Title: Module 3
1Module 3
- Science (1500-1700)
- and the participation of women
2Science in the Middle Ages
- Those who studied nature in the Middle Ages were
as preocccupied with the method used to acquire
knowledge as with its application (a complex
dialogue netween utility and practice). - The Muslim thinkers were interested in practical
sciences like medicine and astronomy. - While the Latin thinkers were focussed on the
utilisation of scientific knowledge as a road to
their salvation. (Ede and Cormack, 2004, 76)
3The universities
- Founded in the 12 th century, they created a
space approved by the church while not being
completely under the control of the church. - They had little interest in science, except for a
few like Cambridge (with Newton) and Bologna
(with Laura Bassi). - In Germany, 14 of astronomers were women in the
17th century.
4Scientific revolutionA controversy
- Dobbs challenges a traditional assumption about
the heroes of the Scientific Revolution, namely,
that their thought patterns were fundamentally
just like ours. It is only because they make
this assumption that historians have found it
difficult to explain Keplers Pythagoreanism or
Newtons devotion to alchemy. (Osler)
5Scientific revolutionA controversy
- By making a different assumption, namely that
people have not always viewed the world in the
same way that we do, Dobbs is able to argue that
we can make sense of their diverse interests and
preoccupations.
6Scientific revolutionA controversy
- This is the base of the disagreement between
Westfall and Dobbs. - He assumes that thinkers in the past (during the
revolution) are similar to us and that what is
important for the historian is that aspect of a
thinkers work that has survived until the
present or that has led to our present way of
looking at things. (Osler, 2000, 5) -
7But
- Margaret Jacobs article argues that their Dodds
and Westfall disagreement is badly posed since
it rests on the assumption of who and what made
the revolution. - Margaret Jacob concludes that there was a
scientific revolution, but not the one described
by Dobbs and Westfall. - She argues that this revolution actually occurred
in the 18th c. when the natural philosophers
took-up the physics and mathematics of Newton
while ignoring his alchemical and theological
views. (Osler, 2000, 5)
8Examples of major transformations
- In the 16th and 17th in cosmology and astronomy,
replacing the Aristotle-Ptolemy theory (that the
earth is the centre of the universe) by the
heliocentric theory of Copernicus - The mathematical explanations by Kepler and Brahe
on the movement of the planets. - The development of experimental science with
Galileo, Descartes, and Bacon, and the
mathematical theory proposed by Descartes, and
the physics of gravitation and movement by Newton.
9More
- In medecine, similar developments by Andreas
Vesalius (1514-1564), who, it is said, wrote the
first complete text on human anatomy De Humanis
Corporis Fabrica. - William Harvey (1578-1657) develops a theory of
the heart and of the circulation of the blood
that he publishes in 1628 On the Motion of the
Heart and Blood in Animals. - Blaise Pascal (1623-1662) plays a major role in
the development of experimental science.
(Westfall, 1971, 45)
10The invention of instruments
- Le telescope lead to many discoveries in
astronomy. - The microscope is utilised much in biology and in
botany. - The first precise clock allows to measure time
with great precision. - The thermometer and the barometer.
-
11Exploration
- 15 th and 16th c. are periods of great
explorations. - For example The search for spices and other
exotic foods. - Developments in mines and metallurgy (and
alchemy). - Development of commerce and markets.
- Developments in astronomy, mathematics and
navigational instruments.
12Other inventions
- The printing press by Gutenberg (1436) in
Flanders, provides access to books and reading
to a large number of persons, and stimulates
research on metallic alloys. - During Reformation (17th), frequent wars between
Catholics and Protestants in Europe ,encourages
the development of military surgery and
engineering. - Development of tools and of knowledge to build
fortifications, guns and canons.
13More
- Robert Boyle (1627-1691), with the help of Robert
Hooke, builds a pump that can make vacuum jar to
study the nature of air. - Boyles law mathematical formulas describing
mechanical properties of fluids and the
relationship between volume and pressure of
gases. - According to Westfall, there have not been so
important contributions in former centuries.
(1971, 113/114)
14Mechanisation
- An important point In this period, the study of
nature was mechanised and mathematised and there
arose a discontinuity between the views of
Aristotle and Newton. - Experimentation becomes an important aspect to
support theories and scientific laws.
15Formalisation of science
- The Royal Society of London created in 1662
- LAcadémie royale des sciences de Paris in 1666
- The Societas Regia Scientiarum of Berlin en 1700.
- Towards the end of the 18th c., a network of
academies reaches St-Petersburg, Stockholm,
Palermo, Dublin, and many other cities in Europe. - There are some 70 Academies built on the model of
the Royal Society and lAcadémie de Paris, in
Europe and America in the18th c. - The concept of the scientific journal, where men
in science publish their ideas and the results of
their research begins with these Societies and
Academies.
16Women
17Education of women in 17th C. in England
18What girls learn in the 17th c. in Europe
- Writing and reading, a little bit of arithmetics,
sewing, cooking, medicine, run a household,
accounting, agriculture (poorer classes) - Reading the Bible and Conduct books.
- Develop chastety, piety, humility, obeying.
- NO public life.
19What boys learn
- Greek and Latin, the classics
- Generally no science.
20Thomas Spratt (1635-1713)
- One of the first person to want to include
science in education programs in England - The History of the Royal Society of London, for
the Improving of Natural Knowledge (1667)
scientific writings help to understand the
natural world and to forge a new culture and
literary tradition. (Phillips, 1990, 28) - In the latter half of the 17th c. men in science
wrote in English, in a simple language, instead
of Latin.
