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
- Describe the place of the Earth in the Universe.
- Describe a scale model of the solar system and of the universe.
- Describe where humans fit into the history of the universe.
- Explain what is meant by the phrase "We are star stuff".
- Describe the motions of the Earth through the universe.
- 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).
- Describe and explain the apparent daily motions of the Sun, Moon,
planets and stars relative to the horizon.
- 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.
- Explain the reason for the seasons.
- Tell what astronomical cycles set the time intervals of day,
month and year.
- 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.
- Describe the development of the Copernican, Keplerian and
Newtonian models of the solar system.
- Describe how the Ptolemaic, Copernican and Keplerian models of the
solar system explain retrograde motion.
- State the nature of energy - the ability to do work.
- Describe the different types of energy: kinetic and potential.
Describe and apply the concept of conservation of energy.
- Describe the structure of an atom.
- Describe the relation between temperature and motion.
- Describe how energy is stored in atoms.
- Identify the concepts: velocity, acceleration, momentum, force,
and mass.
- Describe the cause-effect relation between force and motion
(Newton's law of motion). Illustrate it by simple concrete examples.
- Describe the relation between matter (mass), distance and
gravity (Newton's law of gravity).
- Describe the observational evidence for and against the
Ptolemaic, Copernican, Keplerian and Newtonian models of the solar system.
- Compare and contrast the Ptolemaic, Copernican, Keplerian, and
Newtonian models of planetary motion in terms of geometry, physics,
simplicity and prediction.
- Evaluate the impact of the Ptolemaic, Copernican, Keplerian
and Newtonian models of the solar system on our concept of the universe.
- Apply the theories of motion and gravity to explain astronomical
and everyday phenomena.
- Use Newton's version of Kepler's Third Law to determine the mass
of astronomical objects.
- Describe the ways in which light acts as a wave and as particles.
- 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.
- Describe how scientific thinking is similar to other everyday
thinking.
- 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