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Monday, April 15, 2019

ASSIGNMENT No. 01 Foundation of Science Education (8627)


SOLVED ASSIGNMENT No. 01
Foundation of Science Education (8627) B.Ed (1.5 Years)
Spring, 2018

Q. 1  Explore the relationship between Modern Science and Fiqah in Islam. Give your views with evidence in this regard.                                                                                 (20)

Science and technology is a growing field in Pakistan and has played an important role in the country's development since its founding. Pakistan has a large pool of scientists, engineers, doctors, and technicians assuming an active role in science and technology. Liaquat Ali Khan the first Prime Minister of Pakistan (in office 15 August 194716 October 1951), made various reforms to initiate improvement in higher education and scientific research.

The majority of research publications in Pakistan have been in the field of chemistry, with the International Center for Chemical and Biological Sciences under the leadership of Prof. Atta-ur-Rahman FRS playing the lead role.Physics (theoretical, nuclear, particle, laser, and quantum physics), material science, metallurgy (engineering), biology, and mathematics, are some of the other fields in which Pakistani scientists have contributed. From the 1960s and onwards, the Pakistani government made the development and advancement of science a national priority and showered top scientists with honours. While the government has made efforts to make science a part of national development, there have been criticisms of federal policies, such as the government's dissolution of the Higher Education Commission of Pakistan (HEC)— an administrative body that supervised research in science — in 2011. This attempted dissolution failed to materialise because of a Supreme Court of Pakistan decision on a petition filed by Prof. Atta-ur-Rahman, former Federal Minister of Science & technology and former founding Chairman of the Higher Education Commission.Pakistani scientists have also won acclaim in mathematics and in several branches of physical science, notably theoretical and nuclear physics, chemistry, and astronomy. Professor Abdus Salam, a theoretical physicist won the Nobel Prize in Physics in 1979, being the first and only Pakistani to date to have received the honor.

Technology is most highly developed in nuclear physics and explosives engineering, where the arms race with India convinced policy makers to set aside sufficient resources for research. Due to a programme directed by Munir Ahmad Khan and the Pakistan Atomic Energy Commission (PAEC), Pakistan is the seventh nation to have developed an atomic bomb, which the global intelligence community believes it had done by 1983 (see Kirana-I), nine years after India (see Pokhran-I). Pakistan first publicly tested its devices (see Chagai-I and Chagai-II) on 28 and 30 May 1998, two weeks after India carried out its own tests. Space exploration was hastily developed, in 1990 Pakistan launched Badr-1 followed by Badr-II in 2001. Since the 1980s, the space programme dedicated itself to military technologies (Space weapons programme and Integrated missile systems), and maintains a strong programme developed for military applications.

State controlled science

Unlike some Western countries, the majority of the research programmes are conducted not at the institutions (such as universities) but at specially set up research facilities and institutes. These institutes are performed under the government's Ministry of Science that overlooks the development and promotion of science in the country, while others are performed under the Pakistan Academy of Sciences, other specialized academies and even the research arms of various government ministries. At first, the core of fundamental science was the Pakistan Academy of Sciences, originally set up in 1953 and moved from Karachi to Islamabad in 1964. The Pakistan Academy of Sciences has a large percentage of researchers in the natural sciences, particularly physics. From 1947 to 1971, the research was being conducted independently with no government influence. The High Tension Laboratories (HTL) at the Government College University, Lahore (GCU) was established by R. M. Chaudhry with funds given by the British government in the 1950s. In 1967, Professor Abdus Salam led the foundation of the Institute of Theoretical Physics (ITP) at the Quaid-e-Azam University, and the establishment of the Pakistan Institute of Nuclear Science and Technology (PINSTECH) and the Centre for Nuclear Studies; all were independently established by Pakistan's academic scientists with financial assistance provided by European countries. However, after Zulfikar Ali Bhutto became President, he took control of scientific research in 1972 as part of his intensified socialist reforms and policies. With advice taken from Dr. Mubashir Hassan, Bhutto established the Ministry of Science with Ishrat Hussain Usmani, a bureaucrat with a doctorate in atomic physics.

During the 1950s and 1960s, both West Pakistan and East Pakistan had their own academies of science, with the East Pakistan relying on West Pakistan to allot the funds.[4] Medical research is coordinated and funded by the Health Ministry and agricultural research is led by Agriculture Ministr and likewise, the research on environmental sciences is headed by the Environment Ministry.

An aftermath of the 1971 Indo-Pakistan Winter War was that President Bhutto increased scientific funding by the Government by more than 200%, mostly dedicated to military research and development. Bhutto, with the help of his Science Adviser Dr. Salam, gathered hundreds of Pakistani scientists working abroad to develop what became Pakistan's atom bomb. This crash programme was directed at first by Dr. Abdus Salam until 1974, and then directed and led by Dr. Munir Ahmad Khan from 1974 until 1991. For the first time an effort was made by the government when Pakistan's citizens made advancements in nuclear physics, theoretical physics and mathematics. In the 1980s, General Muhammad Zia-ul-Haq radicalized science by enforcing pseudoscience - by his Muslim fundamentalists as administrators - in Pakistan's schools and universities. One of the premiers were Mazhar Mahmood Qurashi, a physicist educated in the United Kingdom, and Sultan Bashiruddin Mahmood, a nuclear engineer, also educated in the UK. They played a major role in radicalizing science in Pakistan.

