khatuniya Madrasa was constituted in waqf by Oghl Khatun, daughter of Shams ad-Din Mohammed ibn Sayf ad-Din of Baghdad. This Madrasa itself was financed by the local businesses [12].

Shalaby offers an excellent description of one such illustrious Madrasa: al-Nuriyyah al-Kubra in Damascus [13] founded by Nur ad-Din, which was described by Ibn Jubair as one of the best colleges in the world [14]. Here follows the summary of Shalaby's description:

‘the school is situated in Khatt al-Khawwasin which is now called `al-Khayyarin', about half a mile south west of the Umayyad Mosque. The school has a `monumental' entrance: an arch with an outer door, and a broad passage leading to the court with a second door halfway along. The lintel of the outer door is adorned with the endowment tablet. The school had its Iwan, which then, was the most important place in the Muslim school. It is the equivalent of the modern lecture room, and there where the halaqat were held. Not far from the Iwan was the Mosque, which took the significant place in a medieval school. The Mosque was also open to other worshippers, and it was thus normal that it was remote from the Iwan. The school also included eight lodges for the students, and the caretaker's lodgings, the latrines, and also a kitchen and dining hall, the food store, and the general store for the building. This Madrasa, in most parts, still stands up to now.'[15]

Al-Mustansiriyah

image alt text
Figure 2. A Qur'an manuscript written in Kufe script and early sample of a paper. Picture copy right from: 1001 Inventions: Discover the Muslim Heritage in Our World. Chief Ed. by. Salim T S Al-Hassani, Manchester: FSTC, 2006.

Madrasas varied in size and layout, some were small with one or two classrooms, whilst others were much larger, and with huge libraries, and facilities and large lecture halls. As far as al-Mustansiriyah is concerned, according to Dodge, it was the college which, at the time, ‘most closely resembled a university.' Two good descriptions, taken from original sources: Yaqut [16] and Naji [17], by Dodge [18] and Nakosteen [19] which are presented together below:

‘The Mustansiriyah was founded in 631 H/1234 A.D by Caliph al-Mustansir. He was the penultimate Abbasid Caliph, the father of al-Mustassim, who was later to be put to death by Hulagu. It was located immediately south of the Gharabah gate, on the shore of the Tigris. It was built as a large two storied structure. In its outward appearance, and its internal sumptuousness and wealth, the Mustansiriyah surpassed all that was previously seen in Islam. It was oblong in shape with a great open court in the centre. Around the courtyard there were rooms for teachers and students, opening out to arched cloisters. Nearby, the Great Mosque of the Palace (Jami al-Kasr) was also restored by Mustansir, who also restored the four platforms (Dikkah) on the Western side of the pulpit. There, the students sat and held their disputations after the Friday public prayers. The remains of this Mosque still exist to the present.

‘At the Mustansiriyah, professors received monthly salaries, and the three hundred students received each one gold dinar a month. The college had large lecture halls, where students were taught by a head professor and his assistants. There were also small classes, tutorial like, of a teacher for ten students. Students learnt subjects that included the traditional linguistic, legal and religious subjects, but also arithmetic, land surveying, history, poetry, hygiene, the care of animals and plants and other phases of natural history. There was also a course in medicine with a physician in charge.

‘The Mustansiriyah included major facilities. It had a very large library, manned by a librarian with an assistant and attendants. According to Ibn al-Furat, the library (Dar al-Kutub) had rare books dealing with various sciences, and made available easily to students, either for consultation, or copying. Pens and paper were supplied, and so were lamps and due provision of oil. The students also received medical care and financial aid, in addition to free tuition. Daily rations of bread and meat were also provided to all inmates by a large kitchen. Somewhere in the building, were store rooms and bathing facilities (hamam). Also attached to the college was a hospital with a dispensary and rooms for teaching medicine. One of the rarities of the Mustansiriyah was its famous clock, set in a design of the heavens, with twelve doors, each opening to announce the hour.

image alt text
Figure 3. A sulus, nesih and rik'a calligraphy by Halim Ă–zyazici (1898-1964). Muhittin Serin's Hat Sanati ve Meshur Hattatlar (Calligraphy and Eminent Calligraphers), Istanbul 2004.

‘The Caliph al-Mustansir himself took great interest and passion in the work of `his' institution, that he inspected it nearly every day. He also had a belvedere (Manzarah) overlooking the college, with a window opening upon one of the college halls, from where he watched the building, and heard the lectures of the professors and the disputations of the students. Just a century after its foundation, Ibn Battuta, who visited Baghdad in AH 727 (1327), speaks of the magnificence of the place, which by miracle, escaped the Mongol sacking of Baghdad (in 1258). He states that lectures were still provided. Twelve years after him, the geographer Hamd Allah also refers to the Mustansiriyah as the most beautiful building in Baghdad.

‘The Mustansiriyah appears to have stood intact for many centuries, but surely not by the mid-18th. Then, when Niebuhr visited Baghdad in 1750, he found that the ancient kitchen of the college was being used as a weighing house. Today, only ruins of it remain.'

