Science in our life – Islam & Science https://islam-science.net An Educational Approach Sun, 19 Apr 2015 12:59:00 +0000 en-US hourly 1 https://wordpress.org/?v=5.5.20 Lessons learned from the ‘Earth does not rotate’ debacle https://islam-science.net/lessons-learned-from-the-earth-does-not-rotate-debacle-3375/ Wed, 22 Apr 2015 00:00:35 +0000 http://islam-science.net/?p=3375 Last week, a three-minute video segment by a Saudi cleric went viral and was discussed in all media (traditional and social) from London to Australia. The topic and the statements were indeed quite shocking: “Earth does not move,” Shaikh Bandar Al Khaibari told an assembly of university students in the UAE; it does not rotate around itself and does not revolve around the Sun. Most amazingly, he provided both religious and scientific “proofs” for his claims: if the earth rotated, he insisted, a plane would never reach China; in fact, a plane should just take off vertically and wait for China to come under it! And if that were not enough, he added: “and they say they went to moon, but it’s all Hollywood stuff…”

Needless to say, the media went gaga with articles and posts titled: “Forget Copernicus”; “Move over, Galileo”; “Saudi cleric ‘proves’ the Earth does not rotate”; “Saudi cleric declares fascinating new theory”; etc. Just on YouTube, the video was watched 170,000 times in its first five days, and a Google search for “Al Khaibari + Earth” produced 88,200 hits.

It was not all derision and sarcasm, however; serious discussions did take place. Several issues were raised: Is this just one odd case or is this viewpoint widespread? Is this kind of ignorance particular to the Arab-Muslim culture or is it found elsewhere? Is it best to ignore him or to respond to his “proofs”? Why is this lecturer so devoid of basic worldly knowledge? What should be done to prevent such occurrences (university students being mis-educated in this manner)? etc.

First, anyone familiar with contemporary Islamic writings knows that while this kind of claim is rare among Muslim scholars, there are a number of prominent Saudi clerics (the famous Shaikh Bin Baz, Shaikh Al Tuwaijri, Shaikh Al Fawzan, etc.) who in recent times have insisted that Earth is stationary, and anyone who claims that it rotates around itself or revolves around the sun or wants this to be taught is a heretic. Fatwas have been issued in this regard, but everyone has more or less ignored them, and the rotation and revolution of earth as a planet has been taught to all students everywhere, including in Saudi Arabia.

However, in the past few years, we have witnessed a return of this standpoint, with high clerics making such statements and insisting that the Quran be taken literally, and that science is just a western scheme aiming to impose a materialistic worldview. This fundamentalist, anti-modernist, and anti-science movement is worrisome, because it tells young Muslims today that they must choose between science and Islam, and indeed we have seen articles published in the UAE over the past week titled “Science and religion don’t always agree.” If that is the case, then we have a lose-lose situation: either youngsters choose a close-minded version of Islam and reject the modern world (the Daesh route) or they choose science and modernity and reject religion…

Some commentators have tried to downplay those statements and this viewpoint by pointing to recent surveys showing that even in the US, 25% of the population believes that the Sun goes around the Earth, not the other way around. However, this is simply ignorance, not “religious knowledge” being defended by clerics and presented to university students. And even the small minority in the West that believes the world to be only 6,000 years old based on a literalist reading of the Bible has negligible presence in the media or on campuses.

Now, should such proclamations simply be ignored? I do not believe so. On the contrary, we need to discuss all these claims in the open and provide strong arguments to convince students and the public. Otherwise, many youngsters will be exposed to only that viewpoint, and many have indeed been convinced by it, not having heard the opposing arguments. It is unfortunate that in the 21st century we have to explain the earth’s motion to the public, but we cannot take the risk of fundamentalism growing further.

But why do some religious scholars carry such ignorance about what is taught in elementary schools? I think it is due to the closed and largely obsolete curriculum that is taught in Islamic madrasas and institutes, at least in some countries (Saudi Arabia, Pakistan).

Reforms of the curricula are urgently needed, whereby not only must basic science (astronomy, geology, biology) be taught to future Muslim scholars, but also ideas of hermeneutics (intelligent interpretation of the scriptures) and critical analysis be introduced, so that clerics learn how to deal with topics where they may encounter some apparent conflicts. Indeed, the literalist approach to sacred texts (in Islam and other religions) has produced dangerous views and attitudes on various topics of society and culture.

Had Al Khaibari studied some basic physics and astronomy, not to mention different interpretations of the Quranic verses he cited, he would not have voiced his laughable “proof” of why Earth cannot be rotating around itself or revolving around the Sun.

Every day we find more areas requiring work and cooperation between educators, scientists, media specialists and religious scholars. Ignorance and closed-mindedness are no longer just lurking, they have exploded throughout the region. We need concerted efforts for the sake of our future generations.

By Nidhal Guessoum, published in Gulf News, February 23rd 2015.

Nidhal Guessoum is a professor at the American University of Sharjah. You can follow him on Twitter at: www.twitter.com/@NidhalGuessoum.

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How our heritage can be digitally explored https://islam-science.net/how-our-heritage-can-be-digitally-explored-3425/ Tue, 14 Apr 2015 00:00:50 +0000 http://islam-science.net/?p=3425

Imagine that you had digital access to all the books that have ever been written. Imagine further that you could search through them just by a few keystrokes. And that you could find out how frequently any word or expression of interest to you were used through the ages. Do you think this would be an extraordinary tool?

In fact, that tool already exists and it currently can search through more than six million books. That is possible first because Google has already digitized about a quarter of the 130 million books that have ever been written, and secondly, because two brilliant scientists have produced a software that allows anyone to perform such word searches and in a number of languages.

I recently read the book that those two young scientists — Erez Aiden and Jean-Baptiste Michel — published in 2013, where they describe their work, give all kinds of illuminating examples and explain why this may be regarded as a quantum leap in our exploration of various aspects of history. The book, Uncharted: Big Data as a Lens on Human Culture, gives a number of examples of word comparisons that can be performed through time (going back to the earliest book available) and where, in each case, one sees how humanity sometimes gradually and sometimes suddenly changed its mindset: Men and women (spoiler: the word “women” overtakes “men” in books in 1983), war and peace, gold and oil, coffee and tea, science and religion, Catholics and Muslims and many more. One quickly sees how this tool indeed becomes a “lens” on human culture.

