Please be advised that NSCI
181, “Light and Color” will be offered in the spring 2004 semester, and NSCI
182, “Acoustics” will not be offered this academic year.
CRN |
93278 |
Distribution |
E/G |
Course
No. |
NSCI 108 |
||
Title |
It's
in the Genes |
||
Professor |
Michael Tibbetts |
||
Schedule |
Tu Th 3:00 pm - 5:00 pm ROSE
108 |
"It's in the genes" is a frequently used
phrase when talking about a host of traits, including alcoholism and criminal
behavior. This course will attempt to
help students understand what it means to say something as complex as
alcoholism or intelligence is in the genes.
We will examine the cases for schizophrenia, alcoholism and diabetes as
a means of illustrating the difficulty of determining the relative roles of
genetics and the environment in determining ones’ predisposition to complex diseases. This will require some discussion of topics in Mendelian
genetics, population genetics and quantitative genetics. Simple computer programs and fruit flies
will be used as laboratory model systems for understanding basic concepts in
these areas. The course will culminate
in a critical analysis of excerpts from The Bell Curve, a controversial book
published in 1994 that uses statistics to claim a significant, genetically
determined, difference in intelligence between white and black Americans.
CRN |
93208 |
Distribution |
E/G |
Course
No. |
NSCI 121 |
||
Title |
Environment
& Disease |
||
Professor |
Michael Tibbetts |
||
Schedule |
Tu Th 1:30 pm - 2:50 pm HEG
201 Wed
1:30 pm - 4:20 pm ROSE 306 |
Cross-listed: Environmental Studies
This course is intended for students who are
interested in science but undecided about majoring in the sciences. It will cover four major topics - global
warming and malaria, persistent organic pollutants, ozone depletion and skin
cancer, and biodiversity loss and Lyme disease - from multiple
perspectives. Faculty from each program
within the division - Biology, Chemistry, Physics, Mathematics, and Computer Science
- will participate in the course providing for an integrated scientific
understanding of the topics. In
addition, the laboratories will provide students with hands-on experiences in
manipulating living organisms, computer modeling and statistical analysis. It is expected that students enrolled in
this course will have had high school level biology, chemistry, physics and
pre-calculus or their equivalent.
CRN |
93209 |
Distribution |
E/G |
Course
No. |
NSCI 123 Q course |
||
Title |
Energy,
Entropy & Information |
||
Professor |
Hilton Weiss |
||
Schedule |
Mon Wed 1:30 pm - 3:30 pm HEG 201 |
This course gives an introduction to the concepts
of energy and entropy and their applications in the sciences. This entails a semi-quantitative consideration
of the factors that govern energy conversion and utilization, and that predict
the feasibility of all physical, chemical and biological events. The goal of the course is to develop an
intuitive understanding of entropy and its universal implications. Connections to information theory and
communication theory will be developed and the use of these as models for
evaluating and understanding non-verbal communication will be discussed. Class
attendance is required.
CRN |
93210 |
Distribution |
E/G |
Course
No. |
NSCI 133 |
||
Title |
Introduction
to the Earth Sciences |
||
Professor |
Karen Ricciardi |
||
Schedule |
Mon Wed 3:00 pm - 4:20 pm HEG 106 |
Cross-listed: Environmental Studies
Knowledge about the earth's physical processes is
necessary for understanding the changing environment in which we live. This course presents many of the broad
concepts and fundamental principles of earth science and their applications to
environmental study. The main focus of
this course will be to examine active processes of the solid earth. Topics
included will come from geologic sciences such as mineralogy, sedimentology,
hydrology, plate tectonics, volcanology and seismology. The latter part of the course will consist
of an overview of topics in atmospheric, oceanic and planetary studies. This will introduce students to the
scientific principles that influence our planet, its rock, mountains,
atmosphere and oceans. There will be
three field trips throughout the semester to be scheduled on Saturdays.
