4. 1.Developmental psychology
2.Mythical and scientific thinking
3.Astronomy in different cultural environments
4.Astronomy for children ages 4 - 10
Information sources
Need to develope didactical materials
for different ages and cultural environments
Cosmic Africa
7. Mythical thinking is universal
Myths inspire, astonish and estimulate
observational skills Key element for
UNAWE and the preservation of own cultural
roots
UNAWE Objetives:
• Inspire children and awake their interest for science and technology
• Promote Earth citizenship and tolerance
• Show that we can interrogate nature by rational means
2. Mythical and scientific thinking
Scientific thinking can be learned
The search for causal relations and explanations:
hypothetical thinking, observations-experiments
and validation.
Venus transit 2004
UNAWE
8. The Moon seen with
Mythical eyes Scientific eyes
The Moon lab
10. First prototype 2005
UNAWE Box Cecilia Scorza
First version of the Handbook
(German 2011) Cecilia Scorza and
Natalie Fischer
Development of the Box
Contents
- Earth-Moon-Sun
- The Solar System
- The constellations
12. The Universe in the Box (2012)
Contents
Module 1: Moon-Earth-Sun
Module 2: The Solar System
Module 3: The constellations
Module 4: The life of stars
Module 5: Our home the Milky Way
Module 6: The Universe of galaxies
14. Concept & Educational
Development
Cecilia Scorza (EU-UNAWE Germany/House of Astronomy)
Project Management Pedro Russo (EU-UNAWE/Leiden University), Jaya
Ramchandani (UNAWE/Sirius Interactive)
Educational Support Natalie Fischer(EU-UNAWE Germany/House of Astronomy),
Sara Khalafinejad (UNAWE/Leiden University), Jos van den
Broek (Leiden University)
Business Development Jaya Ramchandani (UNAWE/Leiden University)
Editorial Support Erik Arends (UNAWE/Leiden University), Jaya Ramchandani
(UNAWE/Sirius Interactive)
Activity Contribution Angela Perez (UNAWE Colombia/Astronomy Kids Club),
Curion Education Pvt. Ltd. (India)
Prototype Production Curion Education Pvt. Ltd. (India)
Design Charlotte Provot (EU-UNAWE/Leiden University)
Design Support: Diti Kotecha (ditikotecha.com, Graphic
designer)
Web Support: John Pitsakis (clrblnd.com, Web designer and
Photographer)
Logo
Distribution
Nikki Hartomo (Design), David Kerkhoff (Font)
Abi Ashton
Credit List
The Universe in the box team
18. Islamic heritage astronomy kit:
„The journey of the ideas“
EU-project „EU-SPACE-AWARENESS“, Horizon 2020
UNAWE Marocco
Part 2
Cecilia Scorza, Hassane Darhmaoui and Rajae Saidi
19. Fill the gap of 1000 years of amnesia and recognize the contribution of the
Islamic civilization to the development of science
Salim Al-Hassani and Ian Fenn (2008)
„Salam Mu alekum“
21. We share a history … collaboration,
coexistence and tolerance
We share the night sky … Arabic names of
stars
We all need and use calendars to measure
time
We are all Earth citizens and should
contribute to work together for the benefit of
DIDACTICAL APPROACH
ISLAMIC HERITAGE ASTRONOMY KIT
Educational messages through the
“Journey of Ideas”
22. Contents
1. The roads of knowledge.
Example of the house of wisdom in Bagdad
2.The first university of the World founded by a
woman (Fatima´s Muhammad Al-Fihri story)
3.Observing the Sun and the Moon
(Time – Calendar / Cardinal directions)
4.The astronomer Al-Sufi: Observing and naming the stars /
Measuring positions
Coordinate system (Zenith / Nadir)
5. The physicist Alhazen and his works on optic.
Camara obscura and the eye (vision)
6.The life of the brightest stars: Linking Al-Sufi´s
work with modern astronomy
7.Islamic countries striving against Earth warming
Climate box
23. CONCEPT: JOURNEY OF IDEAS
ISLAMIC HERITAGE ASTRONOMY KIT
HOUSE OF
WISDOM
(BAHGDAD)
AL QARAWIYYIN
UNIVERSITY
24. CONCEPT: JOURNEY OF IDEAS
ISLAMIC HERITAGE ASTRONOMY KIT
Fatima Al Fihri
founder of the
Qarawiyyin
University, Fez,
Morocco, 9th
century
Four Muslim Scientists/Figures for the kit
Meriam Al Ijlilia Al
Austaurlabi, 10th
century ,Aleppo,
Syria. She was a
famous scientist
who designed and
constructed
astrolabes.
Abd al-Rahman al-Sufi
(902-960), Rey, Iran. He
identified the Large
Magellan Cloud, which
is visible from Yemen.
He also made the
earliest recorded
observation of the
Andromeda galaxy in
964.
Ibn Al Haytham
(Alhazen, 965-1040),
Basra, Iraq. He is
considered as one of the
most influential
scientists of all time.