As I have mentioned, the tool can be used by everyone; it is freely usable online, at: https://books.google.com/ngrams. In December 2010, Aiden and Michel published a paper presenting their work in the top journal Science and simultaneously released the tool, the “Ngram Viewer”, which allows anyone to do search comparisons between words or expressions from 1500 to today, or actually to 2008, to be accurate. The next day, it was on the front page of the New York Times, and within 24 hours, it got more than three million visits. Clearly, they had hit on something.

I remember hearing about the Ngram Viewer a few years ago and actually visiting the webpage and doing a few searches for fun, but I had not grasped its historical and cultural significance. The book explains this very well, and in witty style.

Indeed, applications range from the linguistic to the socio-political: One can investigate and come to understand the history and evolution of irregular verbs, social norms (through expressions, such as “slavery”, “heaven and hell”, “terrorism”, etc.), scientific topics (“evolution”, “space ship” or “space travel”, “cancer”, “autism”, etc.), how people become famous (and which types of personalities society prefers), how quickly various technologies spread through society (trains, telephones, radio, TV, internet, etc.), and many other trends.

The moment I understood all this, and well before I finished the book, I went online and decided to do some “interesting” searches. On the barebone webpage, I saw the languages menu, and I immediately thought: ‘Yes, I’ll search through the Arabic heritage; there are so many things one can learn from the frequency with which some words or expressions have been used in Arabic books through history!’ How disappointed — I was to find that Arabic was not one of the available languages: American English, British English, Chinese, French, German, Hebrew, Italian, Russian and Spanish.

There have actually been some digitisation efforts made with Arabic or Islamic manuscripts. For example, the Yemeni Manuscript Digitisation Initiative, the largest of such efforts, covers 50,000 books from the 10th century to the present; the Welcome Arabic Manuscripts collection has about 1,000 digitised texts on the history of medicine; and other such initiatives, often found in western universities. Compared to the millions of books that Google and Ngram allow one to search, those manuscript collections are a tiny fraction of the Arabic/Islamic heritage. The Arab-Muslim world may currently have other fish to fry, but this is an important cultural development that some governments or cultural foundations should seriously consider.

In fact, it is not just books that are being digitised (Google says it will be done with all 130 million of them by 2020), newspapers are being digitised (one Australian foundation has already taken care of 100 million articles), and of course our current online activity (emails, tweets, facebook posts, Instagram pictures, YouTube videos, etc.) is already digital. Soon, the sum total of our digital records will provide both scholars and the general public extraordinary fields to plough, where human history, society and culture could be examined from various angles.

The Arab world must move its history and culture from the dusty shelves of old libraries and private collections to the digital, open and immediately accessible world of today and tomorrow.

By Nidhal Guessoum, published in Gulf News, April 2nd 2015.

Nidhal Guessoum is a professor at the American University of Sharjah. You can follow him on Twitter at: www.twitter.com/@NidhalGuessoum.

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Science in Arab renaissance https://islam-science.net/science-in-arab-renaissance-2267/ Thu, 19 Mar 2015 00:00:11 +0000 http://islam-science.net/?p=2267 While recent events in the Arab world have focused on political upheaval, the region is now in dire need of a new revolution to reform the cultures of education and research, says Nobel laureate Ahmed Zewail and Sherif Sedky.

In the past few years, an awakening, through the ‘Arab Spring’, has focused on a political dimension of societal change. While the process of transformation begins with democracy, it does not end there. Though public uprisings have brought political changes, a new revolution is needed to transform the culture of learning. The failure of Arab education is a significant underlying cause of youth discontent in the region and has serious cultural, economic and political consequences.

The status of the Arab world in science and education is unacceptable. Its contribution to international scientific research is insignificant and Arab universities do not regularly rank among the world’s 500 best institutions. It is remarkable that between 25 and 40% of the Arab population of 350 million remains illiterate, while adult skills in the digital age are now defined in terms of literacy, numeracy, and problem solving.

In Egypt, which has the largest population of Arab countries, hundreds of thousands of students get a university education that is not compatible with the modern world. And, on the global market, there are no technological products “made in Arabia”.

It is too simplistic to ascribe a single cause, such as a false distinction between faith and reason. From a genetic point of view, Arabs are no different from those of any other ethnicity; there is no geographic monopoly on intelligence. Clearly, Arabs and Muslims in Spain, North Africa, and Arabia were at the apex of civilization when Christian Europe was in the dark ages.
The reasons for this lack of endeavor and achievement are myriad; including colonization, corruption, and constitutional deficiencies restricting human liberty and freedom of thought. And, for decades, the use of religion in politics and politics in religion have clouded national goals and diverted attention from the real issues facing Arab nations.
The question that needs to be answered is not what went wrong, but what can be done now? Revolutionary changes, not incremental ones, have to take place in education and scientific thought, with three essential components for progress.

First is the building of human resources by restoring literacy, ensuring active participation of women in society, and reforming education.

Second, there is a need to reform the national constitution to allow freedom of thought; to streamline and rationalize bureaucracy; to develop merit-based systems and create a credible and enforceable legal code.

Thirdly, and most tangibly, the constitution should ensure that the budget for research and development is above 1% of the nation’s GDP. In light of recent revolutions in Egypt, Tunisia and elsewhere, these changes are possible.

In this vision, human capital is paramount. The Arab world needs to nurture a new generation of professionals capable of thinking critically and creatively, one with contemporary knowledge of science and technology, and with the new emerging disciplines in physical, medical, and social sciences.

Such a pool of knowledge would help identify and provide solutions for fundamental problems facing society. Research into alternative energies, water resources, or drug design can bring numerous social benefits and rewards from the country’s economic growth and the participation in the global market.

Changes must be initiated at the root of the education system which is based on rote learning with a focus on the quantity rather than the quality of information delivered to students. This should be replaced with a merit-based system designed to encourage free and creative thinking, with practical experiences.