‘The age of Arabian learning,' Gibbon observes, ‘continued about five hundred years, till the great eruption of the Moguls, and was coeval with the darkest and most slothful period of European annals; but since the sun of science has arisen in the West, it should seem that the Oriental studies have languished and declined.' [20]

Conclusion

Given Islam's love for knowledge and its elevation of scholars and writers to exalted positions, the evolution of a publishing industry was a foregone conclusion at the advent of Islam [21]. Within one hundred years after the advent of Islam, a sophisticated and highly integrated book industry was flourishing in the Muslim world. Techniques were evolved for each stage of book production: composition, copying, illustrating, binding, publishing, storing and selling. Reading books, as well as hearing them being dictated, became one of the major occupations and pastimes. In certain major cities, such as Baghdad and Damascus, almost half the population was involved in some aspect of book production and publication. However, book production was both an industry and an institution, an institution with its own customs and practices, its own checks against fraud and misrepresentation and, above all, an institution that ensured that learning and books were not the prerogative of a select few but were available to all those who had the desire. It also ensured that the scholars and authors themselves also benefited, both economically and in terms of recognition from their work [22].

REFERENCES

[1] S. P. Scott: History of the Moorish Empire in Europe; Philadelphia and London: J. B. Lippincott Company, 1904, vol 3; p. 468.

[2] Ibid, p. 468.

[3] For a summary on the role and impact of the Madrasa: -George Makdisi: The Rise of Humanism in Classical Islam and the Christian West; Edinburgh University Press, 1990. -B. Dodge: Muslim Education in the Medieval Times; the Middle East Institute; Washington D.C; 1962.

[4] Ibn Jubayr in J. Pedersen, The Arabic Book, translated by G. French, Princeton-New Jersey: Princeton University Press, 1984, p. 128.

[5] Quoted in A. Shalaby. History of Muslim education, Beirut: Dar Al Kashaf, 1954, p. 58.

[6] A. S. Tritton: Muslim Education in the Middle Ages. London: Luzac and Co. Ltd., 1957, p. 91.

[7] Bayard Dodge: Muslim Education in Medieval times; op cit; p. 22.

[8] S. M Hossain: A Plea for a Modern Islamic university; op cit; p. 100.

[9] Bayard Dodge, Muslim Education in Medieval Times; Washington D.C.: The Middle East Institute, 1962, p. 23.

[10] J. Pedersen: The Arabic Book, p. 128.

[11] Mudjir Eddin: Al-Euns al-jalil bi Tarikh el-Qods wa'l Khalil, translated into French as Histoire de Jerusalem et Hebron, by H. Sauvaire; Paris; Ernest Leroux; 1875; and 1926; pp. 140 fwd.

[12] Mudjir Eddin: Al-Euns (Histoire de Jerusalem); P. 145.

[13] A. Shalaby: History, op cit, pp. 65-67.

[14] Ibn Jubayr: Al-Rihla, The Travels of Ibn Jubayr, Tr. R.J.C. Broadhurst, Jonathan Cape, 1952 , p. 284).

[15] A. Shalaby: History, op cit, pp 65-7.

[16] Yaqut: Irshad al-Arib ila Ma'arifat al-Adib, or Muja'am al-Udaba (Dictionary of learned men,), edt. D.S. Margoliouth (Luzac, 1907 ff), Vol.V, p. 231. Vol VI. p. 343.

[17] Ma'ruf, Naji, al-Madrassah al-Mustansiryah, Nadi al-Muthanna, Baghdad, 1935.

[18] B. Dodge: Muslim education, op cit, pp 23-4.

[19] M. Nakosteen: History of Islamic Origins of Western Education: 800-1350. Boulder-Colorado: University of Colorado Press, 1964, pp. 50-1.

[20] E. Gibbon: The Decline and Fall of the Roman Empire. J. M. Dent, 1962, vol 6; 1925 ed; pp. 28.

[21] Z. Sardar and M.W. Davies: Distorted Imagination; op cit; p. 97.

[22] Ibid.

Women and learning in Islam


Quoted from S.P. Scott in the History of the Moorish Empire in Europe; 3 vols; J.B. Lippincott Company, 1904.p.447-48;

…the eminent rank attained by many women in the literary profession. The female relatives of the khalifs and courtiers vied with each other in the patronage and cultivation of letters. Ayesha, the daughter of Prince Ahmed, excelled in rhyme and oratory; her speeches aroused the tumultuous enthusiasm of the grave philosophers of Cordoba, her library was one of the finest and most complete in the kingdom.

Valada, a princess of the Almohads, whose personal charms were not inferior to her talents, was renowned for her knowledge of poetry and rhetoric; her conversation was remarkable for its depth and brilliancy; and, in the academic contests of the capital which attracted the learned and the eloquent from every quarter of the Peninsula, she never failed, whether in prose or in poetical composition, to distance all competitors.

