ISP 205,   Section 3,   Spring 2004,   Prof. Stein
 
UNIT I: THE SKY

SYLLABUS


Date                             Topic                    Reading Assignment

Monday, Jan. 12 Introduction Chapter 1 Our Place in the Universe Wednesday, Jan. 14 Appearance of the sky Chapter 2 A-L: Planetarium: Locating bright stars and Appendix F2 constellations using star maps Appendix J Motions of the Sun, Moon, Stars Chapter 2 daily, monthly, and annual sections 2.2, 2.6 M-Z: In Class The Moon: phases & eclipses section 2.5 Seasons section 2.3 Homework #1, due Wednesday Jan. 21 Monday, Jan.19 NO CLASS Wednesday, Jan. 21 M-Z: Planetarium: Locating bright stars and Appendix F2 constellations using star maps Appendix J Motions of the Sun, Moon, Stars Chapter 2 daily, monthly, and annual sections 2.2, 2.6 A-L: In Class The Moon: phases & eclipses section 2.5 Seasons section 2.3 Homework #1, due NOW Homework #2, due Wednesday, Jan. 28 Moon Project begins, due Wednesday, Feb. 18 Monday, Jan. 26 Models of the Solar System Chapter 3 Ptolemaic Geocentric model section 3.3 Copernican Heliocentric model section 3.4 Testing the models: parallax section 3.4 Galileo, Tycho Brahe Kepler's Model section 3.4 Science is Problem Solving section 3.5 Wednesday, Jan. 28 Energy> chapter 4 kinetic and potential energy section 4.1, 4.2 conservation of energy section 4.2 E = m c 2 section 4.2 Motion and Gravity chapter 5 Motion, Velocity and Acceleration section 5.1 Force and mass section 5.1 Newton's Law of Motion: section 5.2 Acceleration = Force / Mass Homework #2, due NOW Homework #3, due Wednesday, Feb. 4 Monday, Feb. 2 Newton;s Law of Motion (continued) Newton's Law of Gravity: section 5.3 Force of Gravity = G M m / R2 Kepler's laws explained section 5.3 Wednesday, Feb. 4 Light and Matter Chapter 6 How do we learn about the universe? By analyzing the light we receive. Light is an electromagnetic wave section 6.2 with frequency(f), period(P), & wavelength(lambda) f = 1/P, lambda = cP = c/f Light is a stream of photons section 6.2 with frequency(f),energy(e), and wavelength ephoton=hf=hc/lambda Spectrum of light Figure 6.6 Atoms - nucleus orbited by electrons section 4.3, 4.4 Homework #3, due NOW Homework #4, due Monday, Feb. 9 Monday, Feb. 9 Quiz 1: (Warm-up for Exam 1) Chapters 1-6 Review Chapters 1-6 Homework #4, due NOW Wednesday, Feb. 11 Mid Term Exam #1 Chapters 1-6

UNIT I: THE SKY

OBJECTIVES

  1. Describe the place of the Earth in the Universe.
  2. Describe a scale model of the solar system and of the universe.
  3. Describe where humans fit into the history of the universe.
  4. Explain what is meant by the phrase "We are star stuff".
  5. Describe the motions of the Earth through the universe.
  6. Become familiar with the night sky: the bright stars and their constellations, the planets and the Moon. Learn to locate them in the sky (and on a sky map).
  7. Describe and explain the apparent daily motions of the Sun, Moon, planets and stars relative to the horizon.
  8. Describe and explain the apparent and real daily, monthly and annual motions of the Sun, Moon and planets with respect to the stars. Describe retrograde motion.
  9. Explain the reason for the seasons.
  10. Tell what astronomical cycles set the time intervals of day, month and year.
  11. Relate the phases of the Moon and eclipses of the Sun and Moon, to the location and motion of the moon with respect to the Sun and Earth.
  12. Describe the development of the Copernican, Keplerian and Newtonian models of the solar system.
  13. Describe how the Ptolemaic, Copernican and Keplerian models of the solar system explain retrograde motion.
  14. State the nature of energy - the ability to do work.
  15. Describe the different types of energy: kinetic and potential. Describe and apply the concept of conservation of energy.
  16. Describe the structure of an atom.
  17. Describe the relation between temperature and motion.
  18. Describe how energy is stored in atoms.
  19. Identify the concepts: velocity, acceleration, momentum, force, and mass.
  20. Describe the cause-effect relation between force and motion (Newton's law of motion). Illustrate it by simple concrete examples.
  21. Describe the relation between matter (mass), distance and gravity (Newton's law of gravity).
  22. Describe the observational evidence for and against the Ptolemaic, Copernican, Keplerian and Newtonian models of the solar system.
  23. Compare and contrast the Ptolemaic, Copernican, Keplerian, and Newtonian models of planetary motion in terms of geometry, physics, simplicity and prediction.
  24. Evaluate the impact of the Ptolemaic, Copernican, Keplerian and Newtonian models of the solar system on our concept of the universe.
  25. Apply the theories of motion and gravity to explain astronomical and everyday phenomena.
  26. Use Newton's version of Kepler's Third Law to determine the mass of astronomical objects.
  27. Describe the ways in which light acts as a wave and as particles.
  28. Describe the types of light in the electromagnetic spectrum and the relation between type of light, wavelength, photon energy and temperature of the source of the light.
  29. Describe how scientific thinking is similar to other everyday thinking.
  30. Learn to distinguish "good" from "bad" science.


Updated: 2004.01.12 (Monday) 09:49:24 EST
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Visions of the Universe

Bob Stein's home page, email: steinr@msu.edu