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Connections to the SA Curriculum, Standards and Accountability Framework Strand: Earth and Space Standard Curriculum Requirement Outcomes/ Key Ideas SkyWatch “MirrorDome” Programme/s 1.2 (R-Year 2) Outcomes: Compares the apparent position of the sun to patterns of behaviour in everyday life Key Ideas: Children identify sequences and cycles of natural events which are connected to their daily lives Planetarium programme showing earth’s orbit, changes in apparent position of the sun, shadows, reasons for day and night, etc. Point-source of light and model sun and earth Multimedia presentation: “Earth’s Wild Ride” Shadow sticks (or own shadow); length and direction of shadow throughout the day Time and position of sunrise, sunset Telescope and binocular viewing night Our closest star (the sun) gives us light and warmth. The sun dries up puddles, makes clouds and rain. Why don’t we see other stars in the daytime? Light and darkness. Games with shadows. What’s in the day sky? What’s in the night sky? Dot-to-dot pictures with stars (constellations). For every star picture there is an ancient story. 2.2 (Years 34) Outcomes: Explores the apparent position of the sun and develops models of their understanding Key Ideas: (Primary Years Band) Students use information and communication technologies and a variety of other resources to develop their own explanations about the relationship between the earth, sun and moon Multimedia presentation: “Earth’s Wild Ride” Planetarium programme, including constellations and intro to Indigenous astronomy “Solar System”: an interactive orrery model of the solar system showing orbits and relationships of the planets and the sun Point-source of light and sun/earth/moon models Sundial models** and shadow sticks to show “motion” of sun Slide show- solar system objects Use of “Earth Space Simulator” (ESS)* Telescope and binocular viewing night Day-time viewing of planets, moon Solar viewing: projected image Planet Earth: our ball-shaped space ship! Our Space Ship is spinning. How quickly? Night and day. Space “mirrors”: why we can see the moon and planets. Why do we see different shapes of the moon? Every star is a sun. What are stars made out of? Why do very big stars look smaller than the sun? Constellations and planets in tonight’s sky. Star myths and stories: various cultures. 3.2 (Years 56) Outcomes: Describes the various components of the solar system and the effects of these on our everyday lives Key Ideas: (as above) Multimedia presentation: “Earth’s Wild Ride” Planetarium programme, including constellations and Indigenous astronomy, planets, solar system objects and orbits. Apparent movement of the stars throughout the night and seasons “Solar System”: an interactive orrery model of the solar system showing orbits and relationships of the planets and the sun Point-source of light and sun/earth/moon models: reasons for the seasons and lunar phases As for 2.2 (above), but at age-appropriate level Solar viewing: projected image, narrow-band filters, etc Activity sheets for viewing and mapping position of major constellations Construction of analemma ** (to show position of the sun at different times of the year) Construction of solar system model to scale Direction to and use of appropriate Internet sites The hourly movement of the Sun and stars. Comparable sizes. Effects of gravity. How much would I weigh on different planets? On the Moon? Earth’s orbit around the Sun. The Moon’s orbit around the Earth. Eclipses. The Poles, the Equator, Earth’s axis. Seasonal stars and constellations. Constellations, planets and tonight’s sky. The other planets: orbits and time for a “year”. What are the planets made of? Could I land on Jupiter? How many “years” old would I be if I lived on other planets? How long would it take to travel there? The Ecliptic and Zodiac constellations. Other Activities (examples) Ideas and Questions Connections to the SA Curriculum, Standards and Accountability Framework Strand: Earth and Space Standard Curriculum Requirement Outcomes/ Key Ideas SkyWatch “MirrorDome” Programme/s Other Activities (examples) Ideas and Questions 4.2 (Year 7-8) Outcomes: Investigates and analyses astronomical features and changes as seen from earth and debates the ways scientists examine and explain these Key Ideas: (Middle Year Band) Students select and use observational instruments and digital and