Algasania and Safia, both of Seville, were also distinguished for poetical and oratorical genius; the latter was unsurpassed for the beauty and perfection of her calligraphy; the splendid illuminations of her manuscripts were the despair of most accomplished artists of the age. The literary attainments of Miriam, the gifted daughter of Al-Faisuli, were famous throughout the Peninsula, the caustic wit and satire of her epigrams were said to have been unrivalled.

Umm-al-Saad was famous for her familiarity with Muslim tradition. Labana of Cordoba was thoroughly versed in the exact sciences; her talents were equal to the solution of the most complex geometrical and algebraic problems, and her vast acquaintance with general literature obtained her the important employment of private secretary to the Khalif al-Hakem II.

Sunday, June 04, 2006

Muslim Contribution to Chemistry

Before addressing the subject of Muslim chemistry, however, one crucial matter needs to be raised. It concerns the use of the word Alchemy instead of chemistry. This is another instance of historical corruption fooling so many who have no perception of the depths some scholarship can descend to in order to convey distorted images of aspects of history, such as that of Islamic science. Alchemy, indeed, is a corrupt translation of the Arabic word Chemia (chemistry,) preceded by the article Al (which means: the), and which the Arabs always use (like the French and others for that matter) in front of their subject such as Al-Tib (medicine) al-Riyadiyat (mathematics) etc... If this was applied to other subjects, it would become al-medicine; al-mathematics, al-geography and so on... Only Baron Carra de Vaux had had the presence of mind to pointing to this, however briefly.(endnote 1) Somehow al-Chemy should be translated literally The Chemistry and not Alchemy in English; and La Chimie and not l'alchimie in French. The fact that only Westerners translated or dealt with the subject, followed by rather very respectful or shy Muslim scholars means that this corrupt word of al-chemy has remained, and has become the norm.

The reason why alchemy is used instead of chemistry might have another motive behind it. Chemistry means a modern science; alchemy means the amateur, the occult, the second or third rate. Alchemy belongs to the Muslims; chemistry, of course, does not; instead is the realm of the good. This notion conveyed by some Western scholars, that alchemy ended with the Muslims and chemistry began with the Westerners has no historical ground. The reason is simple: all sciences began in some part of the world, most likely China or the Ancient Middle East, or India, at level: 1, the most basic, and then graduated to levels 2, 3, 4, and higher, through the centuries, until they reached us at the level they are, and will evolve in different places in the future. This is the story of every science, and of every sign of our modern world. Thus, it was not that we had alchemy at one point, and then, with the Europeans it became chemistry. This is a crass notion like much else coming from scholars holding such a view. Chemistry began under one form, associated with occult and similar practices, and then evolved, gradually becoming more refined through the centuries until it took our modern forms and rules. Many elements concourse to support this point. Here they follow.

Muslims Revolutionised Chemistry

First and foremost many of the products or discoveries made by the Muslims have become part of our modern chemical world; in fact were revolutions in the advance of the science. Mathe summarises the legacy of Muslim chemists,(endnote 2) which include the discovery of alcohol, nitric and sulphuric acids, silver nitrate and potassium, the determination of the weight of many bodies, the mastery of techniques of sublimation, crystallization and distillation. Muslim chemistry also took many industrial uses including: tinctures and their applications in tanning and textiles; distillation of plants, of flowers, the making of perfumes and therapeutic pharmacy. More specifically, some such advances that have revolutionised our world are expertly raised by Multhauf.(endnote 3) Thus in the De aluminibus,(endnote 4) composed in Muslim Spain, (whose author Multhauf does not recognise) but could be Al-Majriti, are described experiments to obtain the chloride of mercury, corrosive sublimate (Hg Cl2), process and outcome which mark the beginning of synthetic chemistry. Multhauf notes indeed that the chloride of mercury obtained did not just become part of the chemist's repertoire but also inspired the discovery of other synthetic substances. Corrosive sublimate is capable of chlorinating other materials, and this, Multhauf, again, notes, marks the beginning of mineral acids.(endnote 5) In the field of industrial chemistry and heavy chemicals, Multhauf notes again that one of the greatest advances of the medieval times was the manufacture of alum from `aluminous' rocks, through artificial weathering of alunite, which he describes. And in the same context the Muslims managed to perform the crystallisation of `ammonia alum' (ammonium aluminium sulphate).(endnote 6) Multhauf, however, falls in the same trap as many of his colleagues, asserting in his conclusion(endnote 7) that it was European Renaissance which gave chemistry a secure and significant place in science, and that with the Muslims all that was, was `alchemy;' and Multhauf states this in full contradiction of what he had just described, and so expertly, and he had himself classified under modern chemistry.