Export the sensitive industrial

Zia-ul-Haq later promoted Dr. Abdul Qadeer Khan to export the sensitive industrial (military) technologies to Libya, Iran, and North Korea. Because of government control, academic research in Pakistan remains highly classified and unknown to the international scientific community. There have been several failed attempts made by foreign powers to infiltrate the country's research facilities to learn how much research has progressed and how much clandestine knowledge has been gained by Pakistan's scientists. One of the notable cases was in the 1970s, when the Libyan intelligence made an unsuccessful attempt to gain knowledge on critical aspects of nuclear technology, and crucial mathematical fast neutron calculations in theoretical physics. It was thwarted by the ISI Directorate for Joint Intelligence Technical (JIT). From the 1980s and onward, both Russian intelligence and the Central Intelligence Agency made several attempts to access Pakistan's research but because of the ISI, they were unable to gain any information. From the period 1980 to 2004, research in science fell short until General Pervez Mushrraf established the Higher Education Commission (HEC) which heightened the contribution of science and technology in Pakistan. Major research was undertaken by Pakistan's institutes in the field of natural sciences. In 2003, the Ministry of Science and Technology of the Government of Pakistan and the United States Department of State signed a comprehensive Science and Technology Cooperation Agreement that established a framework to increase cooperation in science, technology, engineering and education for mutual benefit and peaceful purposes between the science and education communities in both countries. In 2005, the United States Agency for International Development (USAID) joined with the Ministry of Science and Technology (MOST) and the Higher Education Commission of Pakistan to support the joint Pakistan-U.S. Science and Technology Cooperation Program. Beginning in 2008, the U.S. Department of State joined USAID as U.S. co-sponsor of the program. This program, which is being implemented by the National Academy of Sciences on the U.S. side, is intended to increase the strength and breadth of cooperation and linkages between Pakistan scientists and institutions with counterparts in the United States. However, with unfavourable situations,[clarification needed] research declined. In 2011, the government dissolved the HEC and the control of education was taken over by governmental ministries.



Q. 2  Why there is a decline of Science and technology in Muslim world nowadays?        (20)

Muslim scholars calculated the angle of the ecliptic; measured the size of the Earth; calculated the precession of the equinoxes; explained, in the field of optics and physics, such phenomena as refraction of light, gravity, capillary attraction, and twilight; and developed observatories for the empirical study of heavenly bodies. They made advances in the uses of drugs, herbs, and foods for medication; established hospitals with a system of interns and externs; discovered causes of certain diseases and developed correct diagnoses of them; proposed new concepts of hygiene; made use of anesthetics in surgery with newly innovated surgical tools; and introduced the science of dissection in anatomy.
Muslims furthered the scientific breeding of horses and cattle; found new ways of grafting to produce new types of flowers and fruits; introduced new concepts of irrigation, fertilization, and soil cultivation; and improved upon the science of navigation. In the area of chemistry, Muslim scholarship led to the discovery of such substances as potash, alcohol, nitrate of silver, nitric acid, sulfuric acid, and mercury chloride.
Muslims scientists also developed to a high degree of perfection the arts of textiles, ceramics, and metallurgy.” According to a US study published by the American Association for the Advancement of Science in its Journal on 21 February 2007;  ‘Designs on surface tiles in the Islamic world during the Middle Ages revealed their maker’s understanding of mathematical concepts not grasped in the West until 500 years later. Many Medieval Islamic buildings walls have ornate geometric star and polygon or ‘girih’, patterns, which are often overlaid with a swirling network of lines – This girih tile method was more efficient and precise than the previous approach, allowing for an important breakthrough in Islamic mathematics and design.’

Muslims Scholars of Theology and Science:


According to the famous scientist Albert Einstein; “Science without religion is lame. Religion without science is blind.” Francis Bacon, the famous philosopher, has rightly said that a little knowledge of science makes you an atheist, but an in-depth study of science makes you a believer in God. A critical analysis reveals that most of Muslim scientists and scholars of medieval period were also eminent scholars of Islam and theology. The earlier Muslim scientific investigations were based on the inherent link between the physical and the spiritual spheres, but they were informed by a process of careful observation and reflection that investigated the physical universe.

Influence of Qur’an on Muslims Scientists:


The worldview of the Muslims scientists was inspired by the Qur’an and they knew that: “Surely, In the creation of the heavens and the earth; in the alternation of the night and the day, in the sailing of the ships through the ocean for the profit of mankind; in the rain which Allah sends down from the skies, with which He revives the earth after its death and spreads in it all kinds of animals, in the change of the winds and the clouds between the sky and the earth that are made subservient, there are signs for rational people.”(Qur’an;2:164). “Indeed in the alternation of the night and the day and what Allah has created in the heavens and the earth, there are signs for those who are God fearing.”(Qur’an;10:6). They were aware that there was much more to be discovered. They did not have the precise details of the solar and lunar orbits but they knew that there was something extremely meaningful behind the alternation of the day and the night and in the precise movements of the sun and the moon as mentioned in Qur’an: One can still verify that those who designed the dome and the minaret, knew how to transform space and silence into a chanting remembrance that renews the nexus between God and those who respond to His urgent invitation.

Famous Muslim Scientists and Scholars:


The traditional Islamic institutions of learning produced numerous great theologians, philosophers, scholars and scientists. Their contributions in various fields of knowledge indicate the level of scholarship base developed among he Muslims one thousand years ago. Only few are being mentioned here:

Chemistry:

Jabir ibn Hayyan, Abu Musa (721-815), alchemist known as the “father of chemistry.” He studied most branches of learning, including medicine. After the ‘Abbasids defeated the Umayyads, Jabir became a court physician to the ‘Abbasid caliph Harun ar-Rashid. Jabir was a close friend of the sixth Shi’ite imam, Ja’far ibn Muhammad, whom he gave credit for many of his scientific ideas.

Mathematics, Algebra, Astronomy & Geography:

Al-Khwarizmi (Algorizm) (770–840 C.E) was a researcher of mathematics, algorithm, algebra, calculus, astronomy & geography. He compiled astronomical tables, introduced Indian numerals (which became Arabic numerals), formulated the oldest known trigonometric tables, and prepared a geographic encyclopaedia in cooperation with 69 other scholars.

Physics, Philosophy, Medicine:

Ibn Ishaq Al-Kindi (Alkindus) (800–873 C.E) was an intellectual of philosophy, physics, optics, medicine, mathematics & metallurgy. Ali Ibn Rabban Al-Tabari(838–870 C.E) was a scholar in medicine, mathematics, calligraphy & literature. Al-Razi (Rhazes) (864– 930 C.E), a physical and scientist of medicine, ophthalmology, smallpox, chemistry & astronomy.