21Thomas Spratt (1635-1713)
- This insured a wider public for understanding
scientific work. - Sprat did not include women in his mission, but
the new writings are more accessible for those
who can read, since most women did not learn
Latin.
22Jan Amos Comenius (1592-1670)
- Born Jan Amos Komensky, in Moravia, educated in
Heidelberg, he becomes a teacher and
ecclesiastic. - He had a major influence on school reforms in the
17 th c. in Europe and in England. - A group of English men, Samuel Hartlib
(1600?-1662), John Drury, and Robert Boyle
(1627-1691) invite Comenius to England to help
bring educational reforms.
23Jan Amos Comenius (1592-1670)
- Three volumes The Great Didactic, (1627 and
1654). - He is the first to conceive of a 'science of
education. - He believes in universal education and insists on
a global equality of the two sexes, that we
teach all to everyone.
24Jan Amos Comenius (1592-1670)
- Nor can any good reason be given why the weaker
sex should be altogether excluded from the
pursuit of knowledge (whether in Latin or in
their mother-tongue)....They are endowed with
equal sharpness of mind and capacity for
knowledge (often with more than the opposite sex)
and they are able to attain the highest
positions, since they have often been called by
God Himself to rule over nations ... to the study
of medicine and of other things which benefit the
human race.... Why, therefore, should we admit
them to the alphabet, and afterwards drive them
away from books? (Piaget, web site
http//www.ibe.unesco.org/publications/ThinkersPdf
/comeniuse.PDF, p. 9 from Comenius Chap. IX,
219-220 last accessed May 2009) -
25Anna Maria Van Shurmann (1607-1678)
- She knows many languages
- Mathematics, calculus, and astronomy.
- Poetry, rhetoric, dialectic and philosophy.
- In 1639, Dissertatio, de ingenii mulieribus ad
doctrinam, et meliores litteras aptitudine, on
the abilities of womens brain in science and
literature. (Disse,2008) - Van Schurmann firmly believed in equal
opportunities in education. - She listens to lectures at Utrecht University
behind a curtain.
26Anna Maria Van Shurmann (1607-1678)
- She is the best in Latin in her city
- She writes verses in 1636 for the inauguration of
the new university. - In 1659 she writes The Learned Maid or Whether a
Maid may be a Scholar. - She influences other women working for the
education of girls (Marie de Gournay, Bathsua
Makin). - But she does NOT fight for a public role of
women.
27Bathsua (Reginald) Makin (London 1600?-1676?)
- An Essay to Revive the Ancient Education of
Gentlewomen - In her school girls learn
- grammar, rhetoric, logic, herbs and medecine,
languages (Greek and Hebrew), mathematics,
geography, histoiry, music, peinting, poetry.
28Makin
- She invents a radiograph system, stenography in
many languages. - She earns her living and supports her large
family. - She is said to be the most learned woman in
England in the 17th c. , a title that de Gournay
also deserved in France in the preceding century.
29Bathsua
- Bathsua marries Richard Makin in 1620. She has at
least 9 children in 20 years, 6 survive. - She is responsible for all clothing, food,
medicine, etc.. - She opens her own school after the death of her
father in 1673. - She spoke 6 languages at 10 years old.
30The essay
- An Essay begins with an open letter to women
saying that they need education as much as men. - She suggests that many people will be opposed to
this principle, but says that educated women will
be better wives and will encourage their sons to
work harder in their training. - Makin says that women will be able to help their
husband with advice but that the latter will
retain all power of decision. (Makin, 1673, 1) -
31The essay
- A 2nd letter explains that the education of women
will benefit men too. (Makin, 1673, 2) - In a third letter, Makin pretends to be a man who
is against the idea that women be learned and
provides arguments for that case. (Makin, 1673,
2) - In her 4th letter, she refutes the arguments of
the 3rd letter. (Makin, 1673, 3)
32The essay
- She presents examples of brilliant women in arts,
languages, orators, philosophers,poets, strong
in logic and mathematics. (Makin, 1673, 3-15) - This refutes prejudices on womens abilities.
- She concludes that education is good for all
women (servants, spouses, widows, or single
women). - In the last part, she advertises her school for
girls. (http//www.pinn.net/sunshine/book-sum/mak
in1.html February 2007 Teague 1988)
33Makin heritage
- Bathsua Makin valorises education so that "women
earn their own living, manage their own affairs,
and defend their own homes. (Teague, 1998, 88) - Makin viewed an educated woman as one who could
act for herself and be independent. - This belief and the teaching of science and
mathematics to girls was quite a revolutionary
approach for the period. Makin's school for
girls and some of the other girls schools
followed this approach for almost two hundred
years. This later became a model for boys'
schools in the mid nineteenth Century.
34Other champions
- Marie Le Jars de Gournay (1565-1645)
- 1622 Egalite des hommes et des femmes Grief
des dames - Mary Astell (1668-1731) UK
35Astell
- In 1696, A Serious Proposal to the Ladies for
the Advancement of their True and Greatest
Interest. - She encourages women to develop their mind and
teaches them how to think clearly and logically. - But like Van Schurmann, Astell does not want
women to get public roles or to usurp the
authority of men, but to become better
christians.
36On marriage
- Astell condemns men who marry for money or
beauty. - She advises women not to marry for duty or to
escape misery and to make their decisions with
reason. - Astell reminds women that when they marry, they
become servants to their husband and that they
must obey, so to choose well. - She reminds them that they cannot ask, only
refuse, and that marriage seems more advantagous
for men, and that the world would be extinct
without them. (Waters, 2000, 43)