The landscape of funding and recognition in research also needs to be reformed. Today’s convention of using the number of publications to determine candidates for academic promotion has proven to be of little value and must be replaced with a framework to identify original and innovative contributions. Finally, there should be a strong link forged between the academic and industrial sectors to maximize potential mutual benefits from basic research and industrial interests, globally and domestically.

“Renaissance in the Arab world will not be possible without genuine government recognition of the critical role of science in development.”

In Egypt, the pioneering National Project for Scientific Renaissance, “Zewail City of Science and Technology”, was set up in 2011 to encompass these concepts in education, research, and the industrial impact. The project is funded by donations from the Egyptian people and the government.

At the heart of the City is the University of Science and Technology, whose primary role is to attract talented students from all over the country and offer unique academic curricula in cutting-edge fields of sciences and engineering.

The second major arm of the project comprises research institutes staffed with world-class scientists prioritizing research into essential national problems. The institutes, equipped with state-of-the-art equipment, represent a wide range of interdisciplinary fields, including nanotechnology, environmental engineering, renewable energy, space and communication technology, materials science, biomedical science, and physics of earth and the universe.
The third and last major component is the “Technology Pyramid”, which is responsible for commuting research output to industrial applications. It is designed to establish, with intellectual property protection, incubators and spin-off companies and to attract major international corporations to encourage a healthy climate for research-industry exchanges.
The benefits from the Zewail City of Science and Technology, domestically and on a world stage, are numerous. We believe this prototype initiative of three structures, if transferred to other parts of the Arab world, will change the landscape of education and scientific research, and, through significant international participation, will foster new opportunities for the youth of Arab nations.

Renaissance in the Arab world will not be possible without genuine government recognition of the critical role of science in development and policies providing commensurate funding for basic research and reform of rigid bureaucracy which thwarts progress.
In doing so, Arab nations will regain confidence to compete in today’s international science and globalised economy. It is gratifying to see several new centres of advanced education and research and development being set up in the region.

However, the goal of the Egyptian initiative is different. Under one umbrella we are providing the milieu for education and research, from school and university stages to advanced manufacturing and market levels. This may be a route to developing society scientifically and culturally, to growing economically, and for restoring the prominent role of Arabs worldwide.

By Ahmed Zewail & Sherif Sedky, published in Nature Middle East, January 9th 2014.

Ahmed Zewail won the 1999 Nobel Prize in Chemistry. He is the Linus Pauling Chair professor of chemistry and professor of physics at the California Institute of Technology (Caltech), and is currently the director of the Moore Foundation’s Center for Physical Biology at Caltech. He is also the founding president of the Zewail City of Science and Technology.
Sherif Sedky is the founding provost of Zewail University of Science and Technology and the director of the Nanotechnology Center at Zewail City of Science and Technology.

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Why 2015 is the Unesco Year of Light https://islam-science.net/why-2015-is-the-unesco-year-of-light-3369/ Mon, 16 Feb 2015 00:00:16 +0000 http://islam-science.net/?p=3369 Few weeks ago, Unesco kicked off a year-long educational, cultural and scientific celebration of light from its Paris headquarters. I believe that light was an inspired choice as a theme for worldwide multi-faceted activities. Let me tell you why.

Have you ever wondered at the infinitely varied beauty of the reds of sunset? Have you ever asked why the sky is blue, why clouds are white or grey, why leaves are green, how the rainbow forms, why those stars and planets come in different colours, and about other marvels of nature? Everyone knows that these beautiful phenomena are due to some interplay of light and matter; many people know that they involve light reflection, refraction, scattering, etc, and that physics and geometry, not to mention our minds (through “optical” illusions), play complementary roles to produce those effects. But few people have realised the central role that light plays in our lives, from socio-economic activity to medicine and technology, through our huge scientific progress of the past few centuries.

In his recent book Intellectual Curiosity and the Scientific Revolution, the historian Toby Huff explains that the invention of the telescope was the most important scientific development before the 20th century. Most people have never looked through a telescope and would not comprehend why it is placed at the top of the list. After all, as I stress to my students, a telescope is nothing more than two lenses held at the right distance from each other, and all it does is help collect more light from faraway, faint objects. But the telescope changed our view of the universe; and simultaneously, its brother, the microscope, ushered in a revolution in biology and nature around us. All this by simply collecting more light into our eyes. After that, the imprint of light on some chemical materials led to the invention of photography (“photo” meaning light in Greek, and “graph” meaning drawing or writing), and the rest is history, as they say.

History is actually one important aspect of this year’s celebration of light. In particular, Al Hassan Ibn Al Haytham, the 11th century Arab physicist who is often regarded as “the father of modern optics”, will be specially highlighted. Indeed, this year will mark the 1,000th anniversary of the publication of his monumental Book of Optics (Kitab Al Manazir), which revolutionised both the physics of optics (how light travels, how it reflects and refracts and forms shapes and images) and the science of vision (how light enters the eyes, how it refracts through the eye’s lens and forms an image on the retina, etc.). Al Haytham published numerous books on various light phenomena, including The Light of the Moon, The Light of the Stars, The Rainbow and the Halo, etc.

Other historical angles to this year’s cele-bration include: The 50th anniversary of the discovery of cosmic microwave background radiation, the “light” relic of the Big Bang that our eyes cannot see, but our detectors can record from all directions in the sky (as is known, our eyes can only see a limited range of the spectrum of “light” that nature produces); the 150th anniversary of Maxwell’s equations, which not only unified electricity and magnetism as two facets of the same phenomenon, but showed that they propagate at the speed of light, i.e. that optics is just another aspect of electro-magnetism; and the 200th anniversary of the proof (by the French scientist Fresnel) that light is a wave phenomenon (light was later shown to have a dual “personality”, behaving as either waves or particles depending on the environment) …

Powerful laser beams

Today, light has an extraordinary impact on our lives, from economics to culture, and from medicine to science and technology. Photonics (light-related technologies) have been estimated to currently have a global market of $400 billion (Dh1.47 billion) … expected to double within five years! Lasers, which were invented 55 years ago; fibre optics, which were invented some 40 years ago; and LEDs, whose development received the 2014 Nobel Prize in Physics, have all become ubiquitous around us. Have you wondered how (powerful) laser beams can stay thin all the way to the moon and back? How a tiny laser beam can read a library of books on a small disk (DVD)? How lasers have become essential to many medical procedures, from angioplasty to Lasik surgery? And how those tiny LEDs have invaded our environments — from TV screens to car lights and highway sign announcements?