Ar-Razi’s two most significant medical works are the Kitab al-Mansuri, which became well known in the West in Gerard of Cremona’s 12th-century Latin translation; and ‘Kitab al-hawi’, the “Comprehensive Book”. Among his numerous minor medical treatises is the famed Treatise on the Small Pox and Measles, which was translated into Latin, Byzantine Greek, and various modern languages.

Al-Farabi (Al-Pharabius) (870- 950 C.E) excelled in sociology, logic, philosophy, political science & music. Abu Al-Qasim Al-Zahravi (Albucasis; 936 -1013 C.E) was an expert in surgery & medicine known as the father of modern surgery.

Ibn Al-Haitham (Alhazen) (965-1040 C.E); was the mathematician and physicist who made the first significant contributions to optical theory since the time of Ptolemy (flourished 2nd century). In his treatise on optics, translated into Latin in 1270 as Opticae thesaurus Alhazeni libri vii, Alhazen published theories on refraction, reflection, binocular vision, focusing with lenses, the rainbow, parabolic and spherical mirrors, spherical aberration, atmospheric refraction, and the apparent increase in size of planetary bodies near the Earth’s horizon. He was first to give an accurate account of vision, correctly stating that light comes from the object seen to the eye.

Abu Raihan Al-Biruni (973-1048 C.E); was a Persian scholar and scientist, one of the most learned men of his age and an outstanding intellectual figure. Al-Biruni’s most famous works are Athar al-baqiyah (Chronology of Ancient Nations); at-Tafhim (“Elements of Astrology”); al-Qanun al-Mas’udi (“The Mas’udi Canon”), a major work on astronomy, which he dedicated to Sultan Mas’ud of Ghazna; Ta’rikh al-Hind (“A History of India”); and Kitab as-Saydalah, a treatise on drugs used in medicine. In his works on astronomy, he discussed with approval the theory of the Earth’s rotation on its axis and made accurate calculations of latitude and longitude. He was the first one to determine the circumference earth. In the filed of physics, he explained natural springs by the laws of hydrostatics and determined with remarkable accuracy the specific weight of 18 precious stones and metals. In his works on geography, he advanced the daring view that the valley of the Indus had once been a sea basin.

Ibn Sina (Avicenna, 981–1037 C.E); was a scientist of medicine, philosophy, mathematics & astronomy. He was particularly noted for his contributions in the fields of Aristotelian philosophy and medicine. He composed the Kitab ash-shifa` (“Book of Healing”), a vast philosophical and scientific encyclopedia, and the Canon of Medicine, which is among the most famous books in the history of medicine.

Ibn Hazm, (994-1064 C.E) was a Muslim litterateur, historian, jurist, and theologian of Islamic Spain. One of the leading exponents of the Zahiri (literalist) school of jurisprudence, he produced some 400 works, covering jurisprudence, logic, history, ethics, comparative religion, and theology, and The Ring of the Dove, on the art of love.
Al-Zarqali (Arzachel) (1028-1087 C.E); an astronomer who invented astrolabe (an instrument used to make astronomical measurements). Al-Ghazali (Algazel) (1058-1111 C.E); was a scholar of sociology, theology & philosophy.

Ibn Zuhr (Avenzoar) (1091-1161 C.E); was a scientist and expert in surgery & medicine.

Ibn Rushd (Averroes) (1128- 1198 C.E); excelled in philosophy, law, medicine, astronomy & theology.

Nasir Al-Din Al-Tusi (1201-1274 C.E); was the scholar of astronomy and Non-Euclidean geometry.
Geber (flourished in 14th century Spain) is author of several books that were among the most influential works on alchemy and metallurgy during the 14th and 15th centuries. A number of Arabic scientific works credited to Jabir were translated into Latin during the 11th to 13th centuries. Thus, when an author who was probably a practicing Spanish alchemist began to write in about 1310. Four works by Geber are known: Summa perfectionis magisterii (The Sum of Perfection or the Perfect Magistery, 1678), Liber fornacum (Book of Furnaces, 1678), De investigatione perfectionis (The Investigation of Perfection, 1678), and De inventione veritatis (The Invention of Verity, 1678).

They are the clearest expression of alchemical theory and the most important set of laboratory directions to appear before the 16th century. Accordingly, they were widely read and extremely influential in a field where mysticism, secrecy, and obscurity were the usual rule. Geber’s rational approach, however, did much to give alchemy a firm and respectable position in Europe. His practical directions for laboratory procedures were so clear that it is obvious he was familiar with many chemical operations. He described the purification of chemical compounds, the preparation of acids (such as nitric and sulfuric), and the construction and use of laboratory apparatus, especially furnaces. Geber’s works on chemistry were not equaled in their field until the 16th century with the appearance of the writings of the Italian chemist Vannoccio Biringuccio, the German mineralogist Georgius Agricola, and the German alchemist Lazarus Ercker.
Muhammad Ibn Abdullah (Ibn Battuta) (1304-1369 C.E); was a world traveler, he traveled 75,000 mile voyage from Morocco to China and back. Ibn Khaldun(1332-1395 C.E) was an expert on sociology, philosophy of history and political science.
Tipu, Sultan of Mysore (1783-1799 C.E) in the south of India, was the innovator of the world’s first war rocket. Two of his rockets, captured by the British at Srirangapatana, are displayed in the Woolwich Museum of Artillery in London. The rocket motor casing was made of steel with multiple nozzles. The rocket, 50mm in diameter and 250mm long, had a range performance of 900 meters to 1.5 km.
Turkish scientist Hazarfen Ahmet Celebi took off from Galata tower and flew over the Bosphorus, two hundred years before a comparable development elsewhere.  Fifty years later Logari Hasan Celebi, another member of the Celebi family, sent the first manned rocket into upper atmosphere, using 150 okka (about 300 pounds) of gunpowder as the firing fuel.