Referred to as the father
of experimental physics
and modern optics and
scientific methodology.
25. Islamic Heritage Toolkit
•Islam and its influence on the development of science
•Using history of science for cultural convergence
Alhazen (965-1040 AD)
Book of Optics
Scientific method!
Experiments with
lenses and mirrors
Great
influence on
Roger Bacon, da
Vinci, Galileo,
Huygens,
Descartes and
Kepler!
Booklet for the teachers/students
26.
27. He identified the Large Magellanic
Cloud, which is visible from Yemen; it
was not seen by Europeans until
Magellan's voyage in the 16th century.
He also made the earliest recorded
observation of the Andromeda galaxy in
964 AD; describing it as a "small cloud".
He observed and described the
stars, their positions, their
magnitude and their colour, setting
out his results constellation by
constellation.
Islamic Heritage Toolkit
•Astronomical and cultural approach: We share history
Al-Sufi
(902-960 AD)
28. First activities of the Islamic heritage kit:
The arabic star names, their meanings and pronunciation
29. The kit/Astronomical and cultural approach: We share the sky
ISLAMIC HERITAGE ASTRONOMY KIT
Cultural “fusion“: Greek constellations and the arabic names of the stars
• Foster the development of scientific thinking
• Emphasize that science is cultural independant
30. Islamic Heritage Toolkit
The moon in our lifes: The islamic and western calender
Ramadan
Build telescopes to observe the
Moon
32. Our fragile planet
• generate awareness for environmental challenges of the Earth
• climate change
• role of satellite observations
• comparison with other planets (solar system and extrasolar)
34. • experience with developing educational resources
• Scientix award winning
“Universe in a box”
• Example: Infrared Box
Educational resources
35. • comprehensive educational kit
• covers a wide range of topics:
→ the astronomical perspective: habitable zone
→ Solar system: The evolution of Venus – Earth – Mars
→ Weather phenomena
→ Climate (zones, variations, atmospheric and marine influences)
→ Climate change (natural and manmade)
→ What can we do?
The Facts
36. • comprehensive educational kit
• covers a wide range of topics:
→ weather phenomena
→ climate (zones, variations, atmospheric and marine influences)
→ climate change (natural and manmade)
→ chances of mitigation (What can I do?)
→ the astronomical perspective: habitable zone
→ Solar system: Venus – Earth – Mars
The Facts
37. • some 20 experiments and activities
• enquiry based where suitable
• age range from 10 to 16 years
• comes with a comprehensive manual (scientific background)
• based on latest scientific research
The Didactics
Editor's Notes
To answer these questions, we first need to understand the way in which children acquire scientific knowledge. Some development psychologists have hypothesised that young children form naïve theories about the Earth based on what they witness: The world around them appears flat and objects need a surface to stand on, therefore the Earth is flat and supported [1,2]. Proponents of this hypothesis, such as Stella Vosniadou and William Brewer, say that counter-intuitive scientific theories are difficult for young children to accept and that the role of educators is to challenge these naïve theories. They argue that scientific explanations about how the Universe works can only be introduced at a later stage of a child’s education (around 10 years old), once they become aware that their naïve theories are wrong.
However, there is a growing body of work that disputes this hypothesis, claiming that children are “theory neutral”. In these studies, development psychologists argue that children build-up a picture of the Earth in a fragmented fashion and there are no strong intuitions and misconceptions to overcome [3,4,5]. Therefore, children can gradually learn and accept scientific explanations of the world around them from a young age.
One of the proponents of the fragmented model, Dr Georgia Panagiotaki, a lecturer in Developmental Psychology at the University of East Anglia in the UK, says that children as young as four years old are able to understand basic scientific ideas. “Even though children are often not able to explain their ideas in great detail, scientific information and facts can be present from early on,” Panagiotaki told UNAWE. “And children benefit enormously for appropriate instruction and educational activities aimed at teaching them basic facts.”.
“[This is] when children’s brains are developing most rapidly, and the basis for their cognitive, social and emotional development is being formed,” the report states.
Our fragile planet: related to European earth observation programme „Copernicus“, largely dependent on „Sentinel“ satellite fleet.
We are the House of Astronomy!
our expertise
The climate box, topics in more detail, logical sequence of topics: from local properties (weather) to global, long period phenomena (climate), the dynamic system (change).
Try to suggest ways out of the looming desaster. „There is light at the end of the tunnel. We just have to swtch it on!“
The dinosaurs didn‘t see it coming. What is our excuse?
Habitable zone in the solar system and in exosystems. Why are Venus, Earth and Mars so different?
the educational details
Examples: Bottle -> model of greenhouse effect
Earth marbles -> albedo, greenhouse effect (Attention! There has been some discussion about how suitable it is for Space Awareness purposes. Reason: Resources should be cheap and easily reproducible for everybody all over the world. Manufacturing the aluminium balls does not follow that line.)