Light also plays important roles in our cultural lives, from creative lighting of various spaces (inside and outside buildings) to the usage of glass (e.g. colour-stained windows), and of course in photography and cinematography.

For all these reasons, Unesco has partnered with more than 100 institutions in 85 countries to organise a variety of educational and outreach activities around light throughout 2015. It aims to raise awareness around the role that light (natural and technological) plays in our lives today, and the incredible developments that the science and technology of light have witnessed in the last few decades. Light was a brilliant choice (no pun intended) as the central theme for 2015. I hope everyone enjoys and learns much from this year of light.

By Nidhal Guessoum, published in Gulf News, January 28th 2015.

Nidhal Guessoum is a professor of physics and astronomy at the American University of Sharjah. You can follow him on Twitter at: www.twitter.com/@NidhalGuessoum.

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How women scientists fare in the Arab world https://islam-science.net/how-women-scientists-fare-in-the-arab-world-61/ Wed, 11 Feb 2015 00:00:04 +0000 http://islam-science.net/?p=61 Rana Dajani argues that true equality for women scientists requires recognition of their family roles as well.

I will never forget a rich Arab businessman I met in New York at the Clinton Global Initiative. He had an American lady in charge of his non-governmental organization. She was a great woman dedicated to her work, who would stay until midnight doing her job. He said that women in the Arab world will never succeed until they are ready to stay at work until midnight like the American woman. He complained that Arab women want to go home at five o’clock to look after their families. I was upset. I told him that it should be their choice how long they want to work; and if they have priorities such as family and want to leave at five, then this should be respected. It is men like him, and in some cases women, who undermine who we are.

The issues faced by women in science are beginning to receive more attention. On this page last week, Athene Donald highlighted one initiative to tackle gender bias (A. Donald Nature 490, 447; 2012). I would like to offer a perspective from the Islamic world.

Despite the impression given by extremists, Islam gives women the right to education. More than four in ten women who go to university in Jordan go into science, engineering or medicine. Women outnumber men on courses in natural science, pharmacology and agriculture; numbers are equal in maths and computer science; and one in three engineering students in Jordan is a woman.

Some of the problems faced by women scientists in the Middle East are the same as those faced by women around the world. Our productivity, for instance, is measured on a male scale. The years we spend taking care of children are not calculated as part of the gross domestic product of a country. What is more important — to build physical things or to nurture a human being?

As an example of this male scale, L’Oréal and the United Nations Educational, Scientific and Cultural Organization are running a competition to award fellowships to Arab women scientists — but you have to be under 40 to enter. This is biased, and based on metrics from a male-dominated world, in which if a man doesn’t make it by 40 he is a failure.

The feminist movement was a good thing, but it was too focused on equality with men and failed to enable us to respect ourselves as women and to be proud of who we are.

“One must not fall into the trap of transferring solutions from one culture to another.”

Another common challenge to all women scientists is lack of mentoring and networking. Most women scientists everywhere have two jobs — work and home — and most will not give up home for work. They will always be worried about the children, want to be with them, and feel that the father’s presence won’t compensate for their own absence. So they don’t take time after work to have a coffee with their colleagues.

Yet this informal environment is where scientists learn what is going on; where they lobby, network, mentor and get mentored. Women don’t have the time. Networking is an extra effort. Men mentor each other and spend time together after work, fostering the men’s club. Women rush home to take care of children, not because they have to but because they want to.

This is a major obstacle for women scientists in terms of opportunities, learning and support. That is why mentoring projects — something we lack in the Arab world — are important. But social media allow mentoring online, and some women scientists now plan to start an online mentoring scheme for women scientists in Jordan, in collaboration with the country’s first woman university president, Rowaida Maaitah.

Women also have challenges specific to the Middle East. These may not be so obvious because they are subtle, and must be identified, studied and solved by Arab women themselves. For instance, the September study about a bias among US scientists against women, mentioned by Donald last week (C. A. Moss-Racusin et al. Proc. Natl Acad. Sci. USA http://doi.org/jkm; 2012), would not necessarily translate to the Arab Muslim world, where the prevailing attitude among both men and women is that women work hard and are more dependable than men. One must not fall into the trap of transferring solutions from one culture to another.

I know of an American researcher who went to Bulgaria to help women fight for their rights. She went assuming that they would want to demand to work. But Bulgarian women who had lived under Communism wanted the exact opposite. They wanted the freedom to stay at home if they chose.

A much-misunderstood issue is the covering of the hair and sometimes the face by Muslim women. In the West, this is often considered a sign of oppression. Yet more than half the female students and academics in the Arab world choose to cover their hair for religious reasons, compared with fewer than 10% 20 years ago. These young women are educated, affluent and independent. I have a graduate student who covers her face who told me that she believed she would win a Nobel prize. This is not oppression.

I see the Arab spring as an opportunity for women to learn about their rights and to advocate for them — to distinguish between what is tradition and what is religion. This would weed out extremists who, through ignorance, distort the image of Islam. And it would weed out opportunists who want to misrepresent Muslim women. Throughout the Islamic civilization that flourished in the Middle Ages there were more than 8,000 women scholars. There are many more on the way today.

By Rana Dajani, published in Nature, October 31th 2012.

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Universities must inspire students as well as teach https://islam-science.net/universities-must-inspire-students-as-well-as-teach-2283/ Thu, 09 Apr 2015 00:00:05 +0000 http://islam-science.net/?p=2283 Education is a big topic for the United Nations at the moment. Across the world, officials, scientists and higher-education experts are discussing how to update the organization’s Millennium Development Goals. One idea is that the proposed replacement, the Sustainable Development Goals, should widen the focus from school-age learning to the quality of higher education. Many of Nature’s readers have experienced university teaching; many deliver it. All should have an opinion on it.