Contribution of Great Muslim Women & Scholars:

Islam does not restrict acquisition of knowledge to men only, the women are equally required to gain knowledge. Hence many eminent women have contributed in different fields. Aishah as-Siddiqah (the one who affirms the Truth), the favourite wife of Propeht Muhammad (peace be upon him), is regarded as the best woman in Islam. Her life also substantiates that a woman can be a scholar, exert influence over men and women and provide them with inspiration and leadership. Her life is also an evidence of the fact that the same woman can be totally feminine and be a source of pleasure, joy and comfort to her husband. The example of Aishah in promoting education and in particular the education of Muslim women in the laws and teachings of Islam is one which needs to be followed. She is source of numerous Hadith and has been teaching eminent scholars. Because of the strength of her personality, she was a leader in every field in knowledge, in society and in politics.
Sukayna (also “Sakina), the great granddaughter of the Prophet (peace be upon him), and daughter of Imam Husain was the most brilliant most accomplished and virtuous women of her time. She grew up to be an outspoken critic of the Umayyads. She became a political activist, speaking against all kinds of tyranny and personal, social and political iniquities and injustice. She was a fiercely independent woman. She married more than once, and each time she stipulated assurance of her personal autonomy, and the condition of monogamy on the prospective husband’s part, in the marriage contract. She went about her business freely, attended and addressed meetings, received men of letters, thinkers, and other notables at her home, and debated issues with them. She was an exceedingly well-educated woman who would take no nonsense from anyone howsoever high and mighty he or she might be.

Um Adhah al-Adawiyyah (d. 83 AH), reputable scholar and narrator of Hadith based on reports of Ali ibn Abu Talib and Ayesha; Amrah bint Abd al-Rahman (d. 98 AH), one of the more prominent students of Ayesha and a known legal scholar in Madina whose opinions overrode those of other jurists of the time; Hafsa bint Sirin al-Ansariyyah (d. approx. 100 AH), also a legal scholar. Amah al-Wahid (d. 377 AH), noted jurist of the Shafaii school and a mufti in Baghdad; Karimah bint Ahmad al-Marwaziyyah (d. 463 AH), teacher of hadith (Sahih Bukhari); Zainab bint Abd al-Rahman (d. 615 AH), linguist and teacher of languages in Khorasan. Zainab bint Makki (d. 688 AH) was a prominent scholar in Damascus, teacher of Ibn Taimiya, the famous jurist of the Hanbali school; Zaynab bint Umar bin Kindi (d. 699 AH), teacher of the famous hadith scholar, al-Mizzi; Fatima bint Abbas (d. 714 AH), legal scholar of the Hanbali school, mufti in Damascus and later in Cairo; Nafisin bint al Hasan taught hadith; Imam Shafaii sat in her teaching circle at the height of his fame in Egypt. Two Muslim women — Umm Isa bint Ibrahim and Amat al-Wahid — served as muftis in Baghdad. Ayesha al-Banniyyah, a legal scholar in Damascus, wrote several books on Islamic law. Umm al-Banin (d. 848 AH/ 1427 CE) served as a mufti in Morocco. Al Aliyya was a famous teacher whose classes men attended before the noon prayer (Zuhr) and women after the afternoon prayer (Asr). A Muslim woman of the name of Rusa wrote a textbook on medicine, and another, Ujliyyah bint al-Ijli (d. 944 CE) made instruments to be used by astronomers. During the Mamluk period in Cairo (11th century) women established five universities and 12 schools which women managed.

Rabi’a al-Adawiyya al-Basri (717 C.E), is honored as one of the earliest and greatest sufis in Islam. Orphaned as a child, she was captured and sold into slavery. But later her master let her go. She retreated into the desert and gave herself to a life of worship and contemplation. She did not marry, and to a man who wanted her hand she said: “I have become naught to self and exist only through Him. I belong wholly to Him. You must ask my hand of Him, not of me.” She preached unselfish love of God, meaning that one must love Him for His own sake and not out of fear or hope of rewards. She had many disciples, both men and women.
Zubaida (Amatal Aziz bint Jafar), the favourite wife of  Harun al-Rashid, the legendary Abassid caliph. She came to be an exceedingly wealthy woman, a billionaire so to speak, independently of her husband. Granddaughter of Al-Mansur, she grew up to be a lady of dazzling beauty, articulate and charming of speech, and great courage. Discerning and sharp, her wisdom and insightfulness inspired immediate admiration and respect. In her middle years she moved out of the royal “harem” and began living in a huge palace of her own. She owned properties all over the empire which dozens of agents in her employ managed for her. A cultivated woman, pious and well acquainted with the scriptures, Zubaida was also a poetess and a patron of the arts and sciences. She allocated funds to invite hundreds of men of letters, scientists, and thinkers from all over the empire to locate and work in Baghdad. She spent much of her funds for public purposes, built roads and bridges, including a 900-mile stretch from Kufa to Makkah, and set up, hostels, eating places, and repair shops along the way, all of which facilitated travel and encouraged enterprise. She built canals for both irrigation and water supply to the people. She spent many millions of Dinars on getting a canal built, that went through miles of tunnel through mountains, to increase the water supply in Makkah for the benefit of pilgrimages. She took a keen interest in the empire’s politics and administration. The caliph himself sought her counsel concerning the affairs of state on many occasions and found her advice to be eminently sound and sensible. After Harun’s death, his successor, Al Mamun, also sought her advice from time to time. She died in 841 C.E (32 years after Harun’s death).