Fair Historians of Chemistry

A scholar who from the initial point gave Islamic chemistry its due, and hardly failed to call it so, was Holmyard.(endnote 8) Holmyard, indeed, has the right qualifications to discuss Islamic che mistry, and more than any other scholar, with the exception of Ruska, and also Levey. Holmyard is indeed both a chemist with great reknown, and also an Arabist in training, rightly qualified to look at the science from the expert angles, unlike others, who are either Arabists and so understand little in chemistry, or are experts in chemistry and understand nothing in Arabic. Holmyard notes that the rise and progress of Islamic chemistry is given very little space, and whatever information exists is erroneous and misleading, a fact due partly to Kopp's unfavourable opinion of Islamic chemistry, and the hasty conclusions drawn by Berthelot from his superficial studies of Islamic material.(endnote 9) And neither Kopp, nor Berthelot were Arabists, which, as Holmyard notes, makes their conclusions on Muslim chemistry unable to stand the test of criticism as more information is available.(endnote 10) Of course, today's scholars can always ignore evidence that has come out since Kopp and Berthelot, and still stick with their misinformation, errors, or distorted statements, and blame such on either one of them. This tactic is in fact very common amongst scholars writing in any field of history, who shape and reshape events at will and have all the necessary sources and references to justify their writing. Some `scholars' even go as far as blaming the material in the library of their university, stating in their preface or conclusion that any shortcoming in their work was the result of their access to such limited material.

To return to Holmyard, in his Makers of Chemistry, tracing the evolution of the science from the very early times until our century, and even if not having at his disposal the vast amount of information many of today's scholars have, he produced an excellent and encompassing, thorough work. It includes none of the usual gaps of centuries one finds with other historians; nor does it include the discrepancies caused by 'sudden', 'enlightened' `miraculous' breakthroughs out of nothing.

Transmission of Chemistry to Europe

Of course Muslim chemistry, like other sciences was heavily translated into Latin, and also into local languages, which explains its spread to Europe (more on this in the chapter on the transfer of Muslim science to Europe). Many of the manuscripts translated have anonymous authors. Of the known ones, Robert of Chester, a twelfth century scholar, translated Liber de compositione alchemise. At about the same time, Hugh of Santalla made the earliest Latin translation of lawh azzabarjad (the Emerald table). Alfred of Sareshel translated the part of Ibn Sinna's Kitab al-Shiffa (the Book of Healing) that deals with chemistry. It is, however, as per usual, the Italian, Gerard of Cremona, who made the more valuable translations of Al-Razi's study and classification of salts and alums (sulphates) and the related operations the De aluminibus et salibus, whose Arabic original is preserved.(endnote 35) The many versions of this work had a decisive influence on subsequent operations in the West, more generally on mineralogy;(endnote 36) as did others in the formation of the foundations of such science. In fairly recent times, Holmyard, Kraus, and above all Ruska, have devoted considerable focus to Muslim chemistry, much of which, unfortunately, is not accessible to non German speakers,(endnote 37) who thus will be deprived from forming a truest picture of Islamic chemistry.

Conclusion

After such an expose, however brief, should we still consider Muslim chemistry as an occult practice called alchemia? Are not many aspects of such science exactly what we have in our modern chemistry? And if this is not enough, here is what Muslims thought of the occult alchemia. Both Ibn Sina and Ibn Khaldoun attacked the experimentalists who sought to turn ordinary metals into precious ones, gold in particular. Ibn Sina, for instance, in The Book of Minerals, denounces the artisans who dye metals in order to give them the outside resemblance of silver and gold. He asserts that fabrication of silver and gold from other metals is `practically impossible and unsustainable from a scientific and philosophical point of view.'(endnote 38) Ibn Khaldoun, for his part,(endnote 39) denounces the frauds who apply on top of silver jewelry a thin layer of gold, and make other manipulations of metals. To Ibn Khaldoun, the Divine wisdom wanted gold and silver to be rare metals to guarantee profits and wealth. Their disproportionate growth would make transactions useless and would `run contrary to such wisdom.'(endnote 40)

It is, thus, time to give Muslim chemistry its due place in history. For that to happen, the concentrated effort of Arabic speaking, able scholars, with some honesty, ought to get on with the task of writing truest accounts of Islamic chemistry in history, do for this science what Rashed, Djebbar and Yuskevitch did for Islamic mathematics, or what al-Hasan and Hill did for Islamic engineering, and what King, Saliba, Kennedy and Samso seek to do for Islamic astronomy, bringing Islamic chemistry out of the slumber others have dug in for it.

by: FSTC Limited, Mon 24 December, 2001


The Islamic Origins of Modern Science

Fourteen centuries ago, God sent down the Qur'an as a guide to all humanity.

At the time the Arab society was in a state of complete degeneration, chaos and ignorance. They were a barbarous people who worshipped idols of their own making, believed warfare and bloodshed to be virtuous and were even capable of killing their own children. They had little interest in intellectual matters, let alone a scientific outlook to the natural world.

However, through Islam they learned humanity and civilization. Not only the Arabs but all the communities which accepted Islam escaped the darkness of the age of ignorance and were illuminated by the divine wisdom of the Qur'an. Amongst the faculties the Qur'an brought to humanity was scientific thinking.

The Scientific Paradigm Given in the Qur'an

The genesis of scientific thought is the sense of curiosity. Because people wonder how the universe and nature work, they investigate and become interested in science. But most people lack this curiosity. For them, the important things are not the secrets of the universe and nature but their own small worldly profits and pleasures. In communities where people who think in this way are in charge, science does not develop. Idleness and ignorance rule.