A high-level group set up by the European Commission to report on the quality of teaching in the region’s higher-education institutions concluded that it is “an embarrassing disappointment”. The report, published in June, added: “Serious commitment to best practice in the delivery of this core teaching mission is not universal, is sporadic at best and frequently reliant on the enlightened commitment of a few individuals.” Similar concerns have been expressed about higher education in the United States.

The problem becomes more acute when set against the backdrop of continued economic uncertainty. As Chinese scientist Qiang Wang pointed out on this page earlier this year (see Nature 499, 381; 2013), there is a worrying disconnect between what is taught in schools and universities, and the skills those students need in the real world. He was talking about China, but students everywhere face the same conundrum. We need to educate our youth to be entrepreneurs, so that they can create their own jobs despite the economic uncertainty.

“Our objective in education must be to light a fire in the heart of every individual.”

Students in the Arab world also face political uncertainty, as demonstrated by the events of the ‘Arab Spring’ and the continuing tensions. Despite some progress in education — in school enrolment, for example — the need for innovative teaching strategies is even more urgent here. Education reform in these countries tends to focus on the construction of new buildings, facilities and curricula. Knowledge, information and theories are presented as indisputable facts, and this creates students who struggle with the idea of uncertainty and who do not develop the analytical and problem-solving skills they need to prosper.

We need to shape and develop our own education systems. Simply reproducing Western models of education runs the risk of, among other issues, ignoring the configurations of politics, religion and gender unique to our region. Indeed, once the Arab world expands its innovative educational programmes, a healthy synergy between East and West can develop.

In my teaching of cell biology to university students in Jordan, I have introduced some innovations aimed at making the students think for themselves. As we all know, the media often inaccurately report science. I ask students to identify an item on the radio, television or in the newspapers, and to check whether it is true. Then they write to the media organization to outline their findings and add a note about the impact of misleading information on patients and the general public, and the importance of making the source of the story clear.

This is an example of what educators call ‘service-learning’. The students learn through their own research, while simultaneously serving the community, in this case the media — which in theory could alter the way science is reported in the future. Service-learning lets students learn more than the facts; they discover the relevance of that knowledge to real life and how it affects a community. They see their role in building that community and acquire a sense of responsibility. When they graduate, they have more confidence to try to drive change, even in a world of unemployment or instability.

Many university students are not interested in some courses they take, often because they are obligatory. I see it with some students on my molecular-biology course. To pique their interest, ideally I would like to give them a relevant novel to read, say Darwin’s Radio by Greg Bear. As well as covering the basic concepts of molecular biology, this book discusses the ethics of its application to real-world situations. Classroom discussion would be enlivened by discussion of the characters and themes, and the students would develop different points of reference for looking at a particular issue. Drama can also be used to teach biological mechanisms. Involving students personally in a three-dimensional world makes them think of the mechanism from the perspective of the molecule. They can then better understand the limitations, challenges, potential and beauty of cells.

Our societies do not need students who are merely textbook educated; we need students who can engage positively with society. Too often, higher education focuses on the former without paying attention to the latter. We are all potential entrepreneurs in the sense that we can easily identify problems. The bigger challenge, and where conventional education fails, is to enable us to overcome doubts and inhibitions and take action. The goal of higher education should be for students to learn to apply the knowledge and skills they acquire to the realm of everyday life.

As the poet William Butler Yeats said: “Education is not the filling of a pail, but the lighting of a fire.” Our objective in education must be to light a fire in the heart of every individual.

By Rana Dajani, published in Nature, October 23rd 2013.

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Are scientists more or less religious than laymen? https://islam-science.net/are-scientists-more-or-less-religious-than-laymen-3285/ Mon, 24 Nov 2014 00:00:39 +0000 http://islam-science.net/?p=3285 There is a stark contrast between public discussions of the relations between science and religion in the West and in the Arab-Muslim world. In the West, a conflict narrative prevails: science is rational, open-minded, and progressive; religion is “magical thinking”, rigid and backward. In the Arab-Muslim culture, science is almost an integral part of religion, for it is supposed to lead to God or at least reaffirm the obvious existence and power of God. Scholars and highly educated people have always held complex and subtle views on religion, often holding beliefs that traditionally minded people regard as beyond the norms of religious dogmas.

This has also been true in the history of the Islamic civilisation, where several sophisticated thinkers, from Al Kindi to Ibn Sina and Ibn Rushd, were often accused of heresy for expounding ideas that they saw as religiously valid and in harmony with their advanced knowledge, but which others saw as representing unacceptable conceptions of existence and the divine. On the other hand, Muslims have often recalled that the Quran contains hundreds of verses encouraging people to seek knowledge and reflect on the variety and magnificence of God’s creation; indeed, knowledge raises people to higher levels of understanding (of one’s existence and of life and nature).

In the West, the European Enlightenment produced a general view that science and modernity are synonymous to secularism, if not atheism. Many western scientists and intellectuals today have made it their agenda not just to try to push religion out of the public space but to depict it as the biggest hindrance to human progress. They often point to the resistance of many religious people to modern scientific knowledge (Darwin’s evolution, in particular) or new vistas (stemcell research, genetic engineering, etc.).

Still one frequently encounters western scientists who are fervent believers (in one religion or another), who feel no conflict between their religious beliefs and their scientific mindsets. Likewise, one often meets devout Muslim scientists who oppose none of the established contemporary scientific knowledge. It is thus of high interest to everyone to know the extent to which science leads to less or more religiosity. However, it is very difficult to measure religious beliefs and scientists’ adherence to them. And to my knowledge, the correlation between religiosity and scientific attainment has never been studied in the Arab-Muslim world.

In the West, surveys of scientists’ religiosity have been conducted by several groups of researchers, going back to a landmark study in the US by Leuba in 1916. Surveys have recently been conducted in the US and in the UK among scientists of various levels, including members of the US National Academy of Sciences, the American Association for the Advancement of Science, and the UK Royal Society.

US scientists have been found to be much less religious than the general population: where some 80 per cent of lay Americans are reported to believe in God or some higher power, but only 40 per cent of American scientists believe in God, 45 per cent do not, and 15 per cent are agnostics; in fact, among members of the high societies, 15 per cent or less believe in a personal God or a higher power. A notable exception is physicians: 3 out of 4 are reportedly believers.