Arwa bint Ahmad bin Mohammad al-Sulayhi (born 1048 C.E) was the ruling queen of Yemen for 70 years (1067-1138 C.E), briefly, and that only technically, as a co-ruler with her two husbands, but as the sole ruler for most of that time. She is still remembered with a great deal of affection in Yemen as a marvellous queen. Her name was mentioned in the Friday sermons right after that of the Fatimid caliph in Cairo. She built mosques and schools throughout her realm, improved roads, took interest in agriculture and encouraged her country’s economic growth. Arwa is said to have been an extremely beautiful woman, learned, and cultured. She had a great memory for poems, stories, and accounts of historical events. She had good knowledge of the Qur’an and Sunnah. She was brave, highly intelligent, devout, with a mind of her own. She was a Shi’a of the Ismaili persuasion, sent preachers to India, who founded an Ismaili community in Gujarat which still thrives. She was also a competent military strategist. At one point (1119 C.E) the Fatimid caliph sent a general, Najib ad-Dowla, to take over Yemen. Supported by the emirs and her people, she fought back and forced him to go back to Egypt. She died in 1138 C.E at the age of 90. A university in Sana’a is named after her, and her mausoleum in Jibla continues to be a place of pilgrimage for Yemenis and others. The other eminent ladies who played important role in the affairs of state and philanthropy include, Buran the wife of Caliph Mamun. Among the Mughals Noor Jehan, Zaib un Nisa left their mark in Indian history. Razia Sultan was an other eminent women ruler in India.

Influence of Islamic Learning in Reviving Western Civilization:


While Muslims were excellilng in the field of knowledge and learning of science and technology, the conditions of Christendom at this period was deplorable. Under Constantine and his orthodox successors the Aesclepions were closed for ever, the public libraries established by liberality of the pagan emperors were dispersed or destroyed. Learning was branded as magic and punished as treason, philosophy and science were exterminated. The ecclesiastical hatred against human learning had found expression in the patristic maxims; “Ignorance is the mother of devotion” and Pope Gregory the Great the founder of the doctrine of ‘supremacy of religious authority’; gave effect to this obscurantist dogma by expelling from Rome all scientific studies and burning the Palatine Library founded by Augustus Caesar. He forbade the study of ancient writers of Greece and Rome. He introduced and sanctified the mythological Christianity which continued for centuries as the predominating creed of Europe with its worship of relics and the remains of saints. Science and literature were placed under the ban by orthodox Christianity and they succeeded in emancipating themselves only when Free Thought had broken down the barriers raised by orthodoxy against the progress of the human mind.
Q. 3  Explain the relationship between science and philosophy.           (20)

The distinction between philosophy and science is very slim, but there are distinctions nonetheless. Many people assume that science and philosophy are contradictory concepts to each other, but both subjects share a more positive relationship rather than an animosity.

Science can be defined as a study and understanding of natural phenomena. It is concerned with empirical data, meaning data that can be observed, tested, and repeated. It is systematic in nature, and there is a specific course of action used called the scientific method. Science bases its explanation on the results of experiments, objective evidence, and observable facts.

Science came from the Latin word “scientia,” meaning “knowledge.” There are many branches or fields of science. These branches can be classified under various headings: pure and applied sciences, physical and life sciences, Earth and space sciences. Also included in these classifications are exact and descriptive science.

Science started out as a part of philosophy. It was then called natural philosophy, but science emerged and deviated from philosophy in the 17th century as a separate study or domain. Science involves objective types of questions. As a study, it tries to find answers and prove them to be objective fact or truth. In its method, the experiment creates certain hypotheses which can be proven or validated as fact. In the same manner, hypotheses can also be wrong or falsified. By observing and undertaking the experiment, science produces knowledge by observation. Science’s main purpose is to extract the objective truth out of existing or naturally occurring ideas.

Science’s “predecessor,” philosophy, is a more difficult concept to define. It is broadly defined as an activity that uses reason to explore issues in many areas. Its application to many different fields makes it impossible to have a definite and concrete definition.

Philosophy tries to study and understand the fundamental nature of two things: the existence of man and the relationship between the man and existence. It also has branches: metaphysics, logic, politics, epistemology, ethics, aesthetics, and specific philosophy in the fields like the philosophy of language, history, the mind, religion, and others. Philosophy comes from the Greek word “philosophia” which translates as “love of wisdom.”

Philosophy is based on reason. Its methods use logical argumentation. Philosophy uses arguments of principles as basis for its explanation.
Philosophy entertains both subjective and objective type of questions. It means that aside from finding answers, it also resolves to generate questions. It raises question and processes before finding out the answers. . Philosophy is mostly involved with thinking and to create knowledge.

Summary:

1.Philosophy and science are two studies and domains. Philosophy came first and became the basis for science, formerly known as natural philosophy. Both studies have many branches or fields of study and makes use reasoning, questioning and analysis. The main difference is how they work and treat knowledge.

2.Science is concerned with the natural phenomena while philosophy attempts to understand the nature of man, existence and the relationship that exists between the two concepts.

3.Science came from a Latin word (scientia), meanwhile, philosophy traces back to a Greek word (philosophia).

4.Another common element between the two studies is that they try to explain situations and find answers. Philosophy does this by using logical argumentation while science uses empirical data. Philosophy’s explanations are grounded in arguments of principles while science tries to explain from experiment results, observable facts and objective evidence.

5.Science is used for instances that require empirical validation while philosophy is used for situations where measurements and observations cannot be applied. Science also takes answers and proves them as objective right or wrong.

6.Subjective and objective questions are involved in philosophy while only some of objective questions can be related in science. Philosophy also involves generating questions aside from finding answers. Meanwhile, while science is only involved in the latter activity.

7.Philosophy creates knowledge by thinking. On the other hand, science does the same thing by observing. 8.Science is also a defined study, in contrast to philosophy which can be applied to many and extensive areas of discipline.

Figuratively speaking, science is best likened to the human mind while philosophy is to the human heart. Science, in general, seeks to understand natural phenomena. It is more concerned on empirical evidences and testable hypotheses. By “empirical,” it means “that which can be observed or experimented on.” By contrast, philosophy is vaguer. Defining it in one concrete sentence may not define it entirely. However, broadly speaking, philosophy is a school of thought that utilizes reasoning to uncover issues concerning metaphysics, logic, epistemology, language, ethics, aesthetics, and other disciplines.