The Arab community before the Qur'an was of this type. But the verses of the Qur'an called upon them to think, to investigate and to use their minds, perhaps for the first time in their lives.

In one of the first revealed verses of the Qur'an, God drew the attention of the Arabs to the camel, a part of their everyday lives:

Have they not looked at the camel-how it was created?
And at the sky-how it was raised up?
And at the mountains-how they were embedded?
And at the earth-how it is spread out?
So remind them! You are only a reminder. (Qur'an, 88: 17-21)

In many other verses of the Qur'an, people are instructed to examine nature and learn from it because people can know God only by examining His creations. Because of this, in one verse of the Qur'an Muslims are defined as people who think about the creation of the heavens and the earth:

Those who remember God, standing, sitting and lying on
their sides, and reflect on the creation of the heavens and the earth (saying):
"Our Lord, You have not created this for nothing. Glory be to You! So safeguard us from the punishment of the Fire." (Qur'an, 3: 191)

As a result of this, for a Muslim, taking an interest in science is a very important form of worship. In many verses of the Qur'an, God instructs Muslims to investigate the heavens, the earth, living things or their own existence and think about them. When we look at the verses, we find indications of all the main branches of science in the Qur'an.

For example, in the Qur'an, God encourages the science of astronomy:

He who created the seven heavens in layers. You will not find any flaw in the creation of the All-Merciful. Look again-do you see any gaps? (Qur'an, 67: 3)

In another verse of the Qur'an, God encourages the investigation of astronomy and the composition of the earth that is the science of geology:

Do they not look at the sky above them? How We have made it and adorned it, and there are no flaws in it? And the earth-We have spread it out, and set thereon mountains standing firm, and produced therein every kind of beautiful growth (in pairs)-To be observed and commemorated by every devotee turning (to God). (Qur'an, 50: 6-8)

In the Qur'an, God also encourages the study of botany:

It is He Who sends down water from the sky from which We bring forth growth of every kind, and from that We bring forth the green shoots and from them We bring forth close-packed seeds, and from the spathes of the date palm date clusters hanging down, and gardens of grapes and olives and pomegranates, both similar and dissimilar. Look at their fruits as they bear fruit and ripen. There are Signs in that for people who believe. (Qur'an, 6:99)

In another verse of the Qur'an, God draws attention to zoology:

You have a lesson in livestock... (Qur'an, 16:66)

Here is a Qur'anic verse about the sciences of archaeology and anthropology:

Have they not traveled in the earth and seen the final
fate of those before them? (Qur'an, 30: 9)

In another verse of the Qur'an, God draws attention to the proof of God in a person's own body and spirit:

There are certainly Signs in the earth for people with certainty; and in yourselves as well. Do you not then see? (Qur'an, 51: 20-21)

As we can see, God recommends all the sciences to Muslims in the Qur'an. Because of this the growth of Islam in history meant at the same time the growth of scientific knowledge.

The Scientific Renaissance of the Middle East


Muslim scholars in Baghdad, the world's
scientific capital of the time.

As we have mentioned, when the Prophet Mohammed (pbh) began to preach Islam, the Arabs were a community of ignorant, superstitious tribes. However, thanks to the light of the Qur'an they were rescued from superstition and began to follow the path of reason. As a result of this, one of the most astonishing developments in world history took place and in a few decades Islam, which emerged from the small town of Medina, spread from Africa to Central Asia. The Arabs, who previously could not even rule a single city in harmony, came to be rulers of a world empire.

One of the most important facets of this empire was that it provided the stage for a scientific development previously unmatched in history. At a time when Europe was living through the Dark Ages, the Islamic world created the greatest legacy of scientific knowledge seen in history to that date. The sciences of medicine, geometry, algebra, astronomy and even sociology were developed systematically for the first time.

Great centers of religious learning were also centers of knowledge and scientific development. Such formal centers began during the Abbasid period (750-1258 A.D.) when thousands of mosque schools were established. In the tenth century Baghdad had some 300 schools. Alexandria in the fourteenth century had 12,000 students. It was in the tenth century that the formal concept of the Madrassah (school) was developed in Baghdad. The Madrassah had a curriculum and full-time and part-time teachers, many of whom were women. Rich and poor alike received free education. From there Maktabat (libraries) were developed and foreign books acquired. The two most famous are Bait al-Hikmah in Baghdad (ca. 820) and Dar al-Ilm in Cairo (ca. 998). Universities such as Al-Azhar (969 A.D.) were also established long before those in Europe. The Islamic world created the first universities - and even hospitals - in the world.


Islamic scientific manuscripts of the Medieval Age.
Meticulous studies on human anatomy and zoology.