Until now, however, we have only had surveys from the US and the UK. Those must then be interpreted with the western historical and social contexts in mind, i.e. with the afore-mentioned science-religion conflict narrative that has prevailed in the western discourse.

International study

But now, for the first time, a large-scale, international study is being conducted about the attitudes of scientists towards religion around the world. Professor Elaine Howard Ecklund of Rice University in the US, and her collaborators have launched a survey of 20,000 scientists in France, Hong Kong, India, Italy, Taiwan, Turkey, the UK and the US.

A few weeks ago I was invited to a seminar in London where results from the surveys in the UK and India were presented, after roughly 2,000 scientists were surveyed and some 100 were interviewed in depth in each country. Contrary to the UK, where non-belief is prevalent among both scientists and the general public (but more so among the scientists), only 11 per cent of Indian scientists said they do not believe in God or a higher power, compared to 2 per cent of the general public; only 19 per cent of Indian scientists never attend any religious services, etc. So while we eagerly await the results of the study from other countries, particularly Turkey, for at least one Muslim context, it is already clear that the attitudes of scientists towards religion vary highly from one social and cultural environment to another.

The studies also show that the conflict narrative between science and religion that the western popular culture has been deluged with is not dominant on the ground; indeed, only 38 per cent of UK scientists describe religion as being in conflict with science. In fact, many scientists openly hail the positive influence that religion often has on the practice of science, particularly in terms of ethics; few see religion as “interfering”. And indeed, there are several areas where the two can cooperate: environmental issues and the fight to eradicate poverty, to name just two.

But for such cooperation to take place, everyone must adopt an attitude of humility. As the Quran reminds us, “you have been given but little of knowledge…”.

By Nidhal Guessoum, published in Gulf News, November 3rd 2014.

Nidhal Guessoum is a professor at the American University of Sharjah. You can follow him on Twitter at: www.twitter.com/@NidhalGuessoum.

Image: Artist’s illustration of Ibn al-Haytham by Hanane Kaï

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How to draw youngsters to science https://islam-science.net/how-to-draw-youngsters-to-science-3219/ Wed, 22 Oct 2014 00:00:35 +0000 http://islam-science.net/?p=3219 Last week, after a long workshop on science, education and Islam, my friend Athar Osama asked me: “What will bring Muslim youngsters to science, as lifetime careers?” Dr Osama is a science policy expert and runs important projects on science in the Muslim world. Like me, he has come to the conclusion that the problem needs to be addressed in terms of education and at early stages.

Right away, I replied that I believe the Muslim world must bring out scientists as role models, people who will excite the youngsters and make them want to be like them. In the US, countless scientists today point to Carl Sagan and his eloquent Cosmos TV series of the 1970s as the moment they decided to pursue science in general and astronomy and space exploration in particular. In the UK, many biologists today will mention David Attenborough and his TV programmes as prime reasons for their love of nature and science. In France, oceanographer Jacques Cousteau and his mesmerising sea odysseys had that same effect on a whole generation. And astronomer Hubert Reeves, with his long white hair and his relaxed smiling face, continues to hypnotise viewers with simple and eloquent explanations of cosmic phenomena.

And today, a new generation of Sagans has emerged: In the UK, Brian Cox, with his rock-star looks, and in the US Neil deGrasse Tyson, with his walking and talking style resembling a rapper — both holding PhD’s in astrophysics — have achieved high celebrity status.

Eloquence is a key common denominator among these science spokespersons and communicators. In their programmes, they make science sound like a new form of poetry or a philosophy for this age. But another, equally important aspect of their TV appearances is the passion and awe that they show in their fields of discovery. Viewers thus realise that being a scientist can provide immense amounts of satisfaction and pleasure, closely resembling mystical experiences.

Osama responded that people may get interested but will quickly find out that scientists are not highly paid and youngsters will soon realise how hard the field is. Passion and awe do not always lead to successful science careers and certainly do not proportionately measure with salaries. I can only agree with this realistic assessment, but I believe that most people are only looking for good salaries, not necessarily very high, if (and that, in my view, is the real key) they can be guaranteed an interesting life and career. If youngsters can be shown the exciting challenges that scientists face, how they tackle them, how they collaborate with colleagues across the world, how they travel to interesting conferences, how they speak to reporters and audiences, etc., many — I believe — will see that as an enticing prospect.

I do not want to disclose the idea that Osama had, as he may still want to pursue it despite my (gentle) critique of it, but suffice it to say that in any approach we adopt to the issue of attracting youngsters to science, we must keep in mind the new world we live in: Fast-paced, short-spanned activities, digital and constantly connected.

Thus, I suggested to my friend that two things could/should be done: A) Bring out a charismatic scientist in his/her 30s or so and have him/her present science as a life package. B) Produce a series of five-minute videos on a number of scientists (junior and senior), each showing an interesting aspect of their life and career. (We now live in a YouTube and TED world, we must keep in mind.)

But in doing all that, we must also make sure that science is presented as loads of hard work. As studies have shown, students often report that “they didn’t know it was this hard”. The old “science is fun” campaigns, which are still carried on by well-meaning science educators, can be misleading and counter-productive.

And just to try to cover all bases, I must note that there are other important factors that can be instrumental in a youngster’s decision to go into science fields. In particular, the roles and effects of parents and early teachers can be crucial. Also, fascinating TV programmes (the CSI shows in the US led to a quick and large increase in students wanting to pursue forensic science) and mind-expanding books and movies (yes, science fiction can still mesmerise and inspire) do often have a strong impact on young minds.

We science educators must ally ourselves with media communicators to devise new strategies to attract youngsters to science. In doing so, we must be up to date in each aspect of the challenge: Our science must be current (the latest planets that have been found, the most recent genetic advances that have been made, how “big data” has opened up new vistas for science and society, etc.). Our educational strategies must be fully informed of the latest pedagogic research and our communication tools must be sharp and capable of making an impact.

The state of science in any society says quite a lot about where that society will be in a few decades. That has been true in the past. It is even truer today. Let us prepare for tomorrow.

By Nidhal Guessoum, published in Gulf News, October 1st 2014.