So how can philosophy help clarify or explain the issues at hand? As such, philosophy helps address inquiries that couldn’t be answered simply by experimentation and observation. It bases its explanations from the argument of principles. Science, using its scientific methodology, is able to acquire more knowledge because of experimentation and observation. It bases its explanation from facts that have been observed. Philosophy uses questioning and a series of analyses through logical arguments and dialectics. Thus, philosophy works by using reason-based logical analysis. Science is different because it makes use of hypothesis testing that is empirically based. This difference in process enables both to work interdependently thereby updating each other of their individual progresses.

Philosophy improves, abandons, or objects to certain notions or philosophical positions such as present-day concepts (i.e. utilitarianism) as no longer 100% identical compared to their original sense when they were first conceptualized. It demonstrates principles that must be correct. These principles are not really entirely correct or true but it MUST be true. It even shows people how to act. Similarly, science has theories that seem to have no clear end in terms of improvisation or argumentation. A good example is the ever-growing arguments surrounding Charles Darwin’s “Theory of Evolution.”

Q. 4  Give similarities and differences between inductive and deductive reasoning. How far are they used in science education with reference to Pakistan?                           (20)

Inductive and deductive reasoning are often confused. This lesson introduces the concept of reasoning and gives you tips and tricks to keeping inductive and deductive reasoning straight.

Using Reasoning

Andrew and Kevin are studying for their upcoming speech final. They have to define inductive and deductive reasoning and provide examples of each. Kevin says he has a great example for deductive reasoning: 'Every time it hails, I get a dent in my car. Every time it hails, my dad gets a dent in his car. Every time it hails, my brother gets a dent in his car. Every time it hails, everyone will get a dent in their cars.'
Andrew says that Kevin does not have an example of deductive reasoning, but it is better as an example for inductive reasoning. Who is right?
In this lesson, you will learn about the concept of reasoning and how it is used in conjunction with logic for inductive and deductive arguments.

Reasoning and Logic

First, let's discuss the concept of reasoning. Reasoning is the action of constructing thoughts into a valid argument. This is something you probably do every day. When you make a decision, you are using reasoning, taking different thoughts and making those thoughts into reasons why you should go with one option over the other options available. When you construct an argument, that argument will be either valid or invalid. A valid argument is reasoning that is comprehensive on the foundation of logic or fact.
Now let's discuss propositional logic. Inductive and deductive reasoning are both forms of propositional logic. Propositional logic is the branch of logic that studies ways of joining and/or modifying entire propositions, statements or sentences to form more complicated propositions, statements or sentences. For our purposes, this means that propositional logic uses a series of facts and reasoning to develop a conclusion. Inductive and deductive reasoning use propositional logic to develop valid arguments based on fact and reasoning. Both types of reasoning have a premise and a conclusion. How each type of reasoning gets to the conclusion is different.

Inductive Reasoning

Inductive reasoning is reasoning where the premises support the conclusion. The conclusion is the hypothesis, or probable. This means that the conclusion is the part of reasoning that inductive reasoning is trying to prove. Inductive reasoning is also referred to as 'cause and effect reasoning' or 'bottom-up reasoning' because it seeks to prove a conclusion first. This is usually derived from specific instances to develop a general conclusion.
Kevin and Andrew are now arguing about math. Kevin says that all big brothers are good at math. Andrew is an only child, but he's pretty sure that this argument cannot be valid.
Kevin makes a conclusion based on the following premises: 'My older brother is good at math. My friend's older brother is good at math. My neighbor's big brother is a math tutor. Therefore, all older brothers are good at math.'
You've probably heard people use this type of reasoning in life. We know this can't be true. You probably know that being an older brother doesn't inherently make you good at math. What Kevin has done is made a generalized conclusion: all older brothers are good at math based on three premises of specific instances: Mine, my friend's and my neighbor's older brother are all good at math. These specific instances are not representative of the entire population of older brothers. Because inductive reasoning is based on specific instances, it can often produce weak and invalid arguments.
You can remember inductive reasoning like this: inductive reasoning is bottom-up reasoning; it starts with a probable conclusion and induces premises.
The process of thinking about something, in a rational manner, so as to draw valid conclusions, is known as Reasoning. It is a daily activity that we use to make decisions, which involves the construction of thoughts and converting them into a proposition to give reasons on why we have opted for a particular alternative over the other.Reasoning (logic) can take two forms – inductive reasoning or deductive reasoning. The inductive reasoning follows a particular flow or behaviour so as to make inferences
Conversely, deductive reasoning uses available information, facts or premises to arrive at a conclusion. These two logics are exactly opposite to each other. Still, they are often juxtaposed due to lack of adequate information. In this article, we are going to tell you the basic differences between inductive and deductive reasoning, which will help you to understand them better.

Comparison Chart


BASIS FOR COMPARISON
INDUCTIVE REASONING
DEDUCTIVE REASONING
Meaning
Inductive Reasoning connotes the argument in which the premises give reasons in support of the probable truth of the conjecture.
Deductive reasoning is the fundamental form of valid reasoning, wherein the premises give guarantee of the truth of conjecture.
Approach
Bottom-up approach
Top-down approach
Starting point
Conclusion
Premises
Based on
Patterns or trend
Facts, truths and rules
Process
Observation > Pattern > Tentative Hypothesis > Theory
Theory > Hypothesis > Observation > Confirmation
Argument
May or may not be strong.
May or may not be valid.
Structure
Goes from specific to general
Goes from general to specific
Draws inferences with
Certainity
Probability

Definition of Inductive Reasoning
In research, inductive reasoning alludes to the logical process, in which specific instances or situations are observed or analysed to establish general principles. In this process, the multiple propositions are believed to provide strong evidence, for the truth of the conclusion. It is used to develop an understanding, on the basis of observing regularities, to ascertain how something works.
These are uncertain arguments; that describes the extent to which the conclusions drawn on the basis of premises, are credible.
In inductive reasoning, there are certain possibilities that the conclusion drawn can be false, even if the all the assumptions are true. The reasoning vests on experience and observations that support the apparent truth of the conclusion. Further, the argument can be strong or weak, as it only describes the likelihood of the inference, to be true.