This fact may be very surprising to modern Westerners, who generally have a different kind of picture about Islam in their minds. But this picture emerges from ignorance about the origins and history of the Islamic civilization. Those who get rid of this ignorance - and several prejudices - acknowledge the true nature of Islam. One example of these is a recent documentary film by PBS, titled Islam: The Empire of Faith, in which the commentator rightly states that:

In the unfolding of history, Islamic civilization has been one of humanity's grandest achievements... For the West, much of the history of Islam has been obscured behind a veil of fear and misunderstanding. Yet Islam's hidden history in deeply and surprisingly interwoven with Western civilization... It was they (Muslim scholars) who sewed the seeds of the Renaissance, 600 years before the birth of Leonardo da Vinci. From the way we heal the sick to the numerals we use for counting, cultures across the globe have been shaped by the Islamic civilization. 1

In an article published in Salon.com, a prominent voice of the liberal American media, author George Rafael writes in an article titled "A Is For Arabs" that;

From algebra and coffee to guitars, optics and universities... the West owes to the People of the Crescent Moon... A millennium ago, while the West was shrouded in darkness, Islam enjoyed a golden age. Lighting in the streets of Cordoba when London was a barbarous pit; religious tolerance in Toledo while pogroms raged from York to Vienna. As custodians of our classical legacy, Arabs were midwives to our Renaissance. Their influence, however alien it might seem, has always been with us, whether it's a cup of steaming hot Joe or the algorithms in computer programs. 2

The Open-Mindedness of Islam

What allowed Muslims to create such an advanced scientific culture was derived from the faculties of the Islamic understanding. One of them was, as we have noted, the motive to learn about the universe and nature according to the Qur'anic principles. Another one was open-mindedness. Both the Qur'anic wisdom and the Prophetic teaching gave Muslims a global outlook to the world, trespassing all cultural barriers. In the Qur'an, God states:

Mankind! We created you from a male and female, and made you into peoples and tribes so that you might come to know each other..." (Qur'an, 49:13)

This verse clearly encourages cultural relationships between different nations and communities. In another verse of the Qur'an is it stated that "Both East and West belong to Allah" (2:115), thus Muslims should see the world in a universalist and cosmopolitan vision.

The hadiths, or sayings, of the Prophet also encourage this vision. In a popular hadith, the Prophet tells Muslims that "wisdom is the lost property of the Muslims; he takes it from wherever he finds". This means that Muslims should be very pragmatic and broadminded in adapting and using the cultural and scientific achievements of non-Muslims; those non-Muslims are also creatures and servants of God, even they might not recognize so. The "People of The Book",
i.e. Christians and Jews, are even much more compatible, since they believe in God and stick to moral code He revealed to man.

In the rise of Islamic science, the role of this open-mindedness is very clear to see. John Esposito of the Georgetown University, one of the most prominent Western experts on Islam, makes the following comment:

The genesis of Islamic civilization was indeed a collaborative effort, incorporating the learning and wisdom of many cultures and languages. As in government administration, Christians and Jews, who had been the intellectual and bureaucratic backbone of the Persian and Byzantine empires, participated in the process as well as Muslims. This "ecumenical" effort was evident at the Caliph al-Mamun's (reigned 813-33) House of Wisdom and at the translation center headed by the renowned scholar Hunayn ibn Isaq, a Nestorian Christian. This period of translation and assimilation was followed by one of Muslim intellectual and artistic creativity. Muslims ceased to be disciples and became masters, in process producing Islamic civilization, dominated by the Arabic language and Islam's view of life... Major contributions were made in many fields: literature and philosophy, algebra and geometry, science and medicine, art and architecture... Great urban cultural centers in Cordoba, Baghdad, Cairo, Nishapur, and Palermo emerged and eclipsed Christian Europe, mired in Dark Ages. 3

According to one of the great Muslim scholars of our time, Seyyed Hossein Nasr, Islamic science was "the first science of a truly international nature in human history". 4

Yet Muslims did not only incorporate other cultures, but developed their own. Some commentators neglect this and try to link the Islamic scientific development solely to the influence of the Ancient Greece or Far East. But the real source of Islamic science was the experimentation and observations of Muslim scientists. In his book The Middle East, Professor Bernard Lewis, an undoubted expert in Middle Eastern history, explains it as follows:

The achievement of medieval Islamic science is not limited to the preservation of Greek learning, nor to the incorporation in the corpus of elements from the more ancient and more distant East. This heritage which medieval Islamic scientists handed on to the modern world was immensely enriched by their own efforts and contributions. Greek science, on the whole rather tended to be theoretical. Medieval Middle Eastern science was much more practical, and in such fields as medicine, chemistry, astronomy and agronomy, the classical heritage was clarified and supplemented by the experiments and observations of the medieval Middle East. 5

As noted by Westerners, this advanced scientific culture of the Islamic world paved the way for the Western Renaissance. Muslim scientists acted in the knowledge that their investigation of God's creation was a path through which they could get to know Him. Esposito stresses that "Muslim scientists, who were often philosophers of mystics as well, viewed physical universe from within their Islamic worldview and context as a manifestation of the presence of God, the Creator and the source and unity and harmony in nature." 6 With the transfer of this paradigm and its accumulation of knowledge to the Western world, the advance of the West began.