Nidhal Guessoum is a professor of physics and astronomy at the American University of 
Sharjah. You can follow him on Twitter at: www.twitter.com/@NidhalGuessoum.

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Evolution of teaching in fast-changing world https://islam-science.net/evolution-of-teaching-in-fast-changing-world-3180/ Wed, 01 Oct 2014 00:00:56 +0000 http://islam-science.net/?p=3180 What is needed is a paradigm shift among teachers and educators that this globalised, digitally connected 
and fluid world needs new minds. Teaching must change to adapt to the new realities

Nidhal Guessoum

Most people have a very traditional conception of teaching. Ask a parent how she imagines her child in school, and she will describe a classroom with a teacher standing at the front, near a board (white, black, or green), and pupils (hopefully a small number) sitting at tables, one by one or two by two, row behind row, listening and writing. Ask a (typical) educator how teaching is best performed, and he may murmur something about “active” or “collaborative” learning, “technology and web tools”, and other such “innovative” approaches, but in reality, he will most likely be just lecturing to his students, trying to impart as much “knowledge” as possible.

This is what a recent study on creativity and innovation in education in the European Union reported: “Conventional ways of teaching, [i.e.] teacher-centred methods, frontal teaching and chalk-and-talk, prevail in a good majority of schools in the EU27.”

Indeed, despite countless documents and books promoting “novel” teaching methods, most teachers still resort to the old, traditional direct instruction and direct assessment (pen-and-paper exams checking how much “knowledge” was retained – temporarily). In truth, it is much easier to lecture than to engage one’s students, and easier to give traditional exams, which often come with the textbook, than to innovate in any regard. Teachers, starting with myself, have an unconscious tendency to stay with the old passive methods and to resist any push for more active methods of teaching and learning.

We have convinced ourselves that these methods do work (some students do get A’s, after all) and that they are efficient (other methods take so much time that through them we can’t finish the material). But study after study have shown that students learn in very different ways and come with a wide spectrum of abilities, that interactivity and engagement are fundamental to effective learning, especially at younger ages, and that today’s world offers new challenges — and new tools. The old approach is not only inefficient but obsolete.

In today’s world, the content of a course is not the key part of the teaching. At least it should not be. Why? Because much of the material we teach is accessible by just a few keystrokes, taps, or swipes. As I keep telling my students, we need to get rid of the tendency to store information in our brains when we all carry web-connected smartphones or tablets that can get us to Wikipedia (or better sources) in a few seconds. What we do need to develop is the ability to evaluate the information we access, to organise it, and to reconstruct it in a creative and insightful way. What we need is to develop more and more critical thinking, the ability to assess and judge facts and ideas in a world that breathes information – of hugely varying degrees of quality. In fact, the profusion of new and fast-increasing information has had another negative effect on education: Curricula are more and more overloaded. Worse yet, most of the content is required to be known and can be expected to appear in end-of-year exams.

Constant exchanges

Can a teacher then be expected to be creative and innovative in such conditions? Yes and No. Yes, because it has become clear that the old traditional methods are no longer effective, and indeed there are new tools that can help us teach effectively. No, because while teachers are expected to try new ideas, the effort should really be a concerted one, with constant exchanges among teachers, administrators, education experts, and parents on what works and what doesn’t. Teachers stay with the old teaching approach for several reasons: they don’t have time to try new things; they have large classes that do not lend themselves to anything but the lecture format; they have no incentive to innovate (parents and principals will only accept letter grades or number scores, no other “assessment”); and they lack the confidence, the training, and the resources to really be creative.

And yet there are a number of tools and methods that have proven to be successful in various situations: Collaborative (group) learning; inquiry-based learning (where students investigate an issue, collect data/information on it, formulate a hypothesis and check it, thus learning through the process); novel ways of “processing information” using graphs, charts, maps, and other ways to present and retain important facts; “constructivist learning”, where pupils learn by discovering things by themselves, under the hands-off supervision of the teacher/facilitator; etc.

What is needed is a paradigm shift among teachers and educators that this globalised, digitally connected, and fluid world needs new minds. Hence, our teaching must change to adapt to the new realities. Teachers need to be trained to teach in this new, more useful way. At minimum, the internet needs to be integrated into the education process, and not just as a repository of information that can be downloaded. Curriculums need to be revised, lightened, and made more interactive, dynamic, and relevant.

Our graduates will need to be creative and innovative in their future job environments; we teachers must show them that creativity and innovation begins in the classroom.

By Nidhal Guessoum, published in Gulf News, September 15th 2014.

Nidhal Guessoum is a professor of physics and astronomy at the American University of Sharjah. You can follow him on Twitter at: www.twitter.com/@NidhalGuessoum.

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In Egypt, religious texts may be used as science references https://islam-science.net/in-egypt-religious-texts-may-be-used-as-science-references-3174/ Mon, 29 Sep 2014 00:00:40 +0000 http://islam-science.net/?p=3174 In Egypt, a new decision by Mahmoud El-Nasr, the minister of education, may very well see schools teaching its students about the “scientific miracles in the Quran,” as part of official curricula that both public and private schools will have to commit to.

Many Muslims believe that the Quran is not merely the word of God but a religious scripture that also predicts or describes scientific phenomena and theories, among other things.  An example supporting this view is a verse in the Quran that says that God “has constructed the heavens with might” and is “steadily expanding it.” Proponents of the theory that the Quran foretells scientific discoveries say that this is line with the modern observation that the universe is expanding at an accelerating rate.

Now, these meditations on the text, as per the new ministerial resolution, may be taught as scientific “facts” in Egyptian schools – an issue that some might regard as perturbing at best.

“This is not how science is done; looking in the Quran diverts students from the tried-and-true scientific method, i.e. the need to observe nature, study phenomena, formulate hypotheses, draw conclusions and predictions, test the hypotheses through experiments and more observations,” comments Nidhal Guessoum, renowned Algerian astrophysicist, and author of Islam’s Quantum Question: Reconciling Muslim Tradition and Modern Science.”

So far, the harshest backlash in Egypt came from a few media personalities, and two political groups that advocate secularism and separating religion from politics. The new move by the minister is, in his words, part of “promised progress” in the research and education sphere, according to circulating press reports.