Definition of Deductive Reasoning

Deductive Reasoning means a form of logic in which specific inferences are drawn from multiple premises (general statements). It establishes the relationship between the proposition and conclusion. When all the proposed statements are true, then the rules of deduction are applied and the result obtained is inevitably true.
Deductive logic is based on the fundamental law of reasoning, i.e. if X then Y. It implies the direct application of available information or facts, to come up with new information or facts. In this, the researcher takes into account a theory and generates a hypothesis, which can be tested, after that the observation are recorded, which leads to particular data, which is nothing but the confirmation of validity.

Key Differences between Inductive and Deductive Reasoning

The points provided below, clarifies the difference between inductive and deductive reasoning in detail:

1.       The argument in which the premises give reasons in support of the probable truth of the conjecture is inductive reasoning. The elementary form of valid reasoning, wherein the proposition provide the guarantee of the truth of conjecture, is deductive reasoning.

2.       While inductive reasoning uses the bottom-up approach, deductive reasoning uses a top-down approach.

3.       The initial point of inductive reasoning is the conclusion. On the other hand, deductive reasoning starts with premises.

4.       The basis of inductive reasoning is behaviour or pattern. Conversely, deductive reasoning depends on facts and rules.

5.       Inductive reasoning begins with a small observation, that determines the pattern and develops a theory by working on related issues and establish the hypothesis. In contrast, deductive reasoning begins with a general statement, i.e. theory which is turned to the hypothesis, and then some evidence or observations are examined to reach the final conclusion.

6.       In inductive reasoning, the argument supporting the conclusion, may or may not be strong. On the contrary, in deductive reasoning, the argument can be proved valid or invalid.

7.       Inductive reasoning moves from specific to general. Unlike, deductive reasoning moves from general to particular.

8.       In inductive reasoning, the inferences drawn are probabilistic. As opposed, in deductive reasoning, the generalisation made are necessarily true, if the premises are correct.Conclusion

To sum up, inductive and deductive reasoning are the two kinds of logic, which are used in the field of research to develop the hypothesis, so as to arrive at a conclusion, on the basis of information, which is believed to be true. Inductive reasoning considers events for making the generalization. In contrast, deductive reasoning takes general statements as a base to arrive at an particular conclusion.
Q. 5  Explain the concept of rationalism. How will you apply this concept in your teaching?               (20)
Since the beginning of time, humans have wondered how to answer questions about the world they live in - many people have even gone as far as to make answering these questions their life's work. Sometimes, the most simple questions can be difficult to answer, and sometimes the simplest answer makes the most sense. How often do you think about life's biggest questions? Let's give it a try!

Rationalism as a philosophy is defined as using reason and logic as the reliable basis for testing any claims of truth, seeking objective knowledge about reality, making judgments and drawing conclusions about it. Although rationalism must ultimately rely on sense perceptions, but it must also couple sense perceptions with logic and evidence. To be consistent with logic, the thought process of a rationalist must be free from logical fallacies, catalogued in many introductory books on logic or critical thinking. There is no place for personal bias or emotion in rationalism, although emotion and rationalism are not mutually exclusive, each has its place. More on this later. 



Freethinking, which is sometimes confused with rationalism, is defined as the free forming of views about reality independent of authority or dogma, be it from a divine or human source. If we stick to the strict definitions, then freethinking is not synonymous with rationalism. One need not be strictly rational to be a freethinker. One is allowed the leeway to believe or form any opinion, not necessarily rational (essentially "think as you like"), as long as it is not influenced by existing religious, cultural or traditional dogma or authority. A postmodernist (Read intellectual anarchist) may claim to be a freethinker according to this non-restrictive definition. But rationalism is much more restrictive. It enforces logic and evidence as the guiding principle in thinking and forming opinions and cognition. So although rationalism invariably leads to freethinking, but freethinking does not necessarily imply rationalism, since freethinking may include irrational views, beliefs and personal bias.
Strict mental discipline
Rationalism as a philosophy demands some strict mental discipline that many find hard to implement in their thoughts and actions. Many may not even be aware that they are not being strictly rational. The reason for this is that some mistakenly associate rationalism with certain ideals and outlook that do not necessarily follow from rationalism. Rationalism as a philosophy inevitably leads to scientific method through logic and critical thinking. Therefore a rationalist cannot subscribe a priori to any ideology, political or ideological, nor can a rationalist make statement of truth that is not a strict proposition. So a rationalist cannot claim to be a strict atheist, i.e cannot assert that "God does not exist", since God is not a logically well-defined and meaningful concept, all definitions of God in any religious context runs into contradictions and logical inconsistency. So the existence or non-existence of God are both logically meaningless to a rationalist. 
Rationalism is ruthless, it does not need to pamper to one's emotional need or wishes, or care about political correctness.. In personal life, that means a rationalist has to acknowledge and be critical of the unpleasant facts, if necessary, about one's near and dear ones, if evidence so suggests. Being able to separate facts from personal biases is an essential hallmark of rationalism. By the same token, a rationalist has to acknowledge, and criticize , if need be, the shortcomings of the race, religion or language he/she belongs to, in a detached way, free from personal bias, as well as acknowledge the superiority of another race, religion in a certain aspect, if objective evidence suggests so. Rationalism also does not imply making an a priori assumption that all bad or wrongs are equal, just because political correctness says so. Rationalism demands doing the required homework to quantify and recognize shades in right and wrong in morality and shades of good and bad in attributes by some objective criteria when applicable. This requires intellectual courage and integrity, as it can be potentially incur one the scorn of the majority, for whom the priority is loyalty, pride, patriotism etc. But rationalism does not recognize such mental constructs or sets such priority. It only cares for logic and evidence.