The Theist Origins of Western Science

Medieval Europe was ruled by the dogmatic regime of the Catholic Church. The Church opposed freedom of thought and pressured scientists. People could be punished by the Inquisition simply for holding different beliefs or ideas. Their books were burned and they themselves were executed. The pressure on research in the Middle Ages is often referred to in history books, but some interpret the situation wrongly and claim that the scientists who clashed with the Church were against religion.

The truth is the exact opposite-the scientists who opposed the bigotry of the church were religious believers. They were not against religion, but against the harsh clericalism of the time.

For example, the famous astronomer Galileo, whom the Church wanted to punish because he stated that the world rotated, said, "I render infinite thanks to God for being so kind as to make me alone the first observer of marvels kept hidden in obscurity for all previous centuries." 7

The other scientists who established modern science were all religious.

Kepler, regarded as the founder of modern astronomy, told those who asked him why he busied himself with science, "I had the intention of becoming a theologian... but now I see how God is, by my endeavors, also glorified in astronomy, for 'heavens declare the glory of God'". 8

As for Newton, one of the greatest scientists in history, he explained the reason underlying his zeal for scientific endeavor by saying:

"...He (God) is eternal and infinite, omnipotent and omniscient; that is, his duration reaches from eternity to eternity; his presence from infinity to infinity; he governs all things, and knows all things that are or can be done. …We know him only by his most wise and excellent contrivances of things... [W]e revere and adore him as his servants…" 9

The great genius Pascal, the father of modern mathematics, said that: "But by faith we know His (God's) existence; in glory we shall know His nature." 10

Many other founders of modern Western science were also strong believers. For example:


  • " Von Helmont, one of the leading figures in modern chemistry and the inventor of the thermometer, declared that science was a part of faith.

  • " George Cuvier, the founder of modern paleontology, regarded fossils as surviving proofs of the Creation and taught that living species had been created by God.

  • " Carl Linnaeus, who first systematized scientific classification, believed in the Creation and stated that the natural order was a significant proof of God's existence.

  • " Gregor Mendel, the founder of genetics, and also a monk, believed in Creation and opposed the evolutionary theories of his time, such as Darwinism and Lamarckism.

  • " Louis Pasteur, the greatest name in the history of microbiology, proved that life could not be created in inert matter and taught that life was a miracle of God.

  • " The famous German physicist Max Planck said that the Creator of the universe was God and stressed that faith was a necessary quality of scientists.

  • " Albert Einstein, regarded as the most important scientist of the twentieth century, believed that science could not be godless and said, "science without religion is lame."

A large number of other scientists who guided modern scientific progress were religious people who believed in God. These scientists served science with the intention of discovering the universe that God had created - a paradigm that was first developed and implemented in the Islamic world and then incorporated into the West. All these theist scientists thought about the creation of the heavens and the earth and investigated in the awareness of God - as God decreed in the Qur'an and the Bible. The birth of science and its development were the result of this awareness.

During the nineteenth century, however, this awareness was replaced by a misconception called materialism.

The Rise and Fall of the Materialist Deviation

The nineteenth century was a period that witnessed the greatest errors in human history. These errors began with the imposition on European thought of materialist philosophy, an ancient Greek teaching.

The greatest error of this period was Darwin's theory of evolution. Before the birth of Darwinism, biology was accepted as a branch of science that provided evidence of the existence of God. In his book Natural Theology, the famous author William Paley maintained that, to the extent that every clock proves the existence of a clockmaker, natural designs prove the existence of God.

However, Darwin rejected this truth in his theory of evolution. By distorting the truth to fit materialist philosophy, he claimed that all living things were the result of blind natural causes. In this way he created an artificial antagonism between religion and science.

In their book The Messianic Legacy, English authors Michael Baigent, Richard Leigh and Henry Lincoln have this to say on the subject:

For Isaac Newton, a century and a half before Darwin, science was not separate from religion but, on the contrary, an aspect of religion, and ultimately subservient to it. …But the science of Darwin's time became precisely that, divorcing itself from the context in which it had previously existed and establishing itself as a rival absolute, an alternative repository of meaning. As a result, religion and science were no longer working in concert, but rather stood opposed to each other, and humanity was increasingly forced to choose between them. 11

Not only biology, but also branches of sciences such as psychology and sociology were twisted according to materialist philosophy. Astronomy was distorted according to the materialist dogmas of ancient pagan Greece; a metaphysical faith in an "eternal cosmos" came to be the norm. The new aim of science was to confirm materialist philosophy. These incorrect ideas have dragged the scientific world into a dead end for the past 150 years. Tens of thousands of scientists from different branches worked in the hope of being able to prove Darwinism or other materialist theories.

But they were disappointed. The scientific evidence showed the exact opposite of the conclusion they wanted to reach. That is, it confirmed the truth of Creation. Today the world of science is astonished by this truth. When nature is examined it emerges that there is a complex plan and design in every detail and this has cut away the foundations of materialist philosophy.

