Muslim Scholars are often under-credited in the teaching of European scientific progress

Walking through the streets of Baghdad, you hear merchants conversing in multiple languages. Crisp manuscripts arrive from India, Greece, Persia, and all corners of the known world. You enter the House of Wisdom and are astonished. Linguists are translating texts from Sanskrit. Astronomers gaze towards the night sky. Chemists conduct experiments at an unparalleled rate. Even Ptolemy's long-accepted theories are being questioned and corrected.

We commonly label the period between the fall of the Roman Empire and the Renaissance as the "Dark Ages." Yet the boundaries of these so-called Dark Ages were largely limited to Europe and did not apply to the rest of the world.

While Europe experienced periods of intellectual stagnation, political fragmentation, and recurring plagues during the Middle Ages, on the other side of the world a sophisticated cultural and academic movement was flourishing. It produced some of the greatest minds in

history—individuals who would reshape the understanding of optics, engineering, astronomy, mathematics, medicine, and the sciences as a whole.

This was a Golden Age.

A Muslim Golden Age.

At its height, the Muslim world stretched from India in the east to Spain in the west,

encompassing a vast network of cultures, languages, and centres of learning. Across different periods, it was governed by dynasties such as the Rashidun, Umayyad, Abbasid, Fatimid, and the Umayyads of Al-Andalus.

So why are international students rarely taught this in Years 8 and 9? Why is this period so often reduced to the label of the "Dark Ages"? Why, when students learn algebra, biology, and optics, are the contributions of Muslim scholars frequently overlooked?

The answer is that Muslim scholars are often under-credited in the teaching of scientific

progress.

These scholars played a central role in preserving, advancing, and generating scientific

knowledge that later influenced Europe. Yet despite this influence, many school curricula

present Muslim scholarship as separate from European scientific development. This

under-crediting is usually the result of curriculum framing and simplification rather than

deliberate exclusion.

Before continuing, it is important to define a few key terms. When I refer to Muslim scholars, I mean scientists, physicians, mathematicians, philosophers, and engineers working in

Muslim-majority societies between roughly the 8th and 14th centuries. By scientific progress, I refer to developments that later shaped modern science, particularly during the Renaissance and early modern period. And by under-credited, I do not mean entirely ignored, but often presented as marginal rather than foundational.

Take biology as an example. Many students are introduced to the fascinating world of systemic circulation and learn about William Harvey's contributions to our understanding of the heart. Yet six centuries before Harvey, Ibn Sina—known in Europe as Avicenna—had already described the function of the aortic valve in his monumental work, The Canon of Medicine.

During this same period, a major translation movement emerged. Ancient manuscripts written in Greek, Sanskrit, and Syriac were translated into Arabic, particularly at institutions such as the House of Wisdom (Bayt al-Hikmah) in Baghdad. This allowed scholars not only to access earlier knowledge, but also to critique, refine, and expand upon it through observation and experimentation.

Many of these works were later translated into Latin in centres such as Toledo and Sicily

between the 10th and 13th centuries, making their way into Europe.

One of the most notable figures was Al-Khwarizmi, often referred to as the father of algebra. He established systematic methods for solving linear and quadratic equations and played a major role in popularising the Hindu-Arabic numeral system and decimal notation used throughout the world today.

The impact of these intellectuals was immense. Ibn Sina's Canon of Medicine remained a

required text in some European universities until the 17th century. Likewise, Al-Khwarizmi's

mathematical innovations laid important foundations for modern mathematics, engineering, and scientific calculation.

Such innovation. Such impact. Such creativity.

Yet also, such marginalisation.

School curricula often present Muslim scholarship as separate from European scientific

development, overlooking an entire chapter of intellectual exchange and scientific advancement.

Assistant Professor Christensen-Dalsgaard describes the traditional narrative well:

"The story is often told that science was invented in ancient Greece and then, following close to a millennium of intellectual darkness, developed in Western Europe over the past 500 years. Other cultures might have contributed a clever trick here or there, like inventing paper or creating our modern number system, but science as we know it was developed almost entirely by white men."

This narrative minimises the significance of translation centres such as Toledo and downplays

the role of Muslim scholars in shaping the foundations of European universities and scientific

thought.

Consider Copernicus. Historians have identified mathematical similarities between his models and those developed by Muslim astronomers such as Nasir al-Din al-Tusi. Consider Ibn al-Haytham, who demonstrated that vision occurs when light enters the eye rather than

emanating from it. Through rigorous experimentation, he helped establish principles associated with the scientific method and influenced later thinkers such as Roger Bacon, Kepler, and Galileo.

These scholars were not simply caretakers of Greek knowledge.

They were innovators.

To be fair, many schools do not intentionally exclude these contributions. Rather, they simplify history to make it easier to teach. In doing so, European science is often presented as a largely self-contained progression rather than a complex global process shaped by centuries of cultural exchange.

Muslim scholars are frequently portrayed as placeholders or preservers rather than contributors and innovators. The Renaissance is described as a "rebirth" or "awakening," leaving little pedagogical space to acknowledge the collaborative and transcontinental foundations that made such developments possible.

The consequence is that students may come away with the impression that scientific

advancement was primarily a European achievement, reinforcing narratives of Western

exceptionalism while overlooking the contributions of other civilisations.

Although this framing may be unintentional and well-meaning, it does not change the outcome.

Students are left with a distorted picture of where modern science came from.

So the next time you see light refracting through a classroom window, solve an algebraic

equation on the board, or examine a model of the human heart, take a moment to reflect on the origins of that knowledge.

You are not confined by the limits of a textbook.

And if a textbook presents scientific progress as the achievement of a single civilisation, ask

yourself what has been left out.

The Dark Ages may have seemed dark on one side of the globe. But on the other side, an

illuminating light of knowledge continued to burn—one that helped shape the foundations of the modern scientific world we know today.