Rationalism does not allow taking a stand just because it is politically correct or popular. Many intellectuals associate the terms liberal, progressive etc with rationalism/freethinking. But liberal, progressive etc are usually understood and judged in the context of which stand one takes vis a vis certain issues, e.g pro-choice in abortion, leftist ideology ij politics, nurturist stand in the nature/nurture debate, a puritanic belief that all bads are equal (i.e cultural and moral relativism) etc. But rationalism does not require one to adopt such positions, and in fact in certain issues,\ may lead to the opposite stand by scientific evidence and logic. I will not dwell at length on the specifics of those scientific evidences in all such cases as it is a topic on its own and I am only interested on the general aspects of rationalism in this essay. A small example may help to illustrate rationalistic approach to an issue. IF we adopt the axiom that ending a "life" is morally wrong,

THEN the act of abortion by definition will be morally wrong, since biology tells us that a fetus has life of its own. There is no value judgement involved, that was a conclusion derived from purely logical inference. (Notice the IF.. THEN.. construct). Whether we should adopt "ending life is morally wrong" as an axiom of course is not dictated by rationalism. But in fact we can derive that axiom from rationalism if we adopt another axiom as more fundamental, for example the axiom that we should do whatever is needed to increases the odds for the survival of human species. In that case rational thinking using evolutionary biology tells us that IF we adopt the precept "ending life is morally wrong", THEN it increases the odds for the survival of human species (Again notice the IF.. THEN.. contruct). Whether we should consider "increasing the odds of the survival of human species" as a moral imperative is of course beyond rationalism. This is an intuitive moral axiom. This example clearly shows that rationalism does have a role in formulating moral precpets, barring the mosr primitive moral axioms. Even humanism, is not strictly derived from rationalism. Humanism follows from rationalism if the postulate "we should put priority on the welfare of maximum number of humans irrespective of race, color, creed, ethnicity etc." is added to rationalism. It must be noted that all religions and dogmas claim human welfare as their goal as well. But what differentiates their view of humanism from rational humanism is that for them, that goal is claimed to be achievable only through the implementation of their dogma. So dogma comes first for them. Not only that, the priority for welfare in most religions and dogmas is reserved for their followers. But rational humanism does not make that distinction. Once humanism is arrived through rationalism, the notions of democracy and secularism follows as corollary.

Asking Life's Biggest Questions

Pop Quiz! What is the meaning of life? Try and answer that question. Ready, set, go! Can you do it? Chances are you may struggle a little bit with answering a question that deep. But why? It's a very simple question…or is it?
What is a Philosophy?

Have you ever stopped to wonder about some of life's other big questions? Well, some very smart people have done this for hundreds of years. They call this the study of philosophy. Philosophy is the study of ideas about knowledge and human existence. In fact, the word philosophy comes from the Greek language and means 'love of wisdom.' Way back in ancient Greece, they had their fair share of philosophers, or people who study philosophy: Plato, Aristotle, and Socrates were some of the most well-known. Ancient Greece was the birthplace of philosophy, and even today, we still use some of the knowledge that came out of their society. Thanks, ancient Greeks!

Rationalism Emerges


In the 17th Century, people started exploring the idea of 'logic', meaning that every question can be answered with a scientific or reasonable explanation. This led to an important branch of philosophy called rationalism. Rationalism focuses on using logic to solve life's BIG questions. Other branches of philosophy use religious thought, emotions, or observations, but rationalism explores philosophy differently. Rationalist philosophers believe that all questions can be answered by thinking about them logically and using reasoning. Have you ever heard someone say something like, 'Try and be rational!' This means, try to be logical, or try do what makes the most sense. Since rational means logical, it isn't a surprise how rationalism got its name, is it?
People who study rationalism constantly ponder the meaning of some of the most basic questions about human life and try to find the most logical explanation. For example: 'What is love?', 'What does it mean to be good or bad?', and 'Where do the stars come from?' Those are some tricky questions! So how do you explain it? Well, over many, many, (many) years, humans have wondered how we can answer life's mysteries. Where do you think all of our answers come 
Let me now clarify what rationalism is not or cannot It is a mistaken to believe that rationalism can solve all problems in life, or prevent them. It cannot. The fact it cannot is because the truth in many situation in life is not always known in advance for one to make the right decision. Rationalism is limited by the knowledge or truth that is needed in making an informed decision to solve or prevent a problem. In an indeterminstic situation intuitive guesses and judgement is inevitable.

And the intuition of rational person is not guaranteed to be right. So in those situations in life where there are unknowns and uncertainties, intuitive guesswork cannot be avoided. Rationalism may offer some guidelines in making the best guesses, but it cannot offer a guarantee for success. For example, rationalism cannot guarantee one will make the right choice in marriage or relationship. Rationalism cannot prevent one from making mistakes in life. Gamble in life cannot be totally averted through rationalism. Risk cannot be either. More generally speaking, from an utilitarian point of view, rationalism is no guarantee to material success in individual life. Rationalism is a principle based on logic and evidence. In an imperfect world, that is not always the sure route to material success. Just like honesty is not. But the value of rationalism goes beyond personal gains or interests. It's value lies in the collective imnprovement of the quality of human life by following rationalistic approach. COnsider the cost human society has paid and is paying in terms of dollars and man hours for believing in dogmas and faiths that have no logic or evodence as its basis.

How much time and resources are being spent towards relgiouis rituals, how much suffering and persecution has enforcement of some cruelst relgious dogmas brought to many decent humans? If majority of a society adopt rationalism as their personal philosophy, then such wastage and social evils could be abolished or minimized. Society would prosper faster then. A common thinking is that morality is beyond rationalism. that is a mistaken view. Although the moral axioms at the bottom of a moral system may have to be assumed arbitrarily based on intuition, once the axioms are accepted, further moral precepts based on those axioms can certainly be rationally analyzed or developed. Rationalism is the product of human mind. So is morality. There is no apriori cause for them to be not connected. In the ultimate analysis since it is the laws of nature that has created human brain and thus rationalism, so it should be in principle possible to formulate a moral system based on the same laws of nature via rationalism. It may have to be an evolutionary process.



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