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The SUPERCOMET Project – developing new educational material for upper secondary physics Vegard Engstrøm, M.Sc. Lars Meisingseth Sara Ciapparelli [email protected] Simplicatus AS ITC ’Enrico Tosi’ SUPERCOMET project • SUPERCOnductivity Multimedia Educational Tool • • • • • • • Computer application + teacher guide/seminar From December 2001 to June/December 2004 € 650 000 budget, 75% support from EU LdV 3 universities (Trondheim, London, Ljubljana) 2 upper secondary schools (Trondh., Busto A.) 1 scientific publishing house (Zanichelli Ed.) 1 science communication company SUPERCOMET, MPTL 8, 2003-09-15 Page 2 SUPERCOMET II • Follow-up project 2004-2007 • Dissemination, further development • Partners in 15-20 countries – Teacher education institutions (develop and adapt teacher seminar + teacher guide) – Secondary schools (develop application contents, classroom testing, seminar testing) SUPERCOMET, MPTL 8, 2003-09-15 Page 3 SUPERCOMET products • Computer application – CD-ROM or download, SCORM compatible modules – Produced by Simplicatus AS • Teacher guide – Booklet with 30-40 pages per language – Published by Zanichelli Editore, Spa • Teacher seminar – 8 hours in-service training – Developed and tested by University of Ljubljana • 4 languages (English, Italian, Norwegian, Slovene) SUPERCOMET, MPTL 8, 2003-09-15 Page 4 Physics curricula • Superconductivity not mentioned at all • Understanding superconductivity requires concepts from many topics: – Energy conversion, heat and temperature – Particle model of matter, solid state physics – Electricity – Magnetism – Mechanics SUPERCOMET, MPTL 8, 2003-09-15 Page 5 Computer application • Modules with selected curriculum topics • Superconductivity - history and applications • Interactive animations enhance understanding • Virtual Laboratories let pupils experiment • Scenarios let pupils take on different roles • Electronic version of teacher guide • Search engine, quizzes, glossary, FAQ, tip box • Links to web resources and literature references SUPERCOMET, MPTL 8, 2003-09-15 Page 6 Teacher guide • Technical information for the CD-ROM • Connection with national curricula • Motivation for choosing superconductivity • Pedagogical aspects of using ICT • Overview of physics/superconductivity modules • Overview of virtual laboratories and scenarios • Sample lessons SUPERCOMET, MPTL 8, 2003-09-15 Page 7 Teacher seminar • Get acquainted with computer application • Introduction to and motivation for choosing superconductivity • Pedagogical aspects and motivation for using ICT in physics teaching • Demonstrations, a sample lesson SUPERCOMET, MPTL 8, 2003-09-15 Page 8 1933: Meissner effect Superconductors have two remarkable attributes. One is the ability to conduct electric current with zero resistance. This was discovered by H. K. Onnes in 1911. The other ability has to do with magnetic fields, and was discovered in 1933 by Walter Meissner and Robert Ochsenfeld in Germany. When a material becomes superconducting, it ejects any magnetic field lines that would normally go straight through it. We say that it has zero magnetic permeability. Ferromagnetic materials, like iron, have very high magnetic permeability. Magnetic field lines can be packed closely in iron in order to make it a powerful magnet. The Meissner effect is exactly the opposite of ferromagnetism – a superconductor with no magnetic field is practically “anti-magnetic” – it will be repelled by a magnet no matter what pole that faces the superconductor, unlike any other material. Hence a superconductor exhibits perfect diamagnetism. Year 1900 1920 1933 1940 1960 1980 2000 T(K) 273 160 HgBaCaCuO 1993 & 1994 140 120 TlBaCaCuO 1988 100 = under pressure Y BCO (LBCO) 1987 80 HTS 60 40 20 1900 Nb NbN Hg Pb 1911 1920 19?? 19?? 1940 Nb3Ge 19?? Nb3Sn 19?? 1960 LaBaCuo 1986 1980 2000 Year 1 Scenario Overview: Energy Crisis Scenario description Choose goals Research Documentation Discussion/Presentation Choose your role Please read about all the different phases of the scenario work before you start doing the research. The journalist The journalist communicates information and news through media like the radio, television, newspapers or the Internet. The work involves getting information from people from all layers of society, as well as seeking out events to describe them. Written sources are used to collect background material and information. The journalist analyses the information at hand and highlights the aspects of a case the recipients find interesting. Today, mass media play an important part in society. The value of information has increased drastically in the last decades. The way a journalist chooses to describe a case can have a huge impact on peoples’ opinion. Computer application Interactive (learning by doing) Animated (better understanding of concepts) Differentiated (designed for different cultures) Relevant (to syllabus/curriculum topics) Motivating (physics has developed) Meaningful (everyone should learn something) SUPERCOMET, MPTL 8, 2003-09-15 Page 13 Learning aims • Theory • Uses is related to evidence of physics phenomena • Technological implications of discovery • Communicate scientific ideas • Relationship between physics and everyday life • Connections between fields of physics • The process of gaining new scientific data SUPERCOMET, MPTL 8, 2003-09-15 Page 14 Physics curricula • School curricula focus on ”ancient physics” – Newton, Kepler, Bernoulli, Einstein, Planck • Little connection between different topics: – e.g. mechanics and electricity – e.g. thermophysics and mechanics • SUPERCOMET explores the connections – between subject areas themselves – between subject areas and superconductivity SUPERCOMET, MPTL 8, 2003-09-15 Page 15 Superconductivity • Prime example of contemporary physics • Connects with all parts of the curriculum • HTS time scale lifetime of the students – High Temperature Superconductivity disc. in 1986 – Organic Superconductors discovered in 1979 – Low Temperature Superconductivity disc. in 1911 • Many useful applications today – Industry, medicine, transportation Exciting future! 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