electronics technologies to develop understandings about structures and events in the universe. They appraise, and share opinions about, the ethics of space exploration Multimedia presentation/s: applicable 20 minute programmes include “Earth’s Wild Ride”, “Oasis in Space” (includes “Big Bang” model, and star formation and life-cycle), and “Ring World”: the story of the Cassini mission to Saturn Planetarium programme, “Stellarium” showing solar system objects and their orbits and relationships, star patterns and deep-space objects such as galaxies, nebulas, star clusters, etc “Solar System”: an interactive orrery model of the solar system showing orbits and relationships of the planets and the sun “Celestia” programme, including virtual tours of solar system and deep space objects As for 3.2 (above), but at age-appropriate level PowerPoint presentation: solar system and “deep space” objects, including nebulas, star clusters and galaxies “Hands-on” introduction to different telescope types Construction of basic telescopes** Viewing night, including use of a variety of telescopes (including manually operated and computer controlled) and binoculars Use of star charts to find planets and constellations Solar system modelling** Activity sheets for information on planets and Solar System bodies, tracking moon and planets Use of internet resources and star charts to identify man-made satellites and their orbits “Hubble Space Telescope” video and/or PowerPoint presentations of Hubble findings Distances and sizes: light years and giant stars. How are distances to stars worked out? Parallax. Why are some bodies covered in craters? Why not the Earth? The Southern Cross as a compass, and a clock. Characteristics of the planets and other solar system bodies (moons, asteroids, comets…) Why is Pluto now called a “dwarf planet”? Exo-planets and other solar systems. Galaxies and “deep-space” objects. Star-birth, nebulas, star clusters. Recent discoveries by satellites and space probes. Origins of the Zodiac. The use of stars and constellations as seasonal calendars. Tides. Summer and winter solstice, equinox. Eclipses: solar; partial, total and lunar; umbral, penumbral. Seasonal considerations for architecture: elevation and angles of the sun throughout the year. Measuring the sky: degrees, minutes and seconds, Right Ascension (RA) and Declination Connections to the SA Curriculum, Standards and Accountability Framework Strand: Earth and Space Standard Curriculum Requirement Outcomes/ Key Ideas SkyWatch “MirrorDome” Programme/s Other Activities (examples) Ideas and Questions 5.2 (Year 910) Outcomes: Critically examines theories of astronomy and how they contribute to our understanding about the universe, and articulates personal theoretical preferences Key Ideas: Students explore and report on the structure and evolution of the universe, using a variety of resources including information and communication technologies As above (4.2), plus: As for 4.2 (above), but at age-appropriate level Activity sheets for estimating solar system and interstellar distances and sizes and effects of gravity Construction of different types of sundials and analemmas.** Exploration of models of star formation, including activity sheets for photographic investigation of colours of stars: star trails Use of spectrometer/spectroscope* * Doppler effect and redshift of galaxies Universe expansion model (“balloon”), “supernova” model Hertzprung/Russell diagram Solar system models including “Powers of Ten” simulation Astronomical “hoaxes”: Did astronauts get to the moon? The “Face on Mars”. The “non-science” of astrology. Theories of Universe formation and age of the Universe: “Big Bang”, “Steady State”, “Creation” Life-cycle of stars: how do they work? How are elements “manufactured” in stars? Galaxy formation and macro structures in the universe. short simulations of formation of structure in the Universe, galaxy formation and merger, and an accretion disk Notes: 1. 2. * “Earth Space Simulator” – Including demonstration and instruction for students’ use. For more information, see http://www.pipehenge.com/new/index.html (ESS models can be sourced for schools) ** Construction projects are suggestions, and will require advance booking to enable sourcing of appropriate materials. Contact: Dean Davidson SkyWatch Astronomy Education 40 Kauri Parade Seacliff SA 5049 Ph: (08) 8298 6523 Mob: 0413 039 477 Email: [email protected]