CRN |
93211 |
Distribution |
E/G |
Course
No. |
NSCI 135 Q course |
||
Title |
Curious
Cooks |
||
Professor |
Simeen Sattar |
||
Schedule |
Mon Wed 1:30 pm - 3:30 pm ROSE 108 |
Why does broccoli turn
bright green when it is dropped into boiling water? Does the order of mixing
flour, water and butter when making pie crust matter? When is it necessary to preheat an oven? Why does bloom form on chocolate? Why are
the color and texture of fish and beef so different? Answers to these questions
derive from an understanding of the chemical and physical properties of the
molecules that constitute food, the biology of the plants and animals, and
effects of processes such as kneading, beating, and heating. This course begins with a science primer and
proceeds to an examination of different foods and their preparation.
Experiments are integrated throughout the class. It is hoped that students
completing this course will view cookery from a scientific perspective.
CRN |
93212 |
Distribution |
E/G |
Course
No. |
NSCI 140 Q course |
||
Title |
Forensic
Chemistry |
||
Professor |
Craig Anderson |
||
Schedule |
Wed Fr 10:00 am - 11:20 am ALBEE 106 Fr 11:30 am - 1:00 pm HEG
204 |
This course will use a laboratory approach to
explore topics in forensic science. The main focus will therefore be on
learning and applying laboratory techniques and examining how they work. We will begin with simple experiments and
move up to using state-of-the-art instrumentation. All necessary and relevant chemistry concerning structure,
bonding, and reactivity will be covered, as no chemistry background is
required. Analysis of trace evidence such as heavy metals, glass, and fibers
are discussed through the basic concepts of chemistry, biology, and physics.
Characterization of blood and other body fluids is applied to the analysis of
alcohol, poisons, and drugs based upon principles of organic and analytical
chemistry, and biochemistry. The laboratory provides an opportunity to learn
forensic techniques such as chromatography (for ink and drug analysis, and
separating mixtures), spectroscopy (for alcohol and drug analysis), and
electrophoresis (for DNA fingerprinting). Authentic case studies will be
presented.
CRN |
93213 |
Distribution |
A/E |
Course
No. |
NSCI 162 |
||
Title |
Cosmology |
||
Professor |
Peter Skiff |
||
Schedule |
Tu Th 1:30 pm - 2:50 pm HEG
102 |
The course will be a descriptive review of the
astrophysical theories of the origin and development of the early universe. The
“standard model”, the so-called “big bang theory” will be examined in detail,
with attendant evidence and theories of particles, fields, energy and entropy,
and space-time geometry. Current models of supernovae, quasars, black and white
holes, dark matter, quantum foam, and recent alternative models of super
symmetry and superstrings will be reviewed. Various historical notions of time,
space, matter, and cause will frame the discussions. No prior experience in
collegiate science is required. This course can be taken for distribution
credit in science, but does not meet the requirement for computational or
laboratory experience.
CRN |
93214 |
Distribution |
A/E |
Course
No. |
NSCI 222 |
||
Title |
Physical
Science before Newton |
||
Professor |
Peter Skiff |
||
Schedule |
Tu Th 3:30 pm - 5:00 pm HEG
102 |
Cross-listed:
History and Philosophy of Science
Related
interest: Classical Studies
An introduction to the history and philosophy of
science. T. S. Kuhn's model of historical progress will be used to examine
selected parts of discourses involving pre‑Socratic philosophy,
mythology, Copernican astronomy, Galileo's trial, and Newton's philosophy. A
critique of method will introduce modern historiographic and philosophic
controversy, which will continue in the sequel courses, Natural Science 223 and
304. Designed as a core course for studies in history, philosophy, and
sociology of science; no prior mathematical or technical expertise will be
presumed at this level. Readings include excerpts from the Enuma Elish, the
Milesians, Pythagoras, Heraclitus, Plato, Aristotle, Ptolemy, Copernicus,
Kepler, Galileo, and Newton. Secondary commentary by Nahm, Butterfield, Kuhn,
Munitz, and others. No prior mathematical or technical expertise will be
presumed at this level.