Guessoum, however, says that none of the many examples that have been advanced to proof that scientific prophecies are hidden within the religious text stand up to scrutiny; “on the contrary, they simply betray basic and serious misunderstandings of the relevant science on the part of the claimers.”

A Muslim himself, he opines that the Quran never tells Muslims to dissect (and bend) its verses in search of scientific knowledge; “on the contrary it tells us: ‘Travel in the earth and see how creation (was) started…’ and, ‘We shall show them our signs in the horizons and in themselves…’, and hundreds of verses that exhort Muslims to observe, think, contemplate, etc. – never to look for natural facts in the Book.”

The scientist believes that the Quran considers natural phenomena as signs that point to a higher intelligence and a purpose, “but that’s at the interpretation stage, not at the exploration/research stage. The science part is done through the usual research methodology, then the interpretation, or theology is done after that to draw meaning from what’s been discovered.”

“Why would the Quran carry 20th to 21st century science in particular?”

During a press conference at Zewail City for Science and Technology, this editor ran the question by Nobel Prize winner and the “father of femtochemistry” Ahmed Zewail, who was appointed by President Abdel-Fatah El-Sisi to a presidential advisory council, typically consulted on education among other things.

Zewail avoided outright criticism of the move by the ministry, clarifying that he doesn’t personally “see a collision between science and religion,” specifically a version of religion that is “forgiving” and “which understands what scientific development and what science application mean.” Still, he affirmed that in places like Zewail City, a hub for scientific research and knowledge, this “mixing” between religious concepts and science will not be present.

By Pakinam Amer, published in Nature Middle East | House of Wisdom, September 15th 2014.

]]> Depression is not a sign of weakness https://islam-science.net/depression-is-not-a-sign-of-weakness-3139/ Thu, 04 Sep 2014 00:00:24 +0000 http://islam-science.net/?p=3139 Nawar Fakhry Ezzi

Nawar Fakhry Ezzi

Efforts have recently been made to increase awareness regarding depression and suicide in Saudi Arabia. Nawal Al-Hawsawi, a counseling psychologist, arranged a Twitter conference last month in order to discuss the causes and symptoms of depression in addition to dedicating a hashtag in Arabic, which translates as “You are not alone!, to support people with suicidal tendencies.
In this conference, Sheikh Suleiman Al-Tarify, a cleric in the Saudi Ministry of Islamic Affairs, stated that it is wrong to assume that suicide attempts result from lack of faith. He said that those who are suicidal should get the appropriate psychological and medical treatment in addition to being guided spiritually. Although this statement is not widely accepted, it can still be considered a huge leap forward in understanding depression and people with suicidal tendencies.
Until recently, it was a taboo to talk about suicide in Saudi Arabia as well as in many Islamic countries because many people assumed that we as “righteous” Muslims do not commit suicide and if someone did, he was deemed to be an apostate regardless of his mental condition. Depression, which is one of the leading causes of suicide, was and still is judged by some people as the first sign of weakness in character and faith in God. The paradox is that some of those who condemn suicide victims condone suicide attacks as if killing others is justifiable while being depressed to the point of suicide is a sign of “cowardice” that deserves condemnation!
Ironically, the population of the Middle East and North Africa has one of the highest rates of clinical depression around the world along with some countries in Sub-Saharan Africa and Eastern Europe. These were the results of a study conducted last year at Australia’s University of Queensland and published in PLOS Medicine journal. By using preexisting data, researchers found that most developed countries actually have lower rates of depression than most developing countries. Unsurprisingly, Afghanistan and Palestine have recorded the highest depression rates worldwide.
In this case, depression is not meant to be the “blues” that almost everyone experiences at some point in their life as a result of going through difficult times or after the death of a loved one. The depression rate studied in the research mentioned earlier is “clinical depression”, which according to the World Health Organization is “a mental disorder, characterized by sadness, loss of interest or pleasure, feelings of guilt or low self-worth, disturbed sleep or appetite, feelings of tiredness, and poor concentration”. It occurs as a result of decreased levels of two chemicals in the brain and is caused by genetic predisposition, social factors, physical illness or age. Accordingly, high depression rates in the study have little to do with faith and more with social injustice, political conflicts and the horrors of war.
Fortunately, most patients who receive proper psychological and medical treatment recover from depression. In addition, just as chemicals in the brain can affect a person’s attitude toward life, positive reinforcement and faith can be a significant factor in improving the chances of recovery for people who suffer from depression and get the proper treatment. According to research conducted at Wayne State University, there is a positive correlation between patients’ faith and improved emotional and physical rehabilitation outcomes. Believing in a benevolent, loving higher power is a source of power to those who feel completely hopeless and helpless.
Also, religious scriptures can provide consolation to many people who read them. For Muslims, the Holy Qur’an contains many versus and stories, such as the story of Yusuf (peace be upon him), which could be a source of hope and an inspiration to triumph after suffering from great oppression. This cannot happen though if people feel condemned and rejected by their faith because in that case religion could contribute to a further worsening of their condition.
The least we can do is to recognize depression as an illness and to sympathize with those who suffer from it in order to help them get better and hopefully not to be suicidal. September 10 was World Suicide Prevention Day and for once everyone’s goal is to prevent suicide. However, it cannot be achieved through intimidation and narrow-mindedness, but rather it should be achieved by providing unconditional support and love, so we are better able to help those who are silently suffering. In this way, we can help in creating a more sympathetic environment where patients can seek psychological and medical treatment without feeling ashamed or stigmatized.

By Nawar Fakhry Ezzi, published in Saudi Gazette, September 11th 2014.

Courtesy of Saudi Gazette.

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Is it the era of racing for colliders physics? https://islam-science.net/is-it-the-era-of-racing-for-colliders-physics-3133/ Tue, 02 Sep 2014 09:28:36 +0000 http://islam-science.net/?p=3133 This question may be brought to mind after China’s announcementthis year that they plan to build a super collider. This announcement came after decades of the leading of Europe and the United States for the high-energy particle colliders community.

To read more, download full article here

By Safinaz Salem.

Safinaz Salem is demonstrator at Al-Azhar University, Faculty of Science, Special Physics Department, Cairo, Egypt.

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