For example, the extraordinary structure of DNA shows scientists that it is not the result of blind chance or natural laws. The DNA in a single human cell contains enough information to fill a whole 900-volume encyclopedia. Gene Myers, a scientist from the Celera Company which administers the Human Genome Project, says this:

What really astounds me is the architecture of life… The system is extremely complex. It's like it was designed… There's a huge intelligence there. 12

This astonishment affects the whole scientific world. Scientists are viewing with surprise the invalidity of the materialist philosophy and Darwinism which they were taught as truth, and some of them are declaring this openly. In his book Darwin's Black Box, biochemist Michael Behe, one of the leading critics of Darwinism, describes the situation of the scientific world as follows:

Over the past four decades modern biochemistry has uncovered the secrets of the cell. The progress has been hard won. It has required tens of thousands of people to dedicate the better parts of their lives to the tedious work of the laboratory…

The result of these cumulative efforts to investigate the cell-to investigate life at the molecular level-is a loud, clear, piercing cry of "design!" The result is so unambiguous and so significant that it must be ranked as one of the greatest achievements in the history of science…

But, no bottles have been uncorked, no hands clapped. Why does the scientific community not greedily embrace its startling discovery? The dilemma is that while one side of the [issue] is labeled intelligent design, the other side must be labeled God. 13

The same situation exists in astronomy. The astronomy of the twentieth century has demolished the materialist theories of the nineteenth. First with the Big Bang theory, it emerged that the universe had a beginning, the moment of Creation. Since then it has been realized that in the universe there is an extraordinarily delicate balance which protects human life - a concept known as the anthropic principle.

For these reasons, in the world of physics and astronomy atheism is in rapid decline. As American physicist Robert Griffiths jokingly remarks: "If we need an atheist for a debate, I go to the philosophy department. The physics department isn't much use." 14

In short, in our day and age materialist philosophy is collapsing. Science is rediscovering certain very important facts rejected by materialist philosophy and in this way a new concept of science is being born. The "Intelligent Design" theory, which has been on a successful rise in the United States during the past 10 years, is a leading part of this new scientific concept. Those who accept this theory stress that Darwinism was the greatest error in the history of science and that there is an intelligent design in nature that gives evidence of Creation.

Conclusion

God created the entire universe, and the whole of creation shows humanity the signs of God. Science is the method of investigating what has been created, so conflict between religion and science - provided that religion is guided only by Divine revelation - is out of the question.

On the contrary, history shows that theism has been the main motive and paradigm for scientific progress. The two greatest scientific achievements in world history - the Islamic scientific endeavor of the Medieval Age and the Christian scientific leap of the modern era - stemmed from faith in God. Moreover, the latter borrowed a great deal of knowledge, method and vision from the former. The wisdom of the Qur'an first enlightened the Islamic world and then shed light even to the non-Muslim Europe. If something went wrong in the Islamic world, this was because Muslims turned away from the sincerity, wisdom and open-mindedness God teaches in the Qur'an.

The materialist paradigm is a deviation from this pattern. It arose in the 19th century, reached its peak in the mid-20th century and is on the brink of collapse today. No matter how arrogant and seemingly self-confident its supporters are, the materialist dogma and its main pillar, Darwinism, will inevitably perish in the upcoming decades.

And science will return to its authentic and true paradigm: A search for the discovery and definition of the great design and harmony in the natural world, the artifact of God.

(1) Jonathan Grupper (series writer), Islam: Empire of Faith, A Documentary by Gardner Films, in association with PBS, 2001
(2) George Rafael "A is for Arabs", www.Salon.com, Jan. 8, 2002; http://www.salon.com/books/feature/2002/01/08/alphabet/
(3) John L. Esposito, Islam: The Straight Path, Oxford Uni. Press, 1991, s.52
(4) Quoted in Weiss and Green, p. 187
(5) Bernard Lewis, The Middle East, 1998, p. 266
(6) John L. Esposito, Islam: The Straight Path, s. 54
(7) Galileo Galilei, quoted in: Mike Wilson, "The Foolishness of the Cross," Focus Magazine)
(8) Johannes Kepler, quoted in: J.H. Tiner, Johannes Kepler-Giant of Faith and Science (Milford, Michigan: Mott Media, 1977), p. 197
(9) Sir Isaac Newton, Mathematical Principles of Natural Philosophy, Translated by Andrew Motte, Revised by Florian Cajore, Great Books of the Western World 34, Robert Maynard Hutchins, Editor in chief, William Benton, Chicago, 1952:273-74
(10) Blaise Pascal, Pensees, No. 233
(11) Michael Baigent, Richard Leigh, Henry Lincoln, The Messianic Legacy, Gorgi Books, London: 1991, p.177-178
(12) San Francisco Chronicle, 19 February, 2001
(13) M J.Behe, Darwin's Black Box, New York: Free Press, 1996, p.231-232
(14) Hugh Ross, The Creator and the Cosmos, p. 123

by: Harun Yahya, Sun 05 January, 2003